AI Engineer World's Fair 2026

The Search Engine for the Agentic Web — Will Bryk, Exa

Will Bryk· exa17:48

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The Search Engine for the Agentic Web

Will Bryk traces Exa’s path from consumer search to an agent API, explaining how reusable document representations, different latency targets, selective extraction and paid data access shape useful retrieval.

From a talk by Will Bryk

At a glance

Ideas worth remembering

  • Precomputed embeddings let document processing serve later searches, reducing repeated neural work. Bryk keeps efficient keyword matching as a complementary ingredient.

  • Match retrieval to the application: complex research may take minutes, while a voice agent benefits from a reported 200-millisecond search endpoint within a longer response sequence.

  • Selected excerpts reduce downstream model input; structured fields give applications directly usable results. Neither output format by itself guarantees complete or correct information.

  • Exa Connect expands retrieval through paid partner data, with providers setting prices and developers choosing sources alongside public-web information.

  • The thousandfold machine-search increase is Bryk’s forecast; a year of research in a second is his ambition. His account does not quantify universal completeness or the claimed advantage over Google.

When machines become the main search users

A coding agent looking up documentation and a sales agent assembling a company list both need search, but they need different results. Will Bryk opens with a forecast about how common those calls will become: he expects AI-issued searches to exceed human searches in 2026 and reach a thousand times human volume over the next few years. That is his projection, rather than a measured traffic total established here. It frames Exa’s product decision: build retrieval for software that searches while doing other work.

Bryk reports that Exa serves over five thousand companies and over four hundred thousand developers. The examples span several kinds of agent:

  • Coding: Cursor agents use Exa to retrieve technical documentation or news.
  • Go-to-market: HubSpot uses it to help users find companies to sell to.
  • Finance: Financial agents need financial data to support their work.

In each case, retrieval feeds an application’s next step. The useful search result depends on what that step requires.

Selected presentation frame from The Search Engine for the Agentic Web — Will Bryk, Exa at 90 seconds
When machines become the main search users
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Relevant words can still produce the wrong answer

Bryk’s motivation starts with the distance between available information and usable understanding. He describes a web on the order of a trillion pages: company websites, blog posts, images, tweets and much else. People cannot absorb that collection themselves. They need tools that filter or synthesize it. Google handles familiar requests, such as finding the Costco homepage, well; his objection concerns requests with conditions that matching vocabulary alone cannot satisfy.

Selected presentation frame from The Search Engine for the Agentic Web — Will Bryk, Exa at 157 seconds
The gap between relevant links and answers that satisfy constraints

An exclusion changes the meaning

His simplest example is shirts without stripes, which returns shirts with stripes. A striped shirt shares the query’s subject and vocabulary while violating its exclusion. The word without determines whether the result qualifies. Bryk uses this failure to describe mainstream search as a recommendation engine: it offers related material without necessarily returning precisely what the request permits. This example illustrates his criticism; it does not establish that every query behaves that way.

The next request asks for everyone in Singapore who works on AI search, together with any blog posts or research papers they have written. Answering it requires connecting people, location, field of work and authorship. Documents containing those words may help, but the requested result is a set of matching people linked to their work. Bryk’s hypothetical 412 matches illustrate what a complete answer would look like; they are not a reported census.

Missing results are hard to notice

A job seeker can find plausible biotech employers and still have no idea which suitable companies were omitted. Someone researching a region faces both that discovery problem and a trust problem: finding information does not make it reliable. Bryk extends the concern to finding important US news across media, where receiving a few recommendations leaves the reader uncertain about coverage.

These gaps explain his unusually large stakes for search. He imagines a dystopian San Francisco in 2035 to express the danger of powerful technology combined with people who cannot understand what is happening. He believes poor information makes manipulation, conflict and bad decisions more likely, and calls solving information the most important neglected problem. The imagined city is a warning scenario, not a demonstrated consequence of retrieval failures.

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API requests revealed the customer

The company launched its first search engine in 2022 under the name Metaphor, roughly a year and a half after starting. Bryk recalls ChatGPT arriving two weeks later. The team had been trying to build a better consumer search engine than Google, with monetization left for later. A message on Twitter asking for API access introduced a product they had not planned to sell.

