Among a range of factors leading to a wave of tech sector layoffs in 2026 is the rapid rise of artificial intelligence and automation. Companies are reconfiguring their workforces to leverage AI for increased efficiency and reduced operating costs. This realignment and reduction is implemented even by companies reporting strong financial performance.

But it’s not just AI leading to workforce cuts. Complementing this technological shift are ongoing economic uncertainty, inflation, and higher interest rates, compounded by a chip shortage and rising energy costs. This mix is driving companies to cut costs and streamline operations for increased efficiency.

According to data compiled by Layoffs.fyi, an online tracker that keep tabs on job losses in the technology sector, 123,941 tech employees were laid off at 269 companies in 2025. The site also reports that 71,981 government employees were laid off by DOGE alone, with 182,528 total federal workers laid off.

Here is a list — to be updated regularly — of some of the most prominent technology layoffs the industry has experienced recently.

Notable tech layoffs in 2026

• Monday.com
• Microsoft
• Meta
• Cisco
• Cloudflare
• Oracle
• Atlassian
• Salesforce
• Amazon
• Ericsson

July 22, 2026: Monday.com cuts 20% of its workforce to restructure for the AI era

The company says the decision to cut 620 jobs isn’t about margins, but about creating a flatter organization built around AI agents, autonomous teams, and deeper customer engagement.

July 6, 2026: Microsoft cuts 4,800 jobs, primarily in sales and Xbox teams

As the company trims thousands of jobs, it’s also investing in embedded engineering teams and AI infrastructure. The layoffs come several weeks after the company offered 8,750 US employees voluntary retirement buyouts.

June 5, 2026: Tech industry cut 38,242 jobs in May, worst since 2024

AI was blamed for 40% of the job cuts in May, up from 7% in January, according to research by employment placement company Challenger, Gray & Christmas.

May 20, 2026: Meta cuts 8,000 jobs, around 10% of workforce

The cuts are expected to expected to hit Meta’s engineering and product teams the hardest, arriving as Meta pivots toward AI to boost efficiency across its organization, according to Yahoo Tech.

May 13, 2026: Cisco to cut nearly 4,000 jobs despite strong growth in AI, enterprise networking

Despite reporting positive financial news — including record third-quarter revenue of $15.8 billion, a 12% year-over-year increase — Cisco said it will eliminate almost 4,000 jobs.

May 7, 2026: Cloudflare to cut 1,100 jobs in AI-focused restructuring

About 20% of Cloudflare’s global workforce will be culled as the company pivots for the agentic AI era, Reuters reported.

April 1, 2026: Oracle to cut up to 30,000 jobs globally, putting enterprise support and roadmaps at risk

Oracle began laying off employees on March 31 in what could be the largest workforce reduction in the company’s history. Employees received termination emails at 6 a.m. local time with immediate system lockouts and no prior warning. (Note: in June, CNBC put the final layoff tally at 21,000.)

March 12, 2026: Atlassian cuts 1,600 jobs to fund AI and enterprise expansion

Atlassian will reduce its global workforce by approximately 10%, eliminating around 1,600 roles, as the collaboration software maker redirects capital toward artificial intelligence development and enterprise sales.

March 11, 2026: Tech layoffs surpass 45,000 in early 2026

A recent analysis by RationalFX found 45,363 job cuts globally so far this year—with roughly 68% or more than 30,000 occurring in the U.S. — highlighting ongoing workforce cuts even as many tech companies report strong revenue growth.

February 10, 2026: Salesforce lays off staffers as executive leadership churn continues

Salesforce has reduced close to 1,000 roles earlier this month across teams, including marketing, product management, data analytics, and its Agentforce AI unit, Business Insider reported, quoting employees familiar with the matter.

January 23, 2026: Amazon layoffs expected to disproportionately hit AWS and tech talent

As the market slows down, AWS and other Amazon units are preparing for another round of layoffs, which is expected to overwhelmingly impact tech talent. An email from HR leader Beth Galetti on Jan. 28 confirmed 16,000 job cuts.

January 15, 2026: Ericsson plans to shed 1,600 jobs in Sweden

 Ericsson lans to cut some 1,600 jobs in Sweden, the telecommunications equipment maker said doubling down on recent cost-saving measures that have helped it weather a prolonged downturn in telecoms spending, Reuters reports.

January 13, 2026: Meta plans to cut around 10% of employees in Reality Labs business

Meta plans to cut around 10% of the employees in its Reality Labs division who work on products including the metaverse, according to three people with knowledge of the discussions, according to The New York Times.

Layoffs in 2025

• Cisco
• Oracle
• Windsurf
• Intel
• Microsoft
• Crowdstrike
• HPE
• Autodesk
• HPE
• CISA
• Workday
• Salesforce
• Meta

Global tech-sector layoffs surpass 244,000 in 2025

Economic uncertainty, elevated interest rates, and AI adoption have driven workforce reductions across tech companies worldwide, according to a RationalFX report.

October 28, 2025: Amazon to cut 14,000 jobs across company

Amazon will reduce its overall workforce by 14,000, cutting layers of management across the company and hiring in some areas to support its “biggest bets”.

August 18, 2025: Cisco and Oracle to cut hundreds of Bay Area jobs

Tech companies Cisco and Oracle are cutting hundreds of jobs across the Bay Area. Cisco will eliminate 221 positions at its Milpitas and San Francisco offices, effective Oct. 13. Oracle is reducing 101 positions in Santa Clara on the same date 

August 5, 2025: 3 weeks after acquiring Windsurf, Cognition offers staff the exit door

Cognition, the AI coding startup that acquired rival company Windsurf three weeks ago, laid off 30 employees last week and is offering buyouts to the roughly 200 remaining employees on the team, reports The Information.

July 25, 2025, Intel to lay off 22% of workforce, CEO Tan signals ‘no more blank checks’

Intel will reduce its workforce to 75,000 employees by the end of 2025 as new CEO Lip-Bu Tan implements sweeping changes designed to transform the struggling chipmaker

July 8, 2025, Intel layoffs begin: Chipmaker is cutting many thousands of jobs

Intel has begun laying off employees across the company. CEO Lip-Bu Tan told workers back in April to expect major layoffs at Intel in the coming months as the chipmaker slashes costs and overhauls its organization after years of technical setbacks and falling sales.

July 2, 2025: Microsoft will cut 9,000 workers

Microsoft will lay off about 9,000 employees, a source familiar with the workforce cut told CNBC.  The cuts will reportedly affect less than 4% of Microsoft’s global workforce and will impact different teams, geographies and levels of experience. This is the latest in a string of cuts the tech giant has made this year.

June 17, 2025: Intel looks to factory layoffs to return to profitability

Intel will lay off up to 20% of its manufacturing sector employees starting in July, according to media reports, as the company looks for options as it seeks a return to profitability. The cuts reportedly will be made around the world, but some of the layoffs will be closer to home, according to a report in The Oregonian citing an internal company memo from Intel manufacturing Vice President Naga Chandrasekaran.

May 7, 2025: CrowdStrike to lay off 5% of staff

CrowdStrike announced a plan to cut about 500 roles, roughly 5% of its workforce, to streamline operations and reduce costs. The cybersecurity company will incur about $36 million to $53 million in charges related to the layoffs

March 6, 2025: HPE cuts 2,500 jobs, remains committed to Juniper buy

CEO Antonio Neri told Wall Street analysts that HPE would begin implementing a cost-cutting program involving layoffs of about 2,500 employees over the next 18 months. HPE employs about 61,000 people worldwide.

Feb. 27, 2025: Autodesk to lay off 9% of workforce

Software maker Autodesk is laying off 1,350 staff. With the rise of subscription and multi-year contracts billed annually, and self-service enablement, it finds it needs fewer sales staff, CEO Andrew Anagnost said in a message to employees. And with its cloud, platform, and AI products proving most profitable, it’s concentrating its staff and investments there.

Feb. 27, 2025: HP to lay off 2,000 more

As part of an ongoing restructuring, HP plans to lay off up to another 2,000 workers. In recent weeks, the company has tried — unsuccessfully — to do away with telephone support staff by forcing callers to wait for at least 15 minutes if they refuse to use self-service support resources online. The company swiftly backtracked, but wider job cuts are still on.

Feb. 21, 2025: CISA lays off 130

Government employees get laid off too: In this case, 130 workers at the US Cybersecurity and Infrastructure Security Agency are being shown the door as a result of a DOGE decision. Cybersecurity experts are concerned that the cuts will harm the international collaborations that CISA has fostered, quite apart from their concerns about the security of the DOGE layoff process itself.

Feb. 5, 2025: Workday lays off 1,750

As it moves to invest more in AI and international growth, Workday is laying off 8.5% of its workforce and disposing of unused office space. Some analysts fear the cutbacks will affect the company’s customer service — unless AI can pick up the slack.

Feb. 4, 2025: Salesforce lays off over 1,000

At the same time as it’s hiring sales staff for its new artificial intelligence products, Salesforce is laying off over 1,000 workers across the company, according to Bloomberg. As of June, 2024, the company had over 72,000 employees, according to its website. Salesforce did not comment on the report. In 2024 the company reportedly laid off around 1,000 staff too, in two waves: January and July.

Jan. 14, 2025: Meta will lay off 5% of workforce

Mark Zuckerberg told Meta employees he intended to “move out the low performers faster” in an internal memo reported by Bloomberg. The memo announced that the company will lay off 5% of its staff, or around 3,600 staff, beginning Feb. 10. The company had already reduced its headcount by 5% in 2024 through natural attrition, the memo said. Among those leaving the company will be staff previously responsible for fact checking of posts on its social media platforms in the US, as the company begins relying on its users to police content.

Tech layoffs in 2024

• Equinix
• AMD
• Freshworks
• Cisco
• General Motors
• Intel
• OpenText
• Microsoft
• AWS
• Dell

Nov. 26, 2024: Equinix to cut 3% of staff

Despite intense demand for its data center capacity, Equinix is planning to lay off 3% of its workforce, or around 400 employees. The announcement followed the appointment of Adaire Fox-Martin to replace Charles Meyers as CEO and the departures of two other senior executives, CIO Milind Wagle and CISO Michael Montoya.

Nov. 13, 2024: AMD to cut 4% of workforce

AMD will lay off around 1,000 employees as it pivots towards developing AI-focused chips, it said. The move came as a surprise to staff, as the company also reported strong quarterly earnings.

Nov. 7, 2024: Freshworks lays off 660

Enterprise software vendor Freshworks laid off around 660 staff, or around 13% of its headcount, despite reporting increased revenue and profits in its fourth fiscal quarter. The company described the layoffs as a realignment of its global workforce.

Sept. 17, 2024: Cisco lays off 6,000

After laying off around 4,200 staff in February, Cisco is at it again, laying off another 6,000 or around 7% of its workforce. Among the divisions affected were its threat intelligence unit, Talos Security.

Aug. 20, 2024: General Motors lays off 1,000 software staff

More than 1,000 software and services staff are on the way out at General Motors, signalling that it could be rethinking its digital transformation strategy. In an internal memo, the company said that it was moving resources to its highest-priority work and flattening hierarchies.

August 1, 2024: Intel removes 15,000 roles

Intel plans to cut its workforce by around 15% to reduce costs after a disastrous second quarter. Revenue for the three months to June 29 stagnated at around $12.8 billion, but net income fell 85% to $83 million, prompting CEO Pat Gelsinger to bring forward a company-wide meeting in order to announce that 15,000 staff would lose their jobs. “This is an incredibly hard day for Intel as we are making some of the most consequential changes in our company’s history,” Gelsinger wrote in an email to staff, continuing: “Our revenues have not grown as expected — and we’ve yet to fully benefit from powerful trends, like AI. Our costs are too high, our margins are too low. We need bolder actions to address both — particularly given our financial results and outlook for the second half of 2024, which is tougher than previously expected.”

July 4, 2024: OpenText to lay off 1,200

OpenText said it will lay off 1,200 staff, or about 1.7% of its workforce, in a bid to save around $100 million annually. It plans to hire new sales and engineering staff in other areas in 2025, it said.

June 4, 2024: Microsoft lays off staff in Azure division

Microsoft laid off staff in several teams supporting its cloud services, including Azure for Operations and Mission Engineering. The company didn’t say exactly how many staff were leaving.

April 4, 2024: Amazon downsizes AWS in a fresh cost-cutting round

Amazon announced hundreds of layoffs in the sales and marketing teams of its AWS cloud services division — and also in the technology development teams for its physical retail stores, as it stepped back from efforts to generalize the “Just Walk Out” technology built for its Amazon Fresh grocery stores.

April 1, 2024: Dell acknowledges 13,000 job cuts

Dell Technologies’ latest 10K filing with the US Securities and Exchange Commission disclosed that the company had laid off 13,000 employees over the course of the 2023 fiscal year; it characterized the layoffs and other reorganizational moves as cost-cutting measures. “These actions resulted in a reduction in our overall headcount,” the company said. A comparison to the previous year’s 10K filing, performed by The Register, found that Dell employed 133,000 people at that point, compared to 120,000 as of February 2024. Dell announced layoffs of 6,650 staffers on Feb. 6, but it is unclear whether those cuts were reflected in the numbers from this year’s 10K statement.

See news of earlier layoffs.

In August 2025, 126 malicious packages landed in the npm registry. Even after the community caught the initial wave, 80 of these hidden backdoors remained actively listed.

That was enough. Over 86,000 downloads. Malicious code in PhantomRaven, packages running in the production systems of Fortune 500 companies worldwide. And throughout the entire window, not a single EDR/XDR alert.

This happened because the attack surface has expanded to a layer EDR/XDR was never designed to see: VS Code extensions, local MCP servers, and rogue AI coding assistants that inherit your engineers’ valid credentials to steal data at machine speed.

To eliminate this structural vulnerability, Palo Alto Networks acquired Koi, an AI-native developer security product engineered for proactive, precision enforcement. Below we compiled a 2026 CISO checklist you can use to audit your environment and see how Koi automates each defense from day one.

#1. Gain real-time visibility into shadow AI & extensions

Your existing asset management tracks binaries and installers, but it cannot see local VS Code extensions, MCP servers, or ad-hoc Python scripts running on developer endpoints. This visibility gap was recently exposed by the MaliciousCorgi campaign, where two marketplace extensions with 1.5 million combined installs silently harvested every file a developer opened. Neither triggered any detection because they were not binaries, not executables, not anything your inventory was built to flag. To counter this, Koi closes the gap by analyzing what extensions actually do after installation, exposing hidden data-harvesting channels running inside your active workspace.

#2. Distinguish between human and autonomous agent behavior 

When a rogue AI agent exfiltrates your proprietary source code, it uses a developer’s valid credentials during normal working hours, making the session look entirely legitimate to standard XDR baselines. Moving beyond static permission lists, Koi deploys behavioral profiling within the workspace runtime. By actively intercepting unauthenticated background tasks and blocking unauthorized file-system reads, it stops automated data exfiltration in real time.

#3. Establish guardrails for automated package updates on endpoints

Developers prioritize speed, often allowing software packages to auto-update on their endpoints the moment a new version appears. Attackers weaponize this supply chain vulnerability, as seen in the May 2026 Team PCP attack where 3,800 GitHub repositories were compromised in just 36 minutes via poisoned auto-updates. Securing agentic endpoints against these rapid breaches requires behavior-based inspection within the active workspace context. Koi operates at this layer by providing safe deployment buffers that automate version cooldowns, blocking bleeding-edge updates until they are vetted. By continuously auditing process creation within the IDE runtime, Koi instantly drops unauthorized remote connections before malicious payloads can exfiltrate credentials from the endpoint.  

#4. Enforce principle of least privilege for AI agents

AI coding assistants inherit the privileges of whoever deployed them. In practice, that means read access to production databases, write access to core repositories, and access to every secret in environment files and configuration directories. To restrict this excessive access, Koi applies dynamic sandboxing directly to AI agent processes at the kernel level. It enforces a strict zero-trust boundary that segregates sensitive workspace vectors, preventing agents from pulling data outside their approved scope without interrupting developer workflows.

#5. Maintain continuous endpoint posture management

Signature-based scanning only stops known threats. Sophisticated repository attacks often arrive as functional, high-rated software that carries no known bad signature. Koi’s research into the DarkSpectre campaign found eight browser extensions, all carrying “featured” badges from Google and Microsoft, installed by over 8 million users, silently harvesting every conversation from ChatGPT, Claude, and Gemini in the background. Koi addresses this by operating upstream: scanning marketplace listings every hour, using LLM-driven code analysis to compare what software promises against what its code does, sandboxing it, and scoring the risk before it ever reaches the endpoint.

Summary

Securing the modern enterprise is no longer about patching individual gaps. As AI agents redefine the workforce, Agentic Endpoint Security (AES) is now a strategic imperative for every CISO. By establishing a mandatory control plane for the AI-native workspace, AES ensures that your organization can scale engineering velocity without ever compromising enterprise integrity. 

Ready to secure the future of your software stack? See how Koi Agentic Endpoint Security delivers complete visibility, risk scoring, and real-time prevention across every endpoint in your enterprise.

For CIOs, learning from the startup ecosystem has never been more critical.

As pressure mounts to transform business operations with AI and agentic systems, IT leaders should be looking to those on the AI vanguard for insights into the strategic and technical decisions necessary to launch, grow, and thrive in today’s AI-disrupted business environment.

So why not immerse yourself in Silicon Valley’s most famous firehose of hyper-accelerated fail-fast and dream-big culture by registering for TechCrunch Disrupt 2026?

Three packed days of 200-plus sessions across six stages will spark new ideas for reshaping your AI strategy, provide fresh perspectives on the architectural, workflow, and resource decisions involved in moving AI from pilots to scale, and give you a sneak peek of business disruptions to come.

Get 10% off your TechCrunch Disrupt pass with the exclusive code CIO10. 

This year’s TechCrunch Disrupt, held Oct. 13-15 at San Francisco’s Moscone West, will feature big-picture conversations on what’s next in AI; discussions on how AI agents are rewriting SaaS, enterprise workflows, software pricing, and security; and demonstrations of AI’s future across robotics, manufacturing, defense, and industrial operations; and more.

Over 10,000 attendees will hear from 250-plus startup founders, technology executives, and enterprise IT leaders about how the future of programming is being rewritten, what enterprise AI security requires, how startups are orchestrating workloads across models while managing cost and reliability at scale, why creating a safety culture is essential for AI deployment, and how startups are deciding what work humans should own versus what should be delegated to AI as they work to build hybrid teams without losing speed, accountability, or culture.

And of course, the rising tide of enterprise-focused startups will be there seeking to bring agentic systems to your business workflows, as well as vendors familiar to your enterprise IT portfolios, such as AWS, Google, and Databricks, and enterprise IT colleagues creating mutually beneficial partnerships with the startup community, such as American Express.

That’s not to mention TechCrunch Disrupt’s signature Startup Battlefield, in which 200 standout companies showcase their innovations to compete for a $100K equity-free prize. The battlefield will give CIOs a rapid-fire, broad view of what’s possible — and a possible early look at the next big enterprise player. After all, Dropbox, Trello, and Cloudflare, among others, roamed that same battlefield before the world knew their names.

And with M&A now an early-stage startup strategy for many from day one, TechCrunch Disrupt’s exhibition floor provides IT leaders not just an opportunity to discuss the nuts and bolts of innovation architecture or how an upstart product can enhance your workflows, but a chance to find your next innovation partner, or more.

Leading-edge startups are figuring out how to make AI work at scale. Shouldn’t you be?

Don’t miss your chance to experience TechCrunch Disrupt 2026. Book your pass today and use the exclusive code CIO10 to save 10% before prices increase.

In August 2025, 126 malicious packages landed in the npm registry. Even after the community caught the initial wave, 80 of these hidden backdoors remained actively listed.

That was enough. Over 86,000 downloads. Malicious code in PhantomRaven, packages running in the production systems of Fortune 500 companies worldwide. And throughout the entire window, not a single EDR/XDR alert.

This happened because the attack surface has expanded to a layer EDR/XDR was never designed to see: VS Code extensions, local MCP servers, and rogue AI coding assistants that inherit your engineers’ valid credentials to steal data at machine speed.

To eliminate this structural vulnerability, Palo Alto Networks acquired Koi, an AI-native developer security product engineered for proactive, precision enforcement. Below we compiled a 2026 CISO checklist you can use to audit your environment and see how Koi automates each defense from day one.

#1. Gain real-time visibility into shadow AI & extensions

Your existing asset management tracks binaries and installers, but it cannot see local VS Code extensions, MCP servers, or ad-hoc Python scripts running on developer endpoints. This visibility gap was recently exposed by the MaliciousCorgi campaign, where two marketplace extensions with 1.5 million combined installs silently harvested every file a developer opened. Neither triggered any detection because they were not binaries, not executables, not anything your inventory was built to flag. To counter this, Koi closes the gap by analyzing what extensions actually do after installation, exposing hidden data-harvesting channels running inside your active workspace.

#2. Distinguish between human and autonomous agent behavior 

When a rogue AI agent exfiltrates your proprietary source code, it uses a developer’s valid credentials during normal working hours, making the session look entirely legitimate to standard XDR baselines. Moving beyond static permission lists, Koi deploys behavioral profiling within the workspace runtime. By actively intercepting unauthenticated background tasks and blocking unauthorized file-system reads, it stops automated data exfiltration in real time.

#3. Establish guardrails for automated package updates on endpoints

Developers prioritize speed, often allowing software packages to auto-update on their endpoints the moment a new version appears. Attackers weaponize this supply chain vulnerability, as seen in the May 2026 Team PCP attack where 3,800 GitHub repositories were compromised in just 36 minutes via poisoned auto-updates. Securing agentic endpoints against these rapid breaches requires behavior-based inspection within the active workspace context. Koi operates at this layer by providing safe deployment buffers that automate version cooldowns, blocking bleeding-edge updates until they are vetted. By continuously auditing process creation within the IDE runtime, Koi instantly drops unauthorized remote connections before malicious payloads can exfiltrate credentials from the endpoint.  

#4. Enforce principle of least privilege for AI agents

AI coding assistants inherit the privileges of whoever deployed them. In practice, that means read access to production databases, write access to core repositories, and access to every secret in environment files and configuration directories. To restrict this excessive access, Koi applies dynamic sandboxing directly to AI agent processes at the kernel level. It enforces a strict zero-trust boundary that segregates sensitive workspace vectors, preventing agents from pulling data outside their approved scope without interrupting developer workflows.

#5. Maintain continuous endpoint posture management

Signature-based scanning only stops known threats. Sophisticated repository attacks often arrive as functional, high-rated software that carries no known bad signature. Koi’s research into the DarkSpectre campaign found eight browser extensions, all carrying “featured” badges from Google and Microsoft, installed by over 8 million users, silently harvesting every conversation from ChatGPT, Claude, and Gemini in the background. Koi addresses this by operating upstream: scanning marketplace listings every hour, using LLM-driven code analysis to compare what software promises against what its code does, sandboxing it, and scoring the risk before it ever reaches the endpoint.

Summary

Securing the modern enterprise is no longer about patching individual gaps. As AI agents redefine the workforce, Agentic Endpoint Security (AES) is now a strategic imperative for every CISO. By establishing a mandatory control plane for the AI-native workspace, AES ensures that your organization can scale engineering velocity without ever compromising enterprise integrity. 

Ready to secure the future of your software stack? See how Koi Agentic Endpoint Security delivers complete visibility, risk scoring, and real-time prevention across every endpoint in your enterprise.

For CIOs, learning from the startup ecosystem has never been more critical.

As pressure mounts to transform business operations with AI and agentic systems, IT leaders should be looking to those on the AI vanguard for insights into the strategic and technical decisions necessary to launch, grow, and thrive in today’s AI-disrupted business environment.

So why not immerse yourself in Silicon Valley’s most famous firehose of hyper-accelerated fail-fast and dream-big culture by registering for TechCrunch Disrupt 2026?

Three packed days of 200-plus sessions across six stages will spark new ideas for reshaping your AI strategy, provide fresh perspectives on the architectural, workflow, and resource decisions involved in moving AI from pilots to scale, and give you a sneak peek of business disruptions to come.

Get 10% off your TechCrunch Disrupt pass with the exclusive code CIO10. 

This year’s TechCrunch Disrupt, held Oct. 13-15 at San Francisco’s Moscone West, will feature big-picture conversations on what’s next in AI; discussions on how AI agents are rewriting SaaS, enterprise workflows, software pricing, and security; and demonstrations of AI’s future across robotics, manufacturing, defense, and industrial operations; and more.

Over 10,000 attendees will hear from 250-plus startup founders, technology executives, and enterprise IT leaders about how the future of programming is being rewritten, what enterprise AI security requires, how startups are orchestrating workloads across models while managing cost and reliability at scale, why creating a safety culture is essential for AI deployment, and how startups are deciding what work humans should own versus what should be delegated to AI as they work to build hybrid teams without losing speed, accountability, or culture.

And of course, the rising tide of enterprise-focused startups will be there seeking to bring agentic systems to your business workflows, as well as vendors familiar to your enterprise IT portfolios, such as AWS, Google, and Databricks, and enterprise IT colleagues creating mutually beneficial partnerships with the startup community, such as American Express.

That’s not to mention TechCrunch Disrupt’s signature Startup Battlefield, in which 200 standout companies showcase their innovations to compete for a $100K equity-free prize. The battlefield will give CIOs a rapid-fire, broad view of what’s possible — and a possible early look at the next big enterprise player. After all, Dropbox, Trello, and Cloudflare, among others, roamed that same battlefield before the world knew their names.

And with M&A now an early-stage startup strategy for many from day one, TechCrunch Disrupt’s exhibition floor provides IT leaders not just an opportunity to discuss the nuts and bolts of innovation architecture or how an upstart product can enhance your workflows, but a chance to find your next innovation partner, or more.

Leading-edge startups are figuring out how to make AI work at scale. Shouldn’t you be?

Don’t miss your chance to experience TechCrunch Disrupt 2026. Book your pass today and use the exclusive code CIO10 to save 10% before prices increase.

Cisco and AMD have expanded their partnership with a new package of hardware and security software that’s designed to help enterprise customers protect, deploy, and manage distributed AI resources.

During AMD’s Advancing AI event this week, Cisco’s president and chief product officer Jeetu Patel took to the stage during AMD CEO Lisa Su’s keynote to talk about how AI inference will be widely distributed and will require an architectural stack of software and tools that Cisco and AMD are partnering to develop.

The joint architecture combines AMD’s compact, high-performance Ryzen AI Halo hardware and a variety of Cisco networking, observability, governance, and security technologies. “AMD provides the deskside/local AI platform. At the foundation is AMD Ryzen AI Halo hardware, an isolated agent sandbox and the services needed for local-first inferencing, including model routing and token limits via AMD’s Semantic Router and local inference on Lemonade,” wrote Cisco’s Yash Sheth, senior director, engineering and research, in a blog post about the new package.

Ryzen AI Halo (pictured below) is designed to support local AI inference on an AI PC using its CPU, GPU, and XDNA neural processing unit (NPU), according to AMD. A resilient AI platform should continue delivering useful AI services even when connectivity is limited, models need to change, or workloads shift, AMD stated.

Cisco then wraps that platform in a secure harness that includes its Splunk Agent Observability plus Splunk Infrastructure Monitoring to provide full-stack observability, tracking agent behavior, tokenomics and compute operation, according to Sheth.

Cisco also brings its AI Defense for model and agent security; DefenseClaw for security policy enforcement, so guardrails are enforced directly on-device, within the agent harness; and Cisco Cloud Control offering a single pane of glass for unified policy and control, Sheth stated.

“To make deskside and local AI computing work at enterprise scale, every AI node must be treated as a secure, managed node in the enterprise network,” Sheth wrote.

