OpenAI
Autonomous software engineering requires shared multiplayer environments and strict security boundaries to eliminate the human bottlenecks of private, terminal-bound agent sessions.
AI-assisted summary of ClawLabs: Building Open Source Together | DevDay 2026 — original source. Check the original for full context.
Source published:
Key ideas
- OpenClaw, stewarded by the independent nonprofit OpenClaw Foundation with OpenAI backing, transitions AI development away from isolated single-developer sessions toward persistent, multi-user collaborative runtimes. (3:18)
- OpenAI officially open-sourced OpenClaw Enterprise (OCE), a vendor-neutral control plane developed alongside Red Hat and NVIDIA to provide Kubernetes-style governance, workload isolation, and sandboxing for autonomous agents. (32:49)
- OpenAI scaled its internal deployment to more than 400 autonomous agents operating continuously to triage bug reports, reproduce issues in isolated environments, synthesize patches, and merge pull requests. (24:34)
- Target-driven '/goal' directives demonstrated persistent multi-week autonomy, completing an 18-day asynchronous database migration that landed over 100 pull requests without breaking the codebase. (21:30)
Detailed notes
## Background Published on YouTube by OpenAI on October 7, 2026, 'ClawLabs: Building Open Source Together | DevDay 2026' explores how AI agents assist small open-source teams in building software collaboratively. According to the page description, the session showcases workflows for sharing context across projects and contributors through live demonstrations of cloud sessions and computer use.
## TL;DR The presentation examines the evolution of developer agent harnesses from isolated CLI setups—where humans acted as single-threaded 'meat proxies'—to OpenClaw, an open-source platform enabling shared, multi-user agent collaboration. Presenters Peter and Kevin Lin demonstrate live multiplayer agent canvases, malleable internal dashboards dubbed 'jellyware,' voice-enabled meeting agents, and continuous background loops that automatically triage, reproduce, and patch bugs. Kevin Lin formally announces the open-sourcing of OpenClaw Enterprise (OCE), an agent control plane governed by the nonprofit OpenClaw Foundation that implements workload isolation, sandboxing, and auto-review safeguards to orchestrate autonomous agents at scale.
## Atmosphere & style The talk delivers an energetic, candid developer-conference vibe, mixing practical architectural insights with lively audience interaction and live-demo troubleshooting. Presenters maintain a lighthearted, self-effacing rapport, poking fun at CLI purists, sharing the vulnerability of exposing raw prompt histories, and joking about averting 'lunchtime crises' during live pull request reviews. The mood transitions smoothly from the playful, experimental atmosphere of chaotic shared-canvas games and 'slop meters' to an authoritative, forward-looking presentation on open-source enterprise governance and security.
## Bulletin - [03:18](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=198s) OpenClaw, stewarded by the independent nonprofit OpenClaw Foundation with OpenAI backing, transitions AI development away from isolated single-developer sessions toward persistent, multi-user collaborative runtimes. - [32:49](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1969s) OpenAI officially open-sourced OpenClaw Enterprise (OCE), a vendor-neutral control plane developed alongside Red Hat and NVIDIA to provide Kubernetes-style governance, workload isolation, and sandboxing for autonomous agents. - [24:34](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1474s) OpenAI scaled its internal deployment to more than 400 autonomous agents operating continuously to triage bug reports, reproduce issues in isolated environments, synthesize patches, and merge pull requests. - [21:30](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1290s) Target-driven '/goal' directives demonstrated persistent multi-week autonomy, completing an 18-day asynchronous database migration that landed over 100 pull requests without breaking the codebase.