At first, there was no API to offer. More requests followed, including one from Bryk’s downstairs roommate. They revealed the business opportunity: language models need a programmatic way to retrieve information. Bryk’s argument is that even a gigantic model remains small compared with the internet. Increasing model size does not remove the need to connect it to information outside its weights.

Selected presentation frame from The Search Engine for the Agentic Web — Will Bryk, Exa at 554 seconds
API demand changed the product

He contrasts a human request such as SpaceX news with an agent’s much larger appetite for information. A search engine designed around short queries and human browsing need not be optimal for software making repeated retrieval calls. An API lets the application request information as part of its own work, without a person initiating and inspecting each search.

The pivot also fit the founding goal. Bryk says agents want something like a database of the world’s information, with no need for advertisements or pages whose appeal comes from search optimization. Selling retrieval to those systems gave Exa a business model for the search engine it already wanted to build. Over the following years, the system became more complex than embedding search alone; this account does not specify all of its components.

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Choose depth, latency and output for the next step

Research can take minutes; conversation cannot

Bryk’s present-day research example asks for every YC-funded startup working in AI, including its batch and status. He says Exa can assemble complex lists of companies, people, blog posts or news articles, though the work may take minutes. Such a request needs both matching entities and information about each one. The example describes the capability he offers, without measuring whether every qualifying startup is found.

Selected presentation frame from The Search Engine for the Agentic Web — Will Bryk, Exa at 668 seconds
Choose latency, depth and output for the task

At the other end of the latency spectrum, he describes a 200-millisecond search endpoint. A voice agent explains why this matters: search must finish before the language model processes the retrieved information and the system produces reply audio. Every delay in retrieval adds to the user’s wait. The endpoint figure concerns search, not the entire voice response, and Bryk’s claim that it is the fastest search API comes without a comparative benchmark.

Send the model what it needs

Retrieval also determines how much text the downstream model must consume. Bryk describes selecting roughly a hundred important tokens from ten documents instead of passing along all their content. This can reduce downstream LLM costs by shrinking the input before model processing. He does not specify whether the token quantity applies to the set or each document, or quantify the savings. Selection is useful only insofar as it retains the evidence the task needs.

Structured output serves a different next step. A recruiting agent might look for engineers who recently left a major lab and request each person’s most-cited paper, college and graduation year. Returning those fields gives the application a result it can consume directly, rather than excerpts it must interpret first. Bryk explains the requested shape, but leaves handling of unavailable or conflicting fields unspecified.

Let the customer define useful search

These differences explain Bryk’s description of five thousand search engines for five thousand customers. He is emphasizing customization, with controls over several independent choices:

  • Speed and depth: Prefer a fast response, or accept minutes for the highest possible quality.
  • Source scope: Search only a chosen set of a thousand domains, or exclude a set of a thousand domains.
  • Time window: Restrict results to the period the task requires.
  • Page type: Exclude product pages when they do not belong in the desired result.

The customer specifies what information is useful and which tradeoffs fit the application.

Bryk attributes Exa’s quality to years of research into search for agents and claims it performs better than Google for that use. No evaluation method or results establish the scope of that advantage here. The concrete design lesson is narrower and useful: query complexity, latency, source restrictions and output format all affect whether retrieval helps the application.

How it fits togetherSearch occupies one part of a voice reply

The agent needs information to answer.

The reported 200-millisecond endpoint covers retrieval. Model processing and audio output follow it.

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Paid data access, then a larger ambition for information

Exa Connect brings providers into retrieval

An agent’s question may require information that public-web search cannot supply. Exa Connect lets data providers partner with Exa so developers can obtain their data for agents. Providers decide what their content is worth; developers choose which data they want and pay for access. The marketplace gives providers a way to earn money from agent use and developers a way to reach additional information sources.

Bryk’s example combines public information about companies with monthly website visitor information from Similarweb that he describes as nonpublic. One research request can draw on both kinds of source. This explains the purpose of the marketplace, while leaving its authentication, billing granularity and treatment of conflicting information open.

