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AI Engineer Europe 2026

Stop babysitting your agents: building a context engine for mergeable code

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Stop babysitting your agents: context for mergeable code

A coding agent can pass its checks and still miss how your company works. Brandon Waselnuk shows how organizational context can guide research, implementation and review.

From a talk by Brandon Waselnuk

Before you start: Familiarity with coding agents, pull requests and MCP as a way to connect agents to tools will help you follow the examples.

A brilliant engineer on their first day

Type claude in a terminal and a capable software engineer appears—one that knows nothing about your organization. It does not know which services already exist, which architectural decisions still apply, or why the team rejected the obvious implementation last month. Supplying that knowledge becomes your job. This is the babysitting problem Brandon Waselnuk of Unblocked wants to remove.

His approach comes from building a context engine: a system that gathers and interprets organizational knowledge for agents. Alongside three failed assumptions and three implementation lessons, he introduces a workshop repository intended to provide one reusable component of that engine. It is a component, not a complete replacement for the system.

Before agents, engineers performed this work for themselves. On your first day, you might have strong technical skills but little local knowledge. Team interactions, rejected PRs and practical experience gradually teach you what works here. Becoming effective means learning to ask good questions, gather accurate context and discard information that does not help. With agents, the human often still performs that filtering, then translates the result into instructions for another worker.

Slide listing mentorship, planning and code reviews, architecture decisions, incidents, experiments, and PRs, ending with asking good questions and gathering accurate context.
How engineers accumulate context at work.
0:160:24
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0:16 · section reference included

From curated files to runtime research

The adoption ladder Waselnuk attributes to Basim Eldes starts with autocomplete and agentic IDEs, where a human initiates and guides the work. A next step is curated context: CLAUDE.md, AGENTS.md and repositories of corporate knowledge that agents can read. These files make useful instructions reusable, but someone must maintain them. They also leave out information engineers need from live systems.

A context engine extends that curated layer. When an engineer asks how to implement a feature, it retrieves information across SaaS applications and systems of record, incorporates runtime signals, and reasons across those sources. Its job is to investigate broadly enough to find the important constraints, then return a small response containing what the agent needs for its next decisions.

Eight ascending steps from tab completion and agent IDE through context engineering, parallel agents, MCP and skills, harness engineering, background agents, and agent teams.
From tab completion to agent teams: levels of AI maturity.

For a new integration, that response might explain the organization's factory pattern and other implementation conventions before the coding agent begins exploring. The agent can then send background workers to inspect relevant parts of the repository instead of asking them to discover the architecture from scratch. Waselnuk expects that ordering to improve accuracy, reduce token use and shorten the work. He frames the gap, with an attribution to Karpathy, as missing context rather than missing intelligence.

2:072:22
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Use relationships to find and interpret evidence

A context engine needs to understand who is asking. For the Zendesk request, the useful starting points include the engineer's repositories, PR history and collaborators. A social graph provides those connections, allowing the engine to narrow the meaning of a request before searching. Waselnuk reports customers with twenty thousand members, where an identical request can refer to very different work depending on the person asking it.

Relationships also help interpret contradictory evidence. Suppose code on main implements one behavior, but a Slack conversation contains the CTO's statement that the implementation is wrong. Treating the code as the sole source of truth would conceal the intended correction. Treating the message as a replacement for the code would conceal what actually runs.

The engine should return the source code together with the correction and its attribution. The CTO's role is an authority signal that helps explain why the disagreement matters; it is not proof that a message is infallible. Waselnuk describes this as reasoning about truth across sources, and explicitly says the problem is not fully solved.

8:198:30
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Deliver useful context without widening access

Permission enforcement belongs inside this retrieval process. Waselnuk describes carrying the OAuth identity model through MCP so that the requesting user's access governs what the engine returns. He says these restrictions typically become important once a company has twenty or more people. Ingesting Slack or Microsoft Teams conversations must not make everyone's private conversations available to everyone else: his example allows answers from a user's own private chats while excluding chats they cannot access.

That is a design requirement, not something an MCP connection establishes automatically. Current Data Shield documentation describes permission enforcement configured per source: Slack enforcement is always enabled, other supported sources require configuration, and some sources do not support it. The requesting identity and each source's enforcement settings therefore matter to the promised boundary.

