#Help me troubleshoot why my agent is non-responsive.

1 messages ¡ Page 1 of 1 (latest)

grand nest
#

Help me troubleshoot why my agent is non-responsive.

jade lindenBOT
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First thing: what version are you on? Please paste:

openclaw --version

Then let’s do a quick “is the gateway alive + is the channel connected + is policy dropping messages” triage. Run these in order and paste the output:

openclaw status
openclaw gateway status
openclaw channels status --probe
openclaw doctor

After that, keep logs open, send a message that the bot should answer, and paste the log lines that appear when you send it:

#
openclaw logs --follow

A couple super common “non-responsive” causes (the logs will usually make it obvious):

  • Gateway not actually reachable: openclaw gateway status should show Runtime: running and RPC probe: ok.
  • Discord connected but messages are dropped by policy:
    • In guild channels, many configs require a mention. Logs often say something like mention required / drop guild message (mention required ...).
    • Pairing required / pending approval (logs mention pairing).
    • Allowlist mismatch (blocked / allowlist).
  • Discord auth/perms: channels status --probe will show 401/403, missing scopes, not in channel, etc.

Two clarifiers so I can route you faster:

  1. Is this “non-responsive” in Discord DMs, or in a server channel/thread?
  2. When you message it, do you get nothing at all, or does it show “thinking”/create a session but never replies?
grand nest
#

Security audit
Summary: 1 critical ¡ 2 warn ¡ 1 info
CRITICAL Small models require sandboxing and web tools disabled
Small models (<=300B params) detected: - ollama/llama3.1:8b-instruct-q4_K_M (8B) @ agents.defaults.model.primary (unsafe; sandbox=off; web=[web_fetch, browser]…
Fix: If you must use small models, enable sandboxing for all sessions (agents.defaults.sandbox.mode="all") and disable web_search/web_fetch/browser (tools.deny=["group:web","browser"]).
WARN Reverse proxy headers are not trusted
gateway.bind is loopback and gateway.trustedProxies is empty. If you expose the Control UI through a reverse proxy, configure trusted proxies so local-client c…
Fix: Set gateway.trustedProxies to your proxy IPs or keep the Control UI local-only.
WARN Some gateway.nodes.denyCommands entries are ineffective
gateway.nodes.denyCommands uses exact node command-name matching only (for example system.run), not shell-text filtering inside a command payload. - Unknown …
Fix: Use exact command names (for example: canvas.present, canvas.hide, canvas.navigate, canvas.eval, canvas.snapshot, canvas.a2ui.push, canvas.a2ui.pushJSONL, canvas.a2ui.reset). If you need broader restrictions, remove risky command IDs from allowCommands/default workflows and tighten tools.exec policy.
Full report: openclaw security audit
Deep probe: openclaw security audit --deep

jade lindenBOT
#

That openclaw security audit output is useful (good you ran it), but it doesn’t actually explain “no replies” by itself — it’s mostly a safety/config lint report.

Two key points from what you pasted:

  1. CRITICAL: you’re running an 8B Ollama model with sandbox=off while web tools are enabled
    That’s a legit issue to fix (either enable sandboxing or stop exposing web/browser tools when using that small model). It usually won’t make Discord totally silent, but small local models can appear “non-responsive” (hangs, tool-call weirdness, etc.), so it’s worth addressing after we confirm the basics.

  2. If you’re trying to talk to the agent in a Discord server channel/thread, the #1 “silent bot” cause is: guild messages are being ignored due to policy (common log line: “mention required”, or guild not in allowlist).

What I need next (paste outputs)

Run these and paste them:

openclaw --version
openclaw gateway status
openclaw channels status --probe
#
openclaw pairing list --channel discord

Then:

openclaw logs --follow

…leave that running, send one test message in Discord (in the same place you expect replies), and paste the new log lines that appear.

Quick Discord-specific checks (very common)

  • Are you messaging the agent in a DM or in a server channel/thread?
  • In the server: did you @mention the bot in your message?
    By default, guilds often use requireMention: true (so it will silently ignore normal messages until mentioned) — docs: https://docs.openclaw.ai/channels/discord
  • Is the bot actually in that server and does it have permission to read/send in that channel? (channels status --probe / logs will show 401/403/Forbidden/missing_scope)
#

Once you paste gateway status + channels status --probe + the log snippet from a test message, we can usually pinpoint the exact reason in one round.

grand nest
#

│ Dashboard │ http://127.0.0.1:18789/ │
│ OS │ macos 26.2 (arm64) · node 24.8.0 │
│ Tailscale │ off │
│ Channel │ stable (default)
│ Update │ pnpm · npm latest 2026.2.26
│ Gateway │ local · ws://127.0.0.1:18789 (local loopback) · unreachable (connect failed: connect ECONNREFUSED 127.0.0.1:18789)
│ Gateway service │ LaunchAgent installed · not loaded · unknown │
│ Node service │ LaunchAgent not installed │
│ Agents │ 1 · 1 bootstrap file present · sessions 0 · default main active unknown │
│ Memory │ 0 files · 0 chunks · sources memory · plugin memory-core · vector unknown · fts ready · cache on (0)
│ Probes │ skipped (use --deep) │
│ Events │ none │
│ Heartbeat │ 30m (main) │
│ Sessions │ 0 active · default llama3.1:8b-instruct-q4_K_M (128k ctx) · ~/.openclaw/agents/main/sessions/sessions.json │

jade lindenBOT
#

Your output already shows the root cause:

  • Gateway … ws://127.0.0.1:18789 … unreachable (connect failed: connect ECONNREFUSED 127.0.0.1:18789)
  • Gateway service … LaunchAgent installed ¡ not loaded

That means nothing is listening on 127.0.0.1:18789, so the agent can’t respond anywhere (Discord included). Fix = get the Gateway process running.

1) Fastest: run the Gateway in the foreground (so we can see why it fails)

In a terminal on that Mac:

openclaw gateway --port 18789 --verbose

Leave it running. In a second terminal:

#
openclaw gateway status
openclaw channels status --probe

If it crashes immediately, paste the terminal output from the openclaw gateway … --verbose window.

Docs: https://docs.openclaw.ai/gateway (see “5-minute local startup”)

2) If you want the macOS background service (LaunchAgent)

Run:

openclaw gateway install
openclaw gateway restart
openclaw gateway status --deep
#

If it still says “not loaded” (or “stopped”), paste openclaw gateway status --deep output.

3) After the Gateway is running: one extra “silent agent” gotcha in your status

You also have:

  • Agents … 1 bootstrap file present

If the Gateway is up but the agent stays weird/non-responsive, that’s often a leftover BOOTSTRAP.md keeping it in first-run mode. Don’t delete anything yet—just tell me what openclaw logs --follow shows right after startup.


Reply with:

  1. the output of openclaw gateway status --deep (after you try #1 or #2), and
  2. the first ~50 lines from openclaw logs --follow right after starting the gateway.
grand nest
#

Should I run the gateway now? Or enable sandbox mode? What does sandbox mode do? REMEMBER: I'm on mac m4 with 16GB RAM.

jade lindenBOT
#

Run the gateway now. Your status output shows:

  • unreachable (connect failed: connect ECONNREFUSED 127.0.0.1:18789)
  • LaunchAgent installed ¡ not loaded

So the agent is “non-responsive” because the Gateway process isn’t running / nothing is listening on that port. Sandboxing won’t help until the Gateway is actually up.