A year of research in a second

The future target joins depth and speed: any information query should work, however complex, and feel as though someone had spent a year researching it before returning the result in a second. That is Bryk’s ambition. The current capabilities he describes still involve choices between research that may take minutes and a fast search endpoint. He also says the team now makes as much progress in one or two quarters as in its first five years, without defining a measurement for that comparison.

Bryk connects that ambition to people gaining a deeper understanding of events, including his hope that better information access will help people stay informed ahead of the 2028 presidential election. He encourages others to work on the problem as essential infrastructure. The intended social benefit extends beyond the retrieval capabilities demonstrated in his examples.

He then returns to the thousandfold search forecast and supplies its proposed driver. Humans initiate searches a few times a day, in his account; assistants and AI features throughout software could ground ordinary interactions in retrieval. A user would not have to explicitly ask for every search. Applications would issue them while working, multiplying query volume and making retrieval quality matter across many more decisions. That adoption pattern motivates the forecast; it does not establish its eventual magnitude.

The ending returns to coordination. Bryk sees increasingly capable technology alongside failures to make sensible decisions together, using San Francisco as his example. He believes the information people consume affects their ability to coordinate, and treats better search as his contribution to improving that information. Retrieval alone does not demonstrate a solution to coordination, but the connection explains the company’s ambition: help people understand enough to act together.

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Resources

  • Speaker background and posts about Exa; useful context separate from the recording’s claims.

Read the complete timestamped transcript
  1. 0:12

    How's everybody doing? Good. Ooh.

  2. 0:15

    Whoo.

  3. 0:15

    All right. Pretty crazy times we live in. Ooh, my microphone's here. Um, okay, I am very excited to tell you all about perfect search built for AI agents. Uh, and I'm gonna say a lot of crazy things in this talk, so bear with me. Uh, they are all true. And I will tell you what is Exa, uh, the story of Exa, so how we got here, and then where we're going. Okay, cool. If you take away anything from this talk, it is this, uh, slide. Uh, this is showing web searches per day over the past

  4. 0:45

    thirty years, uh, from humans and AIs. Obviously, it was all humans until around, uh, twenty twenties, and now we're in twenty twenty six, and actually this year, well, we expect the number of searches from AI systems to exceed that of humans. Pretty crazy. And then in the next few years, it should be a thousand times more. So AIs, AI systems, AI products, whatever AI system you use, some together will, will search a thousand times more than humans. That's pretty, uh, pretty crazy world that, that we're getting into, and the entire ecosystem of

  5. 1:15

    search is changing because of it. So Exa is the search engine for AI agents. You know, we're the first ones to be like-- the-- we're the first search engine for AI, and now things are getting, uh, kind of wild. Uh, we now serve over five thousand companies, over four hundred thousand developers. I see some customers in the audience. Uh, we serve, you know, a very diverse set of agents from coding agents like Cursor. If you, if you use Cursor, at some point, the Cursor agent decides to search for the latest technical documentation or the news, it'll be using Exa under the hood. We serve go-to-market agents like

  6. 1:45

    HubSpot, so, uh, we help, uh, their users get, you know, really high-quality lists of companies to sell to. We serve all sorts of financial agents. Uh, I was in New York a few weeks ago, and pretty much everyone there is now building financial agents, and they need the best financial data. Um, yeah, and really just a, a huge diversity of agents from, uh, from labs to, to, to YC startups. Okay. But how'd we get here? So what's the why of Exa? To me, that's always been the most important. And there are a lot of ways to say the problem, but, uh, the short way is just misinformed

  7. 2:14

    anarchy. This is what we're trying to avoid. We wanna create the opposite of this. Uh, so what, what does this mean? Well, this is the Internet, or it's a visual depiction of the Internet. You know, you've got a bunch of pages, you got blog posts, you got company websites, you got images, you got tweets, you got all sorts of things. Uh, and the Web is really, really big, right? This is showing a few thousand pages. The Web is, you know, on the order of a trillion pages, so, uh, you know, a million times bigger than this. And it contains a huge amount of the world's information. Uh, and that means that, you