“The need for token efficiency and data sovereignty is driving a new class of computing, deskside computing, with users and teams putting AI agents right by their sides,” Sheth wrote. “Inference is moving to a hybrid architecture with thousands of ambient deskside agents in an enterprise helping employees have 24×7 productivity. That’s an extraordinary opportunity. It’s also a brand-new operating challenge.”

As agentic AI moves from experimentation to real enterprise workflows, organizations need more than powerful endpoints. AI agents can run continuously and act on enterprise data, but create new requirements for network infrastructure, tokenomics, agent behavior, and security, according to a statement from AMD.

“Running more AI locally can help improve responsiveness, keep sensitive data closer to users, and reduce dependence on cloud-only approaches, but enterprises also need a way to monitor and manage these systems at scale. AMD and Cisco are addressing that gap by collaborating to pair high-performance local AI compute with the observability, governance, and control infrastructure needed for enterprises to deploy it responsibly,” AMD stated.

“By combining AMD Ryzen AI Halo systems and our broader local AI software capabilities with Cisco’s enterprise networking, observability and security technologies, we are helping customers deploy AI in a way that is performant, secure, observable and manageable at scale,” said Jack Huynh, senior vice president and general manager, computing and graphics group with AMD, in a statement.

A few other interesting statistics and trends cited in AMD CEO Su’s keynote include:

• AI adoption is accelerating across all industries, with agentic AI driving a surge in compute demand and shifting workloads from training to inference, which accounts for 60% of global AI compute capacity in 2026.
• AI is moving beyond the cloud, with edge and personal devices becoming critical for real-time, distributed intelligence.
• The AI accelerator market is projected to reach $1.4 trillion by 2030, nearly tripling previous forecasts, with GPUs expected to dominate but CPUs gaining new growth vectors due to agentic AI.
• Server CPU market is forecasted to grow over 50% to $200 billion by 2030, fueled by rapid agentic AI adoption and the need for massive CPU infrastructure.

Cybercriminals are actively exploiting a recently discovered vulnerability in Palo Alto Networks firewall and VPN appliances to deploy the Qilin ransomware strain.

A critical authentication bypass flaw (CVE-2026-0257) in Palo Alto GlobalProtect portal and gateway was the common link in a series of intrusions in June, Arctic Wolf Labs warns. Exploitation of the vulnerability came within days of disclosure.

“Post-exploitation tradecraft varied across intrusions, from rapid encryption-only operations to full double-extortion, possibly suggesting multiple affiliates operating under the Qilin ransomware-as-a-service (RaaS) umbrella,” Arctic Wolf’s researchers wrote in a post on the threat.

The campaign against Palo Alto’s VPN client is part of a rising trend that sees ransomware groups increasingly targeting vulnerabilities in network edge tools and devices.

Ransomware takes aim at the edge

Beyond GlobalProtect, Qilin — the most active threat group in Q2 2026, responsible for 14% of attacks, according to NCC Group’s latest Quarterly Cyber Threat Intelligence Report —  has also targeted flaws in Fortinet’s FortiGate, Citrix NetScaler, and Check Point Remote Access VPN.

Check Point warned in June of ransomware attacks against VPNs that still use the deprecated Internet Key Exchange version 1 (IKEv1) protocol. Citrix issued patches in early July for a CitrixBleed-like flaw in its NetScalar devices that had come under attack.

Meanwhile, Fortibleed, a massive credential-compromise campaign, exposed 75,000 FortiGate firewalls in June.  

Qilin is by no means alone in increasing its operations against VPNs and other network security tools.

The Gentlemen, No. 2 on NCC Group’s list with 238 victims in Q2 2026, is noted for breaking into organizations through firewalls, VPNs, and other internet-exposed systems — FortiGate and Cisco products in particular.

Akira, No. 4 on NCC Group’s list (127 victims), is also known for exploiting VPN vulnerabilities and abusing legitimate credentials, primarily versus products from Ivanti, Cisco, and Fortinet.

In the line of fire

Network edge security devices are becoming security liabilities for enterprise security professionals, with an alarming rise in zero-day exploits arising from what experts describe as basic and readily preventable vulnerabilities.

A range of attackers spanning opportunistic hackers to ransomware-as-a-service operators and nation-state sponsored APT (advanced persistent threat) groups are actively exploiting software vulnerabilities in edge devices to hack into corporate networks.

“Although there has not been a material rise in ransomware volume in the last quarter, the trajectory of attacks continues upwards, and VPNs remain an increasingly attractive target,” said Matt Hull, VP and head of cyber intelligence and response at NCC Group.

Unpatched vulnerabilities in edge devices are far from the only software bugs fueling ransomware attacks. For example, last year the Clop ransomware gang hacked hundreds of companies by exploiting zero-day vulnerabilities in Oracle’s E-Business Suite software.

Edge of darkness

VPNs and other internet-facing edge devices remain prime targets for ransomware operators because they provide a direct route into an organization’s network.

“Attackers may exploit an unpatched vulnerability, use stolen credentials, or target weak authentication controls,” said Alexander Leslie, a senior advisor at cyber threat intelligence firm Recorded Future. “In some cases, exploitation begins before organizations have had sufficient time to apply vendor guidance, leaving security teams with a very narrow window to respond.”

VPN exploitation sits alongside other initial access methods, such as phishing, compromised credentials, or software supply chain attacks. The preferred attacker infiltration method varies by campaign and sector but locating security in edge devices carry particular advantages from the perspective of attackers.

“Vulnerabilities in perimeter devices are particularly valuable to attackers because those systems are continuously exposed to the internet and can provide privileged access while bypassing some endpoint controls,” said Leslie.

Dray Agha, senior manager of security operations at managed detection and response firm Huntress, backed up this assessment that exploiting internet-facing VPNs and edge devices remains the “dominant, volume-driven tactic” for ransomware operators because these appliances offer a “direct, publicly accessible gateway straight into the heart of corporate networks.”

Rather than exploiting vulnerabilities in edge devices, attackers more commonly use internet-facing gateways as a means to abuse stolen credentials to break into corporate networks, according to Huntress.

“What we see at Huntress is that the VPN is the site of initial access some 70% of the time, for advanced threat actors,” said Agha. “Overwhelmingly, however, they are not exploiting for access; rather they are using stolen credentials to authenticate to non-MFA’d [multi-factor authentication] user accounts.”

Hardened perimeter

CSOs should treat their network perimeter as hostile territory by enforcing aggressive patch management, applying critical edge device updates within 24 to 48 hours, and mandating strict MFA for all access.

Implementing zero-trust network segmentation to trap attackers and prevent lateral movement if the initial gateway is compromised also helps in making enterprise networks more resilient against attacks, Huntress’ Agha advised.

Phishing-resistant multi-factor authentication, removal of unsupported systems, and close monitoring for unusual authentication or administrative activity also form key components in attack impact mitigation.

Internet-facing assets that are known to be actively exploited should be prioritized as a patching priority.

“Threat intelligence and evidence of active exploitation should help determine which vulnerabilities demand immediate action,” Recorded Future’s Leslie said.

Google’s AI offerings span its internal and cloud offerings. Its data centers are processing seven times more AI tokens compared to last year. To keep up, Google is upgrading its data-center hardware and software technologies at a faster clip. It plans to raise $80 billion to build new data centers. (See related story: Google transforms its data center architecture for agent era)

Network World spoke with Mark Lohmeyer, vice president and general manager of AI and computing at Google, about how the company’s infrastructure is keeping pace with AI demand.

Network World: What is the primary shift in infrastructure needs?

Mark Lohmeyer: We’ve seen the rise of agents and agentic use cases. Years ago, it was the chat phase: Ask a question, get an answer. Now we’re in the agentic era, where you express your intent, agents spin off multiple sub-agents, working in parallel, preserving state. This is a radical shift in what infrastructure needs to do; make them fast, cost effective, secure, reliable. We’re delivering infrastructure optimized for the age of agents.

NW: What’s the goal of the infrastructure buildout, and what should customers expect regarding costs?

ML: Ultimately, it’s about enabling customers with leading-edge capabilities and models at scale cost-effectively. With agents, inference transactions increase by 50x, 100x versus non-agentic workloads. We’re driving the cost per transaction down exponentially. In our latest platforms, we reduce the cost by almost 2x for the same work. Customers serve twice the number of users at the same cost, directly driving profitability.

NW: How are you addressing energy efficiency?

ML: Energy is a critical resource, and Google has optimized for years. We design data centers and compute [to drive] high PUE (power usage effectiveness). We introduced liquid cooling over five years ago, and these latest systems are all liquid cooled. For agentic workloads, CPUs come to the forefront… orchestrating agents, calling tools, doing evaluation loops in reinforcement learning. Our latest Axion-based CPU platform called N4A has energy efficiency and is significantly better than the prior generation and x86 comparables.

NW: How do you think about token efficiency as you build-out systems?

ML: Performance and efficiency gains are powered by co-design of the model and infrastructure. Gemini is trained on TPUs, primarily served on TPUs with high frontier model capability, in a token and cost-efficient way. This stems from co-design across the full stack.

NW: How do you project what infrastructure will be needed years in advance?

ML: Hardware cycles deliver a new next generation roughly every year, but design cycles are two years or more in advance. We work with DeepMind doing core research, to application teams taking models into production, to billions of users, to our team building infrastructure. We work upstream with DeepMind and application teams to understand what’s coming. Agents weren’t being broadly spoken of externally, but internally we had those insights around what they would need. That shows up in hardware design. We hit the timing right — these platforms are built for agents.

NW: What’s the eighth generation TPU platform?

ML: We deliver new platforms every year, and ones launched years ago are close to 100% utilized because demand for AI-optimized compute is high. The eighth-generation TPU platform is the first delivering two complete systems, from the chip all the way up to the network and storage and software, that are optimized.

TPU-8t is optimized for training, and TPU-8i is optimized for inference. For TPU-8i, we increased SRAM on the chip to 384MB — three times the prior generation — and increased the HBM by 50%.

NW: How are you approaching GPU and TPU compatibility?

ML: People in a single cluster do not commingle GPUs and TPUs. We offer both options based on specific workload needs. We’ve been investing on the TPU side in using software frameworks customers are comfortable with on GPUs and enabling those on TPUs. For example, PyTorch and vLLM. Customers could have a pool of GPUs and TPUs, running vLLM on top of that. Start with a workload on TPUs, but if the TPU pool is fully utilized, spill to GPUs or vice versa. This works because it’s all leveraging the same compatible software layer on top.

NW: How has the orchestration platform changed for agents?

ML: Kubernetes is becoming the orchestration platform of choice for AI. Google is transforming GKE [Google Kubernetes Engine] into an agent-native orchestration solution. When expressing intent to an agent and it spins up multiple sub-agents, compute needs to spin up rapidly — TPUs or GPUs — without long delays, then run and spin back down. We’re optimizing at every layer of the GKE stack: significantly improving node startup time and how rapidly we start and stop containers. Lovable demonstrates this with GKE, spinning up hundreds of sandboxes for live coding sessions on their platform in parallel, paying for infrastructure when needed.

NW: What is the role of the network and storage infrastructure?

ML: The network is critical for AI. This requires creating large-scale clusters of GPUs or TPUs and enabling them to talk to each other in a high-performance way. We created the Virgo network — a collapsed network architecture, non-blocking within a data center, where multiple pods or NVLink72 domains connect together.

In TPU8T, we can connect over a million TPUs together leveraging Virgo, creating large-scale, high-performance, reliable clusters that shrink innovation cycles. Storage is equally critical. In large-scale clusters, something is always failing. The ability to take snapshots and go back to a checkpoint is important.

We’ve introduced Managed Lustre 10T, with 10 terabytes per second of bandwidth, 18 petabytes of storage in single clusters. This is 10 times faster than last year and 20 times faster than competition. We have Rapid Bucket, low-latency storage backed by Google storage systems. Both are impactful in large-scale training environments.

NW: How does KV cache strategy differ between training and inference?

ML: For TPU-8i, we increased SRAM on the chip to 384 megabytes — three times the prior generation — and increased the HBM by 50%. Storing KV cache directly in chip memory allows responding to inference requests much more rapidly and cost-effectively than going to an external system. For inference workloads, storing as much KV cache as possible on-chip is critical.

We’re introducing a dedicated KV cache storage subsystem that works across GPUs and TPUs. As KV caches get larger, being able to fall back to this dedicated subsystem becomes critical. Loading model weights rapidly is important in dynamic inference environments where accelerators switch between models hour by hour.

Among a range of factors leading to a wave of tech sector layoffs in 2026 is the rapid rise of artificial intelligence and automation. Companies are reconfiguring their workforces to leverage AI for increased efficiency and reduced operating costs. This realignment and reduction is implemented even by companies reporting strong financial performance.

But it’s not just AI leading to workforce cuts. Complementing this technological shift are ongoing economic uncertainty, inflation, and higher interest rates, compounded by a chip shortage and rising energy costs. This mix is driving companies to cut costs and streamline operations for increased efficiency.

According to data compiled by Layoffs.fyi, an online tracker that keep tabs on job losses in the technology sector, 123,941 tech employees were laid off at 269 companies in 2025. The site also reports that 71,981 government employees were laid off by DOGE alone, with 182,528 total federal workers laid off.

Here is a list — to be updated regularly — of some of the most prominent technology layoffs the industry has experienced recently.

Notable tech layoffs in 2026

• Monday.com
• Microsoft
• Meta
• Cisco
• Cloudflare
• Oracle
• Atlassian
• Salesforce
• Amazon
• Ericsson

July 22, 2026: Monday.com cuts 20% of its workforce to restructure for the AI era

The company says the decision to cut 620 jobs isn’t about margins, but about creating a flatter organization built around AI agents, autonomous teams, and deeper customer engagement.

July 6, 2026: Microsoft cuts 4,800 jobs, primarily in sales and Xbox teams

As the company trims thousands of jobs, it’s also investing in embedded engineering teams and AI infrastructure. The layoffs come several weeks after the company offered 8,750 US employees voluntary retirement buyouts.

June 5, 2026: Tech industry cut 38,242 jobs in May, worst since 2024

AI was blamed for 40% of the job cuts in May, up from 7% in January, according to research by employment placement company Challenger, Gray & Christmas.

May 20, 2026: Meta cuts 8,000 jobs, around 10% of workforce

The cuts are expected to expected to hit Meta’s engineering and product teams the hardest, arriving as Meta pivots toward AI to boost efficiency across its organization, according to Yahoo Tech.

May 13, 2026: Cisco to cut nearly 4,000 jobs despite strong growth in AI, enterprise networking

Despite reporting positive financial news — including record third-quarter revenue of $15.8 billion, a 12% year-over-year increase — Cisco said it will eliminate almost 4,000 jobs.

May 7, 2026: Cloudflare to cut 1,100 jobs in AI-focused restructuring

About 20% of Cloudflare’s global workforce will be culled as the company pivots for the agentic AI era, Reuters reported.

April 1, 2026: Oracle to cut up to 30,000 jobs globally, putting enterprise support and roadmaps at risk

Oracle began laying off employees on March 31 in what could be the largest workforce reduction in the company’s history. Employees received termination emails at 6 a.m. local time with immediate system lockouts and no prior warning. (Note: in June, CNBC put the final layoff tally at 21,000.)

March 12, 2026: Atlassian cuts 1,600 jobs to fund AI and enterprise expansion

Atlassian will reduce its global workforce by approximately 10%, eliminating around 1,600 roles, as the collaboration software maker redirects capital toward artificial intelligence development and enterprise sales.

March 11, 2026: Tech layoffs surpass 45,000 in early 2026

A recent analysis by RationalFX found 45,363 job cuts globally so far this year—with roughly 68% or more than 30,000 occurring in the U.S. — highlighting ongoing workforce cuts even as many tech companies report strong revenue growth.

February 10, 2026: Salesforce lays off staffers as executive leadership churn continues

Salesforce has reduced close to 1,000 roles earlier this month across teams, including marketing, product management, data analytics, and its Agentforce AI unit, Business Insider reported, quoting employees familiar with the matter.

January 23, 2026: Amazon layoffs expected to disproportionately hit AWS and tech talent

As the market slows down, AWS and other Amazon units are preparing for another round of layoffs, which is expected to overwhelmingly impact tech talent. An email from HR leader Beth Galetti on Jan. 28 confirmed 16,000 job cuts.

January 15, 2026: Ericsson plans to shed 1,600 jobs in Sweden

 Ericsson lans to cut some 1,600 jobs in Sweden, the telecommunications equipment maker said doubling down on recent cost-saving measures that have helped it weather a prolonged downturn in telecoms spending, Reuters reports.

January 13, 2026: Meta plans to cut around 10% of employees in Reality Labs business

Meta plans to cut around 10% of the employees in its Reality Labs division who work on products including the metaverse, according to three people with knowledge of the discussions, according to The New York Times.

Layoffs in 2025

• Cisco
• Oracle
• Windsurf
• Intel
• Microsoft
• Crowdstrike
• HPE
• Autodesk
• HPE
• CISA
• Workday
• Salesforce
• Meta

Global tech-sector layoffs surpass 244,000 in 2025

Economic uncertainty, elevated interest rates, and AI adoption have driven workforce reductions across tech companies worldwide, according to a RationalFX report.

October 28, 2025: Amazon to cut 14,000 jobs across company

Amazon will reduce its overall workforce by 14,000, cutting layers of management across the company and hiring in some areas to support its “biggest bets”.

August 18, 2025: Cisco and Oracle to cut hundreds of Bay Area jobs

Tech companies Cisco and Oracle are cutting hundreds of jobs across the Bay Area. Cisco will eliminate 221 positions at its Milpitas and San Francisco offices, effective Oct. 13. Oracle is reducing 101 positions in Santa Clara on the same date 

August 5, 2025: 3 weeks after acquiring Windsurf, Cognition offers staff the exit door

Cognition, the AI coding startup that acquired rival company Windsurf three weeks ago, laid off 30 employees last week and is offering buyouts to the roughly 200 remaining employees on the team, reports The Information.

July 25, 2025, Intel to lay off 22% of workforce, CEO Tan signals ‘no more blank checks’

Intel will reduce its workforce to 75,000 employees by the end of 2025 as new CEO Lip-Bu Tan implements sweeping changes designed to transform the struggling chipmaker

July 8, 2025, Intel layoffs begin: Chipmaker is cutting many thousands of jobs

Intel has begun laying off employees across the company. CEO Lip-Bu Tan told workers back in April to expect major layoffs at Intel in the coming months as the chipmaker slashes costs and overhauls its organization after years of technical setbacks and falling sales.

July 2, 2025: Microsoft will cut 9,000 workers

Microsoft will lay off about 9,000 employees, a source familiar with the workforce cut told CNBC.  The cuts will reportedly affect less than 4% of Microsoft’s global workforce and will impact different teams, geographies and levels of experience. This is the latest in a string of cuts the tech giant has made this year.

June 17, 2025: Intel looks to factory layoffs to return to profitability

Intel will lay off up to 20% of its manufacturing sector employees starting in July, according to media reports, as the company looks for options as it seeks a return to profitability. The cuts reportedly will be made around the world, but some of the layoffs will be closer to home, according to a report in The Oregonian citing an internal company memo from Intel manufacturing Vice President Naga Chandrasekaran.

May 7, 2025: CrowdStrike to lay off 5% of staff

CrowdStrike announced a plan to cut about 500 roles, roughly 5% of its workforce, to streamline operations and reduce costs. The cybersecurity company will incur about $36 million to $53 million in charges related to the layoffs

March 6, 2025: HPE cuts 2,500 jobs, remains committed to Juniper buy

CEO Antonio Neri told Wall Street analysts that HPE would begin implementing a cost-cutting program involving layoffs of about 2,500 employees over the next 18 months. HPE employs about 61,000 people worldwide.

Feb. 27, 2025: Autodesk to lay off 9% of workforce

Software maker Autodesk is laying off 1,350 staff. With the rise of subscription and multi-year contracts billed annually, and self-service enablement, it finds it needs fewer sales staff, CEO Andrew Anagnost said in a message to employees. And with its cloud, platform, and AI products proving most profitable, it’s concentrating its staff and investments there.

Feb. 27, 2025: HP to lay off 2,000 more

As part of an ongoing restructuring, HP plans to lay off up to another 2,000 workers. In recent weeks, the company has tried — unsuccessfully — to do away with telephone support staff by forcing callers to wait for at least 15 minutes if they refuse to use self-service support resources online. The company swiftly backtracked, but wider job cuts are still on.

Feb. 21, 2025: CISA lays off 130

Government employees get laid off too: In this case, 130 workers at the US Cybersecurity and Infrastructure Security Agency are being shown the door as a result of a DOGE decision. Cybersecurity experts are concerned that the cuts will harm the international collaborations that CISA has fostered, quite apart from their concerns about the security of the DOGE layoff process itself.

Feb. 5, 2025: Workday lays off 1,750

As it moves to invest more in AI and international growth, Workday is laying off 8.5% of its workforce and disposing of unused office space. Some analysts fear the cutbacks will affect the company’s customer service — unless AI can pick up the slack.

Feb. 4, 2025: Salesforce lays off over 1,000

At the same time as it’s hiring sales staff for its new artificial intelligence products, Salesforce is laying off over 1,000 workers across the company, according to Bloomberg. As of June, 2024, the company had over 72,000 employees, according to its website. Salesforce did not comment on the report. In 2024 the company reportedly laid off around 1,000 staff too, in two waves: January and July.

Jan. 14, 2025: Meta will lay off 5% of workforce

Mark Zuckerberg told Meta employees he intended to “move out the low performers faster” in an internal memo reported by Bloomberg. The memo announced that the company will lay off 5% of its staff, or around 3,600 staff, beginning Feb. 10. The company had already reduced its headcount by 5% in 2024 through natural attrition, the memo said. Among those leaving the company will be staff previously responsible for fact checking of posts on its social media platforms in the US, as the company begins relying on its users to police content.

Tech layoffs in 2024

• Equinix
• AMD
• Freshworks
• Cisco
• General Motors
• Intel
• OpenText
• Microsoft
• AWS
• Dell

Nov. 26, 2024: Equinix to cut 3% of staff

Despite intense demand for its data center capacity, Equinix is planning to lay off 3% of its workforce, or around 400 employees. The announcement followed the appointment of Adaire Fox-Martin to replace Charles Meyers as CEO and the departures of two other senior executives, CIO Milind Wagle and CISO Michael Montoya.

Nov. 13, 2024: AMD to cut 4% of workforce

AMD will lay off around 1,000 employees as it pivots towards developing AI-focused chips, it said. The move came as a surprise to staff, as the company also reported strong quarterly earnings.

Nov. 7, 2024: Freshworks lays off 660

Enterprise software vendor Freshworks laid off around 660 staff, or around 13% of its headcount, despite reporting increased revenue and profits in its fourth fiscal quarter. The company described the layoffs as a realignment of its global workforce.

Sept. 17, 2024: Cisco lays off 6,000

After laying off around 4,200 staff in February, Cisco is at it again, laying off another 6,000 or around 7% of its workforce. Among the divisions affected were its threat intelligence unit, Talos Security.

Aug. 20, 2024: General Motors lays off 1,000 software staff

More than 1,000 software and services staff are on the way out at General Motors, signalling that it could be rethinking its digital transformation strategy. In an internal memo, the company said that it was moving resources to its highest-priority work and flattening hierarchies.

August 1, 2024: Intel removes 15,000 roles

Intel plans to cut its workforce by around 15% to reduce costs after a disastrous second quarter. Revenue for the three months to June 29 stagnated at around $12.8 billion, but net income fell 85% to $83 million, prompting CEO Pat Gelsinger to bring forward a company-wide meeting in order to announce that 15,000 staff would lose their jobs. “This is an incredibly hard day for Intel as we are making some of the most consequential changes in our company’s history,” Gelsinger wrote in an email to staff, continuing: “Our revenues have not grown as expected — and we’ve yet to fully benefit from powerful trends, like AI. Our costs are too high, our margins are too low. We need bolder actions to address both — particularly given our financial results and outlook for the second half of 2024, which is tougher than previously expected.”

July 4, 2024: OpenText to lay off 1,200

OpenText said it will lay off 1,200 staff, or about 1.7% of its workforce, in a bid to save around $100 million annually. It plans to hire new sales and engineering staff in other areas in 2025, it said.

June 4, 2024: Microsoft lays off staff in Azure division

Microsoft laid off staff in several teams supporting its cloud services, including Azure for Operations and Mission Engineering. The company didn’t say exactly how many staff were leaving.

April 4, 2024: Amazon downsizes AWS in a fresh cost-cutting round

Amazon announced hundreds of layoffs in the sales and marketing teams of its AWS cloud services division — and also in the technology development teams for its physical retail stores, as it stepped back from efforts to generalize the “Just Walk Out” technology built for its Amazon Fresh grocery stores.

April 1, 2024: Dell acknowledges 13,000 job cuts

Dell Technologies’ latest 10K filing with the US Securities and Exchange Commission disclosed that the company had laid off 13,000 employees over the course of the 2023 fiscal year; it characterized the layoffs and other reorganizational moves as cost-cutting measures. “These actions resulted in a reduction in our overall headcount,” the company said. A comparison to the previous year’s 10K filing, performed by The Register, found that Dell employed 133,000 people at that point, compared to 120,000 as of February 2024. Dell announced layoffs of 6,650 staffers on Feb. 6, but it is unclear whether those cuts were reflected in the numbers from this year’s 10K statement.

See news of earlier layoffs.

When Anthropic unveiled Project Glasswing and the Mythos model, much of the discussion focused on the capabilities themselves.

Security leaders debated what these systems could mean for vulnerability discovery, exploit development and the pace of offensive innovation. Researchers examined technical benchmarks. Industry observers questioned how quickly these capabilities might fall into attackers’ hands.

Those conversations are important. They also point to a larger question that predominates my discussions with CISOs: How much time do we have?

Over the past year, conversations about AI in cybersecurity have changed noticeably. Twelve months ago, security leaders wanted to understand whether AI could meaningfully improve security operations. They wanted to know whether it could accurately investigate alerts, reduce analyst workload and operate reliably in production environments.

Today, security leaders are asking about timelines, implementation, how quickly AI is changing the threat landscape and what that means for how security teams operate.

Anthropic’s Mythos and Glasswing, OpenAI’s Daybreak and advances in DeepSeek accelerate those conversations. Each development provides another glimpse into the pace at which AI capabilities are advancing.

AI now reasons through security problems that historically required highly specialized expertise. The implications span vulnerability discovery, attack-path analysis, reconnaissance, social engineering and security operations.

The shift reflects a broader reality: cybersecurity is entering a period where the pace of adaptation may matter as much as the quality of defenses themselves. AI is accelerating both offense and defense simultaneously. Organizations are quickly redesigning security operations around that reality.

One consequence is becoming increasingly visible. For years, cybersecurity teams invested enormous effort in discovering threats, identifying vulnerabilities, gathering telemetry and collecting intelligence. AI is accelerating many of those activities simultaneously. Visibility is improving. Discovery is accelerating. Investigations are becoming faster and more comprehensive.

The bottleneck is beginning to move. The challenge increasingly centers on how quickly organizations can act on what they know. The organizations that gain an advantage may not be the ones with the most information. They will be the ones who can operationalize that information the fastest.

The timeline is compressing

Cybersecurity has experienced many major technology transitions. Cloud computing changed infrastructure. Mobile devices expanded the attack surface. Digital transformation connected systems that were previously isolated.

AI introduces a different dynamic.

Most technology transitions unfolded over years. Organizations had time to evaluate, pilot, deploy and gradually adapt operating models.

The current AI cycle moves at a different pace.

Capabilities improve continuously. New models arrive every few months. New research emerges every few weeks. Security teams absorb developments at the same time attackers do.