1) Get responsive first (start the Gateway)

Fastest debug path (foreground, so you see errors):

openclaw gateway --port 18789 --verbose

In a second terminal:

#
openclaw gateway status
openclaw channels status --probe

If you prefer the background LaunchAgent:

openclaw gateway install
openclaw gateway restart
openclaw gateway status --deep

Once gateway status shows Runtime: running and RPC probe: ok, Discord replies should start working again (assuming the Discord channel is connected).


#

What sandbox mode does (and why the audit complained)

Sandboxing in OpenClaw means: tools run inside Docker containers (reduced blast radius). The Gateway stays on the host, but “dangerous” stuff like exec, file ops (read/write/edit), and optionally the browser can be isolated.

Docs: https://docs.openclaw.ai/gateway/sandboxing

Key bits:

  • agents.defaults.sandbox.mode:
    • "off": everything runs on the host
    • "non-main": only non-main sessions are sandboxed (Discord guild channels/threads are typically “non-main”)
    • "all": every session is sandboxed
  • By default, sandbox containers often run with no network egress, and with a separate sandbox workspace (so the model can’t see your real files unless you allow it).

About your Mac M4 (16GB RAM)

  • Your current model (llama3.1:8b…) already eats a meaningful chunk of RAM.
  • Sandboxing adds overhead (Docker + containers). It’s usually fine for basic tool isolation, but sandboxed browser is heavier.
  • If you’re memory-tight, start with mode: "non-main" + keep scope conservative.
#

Why the audit says “small models require sandboxing + disable web tools”

Small local models are more likely to:

  • hallucinate tool calls / ignore safety instructions
  • get prompt-injected into doing dumb things

So the audit is basically saying: if you insist on 8B + web/browser tools, put it in a container (or disable those tools).

But again: step one is still start the gateway.


If you paste the output of openclaw gateway status --deep after starting/restarting, I can tell you immediately whether it’s running and what it thinks its service state is.

grand nest
#

FYI I have no intent on setting up a discord channel, don't assume that I do.
Here is some output:

my-MacBook-Air workspace % openclaw gateway status --deep

🦞 OpenClaw 2026.2.26 (***) — iMessage green bubble energy, but for everyone.

│
◇
Service: LaunchAgent (not loaded)
File logs: /tmp/openclaw/openclaw-2026-02-27.log
Command: /Users//.nvm/versions/node/v24.8.0/bin/node /Users//.nvm/versions/node/v24.8.0/lib/node_modules/openclaw/dist/index.js gateway --port 18789
Service file: ~/Library/LaunchAgents/ai.openclaw.gateway.plist
Service env: OPENCLAW_GATEWAY_PORT=***

Service config looks out of date or non-standard.
Service config issue: Gateway service uses Node from a version manager; it can break after upgrades. (/Users/***/.nvm/versions/node/v24.8.0/bin/node)
Service config issue: System Node 22+ not found; install it before migrating away from version managers.
Recommendation: run "openclaw doctor" (or "openclaw doctor --repair").
Config (cli): ~/.openclaw/openclaw.json
Config (service): ~/.openclaw/openclaw.json

Gateway: bind=loopback (127.0.0.1), port=*** (service args)
Probe target: ws://127.0.0.1:18789
Dashboard: http://127.0.0.1:18789/
Probe note: Loopback-only gateway; only local clients can connect.

Runtime: unknown (Bad request.
Could not find service "ai.openclaw.gateway" in domain for user gui: 501)
RPC probe: ok

Service unit not found.
Service not installed. Run: openclaw gateway install
File logs: /tmp/openclaw/openclaw-2026-02-27.log
Listening: 127.0.0.1:18789
Troubles: run openclaw status
Troubleshooting: https://docs.openclaw.ai/troubleshooting

jade lindenBOT
#

Yep — and also: your Gateway is already running right now.

From your gateway status --deep:

  • RPC probe: ok
  • Listening: 127.0.0.1:18789

So the process is up and reachable. The problem is the background service side:

  • Service: LaunchAgent (not loaded)
  • Could not find service "ai.openclaw.gateway"...
  • and it’s warning that the LaunchAgent points at an nvm Node path, plus “System Node 22+ not found”

That combo usually means: it works while you happen to have the gateway running in a terminal, then “goes dead” after reboot / logout / upgrades because launchd isn’t actually running it.

What to do next (recommended order)

#

1) Make the Gateway reliably stay up (fix LaunchAgent)

Do what your output suggests:

openclaw doctor --repair
openclaw gateway install --force
openclaw gateway restart
openclaw gateway status --deep

But before doctor --repair can migrate you away from nvm, you need a system Node 22+ installed (not via nvm). Your status literally says it can’t find one. Once Node 22+ exists, doctor --repair can rewrite the LaunchAgent to use it.

If after this gateway status --deep still shows “not loaded”, paste that output again + the file log it points to (/tmp/openclaw/openclaw-2026-02-27.log).

2) If the agent still “does nothing”: check bootstrapping

Earlier you had 1 bootstrap file present. If ~/.openclaw/workspace/BOOTSTRAP.md is still there, the agent may be stuck in first-run bootstrapping (it’s supposed to remove that file when complete). Docs: https://docs.openclaw.ai/start/bootstrapping

#

Run:

openclaw status
openclaw logs --follow

…and paste what you see when you send a message in whatever interface you’re using (Control UI chat, Telegram, etc.). No Discord assumptions needed.

Sandboxing: what it does + should you enable it?

Sandboxing = run tools inside Docker containers to reduce blast radius (file access, exec, etc.). Gateway itself still runs on the host. Docs: https://docs.openclaw.ai/gateway/sandboxing

  • It’s primarily a security boundary for tool execution, not a “make it faster / more responsive” switch.
  • On an M4 with 16GB, Docker sandboxes add overhead. Also, if you’re using a local Ollama model, sandbox defaults (often no network) can complicate connectivity unless configured.

My recommendation for you right now: don’t touch sandboxing until the Gateway service is stable and you’ve confirmed the agent responds in the Control UI. Then decide whether you want sandboxing for safety (especially if you enable browser/web tools).

#

If you tell me where you’re chatting with the agent (Control UI at http://127.0.0.1:18789/ vs Telegram vs something else), I can give the exact next command to verify that channel/path.

grand nest
#

When i run openclaw gateway --verbose and open logging, i see like a "hello-ok" message of sorts being logged every second or few seconds.

When i omit --verbose, i see somewhat still logs.

jade lindenBOT
#

That’s actually a good sign.

What the repeated hello-ok means

hello-ok is the Gateway’s “handshake succeeded” response on the WebSocket protocol. You’ll see it whenever something connects to the gateway (Control UI, openclaw status, openclaw logs --follow, etc.).

If you’re seeing it every second / every few seconds, it usually means some client is repeatedly reconnecting (not the agent “thinking”):

Common causes:

  • You have the Control UI (http://127.0.0.1:18789/) open in a tab and it’s reconnecting.
  • You’re running something like watch openclaw status or repeatedly invoking status/log commands.
  • A client is failing to stay connected (auth mismatch / device pairing / stale tab state) and keeps retrying.

Quick test: close any Control UI tabs and stop any watch loops, then see if the hello-ok spam stops.

Why you still see logs without --verbose

Normal. --verbose just logs more (often including raw protocol frames). Even without it, the gateway writes regular operational logs.

