Forge the Future: United States Strategic Innovation Leadership Initiative (US-SILI)

[Good Carder]

A Comprehensive National Program for Technological Supremacy, Economic Security, and Global Leadership (2026–2035)​

Executive Summary​

The United States faces intensifying global competition in critical and emerging technologies, particularly from strategic adversaries advancing rapidly in AI, quantum systems, semiconductors, biotechnology, and energy. To secure enduring technological dominance, economic prosperity, and national security, the United States Strategic Innovation Leadership Initiative (US-SILI) — titled Forge the Future — establishes a coordinated, whole-of-government program that builds directly on existing foundations such as the CHIPS and Science Act, America’s AI Action Plan, the Genesis Mission, the National Quantum Initiative Reauthorization, and ARPA-E programs while addressing gaps in scaling, commercialization, workforce development, and supply-chain resilience.

US-SILI proposes $450 billion in new federal investment over 10 years (approximately $45 billion annually), leveraged through public-private partnerships, tax incentives, and matching funds to mobilize over $1.2 trillion in total public-private resources. It organizes around five flagship projects aligned with the National Science and Technology Council’s critical and emerging technologies priorities. Cross-cutting elements include a new National Biotechnology and Innovation Coordination Office (modeled on recommendations for interagency leadership), workforce pipelines, international alliances with trusted partners, intellectual property protection, and rigorous metrics for success (e.g., market share targets, patent leadership, job creation).

Expected national impact: Creation of 1.5–2 million high-wage jobs, addition of $2–3 trillion to GDP by 2035, restoration of U.S. leadership in key technology supply chains (targeting 25–30% global semiconductor market share for advanced nodes), acceleration of scientific discovery (doubling productivity via AI/Genesis integration), and strengthened deterrence against technological coercion. This program positions America as the undisputed innovation leader while delivering tangible benefits in health, energy security, and economic opportunity for all Americans.

Strategic Context and Overarching Program Goals​

The U.S. maintains world-leading research quality and an unmatched innovation ecosystem, but faces vulnerabilities in manufacturing scale, talent pipelines, and commercialization speed. Federal R&D spending exceeds $180–200 billion annually, with major investments already underway through the CHIPS and Science Act (over $640 billion in announced private semiconductor investments and $33+ billion in federal awards as of early 2026), the Genesis Mission (launched November 2025 to integrate AI, supercomputing, quantum, and federal datasets for accelerated discovery), America’s AI Action Plan (July 2025, emphasizing deregulation, infrastructure, and exports), and the ongoing National Quantum Initiative Reauthorization (advancing applications and commercialization).

Overarching goals:

• Achieve or maintain U.S. technological superiority in critical domains.
• Reshore and secure supply chains for strategic technologies.
• Accelerate translation of breakthroughs into commercial and defense applications.
• Build a resilient, skilled domestic workforce of 5+ million in STEM and advanced manufacturing.
• Foster ethical, secure innovation that upholds American values (free speech, privacy, safety).

Governance: Led by a strengthened Office of Science and Technology Policy (OSTP) with a new interagency National Innovation Coordination Council. Annual progress reports to Congress and presidential review. Metrics tied to outcomes (e.g., patents filed, commercial deployments, export growth, workforce credentials).

Flagship Project 1: Artificial Intelligence and Advanced Computing Supremacy Initiative​

Strategic importance: AI is the foundational technology enabling breakthroughs across all sectors — scientific discovery, manufacturing, defense, healthcare, and energy. America’s AI Action Plan and Genesis Mission have already removed regulatory barriers and launched AI-accelerated science, but sustained leadership requires massive infrastructure, talent, and safeguards against misuse or foreign dominance. Without this, adversaries could erode U.S. advantages in compute, data, and model development.

Goals: Establish U.S. dominance in frontier AI systems and infrastructure; integrate AI across federal science to double discovery productivity within a decade (building on Genesis); ensure safe, secure, and values-aligned AI deployment.

Objectives:

• Deploy exaflop-scale AI training clusters with secure domestic supply chains.
• Accelerate AI adoption in 80% of federal R&D and key industries.
• Develop robust evaluation, interpretability, and control mechanisms.
• Train 2 million AI-skilled workers by 2035.

Detailed implementation phases:

• Phase 1 (2026–2028): Infrastructure buildout (data centers, energy permitting acceleration per AI Action Plan) and expanded Genesis Mission platforms; launch national AI research resource (NAIRR expansion); establish AI evaluation ecosystem.
• Phase 2 (2029–2032): Prototyping and sector-specific applications (defense, healthcare, manufacturing); public-private testbeds for agentic AI and multimodal systems.
• Phase 3 (2033–2035): Full commercialization, international export frameworks, and continuous safety upgrades; achieve deployment in critical infrastructure.