  8. 2:44

    know, if this is just readily available, you could fi-- if you could go to any link and just get all the world's information, then I'm sure we all walk around with, like, deep understanding of everything, right? Obviously not. Uh, it's messy. Uh, and so, uh, and it's crazy, and it can't fit in our heads. So we need information tools that could help synthesize this or filter it into the, the things you need to know. And, you know, w-we have a tool called Google, and it, it's a pretty solid tool. It, it could get you things like the Costco homepage or information about Taylor Swift or whatever you wanna search. But it's not perfect, right? And I love this example where you

  9. 3:14

    type shirts without stripes, uh, and if you notice, you get shirts with stripes. Why is it doing that? Well, it's not, it's not trying to be a database of the world's information that gives you exactly what you want. It's kind of like a recommendation engine. Um, and, and, and you can see this with more examples. Um, so find, find me everyone in Singapore who works on AI search and any blog post or research paper they've written. I bet you've never typed in anything like this to Google because you know it's not gonna work, right? You're gonna get, like, uh, links and documents that, uh, contain some of those words, but not, like, actually a database result of all, you know, four hundred and

  10. 3:44

    twelve people who match. A-a-and it gets pretty serious, right? Like, I'm a citizen. I'm trying to be informed about what's going on in the world. I wanna find the most important US news across all media or, you know, US news articles, whatever it is. You, you just don't trust Google to give you that, right? It's just gonna get-- It's, it's just gonna recommend some things. It's, it's almost akin to, like, social media in the sense. It's, it's kind of like a recommendation engine. Okay. So that means that no one really has a complete understanding of anything. I, I actually-- When I walk around, like, SF or wherever I'm walking around and I see people, I often think, like,

  11. 4:15

    "No one knows what's going on in the world." Everyone's like this, uh, including myself. You know, uh, you can imagine, uh, this person, uh, on the right on their phone, like, trying to find a new job. They're looking for biotech companies to work for. Uh, are they gonna get, like, all the possible biotech companies that match? No. Uh, so there, there, there, there's always gonna be, like, this unknown of what's out there. Or, uh, you know, maybe this other person with the headphones, uh, maybe they're trying to-- Yeah, try-- they wanna understand what's going on, uh, in, in, in, in, in, in some region of the world. They're just not gonna have a deep understanding. They, they can't-- Not only can they not find the information, th-they might not be able to trust the

  12. 4:44

    information. So we basically are in a world where we live without this, like, key information infrastructure that is so critical. And I think this is extremely important, so important that if we don't fix this problem, I believe we get a world that looks like this, a dystopia. I'm not kidding. Uh, this is AI-generated, uh, version of San Francisco in twenty thirty-five. Um, and it's basically a world where no one, no person really understands what's going on. If people don't understand what's going on, then as we have this crazy AI technology that we all are talking about today that's coming, and the world is getting way more powerful,

  13. 5:14

    there's gonna be conflict and all these things. If, if people don't know what's going on in the world, this is very bad. Like, we will be manipulated. We will make really bad decisions, b- as individuals and as a society. And I think this-- I-if, you know, if we could fix this problem, it'll be way better. Um, and when I think about all the possible problems that there are that are really important and neglected, to me, like, solving information is the most important and neglected problem. Okay, so that's the why of Exa. Uh, quick story of how we got here. So I, I, I've been thinking about this problem for a very long time, way before even twenty twenty-one when we started, uh, even since high school.

  14. 5:44

    Uh, but I think what was really cool, uh, is that in twenty twenty-one, it suddenly became possible in our eyes to build a new type of search engine because transformers had gotten really good. So this is a time when, like, GPT-3 had recently come out. GPT-3 was, like, magical. You know, you type in a, a paragraph of text, and it fully understands you. At the same time, you know, as we saw with Google, it's like it doesn't fully understand you. And so what if you could combine, uh, the power of GPT-3 with a search engine? And maybe you could have perfect search over the world's information. And actually, the thought experiment that always drove me was like, you know, if we take a query, a complex