Vulnerability discovery provides a useful example. Security teams have long operated around a familiar cycle of discovery, validation, remediation and protection. AI systems accelerate every stage of that process. Similar patterns exist in phishing, reconnaissance, social engineering and attack planning.

A vulnerability that once moved through that cycle over weeks increasingly now moves through those stages in days or, in some cases, hours.

Attackers are already operating at the speed of AI. Defenders are now focused on reaching the same level of operational speed.

This shift is changing the questions CISOs ask.

Early discussions focused on capability. Could AI investigate alerts accurately? Could it operate reliably in production environments? Could it be trusted with meaningful security work?

As organizations gained experience with AI, the discussion shifted toward implementation. Security teams began evaluating where AI could create operational leverage and how quickly they could deploy it into existing workflows.

Today, many CISOs are focused on timing.

The pace of advancement is influencing planning horizons, budget decisions and operating-model discussions. Security leaders are evaluating how quickly they can introduce AI into investigations, threat hunting, detection engineering and response workflows. Boards are asking questions. Executive teams are paying attention.

Security programs that once viewed AI as a future initiative increasingly view it as a current operational priority.

The industry is moving from evaluating AI as a technology to incorporating AI as a security capability.

The timeline compression creates pressure on the traditional security operations model. Investigation speed, response speed and defensive coverage increasingly determine whether organizations can keep pace with adversaries operating with AI assistance.

Security operations are entering a new phase

The impact of AI is becoming particularly visible inside the SOC.

Many security operations centers were built around a straightforward assumption: alerts flow to human analysts who conduct investigations. Operational capacity scales primarily through hiring.

The volume of security data, the number of alerts and the complexity of modern environments have steadily increased. Security teams have responded by building processes, adding tools and creating specialized analyst roles.

AI introduces a new source of operational capacity.

Investigations that require analysts to examine dozens or hundreds of artifacts across endpoint, identity, cloud, network and email systems can now be performed in minutes. Analysts gain access to investigative depth and consistency that would be difficult to achieve manually at scale.

Many security leaders now view this capability through the lens of operating model design. They are examining how investigations are performed, how work is distributed and where human expertise creates the greatest value.

The evolution of the analyst role

One of the most important developments emerging from early production deployments is the evolution of analyst responsibilities.

Security analysts remain central to security operations. Their expertise becomes even more valuable as AI systems take on larger portions of investigative work.

Threat hunting, detection engineering, response strategy, governance and oversight are receiving increased attention. Analysts spend more time shaping how investigations are conducted, evaluating outcomes and improving overall security operations.

Many organizations are already beginning this shift.

Teams are investing more heavily in proactive security activities. Detection engineering programs are expanding. Threat hunting is becoming more accessible. Analysts are spending more time improving systems and less time repeating investigative tasks.

These changes create what I think of as an analyst-amplified SOC: an environment where AI expands the reach of security professionals and enables deeper security work across the organization.

Trust is critical and it doesn’t have to compromise speed

Faced with a compressing timeline, the instinct is to treat speed and trust as a trade-off, i.e., move faster, verify less. That trade-off feels inevitable. It isn’t.

You don’t trust AI in the abstract. You trust that a system understands your tools, your telemetry and the edge cases that only exist in your network. The problem was never speed. It’s speed without context. The faster a context-blind system runs, the more decisions you’re left unable to verify.

The tension eases when the system is quick to deploy and tunes to your environment once it’s there, rather than treating every network the same. Speed stops being the thing you trade against trust. The more it learns about your environment, the sharper and more trustworthy it becomes, so the two compound rather than compete. Trust still develops through operational evidence such as measurable outcomes, visibility into decisions and consistent performance. But where that evidence accrues matters.

The organizations making the fastest real progress understand this. They don’t compromise quality and trust for speed. They invest in AI that earns trust inside their own environment, so they don’t have to choose.

Leadership during a period of rapid change

The conversations surrounding Mythos and Glasswing reflect a broader reality facing security leaders.

AI is becoming part of both offense and defense. Security teams are incorporating it into investigations, detection engineering, response workflows and threat hunting. Attackers are incorporating it into their own operations.

Security leaders have an opportunity to modernize operating models, expand defensive capacity and build organizational experience while these capabilities continue to evolve.

The organizations making progress today are investing in readiness. They are building experience, adapting workflows and preparing teams for a new model of security operations.

The next phase of cybersecurity will be defined by how effectively organizations combine human judgment with machine-scale execution.

The question facing security leaders is increasingly clear: How quickly can their organizations adapt to a continuously changing threat environment?

This article is published as part of the Foundry Expert Contributor Network.
Want to join?

In a single month, one enterprise reportedly spent half a billion dollars on AI. A consultant told Axios that the client had handed its workforce AI licenses, set no usage limits and let the meter run until finance noticed. The figure is spectacular, and it is the wrong thing to fear. That half-billion-dollar accident is only the visible part of a quieter, far larger failure. Worldwide AI spending is forecast to reach $2.52 trillion in 2026, more than any technology category in a generation, and by the most cited measure, roughly 95 percent of it returns nothing. Boards read that as proof that the technology does not work. The evidence points somewhere less comfortable, and it is not a technology problem at all. Most boards cannot see it because they are reading the wrong number: They track failure when the number that matters is allocation. The discipline that separates the winners is not technical. It is how they allocate capital across time, and how willing they are to stop. The hardest discipline in the AI era is not adopting faster. It is allocating honestly and refusing to judge a three-year bet on a six-month cycle.

The number everyone quotes, and no one acts on

The headline statistic is now familiar. MIT’s Project NANDA, in its 2025 study The GenAI Divide, found that about 95 percent of enterprise generative AI pilots produced no measurable impact on the P&L, while roughly 5 percent captured nearly all the value. S&P Global Market Intelligence found that the share of companies abandoning most of their AI initiatives jumped from 17 percent to 42 percent in a single year, with the average organization scrapping 46 percent of its proofs-of-concept before production. Gartner expects more than 40 percent of agentic AI projects to be canceled by the end of 2027, citing escalating costs, unclear business value and inadequate risk controls. And the pattern predates generative AI: RAND found that more than 80 percent of AI projects fail, roughly twice the rate of comparable work that does not involve AI.

Read as a technology story, these numbers say AI does not work. Read correctly, they say something more useful. MIT’s own authors located the cause not in model quality but in a learning and integration gap. The winners were not running better models. They picked one problem, executed and worked well together. Purchased solutions reached production about 67 percent of the time, while internal builds succeeded roughly a third as often. Gartner’s own spending forecast notes the same pivot, with CIOs scaling back ambitious internal builds in favor of commercial solutions that promise more predictable value. None of that is a verdict on the technology. It is a verdict on allocation: What gets funded, for how long and against which yardstick. The popular prescription, heard in every boardroom this year, is to measure harder and prove value sooner. That advice quietly repeats the mistake, because forcing a three-year bet to prove itself sooner is precisely how you kill it. The fix is not more measurement. It is measuring each bet against the right clock and subtracting the ones that miss.

The six-month cycle problem

Return to that 95 percent, because the way it is measured is the whole argument. Much of the reported failure is judged on a short clock, with a pilot counted as a failure if it has not shown a measurable financial return within roughly six months. The single most quoted number in enterprise AI is therefore a six-month yardstick applied to every initiative, including the bets designed to pay back in three years. The headline failure rate is not only a measure of AI. It is a measure of impatience.

The most expensive mistake in enterprise AI is a timing error. Enterprises have been spending heavily on AI for more than two years, and 2026 is the year boards are demanding returns. The multi-year bets funded during the 2024 and 2025 scale-up are only now far enough along to be judged. When a board reviews an initiative, it applies the yardstick it knows, which is quarterly return. That yardstick is correct for an efficiency project and ruinous for a capability bet. A workflow automation that should pay back in two quarters and a foundational data and agent capability that pays back in three years are not the same instrument, yet they are reviewed in the same meeting against the same metric.

This is the heart of the divide. The 5 percent did not simply pick better projects. They judged each project against its own horizon. McKinsey’s enduring Three Horizons model made this discipline standard in corporate strategy a generation ago: near-term, emerging and long-term bets are funded and measured differently. AI erased that discipline because the hype compressed every timeline into the current quarter. The result is two failure modes that appear opposite yet share a common root. Organizations kill three-year bets at month six because they miss a metric the bet was never designed to hit. And they keep funding six-month theater for years because it is visible, safe and never asked to prove a return. Both are allocation failures. Neither is a technology failure.

Subtraction is a strategy

There is a second discipline, the 5 percent share, and it is the one boards find hardest. They subtract. Every credible study of the failure rate describes the same chaotic pattern underneath it: Initiatives are abandoned late, without criteria, after the money is spent and the credibility is gone. Disciplined organizations do the opposite. They decide the conditions for stopping before they start, and they stop on schedule. Subtraction is not the absence of strategy. It is the strategy. Capital removed from a failing bet is capital available for a surviving one, and the survivors are where the entire return lives.

This reframes the 42 percent abandonment figure. Abandonment is not the problem. Undisciplined abandonment is. An organization that liquidates a position the moment it breaches a pre-agreed kill line is practicing portfolio hygiene. An organization that lets a doomed pilot run until someone loses patience is paying full price for a lesson it could have bought at a discount. The 5 percent who won were not smarter. They were patient in the right places and ruthless in the wrong ones.

The HALT framework: Horizon, Allocation, Liquidation, Tracking

Treating AI as a portfolio rather than a pile of pilots requires four disciplines, and the organizations that execute well put all four in place before the next funding cycle, not after the next failure. The name is deliberate. The discipline most enterprises lack is the willingness to halt the wrong bets in time to fund the right ones.

Component 1: Horizon. Classify every AI initiative by its true payoff horizon before it is funded. Horizon 1 covers efficiency plays that should return value within two quarters. Horizon 2 covers capability bets, data foundations, agent platforms and integration work that pays back in roughly 6 to 18 months. Horizon 3 covers transformation bets that take eighteen months to three years or longer. Each horizon carries its own success metric, set at funding time. A Horizon 1 yardstick never judges a Horizon 3 bet. This single rule prevents the most common and most expensive error in the portfolio.

Component 2: Allocation. Decide the split across horizons deliberately, as a board-level capital decision, not as the accidental sum of whatever pilots happened to win approval. A practical reference point, borrowed from decades of innovation-portfolio practice, is roughly 70% to near-term value, 20% to capability, and 10% to transformation. The exact ratio is yours; the discipline is to choose and defend it. The failure mode is an unmanaged portfolio: 90 percent scattered across disconnected Horizon 1 experiments, with nothing compounding into the Horizon 2 capability that the buy-and-integrate winners actually built.

Component 3: Liquidation. Attach a kill line to every initiative at the moment it is funded: A named milestone, a date and an owner empowered to stop it. If a bet misses its horizon-appropriate milestone, it is liquidated, and capital is reallocated on schedule without debate over sunk costs. The absence of a pre-agreed kill line is not patience. It is an unpriced liability that the board has almost certainly not been shown.

Component 4: Tracking. Report the portfolio to the board on a fixed cadence using a single instrument: The AI Portfolio Scorecard. Not a deck of project updates, but a single view of allocation by horizon, burn against milestone, liquidation decisions taken and capital reallocated to survivors. The cadence is the control. A portfolio reviewed once a year is a portfolio managed by hope.

THE AI PORTFOLIO SCORECARD: SCORE EVERY INITIATIVE BEFORE IT IS FUNDED

Evaluation criterion	0	1	2
Horizon assigned (H1 / H2 / H3) and documented before funding
Success metric matched to the horizon, not a default quarterly ROI
Kill line set: Named milestone and date, agreed at funding
Owner named with explicit authority to stop the initiative
Fits a deliberate allocation band, not an accidental addition
Odds-raising path documented: Buy or partner and an integration plan

Score each criterion: 0 = not present, 1 = partially documented, 2 = fully verified. Total out of 12. Bands: 0 to 4 = DO NOT FUND  |  5 to 8 = CONDITIONAL  |  9 to 12 = FUND.

THE LIQUIDATION GATE: RUN AT EVERY BOARD REVIEW BEFORE CONTINUING FUNDING

Review test	Status
Milestone for this horizon met or credibly on track	PASS / FAIL
Burn within plan to the next milestone	PASS / FAIL
Still fits the allocation band, with no quiet horizon drift	PASS / FAIL
Owner confirms continued strategic fit	PASS / FAIL

Any unresolved FAIL = stop funding, liquidate the position, reallocate the capital to a survivor and record the decision on the scorecard.

The cost of the timing error

The financial case follows the pattern and is consistent. Consider two organizations that funded the same class of Horizon 3 bet: A domain-specific agent platform meant to compound over three years. The first review was conducted at month six against a quarterly return test, found no payback and killed it, booking the write-off as a lesson about AI being overhyped. Its competitor classified the same work as Horizon 3, set an 18-month capability milestone, protected funding through two review cycles and shipped to production within the window the work actually required. One organization spent its money to learn that it lacks allocation discipline. The other spent comparable money and now owns a capability its rival has abandoned and cannot quickly rebuild. The dollars on the two income statements are similar. The competitive positions are not.

The governance return the board has been waiting for

Allocation discipline does two things at once. It stops the bleed by liquidating failures on a schedule rather than at the point of exhaustion. And it concentrates capital where the entire return lives, in the small number of bets that survive their horizon. The 5 percent figure is not a ceiling imposed by the technology. It is the current yield of an industry allocated by hype. An organization that classifies by horizon, allocates on purpose, liquidates on a line and tracks on a cadence is not trying to beat the technology. It is trying to beat its own indiscipline, and that is a far more winnable contest.

The board conversation about AI returns is coming for every organization, and it arrives the moment the spending outpaces the story. When it does, the CIO will be asked a simple question: Where did the money go? The leaders who can answer will not show a pile of pilots. They will show a portfolio: What was funded, against which horizon, what was liquidated and when, and what the survivors are now worth. Subtraction is a strategy. The only question is whether you are practicing it on purpose or about to learn it by accident.

This article is published as part of the Foundry Expert Contributor Network.
Want to join?

Dubbed the “Genius Hacker,” Park Chan-am began his white hat hacker journey at the precocious age of 11, winning awards at domestic and international hacking competitions since his teenage years.

He has since served as a cybersecurity advisor for various Korean government agencies, including the National Police Agency, and has played a key role in the country’s defense against Democratic People’s Republic of Korea (DPRK)-affiliated cyberattacks.

At a seminar held this month as part of the 15th Information Security Day event hosted and organized by government agencies including the Ministry of Science and ICT and the Korea Internet and Security Agency (KISA), Park, now CEO of security firm Steelion, explained the changes in the security environment in the AI ​​era and the priority response tasks for information security organizations under the theme of “Major AI Threats and Security Priorities.”

“While AI is a new technology, the core of security ultimately lies in access control, supply chain management, and human verification,” he said.

Like many security experts, Park sees AI fundamentally changing the speed of cyberattacks. In the past, infiltrating a corporate network required significant time analyzing a range of software systems to find exploitable vulnerabilities — a task that the use of AI has significantly accelerated.

“In the past, it took at least four weeks to find vulnerabilities, but now it takes less than a day,” he said. “In the era of AI, all software installed within a company becomes a much more critical target for attacks.”

As a result, securing internal software and the software supply chain are paramount — and require a different perspective on accountability, Park noted.

“Clients often ask, ‘Isn’t this just a product made by the vendor?’” he said. “From the moment it is installed in the company system, that software is no longer a vendor issue but part of the corporate system.”

“We are now in an era where third-party issues can no longer be attributed solely to vendor responsibility,” he stressed.

MCP under threat

Park also sees authorization management as a key challenge security teams will face in the agentic era. For example, companies have been increasingly utilizing Model Context Protocol (MCP)-based AI agents to read emails, analyze documents, and connect internal systems with various business tasks. But as the workload handled by AI agents increases, every step an AI agent takes, reading external documents and interacting with internal systems, can become a potential attack vector.

Prompt contamination through malicious documents and the leakage of internal information via agents with excessive privileges are quite realistic scenarios, Park said. In particular, he pointed out that issues that previously ended as minor problems, such as residual privileges left by former employees or outsourced personnel, could escalate into major incidents as AI automatically links these elements together.

“When introducing AI, permissions must be designed before functions,” he said. “The entire MCP process must be approached as a single attack path.”

The ever-widening blast radius of AI testing

Local AI testing environments are becoming a dangerous security blind spot that information security leaders often overlook. Rapid experimentation with open-source AI, such as LLaMA-based models, on personal or work PCs often results in servers or ports being left open, and if vulnerabilities are discovered, intrusion pathways immediately open up.

“When the [Ollama] remote code execution vulnerability was discovered in 2024, there were over 1,000 servers exposed to the internet, but recently in 2026, it has been confirmed that over 300,000 servers from the same targets are exposed,” said Park, adding that “the act of testing AI itself can become a new security risk.”

Vulnerability management on notice

Security operations must also change, Park stressed, noting that the number of alerts that security personnel must handle has increased tenfold, and in some cases up to a hundredfold, making it virtually impossible to respond to all vulnerabilities using the same standards.

As a solution, Park sees the Common Vulnerability Scoring System (CVSS) being insufficient for determining priorities. Instead, he suggested that vulnerability response priorities be determined by utilizing the Exploit Prediction Scoring System (EPSS), which predicts the actual likelihood of exploitation, along with the US government’s Known Exploited Vulnerabilities (KEV) list.

For example, if a vulnerability’s CVSS score is 7.5, it is not classified as critical, so it is likely to be pushed down the priority list. But the response priority changes completely if the same vulnerability is listed on the KEV list, has been exploited in actual ransomware attacks, and the probability of an attack based on EPSS has skyrocketed from 1% to 90% within two months. “You must consider these factors together to identify the vulnerabilities that actually need to be patched first,” he stressed.

“Amidst the vast noise known as the AI s​lop, the criteria for deciding what to patch first is now becoming a core competency for security personnel,” he added.

Park also presented new defense techniques applicable to the AI ​​era, such as methods to detect automated attacks by analyzing behavioral differences between humans and AI attackers, and proof of work (PoW) challenges that intentionally impose computational load on AI attackers to slow down their attacks. A prime example is filtering out abnormal access by analyzing mouse movements, keyboard input, and scrolling patterns.

“It is a more realistic strategy to reduce the burden on security teams by filtering out at least some attacks, rather than trying to block them 100%,” he said.

Even in the age of AI, technology alone cannot ensure complete security, he noted. “While AI can scan for threats broadly and quickly, verifying and confirming them ultimately falls to humans,” he said. “Humans are still important.”

Regelmäßige Netzwerk-Scans reichen für eine gehärtete Angriffsfläche nicht mehr aus. Um die Sicherheit von Unternehmensressourcen und Kundendaten zu gewährleisten, ist eine kontinuierliche Überwachung auf neue Ressourcen und Konfigurationsabweichungen erforderlich. Werkzeuge aus den Bereichen Cyber Asset Attack Surface Management (CAASM) sowie External Attack Surface Management (EASM) sind darauf ausgelegt, die Angriffsfläche von Unternehmen:

• zu quantifizieren,

• zu minimieren, und

• zu härten.

Das Ziel besteht dabei darin, den Angreifern möglichst wenig Informationen über das Security-Niveau des Unternehmens zu geben und gleichzeitig kritische Business Services aufrechtzuerhalten. Dabei spielt inzwischen auch Agentic AI eine immer größere Rolle.

12 Attack-Surface-Management-Tools

Die folgenden zwölf Lösungen unterstützen Sie dabei, Risiken zu identifizieren und zu managen.

Axonius Cyber Asset Attack Surface Management

Diese CAASM-Suite von Axonius deckt alle wichtigen Aspekte ab, wenn es um Attack Surface Monitoring geht. Das Tool erstellt zunächst ein Asset-Inventar, das automatisch aktualisiert und mit Kontext aus internen Datenquellen und Ressourcen angereichert wird.

Dabei ist es auch möglich, Monitoring-Prozesse aufzusetzen, die auf Grundlage von Richtlinien wie PCI oder HIPAA ablaufen. So lassen sich Konfigurationen oder Schwachstellen identifizieren, die diesen zuwiderlaufen und entsprechende Maßnahmen ergreifen.

Bugcrowd EASM

Bugcrowd hat im Mai 2024 Informer.io übernommen und dessen EASM-Angebot in seine Security-Plattform integriert. Diese automatisiert die Asset Discovery über Webapplikationen, APIs und andere “public facing”-Komponenten des IT-Stacks hinweg.

Assets überwacht die Lösung kontinuierlich, wobei identifizierte Risiken in Echtzeit priorisiert werden. Darüber hinaus stehen auch Zusatz-Services wie manuelle Risikoprüfungen oder Penetrationstests zur Verfügung. Das Workflow-basierte Response-System der Lösung verspricht eine einfachere Einbindung mehrerer Teams, indem existierende Ticketing- und Kommunikations-Tools integriert werden. Praktisch ist auch die Möglichkeit, Konfigurationsänderungen oder System Updates zu validieren, um sicherzustellen, dass identifizierte Bedrohungen tatsächlich bereinigt wurden.  

CrowdStrike Falcon Exposure Management

Crowdstrike hat sein Falcon-Surface-Angebot von einem Standalone EASM-Tool zu einem Kernbestandteil von Falcon Exposure Management ausgebaut. Die Lösung wird nun auch durch KI-nativen Code dabei unterstützt, Risiken zu identifizieren und auszuschalten. Darüber hinaus kommt die Technologie auch für Adversarial-AI-Szenarien zum Einsatz.

Die Crowdstrike-Lösung kann außerdem:

• Risiken mit dem Business-Kontext korrelieren,
• die Ausnutzbarkeit validieren und
• direkte Abhilfemaßnahmen über die Falcon-Plattform einleiten.

Unternehmen sollen sich mit dem Tool einen nachhaltigen Überblick über ihre Angriffsfläche verschaffen und Risiken oder Bedrohungen mit einer Vielzahl von Techniken aufspüren können. Dazu gehören etwa aktive, passive und API-basierte Scans, um mit dem Internet verbundene Ressourcen zu identifizieren.

Falcon Exposure Management ist nicht Teil des Enterprise-Softwarepakets von Crowdstrike. Es kann als Abonnementlizenz auf Basis der gemanagten Endpunkte erworben werden.

CyCognito Attack Surface Management

Das CAASM-Produkt von CyCognito bietet eine kontinuierliche Überwachung und Inventarisierung von Assets. Dabei spielt es keine Rolle, ob diese On-Premises, in der Cloud, bei einem Drittanbieter oder einer Tochtergesellschaft vorliegen.

Um den Triage-Prozess und die Risiko-Priorisierung zu erleichtern, kann auch Business-Kontext hinzugefügt werden (beispielsweise Beziehungen zwischen einzelnen Assets). Das hilft dabei, sich auf die wichtigsten Netzwerkrisiken zu konzentrieren. CyCognitos Tool verfolgt darüber hinaus auch Konfigurationsänderungen und ermöglicht so, neue Risiken für die Unternehmensinfrastruktur schnell zu identifizieren.

JupiterOne Cyber Asset Attack Surface Management

JupiterOne preist seine CAASM-Lösung als eine Möglichkeit an, “Cyber-Asset-Daten nahtlos in einer einheitlichen Ansicht zu aggregieren”. Der Kontext wird bei Bedarf automatisch hinzugefügt, und die Beziehungen zwischen den Assets können definiert und optimiert werden, um Schwachstellenanalyse und Incident-Response-Fähigkeiten zu verbessern.

Benutzerdefinierte Abfragen ermöglichen es Cybersecurity-Teams, komplexe Fragen zu beantworten, während der Asset-Bestand über eine interaktive Map durchsucht werden kann. Die Security-Tools, in die Sie bereits investiert haben, können Sie integrieren – was eine ganzheitliche, zentralisierte Perspektive auf das Security-Niveau zulässt.

Microsoft Defender External Attack Surface Management

Microsoft Defender EASM erkennt nicht verwaltete Assets und Ressourcen, die per Schatten-IT bereitgestellt werden oder sich auf anderen Cloud-Plattformen befinden. Sobald die Assets und Ressourcen identifiziert sind, sucht das Tool nach Schwachstellen auf jeder Ebene des Technologie-Stacks, einschließlich der zugrunde liegenden Plattform, App-Frameworks, Webanwendungen, Komponenten und des Kerncodes.

Defender EASM ermöglicht es IT-Profis, Schwachstellen in neu entdeckten Ressourcen schnell zu beheben, indem diese nach Entdeckung in Echtzeit kategorisiert und priorisiert werden. Naturgemäß lässt sich Defender EASM eng mit anderen Microsoft-Lösungen wie Security Copilot integrieren.

Outpost24 EASM

Der schwedische Anbieter Outpost24 hat 2023 den belgischen EASM-Anbieter Sweepatic übernommen und dessen Tool in seine Modul-Kollektion für Threat Intelligence, Data Leakage und Pentesting integriert. Diese EASM-Lösung ist sowohl Standalone, als auch als Managed Service erhältlich und kann Daten entweder passiv über DNS und andere TCP/IP-Details oder über direkte Verbindungen zu Cloud-Anbietern wie AWS und Azure sowie den Lösungen großer Softwareanbieter (etwa ServiceNow, Slack oder Atlassian) erfassen.

Palo Alto Networks Cortex Xpanse

Xpanse ist Teil der XSIAM-Produktsuite von Palo Alto, kann jedoch auch separat erworben werden. Das Standalone-Produkt hat allerdings einen etwas geringeren Funktionsumfang.

Das Palo-Alto-Tool unterstützt auch die Integration mit Tools von Drittanbietern wie Qualys, Jira und ServiceNow. Zudem verfügt das Produkt über eine beeindruckende Auswahl an vorgefertigten Detection-Regeln, Widgets, um Queries und Discovery-Routinen zu erstellen und anpassbare Daten-Dashboards aufzusetzen.

Rapid7 Surface Command

Surface Command ist nur eines von zahlreichen Modulen, das Rapid7 im Angebot hat (unter anderem Vulnerability und Incident Management sowie Cloud-Native Security). Das Tool bringt Threat Exposure, Detection und Response unter einen Nenner und verspricht eine kontinuierliche „Vogelperspektive“ über sämtliche Schwachstellen – vom Endpunkt bis hin zur Cloud.

Das Rapid-7-Tool ist darauf konzipiert, blinde Flecken in der Security aufzuspüren sowie Reaktion und Behebung zu beschleunigen. Für letzteres sind zudem auch agentenbasierte KI-Funktionen enthalten.

RiskProfiler EASM

Über die RiskProfiler-Plattform lassen sich sämtliche externen Bedrohungen managen. Das Tool ermöglicht beispielsweise Dark-Web-Monitoring, digitales Monitoring sowie Hacking-Kampagnen, Schwachstellen und Supply-Chain-Angriffe zu tracken. Die hieraus gewonnenen Bedrohungsinformationen werden von KI-Agenten zu einem einheitlichen Korpus verdichtet.

Bestandteil des Tools sind zudem mehr als 13.000 vorinstallierte Regeln, die sowohl Open-Source- als auch eigene proprietäre Algorithmen miteinander verbinden. Auch die Risikobewertungen von Drittanbietern werden analysiert. Ein anpassbares Management-Dashboard visualisiert die Daten in diversen Ansichten. 

SOCRadar AttackMapper

Mit AttackMapper (ein Teil der Tool-Suite für SOC-Teams), will SOCRadar, den Anwendern die Sicht der Angreifer auf die Assets ermöglichen. Das Tool überwacht Assets mithilfe von Agentic AI dynamisch in Echtzeit, identifiziert neue oder veränderte und analysiert sie auf potenzielle Schwachstellen.

