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Dwarkesh Podcast · · 14 分钟

为什么我不认为 AGI 已近在眼前

Dwarkesh Patel

YouTube
TL;DR
  • Dwarkesh 的核心判断是:AGI 的瓶颈在持续学习,而不是原始智力。 LLM “只能停留在开箱即用的能力水平”,无法像人类员工通过在岗学习那样,吸收会不断复利的高层反馈。他花了 100 多个小时为自己的播客流程搭建 LLM 工具,这段经历“拉长了他的时间表”。
  • 他直接反驳 Anthropic 研究员 Sholto Douglas 和 Trenton Bricken:如果 AI 今天停止进步,消失的白领就业岗位将少于 25%。 这与他们的判断相反:现有模型已经具备足够的经济价值,能在 5 年内自动化白领工作任务。
  • 他给出 3 个理由,押注 Sholto 和 Trenton 关于 2026 年底实现“可靠计算机使用代理”的预测会落空。 更长的执行周期会拖慢进展;不存在大规模多模态预训练语料库——“想象一下,试图用 1980 年之前所有可用文本数据训练 GPT-4”;即便是“简单”的想法也需要数年,GPT-4 到 o1 就用了 2 年。
  • 他的 50/50 时间表是:到 2028 年,AI 能在一周内完成小企业全套税务,水平相当于一名合格的总经理;到 2032 年,AI 能像人类一样自然地在工作中学习。 后者相当于一个积累了 6 个月审美经验的视频剪辑师。“我们现在处于计算机使用的 GPT-2 时代”,而 GPT-2 到 GPT-4 用了 4 年。
  • 乐观的一面是,一旦持续学习问题被解决,就会触发一次断点。 一个 AI 把所有副本的学习成果汇总起来,“基本上就是在学习经济中的每一份工作”,即使没有纯软件层面的奇点,也可能出现某种看起来像广泛部署的智能爆炸。
  • 对投资者而言,结构性不对称在于:“AGI 时间表高度服从对数正态分布,要么就在本十年,要么就落空。” 训练算力每年增长 4x 不可能在本十年后继续,无论受制于芯片、电力,还是训练所占 GDP 的绝对比例,因此此后的 AGI 年度概率会坍塌。如果最终落在他 50/50 赌注中较慢的一侧,世界可能会在 2030 年代、甚至 2040 年代仍显得“相对正常”。
摘要 · 为研究而整理的核心内容

1. 瓶颈不是智力,而是模型不会持续学习你的工作

  • Dwarkesh 从自己为后期制作流程搭建 LLM 工具的 100 多个小时经验中得出的事实判断是:转写重写、识别片段、逐段共同撰写文章——这些都是“简单、封闭、短周期、输入输出均为语言的任务”,正好位于模型能力谱系的核心位置,但它们的表现只有 5/10。人类有用,主要不是因为原始智力更强,而是因为人类能建立上下文、追问失败原因,并在实践中吸收改进。财富 500 强企业并非采用速度慢;问题在于,“确实很难从这些 LLM 身上得到正常的人类式劳动力”。
  • 他最具代表性的类比是:教萨克斯时,每个学生犯一次错就把他送走,再把改进后的书面指令交给下一个学生。“无论提示词打磨得多好,没有哪个孩子能只靠阅读你的指令学会吹萨克斯。但这正是我们唯一能用来‘教’LLM 任何东西的方式。”
  • 他的编辑之所以变得优秀,是因为他们会留意细节并内化他的品味,而不是依靠“为不同子任务定制 RL 环境”。RL 微调不像人类学习那样有意识、能适应环境。他可以设想一个更聪明的模型从高层反馈中为自己建立有机的 RL 循环,但这听起来很难,也未必能跨任务、跨反馈方式泛化。模型在单次会话中确实会变聪明:比如他重写 4 段糟糕文字后,模型的建议会改善——“你的东西烂透了”;但这种默会理解会在会话结束时蒸发。类似 Claude Code 的滚动压缩在文本原生的软件工程之外“很脆弱”;甚至 Claude Code 本身,也经常会在 /compact 之前撤销双方共同打磨出的优化。

