Introduction
If you've been following tech news lately, you might have noticed something unusual: the U.S. government is moving fast on technology policy. In the past few months alone, the White House released its first national security science and technology strategy in over three decades, the Commerce Department announced nearly $900 million in semiconductor research funding, and one of Wall Street's biggest banks pledged to facilitate $1.5 trillion for U.S. innovation infrastructure.
This isn't random. It's part of a deliberate push to secure American leadership in the technologies that will shape the next few decades.
Here's a plain-English breakdown of what's happening and why it matters.
The New Strategy: Four Pillars, Clear Priorities
On August 17, 2026, the White House Office of Science and Technology Policy released the National Security Science and Technology Strategy (NSSTS) —the first document of its kind since 1995 . It's a 24-page document that organizes the U.S. approach around four pillars: Focused, Resilient, Agile, and Secure .
The "Focused" pillar directs technology competition toward areas where the U.S. has structural advantages. The "Resilient" pillar aims to reduce vulnerabilities in critical supply chains. "Agile" is about accelerating innovation by removing regulatory hurdles. And "Secure" focuses on preventing foreign exploitation of U.S. intellectual property .
What’s at the Top of the List
The strategy establishes a clear hierarchy of priorities . At the top are three areas described as "priority areas for battlefield dominance and power projection" :
- Undersea superiority – Submarines and anti-submarine warfare capabilities. The strategy calls for clear technological superiority here, not just relative advantage .
- Space – From low Earth orbit to cislunar space (the area around the Moon). Again, clear technological superiority is the goal .
- Artificial intelligence and autonomy – Here, the strategy calls for a "competitive advantage" rather than decisive superiority—a distinction that reflects how fast the AI race is moving .
The Enabling Technologies
Below those top priorities are the technologies that make everything else possible :
- Airpower enabled by stealth, electronic warfare, and air defense
- Long-range strike capabilities
- C5ISR (command, control, communications, computers, cyber, intelligence, surveillance, and reconnaissance)
And below those are the foundational technologies: advanced manufacturing (including 3D printing), hypersonics, nuclear energy, and semiconductors .
The appendix to the strategy lists 15 critical and emerging technologies, including AI, quantum information, advanced manufacturing, and semiconductors. Notably, the list includes brain-computer interfaces and distributed ledger technologies, but open-weight AI models are not specifically mentioned—though the document notes the list is "not meant to be comprehensive," and a separate AI-specific plan is still expected .
A Shift on Talent
One notable change: The strategy says the U.S. "will further strengthen its workforce by attracting and retaining top-tier global talent in critical national security S&T fields" . This is a departure from the previous year's National Security Strategy, which suggested that global talent "undercuts American workers."
The new strategy also calls for expanded STEM education, apprenticeships, scholarships, and stronger pathways for researchers to commercialize intellectual property .
$874 Million for Semiconductor R&D
On July 29, 2026, the Commerce Department signed letters of intent with seven companies to provide $874 million in federal incentives under the CHIPS and Science Act .
Here's the important detail: This funding is specifically for research and development—targeting the bottlenecks that are slowing down AI progress.
The Three Largest Investments
GlobalFoundries – Up to $300 million for co-packaged optics
This is the largest single award. The funding aims to accelerate the development of silicon photonics technology—using light instead of electricity to move data between chips. The Commerce Department believes this investment could advance U.S. leadership in AI infrastructure by two to three years .
Kepler Computing – Up to $245 million for ferroelectric memory
Kepler is developing a new class of AI memory that combines 3D integration with ferroelectric technology—a material that retains data without continuous power. The advantage is architectural: instead of moving data across a high-bandwidth bus, certain operations can happen directly on the memory chip .
Multibeam Corporation – Up to $140 million for advanced packaging
Multibeam is developing technology that assembles and stacks multiple chips with thousands of connections—crucial for "Chiplet" designs where chips are built as smaller components and combined into a single package .
The Other Investments
- Extropic – $75 million for energy-efficient computing that uses natural thermal fluctuations to solve complex problems
- Thintronics – $50 million for ultra-low-loss dielectric materials for next-generation interconnects
- OBSIDIA Semiconductors – $34 million for counterfeit detection technology to secure AI supply chains
- Aeluma – $30 million for substrate technology for photodetectors and lasers used in AI photonic interconnects
One Unusual Detail
The Commerce Department will receive a minority, non-controlling equity stake in each company as a condition for receiving the funds . That means U.S. taxpayers could see returns if these technologies succeed—a departure from conventional one-way subsidies.
The SandboxAQ $500 Million Award: Replacing Foreign Monopolies
In June 2026, the Commerce Department signed a definitive agreement with SandboxAQ for a $500 million award under the CHIPS Act .
