Why I still haven’t bought into true RSI
https://www.interconnects.ai/p/where-i-stand-on-rsi📌 千個 Agent 同時運轉,算不算 AI 在自我改進?
TL;DR:Interconnects 作者 Nathan Lambert 認為,OpenAI 與 Anthropic 內部堆疊的大量 agent 只是「有損自我改進」,還稱不上真正的遞迴自我改進(RSI)。
當一間公司內部同時有數千個 agent 在跑,員工每天親眼看著這種規模的自動化運作,對 AI 進步速度與風險的預期自然會被迅速拉高。但這種「規模上的震撼」,真的等於超級智能近在眼前嗎?Nathan Lambert 在 Interconnects 的最新文章給出了保留意見。
🤔 舊金山的焦慮文化,會放大任何 AI 風險訊號
Lambert 觀察到,前沿實驗室加上舊金山 AI 圈那種競爭激烈的文化,容易把任何 AI 風險放大解讀。他回顧 2023、2024 年那波 AI 安全辯論,當時預測的多數風險並未如期出現;如今兩大實驗室員工對 AI 風險與進步速度的焦慮,在 2026 年初 agent 產品找到市場定位後只會更加強化。他引用 Richard Ngo 的說法:AI 安全社群目前普遍默認「幾年內會出現智能爆炸」,而 Lambert 預期最終結果會是「方向大致正確、但具體判斷是錯的」——不會在 8 年內出現超級智能,但進展速度仍快到讓當年主張短時間線的人看起來像是說對了。
🧩 「有損自我改進」:Lambert 的替代論述
相對於「真·RSI」,Lambert 提出他稱為 lossy self-improvement(有損自我改進)的替代情境,核心是三點:
- 可自動化的研究範圍太窄,面對 scaling laws 的指數級成本,不足以帶來大規模的淨加速
- 平行堆疊更多 AI agent 的邊際報酬遞減是真實存在的現象
- 資源瓶頸與政治因素,才是打造強大 LLM 的主要限制,AI 在這方面能幫上的忙有限
💡 三位研究者的能力門檻時間線
Lambert 整理了 Dwarkesh 訪談中 Charlie O’Neill、Beren Millidge、John Schulman 三人對三個問題的時間線預測(自訪談當日起算):
| 問題 | Charlie O’Neill | Beren Millidge | John Schulman |
|---|---|---|---|
| 連續一個月頂替白領遠端工作者 | 程式化工具存取約 1 年;僅靠瀏覽器約 2 年 | 完全通用約 3 年;80-90% 涵蓋率更快 | 約 1 年出現「堪用」版本,能力不均但持續改善 |
| AI 研究者生產力提升 10 倍 | 5-10 年,瓶頸在吸收資訊、決定下一步實驗 | 認為 John 的約 2 年估計合理,未給獨立時間線 | (未提供獨立答案) |
| 超越頂尖人類專家的全電腦端工作(ASI) | 5-10 年,受限於記憶與 context 長度 | 實驗室聚焦領域約 5 年,通用版本無明確時間線 | 3-4 年,空間/物理領域可能更久,需解決長視野學習 |
Lambert 特別點出一個反覆出現的問題:智慧本身缺乏明確規格。LLM 的智慧型態與人類差異很大,我們卻用人類形狀的職業門檻去預測它,AI 不會離散式地跨過「遠端工作者」或「AI 研究員」這種門檻,而是一種緩慢擴散、長尾永遠存在的過程。
💡 科學進步的瓶頸不是實驗速度,是理解本身
他認同實驗設計與測試的循環未來可能加快 10 倍,但假設生成與直覺建立不會同步加快。很多人低估了科學有多依賴溝通與同儕間的標準建立;AI 工具再怎麼進步,人類在這方面的能力提升仍然有限,真正的收穫會是讓人類把更多時間投入到這一塊,而不是讓人類自己變得指數級聰明。回到推理容量的討論,Lambert 認為 agent swarm 在近期最擅長解決有明確、可驗證答案的清晰問題;RSI 對改善 AI 模型本身的幫助,更多體現在效率而非拓展智慧上限,因為 LLM serving 有清楚可衡量、可調整的指標,這會讓 inference-time scaling 與多 agent 系統的效率持續提升。
⚠️ 他自己也不確定
Lambert 坦言,他無法排除實驗室內部已經看到某些尚未公開、真正驚人的突破,只是傾向認為目前的 AI 安全焦慮多半來自「規模化的 agent 確實在運作」這個事實本身,而非未公開的根本性突破,但他對此仍抱持高度不確定性。
🎯 實務啟示
與其押注「奇點將至」,不如把注意力放在 RSI 目前真正能兌現的地方:有明確驗證指標的任務,例如 inference-time scaling 與多 agent 系統效率優化。至於研究直覺、假設生成這類需要長期理解累積的工作,短期內仍難以被自動化取代。
🔗 來源
- 標題:Why I still haven’t bought into true RSI
- 作者/機構:Nathan Lambert,Interconnects
- 連結:https://www.interconnects.ai/p/where-i-stand-on-rsi
#RSI #AIsafety #AGI #Interconnects #OpenAI #Anthropic #AIagents #FutureOfAI #MachineLearning #AIAlignment
原始資料 Interconnects · 收集於 2026-09-19
摘要原文
We’re in an era where a few organizations are using thousands of concurrent agents to improve their processes and output. These organizations happen to be just the frontier AI labs, in particular OpenAI and Anthropic. In the last few weeks, I’ve been pondering what it means for so many employees across these organizations to rapidly update their expectations for the pace of AI progress and associated risks. A core perspective I have is that the frontier labs and broader frenetic, competitive culture in the San Francisco AI scene set up an environment that amplifies any AI concern. This has some benefits in causing more general audience awareness of AI, as fear sells, but exaggerating risk timelines or severity will have negative second-order effects. I remember many loud AI safety debates, and their associated clouds over the viability of open-source AI, in 2023 and 2024 — the primary risks then did not arrive in the forecasted timelines. The general populace of these two key labs was very anxious about AI risks and the rate of progress even a year ago, and especially as agents got stronger product-market fit at the start of 2026. This cultural precondition, when exposed to the reality that thousands of agents will constantly be working fairly productively in your business, will only increase this anxiety. The step from this anxiety, and incidents like OpenAI-HuggingFace, to extinction risks feels very religious. Richard Ngo had an apt summary of the situation: Now a large proportion of the AI safety community is implicitly or explicitly orienting to futures where an intelligence explosion occurs within a few years. My default expectation (absent an extensive pause) is that a similar thing will happen: they’ll turn out to be directionally correct (relative to the expectations of almost anyone not linked to the community) but factually wrong. Specifically, we won’t have superintelligence within the next 8 years, but things will still be moving so fast that it’ll *feel* like the people who argued for short timelines were right. … I wanted to say something now because it feels like the level of bandwagoning towards “singularity soon” is getting pretty wild. Personally, I think this view aligns closely to what I outlined in my alternate scenario to true recursive self-improvement (RSI), which I called lossy self-improvement . A summary of this view is that: Automatable research is too narrow to achieve a massive net acceleration in progress, in the face of scaling laws’ exponential costs, Diminishing returns of more AI agents in parallel are real, & Resource bottlenecks and politics are a major factor in building strong LLMs (and AI can do much less to accelerate this). So, I’m left balancing the above, latent increase in the cultural temperature with the potential