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The current scientific funding model rewards individual discoveries. A more effective approach for the AI era would be to treat critical inputs like datasets as public infrastructure, enabling thousands of research teams to solve many problems at scale, rather than just one.

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In AI for science, the true competitive advantage lies in generating unique, high-quality experimental data from self-driving labs. The AI models themselves are becoming commoditized, while the physical data remains the defensible asset.

AIs excel at exploring millions of problems at a surface level (breadth), a scale humans cannot match. Human experts provide the depth needed to tackle the difficult "islands" AIs identify. Science must shift from its current depth-focused model to one that first uses AI to map entire fields and clear away low-hanging fruit.

The "Genesis Mission" aims to use national labs' data and supercomputers for AI-driven science. This initiative marks a potential strategic shift away from the prevailing tech belief that breakthroughs like AGI will emerge exclusively from private corporations, reasserting a key role for government-led R&D in fundamental innovation.

Scientific progress requires more than just papers that lead to tenure. It also needs tool-building, software development, and connecting disparate ideas. These activities are valuable for science but often undervalued by academic incentive structures, creating an opportunity for new institutions to fill the gap.

Scientists constrained by limited grant funding often avoid risky but groundbreaking hypotheses. AI can change this by computationally generating and testing high-risk ideas, de-risking them enough for scientists to confidently pursue ambitious "home runs" that could transform their fields.

Centralized AI labs have a massive advantage in capital for compute and data. Crypto offers a coordination layer for decentralized competitors to crowdsource GPUs and data, allowing individual participants to collectively fund and own AI models, creating a viable alternative to the dominance of large corporations.

The key to successful open-source AI isn't uniting everyone into a massive project. Instead, EleutherAI's model proves more effective: creating small, siloed teams with guaranteed compute and end-to-end funding for a single, specific research problem. This avoids organizational overhead and ensures completion.

Instead of funding small, incremental research grants, CZI's philanthropic strategy focuses on developing expensive, long-term tools like AI models and imaging platforms. This provides leverage to the entire scientific community, accelerating the pace of the whole field.

The combination of AI's reasoning ability and cloud-accessible autonomous labs will remove the physical barriers to scientific experimentation. Just as AWS enabled millions to become programmers without owning servers, this new paradigm will empower millions of 'citizen scientists' to pursue their own research ideas.

The true advantage of AI-driven science isn't superior creativity but a structural shift in collaboration. AI agents can share all raw data daily, creating a networked intelligence that learns exponentially faster than siloed human labs sharing polished results every few years.