The engine ingests organizational sources and serves multiple interfaces. Human engineers can ask questions in Slack; coding agents can request the same kind of guidance through a tool. Background and cloud agents especially need questions answered by a machine, otherwise an overnight run may produce a request for permission rather than a PR. That makes context delivery part of the agent's operating environment, not just an optional document attached to its first prompt.

Waselnuk groups the engine's requirements into six capabilities:

CapabilityPurpose
Unified system contextReason across systems of record
Targeted retrievalFind the information needed for this task
Conflict resolutionInterpret contradictory evidence
Data governanceEnforce the requester's access
Personalized relevanceUse identity and working relationships
Token optimizationReturn concise, useful context

Token optimization has two parts. The agent avoids repeatedly discovering the same organizational patterns, and the engine compresses its cross-source investigation into the information the agent actually needs. The small response is the result of the research, not a substitute for doing it.

Two-column slide listing unified system context, targeted retrieval, token optimization, conflict resolution, data governance, and personalized relevance.
Six requirements for a context engine.
9:379:48
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What changed in the reviewed code

Returning to the task comparison, Waselnuk says Claude generated the comparison, including its charts and numbers. The useful evidence in his account is the engineering behavior: both runs received the same prompt, but one had all the required direct MCP connections while the other had only the context engine.

Review concernDirect MCP accessContext-engine run
Existing fallback behaviorMissed the Bedrock fallbackNo corresponding failure reported
Existing callersBroke custom callersNo corresponding failure reported
Senior reviewImplementation judged unmergeableAccepted subject to a nitpick

Waselnuk associates the first result with prototype-like agent work: mocks and locally plausible changes that fail to preserve how the surrounding system operates. The assisted PR, he reports, required only a small correction before the reviewer would accept it.

This remains a speaker-reported task comparison. A later Unblocked account identifies the change as adaptive thinking across three Kotlin SDK modules, but reports compilation failures where the talk describes an output that compiled. The vendor accounts also differ in their token wording. Those discrepancies prevent a clean numerical comparison; the concrete fallback and caller failures explain the lesson without treating the generated charts as a general benchmark.

11:4711:56
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Three assumptions that failed in the engine

Access would become understanding. Unblocked initially expected the model to handle interpretation once it could reach the data. Waselnuk says that expectation did not resolve the problem over years of development. Referencing contemporary cloud-agent launches and the morning's conference discussion, he argues that context must enter the agent harness deliberately.

Conflicts could stay hidden. Early versions allowed the agent to choose when sources disagreed. Hiding the disagreement removed information needed to judge the choice. The lesson was to surface and address conflicts, rather than letting a polished answer conceal incompatible evidence.

A good answer was safe to cache. Positive feedback made answer caching attractive as a latency optimization. But a correct answer describes a system at a particular point in time. If the system changes, returning yesterday's answer to today's identical question can be wrong. Waselnuk uses changes within twenty-four hours to illustrate that risk and recommends against this answer-caching approach, while acknowledging that some questions do have stable answers. Preserving reusable context and reusing a finished answer are different freshness problems.

12:3812:45
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One context engine, several workflows

The same question-answering capability can support people outside engineering. Waselnuk describes deploying the engine in customers' ask-engineering channels, where it detects questions, scores confidence and responds automatically. A support or sales colleague asking what is running in production needs much of the same evidence an agent would need. Other applications include ticket enrichment, triage, incident management and coding assistance.

Teams customize these applications by forking a cookbook of skills and incorporating their standard operating procedures. They can build workflows as skills or through other mechanisms, and let custom agents consult the same engine. The shared capability is organizational understanding; the workflow determines how to apply it. Waselnuk's desired outcome is code that feels as though it came from someone who has worked on the team for years.

13:4013:53
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Constructing and using an expert graph

The closing demonstration begins with the workshop's social-graph component. It was still closed source during the presentation, although workshop teams had used it to ship code. The corresponding Social Graph Builder repository was subsequently announced as open source in an April 17 post; the release promises made onstage should be read as plans at that time.

The tool constructs a graph of the engineering organization, with people represented as nodes and working relationships as edges. Waselnuk points to Rasheen's large node as an indication of how much he ships. Selecting a person exposes collaborators, whose code they review and the areas where they work. The graph is generated algorithmically, with labeling that uses an Anthropic API key.