  15. 6:14

    query and a document, and we run GPT-3 over it and we say, "Does this match?" It'll be a-- It'll do a really good job of saying, "Does it match?" Now, do that over a trillion documents for every search, and you get a perfect search engine or near perfect. Uh, the problem is that would cost like ten million dollars per search. So it really becomes an interesting optimization problem. How do you like billion X or trillion X reduce the cost of that? So that's kinda like the ideas that started Exa. This is actually the first day of Exa, twenty twenty-one. It's, it's actually, by the way, our, our five-year anniversary as of, uh, as of, as of yesterday. So, um, yeah, been a great time. Um, yeah. I wish I took a better selfie here,

  16. 6:44

    but this was the first, first day. Um, and, and, uh, it-- Exa was basically built on the idea that, look, like, uh, traditional search engines, they use keywords. Keywords are, are, are very efficient and, a-a-and they get you-- they can handle simple queries. But if you wanna handle more complex queries, you just need to, to, to use neural networks. A-a-and particularly embeddings are a way of like encoding. You can't run a, like I said, like a neural network over every document, uh, for every query, but you can pre-process every document into some sort of structure like an embedding. Uh, and then

  17. 7:14

    you could use-- and then that, that captures a lot of the intelligence of a neural network, and then you can use those embeddings. Of course, embeddings have also their own problems, and often you wanna combine embeddings and keywords, but certainly embeddings are a big part of, of the picture. And that's how you can handle shirts without stripes. We can handle this kind of query. Uh, another way of saying it is just stack more layers. Um, very bitter lesson pill. This is-- We are very early on to being a bitter lesson pilled. I don't know if you know this meme. If you don't, it probably looks really weird. Okay. Um, but anyway, so we were very bitter lesson pilled, so we did some crazy things, right? We, we, you know, raised a couple million dollars. We spent half of it on a GPU cluster. That

  18. 7:44

    was crazy at the time. Um, we did a huge amount of research for, for, for really years, just heads down. And, and we did a lot of-- We were very new to search, to be honest. Like, we're just really obsessed with the problem, and so we invented a lot of new stuff that I still haven't seen, uh, uh, even today. Um, and so just, uh, yeah, history of Exa. So twenty twenty-two, so this is like a year and a half after starting, uh, we la-- we were called Metaphor at the time. Um, some of you might know it. Uh, we launched our first, uh, search engine to, to the world, um, a-and it was pretty exciting. Like, it was a new way of doing search. A lot of people were really

  19. 8:14

    excited about it. The next big thing that happened two weeks later was ChatGPT came out, uh, and that really changed the world. Uh, and like this is what San Francisco looked like at the time, if you remember. Um, and this is the Exa team at the time. Uh, all right. Um, but, uh, everything was saved when we got this, uh, this, this message, message on, on Twitter from this person, whatever, uh, who wanted API access to our search engine. And that was really weird because we were never thinking that, oh, this is gonna be an API. We were just trying to build a better search engine than Google. We'll

  20. 8:44

    figure out how to make money later. Uh, then someone asked us for an API. We were like, "No, we don't have an API, sorry." Uh, but then, like we started getting, uh, re- more requests for API access, including, uh, you know, my roommate, uh, who lived downstairs. And then we very quickly realized, wait a sec, like there's a business model. Like, okay, what we realized was AIs need search because like the, the argument is basically, look, even GB5, gigantic model, it's tiny in comparison to the internet, right? So like these systems always need to search. You're never gonna have GB6, GB7. It's not gonna be able to like just know everything

  21. 9:14

    about the world. It needs to be connected to a retrieval engine. Uh, and, and that was a really interesting insight because th-these things now need a search API, uh, right? And so we pretty quickly realized, okay, wait, AI is gonna search the web. In fact, they're gonna search the web way more than humans. Um, and they're gonna search in very different ways. Um, so, uh, this is example of what humans, uh, this, this looks like when humans search, right? They search simple queries. This is what Google was made for, like SpaceX news. It's good at that. Um, but an AI system is very different, right? It kinda looks like this information

  22. 9:44

    guzzler creature that's like insane and, and like it would be crazy if the same search engine that was optimal for humans was also optimal for these AI systems. So anyway, uh, a-a you know, we realized, okay, uh, if we build a search, uh, API for these AI agents, uh, or it wasn't called AI agents at the time, it was just AIs for LLMs, uh, then, uh, that will-- we can make money from that. Uh, that's a nice business model, and we think it's gonna grow really fast. Uh, and also the beautiful thing is it matches our initial-- our, our mission, which is perfect search, right? Like AI systems really