2. 与 Anthropic 的分歧:没有学习能力,自动化上限很低

  • 针对 Trenton Bricken 在播客中提出的观点——即便 AI 进展停滞,白领任务也会在 5 年内被自动化——Dwarkesh 的反驳是:白领就业中消失的比例不到 25%。Claude 4 Opus 在技术上可以重写他的文字稿,但如果不会随时间进步,“我还是会雇一个人来做这件事”。会做某个子任务,不等于具备员工能力。

3. 为什么“2026 年底帮我报税”的预测值得怀疑

  • Sholto 和 Trenton 预计,到明年年底,代理可以通过邮件索要发票、整理企业支出,并提交 Form 1040。Dwarkesh 有 3 个反对理由:更长的执行周期意味着要先跑满 2 个小时,才能知道它是否做对了,同时还伴随高算力消耗的图像和视频处理;不存在大规模的多模态计算机使用预训练语料库——他引用 Mechanize 的说法:互联网文本“足以攻克自然语言处理,却不足以让模型成为可靠、胜任工作的代理”;还有历史经验——DeepSeek 在 R1 论文中解释的 RL 流程,从高层看似乎很简单,但 GPT-4 到 o1 仍然用了 2 年。“这正是我的观点!”
  • 他保留了自己的全部保留意见:也许文本训练能提供良好的 UI 先验,也许 RL 的样本效率很高,也许模型可以生成数百万个玩具 UI 来练习——“但我还没看到任何公开证据,能让我相信这些模型突然变得没那么吃数据,尤其是在它们明显缺乏实践的领域。”

4. 冷水泼得够多了——“它确实在起作用”

  • 读 o3 或 Gemini 2.5 的推理轨迹,你会觉得:“它真的在推理!”看着 Claude Code 根据模糊规格零样本生成一个能运行的应用,最准确的解释“就是它由一个婴儿般的通用智能驱动”。悲观主义者“没有在这些最强模型最擅长的领域实际把玩过它们”。
  • 而且他的概率分布很宽:为 2028 年出现失配的 ASI 做准备,“仍然非常合理”——这完全可能发生。

5. 带日期的赌注——以及为什么要么就在本十年,要么落空

  • 50/50 的分界线是:到 2028 年,AI 能在一周内完成小企业全套税务,水平相当于一名合格的总经理——目前处于“计算机使用的 GPT-2 时代”:没有语料库,奖励更稀疏,行动原语也更陌生,但更多算力和研究人员“可能正好抵消这些劣势”;到 2032 年,实现人类水平的在岗学习——“7 年是很长的时间!7 年前的今天,GPT-1 才刚刚发布。”2026—27 年出现很酷的演示当然没问题,但 GPT-3 当年也很酷,却并不实用。
  • 一旦持续学习被攻克,副本之间就能汇总学习成果,“一个 AI 基本上就是在学习经济中的每一份工作”——即使算法不再有任何进步,也可能迅速变成超级智能。最先出现的不会是 OpenAI 直播宣布的成品,而会是一个“早期的残缺版本”——“会有大量预警。”
  • 收尾的逻辑是:训练算力每年增长超过 4x,不可能在本十年后继续,无论受制于芯片、电力,还是训练所占 GDP 的绝对比例;2030 年之后,AI 进展主要必须来自算法进步,但即便如此,所有低垂果实也会被摘完,所以AGI 的年度概率会坍塌——时间表服从对数正态分布,“要么就在本十年,要么落空”(他自己的补充是:准确说应是“每年的边际概率下降,只是没那么上口”)。如果最终落在他 50/50 赌注中较慢的一侧,世界可能会在 2030 年代或 2040 年代仍显得“相对正常”;而在其他所有世界里……我们必须预期一些真正疯狂的结果。
Dwarkesh Patel

I’ve had a lot of discussions on my podcast where we hash out our timelines to AGI. Some guests think it’s 20 years away. Others think it’s 2 years away. Here’s where my thoughts lie as of July 2025.

Sometimes people say that even if all AI progress totally stopped, the systems of today would still be far more economically transformative than the internet. I disagree. I think the LLMs of today are magical. But the reason that the Fortune 500 aren’t using them to totally transform their workflows isn’t because the management there is too stodgy. Rather, I think it’s genuinely hard to get normal humanlike labor out of these LLMs.