Budget and funding sources: $80 billion over 10 years ($8B/year). Sources: 50% new appropriations (NSF, DOE, DOD via expanded Genesis/ARPA programs); 30% tax incentives/loan guarantees; 20% private matching and venture leverage. Builds on existing AI R&D priorities in FY27 budget memoranda.

Comparison with existing projects: Extends America’s AI Action Plan and Genesis Mission (already coordinating whole-of-government AI for science) by adding scaled infrastructure and commercialization focus. Complements NSF TechAccess: AI-Ready America hubs and prior American AI Initiative (2019). Unlike fragmented prior efforts, this creates unified national compute resources and preemption of conflicting state regulations for consistency.

Expected results and impact: 500,000+ new AI-related jobs; $1+ trillion economic value from productivity gains; leadership in global AI standards and exports; enhanced national security through secure, domestic AI systems. Measurable: U.S. retains 70%+ share of frontier AI model development; doubled federal R&D output via Genesis integration.

Flagship Project 2: Quantum Information Science and Technology Breakthrough Program​

Strategic importance: Quantum technologies promise revolutionary advances in computing, sensing, networking, and cryptography — critical for unbreakable encryption, drug discovery, materials design, and defense. The U.S. leads in research quality but risks losing ground in commercialization and applications; reauthorization of the National Quantum Initiative is underway to address this.

Goals: Achieve practical quantum advantage in key applications by 2030 and full-scale fault-tolerant quantum computers by 2035; deploy quantum-secure infrastructure nationwide; establish U.S. leadership in quantum supply chains.

Objectives:

• Build 3–5 national quantum research and prototyping centers.
• Develop quantum sensors, networks, and computers with commercial viability.
• Migrate critical systems to post-quantum cryptography.
• Train 100,000 quantum-skilled professionals.

Detailed implementation phases:

• Phase 1 (2026–2028): Infrastructure and testbeds (expand NIST/NSF/DOE centers per reauthorization bill); accelerate sensing and networking prototypes.
• Phase 2 (2029–2032): Scaling and hybrid quantum-classical systems; industry partnerships for applications (e.g., quantum simulation for chemistry/energy).
• Phase 3 (2033–2035): Commercial deployment, quantum internet pilots, and global standards leadership.

Budget and funding sources: $50 billion over 10 years. Sources: Direct appropriations building on National Quantum Initiative (recent DOE centers funding ~$625M and NSF $100M infrastructure programs); private sector co-investment via consortia; international allied funding.

Comparison with existing projects: Directly builds on and accelerates the National Quantum Initiative Act (2018, reauthorized 2026) and recent executive order for whole-of-government quantum strategy. Expands beyond pure research (current focus) to include commercialization and applications, similar to how CHIPS advanced semiconductors. Avoids duplication by integrating with Genesis Mission for AI-quantum hybrids.

Expected results and impact: First-to-market practical quantum computers and sensors; $500 billion+ in new industries (quantum-enabled pharma, materials, finance); strengthened cybersecurity; U.S. capture of 60% global quantum technology market. Geopolitical: Deterrence through technological edge.

Flagship Project 3: Semiconductor and Microelectronics Sovereignty Program​

Strategic importance: Semiconductors underpin every strategic technology (AI, quantum, defense, autos, health). CHIPS Act has sparked resurgence, but sustained leadership requires ongoing R&D in advanced packaging, digital twins, and next-generation nodes to counter foreign dependency.

Goals: Achieve 28–30% global share of advanced logic chip manufacturing; secure full domestic supply chain for critical nodes; enable U.S. innovation leadership in packaging and design.

Objectives:

• Expand advanced packaging and prototyping facilities.
• Develop digital-twin manufacturing tools to cut development time/cost by 35–40%.
• Support workforce for 70,000+ new fab jobs.

Detailed implementation phases:

• Phase 1 (2026–2028): Accelerate CHIPS-funded fabs and R&D hubs (NAPMP, NSTC, SMART USA).
• Phase 2 (2029–2032): Next-gen node R&D and metrology advances; supply-chain resilience programs.
• Phase 3 (2033–2035): Full-scale production of 1nm-class and beyond chips; export controls alignment.

Budget and funding sources: $120 billion over 10 years (building on existing ~$52.7B CHIPS authorization). Sources: Expanded CHIPS-style incentives/loans ($39B manufacturing + $11B R&D base); tax credits; private investment leverage (already $640B+ announced).

Comparison with existing projects: Directly expands and sustains CHIPS and Science Act programs (NAPMP for packaging, NSTC for full-stack innovation, SMART USA for digital twins, Metrology). Current implementation has awarded billions and driven massive private capital; this adds long-term funding stability beyond original authorizations and integrates AI/quantum co-design.

