Elon Musk says ASML and other critical semiconductor equipment suppliers have expedited shipments for the ambitious Terafab semiconductor manufacturing facility, supporting his aggressive timeline for the joint megaproject between Tesla and SpaceX. He made the announcement during a live broadcast of SpaceX's Q3 2026 earnings call on X yesterday, October 20. Musk also said the company is targeting volume chip production at the project's primary facility in Gibbons Creek, Texas, by the third or fourth quarter of 2028, emphasizing that the timeline is highly aspirational and carries "big error bars."

"These are very aggressive dates, and we're very appreciative of ASML and all of our other suppliers in accelerating equipment deliveries in order to achieve this outcome," said Musk, CEO of both companies behind Terafab. SpaceX plans to manufacture its first experimental test chip at its research fabrication facility in Austin, Texas, around Q2 2027.

Aside from Terafab, Musk also outlined near-term ambitions for his AI companies during the broadcast, saying he expects them to have 2.5 to 3 gigawatts (GW) of computing capacity active by the end of 2026. He also stated he is highly confident about bringing an incremental 10 GW online in 2027, saying he "would be surprised" if they do not hit a total of 13 GW of AI compute by the end of 2027.

Meanwhile, the next-largest project by planned capacity, the now-restructured 10 GW Project Stargate, was expected to reach full capacity in the 2030s. Meta's 5 GW Hyperion also has a similar timeline. To achieve the 13 GW milestone, Musk revealed that SpaceX and xAI are aggressively procuring upcoming next-generation NVIDIA architecture. He announced plans to get a massive 440,000-GPU Nvidia "Vera Rubin" training cluster online by the end of Q2 2027.

Shifting back to Terafab, Musk also boasted that once fully scaled and operational, the sheer commercial value of Terafab's advanced chip output will place it within the top 20 global country GDPs from a single physical building. For context, the 20th country on the list is Switzerland, with a GDP of around $1.14 trillion. The facility is a planned multi-billion-dollar, vertically integrated chip factory in Texas, with an ambitious goal of manufacturing 1 terawatt (TW) of AI computing power per year. Terafab will fabricate logic, memory, and advanced packaging internal architectures in one place. The project's massive planned output has mandated various collaborations across the semiconductor supply chain. Terafab will utilize traditional extreme ultraviolet (EUV) lithography systems utilizing Intel's 14A manufacturing node technology.

Intel officially joined the Terafab venture in April 2026 to help co-develop and refactor silicon fabrication technology, providing access to its state-of-the-art 14A manufacturing process. ASML, the world's sole commercial supplier of the $400 million EUV lithography systems required for high-volume, leading-edge chip production, is perhaps the project's most critical partner. Terafab's first EUV tool was reportedly slated for delivery in mid-2027, according to unofficial sources. It remains unclear if this is the expedited timeline Musk referred to in the broadcast.

Other major suppliers include American equipment manufacturers Applied Materials, Lam Research, and KLA Corporation, as well as Japan's Tokyo Electron. These companies will provide front-end processing, metrology, and process control machinery. Tesla and SpaceX are also in talks with about 10 South Korean equipment makers, including Hanmi Semiconductor, known for advanced packaging equipment, and HPSP, a high-pressure hydrogen annealing equipment manufacturer, as well as firms providing specialized piping components and process valves.

Musk's announcement says that several of these suppliers are expediting supply to Terafab, even as capacity remains tight across the semiconductor supply chain. The facility, which aims to mitigate future shortfalls of cutting-edge AI processors from external foundries like TSMC, will supply the chips for Musk's xAI clusters, self-driving vehicles, Optimus humanoid robots, and SpaceX's orbital AI data center, as well as the broader AI industry.

However, many experts have questioned the validity of Musk's 1 TW Terafab ambition. For context, research firm Gartner estimates the total global AI-optimized data center capacity is roughly 44 GW as of late 2026, 4.4% of Terafab's planned output. Although global AI computing capacity has grown by roughly 3.3x to 3.4x per year since 2022, according to EpochAI.

Qualcomm has told employees it will cut jobs worldwide after its annual performance reviews, and it expects to begin informing affected employees in November. According to a Reuters report, CEO Cristiano Amon framed the move as a “performance-focused reduction” intended to build a “stronger performance culture,” stating that the company will consider organizational needs, business priorities, and employees’ skills and expertise when determining affected positions.