And this has to do with some fundamental capabilities these models lack. I like to think I’m “AI forward” here at the Dwarkesh Podcast. I’ve probably spent over 100 hours trying to build these little LLM tools for my post-production setup. And the experience of trying to get them to be useful has extended my timelines.

I’ll try to get an LLM to rewrite autogenerated transcripts for me, to optimize for readability in the way a human would. Or I’ll try to get them to identify clips from a transcript that I feed in. Sometimes I’ll try to get them to co-write an essay with me, passage by passage. These are simple, self-contained, short-horizon, language-in, language-out tasks—the kinds of assignments that should be dead center in the LLMs’ repertoire. And they’re 5/10 at them.

Don’t get me wrong, that is impressive. But the fundamental problem is that LLMs don’t get better over time the way a human would. This lack of continual learning is a huge, huge bottleneck. The LLM baseline at many tasks might be higher than the average human’s. But there’s no way to give a model high-level feedback. You’re stuck with the abilities you get out of the box.

You can keep messing around with the system prompt, but in practice this just doesn’t produce anything even close to the kind of learning and improvement that human employees experience. The reason humans are so useful is not mainly their raw intellect. It’s their ability to build up context, interrogate their own failures, and pick up small improvements and efficiencies as they practice a task.

How would you teach a kid to play the saxophone? You’d have them try to blow into one, and then they’d see how it sounds, and they’d adjust. Now imagine if this was the way you’d have to teach saxophone instead: A student takes one attempt. The moment they make a mistake, you send them away and write detailed instructions about what went wrong. Then you call the next student in.

The next student reads your notes and tries to play Charlie Parker cold. When they fail, you refine your instructions and invite the next student. This just wouldn’t work. No matter how well-honed your prompt is, no kid is just going to learn how to play saxophone from reading your instructions. But this is the only modality we have to “teach” LLMs anything.

Yes, there’s RL fine-tuning. But it’s not a deliberate, adaptive process in the way that human learning is. My editors have gotten extremely good. And they wouldn’t have gotten that way if we had to build bespoke RL environments for the different subtasks involved in their work. They’ve just noticed a lot of small things themselves and thought hard about what resonates with the audience, what kind of content I like, and how they can improve their day-to-day workflows.

Now, it’s possible to imagine ways in which a smarter model could build a dedicated RL loop for itself that just feels super organic from the outside. I give some high-level feedback, and the model comes up with a bunch of verifiable practice problems to RL on—maybe even a whole environment in which it gets to rehearse the skills that it thinks it’s lacking. But this just sounds really hard. And I don’t know how well these techniques will generalize to different kinds of tasks and feedback.

Eventually, the models will be able to learn on the job in this organic way that humans can. But it’s just hard for me to see how that could happen within the next few years, given there’s no immediately obvious way in which to slot in continuous learning into the kinds of models that these LLMs are.

LLMs actually do get kind of smart and useful in the middle of a session. For example, sometimes I’ll co-write an essay with an LLM. I’ll give it an outline, and I’ll ask it to draft the essay passage by passage. And all its suggestions up till paragraph 4 will just be bad. I’ll rewrite every single paragraph from scratch and tell it, “Look, your shit sucked. This is what I wrote instead.”

At this point, it will actually start giving good suggestions for the next paragraph. But this whole subtle understanding of my preferences and style will just be lost by the end of the session. Maybe there is an easy solution to this that looks like a long rolling context window, like Claude Code already has, which just compacts the session memory into a summary every 30 minutes.

I just think that titrating all this rich tacit experience into a text summary will be brittle in domains outside of software engineering, which is very text-based, in which you already have this external scaffold of memory that is stored in the codebase itself. Again, think about what it would be like to teach a kid to play the saxophone just from text.

Even Claude Code will often reverse a hard-earned optimization that we engineered together before I hit “/compact”—because the explanation for why it was made didn’t make it into the summary. This is why I disagree with something that Anthropic researchers Sholto Douglas and Trenton Bricken said on my podcast. This quote is from Trenton:

“Even if AI progress totally stalls—and you think that the models are really spiky, and they don’t have general intelligence—it’s so economically valuable, and sufficiently easy to collect data on all of these different white-collar job tasks, such that, to Sholto’s point, we should expect to see them automated within the next 5 years.”