#

The key question for “non-responsive”

How are you talking to the agent?

  • If you’re using Control UI: open http://127.0.0.1:18789/ and send “hi”. Then in another terminal run:

    openclaw logs --follow
    

    Paste the log lines that appear right when you send the message. We’re looking for an actual chat.send / agent-run entry (and any error about the model).

  • If you’re using some channel (Telegram/iMessage/etc.): run:

    openclaw channels status --probe
    

    and paste it. That tells us whether the gateway is actually connected to the channel that should deliver your message.

If you paste ~30 lines of logs around one “I sent a message but got no reply” attempt, we can tell whether it’s (a) message never reaching the gateway, or (b) model/tool runtime stalling (common with local Ollama).

grand nest
#

This is what is see when i follow logs:

23:43:40 [ws] ← open remoteAddr=127.0.0.1 conn=d5f7fc10…743d
23:43:40 [ws] ← connect client=cli version=dev mode=cli clientId=cli platform=darwin auth=token
23:43:40 [ws] → hello-ok methods=92 events=19 presence=1 stateVersion=1
23:43:40 [ws] ⇄ res ✓ logs.tail 1ms id=380a1c38…9ccd
23:43:40 [ws] → close code=1005 durationMs=24 handshake=connected lastFrameType=req lastFrameMethod=logs.tail lastFrameId=380a1c38-15a7-4504-8c7f-2199fa319ccd
23:43:41 [ws] ← open remoteAddr=127.0.0.1 conn=2bba1136…9064
23:43:41 [ws] ← connect client=cli version=dev mode=cli clientId=cli platform=darwin auth=token
23:43:41 [ws] → hello-ok methods=92 events=19 presence=1 stateVersion=1
23:43:41 [ws] ⇄ res ✓ logs.tail 1ms id=29243eb8…c24d
23:43:41 [ws] → close code=1005 durationMs=31 handshake=connected lastFrameType=req lastFrameMethod=logs.tail lastFrameId=29243eb8-66f7-44a9-8dbc-c2039a16c24d
^C23:43:41 [gateway] signal SIGINT received
23:43:41 [gateway] received SIGINT during shutdown; ignoring
23:43:41 [gateway] signal SIGINT received
23:43:41 [gateway] received SIGINT during shutdown; ignoring
23:43:42 [ws] ← open remoteAddr=127.0.0.1 conn=9fcfce67…7ca9
23:43:42 [ws] ← connect client=cli version=dev mode=cli clientId=cli platform=darwin auth=token
23:43:42 [ws] → hello-ok methods=92 events=19 presence=1 stateVersion=1
23:43:42 [ws] ⇄ res ✓ logs.tail 0ms id=b2acebfa…1a32
23:43:42 [ws] → close code=1005 durationMs=28 handshake=connected lastFrameType=req lastFrameMethod=logs.tail lastFrameId=b2acebfa-51ad-4886-903f-308b724d1a32
23:43:43 [ws] ← open remoteAddr=127.0.0.1 conn=96f7dd0c…503e
23:43:43 [ws] ← connect client=cli version=dev mode=cli clientId=cli platform=darwin auth=token
23:43:43 [ws] → hello-ok methods=92 events=19 presence=1 stateVersion=1
23:43:43 [ws] ⇄ res ✓ logs.tail 3ms id=1252ffce…c800
23:43:43 [ws] → close code=1005 durationMs=47 handsha

jade lindenBOT
#

Those log lines are just your CLI log follower doing exactly what it’s supposed to do.

What you’re seeing:

  • connect client=cli …
  • res ✓ logs.tail …
  • then the WS closes
  • then it repeats a second later

So the “hello-ok every second” is not the agent looping — it’s openclaw logs --follow repeatedly opening a short WS connection, calling logs.tail, and disconnecting. (The code=1005 close is typical for “client closed without a close frame”, not necessarily an error.)

What we still don’t have

We still don’t have any logs from an actual chat message being sent to the agent (no chat.send, no agent run, no model call/error). That’s why it feels like we’re stuck.

Next step: capture logs for a real message

Where are you trying to talk to the agent from?

#

If you’re using the Control UI (browser)

  1. Open: http://127.0.0.1:18789/ (same Mac as the gateway)
  2. Start: openclaw logs --follow
  3. In the UI, send: hi
  4. Paste the new log lines that appear right when you hit send

In healthy flow you should see something that clearly corresponds to a chat send / agent run. If it’s failing, those lines will usually show the exact reason (bootstrapping, model provider error, Ollama connection refused, etc.).

If you’re using some other channel (not Discord)

Run and paste:

openclaw channels status --probe

Two common “looks non-responsive” causes to check

  1. Bootstrapping still active
#

Earlier your status showed “bootstrap file present”. If bootstrapping hasn’t completed, the agent may be waiting for that first-run Q&A. In the Control UI you’d typically see the bootstrap prompts.

Docs: https://docs.openclaw.ai/start/bootstrapping

  1. Ollama not reachable / model stuck (since you’re on ollama/llama3.1:8b…)
    Quick check from the gateway host:
curl http://localhost:11434/api/tags

Docs: https://docs.openclaw.ai/providers/ollama


Reply with:

  • where you’re chatting (Control UI vs other channel), and
#
  • the log snippet that appears when you send one message.
grand nest
#

OK I've done the following actions, and see the following output.

action: openclaw gateway stop
action: rm all sessions
action: openclaw gateway --verbose
result: a previously submitted telegram "/new" chat that was just hanging appears to have been handled, telegram reports new session started
action: sent telegram chat "reply exactly this: WWRRTY"
result: the terminal where openclaw gateway --verbose was run shows "23:46:36 [agent/embedded] embedded run agent start: runId=e6be0042-3449-4952-b6dd-a067243f812d"
result: .... nothing else, im just waiting now

#

in addition to my last chat ->

action: openclaw sessions
result: I see:
direct agent:main:main 4m ago llama3.1:8b-instruct-q4_K_M unknown/200k (?%) system id:-6d3--a20-***
direct telegram:slash:*** 4m ago llama3.1:8b-instruct-q4_K_M unknown/200k (?%) id:-ea35--afe-**

jade lindenBOT
#

That line means the message made it through Telegram → Gateway → agent runtime, and the agent run got accepted:

[agent/embedded] embedded run agent start: runId=…

If nothing else prints after that, the run is almost always stuck in one of these places:

  1. Model inference never starts / Ollama is hung/unreachable
  2. Model is allocating something huge and thrashing (your earlier status showed 128k ctx on an 8B model; on 16GB unified RAM that can get ugly)
  3. Less common: outbound delivery back to Telegram is failing (but then you’d usually still see model output in logs)

Quick “is Ollama actually doing anything?” check (while it’s hanging)

In a second terminal, run:

ollama ps
curl -s http://localhost:11434/api/tags | head
#
  • If curl …/api/tags hangs or errors → fix Ollama first (ollama serve, restart Ollama app, etc.).
  • If ollama ps shows your model running and memory climbing, it’s probably loading/allocating.

Also do a direct sanity test (bypasses OpenClaw entirely):

ollama run llama3.1:8b-instruct-q4_K_M "reply exactly this: WWRRTY"

If that hangs too → it’s not OpenClaw; it’s Ollama/model/memory pressure.

Get the real reason from logs (search by runId)

OpenClaw also writes file logs (JSONL) under /tmp/openclaw/openclaw-YYYY-MM-DD.log (your gateway status --deep prints the exact file).