## Key takeaways - [00:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=31s) Terminal-bound AI workflows created the 'meat proxy' bottleneck, turning developers into manual intermediaries who copied prompts and outputs between teammates and isolated models. - [03:18](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=198s) OpenClaw provides a decentralized, self-hostable open-source platform managed by the OpenClaw Foundation, supporting unified ChatGPT single sign-on while preserving model neutrality. - [04:47](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=287s) Live 'multiplayer' agent sessions replace the traditional asynchronous pull request loop by allowing multiple users to concurrently steer and inspect the same running agent canvas. - [09:10](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=550s) Exposing raw prompt histories on pull requests initially met developer resistance, but ultimately eliminated team friction by making author intent transparent behind massive code diffs. - [13:08](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=788s) Traditional continuous integration is being reimagined using agent harnesses that dynamically determine and execute only the relevant subset of tests for a specific change. - [13:52](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=832s) Ephemeral, natural-language-generated dashboards and internal tooling—termed 'jellyware'—are replacing brittle, hardcoded internal utilities across development servers. - [16:56](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1016s) Meeting transcription and project workflows were replaced by voice agents integrated via GPT Live in Discord that share persistent session memory with engineering servers. - [19:32](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1172s) Autonomous software factories rely on human engineers primarily for aesthetic and architectural 'taste', while automated background loops triage bug reports, reproduce issues, and land fixes. - [21:30](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1290s) Development tasks are split architecturally between indefinitely running monitoring 'loops' and finite, target-driven '/goal' directives that execute multi-week code migrations. - [24:34](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1474s) OpenClaw Enterprise secures agent operations by separating deterministic workloads from agent runtimes across isolated containers and distinct clusters. - [24:34](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1474s) Agent security governance relies on strict tool sandboxing, secondary auto-review models that intercept dangerous operations, and auditable dedicated service accounts. - [32:49](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1969s) Collaborative security initiatives like 'Patch the Planet' pair open-source agent ecosystems with partners like Trail of Bits to systematically eradicate vulnerability classes across public repositories.
## Detailed walkthrough ### [00:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=31s) The Evolution of Agent Harnesses and the "Meat Proxy" Trap
The past year marked a massive shift in how developers interact with AI agents. Development originally lived entirely inside the command-line interface (CLI)—split terminals everywhere, multiple Codex sessions firing simultaneously, and code rapidly churning out left and right. In those early stages, developers had to constantly "smash escape to steer the agent" whenever it went off track. However, as foundation models grew smarter, the need to manually interrupt and steer dropped drastically, exposing the limits of a purely terminal-bound workflow.
```mermaid flowchart TD accTitle: Evolution of Developer Agent Workflows accDescr: Progression from local CLI setups to desktop GUIs, distributed devboxes, and shared multiplayer platforms.
subgraph Phase1["1. Local CLI"] A["Terminal / CLI"] -->|"Escape-smashing steers"| B["Single-box Codex"] end
subgraph Phase2["2. Local GUI & Distributed Cloud"] B --> C["Codex Desktop GUI"] C -->|"Fan noise & disk full"| D["DevBoxes & Cloud VNC"] end
subgraph Phase3["3. The Collaboration Bottleneck"] D -->|"Single point of contact"| E["'Meat Proxy' Bottleneck"] end
subgraph Phase4["4. OpenClaw Shared Sessions"] E -->|"Open session visibility"| F["OpenClaw Multiplayer"] end ```
Moving to Codex Desktop improved things considerably: it offered cleaner typography, inline browsers, integrated code review, visual progress indicators, and effortless parallel session orchestration. Yet this capability introduced hardware strain. Running high-volume experiments locally maxed out disk storage and made cooling fans sound "like a jet engine." The immediate fix was spreading execution across six to ten cloud DevBoxes, spinning up dedicated test runners, and checking in via VNC or remote Codex connections. But throwing more compute at the problem uncovered a structural team bottleneck: teammate collaboration. Every request had to route through a single developer acting as an intermediary to the AI.
- The term **meat proxy**, coined this year by Frank Allenby, describes a human developer who becomes a glorified communication layer, manually copying prompts and output back and forth between teammates and an AI model. - While everyone was utilizing agents, true collaboration was absent because contextual decisions remained isolated inside individual private sessions.