If AI progress totally stops today, I think less than 25% of white-collar employment goes away. Sure, many tasks will get automated. Claude 4 Opus can technically rewrite autogenerated transcripts for me. But since it’s not possible for me to have it improve over time and learn my preferences, I still hire a human for this.

So even if we get more data, without progress in continual learning, I think that we will be in a substantially similar position with all other kinds of white-collar work. Yes, technically AIs will be able to do a lot of subtasks somewhat satisfactorily, but their inability to build up context will make it impossible to have them operate as actual employees at your firm.

While this makes me bearish about transformative AI in the next few years, it makes me especially bullish on AI over the next decades. When we do solve continual learning, we’ll see a huge discontinuity in the value of these models. Even if there isn’t a software-only singularity, where these models rapidly build smarter and smarter successor systems, we might still get something that looks like a broadly deployed intelligence explosion.

AIs will be getting broadly deployed through the economy, doing different jobs, and learning while doing them in the way that humans can. However, unlike humans, these models can amalgamate their learnings across all their copies. So one AI is basically learning how to do every single job in the economy.

An AI that is capable of this kind of online learning might rapidly become a superintelligence even if there’s no further algorithmic progress. However, I’m not expecting to watch some OpenAI livestream where they announce that continual learning has been totally solved.

Because labs are incentivized to release any innovations quickly, we’ll see a broken early version of continual learning—or test-time training, or whatever you want to call it—before we see something which truly learns like a human. I expect to get lots of heads-up before this big bottleneck is totally solved.

1. Computer Use

When I interviewed Anthropic researchers Sholto Douglas and Trenton Bricken on my podcast, they said that they expect reliable computer-use agents by the end of next year. We already have computer-use agents right now, but they’re pretty bad. They’re imagining something quite different.

Their forecast is that by the end of next year, you should be able to tell an AI, “Go do my taxes.” It’ll go through all your email, your Amazon orders, and Slack messages, and it will email back and forth with every single person you need to get invoices from. It’ll compile all your receipts, decide what things actually are business expenses, ask for your approval on all the edge cases, and then just submit Form 1040 to the IRS.

I’m skeptical.

I’m not an AI researcher, so far be it from me to contradict them on technical details. But given what little I know, here’s why I’d bet against this forecast:

1. As horizon lengths increase, rollouts have to become longer. The AI needs to do 2 hours’ worth of agentic computer-use tasks before we can even see if it did it right. Not to mention, computer use requires processing images and video, which is already more compute-intensive, even if you don’t factor in the longer rollouts. This seems like it should slow down progress.

2. We don’t have a large pretraining corpus of multimodal computer-use data. I like this quote from Mechanize’s post on automating software engineering:

“For the past decade of scaling, we’ve been spoiled by the enormous amount of internet data that was freely available for us to use. This was enough to crack natural language processing, but not for getting models to become reliable, competent agents. Imagine trying to train GPT-4 on all the text data available in 1980—the data would have been nowhere near enough, even if you had the necessary compute.”

Again, I’m not at the labs. Maybe text-only training already gives you a great prior over how different UIs work and what the relationship is between different components. Maybe RL fine-tuning is so sample-efficient that you don’t need that much data. But I haven’t seen any public evidence that makes me think these models have suddenly gotten less data-hungry, especially in domains where they’re substantially less practiced. Alternatively, maybe these models are such good front-end coders that they can just generate millions of toy UIs for themselves to practice on.

3. Even algorithmic innovations which seem quite simple in retrospect took a long time to iron out. The RL procedure which DeepSeek explained in their DeepSeek-R1 paper seems simple at a high level. And yet it took 2 years from the development and launch of GPT-4 to the release of o1. Now, of course, I know that it’s insanely and hilariously arrogant to say that R1/o1 were easy—a ton of engineering, debugging, and pruning of alternative ideas was required to arrive at this solution. But that’s precisely my point.

Seeing how long it took to implement the idea of “We should train a model to solve verifiable math and coding problems” makes me think that we’re underestimating the difficulty of solving the much gnarlier problem of computer use, where you’re operating in a totally different modality with much less data.

2. Reasoning

Okay, enough cold water. I’m not going to be like one of those spoiled children on Hacker News who could be handed a golden-egg-laying goose and would still spend all their time complaining about how loud its quacks are.