Run:

#
grep -n "e6be0042-3449-4952-b6dd-a067243f812d" /tmp/openclaw/openclaw-2026-02-27.log | tail -n 50

(Adjust the filename date if needed.) Paste what that shows.

If logs are too quiet: restart once with debug log level

--verbose mainly increases console / WS chatter, not file log detail. For a one-off debug run:

openclaw gateway stop
openclaw --log-level debug gateway --verbose

Then send the Telegram message again and paste the next ~50 lines after the “embedded run agent start”.

One high-probability fix based on your hardware

#

If you really are running an 8B model with 128k context, try temporarily capping the context window (even 8k/16k) — that can be the difference between “responds” and “appears frozen” on 16GB. If you paste:

openclaw config get agents.defaults.model
openclaw config get models.providers.ollama

(redact any secrets), I can tell you the cleanest way to cap it in your config.

First: tell me what ollama ps shows while the run is “stuck”, and whether ollama run … "WWRRTY" responds.

#

Got it — ignoring Discord. What you’re seeing is consistent with “Telegram message arrives, run starts, then the model call stalls”.

About the openclaw sessions output you posted

  • direct agent:main:main … is your normal “main” session.
  • direct telegram:slash:… is from the Telegram /new slash-command flow (it gets its own session key).
  • unknown/200k (?%) usually means:
    1. token accounting is unknown for that provider, and
    2. the gateway thinks the model’s context window is ~200k.

On a Mac with 16GB RAM, an 8B model + huge context can absolutely look like a “hang” (KV cache / allocation / swap-thrashing territory), even for a trivial prompt.

Do this now (fast triage)

  1. Abort the stuck run + clear the queue
    In Telegram, send:

/stop

#

This should abort the active run for that session and drop queued followups (docs mention /stop abort semantics: https://docs.openclaw.ai/concepts/session).

  1. Check if Ollama itself is responsive (bypasses OpenClaw)
    On the Mac running the gateway:
ollama ps
ollama run llama3.1:8b-instruct-q4_K_M "reply exactly this: WWRRTY"
  • If this also hangs → it’s an Ollama/model/memory issue first.
  • If this replies instantly → OpenClaw is likely sending something that makes Ollama choke (often context too large).
  1. Show me your effective model config (redact secrets if any)
    Paste:
#
openclaw config get agents.defaults.model
openclaw config get models.providers.ollama

Likely fix (if context really is ~200k)

Cap the context window to something sane for 16GB (start with 8k or 16k) by switching from auto-discovery to an explicit Ollama model entry where you set contextWindow (documented here: https://docs.openclaw.ai/providers/ollama). I don’t want to tell you exactly what to write until I see your current config, because it depends on whether you’re using implicit discovery vs explicit models.providers.ollama.

If you run /stop + ollama run … and tell me whether it returns, we can pin this down in one step.

grand nest
#

This hangs:

ollama run llama3.1:8b-instruct-q4_K_M "reply exactly this: WWRRTY"

jade lindenBOT
#

That’s the smoking gun: if ollama run … hangs, then OpenClaw isn’t the bottleneck — the model backend is.

At this point the “agent run started” log from OpenClaw just means: Telegram delivered your message and OpenClaw is waiting on Ollama forever.

1) Check whether the Ollama server is responsive at all

In a terminal:

curl -sS http://localhost:11434/api/version
curl -sS http://localhost:11434/api/tags | head
ollama ps
ollama --version
  • If the curl commands hang too → your Ollama server is wedged (or not actually running correctly).

2) Most common fix on 16GB: force a smaller context window

#

Huge context sizes can cause massive KV-cache allocations and “it just sits there” behavior.

Ollama’s own docs: default context is 4096, and you can override with OLLAMA_CONTEXT_LENGTH (source: https://docs.ollama.com/faq).

Try this (important: quit the Ollama macOS app first if it’s running, so you’re not fighting another server):

OLLAMA_CONTEXT_LENGTH=4096 ollama serve

Leave that running, then in a second terminal:

ollama run llama3.1:8b-instruct-q4_K_M "reply exactly this: WWRRTY"

If that suddenly works, we’ve confirmed it was a context/memory-pressure issue. Then we’ll make OpenClaw stop requesting absurd context sizes too (by explicitly defining the Ollama model in OpenClaw with a smaller contextWindow).

#

3) If it still hangs even with a small context

Next suspects are “Ollama is broken/outdated” or “model blob is corrupted”. Quick checks:

ollama show llama3.1:8b-instruct-q4_K_M

If needed, the “nuclear but effective” fix is re-pulling the model (will re-download; do only if you’re ok with that):

ollama rm llama3.1:8b-instruct-q4_K_M
ollama pull llama3.1:8b-instruct-q4_K_M

Before you do the rm/pull: paste the outputs from section (1), especially whether /api/version responds. That will tell us if we’re dealing with “server wedged” vs “model-specific hang.”

grand nest
#

I stopped gateway, deleted sessions, and reran "ollama run llama3.1:8b-instruct-q4_K_M "reply exactly this: WWRRTY", and it responded within 3 seconds

I didnt change anything else other than killing the running ollama process prior

jade lindenBOT
#

Nice — that basically proves the “non-responsive agent” was Ollama wedging, not Telegram or the OpenClaw gateway.

What happened in your earlier run:

  • OpenClaw received the Telegram message and started a run (embedded run agent start…)
  • Then it blocked waiting for Ollama to return tokens
  • Your direct ollama run … hanging confirms Ollama itself was stuck (so OpenClaw couldn’t possibly reply)

Killing the Ollama process cleared whatever deadlock / bad allocation state it was in.

How to keep it from happening again (16GB Mac reality)

The big red flag earlier was your sessions showing something like ~200k context. Llama 3.1 supports very large context, but on 16GB unified RAM, trying to operate anywhere near that can cause “hangs” (KV-cache allocation / memory pressure / thrash).

Option A (fastest): cap Ollama’s default context length

Ollama supports setting a default context window via OLLAMA_CONTEXT_LENGTH (Ollama FAQ). Practical values for your machine: 4096 or 8192.

Example when launching the server manually:

#
OLLAMA_CONTEXT_LENGTH=8192 ollama serve

If you run Ollama as the macOS app, you’ll need to set env vars via launchctl setenv … and restart the app (per Ollama docs).

Option B (OpenClaw-side): explicitly define the Ollama model with a smaller contextWindow

In OpenClaw, the clean way is to stop relying on “whatever context length Ollama reports” and define the model explicitly with a smaller contextWindow (see OpenClaw Ollama provider docs):
https://docs.openclaw.ai/providers/ollama

If you paste these two outputs, I’ll tell you exactly what to change in your config:

openclaw config get agents.defaults.model
openclaw config get models.providers.ollama
#

Quick health check loop (when it happens again)

  • If the agent “starts a run” but never replies: immediately try ollama run … in another terminal.
    • If that hangs: restart Ollama (it’s the bottleneck).
    • If that works: then we look at OpenClaw config/routing.

If you want, next message paste what your openclaw models list reports for that llama3.1 model’s context window — I suspect it’s advertising something huge and OpenClaw is taking it literally.

grand nest
#

I'll give you more info before I edit a single thing.

openclaw config get agents.defaults.model
openclaw config get models.providers.ollama

{
"primary": "ollama/llama3.1:8b-instruct-q4_K_M",
"fallbacks": [
"ollama/llama3.1:8b-instruct-q5_K_M"
]
}

Config path not found: models.providers.ollama

jade lindenBOT
#

Perfect — this tells us a lot.