---
[03:18](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=198s) Introducing OpenClaw: Shared Context and Open-Source Governance
OpenClaw (OC) was created to escape the meat proxy pattern by providing an open-source platform for persistent, multi-user agents. It bridges local developer tooling, remote infrastructure, and team workflows. Rather than siloing work on one laptop, OpenClaw integrates directly with developer environments, incorporating ChatGPT account logins, active plugins, and existing Codex sessions into a shared runtime.
Governance is intentionally decentralized: OpenClaw is stewarded by the independent nonprofit **OpenClaw Foundation**, with ongoing backing from OpenAI. The OpenAI research team uses OpenClaw to investigate what an automated software engineer should look like, how to orchestrate autonomous agents at scale, and how modern development harnesses must change to keep pace with rapid model advances. Workflows that felt state-of-the-art only six months or a year ago already feel constrained and outdated.
- **Nonprofit backing:** OpenClaw is maintained under the OpenClaw Foundation to ensure platform openness, model neutrality, and independent governance. - **Unified auth:** Includes single sign-on using a "sign in with ChatGPT" button while retaining compatibility with personal subscriptions and custom plugins. - **Self-hosting:** Teams retain the freedom to modify the underlying agent code, select arbitrary models, and host the platform on their own private servers.
---
[04:47](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=287s) Live Demo: Multiplayer Agent Swarms and the Lobster Game
A live demonstration of the collaborative environment featured **PartyClaw**, an agent session operated via voice commands and real-time multi-user inputs. Moving beyond the conventional pull-request lifecycle—where an agent writes code asynchronously and returns an isolated branch for manual checkout—OpenClaw turns code generation into a shared, live workspace.
```mermaid flowchart LR accTitle: Pull Request Workflow vs Live OpenClaw Collaboration accDescr: Comparison between the traditional pull request loop and OpenClaw's shared session approach.
subgraph Traditional["Old Workflow: Asynchronous PR"] T1["Prompt Agent"] --> T2["Wait for PR"] T2 --> T3["Local Codex Review"] end
subgraph OpenClaw["New Workflow: Collaborative Session"] O1["Live Prompt"] --> O2["Shared State / Canvas"] O3["Teammate Prompts"] --> O2 O2 --> O4["Instant Multi-User Deploy"] end ```
When prompted to build an arcade game "where the frog has to go over a street with cars," PartyClaw immediately located and deployed an existing project, *Lily Lane* (Frogger), originally authored by Kevin on the team. Audience members were provided a live URL to join the session directly, turning the agent canvas into a multi-author party. The demo speaker quickly submitted a prompt to swap the player avatar into a lobster before the audience or teammates could turn it into an elephant. Within seconds, the agent updated the running canvas to feature lobsters dodging sharks.
- **Multi-user prompt injection:** Anyone connected to the session server can inspect executing prompts, steer the agent concurrently, and build on existing states. - **Contributor incentive model:** OpenClaw plans to invite top open-source contributors directly into hosted workspaces, offering compute tokens in exchange for architecture feedback and ideas: *"You get the tokens and we get a little bit of your ideas."* - **Audience participation:** Live attendees jumped onto the shared URL so quickly that the presenter had to jokingly tell staff to "close the gates" before the cluster became overwhelmed.
---
[09:10](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=550s) The Psychology of Sharing Prompts and Transparent PRs
Multiplayer agent sessions significantly altered internal team dynamics. While OpenAI's enterprise integration **Dots** supports agent collaboration inside enterprise boundaries, OpenClaw brings similar principles to open-source workflows with total infrastructure control and cross-system interoperability.
However, sharing the precise prompts that generate code exposed an unexpected human vulnerability: developers found raw prompts intensely private. Because a single natural-language instruction can produce tens of thousands of lines of code, code reviews without prompt context leave reviewers understanding *what* code changed without understanding *why*. An earlier attempt to require sanitized prompt transcripts on pull requests saw widespread resistance, with developers—including the speaker—refusing to attach them. Once team-wide session visibility was enforced by default, the initial awkwardness faded after a day, quickly replaced by earlier mistake detection and cross-pollination of prompt techniques.