The graph becomes useful when a query is underspecified. Identify Rasheen, follow his collaboration relationships, then narrow attention to the codebases he works in. A vague request to fix a bug now has a more useful search scope. Waselnuk presents finding the right bug as a likely benefit of that traversal, not as a demonstrated diagnosis in this example. The graph supplies evidence for where to investigate; the engine still has to reason through the request.

Pointing the tool at a repository constructs expertise information across libraries, services and other areas of the business. The demo also exposes a heat-map grid for authorship and review relationships, plus peer tables for inspecting whom someone such as Andre works with. These views make the relationships available for inspection as well as for use by the context engine.

15:0215:12
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Research first, then explore and plan

In the final demo, Waselnuk switches to Ghostty and asks how to build a new first-class Zendesk integration. He explicitly tells the agent to use Unblocked's MCP so the demo will take that path. The request can be expressed at the CLI without prescribing repository changes in advance:

bash

claude 'Use the Unblocked MCP to research how to add a new first-class Zendesk integration. Then inspect the relevant code and write an implementation plan.'

The important instruction is to research the organization's implementation before planning the change.

The agent selects the historical research_task tool, constructs a query from its MCP interface and requests high reasoning effort. The April 24 changelog records the later replacement of that tool with context_research; the recording shows the earlier interface. Once the research packet returns, the agent launches its explore agents. They now have guidance about where to look.

The resulting plan covers provider registration, the factory pattern, library modules and the client. The terminal's final planning view also shows proposed module changes and verification steps. Waselnuk considers the plan largely correct, but expects a couple more prompts to refine it. This is a planning result, not a demonstration of an implemented and verified Zendesk integration.

Terminal displaying tables of integration files and new modules, reference implementations, a verification checklist, and choices for proceeding with the plan.
The Zendesk integration plan ends with module changes and verification steps.

The MCP remains available while the agent executes. Waselnuk's recommended development sequence is therefore:

  1. Plan with context. Research the organization's patterns and constraints before deciding what to change.
  2. Execute with access to further research. Let the agent return to the engine as new questions arise.
  3. Review with context again. Use the engine to assess the change against organizational knowledge, alongside the code review itself.

The engine's role continues beyond the initial prompt: it supports the decisions that turn a plausible implementation into a change the team can accept.

17:1217:23
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Resources

Updates since the talk

Read the complete timestamped transcript
  1. 0:00

    [upbeat music] Hello, everybody.

  2. 0:16

    It's good to see you. I'm Brandon. I work at Unblocked. It's a great place. Uh, and my goal is to make it so that you don't have to babysit your agents anymore.

  3. 0:24

    Um, I'm sure we all have a different take on what that means. What I think of is care and feeding. Basically, agents, whenever you spawn it by typing Claude in your CLI, let's assume, whatever tool you may use, they exist, and it's like a brilliant software engineer has just spawned, and it knows nothing about what it needs

  4. 0:39

    to do, and knows nothing about your org. It's completely zero context in its head. So typically what happens is people have to move through building that context, which we'll go through in the beginning.

  5. 0:50

    But first, what I'm gonna cover today pretty quickly is three myths about how you can stop babysitting your, uh, your agents, and then three lessons that we learned the hard way building a context engine at Unblocked.

  6. 1:01

    So our product basically provides this context for agents, and we'll tell you a bit about how we built that, techniques to care about, and I'll show you a repo we actually constructed at our workshop yesterday that will be open source at the end of the week, uh, which has one component of what's in a context engine, which

  7. 1:16

    you can lift for yourself and bring into your org if you'd like.

  8. 1:19

    So not long ago, you were the context engine. If you think about that when you're writing code, you thought about everything. You knew everything. You figured it all out.

  9. 1:28

    You were dealing with that. And now what's weird is you're in a weird state where you are actually the context engine for your agents. So a useful way to think about this is: how did you build context when you showed up at a company?

  10. 1:39

    So day one, you had probably nothing, but you were really smart. You finished school. I don't know, maybe some self-learning. Then over time, you accumulate context by doing stuff at work, meeting market, meeting your team, being like, "Here's a PR," getting it rejected, all these good things built up a lot of your capabilities.

  11. 1:56

    And then finally, you became very good at your job because you asked good questions, and you knew how to gather accurate context and shred stuff that wasn't helpful for you.