Die Ergebnisse werden mit bekannten Angriffsmethoden korreliert, um den Entscheidungsfindungs- und Triageprozess zu unterstützen. Dabei überwacht AttackMapper nicht nur Endpunkte und Software Vulnerabilities, sondern auch SSL-Schwachstellen, abgelaufene Zertifikate, DNS-Einträge und Konfigurationen. Das Tool erkennt selbst Website-Defacement-Angriffe, was entscheidend sein kann, um die Markenreputation zu schützen.

Tenable Attack Surface Management

Tenable hat schon seit einigen Jahren Tools im Angebot, um Schwachstellen aufzuspüren – und auch die aktuelle Tool-Suite wird modernen IT-Sicherheitsanforderungen gerecht. Bei Tenable Attack Surface Management handelt es sich um das EASM-Modul des Unternehmens, das in dessen Exposure-Management-Plattform „One“ integriert ist.

Tenable Attack Surface Management liefert Kontext und Details zu Assets und Schwachstellen, allerdings nicht nur aus technischer Sicht, sondern auch auf Business-Ebene, was für eine umfassende Priorisierung der Maßnahmen erforderlich ist.

7 Fragen vor dem ASM-Invest

Die folgenden Fragen sollten Sie sich und potenziellen Anbietern von Attack-Surface-Management-Lösungen stellen, bevor Sie einen Vertrag unterzeichnen.

• Benötigt unser Unternehmen eine EASM- oder eine CAASM-Lösung? Die Antwort darauf hängt davon ab, ob Sie nach internen oder externen Angreifern suchen – und wie groß der Anteil Ihrer lokalen Infrastruktur ist.
• Wie umfangreich – und effektiv – ist das Tool automatisiert? Erkennt es zuverlässig alle anfälligen Ressoucren, einschließlich digitaler Zertifikate, offengelegter Anmeldedaten und mit dem Netz verbundene Server und Services? Welche Metadaten und weiteren Details liefert die Lösung?  
• Wie behebt die Lösung Schwachstellen, wenn sie welche findet? Läuft das automatisiert ab oder sind manuelle Eingriffe erforderlich?
• Unterstützt das Tool Continuous Monitoring? Und falls ja: Wie werden Veränderungen nachgehalten?
• Welche Schwachstellen werden wie mit anderen SOC-Tools geteilt oder integriert?
• Gibt es unterschiedliche Dashboards für Management- und andere Zwecke? Beziehungsweise: Wie lässt sich das Tool auf unterschiedliche Benutzergruppen anpassen?
• Wie sieht ihre Preisgestaltung im Detail aus? Stellen Sie sicher, dass Sie das Preisgefüge des Anbieters Ihrer Wahl wirklich verstehen. In den meisten Fällen sind Sie dabei mit komplexen, nutzungsabhängigen Abrechnungsmodellen konfrontiert.

(fm)

Dieser Beitrag ist im Original bei unserer Schwesterpublikation CSOonline.com erschienen.

Enterprise AI is entering a new phase. While the first wave of generative AI focused on human productivity and content creation, the next wave — agentic AI — will fundamentally change how organizations operate. Agentic AI systems are capable of reasoning, planning, making decisions and executing actions across applications, workflows and business processes with minimal human intervention.

As organizations move toward agentic frameworks that can independently resolve customer issues, optimize supply chains, manage infrastructure, coordinate workflows and even operate IT environments, one reality becomes clear: The network becomes the nervous system of the autonomous enterprise.

The infrastructure requirements of agentic AI differ dramatically from those of traditional applications. These systems are highly distributed, continuously exchanging information, interacting with APIs, accessing multiple data sources and making decisions in real time. The performance, security, visibility and adaptability of the network will directly determine the effectiveness of AI agents. Organizations that view AI readiness solely as a compute or data challenge risk overlooking one of the most critical enablers of future success — the network itself.

From AI-ready networks to autonomous networks

The long-term destination is the autonomous network: A network capable of self-monitoring, self-optimizing, self-healing and self-securing through the use of AI and automation. However, autonomous networking will not emerge overnight. The investments enterprises make today to support agentic AI are the same foundational building blocks required for tomorrow’s autonomous operations.

In many ways, agentic AI serves as both the driver and beneficiary of network transformation. AI agents require networks that can dynamically adapt to changing demands, while autonomous networks will increasingly rely on AI agents to manage and optimize themselves. The result is a reinforcing cycle where AI and networking evolve together.

The core characteristics of the network of the future

One of the most critical requirements for AI-ready networks is real-time observability and telemetry. Agentic AI thrives on context, and AI agents must continuously gather information from users, applications, devices, clouds, security systems and operational platforms. Future-ready networks must provide end-to-end visibility across campus, branch, cloud and data center environments. High-fidelity telemetry streams, real-time performance monitoring, application-aware analytics, AI-aware analytics and unified operational visibility are essential. Without comprehensive visibility, AI agents operate with incomplete information, limiting their effectiveness and increasing operational risk.

Another cornerstone is intent-based automation. Traditional networks are configured manually, often requiring administrators to define thousands of individual settings. In contrast, autonomous networks operate according to business intent. Enterprises increasingly need to define desired outcomes — such as maintaining application performance, optimizing user experience or automatically isolating compromised devices — rather than micromanaging configurations. The network continuously adjusts itself to achieve those objectives, providing the foundation upon which AI agents can make decisions safely and consistently.

Agentic AI also introduces entirely new traffic patterns that require AI-optimized connectivity. Large language models, retrieval systems, vector databases, cloud AI services, edge inference platforms and multi-agent orchestration frameworks create significant east-west and cloud-bound traffic. Future networks must provide low-latency connectivity, high-capacity fabrics, dynamic traffic engineering, edge-to-cloud optimization and policies that identify and prioritize AI workloads. The organizations that can move data efficiently will gain a competitive advantage in AI execution speed and responsiveness.

Security is another non-negotiable element. Agentic AI expands the enterprise attack surface because AI agents increasingly access sensitive systems, interact with APIs, consume proprietary data and execute actions across business environments. Future-ready networks must embed zero trust security into their architecture, with continuous identity verification, fine-grained access controls, microsegmentation, policy-driven authorization and continuous risk assessment. Security can no longer be bolted onto the network; it must be integral to its design and AI agents need to adhere to their own identity rules.

Finally, distributed intelligence across edge and cloud environments is essential. Many AI use cases require decisions to occur close to the source of data. Manufacturing systems, healthcare environments, retail operations, transportation networks and smart facilities often cannot tolerate the latency associated with centralized processing. Future networks must support edge AI deployment, distributed processing architectures, local inference, hybrid cloud operations and intelligent workload placement. The ability to move intelligence closer to users, devices and operational environments will become increasingly important as agentic AI expands across the enterprise.

Human expertise remains essential

Despite rapid advances in AI, the future will not eliminate the need for human expertise. In fact, it may increase its importance. One of the most significant misconceptions surrounding AI is that automation eliminates the need for skilled professionals. The reality is that autonomous systems require expert oversight, governance, validation and continuous optimization.

As AI systems become more capable, enterprises will need professionals who understand network architecture, security policy, AI governance, operational risk management, data quality, regulatory compliance and human-in-the-loop decision frameworks. The challenge is compounded by the unprecedented pace of AI innovation. New models, architectures, orchestration frameworks, security concerns and governance requirements emerge almost monthly. Most enterprise IT teams cannot be expected to independently evaluate every development while simultaneously modernizing infrastructure and maintaining day-to-day operations.

Organizations need access to experts who continuously track technology evolution, understand emerging best practices and can help translate innovation into practical deployment strategies. These experts provide not only implementation support but also ongoing operational guidance, helping enterprises maintain appropriate human oversight as AI capabilities expand. The future is not fully autonomous decision-making without people; it is intelligent automation operating under expert human governance.

5 actions enterprises should take now

Organizations should be preparing for the autonomous future right now. The following investments deliver immediate value while laying the groundwork for long-term AI transformation:

1. Modernize network observability. Establish comprehensive visibility across users, applications, devices, clouds and infrastructure. Rich telemetry and operational data will become the fuel that powers both Agentic AI and autonomous network operations.
2. Build an automation-first operating model. Identify repetitive operational processes and begin automating them. Automation maturity is a prerequisite for autonomous networking and creates the operational foundation AI agents will eventually leverage.
3. Adopt zero-trust principles across the enterprise. Implement identity-centric security controls, segmentation and continuous policy enforcement. As AI agents gain access to enterprise systems, security architectures must evolve to leverage the same identity controls.
4. Design for edge-to-cloud AI workloads. Evaluate network architectures for latency, bandwidth and resiliency requirements associated with distributed AI. Future AI deployments will span data centers, public clouds, branch locations and edge environments.
5. Invest in skills and strategic partnerships. Develop internal expertise while leveraging partners that possess deep networking, automation, security and AI knowledge. Human expertise remains one of the most important success factors in building AI-ready and autonomous infrastructures.

The road ahead

Agentic AI is poised to transform enterprise operations in much the same way cloud computing transformed infrastructure and the internet transformed business itself. But AI agents cannot operate effectively without a modern network foundation. The enterprises that succeed will recognize that AI readiness extends beyond models and data. It requires networks that are observable, automated, secure, intelligent and increasingly autonomous. The investments made today in AI-ready networking are not merely infrastructure upgrades — they are strategic building blocks toward the autonomous enterprise of the future, where AI agents and autonomous networks work together under human guidance to deliver unprecedented levels of agility, efficiency, and innovation.

This article is published as part of the Foundry Expert Contributor Network.
Want to join?

Im Dev-Umfeld verschwimmt die Grenze zwischen Programmieren und Prompten schon seit einigen Jahren. Auf die Spitze getrieben wird diese Entwicklung vom Vibe-Coding-Trend: Frühe KI-Entwickler-Tools wie GitHub Copilot waren vornehmlich darauf ausgelegt, Devs zu unterstützen. Etwa, indem sie Funktionen und Syntax ergänzten oder Boilerplate-Code aus Kommentaren generierten. Kommt ein Vibe-Coding-Ansatz zum Zug, beginnen menschliche Entwickler hingegen gar nicht erst damit, Code zu schreiben.

Dieses Konzept führt nicht nur zu veränderten Workflows, sondern erfordert auch, ein neues Mindset. Schließlich wird die Programmierarbeit mit Vibe Coding eher zu einer Art Live-Prototyping. In diesem Artikel lesen Sie:

• warum Vibe Coding Vibe Coding heißt,
• inwieweit sich dieser Ansatz für Unternehmen eignet,
• wie Vibe-Coding-Workflows konkret aussehen (können),
• welche Tools in diesem Bereich zu empfehlen sind,
• welche Risiken Sie dabei auf dem Schirm haben sollten, sowie
• Tipps dazu, wie Sie Vibe Coding effektiv in der Praxis umsetzen.

Vibe Coding – Begriffsdefinition

Der Begriff Vibe Coding wurde Anfang 2025 vom OpenAI-Mitbegründer Andrej Karpathy geprägt. Der KI-Experte trat den Trend mit einem Post auf dem Kurznachrichtendienst X los.

There's a new kind of coding I call "vibe coding", where you fully give in to the vibes, embrace exponentials, and forget that the code even exists. It's possible because the LLMs (e.g. Cursor Composer w Sonnet) are getting too good. Also I just talk to Composer with SuperWhisper…

— Andrej Karpathy (@karpathy) February 2, 2025

In diesem beschreibt Karpathy die Vibe-Coding-Methodik als eine neue Coding-Form, bei der man sich ganz den “Vibes” hingibt und vergisst, dass der Code überhaupt existiert. Amy Mortlock, Vice President of Marketing beim OSINT-Spezialisten ShadowDragon, erklärt das Konzept etwas weniger kryptisch: “Beim Vibe Coding beschreibt man in natürlicher Sprache, was man möchte, und die KI generiert dann die gesamte Anwendung und kümmert sich um alle technischen Details.”

Vibe Coding setzt also darauf, die traditionelle Programmierarbeit durch dialogorientierte Anweisungen und Kooperation mit einem KI-Assistenten zu ersetzen. Statt detaillierte Spezifikationen zu entwerfen und diese an die Engineers weiterzugeben, können Produktmanager, Fachexperten – oder jeder andere, der eine Idee hat – in einfacher Sprache beschreiben, wie das Ergebnis aussehen soll. Die KI-Software erledigt dem Rest in Echtzeit. Allerdings geht es dabei weniger darum, die Softwareentwicklung durchgängig zu automatisieren.

Vielmehr stehen Mindset-Veränderungen im Fokus: Warum sollte man nicht der KI die Mechanik überlassen und sich stattdessen auf die Ausrichtung, das Feedback, den Flow und die “Vibes” konzentrieren? Schließlich werden die Modelle, die Tools wie Cursor oder GitHub Copilot zugrunde liegen, immer performanter. Deswegen sehen auch viele Developer ihre Arbeit inzwischen vorwiegend als einen Dialog mit der KI – statt sich zeilenweise selbst durch Syntax zu wühlen.

Und obwohl auch bei einem Vibe-Coding-Ansatz diverse Probleme und Herausforderungen auf den Plan treten können (dazu später mehr): Die Technik gewinnt zunehmend an Popularität – auch im Unternehmensumfeld.

Vibe Coding im Unternehmen

Wie das in der Praxis konkret aussieht, beschreibt Charles Ma, Softwareentwickler beim Observability-Spezialisten Chronosphere: “Viele unserer Entwickler nutzen Tools wie Cursor und Claude Code. Wir fördern deren Einsatz sogar über ein Nutzungs-Leaderboard. Dabei betrachten wir die Tools jedoch als Assistenten, nicht als Dev-Ersatz. Unser Code-Review-Prozess ist weiterhin Pflicht für jeden Produktionscode – und wir sehen eher davon ab, viele unserer oder gar externe Tools mit KI zu verbinden.”

In der Perspektive von Achint Agarwal, Vice President of Product beim KI-Anbieter Pramata, hat Vibe Coding vor allem die Art und Weise verändert, wie Teams vom Konzept zum Prototyp gelangen: “Früher mussten UI/UX-Designer und Entwickler zusammenarbeiten, um eine Idee in etwas zu verwandeln, mit dem Kunden interagieren konnten. Dieser Prozess konnte leicht mehrere Wochen dauern und diverse Überarbeitungsrunden umfassen.”

Heute, so Agarwal, könne ein Produktmanager oder Fachexperte einfach in natürlicher Sprache formulieren, was er sich vorstellt, und die KI generiere funktionierenden Code in Prototyp-Qualität. “Bei dieser Veränderung geht es um mehr als nur Geschwindigkeit: Auch die Qualität der Ergebnisse ist besser, weil die Person, die den Anforderungen am nächsten steht, während des gesamten Prozesses die Kontrolle behält und es keine Reibungsverluste durch Übergaben gibt”, fügt der Manager hinzu.

Auch Agarwal sieht in Vibe Coding kein Substitut für die traditionelle Softwareentwicklung, sondern vor allem ein Explorations- und Validierungs-Tool: “Dev-Teams ist es damit möglich, in kurzer Zeit funktionierende Prototypen zu erstellen, diese mit Kunden zu testen und zu überprüfen, ob die Idee sinnvoll ist. Fällt diese Prüfung positiv aus, kann der Prototyp an die Engineers gehen, die ihn mit Blick auf Skalierbarkeit, Sicherheit und langfristige Integrationen weiter ausbauen.”

Wie sieht ein Vibe-Coding-Workflow aus?

Es gibt keine allgemeingültige Blaupause für Vibe Coding. Entsprechend gehen auch die Ansichten darüber auseinander, wie ein typischer Vibe-Coding-Workflow aussieht. Kostas Pardalis, Data Infrastructure Engineer beim KI-Lösungsanbieter Typedef, beschreibt diesen als agilen, vierstufigen Prozess:

• die Erkundungsphase, in der der “Vibe”, der Zweck und die Einschränkungen definiert werden.
• die Gestaltungsphase, in der ein funktionierender Prototyp erstellt und verfeinert wird.
• die Grounding-Phase, die genutzt wird, um Struktur und Datenintegrität hinzuzufügen.
• die Operationalisierungsphase, in der Versionierung, Evaluierung und Governance hinzukommen.

Steve Croce, Field CTO beim Open-Source-Unternehmen Anaconda, steht hingegen auf dem Standpunkt, dass der Vibe-Coding-Workflow davon abhängig ist, ob ein Prototyp, eine Zwischenlösung oder eine vollständige Produktionsapplikation entwickelt werden soll. Basierend darauf, orientiert sich der Vibe-Coding-Workflow in der Vision des Technologieentscheiders eher am traditionellen Software Development Lifecycle – fußt jedoch ebenfalls auf vier Stufen:

• In der Phase der Planungs- und Anforderungsanalyse könnten Produktmanager und UX-Teams demnach voll und ganz auf Vibe Coding setzen und so vor der formellen Entwicklung klickbare Prototypen und Machbarkeitstests erstellen.
• Im Rahmen der Design-Phase kann KI laut Croce dabei unterstützen, Architekturen und Dokumentationen zu erstellen. Der Manager weist allerdings darauf hin, dass es in dieser Phase auch hilfreich sein könne, erfahrene Engineers oder Architekten hinzuziehen, um die Einhaltung von Standards und die Reusability interner Systeme zu gewährleisten.
• Als Kernbereich der Vibe-Coding-Experience sieht Croce die Implementierungs- und Testphase: Ein KI-Agent könne an dieser Stelle die gesamte Anwendung erstellen und darüber hinaus auch Repositories strukturieren und Tests durchführen. Der Experte rät Unternehmens-Teams jedoch mit Blick auf die Testabdeckung und Konformitätsprüfungen auch in dieser Phase dazu, menschliche Profis hinzuzuziehen.
• In der Bereitstellungs- und Wartungsphase könne KI laut dem CTO dazu genutzt werden, Apps bereitzustellen und zu warten. Dieser Part könne jedoch auch vollständig außerhalb der Vibe-Coding-Erfahrung abgewickelt werden, um den Unternehmensanforderungen zu entsprechen, so Croce.

Empfehlenswerte Vibe-Coding-Tools

Vibe-Coding-Tools decken ein breites Spektrum ab: Vom leicht zugänglichen, dialogorientierten Builder für nicht-technische Teams, bis hin zu integrierten Entwicklungsumgebungen (IDEs), die Engineers umfassende Kontrollmöglichkeiten bieten und zuverlässige Anwendungen gewährleisten. Die Wahl des richtigen Tools hängt von den Fähigkeiten des Teams, dem Projektziel und dem benötigten Maß an Governance ab.

Eine kleine Auswahl empfehlenswerter Tools für Vibe-Coding-Zwecke:

• Cursor ist eine KI-integrierte IDE, mit der sich mehrere Dateien bearbeiten lassen.
• Replit ist eine gute Wahl für Browser-basierte Entwicklungsarbeit.
• Bolt und Lovable sind Builder, eignen sich vor allem für schnelles Brainstorming und zeichnen sich durch überschaubaren technischen Aufwand aus. Diese Tools sind daher auch für Einsteiger geeignet.
• Windsurf und Zed sind vollständige IDEs, die darauf ausgelegt sind, Vibe-Coding-Funktionen in traditionelle Dev-Umgebungen zu integrieren.

Diese Risiken birgt Vibe Coding

Trotz der genannten Vorteile birgt der Vibe-Coding-Ansatz auch diverse Risiken mit Blick auf die Wartbarkeit und Anfälligkeit der generierten Logik. So warnt etwa ShadowDragon-Managerin Mortlock: “Sicherheitslücken und technische Schulden sind die Hauptprobleme in Zusammenhang mit Vibe Coding. KI kann manchmal unsichere Pattern oder auch veraltete Bibliotheken einbinden.”

Zudem sei KI-generierter Code in den meisten Fällen auch länger, was das Debugging langwierig und mühsam gestalten könne, erklärt Mortlock. Sie fügt hinzu: “KI verweist unter Umständen auch auf nicht existierende Packages, was auch böswillige Akteure ausnutzen könnten. Was wie funktionierender Code aussieht, kann versteckte Fallen bergen.”

Charles Ma, Software Engineer beim Observability-Spezialisten Chronosphere, sieht ein weiteres Problem, das die Angriffsfläche potenziell vergrößert: “Selbst erfahrene Engineers können selbstzufrieden werden und dann Probleme übersehen, die ihnen sonst nicht entgangen wären. Sobald KI-Tools mit externen Systemen verbunden sind oder Websuchen durchführen, besteht außerdem das Risiko von Prompt Injections und Toolchain-Exploits.”

Infrastruktur-Profi Pardalis fokussiert mit Blick auf die Risiken von Vibe Coding vor allem die Bereiche Volatilität und Sichtbarkeit: Weil dieser Ansatz für schnelle Iterationen und Modellautonomie förderlich sei, bestünden die Hauptrisiken in unkontrollierter Variabilität und undurchsichtigen Quellen. Um diese Probleme zu bekämpfen, appelliert Pardalis für:

• Lineage Tracking: Jede Version wird committet und verwendet Frameworks mit integrierter Traceability.
• Evaluierungsschleifen: Qualitäts- und Regressionsprüfungen werden automatisiert durchgeführt.
• Governance-Layer: Prompt-Historien werden auditiert und sensible Daten gefiltert.

Der Engineering-Profi ist der Ansicht, dass eine expressive, modellgesteuerte Softwareentwicklung und eine deterministische Infrastruktur unter disziplinierten Rahmenbedingungen koexistieren können: “Letztendlich verspricht Vibe Coding kein Chaos, sondern strukturierte Kreativität. Sie entwickeln Ideen schnell, setzen sie aber sicher um. Mit anderen Worten: Freiheit am Anfang, Disziplin im weiteren Verlauf – so kann Vibe Coding tatsächlich in Produktionsumgebungen skaliert werden.”

6 Tipps für effektives Vibe Coding

Da Sie nun umfassend über alle Aspekte des Vibe-Coding-Ansatzes informiert sind, geben wir Ihnen abschließend noch ein paar Tipps an die Hand, um Ihre eigene Initiative erfolgreich umzusetzen. Diese haben wir aus unseren Gesprächen mit den im Artikel zitierten Spezialisten zum Thema extrahiert

• Beginnen Sie mit Zielen, nicht mit Funktionen: Beschreiben Sie zunächst die gewünschte User Experience und die wesentlichen Geschäftsprobleme, die mit der Initiative gelöst werden sollen. Dabei müssen Sie es nicht übertreiben und jeden Button oder Screen definieren – für relevante Lösungen ist es entscheidend, der KI so genau wie möglich zu beschreiben, was erreicht werden soll.
• Planen Sie voraus: Vibe Coding ist nicht in der Lage, eine gute Architektur zu ersetzen. Bevor Sie KI hinzuziehen, sollten Sie deshalb sicherstellen, dass Design und Spezifikationen stimmen. Das erleichtert es der KI, “Intent” in kohärente Systeme zu übersetzen.  
• Verstehen Sie KI als Partner: Es gilt, mit Vibe-Coding-Tools zu kollaborieren. Diese Werkzeuge brauchen Anleitung und ihre Ergebnisse müssen überprüft werden. Blindes Vertrauen kann an dieser Stelle kontraproduktiv sein. Sie sollten deshalb nicht zögern, die KI-generierte Logik in Frage zu stellen.
• Nutzen Sie Frameworks, Kontext und Beispiele: Etablierte Frameworks zu nutzen, erspart es Ihnen alles von Grund auf neu zu entwickeln. Die KI mit Beispielanwendungen zu füttern oder (vertrauenswürdige) MCP-Server hinzuzuziehen, um Kontext in größeren Projekten zu managen, kann ihre Fähigkeiten erweitern.  
• Halten Sie Menschen – und Security – im Loop: Setzen Sie auch bei Vibe- respektive KI-Coding-Tools auf das Least-Privilege-Prinzip – und Review-Prozesse. Engineering Best Practices anzuwenden, empfiehlt sich ebenfalls: Generieren Sie Tests, verifizieren Sie Funktionalitäten. Und betrachten Sie die Tools als Kreativitäts- und Produktivitäts-Support. Nicht als Substitut für Skills und Knowhow.
• Iterieren und verfeinern Sie: Nehmen Sie mit Blick auf Vibe Coding Abstand vom Streben nach Perfektion (auch wenn es Ihnen widerstrebt) und finden Sie sich möglichst frühzeitig mit unvollkommenen Ergebnissen ab. Tracken Sie Prompts, cachen Sie Checkpoints und verfeinern Sie die Ergebnisse – solange, bis der “Flow” zu einer zuverlässigen Funktionalität wird.

(fm)

Dieser Artikel ist im Original bei unserer Schwesterpublikation Infoworld.com erschienen.

In one ransomware response I observed, the master operational dashboard remained green while the underlying environment told a very different story. It was a classic example of what we in the IT audit profession call the “watermelon effect”—green on the outside, red on the inside.

Beneath that dashboard sat an unmapped web of legacy technical debt, undocumented service accounts and shadow cloud instances. For years, presenting a green dashboard to the audit committee could give technology leaders a false sense of comfort. If a catastrophic breach occurred, it was generally treated as an unpredictable operational tragedy, managed via cyber insurance, a carefully calibrated public relations pivot and perhaps a quiet executive transition.

Today, that corporate shield is thinner than many technology leaders assume. For technology leaders in regulated or public-company environments, executive exposure is no longer only a theoretical debate. The regulatory environment has made plausible deniability much harder to sustain.

The erosion of the corporate shield

With the application of the European Union’s Digital Operational Resilience Act (DORA) for financial entities, alongside the broader NIS2 Directive for essential and important entities, cybersecurity governance has become harder to separate from board-level oversight. DORA places ultimate responsibility for ICT risk management on the management body of financial entities, while NIS2 requires management bodies to approve and oversee cybersecurity risk-management measures. In the United States, the U.S. Securities and Exchange Commission’s cybersecurity disclosure rules require public companies to disclose material cyber incidents and describe their cyber risk management, strategy and governance in annual filings. The new burden is not simply to operate controls; it is to show, after the fact, that leadership decisions matched the risk evidence available at the time.

The serious risk to a modern CIO is not simply the occurrence of a sophisticated security incident. The true danger is the inability to reconcile what leadership presented externally to investors, regulators and the board with what the internal evidence showed inside the environment.

When a serious crisis breaks, you may find yourself surrounded by corporate defense counsel, regulatory investigators and outside forensic lawyers all asking variations of the same uncomfortable questions: What did you know, when did you discover it and what specific actions did you take next?

When those questions are asked, a slide deck asserting that your security posture is “aligned with industry best practices” will not be enough. A post-incident review may recognize that sophisticated attacks occur. What creates greater exposure is evidence that known risks were ignored, understated or left outside structured governance. To survive that level of post-incident review, one of your strongest assets is a disciplined, independent evidence trail showing that risks were identified, challenged, escalated and acted on before the first indicator of compromise appeared.

Why point-in-time comfort letters fail regulatory scrutiny

The reality we face is that legacy compliance evidence often falls short under regulatory scrutiny. For years, the annual SOC 2 Type II report or a standardized ISO 27001 certification was brandished by technology teams as the definitive proof of a functional control environment. I have sat in dozens of scoping meetings where an engineering director pointed to a freshly minted compliance report as if it were a complete defense against scrutiny.

But a compliance report is a historical artifact—a retrospective evaluation of how specific controls operated during a defined window of time months in the past. It tells an investigator that on a random afternoon in Q2, your production change-management approvals conformed to a baseline policy. It says absolutely nothing about the configuration drift, unauthorized API keys or emergency patch bypasses that developers introduced the following weekend to hit a product release deadline.

Modern regulators, boards and investors are no longer satisfied by historical comfort letters alone. Under contemporary frameworks, especially regimes focused on operational resilience, static compliance evidence is no longer enough. The expectation of due care has shifted from a passive state of compliance to an active state of continuous challenge. Increasingly, post-incident reviews look for evidence that leadership identified system vulnerabilities, formally escalated material deficiencies, evaluated systemic risk to the business and tracked remediation progress with measurable rigor.