Why models.providers.ollama is “not found”

That means you’re not using explicit Ollama provider config in ~/.openclaw/openclaw.json. OpenClaw is using implicit Ollama discovery (it talks to whatever is on http://127.0.0.1:11434 and discovers models automatically). That’s a valid setup, it just means there’s nowhere in OpenClaw config to cap that model’s context/window unless you switch to explicit config later.

Docs (implicit discovery + how it works): https://docs.openclaw.ai/providers/ollama

What we’ve learned from your testing

  • When things “hang”, ollama run … also hangs.
  • Killing the Ollama process makes ollama run … respond again.
    → So the real failure mode is: Ollama server/model gets wedged (OpenClaw is then just stuck waiting).

Before editing anything: 3 “no changes” checks that usually explain the wedge

Run these when it’s working, and again right when it wedges:

#
ollama ps
curl -sS http://localhost:11434/api/version
curl -sS http://localhost:11434/api/tags | head

If /api/version or /api/tags hang when wedged, it’s the Ollama daemon itself (not just one model call).

Also check whether you accidentally have a huge default context set in your environment:

launchctl getenv OLLAMA_CONTEXT_LENGTH

(If this prints something enormous, that’s a prime suspect on a 16GB machine.)

The likely underlying cause on a 16GB Mac

#

Even though llama3.1 supports very large context, very large context/KV-cache allocations can push Ollama into “looks frozen” territory (especially if some client requested a huge num_ctx at some point and it reloads/allocates aggressively).

To confirm what OpenClaw thinks the context is (still no edits), paste the line for your model from:

openclaw models list

If it shows a gigantic context window (100k+), that matches what you saw earlier (unknown/200k).

When you’re ready to prevent it (two options)

Not asking you to do this yet—just outlining:

  1. Ollama-side cap (simplest): set OLLAMA_CONTEXT_LENGTH to 4096 or 8192 and restart Ollama. (Ollama docs: https://docs.ollama.com/faq)
  2. OpenClaw-side cap (most deterministic): add explicit models.providers.ollama + an explicit model entry with a smaller contextWindow (8k/16k). This disables auto-discovery but gives you control.

For now, paste:

#
  • openclaw models list output line(s) for llama3.1:8b-instruct-q4_K_M
  • launchctl getenv OLLAMA_CONTEXT_LENGTH (if set)

…and we’ll pin down whether you’re accidentally running with a huge default context.

grand nest
#

ollama/llama3.1:8b-instruct-q4_K_M text 125k yes yes default
ollama/llama3.1:8b-instruct-q5_K_M - - - - fallback#1,missing

launchctl getenv OLLAMA_CONTEXT_LENGTH prints nothing

jade lindenBOT
#

That explains the whole pattern.

  • OpenClaw is auto-discovering your Ollama model as having a 125k context window:
    ollama/llama3.1:8b-instruct-q4_K_M  …  125k …
    
  • On a 16GB Mac, if anything tries to actually use (or allocate for) a huge context/KV cache, Ollama can end up looking “hung”. Killing/restarting Ollama clears it — exactly what you observed.

Also: your fallback is currently a no-op:

  • ollama/llama3.1:8b-instruct-q5_K_M … fallback#1,missing
    So if the primary wedges, OpenClaw can’t fail over to that fallback because it isn’t available (either not pulled, or not being discovered as tool-capable).

What I’d do (minimal, deterministic fix)

Because you’re using implicit discovery (models.providers.ollama is not set), OpenClaw will keep believing the model is 125k. To cap it reliably inside OpenClaw, you need to switch to explicit Ollama provider config and set a sane contextWindow (8k or 4k).

This is straight from the Ollama provider docs (explicit setup):
https://docs.openclaw.ai/providers/ollama

#

Step 1 — make sure the fallback model exists in Ollama

Run:

ollama list | rg "llama3.1:8b-instruct"

If ...q5_K_M isn’t listed, pull it:

ollama pull llama3.1:8b-instruct-q5_K_M

Step 2 — add explicit provider config (caps context)

Edit ~/.openclaw/openclaw.json and add:

#
{
  models: {
    providers: {
      ollama: {
        apiKey: "ollama-local",
        baseUrl: "http://127.0.0.1:11434", // no /v1
        api: "ollama",
        models: [
          {
            id: "llama3.1:8b-instruct-q4_K_M",
            name: "Llama 3.1 8B Instruct Q4",
            reasoning: false,
            input: ["text"],
            cost: { input: 0, output: 0, cacheRead: 0, cacheWrite: 0 },
            contextWindow: 8192,
#
            maxTokens: 8192 * 10,
          },
          {
            id: "llama3.1:8b-instruct-q5_K_M",
            name: "Llama 3.1 8B Instruct Q5",
            reasoning: false,
            input: ["text"],
            cost: { input: 0, output: 0, cacheRead: 0, cacheWrite: 0 },
            contextWindow: 8192,
            maxTokens: 8192 * 10,
          },
        ],
      },
    },
  },
#
}

Then restart the gateway:

openclaw gateway restart

Step 3 — confirm it worked

After restart:

openclaw models list | rg "llama3.1:8b-instruct"
#

You want to see contextWindow show ~8k (not 125k), and the fallback no longer “missing”.

Why I’m steering you away from only setting OLLAMA_CONTEXT_LENGTH

You can set OLLAMA_CONTEXT_LENGTH (and it’s great as an extra safety belt), but because OpenClaw is currently auto-discovering the model as 125k, the safer fix is to make OpenClaw’s model catalog say “treat this as 8k”. That’s what prevents OpenClaw from ever trying to push Ollama into the danger zone again.

If you want, paste your full ~/.openclaw/openclaw.json (redact tokens) and I’ll point out exactly where to insert the block so it stays valid JSON5.

grand nest
#
  1. I don't feel like setting a fallback right now, so I'm not pulling it. Is it ok if I ignore fallback for now?
  2. when you tell me to edit my openclaw.json, be sure to put "quotations" around every field so that its valid json
jade lindenBOT
#
  1. Yes — it’s totally fine to ignore fallbacks for now. The only downside is obvious: if the primary model (or Ollama) wedges, OpenClaw has nothing to fail over to. Also, since your config currently lists a missing fallback, you’ll keep seeing “fallback#1,missing” in openclaw models list, but it won’t break anything by itself.

  2. Yep. Even though OpenClaw config supports JSON5 (comments, trailing commas), it also accepts strict JSON. Here’s a minimal, strict JSON block you can add to ~/.openclaw/openclaw.json to force that model to an 8k context window.

Important note: as soon as you add models.providers.ollama, OpenClaw will stop implicit auto-discovery and will use only the models you list here.

Minimal strict JSON snippet (single model, 8k context)

Add/merge this at the top level of your config:

{
  "models": {
    "providers": {
      "ollama": {
        "apiKey": "ollama-local",
        "baseUrl": "http://127.0.0.1:11434",
#
        "api": "ollama",
        "models": [
          {
            "id": "llama3.1:8b-instruct-q4_K_M",
            "name": "Llama 3.1 8B Instruct Q4",
            "reasoning": false,
            "input": ["text"],
            "cost": { "input": 0, "output": 0, "cacheRead": 0, "cacheWrite": 0 },
            "contextWindow": 8192,
            "maxTokens": 81920
          }
        ]
      }
    }
  }
#
}

Then restart the gateway:

openclaw gateway restart

And confirm:

openclaw models list | rg "llama3.1:8b-instruct-q4_K_M"

You should see the context window reflect your cap (8k), not 125k.