“The reduction will address employees who have consistently fallen short of expectations,” said Amon. The memo did not specify which departments would be affected or how many jobs would be cut. The company had roughly 52,000 employees at the end of its 2025 fiscal year, typically in late September.

Qualcomm, one of the world’s largest smartphone chip manufacturers with customers including Apple, Xiaomi, and Samsung, has been hit by an industry-wide decline in consumer electronics sales as rising memory costs reduce demand. Its shares have risen just 1.5% in 2026, compared to gains of almost 60% for the Philadelphia Semiconductor Index.

As a result, Qualcomm is strategically pivoting to AI infrastructure and edge computing, following a broadening trend across the semiconductor industry. The company unveiled its AI200 and AI250 AI inference accelerators in October 2025. After its latest earnings report projected lower quarterly profits than initially estimated, the company said that growth in its data center business would offset any lost revenue by fiscal year 2027.

Qualcomm’s layoff decision comes as it tries to position itself for future growth. While mobile chips remain its core business, its best future opportunities might lie in data center silicon, automotive platforms, personal computing, and edge computing, and all those fields require specialized engineering talent. A performance-based reduction could let the company retain its most valuable employees in those fields while cutting duplicated roles, lower-performing teams, and positions that no longer fit its strategy.

"As we have expanded the business, so have the competencies ⁠and skills ​we require," Amon wrote. "We must have the right ​people in the right roles so they can perform at their best and the company can continue ​to succeed." The move comes on the back of Q3 2026 financial results that included a 4% year-on-year decline in revenue and 25% lower net income. The core handset business recorded a 20% decline in revenue on the year, too. The company reportedly recorded $97 million in severance-related restructuring charges in the first nine months of its fiscal year.

Qualcomm’s move is part of a larger industry transition, largely driven by AI. After several years of aggressive hiring, many tech companies are now trimming their workforce to fund AI ambitions. Meta announced plans to cut 8,000 jobs to fund AI infrastructure. Even as companies are cutting jobs that don’t fit their AI roadmap, they're fiercely competing for process engineers, chip designers, and AI software developers. McKinsey and the SEMI Foundation estimate that the United States could face a shortage of up to 157,000 semiconductor workers by 2030, while 73% of chip companies report difficulty filling engineering roles.

The U.S. Army is allegedly developing a program to deploy autonomous AI agents that can navigate digital and network infrastructures, identify targets, and “neutralize” them. According to an Oct. 19 report by The Intercept, citing leaked official documents from the Army Cyber Command (ARCYBER), the nascent program, codenamed “ECHOTRIBBLE,” is primarily focused on offensive missions with the goal of neutralizing targets by “disabling the threat completely or temporarily, deleting the threat from the target.”

The program purportedly seeks to develop modular, autonomous AI agents that would function like computer worms, stealthily navigating adversary networks, moving between devices, and self-replicating across different operating systems. The agents would operate lightly in contested cloud environments and air-gapped systems alike, keeping reports minimal and concealing any required transmissions. Once an agent identifies and neutralizes a target, it would self-destruct, ideally without alerting the target or leaving any traces of its existence.

Cybersecurity experts have raised safety concerns about the project. A recent string of events has seen AI agents escape their environments and autonomously execute unassigned tasks. The document says the army will implement “predefined triggers” to help agents precisely distinguish targets. However, experts worry that if agents designed for benign tasks could execute unplanned, sometimes dangerous, actions to achieve those tasks, what should be expected of self-replicating agents designed specifically for offensive missions? Anthropic’s experiments showed AI agents can set up inference on different hardware and replicate across a network.

The Army also wants the agents to be capable of “Self-Directed Behavior,” acting with as little human oversight as possible, as this is necessary to achieve the desired level of autonomy. Conversely, this level of autonomy has seen AI agents bypass guardrails to complete their tasks. Government intelligence agencies have also been known to penetrate target networks through civilian infrastructure. “The target may well be hit. But what path will it take?” asked Hyrum Anderson, co-founder and CEO of the AI security firm Abundant, as quoted by The Intercept. “Will it go through a U.S. water utility on its way, because that’s where the adversary has staged its command and control, and take that down too?”