When an architecture fails, post-incident reviews often focus quickly on ownership, escalation and whether known risks were acted upon. If your defensive documentation consists entirely of static policy documents and green dashboards, you leave an evidentiary vacuum that can invite difficult questions about executive oversight. Post-incident reviews rarely turn on perfection. They turn on whether the organization can show a traceable chain of governance.

5 non-negotiable artifacts for your executive evidence engine

This reality requires a complete reframing of your relationship with your IT audit department. Historically, this dynamic has been defined by friction. Technology leaders frequently view my peers and me as compliance traffic cops—bureaucrats who interrupt core engineering sprints to demand evidence samples, user access reviews and system configurations.

It is time to view IT audit through a pragmatic lens: we are your independent evidence engine. We are one of the few corporate functions tasked with independently challenging your control environment, documenting where exceptions were escalated and showing how management responded. When an auditor identifies a control gap and partners with you to draft a management action plan, they are not creating a bureaucratic roadblock. They are helping you construct an evidence trail that can show risk was identified, escalated and acted upon.

To transform your IT audit function into an effective executive shield, you must shift focus away from superficial check-the-box exercises and collaborate on specific artifacts. The most effective exercise you can run with your audit leadership is to flip the timeline completely and ask: if this program were reviewed six months from now, which evidence would show we governed the risk before it failed?

1. Board-facing risk registers with escalation history: A risk register that sits unreviewed on an intranet page for 12 months is not a management tool; to an investigator, it can look like evidence that known risks were not actively governed. Your material technology, cybersecurity and dependency risks must be centrally logged. More importantly, this artifact must contain a clear, chronological escalation history showing exactly when the risk was presented to leadership committees and the board, along with related minutes, decisions or follow-up actions.
2. Granular risk acceptance records: You cannot remediate every vulnerability instantly. Business continuity, legacy software limitations and budgetary boundaries require you to accept certain operational exposures. When this occurs, ensure your risk acceptance records are airtight. A defensible record must document the specific technical variance, the precise financial or operational rationale for the delay, a definitive expiration date, explicit executive sign-off and the active compensating controls deployed to reduce the blast radius in the interim.
3. Tabletop and operational simulation records: Independent frameworks such as ISACA’s Digital Trust Ecosystem Framework can help structure this evidence, but boards and regulators will still look for proof that the testing actually happened. Your audit trail should contain comprehensive records of cyber incident, disaster recovery and third-party dependency simulations. These records must detail the scenario tested, the executive participants, the control failures identified during the drill and a formalized tracking schedule showing when those gaps were closed.
4. AI governance inventories and data-flow mappings: The rapid deployment of generative AI tools across enterprise operations has created a massive blind spot for technology executives. In one audit, we found developers using an unapproved public large language model to accelerate debugging with sensitive internal code. To protect yourself, work with your audit team to build an active enterprise AI inventory that maps data lineage, identifies model business owners, documents risk classification approvals and demonstrates active technical monitoring for unauthorized data exfiltration.
5. Synchronized disclosure-control handoffs: When a material security incident or system outage occurs, the clock begins ticking for regulatory reporting. Your incident response playbook must be technically linked to your corporate disclosure controls. The audit trail should show that a documented, synchronized handoff occurred between your technical response leaders, general counsel, chief financial officer and corporate communications team. This evidence helps show that your external statements match internal technical realities.

In the modern corporate ecosystem, technology leadership is no longer just an engineering challenge; it is an exercise in rigorous, evidence-based governance. The regulatory landscape has changed, and the expectation of continuous traceability cannot be avoided.

Open and direct collaboration with your IT audit team will not prevent a zero-day exploit, an unexpected cloud outage or a critical third-party vendor failure. That is not the purpose of enterprise risk management.

The true value is far more practical: when a serious incident puts your program under review, you will not be forced to defend your reputation with a feeling, an unverified assumption or a misleadingly green dashboard. Instead, you will have an independent record showing that risk was actively seen, appropriately challenged, properly escalated and responsibly managed. In today’s regulatory environment, that disciplined trail of evidence may be the difference between a failure that can be explained and one that begins to look negligent.

.

This article is published as part of the Foundry Expert Contributor Network.
Want to join?

Dozens of former Apple employees now working at OpenAI have been put on notice after Apple reportedly sent legal letters ordering them to preserve documents and communications relevant to its trade secrets lawsuit against OpenAI. 

The Financial Times reports that “around 40” employees have been targeted with these letters, which repeat Apple’s claim that its confidential information might have been exfiltrated, alleging “trade secret misappropriation and breach of contract.”  The letters also require them to arrange to meet with Apple’s lawyers.

The underlying lawsuit

This comes on the heels of Apple’s explosive lawsuit against OpenAI in which Apple accused the AI company (and former Apple Vice President Tang Tan) of extensive coordinated data theft. Tan was at Apple for 24 years and is now Chief Hardware Officer at OpenAI. 

Apple’s lawsuit is defined by claims OpenAI took a range of steps to pry confidential Apple data from existing Apple employees, including using information such as internal project code names, to gain even more knowledge during interviews. The company says the evidence it has presented so far is only the “tip of the iceberg” concerning OpenAI’s approach.

The lawsuit requests that OpenAI be prevented from using any Apple information during the development of its hardware. Apple is also seeking damages and suing two former employees for breach of contract for violating their employment agreements.

The letters are significant. They represent formal directives that require former Apple staff to preserve documents, messages, emails, and other communications that could be relevant to the case. The demand reflects Apple’s belief that the alleged misuse of confidential information could be more widespread across the competing company. What’s critical is that orders of this kind override any standard data destruction policy and deletion of the requested information becomes a legal offense. 

Why this matters beyond the protagonists

In making its move, Apple shows this is not a dispute about just one or two hires, but an attempt to constrain the movement of intellectual property between the two firms. With AI hardware emerging as the next major battleground in tech, the case could become a defining one; whatever resolution is eventually reached could define the extent to which former employees can carry experience and knowledge between competing firms. The case might also define what the line is between experience and knowledge and the sharing of trade secrets.

This is important, because modern hardware development relies on far more than just finished designs. Product design leans into supplier relationships, manufacturing assumptions, physics, extensive prototyping, and product-roadmap priorities. If courts treat those accumulated insights as protectable secrets, hiring between major technology companies could become far more legally sensitive.

The Jony Ive question

The case comes as Apple prepares to combat OpenAI in hardware. Its competitor is now working with legendary former Apple designer Jony Ive. Ive is not named in the litigation, but Apple will be keen to find out whether confidential product knowledge, design processes, or supply-chain insights have travelled with former staff into OpenAI’s device work.

Ultimately, for Apple, it’s about protecting its many blueprints for whatever hardware the company expects will come after the iPhone.

For its part, OpenAI has refuted Apple’s lawsuit, arguing that it is “not aware of any evidence” that the lawsuit has merit. “We have no interest in other companies’ trade secrets,” said OpenAI spokesperson Drew Pusateri. “We remain focused on building innovative technology that empowers people everywhere.” The company’s lawyers also claim it did respond to Apple’s initial inquiries on the matter.

What’s at stake

The significance of Apple’s newly-shared communication preservation orders is that if discovery uncovers evidence supporting Apple’s claims, the case could complicate OpenAI’s hardware plans and create unwelcome scrutiny ahead of any future public offering.

You can follow me on social media! Join me on BlueSky,  LinkedIn, Mastodon and subscribe to The Core.

The industry conversation around AI infrastructure has narrowed to a single dimension: scale. The focus is on GPUs, power, cooling and the massive physical footprint required to train and run AI agents and models. At the same time, organizations are adjusting to the speed and scale with which AI is identifying vulnerabilities — which is much faster than remediation can be started.

However, almost no one is talking about the infrastructure layer that actually determines whether AI workloads remain secure, resilient and compliant. This is the layer that runs the world’s most sensitive, regulated, high‑value workloads. Thankfully, it already has the guardrails needed for an era where vulnerabilities are discovered faster than ever. But are they being set correctly?

With more than one billion AI agents expected by 2029, organizations need a plan for their infrastructure layer to withstand threats from new frontier models, maintain uptime and protect data sovereignty. As they scale AI deployments, enterprises must secure the infrastructure AI depends on.

These five steps outline what organizations can do now to strengthen their infrastructure posture using proven, enterprise‑grade practices for current and future threats.

Step 1: Build on infrastructure engineered for security and resilience

Infrastructure must be secure by design, not secured after deployment. The systems that have historically supported the world’s most critical workloads — from global payments to national‑scale operations — were built with this principle at their core. If you’ve already invested in systems designed for mission-critical workloads, you’ve checked this first box.

Enterprise‑grade systems have been engineered with multilayered security controls, pervasive encryption, confidential computing and hardware‑level protections that make exploitation dramatically harder. A frontier model in the hands of a bad actor can chain weaknesses faster than humans can patch them — unless the underlying infrastructure is built to absorb and deflect that pressure.

When I meet with clients, I often tell them what our own security teams operate under: we assume vulnerabilities will continue to be discovered and we design for that reality. That mindset is what separates infrastructure that survives frontier‑model pressure from infrastructure that collapses under it. These systems continue to evolve with predictive failure analysis and accelerated recovery, allowing systems to continue operating even during investigation and remediation.

Step 2: Treat uptime and resilience as a security requirement

If your infrastructure fails, your workloads will too. These systems depend on uninterrupted access to data and compute, and even seconds of downtime can compound operational and security risk. Enterprise‑grade platforms deliver near‑continuous availability through redundant hardware paths and intelligent system recovery.

The easiest fix? Ample resources and an up-to-date infrastructure foundation. Too often, a security problem is really an availability problem that turned into a security problem. When systems fall behind on maintenance, capacity or recovery readiness, they create the exact openings a frontier model can exploit. A delayed maintenance cycle or a recovery process that takes too long becomes the opening a frontier model can exploit. Resilience is not just about uptime. It is a security control. And this will not be the last time a frontier model tests the limits of that resilience.

Data resilience is equally critical. Cyber‑resilient storage systems with immutable backups and rapid recovery capabilities ensure that critical data remains protected and available even after a cyber incident or disaster.

Step 3: Operate for continuous discovery, not periodic defense

The idea that you can prevent every vulnerability is outdated. The more realistic model is continuous discovery — finding, prioritizing and addressing issues faster than they can be exploited. Organizations must operate as if vulnerabilities will be found faster than ever.  Instead of relying on static defenses, they should emphasize layered controls, rapid triage, continuous delivery of fixes and coordinated disclosure.

Frontier models in the hands of bad actors can amplify security challenges by connecting vulnerabilities. They can chain misconfigurations, outdated components and privilege gaps into a viable attack route in minutes. And the more outdated or inconsistent an environment is, the easier that chaining becomes.

Modern operational‑intelligence tooling helps them surface that risk, prioritize what matters and act before an attacker can exploit the gaps. These platforms help organizations understand where they are exposed, identify which maintenance issues carry the highest operational and security risk, and reduce the blind spots that frontier‑model attackers are increasingly adept at exploiting.

It’s critical to assess how you manage your vulnerabilities. Internal processes should address severe vulnerabilities within hours, regardless of whether they are discovered by humans, traditional tooling or AI‑driven techniques. As AI accelerates vulnerability chaining, this posture maintains operational integrity and reduces exposure.

Step 4: Use AI to defend AI

Leading organizations are integrating AI‑driven threat detection directly into their infrastructure. On operating systems like z/OS, AI‑based analytics can identify anomalous and potentially malicious data access, reducing investigation time and limiting impact.

Beyond detection, autonomous security models are emerging that continuously govern risk, investigate threats and enforce resilience across identities, data, applications, cloud and networks. Across the industry, we’re seeing the rise of autonomous security frameworks that use AI to assess posture, detect threats and harden controls without waiting for human intervention. Combined with modern AI‑accelerated processors, these capabilities allow threats to be analyzed and mitigated directly within the infrastructure itself.

Step 5: Join a broader ecosystem fighting frontier model threats

No organization can face frontier model threats alone. These risks require coordinated industry action. Frontier models give both good and bad actors the ability to analyze codebases, chain vulnerabilities and probe infrastructure at a scale that no single enterprise can counter on its own.

Across the industry, coalitions are emerging to assess and remediate vulnerabilities discovered by frontier-class models and to help enterprises build AI resilience. Initiatives like Project Glasswing, Project QuiltWorks and the Frontier AI Alliance are examples of how providers, consultancies and security firms are beginning to coordinate their response to AI-accelerated threats.

Organizations can also benefit from independent assessments that evaluate readiness for agentic-enabled threats and identify gaps across their infrastructure. These assessments help teams understand where they are exposed, how frontier models might chain those exposures together, and what actions will reduce the likelihood of a high-impact event.

Participating in these programs is one of the most concrete steps enterprises can take today to strengthen their AI infrastructure posture.

Your AI security depends on the infrastructure you choose

AI is accelerating both innovation and risk. The organizations that succeed will be those that build on resilient, secure infrastructure, prioritize uptime as a security control, operate with continuous discovery, use AI to defend AI and participate in the global response to frontier‑model threats. In the end, your ability to scale AI safely comes down to the infrastructure you trust to run it.

This article is published as part of the Foundry Expert Contributor Network.
Want to join?

Google DeepMind CEO Demis Hassabis is pushing for the US AI industry to self-regulate, with the support of government, as a starting point for an international creating shared international standards. In a blog post, he called for a focus on artificial general intelligence (AGI) and national security. 

But it is precisely that focus on national security that may make the results of such an effort, assuming it happens, less than palatable outside of the US.

“The rapid progress we’re seeing in AI requires a new approach to testing frontier AI model capabilities that is dynamic, adaptable, and rigorous,” Hassabis wrote. “The US is well positioned, given its economic and technical standing, to take the first step in developing such a framework. It could establish a new Standards Body modelled on a federally overseen public-private partnership or self-regulatory organization, much like the Financial Industry Regulatory Authority (FINRA), with a board that includes independent leading technical experts and open-source representatives.”

He noted, however, that the funding would need to be substantial, and would most likely come from industry, to allow the new body to attract world-class technical talent and obtain the necessary compute resources for large-scale testing.

Hassabis proposed that the organization “be responsible for developing assessment protocols and working with appropriate federal agencies and the US National Labs to conduct testing in areas relevant to national security,” and that AI vendor participants be encouraged to adopt best practices such as publishing model cards with technical details, maintaining strong internal cybersecurity, vetting key personnel, and providing sufficient resourcing for safety and security research.

This is not the first time Hassabis has expressed worries about AGI. 

DeepMind was involved in an earlier US government initiative evaluating AI safety, alongside Microsoft and xAI (now SpaceXAI) working with the Center for AI Standards and Innovation (CAISI), a division of the US Department of Commerce. It allowed CAISI to conduct pre-deployment evaluations and targeted research to “better assess frontier AI capabilities and advance the state of AI security.”  

The rest of the world may have concerns

Analysts and consultants were mixed about the move, with most expressing concerns about whether an industry-focused group would prioritize the public’s best interests.

“Self-regulation is not viable because it implies everyone is able to regulate themselves and will do so in line with the best interests of the public. Most tech vendors don’t have the capacity to self-regulate. They would just prefer a set of rules within which they can operate,” said Gartner VP analyst Nader Henein. “For-profit organizations are required to do what is best for their shareholders, and external regulation ensures that those organizations are never in a conflict of interest where they have to choose between what is good for their shareholders and what is good for the public.”

And, said Sanchit Vir Gogia, chief analyst at Greyhound Research, given the international nature of AI models, an effort coordinated by the US government might alienate other countries. 

“National security is the proposal’s accelerator in Washington and its poison pill abroad: the framing that opens the only gate available at home invites foreign capitals to read the institution as an instrument of American strategy,” he pointed out.

“The map is already plural,” he said. “Brussels switches on enforcement powers over general-purpose models [starting in August 2026], London runs the AI Security Institute, and Beijing licenses on its own terms. California and New York have legislated for frontier models at home. The durable route is shared technical evidence with sovereign enforcement, sealed through mutual recognition rather than deference, with India and the other major non-Western markets holding authorship rather than seats.”

Gogia added that the rules enacted by even such a group may not address all of the key concerns of enterprise IT. A US government effort along the lines that Hassabis is proposing would result in testing that “sits close to intelligence and industrial policy, and those functions will not stay neatly separated. A model can pass every catastrophic-risk test and still fail the enterprise on privacy, reliability, and liability,” he noted.

Walmart’s former director of cybersecurity Steven Eric Fisher, who is now an independent cybersecurity consultant, said he found the proposal “well-intentioned, but it addresses a highly polarized topic at a time when commercial interests carry unprecedented political influence, which is not always applied benevolently.”

He added, “an exclusive US standard that is not globally respected or enforceable would likely fail to achieve its core purpose and would place US companies at a competitive disadvantage.”

Aman Mahapatra, chief strategy officer for Tribeca Softtech, a New York City-based technology consulting firm, said that a deep dive into how FINRA operates today is illustrative of what IT leaders can expect from this effort, assuming the industry adopts that model.

“When the CEOs of the five companies that would be regulated are also the primary drafters of the standards, the standards will reflect those companies’ interests. FINRA has an independent board, but the operational reality is that member firm perspectives dominate the working groups that write the actual rules,” he said. “There is no reason to expect an AI equivalent to work differently, and every reason to expect it to work worse, because AI standardization is happening faster than any industry has ever attempted to standardize itself, and speed is the enemy of independent oversight.”

Carmi Levy, an independent technology analyst, was even more emphatically opposed to the Hassabis proposal.

“Asking Big Tech companies to self-police is analogous to allowing foxes to guard the henhouse. It hasn’t worked to date, and it won’t work going forward. Expecting these organizations to somehow change their ways at this point in time represents the height of naïve thinking,” Levy said. “The framework proposed by Demis Hassabis is a self-serving roadmap for an industry bent on racing to the AI horizon regardless of the harms caused along the way. It is impossible to quantify the dangers to broader society should frameworks allowing self-regulation become the norm.”

Some love the proposal

An almost completely opposite stance came from Yuri Goryunov, CIO of consulting firm Acceligence, who applauded the proposed move.

“This is one of the rare setups where industry self-regulation has a real shot, and enterprise IT should be enthusiastically rooting for it,” he said. “It fails when harms are externalized, such as in social media content moderation. Or when the overseer outsources judgment to the overseen, such as the FAA’s delegation to Boeing before the 737 MAX. It works when everyone in the industry shares the catastrophic downside.”

He suggested, however, that the best precedent here isn’t FINRA, it’s INPO, the Institute of Nuclear Power Operations, which the nuclear industry created within months of the 1979 Three Mile Island partial reactor meltdown “on the logic that an accident anywhere is an accident everywhere. INPO peer-reviews every US plant, its evaluations move insurance premiums, and it sits on top of the NRC’s statutory floor. That is a public-private stack very close to what Hassabis is describing. Frontier AI has the same structure: one lab’s catastrophic failure brings regulation down on all of them.”

For enterprise CIOs and other IT executives, Goryunov said, that model has the potential for being a big win.

“Today, every enterprise duplicates the same AI diligence of red-teaming, eval suites, governance committees and each does so with less information than any certifying body would have,” Goryunov said. “A credible standards regime does for AI what UL did for electrical equipment and SOC2 did for cloud: it converts an unknowable risk into a procurable product and gives boards a defensible standard of care. That’s not red tape. That’s peace of mind with an audit trail.”

However, Mahapatra said, “the countervailing view is that the alternative to industry-led standards is probably not thoughtful legislation. It is probably no standards, or state-by-state fragmentation, or the current pattern of ex-post enforcement actions where regulators surface concerns years after harm has already occurred.”

Thus, he noted, “Hassabis is making the reasonable argument that imperfect fast standards are better than perfect slow ones, and there is genuine merit to that view for topics like agent identity, evaluation methodology, and interoperability, which are exactly the areas OpenClaw is also targeting.”

Google DeepMind CEO Demis Hassabis is pushing for the US AI industry to self-regulate, with the support of government, as a starting point for an international creating shared international standards. In a blog post, he called for a focus on artificial general intelligence (AGI) and national security. 

But it is precisely that focus on national security that may make the results of such an effort, assuming it happens, less than palatable outside of the US.

“The rapid progress we’re seeing in AI requires a new approach to testing frontier AI model capabilities that is dynamic, adaptable, and rigorous,” Hassabis wrote. “The US is well positioned, given its economic and technical standing, to take the first step in developing such a framework. It could establish a new Standards Body modelled on a federally overseen public-private partnership or self-regulatory organization, much like the Financial Industry Regulatory Authority (FINRA), with a board that includes independent leading technical experts and open-source representatives.”

He noted, however, that the funding would need to be substantial, and would most likely come from industry, to allow the new body to attract world-class technical talent and obtain the necessary compute resources for large-scale testing.

Hassabis proposed that the organization “be responsible for developing assessment protocols and working with appropriate federal agencies and the US National Labs to conduct testing in areas relevant to national security,” and that AI vendor participants be encouraged to adopt best practices such as publishing model cards with technical details, maintaining strong internal cybersecurity, vetting key personnel, and providing sufficient resourcing for safety and security research.

This is not the first time Hassabis has expressed worries about AGI. 

DeepMind was involved in an earlier US government initiative evaluating AI safety, alongside Microsoft and xAI (now SpaceXAI) working with the Center for AI Standards and Innovation (CAISI), a division of the US Department of Commerce. It allowed CAISI to conduct pre-deployment evaluations and targeted research to “better assess frontier AI capabilities and advance the state of AI security.”  

The rest of the world may have concerns

Analysts and consultants were mixed about the move, with most expressing concerns about whether an industry-focused group would prioritize the public’s best interests.

“Self-regulation is not viable because it implies everyone is able to regulate themselves and will do so in line with the best interests of the public. Most tech vendors don’t have the capacity to self-regulate. They would just prefer a set of rules within which they can operate,” said Gartner VP analyst Nader Henein. “For-profit organizations are required to do what is best for their shareholders, and external regulation ensures that those organizations are never in a conflict of interest where they have to choose between what is good for their shareholders and what is good for the public.”

And, said Sanchit Vir Gogia, chief analyst at Greyhound Research, given the international nature of AI models, an effort coordinated by the US government might alienate other countries. 

“National security is the proposal’s accelerator in Washington and its poison pill abroad: the framing that opens the only gate available at home invites foreign capitals to read the institution as an instrument of American strategy,” he pointed out.

“The map is already plural,” he said. “Brussels switches on enforcement powers over general-purpose models [starting in August 2026], London runs the AI Security Institute, and Beijing licenses on its own terms. California and New York have legislated for frontier models at home. The durable route is shared technical evidence with sovereign enforcement, sealed through mutual recognition rather than deference, with India and the other major non-Western markets holding authorship rather than seats.”

Gogia added that the rules enacted by even such a group may not address all of the key concerns of enterprise IT. A US government effort along the lines that Hassabis is proposing would result in testing that “sits close to intelligence and industrial policy, and those functions will not stay neatly separated. A model can pass every catastrophic-risk test and still fail the enterprise on privacy, reliability, and liability,” he noted.

Walmart’s former director of cybersecurity Steven Eric Fisher, who is now an independent cybersecurity consultant, said he found the proposal “well-intentioned, but it addresses a highly polarized topic at a time when commercial interests carry unprecedented political influence, which is not always applied benevolently.”

He added, “an exclusive US standard that is not globally respected or enforceable would likely fail to achieve its core purpose and would place US companies at a competitive disadvantage.”

Aman Mahapatra, chief strategy officer for Tribeca Softtech, a New York City-based technology consulting firm, said that a deep dive into how FINRA operates today is illustrative of what IT leaders can expect from this effort, assuming the industry adopts that model.

“When the CEOs of the five companies that would be regulated are also the primary drafters of the standards, the standards will reflect those companies’ interests. FINRA has an independent board, but the operational reality is that member firm perspectives dominate the working groups that write the actual rules,” he said. “There is no reason to expect an AI equivalent to work differently, and every reason to expect it to work worse, because AI standardization is happening faster than any industry has ever attempted to standardize itself, and speed is the enemy of independent oversight.”

Carmi Levy, an independent technology analyst, was even more emphatically opposed to the Hassabis proposal.

“Asking Big Tech companies to self-police is analogous to allowing foxes to guard the henhouse. It hasn’t worked to date, and it won’t work going forward. Expecting these organizations to somehow change their ways at this point in time represents the height of naïve thinking,” Levy said. “The framework proposed by Demis Hassabis is a self-serving roadmap for an industry bent on racing to the AI horizon regardless of the harms caused along the way. It is impossible to quantify the dangers to broader society should frameworks allowing self-regulation become the norm.”

Some love the proposal

An almost completely opposite stance came from Yuri Goryunov, CIO of consulting firm Acceligence, who applauded the proposed move.

“This is one of the rare setups where industry self-regulation has a real shot, and enterprise IT should be enthusiastically rooting for it,” he said. “It fails when harms are externalized, such as in social media content moderation. Or when the overseer outsources judgment to the overseen, such as the FAA’s delegation to Boeing before the 737 MAX. It works when everyone in the industry shares the catastrophic downside.”

He suggested, however, that the best precedent here isn’t FINRA, it’s INPO, the Institute of Nuclear Power Operations, which the nuclear industry created within months of the 1979 Three Mile Island partial reactor meltdown “on the logic that an accident anywhere is an accident everywhere. INPO peer-reviews every US plant, its evaluations move insurance premiums, and it sits on top of the NRC’s statutory floor. That is a public-private stack very close to what Hassabis is describing. Frontier AI has the same structure: one lab’s catastrophic failure brings regulation down on all of them.”

For enterprise CIOs and other IT executives, Goryunov said, that model has the potential for being a big win.

“Today, every enterprise duplicates the same AI diligence of red-teaming, eval suites, governance committees and each does so with less information than any certifying body would have,” Goryunov said. “A credible standards regime does for AI what UL did for electrical equipment and SOC2 did for cloud: it converts an unknowable risk into a procurable product and gives boards a defensible standard of care. That’s not red tape. That’s peace of mind with an audit trail.”

However, Mahapatra said, “the countervailing view is that the alternative to industry-led standards is probably not thoughtful legislation. It is probably no standards, or state-by-state fragmentation, or the current pattern of ex-post enforcement actions where regulators surface concerns years after harm has already occurred.”

Thus, he noted, “Hassabis is making the reasonable argument that imperfect fast standards are better than perfect slow ones, and there is genuine merit to that view for topics like agent identity, evaluation methodology, and interoperability, which are exactly the areas OpenClaw is also targeting.”

This article first appeared on CIO.

With AI increasingly tucked into every cranny of the enterprise, someone has had to step up and provide the tools necessary to discover, track, and monitor all the agents and LLMs and keep them humming along in their various workflows. Thankfully, the DevOps world answered the call, building the tools to support our new overlords in an emerging subdiscipline interchangeably called “AIOps,” “AgentOps,” and sometimes “agent observability.”

Many of the challenges involved in AgentOps are similar to those tackled by traditional DevOps tools and processes. After all, at their foundation, LLMs are just software running on hardware somewhere. Typical issues involving RAM and disk space are just as important in the agent world, maybe more so because AI operations are even more greedy about consuming storage than regular software is.

Many of the companies supporting agent observability are big names in DevOps circles, having adapted their stacks to address the idiosyncrasies of modern LLMs. IT teams maintaining enterprise agents can treat the LLMs as just one node in a big graph filled with services that are constantly swapping packets and triggering software jobs. Latency and resource constraints must be managed because end-users don’t care whether it’s an LLM, a database, or a plain-old Python script that’s failing, bringing their work to a grinding halt.

But new AI-specific challenges are opening the door to newcomers that are building tools with the peculiarities of LLMs in mind — for example, keeping deeper logs filled with records of prompts. LLMs are also often very non-deterministic by design, making it trickier to pinpoint failure modes. And then there’s the fact that an agent will give a perfectly intelligent answer one minute and hallucinate the next.