  12. 2:07

    This is where we're at right now. Most people here, if you look at the bottom, is in the you-are-the-context-engine stage because you're either dealing with the early phases of AI, which was just fancy autocomplete, or you're in an agentic IDE where you're triggering every job.

  13. 2:22

    What we see with all these businesses that work with us in their AI adoption is it's usually at a varying level of this. This has been adapted from Basim Eldes' work.

  14. 2:30

    Um, if you check him out later, great engineer. But basically, this is the type of ladder that we're dreaming for, and far on the side is, like, a dreamy future that maybe Codex figured out, I think.

  15. 2:40

    I didn't see Ryan's talk, unfortunately. But everyone else is kind of trying to get there. In order to move through this, you want to get to the curated context layer.

  16. 2:49

    That is typically what a lot of teams are doing by creating static repos. So static stores of a bunch of context that says key things about their company. These can include, of course, Claude MD files, AGENTS.md, that-- those types of tooling.

  17. 3:01

    But usually, people start to put a bunch of other key corporate context into an area that agents can access to pull data from. The issue with that is those are static content pieces, of course, so someone has to maintain and up them or, sorry, update them.

  18. 3:14

    As well as they don't have, uh, the availability of, you know, actual raw runtime data. There's just a bunch of information that engineers obviously need that don't go into these static layers that you're starting to see, which typically look like a file system.

  19. 3:26

    Wow. Context engine. What this needs to do is basically have all that static content, of course, but also be able to, at runtime, when a query comes through from the software engineer, typically, "How do I implement this feature?"

  20. 3:39

    At runtime, it's able to pull all that static source across your entire corporate knowledge corpus, essentially, whether it's any many SaaS apps, different systems or records, and pull in the runtime singles in order to analyze, reason across all those surfaces, all those different data stores, and then run exhaustively to actually find all of the things that are

  21. 3:59

    important and then send a token-optimized, AKA small, response to the agent with all the details it needs to then execute its next steps. So you'll see through this, but typically that means getting the best context up front makes all agent choices and actions after that even better.

  22. 4:17

    So if you give it, for example, a key research packet of like, "Hey, I want to do a new integration," and it-- you drop a packet so that it creates a good plan and that information says, "Here's our patterns.

  23. 4:27

    We use factory pattern. We do these things," like all the things about your organization, it's then able to trigger its background agent jobs to go grep your code base to do the things it needs to with higher accuracy, which means it's more token efficient and it gets the job done faster.

  24. 4:42

    This is the problem from our, our friend Karparthi. The gap is not intelligence at this point [chuckles], it is context.

  25. 4:49

    Though mythos sounds pretty cool. Um, so the problem is people think that access is the answer, but it is not understanding. So providing your agent tools with MCPs, with pipes to different sets allows it to access that.

  26. 5:04

    But you have to remember, you day one when you showed up at work, you don't know where things are, and you definitely don't know what you don't know. So there's probably some service over there you've never heard of before in your life.

  27. 5:16

    You're working on a thing. Your agent's like, "Oh, I did it. I wrote the whole code from scratch." And then your senior engineer is like, "Hey, bro, we have a service," and denies you. [chuckles]

  28. 5:26

    So one thing you'll see is we actually triggered this task that's a real prompt. You'll see data later in this, uh, slide about the outcomes. We did it with Unblocked, a context engine, and then without one, but it had an MCP access to each SaaS tool that was required to get the job done.

  29. 5:41

    And I'll show you the differences. The short story is you kind of get this. The naive run, which just had the MCP access, basically passed all the code checks it compiled, but the senior engineer was like, "This is totally wrong, and what it tried to do would have broken our entire system if we had shipped it."

  30. 5:58

    So three myths about building context. The first, if I do naive RAG over my docs, that is context. Unfortunately, that does not work. [chuckles] Naive RAG picks a bunch of things.

  31. 6:09

    It puts a data store there, and the agent can then crawl across that data store. But it typically falls down because there's something known as satisfaction of search. This is a known phenomenon in radiology, but the short story is, if you get an X-ray, because let's say you have a lung problem, the radiologist will scan, and when

  32. 6:25

    they find something, they're like, "Oh, there's something on your lung." They stop looking 'cause they think they found the answer to the symptoms you have told them, and this is very bad in medical health, of course, 'cause there may be other things wrong.