Another angle of concern is how the agents would make judgment calls. While AI agents are excellent at overcoming obstacles in their path, there's no predicting with 100% accuracy what they would consider obstacles or what path they would take to overcome them. “One of the reasons that we trust 19-year-old Marine corporals in Ramadi with live rounds and a weapon is because they have both the compute substrate — the brain and the eyes — but the deep world knowledge to understand, ‘Yeah, I probably shouldn’t do that,’” said William Marcellino, a senior behavioral scientist at the RAND Corporation researching military AI applications. “That is not something that current public AI technology has.”

The ECHOTRIBBLE program is in the early prototyping and industry assessment phase and is led by ARCYBER, the Army Cyber Technology and Innovation Center (ArCTIC), and the Cyber Fusion Innovation Center (CFIC), with private vendors and academic researchers proposing and designing the software. ARCYBER and ArCTIC dictate the operational requirements and rules of engagement, while CFIC, a defense non-profit organization, acts as an intermediary between the Army and commercial tech companies. The Army recently held a virtual Assessment Event from October 6 to October 8, 2026, where it evaluated 65 technical whitepapers submitted by private vendors proposing solutions for the agentic framework and narrowed them to five. The final candidate(s) will be issued funding and formal prototype contracts.

Arm announced last week that its AGI CPU, the company's data center CPU for agentic AI workloads, delivers twice the performance per rack as AMD EPYC 9755, calculated from chip performance and server-power assumptions measured across seven workloads. The claim stems from modeled rack results from tests aligned with Arm’s new CPU evaluation methodology, developed with support from Fujitsu, Meta, and OpenAI.

The results — verified in an Arm-commissioned independent analysis by Signal65 — do not establish the AGI CPU as the overall leader for agentic AI, as they apply to the selected processors, workloads, and configuration. They also use the specific Arm-developed evaluation methodology that Arm says should be the new standard for assessing performance. However, other chipmakers like AMD and Intel make performance claims based on different benchmarks. So, how is Agentic AI evolving CPU performance benchmarks, what does Arm propose to measure, and how do the different approaches compare?

Arm’s new CPU evaluation methodology

Agentic AI is changing the role of CPUs in modern AI data centers, requiring them to handle complex, multi-step workflows. Beyond inference, which the accelerator handles, AI agents execute tools, retrieve data, and maintain state within isolated environments, acting like virtual users. The CPU handles these critical surrounding workloads, from running those tools and serving database or API requests to preparing data and coordinating work for accelerators.

As these workloads scale rapidly with agentic capabilities, it becomes increasingly important to gauge CPU performance not just by how many agents can run concurrently, but also by how much useful work gets done. Arm argues that CPU performance is increasingly defined by how much useful work a system can sustain while staying responsive. Supporting more agents simultaneously offers limited benefit if their executions throttle or accelerators have to sit idle waiting for the CPU. Power, cooling, and physical space also limit how much hardware operators can deploy, extending the performance question to the rack.

Arm’s proposed methodology for evaluating CPU performance, developed with support from Fujitsu, Meta, and OpenAI, centers on representative agent workloads, repeatable CPU measurements, and validation against end-to-end task outcomes. In practical terms, the methodology identifies the tools and services an agent uses, measures their CPU performance under controlled conditions, and checks whether improvements help the agent complete its task. For example, a database test can establish how quickly a system handles transactions. An end-to-end evaluation would then examine whether faster database access actually improves the workflow that depends on it.

Executing the second aspect of the methodology, making these comparisons repeatable, presents another challenge, as an agent might choose different commands or take a different route through a task each time it runs. Model inference and remote services also introduce delays. Arm proposes replaying recorded agent actions to separate CPU performance from this variability, allowing different systems to execute a consistent sequence of work. Its whitepaper sets out a framework for selecting and interpreting these measurements, leaving the industry to develop an agreed benchmark suite and scoring approach.

To evaluate the CPU work described in its framework, Arm ran seven workloads — spanning tooling, agentic workflows, and reasoning/planning, plus Sandbench, which measures sandbox-creation overhead for agent execution — on its AGI CPU and AMD’s EPYC 9755. The tests combine established server applications with benchmarks focused on agent workflows.