Relying on many of the same approaches that DevOps tools do, AgentOps tools watch for misbehavior and flag anything out of the ordinary for deeper analysis. This may be as simple as fixing slow responses, but it can also include AI hallucinations and other issues born of LLMs’ non-determanism.

Teams trying to choose which agent observability tools is best for their use case should look at the size and nature of their agentic systems and projects. Are they adding AI agent features to an existing product or application, or are they building agentic systems from scratch? Are they more focused on maintaining a stable LLM operation or iterating on new approaches? Is AI the center of attention or just an add-on that’s meant to improve an existing stack?

The AgentOps and agent observability options listed below share many of the same features but differ in their focus and their attention to the challenges organizations will encounter when incorporating agents into their stacks. Each tool offers a worthwhile place to start understanding how to care for the growing presence of AI in the production world.

AgentOps.ai

When teams of agents work together, tracking the conversations are essential for understanding and debugging what’s happening. The SDK from AgentOps.ai records events so that the creators can replay past behavior to track details such as token counts, spending, latency, and more. Available as a service and on-premises.

Pricing: Starts at $40 per month plus usage costs at $0.20 per 1M tokens

Standout feature: Replay analytics with “time-travel debugging”

Best suited for: Complex agent debugging

Arize Phoenix

Debugging prompts and LLM responses requires a nuanced understanding of just what’s happening, in part because of the non-determinism that often enters the process. Phoenix from Arize supports this process with robust tracing and the ability to score the results for more precise iteration. Their system can track the results and tool calls from a variety of major platforms (Anthropic, AWS, OpenAI, etc.) that are initiated by the major frameworks (LangChain, LlamaIndex, DSPy, etc.). The result is insight into what data is triggering what chain of responses.

Pricing: Small free tier; Pro plan starts at $50 per month plus costs tied to events

Standout feature: LLM-as-a-Judge metrics for tracking quality

Best suited for: Teams focusing on iterating for accuracy and quality

BigPanda

BigPanda has always offered solutions for tracking performance of complex systems. Now the company is drilling deeper into the challenge of detecting and ending the problems that come from models that go awry. BigPanda’s main system relies on historical data and machine learning algorithms to flag issues. Its own agent layer connects the problematic nodes and errant models while dispatching alerts to the right team members.

Pricing: “Value-based” table on request

Standout feature: Automated triage for faster response

Best suited for: Large teams seeking to reduce alert fatigue from large customer base

Braintrust

Setting up an effective improvement cycle for an AI agent requires a strong feedback loop from production data to the agent’s next generation. Braintrust watches the production workload and creates test vectors that expose how an agent may be drifting, regressing, or departing from its path. The tool automates much of the testing and scoring feedback loop so problematic patterns can be discovered and addressed. A core part of the offering is a specialized data store that can track large and sometimes deeply nested collections of tests and their results. Their approach may be summarized by one of their tag lines: “trace everything.”

Pricing: Free starter tier; Pro plan starts at $249 with some usage-based costs covered

Standout feature: Highly scalable trace ingestion

Best for: Teams developing strong guardrails through continuous testing

Chronicle Labs

When it’s time to release a new version of an agent into the wild, the platform from Chronicle Labs specializes in staging it and testing it with a collection of use tests and regression cases. The tools are also helpful during development cycles. “Backtest your agent against reality,” their sales material promises, with a set of tools that mines the production telemetry for solid test vectors that stress every part of the agent with prompts and challenges that the agent will encounter after leaving the safety of the lab.

Pricing: On request

Standout feature: Back-testing options for complex testing regimes

Best for: Teams chasing strong models with good fidelity to reality

Comet Opik

Building a dashboard for tracking every in-flow and out-flow to agents is one way to be ready to watch for and solve problems. Opik from Comet is just such a tool. The DevOps teams can track each call and add its own automated routines to examine the results, score them based on 30-plus metrics, and if desired, send it off to another LLM to evaluate the results. Agents that are constantly failing stand out. DevOps teams can also ask questions like, “Who is using this model and racking up all of the bills?” The same goes for MCP skills and other cogs in the machine.

Pricing: Free tiers for open source and small projects; Pro plan starts at $19 per month with usage limits

Standout feature: Auto-scoring with 30-plus metrics for evaluating traces

Best for: Teams focusing on RAG and agentic workflows

Datadog

DevOps teams that rely on Datadog to track logs across collections of services can also use it to track LLM operations, which are, of course, just another source and sink for data. It will track performance such as time to first token and offer insight into what might be causing an issue, such as lack of memory. Results then get plugged into the same cost-tracking mechanism so the bean counters can predict when the budget will run out. After all, the CFO likely doesn’t care whether the bill comes from an LLM or an old-school S3 storage bucket. Datadog integrates AI into their tools by treating these models as just another source of data.

Pricing: Small free tier with multiple paid tiers for various levels of enterprise monitoring

Standout feature: Large installed base with broad focus on more than LLMs

Best for: Large enterprise teams working with established infrastructure

Dynatrace

For more than 20 years, Dynatrace has been delivering tools that track dataflows across the full stack. Now that AIs are finding roles in many of the nodes in this complex graph, they’re expanding to track how various AI agents can interact. They want to build one platform that helps track the root cause and, often now, deploy solutions autonomously. They want to focus on being ready to support complex networks of agents that detect problems in either performance or security and then work within defined guardrails to fix them. Determining the right role for their own AI-powered agents is a key part of the product.

Pricing: Plans start at $7 per month with larger plans designed for full enterprise monitoring

Standout feature: High level of autonomous monitoring designed for large installations

Best for: Complex, hybrid environments mixing LLMs with traditional services

Galileo

Placing some AI systems into production is often a harrowing experience because the actual performance is impossible to predict, even with the most rigorous tests. Galileo offers guardrails that track performance and watch for any behavior that deviates from the ground truth. Their “LLM-as-judge” systems are distilled into compact models that can be run locally for lower costs and faster performance.

Pricing: Small free tier; Pro plans start at $50 per month with usage-based limits and costs

Standout feature: Real-time guardrails for deployed agents

Best for: Security-conscious installations that need to defend against hallucination and data leakage

Grafana Labs

Long the go-to source for open source telemetry, Grafana Labs now tracks performance of AI models in constellations of services. Grafana tracks the evolution of answers across the agentic network to recognize how small changes or hallucinations can spin out of control. It bills its system as “actually useful AI” and has even trademarked it. Its cloud assistant can configure and reconfigure the Grafana dash to offer the right level of observability. Its system includes AI-level analysis that can flag models that are responding quickly but offering bad answers because of problems such as model drift or context degradation.

Pricing: Basic free tier; Pro plan begins at $19 per month, includes better retention and some usage-based fees 

Standout feature: Full-stack tool with fully integrated LLM tools

Best for: Large, enterprise-scale system adding AI

Helicone

Sometimes shoehorning in another tool into the chain can be tricky. Helicone is designed as a smart network proxy that will route all model requests while keeping solid debugging records from the data as it goes by. The data it captures can be turned into nice charts that make it easy to spot latency issues or model failures. Naturally, tracking AI spend is also a feature in much demand as bills continue to climb.

Pricing: Small free tier; Pro plan starts at $79 per month, includes features such as team collaboration and improved querying

Standout feature: Proxy-based integration

Best for: Development teams who want to add better monitoring features quickly

Laminar

Tracking agents in development and production means building strong storehouses of data enumerating what happened. Laminar works closely with OpenTelemetry to follow agents operating in production so that flaws and failure modes can be understood from log files stored efficiently with their own compression scheme. Developers can search through traces with an SQL-ish language and Laminar’s transcript view illuminates what happened. When necessary, the traces can enable developers to scroll back in time and replay the same inputs for debugging. The goal is to offer deep insights with high-level visibility of how well the agents are meeting business objectives.

Pricing: Small free tier; “Hobby” tier that adds more features at $30; Pro level starts at $150 per month

Standout feature: Open-source license makes self-hosting a viable option

Best for: Teams fully able to leverage open-source responsibilities

LangChain LangSmith

Real-time data from agents is essential for managing any mutli-agent system in production. LangSmith from LangChain traces costs, tools, and progress toward solutions for a wide collection of agents using SDKs for Python, TypeScript, Go, and Java. The OpenTelemetry-based solution watches for anomalies, issuing warnings and alerts through dashboards and communication channels such as PagerDuty. Deeper analysis can reveal issues such as topic clustering or odd patterns of failure. Coordination with agent deployment platforms such as LangGraph and deepagents ensures greater focus on successful resolution of assignments.

Pricing: Free for solo developers; Pro teams start at $39 per person per month 

Standout feature: Systematic approach to regression testing of prompts

Best for: Teams relying on LangChain and LangGraph frameworks for supporting complex agentic behavior

Lunary

Watching the user experience is essential for building AI applications such as chatbots and assistants. Lunary offers a proxy that traces all interactions and then builds analytical dashboards for measuring metrics such as user satisfaction or model costs. One common usage is finding frequent topics and looking at the responses to ensure they deliver. When prompts aren’t perfect, Lunary lets teams iterate on the prompt text until the right answers are coming out. Its proxy structure and common API format enables Lunary to promise to work with “any LLM, any framework.”

Pricing: Free tier; Pro plan starts at $20 per month

Standout feature: Deep integration with humans for reviewing and optimizing results

Best for: Startups focused on rapid prompt innovation

NewRelic

The platform that began tracking performance of some web applications is now powerful enough to track the flows of data through complex agentic ecologies. NewRelic’s AI-driven monitoring watches for golden signals that can indicate misbehavior or worse throughout the entire lifecycle. It tracks every detail of the interactions through protocols such as MCP and then makes this available to the AI engineers responsible for performance. The dashboard provides the insights necessary to watch for toxic behavior, overt bias, drift, and overblown hallucinations. Predicting and maybe even controlling the cost is also a growing role as tokenomics becomes as important as response time.

Pricing: Free tier; Pro plan fees available through website

Standout feature: Full-stack support with hundreds of integrations with other tools

Best for: Established enterprise teams mixing in AI

Nova AI Ops

The goal of Nova AI Ops is to deliver a team of agents that watch over a cloud and make it, at least partially, self-healing. Each agent uses a mixture of predictive AI and machine learning to watch cloud telemetry reports for anomalies. Then they calculate the “blast radius” and decide whether this is a problem that can be fixed automatically “while you sleep” or saved for the human supervisors. These tools are aimed not just on LLM operations but on the stack as a whole.

Pricing: Small free tier; Standard pricing  begins at $40 per user per month with usage billing

Standout feature: Focus on software reliability engineering helps teams deliver stable stacks

Best for: Teams that want to integrate LLMs into incident response and stability management

Splunk

The platform that began delivering smart logging is now fully AI capable, offering solutions that can watch over agents with much the same way that it continues to track microservices. Splunk now includes a fairly large amount of predictive AI for learning from the information in the logs and then turning this learning into fast solutions. This AI assistant can track deployed AI models connected by protocols such as MCP and watch over behavior while delivering the ability for users to drill down and explore what’s working and what’s failing. Their AI Canvas is meant to offer a central hub where the AI scientists can track both the local behavior of the models as well as their role in a larger data ecosystem.

Pricing: Activity-based pricing tracks usage of LLM backends and storage

Standout feature: Ready to scale to large enterprise stacks

Best for: Teams with legacy systems that are folding in agentic options

SuperPenguin

One of the most important parts of an AI service is the bill. SuperPenguin is a product designed to track consumption and make predictions so that the CFO won’t be surprised. The goal is to provide solid estimates about the total cost of each product by allocating costs to customers, features, and teams. If there’s a sudden shift, a “spike detector” will raise an alarm so that dev teams can ensure that the AI spend is worth it.

Pricing: Small free tier for experimentation; Growth tier for teams, starting at $30 per month; Pro tier offers deeper options starting at $200 per month

Standout feature: Strong accounting with invoice reconciliation and PR-level usage tracking

Best for: Teams that need precise cost accounting

Vellum

Prompt engineers spend time fussing over the details of tweaking, improving, and enhancing the words that guide the LLM. Vellum started as a company that would provide the pipeline so that you could manage and improve the prompts that ran again and again. Now the system is growing more powerful, offering a higher level of automation that lets you meta-manage the prompt chain. They’ve also begun marketing it as a form of personal assistant with pre-built connections to many of the major services such as Gmail. Its llm-cost-optimizer can juggle multiple options while finding a cheaper way to execute a prompt, a process the company suggests can save 60% or more.

Pricing: Open-source free tier; Pro plan starts at $35 per month

Standout feature: Focus on multi-model pipelines for true agentic solutions

Best for: Product teams with complex prompt engineering workflows

It’s been several years since generative AI and large language models (LLMs) took the world by storm. LLMs surpassed earlier natural-language systems at generating text, while diffusion models enabled generating images, music, and videos.

These generative AI models work well in the digital world, but on their own, they have limited capabilities to comprehend the three-dimensional physical world and other spaces. This includes the objects occupying an area, how they relate to each other, tracking movement, and answering complex questions requiring an understanding of dimensions, distances, motion, and collisions.

Spatial intelligence is an AI capability that allows models to reason about three-dimensional space. These models can generate 3D scenes of the world and other spaces. This content can then be displayed through traditional renderers, game engines, or AR/VR systems that use spatial computing techniques. But it’s the spatial intelligence model’s ability to connect natural language with 3D models that has the most applications in robotics, manufacturing, construction, and other physical environments.   

Dr. Fei-Fei Li, often called the godmother of AI, published a manifesto on how spatial intelligence is AI’s next frontier, contrasting it with LLMs. “While current state-of-the-art AI can excel at reading, writing, research, and pattern recognition in data, these same models bear fundamental limitations when representing or interacting with the physical world,” wrote Dr. Li. “Our view of the world is holistic—not just what we’re looking at, but how everything relates spatially, what it means, and why it matters. Understanding this through imagination, reasoning, creation, and interaction—not just descriptions—is the power of spatial intelligence.”

The concept of spatial intelligence isn’t new and was described in Howard Gardner’s book, Frames of Mind, in 1983. Recent breakthroughs, including the launch of World Labs’ Marble and its $1 billion funding round, and competing approaches from Google’s Genie 3 and Nvidia Cosmos, should put spatial intelligence and world models on more R&D road maps.

What are spatial intelligence models?

It’s important to develop AI literacy and understand the terminology and concepts related to the physical world and 3D AI technologies: 

• Spatial intelligence encompasses specialized approaches such as geospatial models for mapping the physical world and building information modeling (BIM) for modeling physical structures. It also extends to generative 3D, robotics, and physical reasoning applications.
• World models are a class of neural network architectures and are currently a prominent approach to building spatial intelligence.
• Digital twins are live, virtual replicas of physical assets that combine 3D models with real-time sensor data. Spatial intelligence, an emerging capability of digital twins, adds natural-language prompting, generative scenario exploration, and physics-aware reasoning.
• Spatial computing refers to digital content anchored in and interacting with physical space, sensed and rendered in three dimensions and delivered through AR/VR and mixed-reality systems.

“Spatial intelligence models go beyond pixels to understand the 3D structure of the world—how objects are positioned, how they move, and how they interact,” says David Fattal, founder and CTO at Leia. “This enables applications like more realistic video generation, spatial computing interfaces, and AI systems that can reason about physical environments. As real-world 3D data becomes more available, these models will become foundational to the next generation of visual AI.”

Monitoring the built environment

To better understand spatial intelligence, let’s consider physical infrastructure such as bridges and buildings. The American Society of Civil Engineers estimates a $9.1 trillion investment is needed from 2024 through 2033 to achieve a state of good repair. When maintenance and monitoring lag, it can lead to major failures such as the 2022 collapse of the Fern Hollow Bridge in Pittsburgh.

Spatial intelligence and the development of digital twins may help identify issues earlier and prioritize where investments are needed. “Spatial intelligence models serve as the 4D digital blueprints for our built environment, allowing us to visualize and predict the complex interactions between aging assets and the shifting ground beneath them,” says Patrick Cozzi, chief platform officer at Bentley Systems. “By synthesizing disparate geospatial data into a living digital twin, these models provide the foresight necessary to mitigate the hidden risks of structural fatigue and subsurface instability.”

There’s a significant challenge in bridge health monitoring and transitioning from manual, infrequent structural inspections to leveraging sensors, digital twins, and spatial intelligence. Cozzi adds, “This integration of continuous field data moves beyond static documentation, empowering agencies to evolve from reactive repairs to proactive, resilient asset management that safeguards the long-term integrity of our most critical public systems.”

Avoiding collisions

Bridges are largely static, but the real world is increasingly being occupied by autonomous systems such as self-driving cars, robots, and drones. And where there are moving systems, there is a risk of collisions.

“Spatial intelligence models are AI systems that reason about the physical world by combining vision, sensor data, and contextual cues to understand space, motion, and object relationships,” says Sudeep George, CTO at iMerit. “The value of spatial intelligence models lies not just in perceiving an environment, but in enabling machines to act within it safely and in real time. That is especially important in robotics and autonomous systems, where decisions must be made in complex, multimodal, fast-changing settings.”

To see one example, this tutorial for simulating robotic environments combines Nvidia Isaac Sim, an open source robotics reference framework, with spatial intelligence in Marble from World Labs. 

Today’s collision detection systems, such as those used in autonomous vehicles, typically rely on modules for sensing, perception, planning, and control. Spatial intelligence models may offer improvements by assessing the collision risks of unidentified objects or by tracking objects that move out of sensor view. For example, Waymo’s World Model, built on Genie 3, is a simulator that generates complex weather conditions and other critical safety events.

For an out-of-this-world example, James Urquhart, field CTO and technology evangelist at Kamiwaza, has delivered several examples of spatial intelligence applications, including one for satellite collision detection and conflict analysis. Urquhart says, “Models that specialize in these types of data sets, as well as the physics and geography of the real world, enable faster and more accurate decision-making for tasks that depend on them.”

Applying spatial intelligence

Recent spatial intelligence announcements include creating 3D worlds from image or text prompts with Marble and simulating water physics, lighting, weather, and animal behavior with Genie 3. But difficulties remain in bringing spatial intelligence to physical-world use cases.

“Spatial intelligence and world models are laying the groundwork for future AI agents that will be able to interact in and with our physical world,” says Jason Corso, cofounder and chief scientist at Voxel51. “These models are significantly more challenging to develop and test, largely because the data underlying their development is complex, and it’s hard to handle all of the combinatorics involved in the physical world.”

In addition to learning the models and prototyping with them, development and data leaders need to review the data assets that will feed spatial intelligence models. “Spatial intelligence models translate location signals into a structured understanding of the real world, but they’re only as reliable as the data beneath them,” says Dan Adams, executive vice president and general manager of Enrich at Precisely. “The real unlock isn’t the model—it’s the reference layer with persistent identifiers, confidence metadata, and source lineage that lets AI reason about places, not just match strings.”

Even once applications are developed, there will be infrastructure challenges in deploying them at the edge. Ali Kayyam, principal research scientist at BrainChip, says, “The key to unlocking spatial intelligence at scale is having the low-power, event-driven hardware that can run it at the sensor in real time where it matters most.”

Where to get started

My suggestions for developers looking to get hands-on with spatial intelligence and world models:

• To try out Marble, review their API documentation and case studies, and then experiment with a developer-focused React application.
• Review the Nvidia Cosmos developer hub, documentation, and cookbook of case studies and learning paths.
• You can get an overview of Genie 3, but access is currently restricted through Project Genie, which requires a Google AI Ultra subscription.

Google DeepMind CEO Demis Hassabis on Tuesday reiterated his push for an AI industry self-regulation effort, led by the US government, that is particularly focused on artificial general intelligence (AGI) and national security. 

But it is precisely that focus on national security that may make the results of such an effort, assuming it happens, less than palatable outside of the US.

“The rapid progress we’re seeing in AI requires a new approach to testing frontier AI model capabilities that is dynamic, adaptable, and rigorous,” Hassabis wrote. “The US is well positioned, given its economic and technical standing, to take the first step in developing such a framework. It could establish a new Standards Body modelled on a federally overseen public-private partnership or self-regulatory organization, much like the Financial Industry Regulatory Authority (FINRA), with a board that includes independent leading technical experts and open-source representatives.”

He noted, however, that the funding would need to be substantial, and would most likely come from industry, to allow the new body to attract world-class technical talent and obtain the necessary compute resources for large-scale testing.

Hassabis said he would propose that the organization “be responsible for developing assessment protocols and working with appropriate federal agencies and the US National Labs to conduct testing in areas relevant to national security,” and that AI vendor participants would be encouraged to adopt best practices, such as publishing model cards with technical details, maintaining strong internal cybersecurity, vetting key personnel, and providing sufficient resourcing for safety and security research.

This is not the first time Hassabis has expressed worries about AGI. He has already worked on a US government initiative evaluating AI safety, which involved DeepMind, Microsoft and xAI (now SpaceXAI) working with the Center for AI Standards and Innovation (CAISI), a division of the US Department of Commerce. It allowed CAISI to conduct pre-deployment evaluations and targeted research to “better assess frontier AI capabilities and advance the state of AI security.”  

The rest of the world may have concerns

Analysts and consultants were mixed about the move, with most expressing concerns about whether an industry-focused group would prioritize the public’s best interests.

“Self-regulation is not viable because it implies everyone is able to regulate themselves and will do so in line with the best interests of the public. Most tech vendors don’t have the capacity to self-regulate. They would just prefer a set of rules within which they can operate,” said Gartner VP analyst Nader Henein. “For-profit organizations are required to do what is best for their shareholders, and external regulation ensures that those organizations are never in a conflict of interest where they have to choose between what is good for their shareholders and what is good for the public.”

And, said Sanchit Vir Gogia, chief analyst at Greyhound Research, given the international nature of AI models, an effort coordinated by the US government might alienate other countries. 

“National security is the proposal’s accelerator in Washington and its poison pill abroad: the framing that opens the only gate available at home invites foreign capitals to read the institution as an instrument of American strategy,” he pointed out.

“The map is already plural,” he said. “Brussels switches on enforcement powers over general-purpose models [starting in August 2026], London runs the AI Security Institute, and Beijing licenses on its own terms. California and New York have legislated for frontier models at home. The durable route is shared technical evidence with sovereign enforcement, sealed through mutual recognition rather than deference, with India and the other major non-Western markets holding authorship rather than seats.”

Gogia added that the rules enacted by even such a group may not address all of the key concerns of enterprise IT. A US government effort along the lines that Hassabis is proposing would result in testing that “sits close to intelligence and industrial policy, and those functions will not stay neatly separated. A model can pass every catastrophic-risk test and still fail the enterprise on privacy, reliability, and liability,” he noted.

Walmart’s former director of cybersecurity Steven Eric Fisher, who is now an independent cybersecurity consultant, said he found the proposal “well-intentioned, but it addresses a highly polarized topic at a time when commercial interests carry unprecedented political influence, which is not always applied benevolently.”

He added, “an exclusive US standard that is not globally respected or enforceable would likely fail to achieve its core purpose and would place US companies at a competitive disadvantage.”

Aman Mahapatra, chief strategy officer for Tribeca Softtech, a New York City-based technology consulting firm, said that a deep dive into how FINRA operates today is illustrative of what IT leaders can expect from this effort, assuming the industry adopts that model.

“When the CEOs of the five companies that would be regulated are also the primary drafters of the standards, the standards will reflect those companies’ interests. FINRA has an independent board, but the operational reality is that member firm perspectives dominate the working groups that write the actual rules,” he said. “There is no reason to expect an AI equivalent to work differently, and every reason to expect it to work worse, because AI standardization is happening faster than any industry has ever attempted to standardize itself, and speed is the enemy of independent oversight.”

Carmi Levy, an independent technology analyst, was even more emphatically opposed to the Hassabis proposal.

“Asking Big Tech companies to self-police is analogous to allowing foxes to guard the henhouse. It hasn’t worked to date, and it won’t work going forward. Expecting these organizations to somehow change their ways at this point in time represents the height of naïve thinking,” Levy said. “The framework proposed by Demis Hassabis is a self-serving roadmap for an industry bent on racing to the AI horizon regardless of the harms caused along the way. It is impossible to quantify the dangers to broader society should frameworks allowing self-regulation become the norm.”

Some love the proposal

An almost completely opposite stance came from Yuri Goryunov, CIO of consulting firm Acceligence, who applauded the proposed move.

“This is one of the rare setups where industry self-regulation has a real shot, and enterprise IT should be enthusiastically rooting for it,” he said. “It fails when harms are externalized, such as in social media content moderation. Or when the overseer outsources judgment to the overseen, such as the FAA’s delegation to Boeing before the 737 MAX. It works when everyone in the industry shares the catastrophic downside.”

He suggested, however, that the best precedent here isn’t FINRA, it’s INPO, the Institute of Nuclear Power Operations, which the nuclear industry created within months of the 1979 Three Mile Island partial reactor meltdown “on the logic that an accident anywhere is an accident everywhere. INPO peer-reviews every US plant, its evaluations move insurance premiums, and it sits on top of the NRC’s statutory floor. That is a public-private stack very close to what Hassabis is describing. Frontier AI has the same structure: one lab’s catastrophic failure brings regulation down on all of them.”

For enterprise CIOs and other IT executives, Goryunov said, that model has the potential for being a big win.

“Today, every enterprise duplicates the same AI diligence of red-teaming, eval suites, governance committees and each does so with less information than any certifying body would have,” Goryunov said. “A credible standards regime does for AI what UL did for electrical equipment and SOC2 did for cloud: it converts an unknowable risk into a procurable product and gives boards a defensible standard of care. That’s not red tape. That’s peace of mind with an audit trail.”

However, Mahapatra said, “the countervailing view is that the alternative to industry-led standards is probably not thoughtful legislation. It is probably no standards, or state-by-state fragmentation, or the current pattern of ex-post enforcement actions where regulators surface concerns years after harm has already occurred.”

Thus, he noted, “Hassabis is making the reasonable argument that imperfect fast standards are better than perfect slow ones, and there is genuine merit to that view for topics like agent identity, evaluation methodology, and interoperability, which are exactly the areas OpenClaw is also targeting.”

Google DeepMind CEO Demis Hassabis on Tuesday reiterated his push for an AI industry self-regulation effort, led by the US government, that is particularly focused on artificial general intelligence (AGI) and national security. 

But it is precisely that focus on national security that may make the results of such an effort, assuming it happens, less than palatable outside of the US.

“The rapid progress we’re seeing in AI requires a new approach to testing frontier AI model capabilities that is dynamic, adaptable, and rigorous,” Hassabis wrote. “The US is well positioned, given its economic and technical standing, to take the first step in developing such a framework. It could establish a new Standards Body modelled on a federally overseen public-private partnership or self-regulatory organization, much like the Financial Industry Regulatory Authority (FINRA), with a board that includes independent leading technical experts and open-source representatives.”

He noted, however, that the funding would need to be substantial, and would most likely come from industry, to allow the new body to attract world-class technical talent and obtain the necessary compute resources for large-scale testing.

Hassabis said he would propose that the organization “be responsible for developing assessment protocols and working with appropriate federal agencies and the US National Labs to conduct testing in areas relevant to national security,” and that AI vendor participants would be encouraged to adopt best practices, such as publishing model cards with technical details, maintaining strong internal cybersecurity, vetting key personnel, and providing sufficient resourcing for safety and security research.

This is not the first time Hassabis has expressed worries about AGI. He has already worked on a US government initiative evaluating AI safety, which involved DeepMind, Microsoft and xAI (now SpaceXAI) working with the Center for AI Standards and Innovation (CAISI), a division of the US Department of Commerce. It allowed CAISI to conduct pre-deployment evaluations and targeted research to “better assess frontier AI capabilities and advance the state of AI security.”  