that the labs have seen genuinely scary, specific breakthroughs that are not public yet. My expectation is that more of the current AI safety concern is on the former – scaled agents working – but I hold high levels of uncertainty here. Foundational, imagination-based AI breakthroughs are the sort of thing that would make me update my RSI timelines from closer to a tool to sustain progress in the face of exponential costs (scaling laws), to something more unpredictable and/or unstable. Some of the best recent resources on RSI have been Dwarkesh’s podcasts with Noam Brown and the trio of John Schulman , Beren Millidge and Charlie O’Neill . I have a few important reflections from both of them. First, the podcast with Noam Brown made me internalize how big of a short-term acceleration mass inference capacity is. These labs will throw thousands of agents at important, measurable problems. At the same time, compute capacity available to them is going to continue to scale. I have my doubts that the labs can afford to spend a constant portion of this compute on internal R&D as the total volume goes up, especially with plans to IPO, as they face increased scrutiny on basic economics. It is important to not confuse massive steps in inference-time scaling, a dynamic which should be fairly predictable, with being the outputs of RSI, which is highly uncertain. Second, the trio podcast debating the state of the art in technical capacities induced more of a surprising reaction that I haven’t fully settled. Through the first hour or so of this podcast, where they debate the role of RL, distillation, scaling, inference-time compute, etc., I found myself strongly agreeing with the distribution of claims. A TLDR would be that our current techniques work and let us solve problems we know how to state, but they don’t result in a magical level of generalization to unknown, harder problems in most partially verifiable domains (i.e. progress in math is an exception, rather than a rule). The surprise of this podcast was the end, where they were predicting timelines for various thresholds of AI. I had GPT-6-Astra summarize the answers provided to three questions from Dwarkesh, of the form “when will AI reach X ability”: All timelines are relative to the interview date. Drop-in remote worker for broad white-collar work over a month Charlie O’Neill: ~1 year with programmatic access to workplace tools; ~2 years if it must operate through a browser. Means ordinary white-collar work, not highly creative research. Beren Millidge: ~3 years for full generality; 80–90% coverage sooner. Main uncertainties: online learning and the long tail of tasks. John Schulman: ~1 year for an “okay” version, with uneven capabilities that improve over time. 10× productivity uplift for AI researchers Charlie O’Neill: 5–10 years. Bottleneck: absorbing information and deciding which experiment to run next. Beren Millidge: Finds John’s ~2-year estimate plausible, but gives no independent timeline. Assumes AI can run successive experiments and learn from feedback; other bottlenecks would remain. AI surpassing top human experts across all computer-based work, including multiyear projects (“ASI”) Charlie O’Neill: 5–10 years. Highlights limitations in memory and context length. Beren Millidge: ~5 years for areas labs focus on; potentially longer for literally every domain. Gives no firm timeline for the universal version. John Schulman: 3–4 years. Spatial/physical fields may take longer; requires onboarding and solving longer-horizon learning. Roughly, a recurring problem when discussing RSI is a lack of specification in intelligence. The jaggedness of intelligence means that we need to discuss thresholds in specific, measurable tasks. The nature of LLMs’ intelligence is shaped very differently than humans, and the roles we forecast are human-shaped. AIs, therefore, do not cross these thresholds like remote worker or AI researcher discretely. It’s a slow diffusion, and a form of long tail will always exist. Take the case of productivity of AI researchers. Many people under-index how much of science is communication and standard setting with colleagues. I do buy the cycle of experiment design and testing being 10x faster in the near future, but not hypothesis generation and intuition building. Accelerating understanding will be the key bottleneck – and it is one that despite all of the AI tools getting massively improved, humans will only improve marginally in their capability. A big improvement in the nature of science will be enabling humans to invest more time here, not them becoming exponentially better at it. This links back to the Noam podcast. Agent swarms in the near future will be effective at solving clear, open problems with verifiable answers. In this vein, when it comes to improving AI models, RSI is much more helpful at efficiency rather than expanding peak intelligence. This is due to the fact that LLM serving has clear metrics you want to improve that are measurable and malleable . This’ll enable better inference-time scaling and more efficient multi-agent systems.
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