  23. 10:13

    want perfect search. They don't want SEO. Uh, they don't want ads. They just want almost like a database of the world's information, which is what we were always trying to build. So we built the first search for LLMs, and yeah. Actually, like in twenty twenty-three, we said soon AIs will search more than humans. Uh, you know, uh, three years later, it's now happening. Um, okay. Yeah, and so then the next couple of years, we, we built a lot of really crazy stuff. Uh, it's way more complex than just embedding search. It combines all sorts of systems, some of which are included here. And now, you know, we're a much bigger team.

  24. 10:44

    Um, and that's how we got here. Okay, cool. So just, uh, quick like what can you do with Exa? And then I'll talk about where, where we're going, how we're gonna get the perfect search. So the present. So right now, yeah, we're the highest quality information f-for AI agents, um, and you could do all sorts of things. So for example, uh, a lot of people like really complex queries. Uh, so you wanna find every startup funded by YC work in AI, give me their batch and status. You could do that with Exa now. Uh, and you could make this like arbitrarily complex. Like a lot of people don't-- aren't aware of this, but you, you could just use Exa

  25. 11:14

    a-and just find r-really like any, uh, list of companies, people, uh, like, like blog posts, news articles that you want. Uh, it will take some time. So it'll take, you know, maybe not seconds, it might take minutes, but you'll get the information you want. At the same time, we also have the fastest search API in the world. So we have a two hundred millisecond search endpoint, and that's what it feels like. So it's super fast. It's way too fast for humans, right? But we're not serving humans. Uh, we're serving AI systems. And so, like for example, we, we serve some voice agents. And, uh, if you're a voice agent and you talk to the voice agent and

  26. 11:44

    it wants to do a search underneath the hood, uh, you know, every millisecond counts. You want it to do a search really fast so that it could go, you know, process it with an LLM and then output the best, uh, audio back to the customer. We also have cool things like, uh, super efficient token extraction. So everyone's talking about, uh, the compute crunch and how everyone's spending way too much, uh, on LLMs. Well, actually, Exa could help there, uh, because, you know, when the LLM makes a query, it wants to get the-- just the information it needs, just the tokens it needs. And so we take, uh, the documents.

  27. 12:14

    We give you ten documents, and then we'll give you only the most important, like hundred tokens from those documents. And that will save you a lot of downstream LLM costs.

  28. 12:22

    We also ha- you know, some people, they don't necessarily want s- uh, you know, snippets from each document. They actually want structured output. So, hey, uh, you know, like, let's say you're, you're building a recruiting AI agent and you wanna find, you know, all the engineers who recently left their, uh, big lab job. Give me like, uh, you know, uh, the, the most cited, uh, uh, p- paper that they've written. Give me the, the college they went to and, and the year they graduated, and we'll just give you that as structured output. It makes it really easy. And yeah, I think, uh, one takeaway here is we're not building one search engine. Like, perfect search is not one

  29. 12:52

    thing. It's actually we have five thousand search engines for each of our five thousand customers, right? Uh, we wanna build our system so it's super flexible because we want every business to be super optimized. And that's, I think, a beautiful thing because, like, we don't wanna declare what is the perfect search. We want you to almost, uh, you know, tell us what exactly do you want. Do you want super fast? Do you want, uh, you know, the highest possible quality even though it takes minutes? Do you wanna search only over these thousand domains? Do you wanna never search over those thousand domains? Do you wanna search over-- w-within this time window? Do you wanna never get product pages? Some people ask us for that. Like, so there's all sorts of

  30. 13:22

    things that you could do, uh, with Exa. It's very flexible, customizable.

  31. 13:27

    And yeah, I mean, our, our search quality, uh, i-is really good, uh, for these AI agents because we've spent years, you know, doing research, uh, into how do you build a new type of search engine for agents. Uh, it's even better than Google, which was built for humans, which, which makes sense.