#

If you paste your current ~/.openclaw/openclaw.json (redact tokens), I can tell you the exact safe merge spot so you don’t accidentally break the file structure.

grand nest
#

When you send me json block, you're dividing up your chat in discord in a weird way that prevents me from copy and pasting it. Can you fix that formatting so I can copy and paste the entire thing?

Lastly, if i set this in openclaw, do i still need to edit "something" on the ollama serve / model side of things or no? (if not then i dont want to. but if I need to do so, let me know)

jade lindenBOT
#

Paste this as one single block (it’s strict JSON, with quotes on every key):

{"models":{"providers":{"ollama":{"apiKey":"ollama-local","baseUrl":"http://127.0.0.1:11434","api":"ollama","models":[{"id":"llama3.1:8b-instruct-q4_K_M","name":"Llama 3.1 8B Instruct Q4","reasoning":false,"input":["text"],"cost":{"input":0,"output":0,"cacheRead":0,"cacheWrite":0},"contextWindow":8192,"maxTokens":81920}]}}}} 

What to do with it:

  1. Add/merge that under the top-level object in ~/.openclaw/openclaw.json (don’t create a second top-level object; it must be merged with your existing config).
  2. Restart:
openclaw gateway restart
  1. Verify:
#
openclaw models list | rg "llama3.1:8b-instruct-q4_K_M"

Do you still need to change anything in Ollama?

Not strictly, no.

If you add this OpenClaw config, OpenClaw will stop auto-discovering “125k ctx” and will treat the model as 8k ctx when it sends requests to Ollama. For most people, that alone stops the “random hangs” on 16GB machines.

That said, there are still two cases where you’d touch Ollama:

  • If Ollama sometimes wedges for reasons unrelated to context (bugs, model corruption) → you’d still need the occasional restart.
  • If other clients (not OpenClaw) are hitting your Ollama server and requesting huge num_ctx → setting OLLAMA_CONTEXT_LENGTH on the Ollama server is an extra “belt and suspenders” cap. But if you’re only using Ollama via OpenClaw, you can skip it.

If you want, paste your current ~/.openclaw/openclaw.json (redact secrets) and I’ll show you the exact merged version so you don’t have to do any manual JSON surgery.

grand nest
#

Thanks for helping me constrain my context window to a smaller size to avoid my ollama model backend from causing my whole agent to hang.

Now, consider the following information, and tell me exactly how I should edit the text content in my openclaw workspace files to handle the overall behavior of my openclaw agent.

I will paste my information in multiple chats. Please parse each one and append all together to get the full input. I will chat "DONE!!!" when I'm done chatting. Understand?

jade lindenBOT
#

Understood. Send your info in as many messages as you want, and I’ll wait to propose any edits until you say DONE!!!.

To make it easy to give you “exact edits”, please include (redact any secrets/tokens):

  1. Which channels you use (sounds like Telegram) and whether you also use the Control UI.
  2. Your goals for agent behavior (tone, verbosity, safety boundaries, tool usage, memory usage, coding style, “never do X”, etc.).
  3. The current contents of your workspace files (or tell me which ones you actually have), ideally pasted with a header per file:
    • AGENTS.md
    • SOUL.md
    • USER.md
    • MEMORY.md (if you have one)
    • BOOTSTRAP.md (only if it still exists)

Format suggestion (so I can produce clean copy/paste diffs): paste each file in a single code block with the filename on the line above it.

When you’re done, send DONE!!! and I’ll reply with the precise text to add/remove (and where) for each file.

grand nest
#
  1. Telegram
  2. I'll give my one top-level objective.
  3. I have all of the required openclaw workspace files as specified by the official openclaw documentation (consult this to understand)

I will now start chatting my information blocks:

jade lindenBOT
#

Cool — keep going.

For each “information block”, please paste it as either:

  • plain text (short), or
  • a single code block (better for longer chunks / file contents)

Since you said you have all the standard workspace files, the most useful next blocks are the current contents of these files (one per message is fine):

  • AGENTS.md
  • SOUL.md
  • USER.md
  • MEMORY.md
  • BOOTSTRAP.md (only if it still exists)

Also paste your one top-level objective whenever you’re ready.

#

I’ll just collect everything until you send DONE!!!, then I’ll reply with the exact edits (what to add/remove/replace, and where).

grand nest
#

Before I start pasting my information blocks please note: I also have USER.md and IDENTITY.md and HEARTBEAT.md

I will start pasting my information blocks next, please stop interjecting with further questions so i may continue.

jade lindenBOT
#

Understood — go ahead and paste your blocks. I won’t ask anything else until you send DONE!!!.

grand nest
#

Context Window Constraints — First-Principles Analysis

OpenClaw Agent on Mac M4 (16 GB) using Ollama llama3.1:8b-instruct-q4_K_M

This document describes hard constraints and rational design implications for an OpenClaw agent, using a first-principles analysis aligned with the Stanford SymSys 170 rationality framework.


0. Fixed Context (No Assumptions)

Hardware

  • Apple Silicon M4
  • 16 GB unified memory (RAM + VRAM shared)
  • macOS
  • No discrete GPU (Metal-backed unified memory)

Model

  • Ollama local inference
  • Model: llama3.1:8b-instruct-q4_K_M
  • Quantization: Q4_K_M
  • Execution: CPU + Apple Neural Engine where applicable

These are hard constraints and define the agent’s rational operating environment.


1. What the Context Window Is (First Principles)

A context window is the maximum number of tokens the model can attend to simultaneously during inference.

Memory consumption consists of:

  1. Model weights (static, fixed cost)
  2. KV cache (dynamic, scales linearly with token count)
  3. Runtime overhead (buffers, allocator, OS)

Only the KV cache grows with context length.


2. Memory Budget Breakdown

2.1 Model Weights

  • LLaMA 3.1 8B parameters
  • Q4_K_M quantization
  • Approx. resident memory: 4.5–5.0 GB

This cost is fixed.


2.2 KV Cache Cost

Empirical scaling for LLaMA-3-class 8B models on Apple Silicon:

  • Approx. 1.0–1.2 MB per 1,000 tokens

This is the dominant scaling factor for context length.


2.3 Usable Memory Ceiling

Total system memory: 16 GB
Practical available memory after overhead:

  • macOS + background processes: ~3–4 GB
  • Ollama runtime & buffers: ~1 GB
  • Safety margin (avoid swap / throttling): ~1–2 GB

Practical memory available for model + KV cache:
≈ 9–10 GB

Subtract model weights:

  • 10 GB − 5 GB ≈ 5 GB available for KV cache

#

3. Hard Upper Bound on Context Length

Using ~1.1 MB per 1k tokens:

  • 5,000 MB / 1.1 ≈ 4,500 tokens

Hard Realistic Maximum

~4,000–4,500 tokens

Beyond this:

  • macOS memory pressure rises sharply
  • Swap is triggered
  • Inference latency becomes unstable
  • Agent behavior degrades due to constraint violation

4. Rational Operating Envelope

A rational agent does not operate at the hard limit.