  33. 6:37

    So what happens with an agent is if you say, "Make a Zendesk integration," it will go, it might call an MCP, and the first piece of data it finds, it goes, "Oh, this, this must be the pattern."

  34. 6:47

    It stops looking. So the issue is if it's not exhaustive, it will not find the actual root cause, or it may not find the correct best way to implement, and just a bunch of other problems can happen.

  35. 6:57

    And basically, by the time the agent output is done, you read it as an engineer and go, "No." And then you're in a doom loop, where you're like, "Let me correct you.

  36. 7:04

    It's actually over here. I'm gonna point to file." And so you're babysitting again. If I just connect enough MCPs, I'm done. I think I've spoken to that. They're there.

  37. 7:12

    They're pipes. That's great, but they don't provide understanding or reasoning across it. And then finally, we did think this for a while. We dreamed of the one million context window.

  38. 7:22

    It's here. I don't know if anyone's ever whacked it full with something and then tried to get the agent to do anything. [chuckles] It can't. Um, it basically just can't reason over that much data.

  39. 7:31

    It's just not super helpful. It just sits there as there's no entities and relationships, and there's all these things that we need for these agents to be most effective.

  40. 7:39

    Um, so the bigger context window does not solve it. There's a bunch of compute reasons why even if we got to a hundred million in a context window, it's still not gonna help other than needle and haystack problems, if you're obviously like find, find Wal-Waldo.

  41. 7:53

    So basically, this is what we see. The classic waterfall. Code that compiles is what the agent can see. But typically today, they miss all of this 'cause it can't see it.

  42. 8:03

    It doesn't know if it's there. It would have to run for so long grepping in a session to actually get your factory patterns or other things across your code base that you burn a bajillion tokens.

  43. 8:12

    And then when you close that terminal window, buh-bye. [chuckles] You gotta just do it again, and no one wants to repeat this cost.

  44. 8:19

    So this is why you need a context engine. It understands who you are and what information actually matters. So a key component of this is a social graph because you use that as a pivot point.

  45. 8:30

    Because if I ask how to do a Zendesk integration, the context engine should know which code bases I work in, where my PR history is, who I work with, and what I mean when I say that.

  46. 8:40

    Because at a large org, we deal with companies that have twenty thousand members that are-- that are customers of ours. It's very different. [chuckles] So you need to be able to reason that.

  47. 8:50

    And by the way, a context graph is an incredibly useful technique for building these things. We'll talk about it. It should resolve conflicts. I don't know how many times I've looked at source code that's running in main, and we go, "Yeah, that's the source of truth."

  48. 9:01

    But there's a Slack conversation where the CTO says that was implemented wrong. Which is right? The context engine must be able to settle that debate. And by the way, a con-- a graph of-- social graph helps with that because if you see the CTO saying in the [chuckles] Slack thread, "That's wrong," the CTO is probably right.

  49. 9:18

    So the context engine reasons about that and goes, "Well, the code says this. Slack says this. That's the CTO. We should probably tell the agent what the CTO said, and of course, provide it the source code," et cetera.

  50. 9:29

    So it passes what's truth. So it handles truthiness. That's a tough problem. We have a lot of techniques in our product to solve it. It is not fully solved. [chuckles]

  51. 9:37

    It should respect permissions of governments. This is pretty basic. It's one of the reasons this is delivered over MCP is you can carry the OAuth model through for data governance and a bunch of other reasons that matter in scaling businesses.

  52. 9:48

    I mean, as soon as you're [REDACTED:age], typically this matters 'cause some data should not be accessible to others. So when you build your engine, you do not wanna put everything in there, especially when you think about we ingest Slack conversations and Microsoft Teams convos.

  53. 10:01

    So if it's you, we will return responses from private chats. But if someone else asks a question, we will never show them private chats that aren't theirs. That's just one easy way to think about it.

  54. 10:12

    Ooh. And it should deliver the right context, the right model at the right time in a token optimized way. This is how ours works. So the short is we ingest a bunch of data sources.

  55. 10:21

    It sits in our engine. We have six key differentiators, which I'll go into in a sec. And then on the output side, there should be many surface areas where agents and humans are able to interact with the context engine.

  56. 10:31

    One of ours is simple. Human engineers in Slack just chat with it and ask it questions all the time to get data they need. I'll show you an example.

