https://reddit.com/comments/1v46x2n

Summary: Science: A New Golden Age

A Report to the President · July 2026 Author: Michael Kratsios, Assistant to the President for Science and Technology / Director, OSTP

---

Executive Overview & Core Problem

Eighty-one years after Vannevar Bush’s 1945 report Science: The Endless Frontier shaped post-WWII American scientific architecture, the Office of Science and Technology Policy (OSTP) delivered a comprehensive overhaul plan. The report responds to a March 2025 mandate from President Donald J. Trump calling for a "Golden Age of American Innovation."

The report diagnoses structural stagnation within America's $886 billion annual R&D system (2024 figures):

• Declining Scientific Productivity: Despite massive funding increases (e.g., in biomedicine), breakthroughs have slowed, and drug approval efficiency per dollar spent has dropped 80-fold since 1950 ("Eroom's Law").
• Bureaucratic Burden: Researchers now spend nearly 40–44% of their working hours on grant paperwork, review cycles, and university overhead management.
• Incumbency & Risk Aversion: The average age of first-time NIH principal investigators rose from 36 (in 1980) to 42+. Standard consensus-driven peer review penalizes radical, unconventional proposals in favor of safe, incremental projects.
• Offshoring & Decoupling: Decades of industrial offshoring severed the link between basic discovery and domestic advanced manufacturing, causing foreign competitors to commercialize and scale U.S. basic research.
• Geopolitical Competition: Near-peer rivals, particularly China, have achieved purchasing-power parity in R&D spending, deploying coordinated, state-backed, all-of-society research strategies.

---

Key Pillars & Recommendations

1. Revitalizing the Research Ecosystem

• Shift to "People Over Projects": Expand portable graduate fellowships (e.g., NSF GRFP) and long-horizon grants for high-performing individuals (modeled on the NIH Director’s Pioneer Award) to give early-career scientists independence from traditional institutional hierarchies.
• Diversify Funding Mechanisms: Move away from pure consensus peer review. Adopt alternative mechanisms like "golden tickets" (allowing a single reviewer to fund high-risk ideas), fast-track grants (decisions in 48 hours), prize challenges (paying for verified outcomes), and decentralized regranting.
• Launch Novel Performers: Support Focused Research Organizations (FROs) and NSF "X-Labs"—agile, time-bound, mission-driven teams of professional scientists/engineers dedicated to solving specific mid-scale bottlenecks (e.g., brain mapping) rather than relying strictly on rotating graduate students.
• Institutionalize Metascience: Create empowered Metascience Units within every federal funding agency to run controlled experiments on grant allocation methods, track agency performance, and eliminate administrative bloat.
• Enforce Gold Standard Science: Address the reproducibility crisis by requiring open data, replication packages, transparency, and strict adherence to scientific rigor via executive order.

2. Securing Critical & Emerging Technologies

• Restore Permissionless Innovation: Streamline environmental permitting and regulatory reviews across nuclear energy, biotechnology, and autonomous systems. (Highlighted: 2025 Executive Orders capping Nuclear Regulatory Commission licensing timelines and prioritizing nuclear power uprates for AI/manufacturing).
• Open Federal Test Infrastructure: Grant startups and private firms streamlined access to Department of Energy (DOE) national labs, NASA centers, and defense facilities through modernized licensing and Other Transaction Authority (OTA).
• Pre-Competitive Consortia & Grand Challenges: Leverage federal convening power to solve shared engineering bottlenecks across strategic sectors (modeled on SEMATECH and EUV LLC for semiconductor manufacturing).
• Cross-Sector Talent Flows: Establish industry Ph.D.s, joint public-private postdocs, and agency-adjacent foundations (like the Foundation for the NIH) to bridge academic discovery with market execution.

3. Rebuilding the Science-Craft Marriage

• Valuing Process/Tacit Knowledge: Recognize that technological strength depends heavily on uncodified skill—the "know-how" living in the heads of experienced machinists, technicians, and process engineers.
• Integrating STEM & Vocational Training: Reform higher education accreditation to count hands-on apprenticeships, industry credentials, and technical externships toward STEM degrees.
• Alternative Research Pathways: Create national fellowships and "practitioner-in-residence" roles for master craftsmen, welders, and machinists alongside Ph.D. researchers at universities and national labs.
• Regional Innovation Clusters: Reconnect R&D facilities with local manufacturing ecosystems via Workforce Pell Grants, community college hubs, and state-level incentives to build regional supply chains outside traditional coastal hubs.

4. The AI for Science Revolution ("The Genesis Mission")

• Scale AI Infrastructure: Fully fund the Genesis Mission as America's flagship initiative to unify supercomputing assets, AI models, and national laboratory datasets, with the explicit target of doubling U.S. scientific productivity within a decade.
• Closed-Loop Autonomous Labs: Accelerate investments in automated hardware, lab robotics, and AI-native publishing/credit systems to run experiments continuous with verification protocols.

---

Meaning, Significance, and Potential Consequences

Meaning & Philosophical Shift

This report marks a formal policy rejection of the 1945 "Linear Model" of innovation (which assumed basic science naturally leads to economic prosperity through a passive pipeline). Instead, it adopts a "Pasteur’s Quadrant" model—acknowledging that discovery is an iterative, recursive loop where practical engineering challenges constantly catalyze basic scientific inquiry.

Furthermore, it shifts federal strategy from impartial research funder to active strategic allocator, emphasizing state capacity, industrial national security, and domestic economic retention.