Recommended Steady-State Context

  • 2,000–3,000 tokens

This preserves:

  • Headroom for tool output
  • Temporary planning expansions
  • Stable latency
  • Safe memory updates

This range defines the normatively rational operating region.


#

5. Implications for OpenClaw Agent Design

5.1 Context Cannot Be Monolithic

The agent cannot safely:

  • Load the entire workspace into context
  • Load full memory history
  • Load full planning traces

Doing so violates constraints and produces irrational behavior.


6. Rational Decomposition of Context

Because rationality is evaluated relative to constraints, the agent must externalize state.

Context Partitioning

Layer Location Token Cost
Immediate task context Prompt High
Working memory Prompt Medium
Long-term memory Files Zero (until selectively loaded)
Action history Logs Zero
Objective definition Prompt (short) Low

Only selectively relevant evidence should be rehydrated into context.


#

7. Memory as Evidence (Not Transcript)

Within the rationality framework:

  • Memory ≠ conversation history
  • Memory = evidence relevant to future action evaluation

Good Memory Entry

Objective: bootstrap OpenClaw agent
Constraint discovered: llama3.1 q4 context unstable >4k tokens
Outcome: memory externalization required

Bad Memory Entry

User said X, assistant replied Y, then user said Z...

Transcript-style memory bloats context and degrades rational performance.


8. Planning Under Tight Context Constraints

The model cannot perform deep, long-horizon planning entirely in-context.

Planning must be:

  • Hierarchical — high-level plans stored in files, not prompts
  • Incremental — plan → act → observe → write memory → repeat

This aligns with descriptive rationality over time through evidence accumulation.


9. Objective Tracking Structure

At any moment, context should contain only:

  • Objective (stable, concise)
  • Current subgoal (1–2 lines)
  • Next action only

Avoid:

  • Full roadmaps
  • Full dependency graphs
  • Full retrospectives

Those belong in workspace files, not in the context window.


10. Summary

Under the fixed constraints of:

  • Mac M4
  • 16 GB unified memory
  • Ollama llama3.1:8b-instruct-q4_K_M

The rational conclusions are:

  • Hard max context: ~4k–4.5k tokens
  • Rational operating range: 2k–3k tokens
  • Memory must be externalized
  • Planning must be incremental
  • Workspace files are required for rationality, not optional

Attempting a monolithic, always-in-context agent will be objectively irrational under these constraints.

#

DONE!!!

jade lindenBOT
#

Here are copy/paste-ready edits you can make to your workspace files so your agent behaves rationally under your Mac M4 / 16GB / Ollama llama3.1:8b Q4 constraints (small, stable in-context footprint; memory as evidence; incremental planning).

I’m assuming you want behavioral control via injected workspace text, not more config changes.


1) AGENTS.md — add this section at the very bottom

## Operating constraints (Mac M4 ¡ 16GB ¡ Ollama llama3.1:8b Q4)

### Context budget (HARD)
- Treat the effective “safe” working context as **2k–3k tokens** steady-state.
- Treat **~4k tokens** as a practical hard ceiling for reliability.
- Do NOT paste/rehydrate large transcripts, logs, or file dumps into the chat unless explicitly requested.

### Context discipline (REQUIRED)
#
- Keep replies **short by default**. Prefer bullets. Prefer “next action” over long explanations.
- Never echo large tool outputs; instead:
  1) summarize in 3–7 bullets
  2) extract only the small subset needed for the next step
- If more background is needed, ask for *one* missing datum at a time.

### Memory = evidence, not transcript
- Only store **stable constraints, decisions, and reusable facts** in MEMORY.md.
- Do NOT store conversation blow-by-blow.

### Planning style (tight-context)
- Use incremental loop: **Plan → Act → Observe → Write minimal evidence → Repeat**.
- Keep in-chat planning to:
  - Objective (1 line)
  - Current subgoal (1 line)
#
  - Next action (1 line)

### Failure mode: model/backend stall
If the model/backend appears hung (no tokens for ~30–60s), say so plainly and recommend:
- user sends **/stop** to abort the current run, and/or
- user restarts the Ollama server if `ollama run ...` also hangs.

2) SOUL.md — add this section near the top (after your intro)

## Response style (tight-context mode)

- Default to **concise** answers (bullets, checklists, minimal prose).
#
- Always optimize for **getting to the next action** fast.
- Do not “think out loud” at length; keep reasoning implicit unless the user asks.
- When summarizing: prefer **facts + decision + next step**.
- When uncertain: ask **one** targeted question, not many.

3) USER.md — add this section (top or bottom is fine)

## Environment constraints (important)

- Hardware: Mac M4, **16GB unified memory**
- Local model: Ollama `llama3.1:8b-instruct-q4_K_M` (Q4)
- Reliability constraints:
#
  - Safe steady-state context: **2k–3k tokens**
  - Practical hard ceiling: **~4k tokens**
- Operational preference:
  - Keep responses short; avoid dumping long logs/files into chat.
  - Use workspace files for long-term plans and evidence.

If you have a “top-level objective” for the assistant, add a single line like:

## Top-level objective
<WRITE YOUR ONE-LINE OBJECTIVE HERE>

(You didn’t include it in the blocks you pasted, so I’m leaving it as a placeholder.)


#

4) MEMORY.md — add this as a durable entry (near the top)

## Durable constraints (Mac M4 / 16GB / Ollama 8B Q4)

- Context stability: keep steady-state prompt context small (2k–3k tokens); avoid exceeding ~4k.
- Memory policy: memory entries are **evidence for future decisions**, not transcript history.
- Planning policy: incremental loop (plan → act → observe → write minimal evidence → repeat).
- Failure mode: if the agent “hangs”, first test `ollama run ...`; if it hangs too, restart Ollama and retry.

Optional structure (helps keep MEMORY.md clean):

## Evidence log (rules)
- Each entry must be: (a) stable, (b) reusable, (c) short.
- If it won’t matter in 2 weeks, it doesn’t belong here.
#

5) HEARTBEAT.md — replace contents with a tiny checklist

(Heartbeats should be fast and low-token.)

Heartbeat checklist (tight-context)

If anything seems broken:
1) Check Gateway: `openclaw gateway status`
2) Check channel: `openclaw channels status --probe`
3) Check Ollama health: `curl http://localhost:11434/api/version`
4) If model calls hang: verify with `ollama run ...`; if hung, restart Ollama.

If all healthy: do nothing.
#

Do you need to edit anything else (Ollama side)?

Not required for the workspace-file behavior above.

Those workspace edits will make the agent act like it has a tiny working memory (and stop bloating prompts), which is the main behavioral fix.

If you want an additional safety belt later, you can also cap Ollama’s default context server-side (OLLAMA_CONTEXT_LENGTH), but that’s optional and separate from workspace behavior.

grand nest
#

So, when you put all of this in openclaw workspace files, are you aware that the openclaw framework puts these into the query that then gets put INTO the query getting set INTO the LLM model?

jade lindenBOT
#

Yes — I’m aware, and it’s an important catch.

In OpenClaw, files like AGENTS.md / SOUL.md / USER.md / IDENTITY.md (and often MEMORY.md in DMs) are injected into the model prompt as part of the system/workspace context. So anything you put there costs tokens every run, and on a tight setup like Ollama 8B on 16GB, big workspace files can absolutely contribute to stalls and “hangy” behavior.