  57. 10:39

    Um, but then, of course, agents. As you move to background agents, they need a context engine in order to run headlessly or to run in the background or run in the cloud because they have to be able to ask questions of a machine, not a person.

  58. 10:51

    'Cause otherwise you're not gonna wake up to a PR. You're gonna wake up to a, "Am I allowed to use this tool?" And that's not helpful. So these are the six.

  59. 10:59

    We're gonna move at pace. But the short is, I've talked to a lot of these, but these are kind of marketing terms. Unified system context, so it should be able to reason across all of your systems of records.

  60. 11:08

    It has to be able to do targeted retrieval.

  61. 11:12

    Conflict resolution, as described, there are many times [chuckles] where the docs and this and that are conflicting, so how do you settle that? That data governance problem, so secure access model, personalized relevance, building social graphs, knowing who you are, who you work with, and finally, of course, token optimization.

  62. 11:26

    This is becoming a pretty big issue. A lot of benefits you get on token optimization is just by having a context engine 'cause you don't rerun those greps for the agent to know.

  63. 11:36

    But also with an engine, if you reason across everything, it's then able to compress the response into exactly what the agent needs and only send that back as an answer.

  64. 11:47

    That task I talked about, I'm not gonna lie, we asked Claude to do the comparison, so it made these bar charts and numbers, but it did pull out all the key points of this.

  65. 11:56

    That same prompt, one was naive. It had all the MCPs it needed to get the data, and the other had our context engine only. This is the difference across key principles of engineering.

  66. 12:07

    But these are funny. It, like, didn't catch that we used Bedrock as a, a fallback. It shipped, like, bugs. There was one that broke the custom callers. The short story is, if you're working at any form of scale, again, twenty plus, agents are just gonna try to mock things, and it'll look like prototype.

  67. 12:22

    It's not mergeable. If you get a context engine, when I put up this PR, our senior engineer for the one with the engine basically gave me a nitpick and was like, "Yep, you can merge this.

  68. 12:31

    Just, just fix that." Great. These are some of our hard lessons. [laughs]

  69. 12:38

    We did try to optimize for access. Now understand, we're like, "The model will handle this." Like, the agent's totally gonna figure it out. It'll collapse into mythos or whatever.

  70. 12:45

    It, it hasn't. It's been years. So we were like, "We have to solve this problem another way." And I think that's correct based on actually Anthropic's launch last night with cloud agents and Ryan's talk this morning.

  71. 12:54

    You have to get context into the harness, and an engine is the way to do that. We hid conflicts instead of servicing them. The agent would actually just pick when we found conflicts at first 'cause we were like, "It can't be that bad."

  72. 13:05

    It's that bad. So solving, [laughs] solving conflicts is an important problem. And then finally, this is a really fun one. We thought as good answers happened, we actually got feedback loops on those, so we were caching them for latency.

  73. 13:16

    If you cache a good answer, basically it's like when you write docs, right? The moment you write it, it's no longer valid because things are changing. So if you cache a correct answer, and then tomorrow someone asks the same question and you answer it, you, you probably lied to them now because things probably changed in a twenty-four

  74. 13:30

    hour clock, so the system is not the same. Obviously, some questions I'm sure are stable, but this led to a lot of problems, so I highly recommend against even if it's optimized.

  75. 13:40

    This is where AI forward teams are. They're using context engines in all of these cases. So I know we're all engineers, but I'm sure that we support others in our orgs, like a ask engineering channel.

  76. 13:53

    Our context engine, it sits in every customer's ask engineering channel. It detects if a question is asked, it scores confidently, and then it responds automatically. So when support teams, sales teams, whoever's like, "Hey, what's running in prod?

  77. 14:06

    What's this?" The context engine just answers them and deals with the issue, just like it would answer an agent asking for data. Um, so there's a lot of ways like that use case I just talked about, but then ticket enrichment, triage, incident management, obviously working with your agents and coding.

  78. 14:22

    These are all great ways that you get tons of leverage out of getting one of these into place.

  79. 14:29

    Teams then customize them, so most fork. We have like a cookbook. They take that repo. The cookbook's full of skills. Um, but then you dev- devise your skills with your standard operating procedures.