Have you read the reasoning traces from o3 or Gemini 2.5? It’s actually reasoning. It’s breaking down a problem, thinking through what the user wants, reacting to its own internal monologue, and correcting itself when it notices that it’s pursuing an unproductive direction. How are we just like, “Oh yeah, of course a machine is gonna go think a bunch, come up with a bunch of ideas, and come back to me with a smart answer. That’s just what machines do”?

Part of the reason some people are too pessimistic is that they haven’t played around with the smartest models in domains where they’re the most competent. Giving Claude Code a vague spec and just sitting around for 10 minutes while it zero-shots a working application is a wild experience. How did it do that? You can talk about circuits and the training distribution and RL or whatever, but the most proximal, concise, and accurate explanation is simply that it’s powered by a baby general intelligence.

3. So what are my predictions?

At this point, part of you has to be thinking, “It’s actually working. We’re making machines that are intelligent.” My probability distributions are super wide, and I want to emphasize that I do believe in probability distributions. That means that work to prepare for a misaligned 2028 ASI still makes a ton of sense. I think this is a totally plausible outcome.

But here are the timelines at which I’d take a 50/50 bet. An AI that can do taxes end-to-end for my small business as well as a competent general manager could in a week—including chasing down all the receipts on different websites, finding the missing pieces, emailing back and forth with anyone we need to hassle for invoices, filling out the form, and sending it to the IRS—I’d say 2028. I think we’re in the GPT-2 era for computer use. But we have no pretraining corpus, and the models are optimizing for a much sparser reward over a much longer time horizon using action primitives they’re unfamiliar with. That being said, the base model is already decently smart and might have a good prior over computer-use tasks, plus there’s a lot more compute and AI researchers in the world, so it might even out.

Preparing taxes for a small business feels like, for computer use, what GPT-4 was for language. It took 4 years to get from GPT-2 to GPT-4. Just to clarify, I am not saying that we won’t have really cool computer-use demos in 2026 and 2027. GPT-3 was super cool, but it was not that practically useful. I’m saying that these models won’t be capable of end-to-end handling a week-long and quite involved project which involves computer use.

Okay, and as for the forecast of when AI will be able to learn on the job as easily, organically, seamlessly, and quickly as humans, for any white-collar work: for example, if I hired an AI video editor, after 6 months it would have as much actionable, deep understanding of my preferences, our channel, and what works for the audience as a human would. I’d say this would come in 2032.

While I don’t see an obvious way to slot continuous online learning into the kinds of models these LLMs are, 7 years is a really long time. GPT-1 had just come out this time 7 years ago. It doesn’t seem implausible to me that over the next 7 years, we’ll find some way to get these models to actually learn on the job.

At this point you might be reacting, “Wait, you made this huge fuss about continual learning being such a huge handicap. But then your prediction is that we’re 7 years away from what, at a minimum, looks like a broadly deployed intelligence explosion.” And yeah, you’re right. I am forecasting a pretty wild world within a relatively short amount of time. AGI timelines are very lognormal. It’s either this decade or bust—not really; it’s more like lower marginal probability per year, but that’s less catchy.

AI progress over the last decade has been driven by scaling training compute on the frontier systems. It’s been over 4x a year. This cannot continue beyond this decade, whether you look at chips, power, or even the raw fraction of GDP that is used on training. After 2030, AI progress has to mostly come from algorithmic progress. But even there, all the low-hanging fruit will be plucked, at least under the deep-learning paradigm. So the yearly probability of AGI collapses.

This means that if we end up on the longer side of my 50/50 bets, we might be looking at a relatively normal world up till the 2030s or even the 2040s. But in all the other worlds, even if we stay sober about the current limitations of AI, we have to expect some truly crazy outcomes.

4. Dwarkesh.com

This was originally a blog post that I published on my website at dwarkesh.com. It was obviously inspired by the discussion I had with Sholto and Trenton on my podcast, where I ended up disagreeing with them about timelines, but it took me a few weeks of thinking afterward, sorting out exactly where I disagree and why I had longer timelines. And I do this for other episodes as well. I wrote up some thoughts I had about the many thousands of pages that Stephen Kotkin has written about Stalin, which we were not able to exhaustively cover in that one 2-hour interview.