Recent global science, technology, and innovation (STI) policies

Recent global science, technology, and innovation (STI) policies focus heavily on managing the rise of artificial intelligence, shifting geopolitical cooperation, and driving green transitions through agile frameworks and open science. Major international bodies like the OECD Science.       Technology  and Innovation Outlook and  UNCTAD  emphasize that modern policy must adapt faster via regulatory sandboxes and inclusive public-private partnerships

Key Global Trends in STI Policy

Artificial Intelligence & Frontier Tech: Integrating AI, quantum computing, and synthetic biology into national R&D priorities while establishing responsible data governance.(1.2)
Mission-Oriented Funding: Moving away from siloed sector grants toward challenge-driven public investments targeting climate change, health security, and sustainable energy
Geopolitical Reshaping: Adapting international scientific cooperation and supply-chain resilience (such as semiconductors) to address shifting global tensions.   (1,2) 
Open Science Frameworks: Expanding public access to publicly funded research data and democratizing knowledge sharing via platforms like the  UNESCO Open Scienc      platform (1 ,2, 3 )
STI Parks & Incubation: Scaling up science, technology, and innovation parks to bridge the gap between academic research and commercial startup ecosystems.🇮🇳 India: Decoupling Bureaucracy & Driving Multi-Lateral Innovation


In India: Decoupling Bureaucracy & Driving Multi-Lateral Innovation
India's recent science, technology, and innovation frameworks focus heavily on self-reliance (Atmanirbhar Bharat), commercializing deep tech, and relaxing historic regulatory bottlenecks
India's recent science, technology, and innovation frameworks focus heavily on self-reliance (Atmanirbhar Bharat), commercializing deep tech, and relaxing historic regulatory bottlenecks.     (1,2)
• The Anusandhan National Research Foundation (ANRF): Operating as a central body, the  ANRE serves to bridge the gap between academia, state research labs, and private industries, ensuring that public R&D spending transitions directly into commercialized patents.    (1) 
• "Ease of Research" Policy Reforms: To address bureaucratic hurdles, the government enacted major administrative overhauls. These doubled financial spending ceilings for institutional research directors and authorized universities to bypass government e-marketplaces for highly specialized, global scientific equipment. (1)
• Strategic and Mission-Mode Tech: The Vigyan Dhara Scheme consolidated isolated funding tracks into a cohesive national priority framework targeting critical fields: Semiconductors, Green Hydrogen, Quantum Computing, Deep-Tech, and Space Expansion (such as the successful Spadeex docking mission and human spaceflight infrastructure).   (1,2)
• Global Leadership: Serving as the BRICS 2026 Chair, India's Ministerial Meetings are steering cooperative framework architectures toward "Building for Resilience, Innovation, Cooperation, and Sustainability". (1,2)
United States: Techno-Strategic Competition & Supply Chain Resilience
US STI policy has firmly pivoted to treat scientific innovation as an explicit sub-discipline of national security, economic independence, and military superiority. [1, 2]
• National Security Science & Technology Strategy (NSSTS): Released directly by the White House Office of Science  and Technology Policy   (OSTP)   this strategy aims to redirect federally funded R&D to complement private market capital rather than compete with it. The document dictates four core pillars: Focusing Techno-Strategic Competition, Building Technological Resilience, Accelerating Commercial Adoption, and Protecting Ecosystems from Foreign Theft.
• Refining Critical Technologies: The US revised its official Critical and Emerging Technologies list down from 18 to 14 foundational categories, hyper-focusing attention on Post-Quantum Cryptography, 2D Materials, High-Entropy Alloys, and Hardened Operating Systems.
• CHIPS Act Pressures: As the 2026 fiscal deadline approaches for allocating incentives under the CHIPS and Science Act, the US Department of Commerce faces critical pressure to deploy final commercial semiconductor fab funding amidst shifting executive scrutiny, labor shortages, and strict environmental compliance deadlines.
• In 
  Sri Lanka: Structuring Ecosystems & Forging Bilateral Links

  Faced with a historically low Global Innovation Index (GII) score driven by weak university-to-industry partnerships and minimal patent pipelines, Sri Lanka is leveraging structural restructuring and regional cooperation to revive its tech landscape.(1)

  • New National R&D Policy Formulation: Orchestrated through the National Innovative Agency National Innovation Agency  (NIA) and the Ministry of Science and Technology, Sri Lanka has designed a refreshed national blueprint aimed at boosting private sector engagement and offering tax incentives for industry-sponsored university laboratories.
  • Bilateral Indo-Sri Lanka Integration: Lacking individual domestic venture funding at scale, the country has paired with regional powers. The Indo-Sri Lanka Joint Research Programme recently formalized collaborative funding across dozens of research tracks and environmental workshops, establishing shared labs to tackle localized climate, agricultural, and energy crises.
  • National Academy Trust Initiative: Backed by corporate giants (such as Dialog Axiata and Commercial Bank), the National Academy of Sciences of Sri Lanka  (NASSL)  launched an overarching program running through 2028 to explicitly rebuild "trust in science" and funnel entrepreneurial investments into digital tech infrastructure, satellite engineering, and high-quality human resource training  (1,2,3,4,5,6,7)

  • source: Google