A live code review demonstrated the concrete value of this visibility. Inspecting an unreviewed pull request from **Roboclaw**, the speaker found a commit that shrank UI table sizes—directly conflicting with work the speaker had completed the previous day to make them larger:
> "My cortisol level would go up. It's like, who did this? Like, why? What did Victor do? And maybe in the past, I would have dropped him a not very Californian message. But now, I can click on the work session and I can just check out what he did, right?"
Opening Victor's linked session revealed that Victor had actually reused the speaker's original session, pinged him for input, and left commentary expressing frustration with existing continuous integration (CI) runtimes. Transparent session context replaced workplace friction with immediate clarity on the engineer's true intent.
[13:08](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=788s) Rethinking CI and the "Lunchtime Crisis Averted"
Reflecting on how development workflows must evolve, the speaker questions whether traditional continuous integration still makes sense in the agent era. Running every test blindly is slow and outdated, prompting ongoing experiments with Codex to bring intelligence into the pipeline—allowing an agent to dynamically decide which subset of tests is actually relevant for a given change. Scrolling back through the pull request, the speaker realizes their initial skepticism was misplaced: Victor had actually thought through the problem thoroughly, cleaned up the code, and fixed the broken pieces. Relieved, the speaker announces that the "lunchtime crisis" has been safely averted.
[13:52](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=832s) From Software to "Jellyware": The Team Server as a Place
Turning to a live tour of their setup, the speaker explains that their team views their server less as a static application and more as an interactive place where work happens. A modern project encompasses far more than just writing code, which is reflected in a sidebar packed with custom dashboards and plugins. In the past, internal tooling was notoriously fragmented—scattered across separate servers, maintained through brittle GitHub Actions workflows, and powered by disparate databases and repos that nobody fully kept track of.
To demonstrate how low the barrier to entry has become, the speaker brings up an internal dashboard tracking continuous integration runtimes. Whenever styling or functionality needs tweaking, there is no need to write boilerplate code or deploy changes manually; one simply tells the agent, "make this blue," and it immediately updates the live view. Because these artifacts are generated and updated on the fly by agent sessions, the speaker questions whether this even qualifies as traditional software anymore, proposing the term "jellyware" to describe the malleable, fast-iterating code artifacts they build every day.
```mermaid flowchart TD accTitle: The Jellyware Feedback Loop accDescr: Diagram illustrating how team input and automated triggers generate and refine lightweight interactive dashboards. subgraph Trigger["Inputs & Automation"] A["Team Prompt / Natural Language<br>('make this blue')"] B["Scheduled Background Automation"] end
subgraph AgentRuntime["Agent Session"] C["Agent Execution & Code Generation"] end
subgraph Output["Artifact Layer ('Jellyware')"] D["Interactive HTML / UI Plugin"] E["Live Team Dashboard<br>(CI Runtimes, Community Metrics)"] end
A --> C B --> C C --> D D --> E ```
[15:33](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=933s) Internal Dashboards, The Daily Claw, and the "Slop Meter"
The server hosts a variety of purpose-built tools that mix utility with community culture: - **Community Analytics**: Tracking core metrics including open PRs, reported issues, and merge rates for team members who love data graphs. - **The Daily Claw**: An automated news generator that reads everything merged to the server that day and writes a daily newspaper summarizing the progress. While it occasionally gets facts hilariously wrong, it keeps the building process fun and engaging. - **The Slop Meter**: A dedicated gauge designed to combat the tendency of AI agents to endlessly emit bloated code. By visually raising awareness of code inflation, the dashboard encourages the team to prompt their agents to refactor and clean up their repositories. - **Activity Reports**: Dedicated code plugins showing member activity, including commit counts and Discord engagement levels.
The speaker emphasizes that maintaining a sense of playfulness is critical for high-performing engineering teams, noting that "you have to have fun when you build. That's the whole point if you want to do good work."
[16:56](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1016s) Voice-Enabled Meeting Agents in Discord
Internal meetings have also been completely re-architected. The team previously relied on a paid commercial SaaS product for meeting transcription until realizing that the entire service could simply be replaced by a prompt. Now, an in-house agent leverages Luna to ingest and summarize meeting transcripts directly within Discord.
