ARTICLE / 00505 CHAPTERS

When I leave the screen, the agent can keep working.

Centred on dots as my daily driver for deployments and scans, alongside trials with Muse, self-hosted research on OpenClaw, and public notes on Grok Bot, exploring where agents run and where human stops belong.

  • Agents
  • Runtime
  • OpenClaw
  • Research notes
RESEARCH NOTE
ARTICLE / 005Technical research and development notes

01

Where does work go after an agent leaves the window?

I start with entry, runtime, reach, and stopping points before model size.

With ChatGPT or Claude, the usual pattern was simple: ask once, receive an answer, and stop when the window closed. Agents can keep a browser, files, and tools moving after I leave the screen.

So I begin with four questions: where does the request start, where does it run, what can it reach, and when must it return for my review?

This is not a product leaderboard. dots is my current daily driver for deployment, mail checks, and daily scans while I keep exploring better patterns; Muse was a past trial, OpenClaw a self-hosted study, and Grok Bot public architectural research.

Entry
Where the request starts
Runtime
Where it runs
Reach
What it can reach
Review
When it returns

02

dots and Muse: let the first pass handle the reading.

I let them handle the first pass through mail, course material, and job information; sending stays with me.

The important part of dots is not the slogan “always-on”; it is the cloud computer with a browser and connected apps. I use it to assist GitHub-to-Vercel deployments, check mail, track reminders, gather research, run daily scans, and turn my graduate course material into weekly notes before bringing the results back to myself.

When Muse launched, I tried giving it Notion, email, and résumé material so it could organize job information and narrow a large set of opportunities. That was a test context for me, not a reason to hand over the final application.

A cloud computer keeps work moving, but connected apps, browser sign-ins, and history become part of the boundary. The closer the entry feels to ordinary chat, the more deliberate the permissions need to be.

Prepare first, return to meCONCEPT DIAGRAM
STEPReadDraftReturn
Mail, course material, job postsIncludedNot includedNot included
Summaries, weekly notes, shortlistsNot includedIncludedNot included
I review before sendingNot includedNot includedIncluded
STEPCONCEPT DIAGRAM
STEPPositionEntryWhere it runsStop
dotsCurrent daily driver; refining patternsChatGPT / appCloud computer + browserI review before deployment or external action
MusePast trial (job/reading triage)App / WhatsAppSecure VM + browserI review before applying
Grok BotOfficial research; not used by meBot / webCloud Linux + terminalIsolation depends on handoff rules
OpenClawSelf-hosted architecture baselineDiscordGateway + NASReturn before external action

03

Grok Bot: treat the shared computer as a research subject.

I have not used Grok Bot; I am only reading its public architecture.

xAI describes Grok Bot as an AI teammate with a name, a job, and context, working on a persistent cloud computer with a browser, filesystem, and terminal. Bots can hand work to one another.

That is attractive: one Bot can continue where another stopped, without moving the working state again. But the shared computer also makes files, sign-ins, and handoff scope harder to see at a glance.

I have not placed it in a production workflow. The questions I keep are architectural: who sees the shared directory, what context crosses a handoff, and which action returns to a person?

Two sides of a shared environmentCONCEPT DIAGRAM

Handoff

Keep working state in place

Context

Carry preferences and tasks

Boundary

Separate files and sign-ins

04

Self-hosted architecture study: Discord → OpenClaw → KIROKU / NAS.

Looking back at the self-hosted flow as a reference baseline against managed cloud tools.

I do not want to open a complex control panel just to record one thing. Discord is the lightest entry: OpenClaw Gateway routes the request, deterministic scripts handle repeatable formatting and fetching, and the LLM handles summaries, classification, and semantic cleanup.

The result is written to KIROKU and my NAS so I can return, search, and correct it later. I keep deterministic work separate from language work instead of asking the model to guess the same format every time.

The cost of self-hosting is visible: Gateway permissions, plugins, shell and node execution, updates, and backups are mine to maintain. Running it on my own machine does not make it safe by default.

The self-hosted data flow studied previouslyCONCEPT DIAGRAM
  1. 01

    Capture

    One sentence in Discord

  2. 02

    Route

    OpenClaw Gateway

  3. 03

    Script

    Format, fetching, repeatable work

  4. 04

    LLM

    Summarize, classify, understand

  5. 05

    Store

    KIROKU / NAS → human review

05

Three stopping points: let the agent work, keep the last step human.

I separate work I can automate, work I send after review, and work an agent must never do for me.

I can automate reading mail, sorting course material, extracting key points, classifying, and preparing note drafts. Those results can return to KIROKU for later retrieval.

Formal replies, final coursework, public articles, and pull requests stop after I read them. The agent can move the first part forward; I still confirm the words, the recipient, and the timing.

Payments, account deletion, credential release, and destructive database changes should not pass on one prompt. AI can keep working after I leave the screen, but I remain the person who accepts the result.

Auto
Organize, classify, draft
Review
Replies, coursework, articles, PRs
Block
Payments, deletion, credentials, overwrites