Expected results and impact: 500,000+ jobs supported; restored U.S. manufacturing leadership; reduced supply-chain risks; enabling downstream innovations worth trillions across economy and defense.

Flagship Project 4: Biotechnology, Biomanufacturing, and Bioeconomy Acceleration Initiative​

Strategic importance: Biotechnology drives the next industrial revolution — from medicines and sustainable materials to food security and defense applications. The U.S. leads in discovery but lags in scaling and faces fierce competition; a coordinated bioeconomy strategy is essential for health security and economic growth.

Goals: Grow the U.S. bioeconomy to $1 trillion+ contribution; achieve domestic biomanufacturing for critical medicines and materials; lead in synthetic biology and bio-foundries.

Objectives:

• Establish 10+ regional bio-foundries and scale-up facilities.
• Streamline regulation and attract private capital.
• Develop resilient supply chains for biologics and bio-based products.

Detailed implementation phases:

• Phase 1 (2026–2028): National coordination office and bio-foundry network; R&D in synthetic biology/AI-bio integration.
• Phase 2 (2029–2032): Pilot-to-commercial scale-up facilities (DOE/DOC-led).
• Phase 3 (2033–2035): Widespread commercialization and global standards leadership.

Budget and funding sources: $60 billion over 10 years. Sources: New appropriations (NSF, NIH, DOE, USDA); tax incentives; private venture matching; builds on prior National Biotechnology and Biomanufacturing Initiative.

Comparison with existing projects: Advances fragmented prior efforts (2022 Bioeconomy EO) and Senate Commission recommendations by adding dedicated scaling infrastructure and coordination — addressing gaps in commercialization that existing ARPA-H and NSF biotech investments have not fully closed. Integrates with Genesis for AI-driven bio-discovery.

Expected results and impact: 300,000+ bioeconomy jobs; reduced reliance on foreign APIs (75–90% currently imported); breakthroughs in personalized medicine, sustainable chemicals, and biosecurity; $500B+ GDP boost.

Flagship Project 5: Advanced Energy Systems and Climate Innovation Program​

Strategic importance: Energy dominance underpins AI infrastructure, manufacturing resurgence, and national security. ARPA-E and nuclear/fusion advances are accelerating, but grid modernization, advanced nuclear, and fusion require scaled investment to match AI-driven demand while maintaining environmental leadership.

Goals: Achieve energy abundance with reliable, low-carbon sources; deploy commercial fusion pilots; modernize grid for AI/data-center loads.

Objectives:

• Accelerate advanced nuclear and fusion commercialization.
• Build resilient, high-capacity grids.
• Innovate in energy storage, hydrogen, and carbon management.

Detailed implementation phases:

• Phase 1 (2026–2028): Expanded ARPA-E fusion and nuclear programs; permitting reform for infrastructure.
• Phase 2 (2029–2032): Demonstrator projects and grid-scale deployments.
• Phase 3 (2033–2035): Widespread commercialization and export of U.S. energy tech.

Budget and funding sources: $140 billion over 10 years (leveraging IRA modifications and ARPA-E’s recent $135M fusion commitment). Sources: DOE appropriations; tax credits (adjusted post-OBBBA); private utility/investor partnerships.

Comparison with existing projects: Builds on ARPA-E (expanded fusion investment), nuclear programs in FY26 energy funding, and post-IRA incentives. Addresses implementation gaps in prior clean energy efforts by prioritizing abundance, reliability, and integration with AI infrastructure needs — unlike narrower prior focus.

Expected results and impact: Energy costs reduced 20–30%; support for AI/data-center growth; thousands of clean-energy jobs; global export leadership in advanced nuclear/fusion; enhanced energy security.

Cross-Cutting Elements, Total Funding, and Metrics​

• Workforce & Education: $30B for STEM pipelines, apprenticeships, and reskilling (via DOL/NSF partnerships).
• International Alliances & Security: Tech export frameworks with allies; IP protection; supply-chain screening.
• Ethics, Safety & Standards: AI/quantum/bio safety protocols; public-private standards bodies.
• Total Program Funding: $450B federal (phased, with annual appropriations); total mobilized >$1.2T. Funding mix: 60% direct federal, 40% leveraged private/tax incentives/loans.

Metrics for success: Annual reports tracking patents, commercial deployments, job creation, market share, and scientific output. Independent audits and sunset/review clauses.

Conclusion​

Forge the Future transforms America’s innovation ecosystem from world-class research to unmatched implementation and leadership. By coordinating and expanding proven initiatives like CHIPS, Genesis, and the Quantum Reauthorization while filling critical scaling gaps, US-SILI will deliver technological supremacy, economic resilience, and a brighter future for generations of Americans. Implementation begins immediately upon congressional authorization, with first-year funding focused on infrastructure and coordination.

This program is not merely an investment — it is a national commitment to American ingenuity and leadership in the 21st century.