The rest of the world may have concerns

Analysts and consultants were mixed about the move, with most expressing concerns about whether an industry-focused group would prioritize the public’s best interests.

“Self-regulation is not viable because it implies everyone is able to regulate themselves and will do so in line with the best interests of the public. Most tech vendors don’t have the capacity to self-regulate. They would just prefer a set of rules within which they can operate,” said Gartner VP analyst Nader Henein. “For-profit organizations are required to do what is best for their shareholders, and external regulation ensures that those organizations are never in a conflict of interest where they have to choose between what is good for their shareholders and what is good for the public.”

And, said Sanchit Vir Gogia, chief analyst at Greyhound Research, given the international nature of AI models, an effort coordinated by the US government might alienate other countries. 

“National security is the proposal’s accelerator in Washington and its poison pill abroad: the framing that opens the only gate available at home invites foreign capitals to read the institution as an instrument of American strategy,” he pointed out.

“The map is already plural,” he said. “Brussels switches on enforcement powers over general-purpose models [starting in August 2026], London runs the AI Security Institute, and Beijing licenses on its own terms. California and New York have legislated for frontier models at home. The durable route is shared technical evidence with sovereign enforcement, sealed through mutual recognition rather than deference, with India and the other major non-Western markets holding authorship rather than seats.”

Gogia added that the rules enacted by even such a group may not address all of the key concerns of enterprise IT. A US government effort along the lines that Hassabis is proposing would result in testing that “sits close to intelligence and industrial policy, and those functions will not stay neatly separated. A model can pass every catastrophic-risk test and still fail the enterprise on privacy, reliability, and liability,” he noted.

Walmart’s former director of cybersecurity Steven Eric Fisher, who is now an independent cybersecurity consultant, said he found the proposal “well-intentioned, but it addresses a highly polarized topic at a time when commercial interests carry unprecedented political influence, which is not always applied benevolently.”

He added, “an exclusive US standard that is not globally respected or enforceable would likely fail to achieve its core purpose and would place US companies at a competitive disadvantage.”

Aman Mahapatra, chief strategy officer for Tribeca Softtech, a New York City-based technology consulting firm, said that a deep dive into how FINRA operates today is illustrative of what IT leaders can expect from this effort, assuming the industry adopts that model.

“When the CEOs of the five companies that would be regulated are also the primary drafters of the standards, the standards will reflect those companies’ interests. FINRA has an independent board, but the operational reality is that member firm perspectives dominate the working groups that write the actual rules,” he said. “There is no reason to expect an AI equivalent to work differently, and every reason to expect it to work worse, because AI standardization is happening faster than any industry has ever attempted to standardize itself, and speed is the enemy of independent oversight.”

Carmi Levy, an independent technology analyst, was even more emphatically opposed to the Hassabis proposal.

“Asking Big Tech companies to self-police is analogous to allowing foxes to guard the henhouse. It hasn’t worked to date, and it won’t work going forward. Expecting these organizations to somehow change their ways at this point in time represents the height of naïve thinking,” Levy said. “The framework proposed by Demis Hassabis is a self-serving roadmap for an industry bent on racing to the AI horizon regardless of the harms caused along the way. It is impossible to quantify the dangers to broader society should frameworks allowing self-regulation become the norm.”

Some love the proposal

An almost completely opposite stance came from Yuri Goryunov, CIO of consulting firm Acceligence, who applauded the proposed move.

“This is one of the rare setups where industry self-regulation has a real shot, and enterprise IT should be enthusiastically rooting for it,” he said. “It fails when harms are externalized, such as in social media content moderation. Or when the overseer outsources judgment to the overseen, such as the FAA’s delegation to Boeing before the 737 MAX. It works when everyone in the industry shares the catastrophic downside.”

He suggested, however, that the best precedent here isn’t FINRA, it’s INPO, the Institute of Nuclear Power Operations, which the nuclear industry created within months of the 1979 Three Mile Island partial reactor meltdown “on the logic that an accident anywhere is an accident everywhere. INPO peer-reviews every US plant, its evaluations move insurance premiums, and it sits on top of the NRC’s statutory floor. That is a public-private stack very close to what Hassabis is describing. Frontier AI has the same structure: one lab’s catastrophic failure brings regulation down on all of them.”

For enterprise CIOs and other IT executives, Goryunov said, that model has the potential for being a big win.

“Today, every enterprise duplicates the same AI diligence of red-teaming, eval suites, governance committees and each does so with less information than any certifying body would have,” Goryunov said. “A credible standards regime does for AI what UL did for electrical equipment and SOC2 did for cloud: it converts an unknowable risk into a procurable product and gives boards a defensible standard of care. That’s not red tape. That’s peace of mind with an audit trail.”

However, Mahapatra said, “the countervailing view is that the alternative to industry-led standards is probably not thoughtful legislation. It is probably no standards, or state-by-state fragmentation, or the current pattern of ex-post enforcement actions where regulators surface concerns years after harm has already occurred.”

Thus, he noted, “Hassabis is making the reasonable argument that imperfect fast standards are better than perfect slow ones, and there is genuine merit to that view for topics like agent identity, evaluation methodology, and interoperability, which are exactly the areas OpenClaw is also targeting.”

This article originally appeared on CIO.com.

It’s been several years since generative AI and large language models (LLMs) took the world by storm. LLMs surpassed earlier natural-language systems at generating text, while diffusion models enabled generating images, music, and videos.

These generative AI models work well in the digital world, but on their own, they have limited capabilities to comprehend the three-dimensional physical world and other spaces. This includes the objects occupying an area, how they relate to each other, tracking movement, and answering complex questions requiring an understanding of dimensions, distances, motion, and collisions.

Spatial intelligence is an AI capability that allows models to reason about three-dimensional space. These models can generate 3D scenes of the world and other spaces. This content can then be displayed through traditional renderers, game engines, or AR/VR systems that use spatial computing techniques. But it’s the spatial intelligence model’s ability to connect natural language with 3D models that has the most applications in robotics, manufacturing, construction, and other physical environments.   

Dr. Fei-Fei Li, often called the godmother of AI, published a manifesto on how spatial intelligence is AI’s next frontier, contrasting it with LLMs. “While current state-of-the-art AI can excel at reading, writing, research, and pattern recognition in data, these same models bear fundamental limitations when representing or interacting with the physical world,” wrote Dr. Li. “Our view of the world is holistic—not just what we’re looking at, but how everything relates spatially, what it means, and why it matters. Understanding this through imagination, reasoning, creation, and interaction—not just descriptions—is the power of spatial intelligence.”

The concept of spatial intelligence isn’t new and was described in Howard Gardner’s book, Frames of Mind, in 1983. Recent breakthroughs, including the launch of World Labs’ Marble and its $1 billion funding round, and competing approaches from Google’s Genie 3 and Nvidia Cosmos, should put spatial intelligence and world models on more R&D road maps.

What are spatial intelligence models?

It’s important to develop AI literacy and understand the terminology and concepts related to the physical world and 3D AI technologies: 

• Spatial intelligence encompasses specialized approaches such as geospatial models for mapping the physical world and building information modeling (BIM) for modeling physical structures. It also extends to generative 3D, robotics, and physical reasoning applications.
• World models are a class of neural network architectures and are currently a prominent approach to building spatial intelligence.
• Digital twins are live, virtual replicas of physical assets that combine 3D models with real-time sensor data. Spatial intelligence, an emerging capability of digital twins, adds natural-language prompting, generative scenario exploration, and physics-aware reasoning.
• Spatial computing refers to digital content anchored in and interacting with physical space, sensed and rendered in three dimensions and delivered through AR/VR and mixed-reality systems.

“Spatial intelligence models go beyond pixels to understand the 3D structure of the world—how objects are positioned, how they move, and how they interact,” says David Fattal, founder and CTO at Leia. “This enables applications like more realistic video generation, spatial computing interfaces, and AI systems that can reason about physical environments. As real-world 3D data becomes more available, these models will become foundational to the next generation of visual AI.”

Monitoring the built environment

To better understand spatial intelligence, let’s consider physical infrastructure such as bridges and buildings. The American Society of Civil Engineers estimates a $9.1 trillion investment is needed from 2024 through 2033 to achieve a state of good repair. When maintenance and monitoring lag, it can lead to major failures such as the 2022 collapse of the Fern Hollow Bridge in Pittsburgh.

Spatial intelligence and the development of digital twins may help identify issues earlier and prioritize where investments are needed. “Spatial intelligence models serve as the 4D digital blueprints for our built environment, allowing us to visualize and predict the complex interactions between aging assets and the shifting ground beneath them,” says Patrick Cozzi, chief platform officer at Bentley Systems. “By synthesizing disparate geospatial data into a living digital twin, these models provide the foresight necessary to mitigate the hidden risks of structural fatigue and subsurface instability.”

There’s a significant challenge in bridge health monitoring and transitioning from manual, infrequent structural inspections to leveraging sensors, digital twins, and spatial intelligence. Cozzi adds, “This integration of continuous field data moves beyond static documentation, empowering agencies to evolve from reactive repairs to proactive, resilient asset management that safeguards the long-term integrity of our most critical public systems.”

Avoiding collisions

Bridges are largely static, but the real world is increasingly being occupied by autonomous systems such as self-driving cars, robots, and drones. And where there are moving systems, there is a risk of collisions.

“Spatial intelligence models are AI systems that reason about the physical world by combining vision, sensor data, and contextual cues to understand space, motion, and object relationships,” says Sudeep George, CTO at iMerit. “The value of spatial intelligence models lies not just in perceiving an environment, but in enabling machines to act within it safely and in real time. That is especially important in robotics and autonomous systems, where decisions must be made in complex, multimodal, fast-changing settings.”

To see one example, this tutorial for simulating robotic environments combines Nvidia Isaac Sim, an open source robotics reference framework, with spatial intelligence in Marble from World Labs. 

Today’s collision detection systems, such as those used in autonomous vehicles, typically rely on modules for sensing, perception, planning, and control. Spatial intelligence models may offer improvements by assessing the collision risks of unidentified objects or by tracking objects that move out of sensor view. For example, Waymo’s World Model, built on Genie 3, is a simulator that generates complex weather conditions and other critical safety events.

For an out-of-this-world example, James Urquhart, field CTO and technology evangelist at Kamiwaza, has delivered several examples of spatial intelligence applications, including one for satellite collision detection and conflict analysis. Urquhart says, “Models that specialize in these types of data sets, as well as the physics and geography of the real world, enable faster and more accurate decision-making for tasks that depend on them.”

Applying spatial intelligence

Recent spatial intelligence announcements include creating 3D worlds from image or text prompts with Marble and simulating water physics, lighting, weather, and animal behavior with Genie 3. But difficulties remain in bringing spatial intelligence to physical-world use cases.

“Spatial intelligence and world models are laying the groundwork for future AI agents that will be able to interact in and with our physical world,” says Jason Corso, cofounder and chief scientist at Voxel51. “These models are significantly more challenging to develop and test, largely because the data underlying their development is complex, and it’s hard to handle all of the combinatorics involved in the physical world.”

In addition to learning the models and prototyping with them, development and data leaders need to review the data assets that will feed spatial intelligence models. “Spatial intelligence models translate location signals into a structured understanding of the real world, but they’re only as reliable as the data beneath them,” says Dan Adams, executive vice president and general manager of Enrich at Precisely. “The real unlock isn’t the model—it’s the reference layer with persistent identifiers, confidence metadata, and source lineage that lets AI reason about places, not just match strings.”

Even once applications are developed, there will be infrastructure challenges in deploying them at the edge. Ali Kayyam, principal research scientist at BrainChip, says, “The key to unlocking spatial intelligence at scale is having the low-power, event-driven hardware that can run it at the sensor in real time where it matters most.”

Where to get started

My suggestions for developers looking to get hands-on with spatial intelligence and world models:

• To try out Marble, review their API documentation and case studies, and then experiment with a developer-focused React application.
• Review the Nvidia Cosmos developer hub, documentation, and cookbook of case studies and learning paths.
• You can get an overview of Genie 3, but access is currently restricted through Project Genie, which requires a Google AI Ultra subscription.

Security engineers play a pivotal role in enterprise cybersecurity, because they are the professionals who design, build, and deploy security systems to protect an organization’s data, applications, systems, networks, and other IT components against a variety of cyber threats.

Finding not just qualified security engineers, but the best and brightest available, needs to be a priority for CISOs and others overseeing security at their organizations. That’s especially true with the rapid rise of AI and the threats that brings to the enterprise.

Here are some of the key skills and traits of elite security engineers to look for when hiring — or to acquire in order to uplevel your cybersecurity career.

Acumen with AI-powered tools

These days, AI-related skills are in demand regardless of domain, and this certainly applies to security engineers. There’s a wealth of solutions leveraging AI in the market, tools that engineers can add to their defense arsenal.

“AI is transforming security engineering from reactive alerting to predictive threat detection,” says Praveen Margabandhu, digital engineering anchor at financial services firm Navy Federal Credit Union. “AI-driven anomaly detection now identifies behavioral patterns that indicate fraud or compromise before traditional threshold-based systems would fire. This shifts the security engineer’s role from incident responder to threat model designer.”

AI-powered tools have taken over a large portion of the detection and triage work that used to be the core of a security engineer’s day, says Maruf Ahmed, cofounder and CEO of global tech staffing firm Dexian. “Vulnerability scanning runs on its own now,” he says. “Threat flagging that used to require a team pulling through logs for hours happens in minutes.”

This has freed up capacity on most security teams and changed what the day-to-day work looks like, Ahmed says. “With detection increasingly automated, the engineer’s value sits more in interpreting what gets flagged and deciding what to do about it,” he says.

Keen understanding of emerging and established AI threats

Engineers must also have a thorough understanding of the risks AI presents, including AI-enhanced cyberattacks using large language models (LLMs) to automate and scale highly personalized social engineering attacks, craft sophisticated malware, and generate deepfakes.

Other AI threats they need to be aware of include prompt injections, data and model poisoning, disclosure of sensitive information, model theft, supply chain compromises, and excessive agency.

“The same generative tools that help security teams work faster are available to adversaries, and it shows,” Ahmed says. “Phishing campaigns read better and land more precisely than they did a year ago. Social engineering is harder to catch when the language is polished and tailored to the target, and security engineers are now defending against threats built with the same class of technology they use on the defensive side.”

That has raised the bar for what reliable detection looks like, Ahmed says. “The objective shift I hear most from clients is about trust in their own systems,” he says. “Two years ago, the priority was visibility — making sure you could see across your environment. Most organizations have that now. The harder problem is knowing whether what those tools are telling you holds up under scrutiny and having people on the team who can stand behind those findings in front of a regulator or a board.”

Appreciation of performance and business goals

The best security engineers understand how performance and security intersect, says Margabandhu, who leads performance engineering across Navy Federal Credit Union’s digital banking infrastructure, including real-time fraud detection, identity and access management, and cybersecurity infrastructure resilience.

“A fraud detection system that is secure but too slow to catch transactions in real-time is not secure at all,” Margabandhu says. “Elite engineers optimize for both simultaneously.”

Engineers must be able to put things in business context, Ahmed says. “An engineer who can work across domains, validate AI outputs, and learn new tools fast is valuable. But that value compounds when the person also understands what the organization is trying to protect and why,” he says.

Security engineers who understand the business make better risk decisions, write more effective policies, and generate less friction with the teams around them, Ahmed says. “That is the profile employers are hiring toward right now, and it is where the talent shortage is most pronounced,” he says.

Systems mindset

“One of the biggest misconceptions in cybersecurity hiring is that elite security engineers are defined purely by technical certifications or tool familiarity,” says Juan Mathews Rebello Santos, an independent cybersecurity researcher and ethical hacker.

“Technical skill absolutely matters, but the strongest engineers I’ve worked with consistently share a combination of analytical thinking, operational adaptability, communication ability, and deep systems understanding,” Santos says.

Elite security engineers understand how infrastructure, cloud services, identity systems, applications, APIs, networks, users, and business operations connect, Santos says.

“Modern attacks rarely target a single isolated component anymore,” he says. “Threat actors chain together weaknesses across environments. Engineers who can understand those relationships holistically are significantly more effective at both prevention and incident response.”

Cross-disciplinary fluency and broad stack know-how

Being an elite software engineer today means having a range of technology experience and knowledge. “Organizations want engineers who can work across more of the stack than they used to,” Ahmed says. “A role that might have asked for deep specialization in one area now expects someone who can move between cloud infrastructure, application security, and compliance without needing a handoff at every boundary.”

The attack surface has continued to get wider, and the job descriptions for security engineers has followed suit. “That cross-domain fluency matters because security incidents rarely stay contained in one layer,” Ahmed says. “The engineer who can follow a problem from the network through the application to the data governance framework resolves it faster, with fewer people involved.”

The strongest security engineers bridge infrastructure, application, and business domains, Margabandhu says. “They can speak to a CISO, a developer, and a cloud architect in the same conversation,” he says. “An engineer who can explain what an authentication problem means for fraud exposure moves faster in a room full of executives than one who can only describe it in infrastructure terms. I’ve watched technically brilliant people lose that race repeatedly.”

Having the ability to communicate technical risk clearly to non-technical leadership can mean the difference between success and failure of attacks.

“Many security failures today are not caused by lack of tooling, but by misalignment between technical teams and business decision-makers,” Santos says. “Elite engineers can explain operational risk, prioritization, and security tradeoffs in language executives understand.”

Deep understanding of third-party risk and non-human threats

Threats can come from anywhere, including supply chains and non-human combatants. Third-party cybersecurity risks are on the rise. The 2026 Global CISO Leadership Report by executive search firm Hitch Partners, based on a survey of more than 625 information security executives across the US and Canada, says 43% put third-party risks as the No. 1 priority.

“Most teams are still better at securing what they own than securing what they depend on,” Margabandhu says. “The mental shift from perimeter thinking to dependency thinking is real and not everyone has made it. The engineers who treat every API call, every credentialed vendor, every third-party model as part of their attack surface approach design differently.”

Another growing source of potential threats are not human. Machine identities now outnumber human identities by ratios exceeding 100 to 1 in most enterprise environments, with some sectors closer to 500 to 1, according to the ManageEngine Identity Security Outlook 2026 report.

This includes service accounts, API keys, automation tokens, and AI agents, any one of which can present data governance and security risks.

Many organizations are still managing machine identities through manual processes that weren’t designed for scale, Margabandhu says. “Engineers who understand non-human identity governance are rare and increasingly important. This is not a future problem.”

Willingness to keep learning

Security engineers need to have a desire to never stopped learning.

“That sounds obvious until you work with people who’ve been doing this for 15 years and are still operating from the same threat models they built in 2012,” Margabandhu says. “Security changes fast enough that standing still is the same as going backwards.”

The security engineers who keep up aren’t reading one report a year. “They’re genuinely curious about what attackers are doing right now, this month, and they adjust how they think accordingly,” Margabandhu says. “That quality is harder to hire for than most technical skills, because it’s not on a resume.”

With AI presenting new and more sophisticated threats, keeping up with the latest developments is perhaps more important than ever. “Strong engineers are naturally investigative,” Santos says. “They actively study attack techniques, test assumptions, reverse engineer failures, and continuously adapt their understanding of risk.”

The best security engineers are often the people who remain intellectually uncomfortable because they know the landscape is always evolving, Santos says.

Employers have started paying closer attention to how fast someone can learn, Ahmed says. “The threat landscape and the defensive toolkit are both moving faster than any certification program can track, so hiring managers are probing for adaptability in interviews: how candidates have responded to recent shifts, whether they have picked up unfamiliar platforms on their own, how they work through problems they have not seen before,” he says.

Enterprises have worked for years to improve detection and response times in the face of increasingly sophisticated attacks that relied on manual hacking and living-of-the-land techniques. AI is now threatening to undo those efforts.

An increasing number of threat actors are automating all phases of attacks, including lateral movement by using LLM-powered agents, severely reducing the time from initial access to deep environment compromises.

“The real shift is speed, scale, and orchestration: familiar cloud attack techniques were executed faster and across more surfaces than defenders could comfortably contain,” wrote researchers from security firm Sygnia last week in a report about an AI-assisted cloud environment compromise they investigated.

Sygnia’s report came on the heels of research from Sysdig about a cyber intrusion and extortion campaign conducted end to end by an autonomous AI agent. Actions undertaken by the agent included harvesting credentials, mapping internal services, and establishing persistence.

What both incidents show is that AI attacks have graduated beyond LLM-written malware scripts and phishing lures to handling all stages of attack chains, including parts that previously required human reasoning and hands-on command execution adapted to the environment.

Last month researchers from the University of Toronto revealed that they managed to create an AI-powered self-replicating worm capable of autonomously finding and exploiting weaknesses in dozens of simulated systems. The researchers achieved this by leveraging an open-weight AI model and building an attack harness to keep it on track.

While it may not be surprising to security experts that this level of AI-assisted attack automation is already happening in the wild, it’s very unlikely that many companies have had time to adapt their defenses.

“What this exposes is a truth that all security personnel must come to terms with: Most breaches won’t hinge on advanced AI, but on unpatched systems, exposed services, and weak identity controls,” Gidi Cohen, CEO and co-founder of AI security startup Bonfy.ai, tells CSO. “AI just makes those gaps impossible to ignore. The organizations that will struggle aren’t the ones lacking AI defenses; they’re the ones still relying on human-speed security in a machine-speed threat environment.”

No need for zero-days

As aptly demonstrated by the U of Toronto study, AI agents don’t need sophisticated zero-day vulnerabilities to break into environments, because many environments have systems and applications with known flaws and generic weaknesses.

The attack documented by Sysdig, which its researchers dubbed JadePuffer, exploited a year-old vulnerability (CVE-2025-3248) in Langflow, ironically a tool for building AI agents. In the new attack documented by Sygnia, attackers exploited a weakness in a web application that enabled them to find a stored AWS key. From there they quickly made their way through the victim’s cloud environment with the help of AI automation.

“The threat actor was not exploiting a single misconfiguration; they were chaining weaknesses across application services, AWS resources, source-control repositories, CI/CD workflows, runtime components, and data stores, while rapidly executing credential discovery, secrets harvesting, cloud enumeration, deployment-pipeline abuse, runtime modification, database access, and operational disruption,” the researchers said.

As with the JadePuffer case, the attackers documented by Sygnia were focused on extorting money from the victim. To achieve this, they compromised as many AWS instances as possible, exfiltrated data but also set up multiple persistence points in the AWS environment. The goal was to put pressure on the victim by demonstrating that despite recovery efforts they still had access to the environment.

Speed is the new game

Once sophisticated attackers break into an environment they often spend weeks or even months slowly moving to other systems. This is in part because it takes time for a human team to gain a thorough understanding of the environment and to find where the most valuable systems are.

This activity is also often trial-and-error: The attackers perform reconnaissance to discover the network’s topology, find exploitable weaknesses in additional systems, and search them for stored credentials that could provide access to more targets, all while using existing OS tools or common system administration techniques that won’t trip malware and intrusion detection systems.

Active threat hunting is one way to counter such techniques that are designed to evade automated detection. When threat hunting, human analysts inspect the organization’s network and systems manually for signs of compromises that might have been missed by tools. This is a slow but effective defensive technique — but only if attackers operate with the same time constraints.

“Traditional incident response often relies on the assumption that attacker progression will generate enough observable signals for defenders to investigate and contain activity before access materially expands across the environment,” Sygnia’s researchers wrote in their report. “The observed attack pattern challenged this assumption. Forensic traces showed rapid, repeated activity consistent with automated or AI-assisted workflows for credential harvesting, permission analysis, vulnerability discovery, and attack-path mapping, allowing the intrusion to progress across multiple stages in a compressed time frame.”

And it wasn’t a case of simple automated scripts going through an attack playbook either, but workstreams that showed clear signs of environment adaptation. Every new access was rapidly assessed and resulted in actions tailored for that specific system, whether an EC2 instance, S3 bucket, SQL database, or a CI/CD runner on GitHub.

Prevention is back in the spotlight

The obvious answer to AI-assisted attacks is AI-assisted defense. But simply the presence of AI-powered features in detection and response products is not a guarantee for thwarting such fast and adaptive attacks. Organizations must ensure all these tools and workflows are well integrated into a coordinated process across their different teams.

Moreover, these attacks show the value of defense-in-depth actions such as continuous validation of configurations, fast patch deployment, frequent secrets rotation, network segmentation, IP-based access control rules, implementing the principle of least privilege for credentials, restricting administrative privileges, enabling multi-factor authentication, and isolating cloud workloads.

Sygnia also recommends building automated response playbooks that can be quickly adjusted and deployed when potential signs of compromise are detected.

“The skill floor for running a ransomware operation dropped to the cost of running an agent,” Dray Agha, senior manager of tactical response at security firm Huntress, tells CSO. “Very mediocre cyber criminals can now ‘level up’ their impact from AI. That should worry defenders more than any single new technique, as it means more attackers, more often, against more of the long tail of unpatched, exposed infrastructure.”

If you’re a software developer or architect, you might wonder if programming certifications are still worth the effort, especially in the era of rapid AI-driven evolution. The short answer is, it depends.

“Certifications are shifting from a checkbox to a compass. They’re less about proving you memorized syntax and more about proving you can architect systems, instruct AI coding assistants, and solve problems end-to-end,” says Faizel Khan, lead AI engineer at Landing Point, an executive search and recruiting firm.

“In the AI era, fewer students will get trained on the job, which means they have to train themselves,” Khan says. “Certifications—especially architectural ones like AWS, Kubernetes, Terraform—are still the clearest path to do that.”

Pros and cons of programming certifications

It’s not all black and white when it comes to deciding whether to pursue programming certifications. The effort involves both pros and cons.

“In terms of pros, certifications concretely demonstrate that you have a skillset at a documented level,” says Chris Riccio, vice president of engineering at Uplevel, an engineering optimization system provider. “They also show that you’ve put in the time and effort to learn, study, and prepare.”

Programming certifications are “a useful way to validate foundational skills and show that someone understands core concepts,” says Greg Fuller, vice president of Skillsoft’s training provider, Codecademy. “They’re especially helpful for people entering the field or shifting from adjacent roles.”

Certifications offer a structured path to demonstrate proficiency, and they can confirm your ability to build and deploy in various environments, Fuller says.

These types of certifications often demonstrate baseline proficiency and continuous learning, says Reshmi Ramachandran, head of partnerships and GTM strategy for Cprime, a consultancy. “These are often key indications of proficiency for companies looking to filter large candidate pools,” she says.

Certifications really do two things, Khan adds. “First, they force you to learn by doing,” he says. “If you’re taking AWS Solutions Architect or Terraform, you don’t pass by guessing—you plan, build, and test systems. That practice matters. Second, they act as a public signal. Think of it like a micro-degree. You’re not just saying, ‘I know cloud.’ You’re showing you’ve crossed a bar that thousands of other engineers recognize.”

But there are cons, too. “In tech, employers don’t just want credentials, they want proof you can deliver,” says Kevin Miller, CTO at IFS, a maker of factory automation software. “Programming certifications can be a valuable indicator of your baseline knowledge and competencies, especially if you’re early in your career or pivoting into tech, but their importance is dwindling.”

AI tools that can generate, debug, and optimize code are already performing tasks once done by entry-level developers, “which means fewer traditional programming roles are available,” Miller says. “As a result, the job market is becoming more competitive, and certifications aren’t seen as the noteworthy achievement they once were.”

What’s more, not all certifications carry the same weight, Riccio says. “Some may reflect only familiarity rather than true expertise,” he says. “Certifications also often measure ‘book knowledge’ rather than practical experience, and they don’t always map clearly to the requirements of a specific role.”

