AI 解决过的最难的问题
The hardest problem AI ever solved
杰米斯·哈萨比斯 Demis Hassabis · Huge If True · 2026-04-07 · 约 65 分钟 · 原视频 ↗
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本期速览 · Overview
AlphaFold、科学发现,以及 AGI 究竟还有多远。
AlphaFold, scientific discovery, and how far AGI really is.
要点 · TL;DR
- AlphaFold 解决了蛋白质折叠这一 50 年的生物学重大挑战。
AlphaFold solved protein folding, a 50-year grand challenge in biology. - AlphaGo 的第 37 手展现了 AI 创造力,为科学问题打开了大门。
AlphaGo's move 37 demonstrated AI creativity, opening doors to scientific problems. - AGI 可能解决核聚变等根本问题,但风险包括滥用和 AI 失控。
AGI could solve root problems like fusion, but risks include misuse and rogue AI.
核心观点 · Key points
- AI 的最佳用途是改善人类健康和加速科学发现。
AI's best use is to improve human health and accelerate scientific discovery. - AlphaFold 解决了一个 50 年的重大挑战,预测了所有已知蛋白质的结构。
AlphaFold solved a 50-year grand challenge, predicting protein structures for all known proteins. - AlphaGo 的第 37 手展现了 AI 的创造力,标志着解决科学问题的时机成熟。
AlphaGo's move 37 showed AI creativity, signaling readiness for scientific problems. - AI 的两大风险:恶意滥用技术,以及系统变强后 AI 本身失控。
Two main AI risks: bad actors misusing tech and AI itself going rogue as systems become more powerful. - AGI 能解决根节点问题,如核聚变,带来清洁能源和太空探索。
AGI could unlock root-node problems like fusion, leading to clean energy and space exploration. - 理想路径是谨慎的科学推进,但商业压力加速了部署。
The ideal path would have been careful scientific progress, but commercial pressure accelerated deployment.
反共识 · Contrarian takes
- 语言比专家预期的更容易攻克,这要归功于 Transformer。
Language was easier to crack than experts expected, thanks to transformers. - 理想的路径本应是更慢的、类似 CERN 的 AGI 开发方式。
The ideal path would have been slower, CERN-like AGI development. - 当前的商业压力和地缘政治迫使以更快、不太理想的速度推进。
Current commercial pressure and geopolitics force a faster, less ideal pace. - AGI 可能在 3-4 年内建成,而非数十年。
AGI may be built within 3-4 years, not decades. - 最大的担忧不是深度伪造,而是 AI 作为智能体失控。
The biggest worry is not deepfakes but AI going rogue as agents. - AlphaZero 的白板学习表明 AI 无需数据即可超越人类知识。
AlphaZero's tabula rasa learning shows AI can surpass human knowledge without data.
本期章节 · Chapters(共 27)
- 0. 引言与目标 Introduction and Goals
- 1. 会议启示:折叠所有蛋白质 Meeting realization: fold all proteins
- 2. AlphaFold 对药物发现的影响 AlphaFold's Impact on Drug Discovery
- 3. 前沿:计算机辅助药物设计 Cutting Edge: In Silico Drug Design
- 4. 詹妮弗·杜德纳提问 Question from Jennifer Doudna
- 5. AlphaGenome 与 CRISPR AlphaGenome and CRISPR
- 6. AI 关注点的转变 Change in AI focus
- 7. 快速部署 AI 的利弊 Benefits and downsides of rapid AI deployment
- 8. AlphaGo 的创意一步与现代 AI 的曙光 AlphaGo's creative move and the dawn of modern AI
- 9. 围棋:AI 的终极挑战 Go as the ultimate challenge for AI
- 10. AlphaGo 的突破:第 37 手 AlphaGo's breakthrough: Move 37
- 11. 对现实世界问题的启示 Implications for real-world problems
- 12. AlphaZero:白板学习 AlphaZero: Tabula rasa learning
- 13. 从随机到超人的进化 AlphaZero and the evolution from random to superhuman
- 14. 将 AlphaGo 理念应用于基础模型与世界模型 Applying AlphaGo ideas to foundation models and world models
- 15. 实例:材料设计、AlphaTensor、芯片设计 Examples: material design, AlphaTensor, chip design
- 16. 乐观与风险思考 Optimism and thinking through risks
- 17. 期望的政府 AI 应用 Desired government use of AI
- 18. 两大担忧:滥用与失控 AI Two main concerns: misuse and rogue AI
- 19. AI 与人类能力的界限 Limits of AI vs human capabilities
- 20. 人类独特性与理解现实的驱动力 Human uniqueness and the drive to understand reality
- 21. AGI 愿景与科幻未来 Vision of AGI and a sci-fi future
- 22. 遗产与最终思考 Legacy and final thoughts
- 23. 叠叠乐游戏与 AlphaCode Jenga game and AlphaCode
- 24. 未涉及话题:GenCast、模拟、Genie Uncovered topics: GenCast, simulations, Genie
- 25. 参与 AI 未来的建议 Advice for participating in the AI future
- 26. 黑板上的便签:过去与现在 Sticky note on the board: past and present
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