Taking it a step further, the agent is wired into GPT Live, enabling it to verbally participate in real-time conversations rather than just quietly recording notes. Because this voice assistant shares the exact same persistent identity and main session memory as the rest of the team server, engineers can verbally query it about current tasks or instruct it to spin off new work mid-call without losing context.
[17:48](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1068s) Watching Colleagues Work: Victor's Design Iterations in Codex
Navigating down the server interface, the speaker highlights a presence view that shows which team members are active and what their agents are working on. Victor had criticized the speaker's rough initial implementation of the active-user view and spent the morning redesigning the sidebar. Scrolling through Victor's session log reveals his distinct prompting style—complete with "very colourful language" and a relentless drive for perfection.
Rather than settling for the first result, Victor pushed the agent through dozens of design iterations, at one point having the agent build dedicated interactive visual editors just to fine-tune the UI until other teammates jumped into the session to collaborate. The speaker notes that these rich visual artifacts work natively inside the Codex desktop application, teasing developers who remain bound to the terminal: "if you're still stuck in the CLI, it's time to upgrade. You're stuck in 2025."
[19:32](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1172s) The Software Factory: Autonomous Loops and Human Taste
Stepping back to outline the larger architectural philosophy, the speaker describes their goal: building an agent that builds their software, paving the way toward a fully functional software factory. While certain exploratory tasks require hands-on pairing between a human and an agent, background automation is driven by autonomous "loops."
Human developers provide the critical element agents cannot replicate: taste. Because taste is an intuitive feeling that is extraordinarily difficult to articulate in prompts, humans act as curators and directors while moving their local background loops onto shared team servers so the entire group can inspect, learn from, and maintain them.
```mermaid flowchart LR accTitle: Automated Issue Resolution Loop accDescr: Flowchart showing how incoming bug reports are triaged, reproduced, fixed, and reviewed by automated agents before landing in main. subgraph Ingestion["Triage & Detection"] A["External Monitors<br>(Discord, Twitter, GitHub)"] --> B["Category Classification<br>(CLI-assisted parsing)"] end
subgraph Resolution["Investigation & Patching"] B -->|"Update Issues"| C["Spin Up Isolated Test Box"] C --> D["Reproduce Bug"] D --> E["Synthesize Patch & Validate Fix"] end
subgraph Review["Review & Landing"] E --> F["Secondary Agent Review"] F --> G["Automatic Merge / Land Fix"] end ```
The issue-resolution loop operates continuously across public feedback channels: - Custom CLI tools stream bug reports from Discord, X (formerly Twitter), and GitHub into the agent. - For specific categories such as update failures, the agent spins up a clean test environment to reproduce the bug. - Once verified, the agent formulates a patch, tests the resolution, passes the diff to an independent reviewer agent, and automatically lands the fix into production.
[21:30](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1290s) Persistent Loops vs. Slash-Goal Migrations
The speaker clarifies the architectural distinction between continuous background operations and target-driven objectives: - **Loops**: Indefinitely running processes that monitor states and flag regressions. A performance loop, for example, watches the daily releases of the team server, captures snapshots, and flags performance dips. - **Goals (`/goal`)**: Structured agent directives working toward a specific, finite end state.
To illustrate a goal in practice, the speaker shows an ongoing initiative migrating their entire backend from synchronous SQLite access to an asynchronous database abstraction layer, preparing the architecture for swappable database backends in the future. As of the talk, this single goal had been executing autonomously on a local Codex instance for 18 days, landing over 100 pull requests without breaking the codebase. Ultimately, the team aims to assign an agent per project, equipped with dedicated memory, automations, and goals to maintain and upgrade software from high-level instructions.