  32. 13:40

    Okay. A, a cool thing that we released recently, uh, was Exa Connect. Uh, so, you know, agents, they don't really care whether the information is from the public web or from private data sources. They just want the truth, right? And so it's always been obvious to us that, you know, we wanna assemble all the world's information. It's perfect search over all the world's information, not just the web. And so now we have a system where, uh, data providers can actually, uh, partner with Exa so that developers can then get the data from those providers. So we're, we're basically creating like a new market, uh, a new economy, uh, for the-- for agents,

  33. 14:11

    uh, where, you know, if you have high valuable data, you could get paid, uh, from all the developers who want their agents to access that data. So we're creating this beautiful marketplace. I think it's really cool. It's like a, it's like a free market. Like, the, the, uh, the, the data providers can decide how much they think their content is worth, and then developers can decide what data they want.

  34. 14:30

    And then you could do cool things like this. Uh, research AI info companies, monthly website visitors, Similarweb. Oh, I guess it went too fast. But you could get-- Like, basically, this is combining, uh, information from the public web and also information from Similarweb, uh, which is not publicly available. So you could do queries like that right now. Okay. So that's, uh, where Exa is right now. But the future has always been super exciting to me and, and the goal has always been perfect information, and n-now we know it's for AI agents. So instead of a world like this-- No, bad.

  35. 15:00

    Uh, we want the-- We want search to kind of feel like this. It's actually really hard to, to describe what perfect information feels like. Uh, best way you could say is, like, literally any information query you have, it just works no matter how complex that is. Um, another way you could think about it is, like, it's as if you did a year of research in a second. So imagine no matter what you're looking for, whether it's people or, or companies or news, imagine you did-- you spent a whole year. You spent all of twenty twenty-six just doing research for it. You get that in a second. That, that should give you a sense of what perfect, uh, information feels like, and

  36. 15:30

    you do that for every search, all the, you know, crazy number of searches that AI agents are gonna make. And so, yeah, we wanna move really fast at Exa. Like, we're, we're moving extremely-- Like, basically every-- Like, basically a quarter or two quarters now, we have as much progress as we did the past five years, and it keeps being like that. It's exponential growth. And so, yeah, our ambitions for twenty twenty-seven are pretty crazy. Uh, we want, uh, the world to be like this, where everyone walks around with, like, deep understanding of what's going on. I think it's particularly important because, you know, things like the twenty twenty-eight presidential election are coming out, are, are coming soon, and I would love for,

  37. 16:00

    you know, the entire world to have access to near perfect information so that everyone is very informed going into that election. You, you kind of can feel the gravity o-o-o-o-of what we're doing here of, of, of perfect information. I encourage others to try to do it too. Um, it's very important for the world. It's like key information. Uh, it's key infrastructure. And yeah, you have to-- Like, that, that slide I showed at the beginning, it's not the whole picture, right? If you play it out, we're talking a thousand times more searches from AI systems than humans. This-- You can't even capture that on a graph. Like, this is not-- That's like twenty times. A thousand times would be all the way up there. It's like the top

  38. 16:30

    of a building or something, right? So it, it's crazy w-what's coming and it's, it's really happening. Um, basically, like, you know, humans on average search a few times a day on Google. But when everyone has, you know, AI assistants and every software product you use has AIs in it, every interaction you're doing is gonna be grounding itself in, in search. So it's gonna be a huge number of searches. And if each of those searches are, you know, as, as true as possible, as near perfect, uh, then, then, then the world looks like this in twenty thirty-five.

  39. 16:58

    Um, a-a-and yeah, I, I do think that if w-- I, I do think we're-- basically our, our future is limited by ourselves. Like, we're basically getting to a world where our technology is so good, it's really just a matter of, like, can we coordinate and just decide together that, like, on sensible things, right? Like, if you look at San Francisco, there's amazing things happening here, and there's really stupid things happening here at the same time. Like, that's, that's just coordination problems, and, and coordination comes from the information we consume. Uh, so that's what we're working on. You all have a role to play i-in also getting to this world. Uh, so thank you all for, for, for working on whatever passion you're working

  40. 17:27

    on, and thanks for listening to me. All right. Thank you.