The vLLM result measures the CPU work around model execution, not GPU inference throughput. Similarly, the report’s “reasoning/planning” category groups supporting CPU workloads and does not assess how intelligently a model reasons.

ARM AGI CPU vs AMD EPYC 9755

For the tests, Arm used two AGI CPU configurations because of hardware availability: a 128-core chip at 2.8 GHz with DDR5-7200 for Terminal-Bench 2 and SWE-bench replay, and a 136-core chip at 3.2 GHz with DDR5-8000 for the other five workloads. The AMD comparison used one socket of the 128-core EPYC 9755 with DDR5-6400. Both platforms ran the same benchmark scripts but used different software environments. Arm used custom Linux 7.1.3 builds, with Ubuntu 24.04 for most tests and Ubuntu 26.04 for SWE-bench, while AMD’s main recorded configuration used Ubuntu 24.04 and Linux 6.8, with settings varying by test.

At the chip level, Arm’s AGI CPU won the majority of comparisons when compared to its AMD counterpart in five of the seven tests. With the EPYC 9755 as the baseline, Arm led by 9% on Terminal-Bench, 13% on SWE-bench, and 97% on fastText, but lagged by 12% and 5% in MySQL and Milvus throughput, respectively. On average, the AGI CPU led by 20% (1.20x) per-chip advantage, calculated across the seven normalized performance ratios.

At the rack level, Arm’s modeled performance averages 1.99x AMD’s, with a lead in all seven workloads. The model uses rated server-power estimates of 950 W for the 128-core Arm configuration, 1,050 W for the 136-core version, and 1,700 W for AMD, including memory and other system components. After reserving about 8% of a 24 kW rack budget for networking and power distribution, this leaves room for 23 or 21 Arm servers versus 13 AMD servers.

For SWE-bench, the 2.00x per rack result was obtained by multiplying the roughly 1.13x chip result by 23/13. The larger gain comes from fitting more servers into the same power budget. Furthermore, these projections use modeled whole-server power, not throughput measurements from two fully populated racks.

Arm’s model also gives the AMD servers about twice as much RAM: roughly 2 TB against 1 TB for Arm. It allocates 4 GB per hardware thread, with each AMD core supporting two threads while each Arm core supports one. This puts the memory-power allowance at 336 W for AMD and 192 W for Arm. Signal65 also calculated what happens when memory is allocated per physical core. In this setup, AMD’s memory and power allowance falls, and Arm’s average modeled rack advantage drops from 1.99x to approximately 1.81x. The usefulness of the 2 TB AMD configuration depends on how much memory the workloads actually need, as SMT does not inherently require twice the memory.

To verify the findings, Signal65 remotely observed Arm’s test runs and examined the original logs, result files, scripts, and configuration records. A separate review team rebuilt the calculations with its own code and reproduced all seven results within 0.5%. However, Signal65 did not run a separate hardware rerun in its own lab. In addition, Signal65 could independently confirm BIOS and memory settings for only the EPYC 9965 system. These settings were unavailable for independent verification on the Arm and EPYC 9755 systems. Along with the software differences, these gaps slightly affect the certainty with which the results can be attributed to the processors themselves.

Arm’s approach vs AMD and Nvidia

While Arm believes its methodology should be the standard, it does not hold a monopoly on how the industry evaluates agentic CPU performance. For example, AMD promotes agents per watt, dollar, and rack. Footnotes on its EPYC 9006 page identify available CPU threads as a proxy for agent capacity, with actual throughput depending on the workload and system. Its separate workload analysis models a 100 kW rack and claims 2.37× performance for EPYC 9965 over Nvidia's Vera, using a geometric mean across six infrastructure workloads.

Nvidia, on the other hand, emphasizes Vera’s single-thread performance and memory bandwidth, and says a 256-CPU rack supports more than 22,500 concurrent CPU environments. These numbers describe different things and do not directly imply any specific advantage. Methodologies vary across manufacturers by workload, power assumptions, and aggregation methods, making direct CPU comparisons complex. The current comparison is against AMD's fifth-generation “Turin” processor with 128 cores. The company launched its latest sixth-generation EPYC 9006 “Venice” family this year, dedicated to agentic AI.