[22:42](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1362s) Audience Sandbox Demos and the Enterprise Announcement
Switching back to the shared explorer, the speaker examines what attendees in the audience have been generating using the live system. Audience creations include a "release radar" tracker, an interactive game, an "island builder," and a collaborative game of Pictionary with the Claw where the agent attempts to guess concepts visually using Computer-Using Agent (CUA) capabilities. For those unable to claim a slot in the live cloud instance, the speaker notes that the software can be downloaded and run locally on any server with single-click Codex integration.
Concluding the walkthrough of how small, agile teams build alongside agents, the speaker introduces the next operational hurdle: as agent adoption spreads across large organizations, enterprises face severe challenges around deployment, configuration, security, and governance. To solve this dilemma, ClawLabs developed a dedicated enterprise control plane—and officially announces that it is being open-sourced today.
[24:34](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1474s) Introducing OpenClaw Enterprise and Security Fundamentals
Peter welcomes Kevin Lin to the stage to present the platform they have built. Kevin, who leads OpenClaw Enterprise (OCE) at OpenAI, introduces OCE as an open-source control plane designed to make OpenClaw multi-tenant while establishing strict governance and hard security boundaries around agent deployments. Emphasizing that a secure runtime is the essential foundation required to bring persistent agents to everyone, Kevin details the core security principles engineered directly into the system:
```mermaid flowchart TD accTitle: OpenClaw Enterprise Security Architecture accDescr: Diagram illustrating the four security boundaries of OpenClaw Enterprise including workload isolation, sandboxing, auto-review, and dedicated identities.
subgraph Boundaries["Isolation & Tool Access"] A["Deterministic Workload<br/>(Separate Container/Cluster)"] B["Agent Execution Runtime"] C["Sandboxed Tooling<br/>(Network, File Writes, Repos)"] A -.->|"Hard boundary"| B B --> C end
subgraph Governance["Safety & Identity"] D["Auto-Review Model<br/>(Blocks dangerous actions)"] E["Persistent Service Account<br/>(Auditable, Kill-switch ready)"] C --> D D --> E end ```
First, the architecture enforces strict isolation between trusted and untrusted workloads: deterministic code executes inside an isolated container and a distinct cluster completely separate from where the agent itself runs, preventing agents from altering their underlying runtime. Second, sandboxing tightly bounds agent capabilities, restricting network access, file write permissions, and target repositories so agents can leverage practical tools without being granted unrestricted authority. Third, the system layers automated model-based reviews via auto-review—a built-in mechanism found in Codex and OpenClaw that runs an independent model to inspect actions and intercept potentially dangerous calls before execution. Finally, every agent operates under its own distinct identity through dedicated service accounts and configurable connectors rather than impersonating individual human users, enabling teams to independently audit, control, or shut down any agent. Kevin explains that these safeguards have enabled OpenAI to scale its own internal deployment to over 400 active "Claws" operating around the clock to run experiments, patch code, analyze data, and flag security issues.
[27:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1651s) Live Demo: Creating Fred and Steering Cooper
Kevin transitions to a live demonstration, joking about an ambiguous graphic ("This is a hard Pictionary game. I don't know what that is") before walking through the deployment interface. He showcases presets—pre-packaged, configurable bundles that allow organizations to deploy agents adhering to internal security baselines. To mark the debut of OCE, Kevin configures a new community agent named "Fred":
- **Harness & Identity:** Configured with the Codex harness and assigned its own independent service account. - **Repository Access:** Restricted to read-only access on the code repository so Fred can inspect code to answer questions without modifying files directly. - **Project Tracking:** Connected to Linear for roadmap context, with hard governance requiring human team approval for any write actions. - **Communication:** Integrated with Slack using an existing bot token and pre-populated community channels.
While Fred initializes, Kevin shifts attention to "Cooper," an existing software development agent functioning as a persistent teammate that triages bugs, validates reproductions, and merges features end-to-end. Noting that the standard OCE console is functional but visually plain, Kevin prompts Cooper: *"Cooper, can you add a heat map of token usage per agent to the dashboard?"* He highlights that software engineering agents represent one of OpenAI's most heavily utilized internal workloads, observing that many public Codex issues submitted over the past month were triaged, reproduced, and merged by OpenClaw agents without manual intervention.