Programming certifications “can be a helpful signal, especially for confirming baseline knowledge in areas like cloud, security, or devops, but they’re not the full picture,” says Morgan Watts, vice president of IT at 8×8, a contact center platform developer.

“I’m more interested in a candidate’s attitude and aptitude: what problems they’ve solved, what they’ve built, and how they’ve approached challenges,” Watts says. “Certifications can show commitment and discipline, and they’re especially useful in highly specialized roles. But I’m cautious when someone presents a laundry list of certifications with little evidence of real-world application.”

A certification without experience doesn’t carry much weight, Watts says, and over-certification can sometimes signal the wrong focus. “Ultimately, it’s the ability to apply knowledge, collaborate, and adapt that sets great developers apart,” he says.

Finally, certifications can age fast, Khan says. “Tech stacks evolve and a badge from two years ago may already feel dusty,” he says. “And some certifications are paper-thin—multiple-choice exams that don’t prove you can debug production at 2 a.m. So, the risk is you collect badges but still can’t ship.”

Which certifications will get you noticed?

Despite the drawbacks, certifications are still very much in demand, and some carry more weight than others.

The most in-demand certifications are typically platform-based—Amazon Web Services (AWS), Google Cloud Platform (GCP), Microsoft Azure, and others, Riccio says. “Many of these platforms provide managed services that integrate with existing systems or serve as the glue between them,” he says. “Today’s engineering teams aren’t just building standalone systems in isolation; they’re using other systems to store data, orchestrate business workflows, and connect applications.”

A certification that demonstrates the ability to build solutions on these platforms can put a development professional ahead of the competition, Riccio says.

“The certifications I see in highest demand tend to reflect the evolving tech landscape,” Watts says. “Cloud certifications from AWS, Azure, and GCP are incredibly valuable, especially as distributed systems become the norm.”

Also in demand are certifications for devops and CI/CD tools including Kubernetes, Docker, and Jenkins, Watts says, “because deployment automation and reliability are critical at scale. Also, with AI reshaping development, we’re seeing growing interest in certifications around machine learning, data science, and AI model integration. These certifications stand out because they align directly with the skills that teams need to move faster and more intelligently.”

On the AI front, certifications in TensorFlow and other machine learning platforms are gaining traction as organizations look to embed AI across the development process, Watts says. “These are the certifications that align closely with where modern engineering is headed—scalable, secure, and AI-enabled,” he says.

And then there are cybersecurity credentials that continue to be in high demand. Security certifications, such as CompTIA Security+ or Certified Ethical Hacker, “have become essential as every company faces increasing cyber threats and compliance requirements,” Miller says.

“Core programming certifications are still a bit niche, but the adjacent skills, like those that help developers deploy, secure, and scale their code, are driving demand,” Fuller says. “Companies want developers who understand the full lifecycle, not just how to write code.”

Also see: The best Java certifications for software developers.

Certifications in the hiring process

Experts are clear that programming certifications alone will not get you the job. But they do play a role in the hiring process.

“The information technology world is characterized by rapid and continuous evolution, including the skills and knowledge required to work in the field,” says Diane Rafferty, managing director of the National Technology Group at Atrium, a global talent solutions and extended workforce management firm.

“Certifications not only prove that you have the skills and knowledge needed, but they also show employers that you’re invested in your education and career growth,” Rafferty says. “They can give you a competitive edge when looking for a job, as many companies now require candidates to have them.”

Certifications are one part of the hiring equation, “but never the only part,” Watts says. “They help validate that a candidate has taken the time to build foundational knowledge, and that’s a good sign. But I put more weight on how a person thinks, solves problems, and contributes to the team. I look for people who are curious and proactive, who are learning because they want to, not just because a course told them to.”

Certifications can also play a valuable role in retention, Watts says. “I encourage team members to pursue growth, and when they invest in their own development, the whole organization benefits,” he says. “But again, it’s that balance of knowledge, attitude, and applied experience that really moves the needle.”

Certifications “may allow you to breeze through the initial résumé screening process, potentially getting you to the next stage faster,” Riccio says. “At a minimum, they will set your profile apart from the rest of the pack. They also demonstrate that you’ve reached a baseline level of expertise, allowing hiring managers to quickly evaluate whether you have the skills for the role.”

Employers today “care far less about whether someone has passed an exam and far more about whether they can apply knowledge effectively in real-world situations, leverage AI tools, and solve complex problems,” Miller says. “A certification might get someone an interview, but being able to demonstrate problem-solving skills, teamwork, and adaptability will really make them stand out.”

Popular programming certifications

The following certifications consistently rose to the top in my conversations with tech leaders and hiring managers.

AWS Certified Developer—Associate

Showcases skills and knowledge in developing, optimizing, packaging, and deploying applications, using CI/CD workflows, and identifying and resolving application issues, according to AWS. This certification is said to be a good starting point on the AWS certification journey for professionals in IT or cloud developer job roles.

Azure Developer Associate

This certificate from Microsoft is intended for developers participating in all phases of cloud development, including design, deployment, maintenance, and monitoring. The course teaches developers how to create end-to-end solutions in Microsoft Azure, using the Microsoft Learn Sandbox environment to access Azure resources and services.

Certified Kubernetes Application Developer (CKAD)

This certification was created by the Linux Foundation and Cloud Native Computing Foundation. It demonstrates that candidates can design, build, and deploy cloud-native applications for Kubernetes.

Certified Secure Software Lifecycle Professional (CSSLP)

This certification, from ISC2, focuses on secure software development practices. It recognizes leading application security skills and demonstrates advanced technical skills and knowledge needed for authentication, authorization, and auditing throughout the software development lifecycle.

Databricks Certified Machine Learning Professional

Professionals learn about the latest data and AI techniques and how they can use the Databricks Data Intelligence Platform to build a variety of solutions across data engineering, data warehousing, data science, and AI.

Professional Cloud Architect

This certification from Google assesses the ability to design and plan a cloud solution architecture, manage and provision the cloud solution infrastructure, design for security and compliance, analyze and optimize technical and business processes manage implementations of cloud architecture, and ensure solution and operations reliability.

Terraform Associate

This certification from HashiCorp is for cloud engineers specializing in operations, IT, or development who know the basic concepts and skills associated with Terraform. It validates foundational skills in using Terraform for infrastructure as code development.

Over its more than 15 years in the wild, Google’s Go programming language has evolved from a curiosity for alpha geeks to the battle-tested programming language behind some of the world’s most important cloud-native software projects.

If you’ve ever wondered why Go is the language of choice for projects like Docker and Kubernetes, this article is for you. We’ll discuss Go’s defining characteristics and how it differs from other programming languages. You will also learn what kinds of projects Go is best suited for, including the state of Go development for AI-powered tools. We’ll conclude with an overview of Go’s feature set, some limitations of the language, and where it may be going from here.

Also see: Golang tutorial: Get started with the Go language.

Go is small and simple

Go, or Golang as it’s often called, was created by Google employees—chiefly longtime Unix guru and Google distinguished engineer Rob Pike—but it’s not strictly speaking a “Google project.” Rather, Go is a community-developed open source project, spearheaded by leadership with strong opinions about how Go should be used and the direction the language should take.

Go is meant to be easy to learn and straightforward to use, with syntax that is simple to read and understand. Go does not have a large feature set, especially when compared to languages like C++. Go’s syntax is reminiscent of C, making it relatively easy for longtime C developers to learn. That said, many features of Go, especially its concurrency and functional programming features, harken back to languages like Erlang.

As a C-like language for building and maintaining cross-platform enterprise applications of all sorts, Go has much in common with Java. And as a means for enabling rapid development of code that might run anywhere, you could draw a parallel between Go and Python, though the differences outweigh the similarities.

The Go documentation describes Go as “a fast, statically typed, compiled language that feels like a dynamically typed, interpreted language.” Even a large Go program will compile in a matter of seconds. Plus, Go avoids much of the overhead of C-style include files and libraries.

Advantages of the Go language

Go is a versatile, convenient, fast, portable, interoperable, and widely supported modern language. These characteristics have helped to make it a top choice for large-scale development projects. Let’s look more closely at each of these positive qualities of Go.

Go is versatile and convenient

Go has been compared to interpreted languages like Python in its ability to satisfy many common programming needs. Some of this functionality is built into the language itself, such as goroutines for concurrency and thread-like behavior, while additional capabilities are available in Go standard library packages, like the http package. Like Python, Go provides automatic memory management capabilities including garbage collection.

Unlike interpreted languages, however, Go code compiles to a fast-running native binary. And unlike C or C++, Go compiles extremely fast—fast enough to make working with Go feel more like working with an interpreted language than a compiled one. Further, the Go build system is less complex than those of other compiled languages. It takes few steps and little bookkeeping to build and run a Go project.

Go is faster than many other languages

Go binaries run more slowly than their C counterparts, but the difference in speed is negligible for most applications. Go performance is as good as C for the vast majority of work, and generally much faster than other languages known for speed of development—including JavaScript, Python, and Ruby.

Go is portable and interoperable

Executables created with the Go toolchain can stand alone, with no default external dependencies. The Go toolchain is available for a wide variety of operating systems and hardware platforms, and can be used to compile binaries across platforms. What’s more, Go delivers all of the above without sacrificing access to the underlying system. Go programs can talk to external C libraries or make native system calls. In Docker, for instance, Go interacts with low-level Linux functions, cgroups, and namespaces to work container magic.

Go is widely supported

The Go toolchain is freely available as a Linux, macOS, or Windows binary, or as a Docker container. Go is included by default in many popular Linux distributions, such as Red Hat Enterprise Linux and Fedora, making it somewhat easier to deploy Go source to those platforms. Support for Go is also strong across many third-party development environments, from Microsoft’s Visual Studio Code to ActiveState’s Komodo IDE.

Also see: 8 reasons developers love Go—and 8 reasons they don’t.

Optimal use cases for the Go language

No language is suited to every job, but some languages are suited to more jobs than others. Go shines brightest in cloud-native development projects, distributed network services, and for developing utilities and stand-alone tools. Let’s consider the qualities that make Go especially well-suited to each of these project types.

Cloud-native development

Go’s concurrency and networking features, and its high degree of portability, make it well-suited for building cloud-native apps. In fact, Go was used to build several cornerstones of cloud-native computing including Docker, Kubernetes, and Istio.

Distributed network services

Network applications live and die by concurrency, and Go’s native concurrency features—goroutines and channels, mainly—are well suited for such work. Consequently, many Go projects are for networking, distributed functions, and cloud services. These include APIs, web servers, Kubernetes-ready frameworks for microservices, and much more.

Utilities and standalone tools

Go programs compile to binaries with minimal external dependencies. That makes them ideally suited to creating utilities and other tools, because they launch quickly and can be readily packaged up for redistribution. One example is an access server called Teleport, which can be deployed on servers quickly by compiling it from source or downloading a prebuilt binary.

Limitations of the Go language

Now let’s consider some of the limitations of Go. For one, it omits many language features developers may desire. It also packs everything into its binaries, so Go programs can be large. Furthermore, Go’s garbage collection mechanism delivers automatic memory management at the cost of absolute performance. The language also lacks a standard toolkit for building GUIs, and it is unsuited to systems programming.

Let’s look at each of these issues in detail.

Go omits many desirable language features

Go’s opinionated set of features draws both praise and criticism. Go is designed to err on the side of being small and easy to understand, with certain features deliberately omitted. The result is that some features that are commonplace in other languages simply aren’t available in Go. This is purposeful, but it’s still a drawback for some types of projects.

One thing Go omits that you will find in other languages is macros, commonly defined as the ability to generate program code at compile time. C, C++, and (the rising star) Rust all have macro systems. Go does not have macros, or at least not of the same variety as those languages. What Go does have is a tool command, go generate, which looks for magic comments in Go source and executes them. This can be used to generate Go source code, or even run other commands, but its main use is to programmatically generate code, usually as a precursor to the build process. (Technical blogger Eli Bendersky explains the ‘go generate’ command in detail.)

Another longstanding complaint with Go was, until recently, the lack of generic functions, which allow a function to accept many different types of variables. Go’s development team held out against adding generics to the language for many years because they wanted a syntax and set of behaviors that complemented the rest of Go. But as of Go 1.18, released in early 2022, the language includes a syntax for generics. Because go generate and its code-generation abilities emerged as one possible way to partially address the lack of generics, this functionality is no longer as commonly used in Go.

The fact is that Go adds major language features rarely, and only after much consideration. This works to preserve broad compatibility across versions, but it comes at the cost of slower innovation.

Also see: What you need to know about Go, Rust, and Zig.

Go’s binaries are large

Another potential downside to Go is the size of the generated binaries. Go binaries are statically compiled by default, meaning that everything needed at runtime is included in the binary image. This approach simplifies the build and deployment process, but at the cost of a simple “Hello, world!” weighing in at around 1.5MB on 64-bit Windows. The Go team has been working to reduce the size of those binaries with each successive release. It is also possible to shrink Go binaries with compression or by removing Go’s debug information. This last option may work better for standalone distributed apps than for cloud or network services, where having debug information is useful if a service fails in place.

Go’s garbage collection is resource hungry

Yet another touted feature of Go, automatic memory management, can be seen as a drawback, as garbage collection requires a certain amount of processing overhead. By design, Go doesn’t provide manual memory management, and garbage collection in Go has been criticized for not dealing well with the kinds of memory loads that appear in enterprise applications.

That said, each new version of Go seems to improve the memory management features. For example, Go 1.8 brought significantly shorter lag times for garbage collection, and Go 1.25 introduced a new, experimental garbage collector. While Go developers can use manual memory allocation in a C extension, or by way of a third-party manual memory management library, most prefer native solutions.

Go doesn’t have a standard GUI toolkit

Most Go applications are command-line tools or network services. That said, various projects are working to bring rich GUIs for Go applications. There are bindings for the GTK and GTK3 frameworks. Another project is intended to provide platform-native UIs across platforms, although it focuses on Go 1.24 forward only. But no clear winner or safe long-term bet has emerged in this space. Also, because Go is platform-independent by design, it is unlikely any project in this vein will become a part of the standard package set.

You shouldn’t use Go for systems programming

Finally, although Go can talk to native system functions, it was not designed for developing low-level system components such as kernels, device drivers, or embedded systems. After all, the Go runtime and the garbage collector for Go applications are dependent on the underlying operating system. (Developers interested in a cutting-edge language for that kind of work might look into using Rust.)

The future of the Go language

Go’s development is turning more toward the wants and needs of its developer base, with Go’s minders changing the language to better accommodate this audience rather than leading by stubborn example. A case in point is generics, which were finally added to the language after much deliberation about the best way to do so.

The 2024 Go Developer Survey found developers were overall satisfied with Go. Challenges that surfaced were generally due to the verbosity of error handling, missing or immature frameworks, and using Go’s type system—areas ripe for future development.

Like most languages, Go has gravitated to a core set of use cases over time, finding its niche in network services. In the future, Go is likely to continue expanding its hold there. Other use cases cited in the developer survey include creating APIs or RPC services (74% of respondents), followed by CLI applications (63%), web services (45%), libraries/frameworks (44%), automation (39%), and data processing (37%). While only 4% of respondents mentioned using Go to develop AI technologies, those who did reported that Go was a strong platform for running AI-powered workloads in production. For those wanting to develop ML/AI with Go, lack of tooling (23%) and the fact that Python is the default choice for such work (16%) topped the reasons why.

It remains to be seen how far Go’s speed and development simplicity will take it into other use cases, especially those dominated by other languages and their existing use cases. Rust covers safe and fast systems programming (a space Go is unlikely to enter); Python is still a common default for ML/AI, prototyping, automation, and glue code; and Java remains a stalwart for enterprise applications.

But Go’s future as a major programming language is already assured—certainly in the cloud, where the speed and simplicity of Go ease the development of scalable infrastructure that can be maintained over the long run.

Also see: Go language evolving for future hardware, AI workloads.

What is cloud native? Cloud native defined

The term “cloud-native computing” encompasses the modern approach to building and running software applications that exploit the flexibility, scalability, and resilience of cloud computing. The phrase is a catch-all that encompasses not just the specific architecture choices and environments used to build applications for the public cloud, but also the software engineering techniques and philosophies used by cloud developers.

The Cloud Native Computing Foundation (CNCF) is an open source organization that hosts many important cloud-related projects and helps set the tone for the world of cloud development. The CNCF offers its own definition of cloud native:

Cloud native practices empower organizations to develop, build, and deploy workloads in computing environments (public, private, hybrid cloud) to meet their organizational needs at scale in a programmatic and repeatable manner. It is characterized by loosely coupled systems that interoperate in a manner that is secure, resilient, manageable, sustainable, and observable.

Cloud native technologies and architectures typically consist of some combination of containers, service meshes, multi-tenancy, microservices, immutable infrastructure, serverless, and declarative APIs — this list is not exhaustive.

This definition is a good start, but as cloud infrastructure becomes ubiquitous, the cloud native world is beginning to spread behind the core of this definition. We’ll explore that evolution as well, and look into the near future of cloud-native computing.

Cloud native architectural principles

Let’s start by exploring the pillars of cloud-native architecture. Many of these technologies and techniques were considered innovative and even revolutionary when they hit the market over the past few decades, but now have become widely accepted across the software development landscape.

Microservices. One of the huge cultural shifts that made cloud-native computing possible was the move from huge, monolithic applications to microservices: small, loosely coupled, and independently deployable components that work together to form a cloud-native application. These microservices can be scaled across cloud environments, though (as we’ll see in a moment) this makes systems more complex.

Containers and orchestration. In could-native architectures, individual microservices are executed inside containers — lightweight, portable virtual execution environments that can run on a variety of servers and cloud platforms. Containers insulate the developers from having to worry about the underlying machines on which their code will execute. That is, all they have to do is write to the container environment. 

Getting the containers to run properly and communicate with one another is where the complexity of cloud native computing starts to emerge. Initially, containers were created and managed by relatively simple platforms, the most common of which was Docker. But as cloud-native applications got more complex, container orchestration platforms that augmented Docker’s functionality emerged, such as Kubernetes, which allows you to deploy and manage multi-container applications at scale. Kubernetes is critical to cloud native computing as we know it — it’s worth noting that the CNCF was set up as a spinoff of the Linux Foundation on the same day that Kubernetes 1.0 was announced — and adhering to Kubernetes best practices is an important key to cloud native success. 

Open standards and APIs. The fact that containers and cloud platforms are largely defined by open standards and open source technologies is the secret sauce that makes all this modularity and orchestration possible, and standardized and documented APIs offer the means of communication between distributed components of a larger application. In theory, anyway, this standardization means that every component should be able to communicate with other components of an application without knowing about their inner workings, or about the inner workings of the various platform layers on which everything operates.

DevOps, agile methodologies, and infrastructure as code. Because cloud-native applications exist as a series of small, discrete units of functionality, cloud-native teams can build and update them using agile philosophies like DevOps, which promotes rapid, iterative CI/CD development. This enables teams to deliver business value more quickly and more reliably.

The virtualized nature of cloud environments also make them great candidates for infrastructure as code (IaC), a practice in which teams use tools like Terraform, Pulumi, and AWS CloudFormation, to manage infrastructure declaratively and version those declarations just like application code. IaC boosts automation, repeatability, and resilience across environments—all big advantages in the cloud world. IaC also goes hand-in-hand with the concept of immutable infrastructure—the idea that, once deployed, infastructure-level entities like virtual machines, containers, or network appliances don’t change, which makes them easier to manage and secure. IaC stores declarative configuration code in version control, which creates an audit log of any changes.

How the cloud-native stack is expanding

As cloud-native development becomes the norm, the cloud-native ecosystem is expanding; the CNCF maintains a graphical representation of what it calls the  cloud native landscape that hammers home to expansive and bewildering variety of products, services, and open source projects that contribute to (and seek to profit from) to cloud-native computing. And there are a number of areas where new and developing tools are complicating the picture sketched out by the pillars we discussed above.   

An expanding Kubernetes ecosystem. Kubernetes is complex, and teams now rely on an entire ecosystem of projects to get the most out of it: Helm for packaging, ArgoCD for GitOps-style deployments, and Kustomize for configuration management. And just as Kubernetes augmented Docker for enterprise-scale deployments. Kubernetes itself has been augmented and expanded by service mesh offerings like Istio and Linkerd, which offer fine-grained traffic control and improved security

Observability needs. The complex and distributed world of cloud-native computing requires in-depth observability to ensure that developers and admins have a handle on what’s happening with their applications. Cloud-native observability uses distributed tracing and aggregated logs to provide deep insight into performance and reliability. Tools like Prometheus, Grafana, Jaeger, and OpenTelemetry support comprehensive, real-time observability across the stack.

Serverless computing.  Serverless computing, particularly in its function-as-a-service guise, offers to strip needed compute resources down to their bare minimum, with functions running on service provider clouds using exactly as much as they need and no more. Because these services can be exposed as endpoints via APIs, they are increasingly integrated into distributed applications, operating side-by-side with functionality provided by containerized microservices. Watch out, though: the big FaaS providers (Amazon, Microsoft, and Google) would love to lock you in to their ecosystems.  

FinOps. Cloud computing was initially billed as a way to cut costs — no need to pay for an in-house data center that you barely use — but in practice it replaces capex with opex, and sometimes you can run up truly shocking cloud service bills if you aren’t careful. Serverless computing is one way to cut down on those costs, but financial operations, or FinOps, is a more systematic discipline that aims to aligns engineering, finance, and product to optimize cloud spending. FinOps best practices make use of those observability tools to best determine what departments and applications are eating up resources.

How cloud-native architecture is adapting to AI workloads

Enterprises deploy larger AI models and make use of more and more real-time inference services. That’s putting demands on cloud-native systems and forcing them to adapt to remain scalable and reliable.

For instance, organizations are re-engineering cloud environments around GPU-accelerated clusters, low-latency networking, and predictable orchestration. These needs align with established cloud-native patterns: containers package AI services consistently, while Kubernetes provides resilient scheduling and horizontal scale for inference workloads that can spike without warning.

Kubernetes itself is changing to better support AI inference, adding hardware-aware scheduling for GPUs, model-specific autoscaling behavior, and deeper observability into inference pipelines. These enhancements make Kubernetes a more natural platform for serving generative AI workloads.

AI’s resource demands are amplifying traditional cloud-native challenges. Observability becomes more complex as inference paths span GPUs, CPUs, vector databases, and distributed storage. FinOps teams contend with cost volatility from training and inference bursts. And security teams must track new risks around model provenance, data access, and supply-chain integrity.

Application frameworks for building distributed cloud-native apps

Microsoft’s Aspire is one of the most visible examples of a shift towards application frameworks to simplify how teams build distributed systems. Opinionated frameworks like Aspire provide structure, observability, and integration out of the box so developer don’t need to stitch together containers, microservices, and orchestration tooling by hand.

Aspire in particular is a prescriptive framework for cloud-native applications, bundling containerized services, environment configuration, health checks, and observability into a unified development model. Aspire provides defaults for service-to-service communication, configuration, and deployment, along with a built-in dashboard for visibility across distributed components.

While Aspire was originally aligned with Microsoft’s .NET platform,Redmond now sees it as having a  polyglot future. This positions Aspire as part of a broader trend: frameworks that help teams build cloud-native, service-oriented systems without being locked into a single language ecosystem. Several other frameworks are gaining traction: Dapr provides a portable runtime that abstracts many of the plumbing tasks in cloud-native distributed applications, and Orleans offers an actor-model-based framework for large-scale systems in the .NET world, and Akka gives JVM teams a mature, reactive toolkit for elastic, resilient services.

Frameworks and tools in the expanding cloud-native ecosystem

While frameworks like Aspire simplify how developers compose and structure distributed applications, most cloud-native systems still depend on a broader ecosystem of platforms and operational tooling. This deeper layer is where much of the complexity—and innovation—of cloud-native computing lives, particularly as Kubernetes continues to serve as the industry’s control plane for modern infrastructure.

Kubernetes provides the core abstractions for deploying and orchestrating containerized workloads at scale. Managed distributions such as Google Kubernetes Engine (GKE), Amazon EKS, Azure AKS, and Red Hat OpenShift build on these primitives with security, lifecycle automation, and enterprise support. Platform vendors are increasingly automating cluster operations—upgrades, scaling, remediation—to reduce the operational burden on engineering teams.

Surrounding Kubernetes is a rapidly expanding ecosystem of complementary frameworks and tools. Service meshes like Istio and Linkerd provide fine-grained traffic management, policy enforcement, and mTLS-based security across microservices. GitOps platforms such as Argo CD and Flux bring declarative, version-controlled deployments to cloud-native environments. Meanwhile, projects like Crossplane turn Kubernetes into a universal control plane for cloud infrastructure, letting teams provision databases, queues, and storage through familiar Kubernetes APIs. These tools illustrate how cloud-native development now spans multiple layers: developer-focused application frameworks like Aspire at the top, and a powerful, evolving Kubernetes ecosystem underneath that keeps modern distributed applications running.

Advantages and challenges for cloud-native development

Cloud native has become so ubiquitous that its advantages are almost taken for granted at this point, but it’s worth reflecting on the beneficial shift the cloud native paradigm represents. Huge, monolithic codebases that saw updates rolled out once every couple of years have been replaced by microservice-based applications that can be improved continuously. Cloud-based deployments, when managed correctly, make better use of compute resources and allow companies to offer their products as SaaS or PaaS services. 

But cloud-native deployments come with a number of challenges, too:

• Complexity and operational overhead: You’ll have noticed by now that many of the cloud-native tools we’ve discussed, like service meshes and observability tools, are needed to deal with the complexity of cloud-native applications and environments. Individual microservices are deceptively simple, but coordinating them all in a distributed environment is a big lift.
• Security: More services executing on more machines, communicating by open APIs, all adds up to a bigger attack surface for hackers. Containers and APIs each have their own special security needs, and a policy engine can be an important tool for imposing a security baseline on a sprawling cloud-native app. DevSecOps, which adds security to DevOps, has become an important cloud-native development practice to try to close these gaps.
• Vendor lock-in: This may come as a surprise, since cloud-native is based on open standards and open source. But there are differences in how the big cloud and serverless providers works, and once you’ve written code with one provider in mind, it can be hard to migrate elsewhere.
• A persistent skills gap: Cloud-native computing and development may have years under its belt at this point, but the number of developers who are truly skilled in this arena is a smaller portion of the workforce than you’d think. Companies face difficult choices in bridging this skills gap, whether that’s bidding up salaries, working to upskill current workers, or allowing remote work so they can cast a wide net. 

Cloud native in the real world

Cloud native computing is often associated with giants like Netflix, Spotify, Uber, and AirBNB, where many of its technologies were pioneered in the early ’10s. But the CNCF’s Case Studies page provides an in-depth look at how cloud native technologies are helping companies. Examples include the following:

• A UK-based payment technology company that can switch between data centers and clouds with zero downtime
• A software company whose product collects and analyzes data from IoT devices — and can scale up as the number of gadgets grows
• A Czech web service company that managed to improve performance while reducing costs by migrating to the cloud

Cloud-native infrastructure’s capability to quickly scale up to large workloads also make it an attractive platform for developing AI/ML applications: another one of those CNCF case studies looks at how IBM uses Kubernetes to train its Watsonx assistant. The big three providers are putting a lot of effort into pitching their platforms as the place for you to develop your own generative AI tools, with offerings like Azure AI Foundry,Google Firebase Studio, and Amazon Bedrock. It seems clear that cloud native technology is ready for what comes next.

Learn more about related cloud-native technologies:

• Platform-as-a-service (PaaS) explained
• What is cloud computing
• Multicloud explained
• Agile methodology explained
• Agile development best practices
• Devops explained
• Devops best practices
• Microservices explained
• Microservices tutorial
• Docker and Linux containers explained
• Kubernetes tutorial
• CI/CD (continuous integration and continuous delivery) explained
• CI/CD best practices