Potential Consequences

| Area | Positive Consequences / Opportunities | Potential Challenges / Risks | |

---

|

---

|

---

| | Scientific Productivity | Cutting grant review times and introducing "golden tickets" could drastically accelerate high-risk/high-reward breakthroughs and reduce wasted administrative hours. | Fast-tracking and bypassing consensus peer review could increase funding variance, potentially funding underperforming fringe projects if oversight is lax. | | Geopolitics & Supply Chains | Tighter links between federal R&D and domestic manufacturing could protect American intellectual property and prevent foreign adversaries from capturing critical tech sectors (semiconductors, biotech, nuclear). | Aggressive research security and reshoring mandates might create friction with global research networks and increase domestic manufacturing costs in the short term. | | Workforce & Social Mobility | Elevating technical trades, community colleges, and hands-on apprenticeships broadens the economic benefits of federal science spending beyond elite doctoral institutions to rural/industrial communities. | Institutional inertia in traditional academic tenure systems and higher-education accreditation boards may resist valuing non-traditional credentials. | | Regulatory & Industrial Speed | Deregulating nuclear permitting, biotechnology trials, and drone/autonomous testing grounds could dramatically lower capital costs for hardware startups. | Accelerating approvals requires robust safety/environmental monitoring to ensure speed does not compromise consumer safety or environmental protection. |

---

Key Data Metrics Summary

• $886 Billion: Total U.S. R&D spending in 2024.
• 70% vs. 40%: The federal share of U.S. basic research funding in the 1960s (~70%) compared to today (~40%), as private industry spending surged to over $700 billion annually.
• 44%: Estimated percentage of time researchers spend on grant administration instead of actual science.
• 40%: Share of STEM Ph.D.s awarded to temporary visa holders with postgraduation commitments.
• $400+ Billion: Capital committed by U.S. industry in 2025 alone to build out AI computational infrastructure.

keywords: Science & Technology Policy, Research & Development (R&D), Metascience, Innovation Policy, Artificial Intelligence, Federal Grant Reform, National Security Strategy, Critical & Emerging Technologies, Industrial Policy, Scientific Productivity, Advanced Manufacturing, Technology Transfer, Peer Review Reform, Academic Research, Regulatory Reform, Workforce Development, Nuclear Energy Policy, Biotechnology, Supply Chain Resiliency, STEM Education, Geopolitical Competition, Regional Innovation, Technical & Vocational Training, Patent & Intellectual Property, Public-Private Partnerships, Automation & Robotics, Scientific Integrity & Reproducibility

domains: Artificial Intelligence & Machine Learning, Computational Science & High-Performance Computing, Metascience, Robotics & Laboratory Automation, Materials Science & Engineering, Semiconductor Engineering, Quantum Information Science, Nuclear Engineering & Plasma Physics, Defense & Systems Engineering, Aerospace Engineering, Computational Biology, Synthetic Biology, Biomedical Engineering & Drug Discovery, Epidemiology, Neuroscience, Advanced Manufacturing & Precision Machining, Civil Infrastructure Engineering, Energy Systems Engineering, Geoscience & Mineralogy, Chemical Engineering

cross-posted from: https://lemmy.ml/post/47553632

Duration - 23:36 [a video about Cuba from the news collective Belly Of The Beast]

When her mother was diagnosed with Alzheimer’s, Cuban scientist Teresita Rodríguez set out to find a way to help her. At the time, her colleagues at Cuba’s Center for Molecular Immunology, were developing a medication for neurodegenerative diseases, so she joined them. Teresita's Dream follows the journey she took and how one daughter’s love might change the way we treat Alzheimer’s around the world.

Set in the heart of Havana against the backdrop of Cuba’s world-class biotech sector and the relentless challenges posed by intensifying U.S. sanctions, this documentary is a powerful story of scientific innovation, love, hope and resilience.

Teresita’s Dream is not just a film. It is a call to reimagine global health and to stand in solidarity with those pushing for solutions against the odds.

Teresita’s Dream is produced by Belly of the Beast, a groundbreaking U.S.-based media outlet that tells Cuba’s untold stories through hard-hitting journalism and stunning cinematography.

cross-posted from: https://slrpnk.net/post/27540238

• With Bangladesh’s growing economy and city dwellers’ purchasing capacity, the tendency to gather for parties and serve food has also increased in the country.
• With concerns for environmental protections, many of them are choosing biodegradable tableware instead of single-use plastic.
• A few local entrepreneurs are now producing tableware like plates and straws from biodegradable and locally available materials like areca leaves for plates and rice bran and jute for straws.
• However, entrepreneurs are struggling with production costs and are looking forward to the policy support that industries producing environment-friendly products usually receive in Bangladesh.

archived (Wayback Machine)

cross-posted from: https://slrpnk.net/post/27540124

• Recently, Bangladesh successfully developed lotus silk — a biodegradable luxury fabric — using lotus stems, merging ancient tradition with modern sustainability science.
• Unlike conventional textiles, lotus silk is produced without water, chemicals or fossil fuels — making it one of the most eco-friendly fabrics in the world today.
• With high prices, lotus silk is attracting top fashion houses internationally, giving Bangladesh an opportunity to gain a premium place in the ethical fashion market.
• In some villages, lotus silk is creating new jobs for women who are now skilled in producing this high-value, global product; it’s reviving Bangladesh’s artisanal legacy.

archived (Wayback Machine)

A paralysed man can stand on his own after receiving an injection of neural stem cells to treat his spinal cord injury. The Japanese man was one of four individuals in a first-of-its-kind trial that used reprogrammed stem cells to treat people who are fully paralysed.

Another man can now move his arms and legs following the treatment, but the two others did not show substantial improvements. The trial was run by Hideyuki Okano, a stem-cell scientist at Keio University in Tokyo, and his colleagues.