Kevin demonstrates the collaborative "multiplayer" capability native to all OCE deployments by opening an authenticated session directly into Cooper's team server. Within this web console view, team members can watch real-time execution or intervene directly; Kevin enters an additional steering instruction: *"Make sure dashboard has custom color palettes. I mean the web console."* Switching back to Fred, Kevin queries the freshly spawned agent: *"Hi, Fred. What are we launching today?"* Fred scans connected Slack channels and Linear boards to gather relevant context. Despite encountering a minor plugin hiccup during the live retrieval, Fred successfully pulls the release notes and locates the Linear task announcing the launch of OCE, prompting Kevin to tease, *"Fred, please do better next time."*
[32:49](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1969s) Launching OpenClaw Enterprise and Closing Remarks
Concluding his segment, Kevin formally announces the public release of OpenClaw Enterprise as a vendor-neutral, open-source control plane for agent operations. Drawing an analogy to cloud-native infrastructure, he notes that just as Kubernetes standardized container orchestration, OCE is designed to serve as the standard management and deployment platform for autonomous AI agents. Originally incubated internally at OpenAI, OCE was donated to the OpenClaw Foundation early in development and expanded in collaboration with enterprise partners, including Red Hat and NVIDIA. Kevin invites developers to adopt the platform, test edge cases, and help shape secure agent runtimes moving forward.
Peter returns to close the session, tying the release back to the core themes of the presentation: - **Codex Foundation:** OpenClaw relies fundamentally on Codex under the hood because Codex is open source, paired with expanded access programs for open-source maintainers. - **Patch the Planet:** Collaborative security initiatives with organizations like Trail of Bits leverage AI agents to systematically eliminate entire classes of software vulnerabilities across critical open-source infrastructure. - **Community Collaboration:** Peter encourages attendees deploying shared agent workflows in production teams—particularly at larger organizational scales—to connect with the team after the presentation to exchange insights on what patterns are succeeding and where friction remains.
## Notable quotes > [00:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=31s) smash escape to steer the agent
> [00:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=31s) like a jet engine
> [04:47](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=287s) You get the tokens and we get a little bit of your ideas.
> [04:47](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=287s) close the gates
> [09:10](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=550s) My cortisol level would go up. It's like, who did this? Like, why? What did Victor do? And maybe in the past, I would have dropped him a not very Californian message. But now, I can click on the work session and I can just check out what he did, right?
> [13:52](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=832s) make this blue
> [15:33](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=933s) you have to have fun when you build. That's the whole point if you want to do good work.
> [17:48](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1068s) if you're still stuck in the CLI, it's time to upgrade. You're stuck in 2025.
> [27:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1651s) This is a hard Pictionary game. I don't know what that is — Kevin Lin
> [27:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1651s) Cooper, can you add a heat map of token usage per agent to the dashboard? — Kevin Lin
> [27:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1651s) Make sure dashboard has custom color palettes. I mean the web console. — Kevin Lin
> [27:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1651s) Hi, Fred. What are we launching today? — Kevin Lin
> [27:31](https://www.youtube.com/watch?v=wZYnJfL4c2Y&t=1651s) Fred, please do better next time. — Kevin Lin
## Mentioned ClawLabs, OpenAI, Codex, Codex Desktop, DevBoxes, VNC, Frank Allenby, OpenClaw, OpenClaw Foundation, ChatGPT, PartyClaw, Lily Lane, Frogger, Kevin, Dots, Roboclaw, Victor, GitHub Actions, The Daily Claw, Discord, Luna, GPT Live, X, GitHub, SQLite, Computer-Using Agent, Kevin Lin, Peter, OpenClaw Enterprise, Fred, Linear, Slack, Cooper, Kubernetes, Red Hat, NVIDIA, Trail of Bits
## Video description See how agents help small open-source teams build together. Explore workflows for sharing context across projects and working with contributors, with live demos of cloud sessions and computer use.
[Source](https://www.youtube.com/watch?v=wZYnJfL4c2Y)