SandboxAQ is a startup backed by Nvidia, valued at $5.75 billion in April 2025 . What sets it apart is the type of AI it uses. Instead of being trained on human language or computer code, SandboxAQ's AI systems are trained on physics, chemistry, and biology—what the company calls "Large Quantitative Models" .
The Four Priority Areas
1. Replacements for PFAS "forever chemicals"
PFAS chemicals are used throughout chip manufacturing, but they're under intense environmental scrutiny. No compliant alternatives exist at scale. SandboxAQ will use its platform to identify PFAS-free alternatives that match or exceed current performance.
2. Catalysts for semiconductor fabrication
Catalysts play critical roles throughout the semiconductor fabrication process. SandboxAQ's platform can screen catalyst candidates 20,000 times faster than traditional methods .
China controls more than 90% of global production of neodymium-based permanent magnets—and those magnets are in every advanced chip printing machine. SandboxAQ will screen magnet chemistries that eliminate or reduce reliance on neodymium and other heavy rare earth elements .
4. Advanced battery chemistries
Most chip factory backup power systems depend on lithium and cobalt, which are heavily concentrated overseas. SandboxAQ will develop battery chemistries that don't depend on these materials .
As Commerce Secretary Howard Lutnick put it: "This award will accelerate the discovery and innovation of critical materials and reduce our reliance on foreign-controlled materials" .
Equity Stake and Royalties
As with the $874 million awards, the Commerce Department will receive a minority, non-controlling equity stake in SandboxAQ. Additionally, if the company successfully develops materials in the four focus areas, the Commerce Department will receive a royalty payment .
The Challenge
AI-driven materials discovery is promising but not guaranteed. As one electronic-chemical expert put it: "I've seen great pieces of software come out that people say are going to solve the material-choice problem. Usually they struggle... I'm not sure AI is going to be the magic key that unlocks the kingdom" . Still, the same expert noted: "I think doing this and attempting these difficult problems is way better than throwing up your hands and saying we're never going to succeed" .
Morgan Stanley’s $1.5 Trillion Pledge
In August 2026, Morgan Stanley announced it would facilitate $1.5 trillion in capital raising and financing over the next decade to back U.S. innovation infrastructure . The initiative brings together the firm's advisory, capital markets, wealth management, and investment management capabilities.
- Innovation platforms and strategic industries – AI, semiconductors, quantum, data infrastructure, cybersecurity, aerospace and defense, pharmaceuticals, and critical minerals
- Infrastructure for the innovation economy – Digital, physical, and energy infrastructure, plus related supply chains
- Capital for builders – Companies from formation through scale, liquidity, and public markets
Dan Simkowitz, Morgan Stanley's Co-President: "The United States is entering a period of significant investment and innovation across technology, infrastructure, and strategic industries" .
The $1.5 trillion commitment arrives as federal programs have already committed more than $1 trillion in public funding since 2021. Morgan Stanley's move mirrors a similar pledge from JPMorgan, reflecting how Wall Street is aligning with national strategic priorities .
How the CHIPS Act Is Actually Working
Four years after the CHIPS Act was signed, the program is showing measurable results. The full $39 billion in direct manufacturing subsidies has now been allocated, with 23 recipients receiving funding commitments and about $11 billion already paid out based on project milestones .
Three subsidized advanced logic fabs have reached mass production :
- TSMC's Arizona Fab 21 Phase 1 on 4nm
- Intel's Ohio Module 1 on 18A
- Samsung's Taylor, Texas Fab 1 on 3nm GAA
The U.S. share of advanced logic manufacturing has reportedly increased from about 12% in 2020 to roughly 22% in 2026 . Another 12 subsidized wafer fab projects remain under construction, with production starts expected between late 2026 and 2029 .
However, challenges remain. Building a fab in the U.S. can cost 30-50% more than a comparable facility in Taiwan, operating costs can be 30-40% higher, and finished wafer costs may be 20-30% higher . The U.S. also continues to depend on imported ultrapure water systems, specialty gases, and chemicals—inputs that keep domestic production tied to global supply chains .
Still, for procurement teams, the new capacity adds geographic redundancy without replacing Asian supply chains .
What This Means for the Future
The pattern across these developments is clear. The White House strategy provides the framework, identifying priorities and calling for faster innovation and stronger public-private partnerships. The CHIPS Act's R&D investments target specific technical bottlenecks in the AI computing stack. SandboxAQ's award shows how the government is investing in materials discovery to break foreign supply chain monopolies. Morgan Stanley's pledge provides the private capital to scale it all.
What makes this moment different from previous technology waves is the coordination—and the willingness to take equity stakes rather than just hand out subsidies. The U.S. is not simply funding research and hoping for the best. It is building the infrastructure—physical, intellectual, and institutional—to support technology leadership for decades to come.
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