  80. 14:38

    You obviously can build your own workflows, whether you do that as a skill or some other technique. And then, of course, custom agents. All of these can leverage that same context engine, so you just get a huge amount of leverage.

  81. 14:50

    This is what I'm trying to leave you with. An agent should write code that feels like it was written by someone who's been on your team for years. Like, that's just like we should expect that by now, and this is one of those techniques to get you there.

  82. 15:02

    I can do a brief QA and I can give a demo. I have three minutes left, so what's your preference? [laughs] Demo. Cool. So this is the tool I talked about at the workshop.

  83. 15:12

    We're gonna open source it. This is one component of a key-- of a social graph. And so

  84. 15:19

    when you run it, this will be available, I think it's Monday, we're gonna actually open source. It's closed source right now. There's a whole setup, but we had a bunch of teams hack against it and ship code.

  85. 15:27

    But basically it will build you one of these. Uh, I'm gonna zoom in. This is our engineering org. As you can see, there's different nodes and edges, a basic graph, but it's a social graph.

  86. 15:37

    Rasheen is a goddamn machine. So he-- that's how much he ships is by the size of the node. If we go look at-- This is algorithmic, procedurally generated, so you'll see the tool.

  87. 15:46

    But in short, you can see on the right who he's working with. Sorry, this screen is, like, kind of small.

  88. 15:52

    Great. Kind of worked. Um, so you can see who he works with, whose code he reviews, what area, uh, he worked in. We use labeling with an API key from Anthropic.

  89. 15:59

    Oh God, now it looks terrible. Let's zoom in.

  90. 16:03

    A little better. Um, sorry. It's a fun tool. But basically this expert graph would allow you to, when a query comes across, we go, "Oh, you're Rasheen. You work with these people."

  91. 16:13

    Great. It'll pivot on that data. It'll then zoom into the code bases that he's dealing with. So when you as an engineer ask maybe not the best prompt of all time, but you're like, "Hey, I gotta get this done.

  92. 16:24

    There's a bug. Gotta fix it," it'll know who you are. It'll pivot on that. It'll probably find the bug that's, like, correct. And again, it'll use this component to do a bunch of things and make decisions as it traverses in order to reason to give the agent the exact answer that it needs.

  93. 16:38

    So this, this tool, like, generates this for you. You just point it at your code repo. It'll do a construction. Um, but it do-- it does things like creates experts across, like, various areas in the business, so in our libs, our services.

  94. 16:50

    I'm quick, quick scrolling. Apologies. We got time. You can check a heat map grid of who works with each other, like who reviews what, who authors what. You can check peer tables, you know, who Andre works with, [laughs] et cetera.

  95. 17:01

    So this data available in a context engine, very useful. Uh, and again, this will be open source. Uh, if-- I think you got a badge scan, I'll, I'll just email you all as soon as it's open source if that's cool.

  96. 17:12

    Another quick demo. Ghosty, my boy. So in this one, I actually used our MCP, and I just straight up said, "How do I con-- make a new first class integration to Zendesk?"

  97. 17:23

    I just said use the MCP. It would probably have picked it up, but I wanna make sure for this demo that it did. It ran-- it just chose to use our research task tool.

  98. 17:31

    You can see that it constructed a query, so the agent did that based on the shape of our MCP, so it wrote the right query, ran that. It did effort high for reasoning.

  99. 17:39

    It got the data back, then it triggered its explore agents. This is key 'cause now they're exploring the right place after this research packet came in. Great research results.

  100. 17:47

    Did the thing, did the thing, wrote me a plan. So if you look at this plan, you do not know my source. That's fair. But if we just scan it, like, it found all the things that matter, like registering our provider, obviously.

  101. 17:59

    We have a factory pattern. Um, I'll just pull through, but, like, the library modules, client. Like, this is, like, one hell of a plan is the short story, and it's, like, pretty correct.

  102. 18:08

    I would probably prompt this a couple more times to get it totally right, but at any time while it's executing, it's able to keep calling our MCP. So typically what we see is use the engine for planning, run execution, and then basically as you get to code review, leverage your engine again, 'cause that engine is very good

  103. 18:25

    at code review, and it's extremely good at planning.

  104. 18:29

    That's all the time I have, so thank you all very much. I appreciate it. Uh, I'm at a booth at G sixteen, so come by if you have questions. [audience applauding] [upbeat music]