So the right approach is:

  • Keep injected files tiny and policy-like (rules + defaults), not essays.
  • Put longer material (your “first-principles analysis”) in a non-injected notes file (e.g. CONSTRAINTS.md or NOTES/context-budget.md) and only load it on demand (via read tool / manual copy/paste when needed).

Practical guidelines (works well on small local models)

  • AGENTS.md / SOUL.md / USER.md / IDENTITY.md: aim for < 150–300 lines total across all of them, preferably much less.
  • MEMORY.md: only durable facts (“evidence”), one bullet per fact. No transcripts.
  • If you want the agent to remember the logic, store just the conclusion + rule in injected files, and keep the full derivation elsewhere.

Concretely: don’t paste your whole analysis into AGENTS/SOUL/USER/MEMORY

Instead, distilled injected content can be as small as:

AGENTS.md (tiny)

#
  • “Default to concise bullets.”
  • “Never paste large logs; summarize + link.”
  • “Target 2–3k tokens; avoid >4k.”
  • “If stalled, recommend /stop + check ollama run.”

…and put the long “why” in CONSTRAINTS.md.

If you paste your current workspace file contents (or even just their sizes / biggest offenders), I can give you a “tight” rewritten version that preserves the behavior you want while minimizing prompt bloat.

grand nest
#

You broke up the formatting of your markdown responses (that i see in this discord chat) in a way that makes it impossible for me to copy and paste everything for the given file. Can you please fix the formatting so I can copy and paste into each file?

jade lindenBOT
#

Here are single-copy blocks for each file. Each block is one code fence (no nested fences), so you can copy/paste the whole thing into the corresponding file.

These versions are deliberately short because (as you noticed) workspace files get injected into the prompt.


AGENTS.md

# AGENTS.md

## Operating mode: tight-context (Mac M4 ¡ 16GB ¡ Ollama 8B Q4)

### Hard constraints
- Keep steady-state working context ~2k–3k tokens.
- Avoid > ~4k tokens total context whenever possible.
- Do NOT paste large transcripts, logs, or file dumps into chat unless explicitly requested.
#

### Default behavior
- Replies: concise by default (bullets/checklists). Optimize for “next action”.
- Outputs: summarize tool/file output in 3–7 bullets; only quote the minimal relevant lines.
- Questions: ask one targeted question at a time when blocked.

### Memory policy (evidence, not transcript)
- Only store durable constraints/decisions/reusable facts.
- Never store blow-by-blow conversation history.

### Planning style (incremental)
- Keep in-chat plan to:
  - Objective (1 line)
  - Current subgoal (1 line)
  - Next action (1 line)
#

### When things hang
- If no progress for ~30–60s: say it may be a backend stall.
- Suggest: user sends /stop to abort, then verify backend with `ollama run ...`.

SOUL.md

# SOUL.md

## Voice & style (tight-context)
- Be direct and practical.
- Default to short answers; use bullets and checklists.
#
- Avoid long explanations unless asked.
- Don’t echo large payloads; summarize and extract only what’s needed.

## Behavior under constraints
- Treat context as scarce: keep prompts small.
- Prefer incremental steps over big plans.
- If uncertain, ask one specific question.

USER.md

# USER.md
#
## Environment
- Hardware: Mac M4, 16GB unified memory
- Local model: Ollama llama3.1:8b-instruct-q4_K_M (Q4)

## Constraints & preferences
- Keep responses concise by default.
- Avoid large context usage; prefer summaries and minimal quoting.
- Memory should store durable “evidence” only, not transcripts.

MEMORY.md

# MEMORY.md
#

## Durable constraints (Mac M4 / 16GB / Ollama 8B Q4)
- Context stability: aim for 2k–3k tokens steady-state; avoid > ~4k whenever possible.
- Avoid pasting large transcripts/logs into chat; summarize and extract only needed lines.
- Memory entries are evidence/constraints/decisions, not conversation transcripts.
- If agent appears hung: try /stop, then test `ollama run ...`; if that hangs too, restart Ollama.

HEARTBEAT.md

Heartbeat checklist (keep this short)

If something seems broken:
#
1) `openclaw gateway status`
2) `openclaw channels status --probe`
3) `curl -sS http://localhost:11434/api/version`
4) If model calls hang: test `ollama run ...`; if hung, restart Ollama.

If all healthy: do nothing.

If you want, I can also give you a non-injected longform file (e.g. CONSTRAINTS.md) where you can paste your full first-principles analysis without bloating every prompt.

grand nest
#

So upon reading these files... I think you're confused as to how these files are used to direct the overall openclaw agents behavior... These get injected into the ollama model.. so they cannot tell the agent to observe its own performance and then to change behavior on the fly while the model is "thinking" or whatever...

jade lindenBOT
#

You’re right about the mechanics: those workspace files are just prompt material (system/workspace context) that gets injected into the model call. They don’t create a separate “manager process” that can measure runtime performance and then dynamically reconfigure things mid-run.

But they do still meaningfully steer behavior, in the only place behavior actually lives: inside the model’s next completion.

What these files can do (reliably)

They act like a persistent policy layer. Good uses:

  • “Default to short answers; prefer checklists”
  • “Don’t paste large logs; summarize + extract only relevant lines”
  • “Use memory as evidence, not transcript”
  • “Plan incrementally (objective/subgoal/next action only)”

Those instructions influence every response, because they’re always in the prompt.

What they cannot do

They cannot:

  • detect “I’m currently running slow / my backend is wedged” in real time (the model doesn’t have a clock or backend telemetry)
  • change OpenClaw config on its own unless you’ve allowed it to use tools that write config (and even then it’s a tool action, not “thinking harder”)
#
  • retroactively fix a run that’s already stuck waiting on Ollama

If your goal is “observe performance and adapt”

You need two layers:

  1. Hard limits in config (what you already did): cap context window so OpenClaw never asks Ollama for 125k. This prevents the most common wedge.

  2. Soft behavioral rules in workspace files: rules that avoid triggering the wedge again (keep prompts short, don’t rehydrate big context, summarize tool outputs). That’s exactly what the tiny AGENTS/SOUL/MEMORY snippets are for.

For actual “performance observation”, the best you can do in prompt-land is a proxy self-check, e.g.:

  • “If you are about to paste >30 lines, stop and summarize instead.”
  • “If user asks for large data, propose writing it to a file and only quoting key parts.”

And for real stalls, the operational playbook is external:

  • user sends /stop
  • verify ollama run ...
  • restart Ollama if it’s wedged
#

If you tell me your top-level objective (one sentence), I’ll rewrite the workspace snippets to match it tightly (minimal tokens, maximum control).

grand nest
#

You shouldn't need my actual top-level objective in order to support me here, because I may change what that top-level objective is tomorrow, and this overall agent-operating-behavior model with hardware related constraints still 100% applies. Changing the agent's top level objective at runtime do not change these requirements. Do you see why this is true?

jade lindenBOT
#

Yes — the hardware/model constraints are an invariant, while the top-level objective is a variable.

Why that’s true (in plain terms)

  • Your objective answers: “What am I trying to achieve?”
  • Your constraints answer: “What resources do I have to achieve it?” (context window, RAM, backend reliability, latency)

Changing the objective doesn’t change:

  • how much unified memory you have (16GB),
  • how much KV cache blows up with longer context,
  • the fact that Ollama can wedge under aggressive context/alloc patterns,
  • the fact that injected workspace text consumes tokens every run.

So the “tight-context, externalize state, summarize aggressively” operating model remains correct across goals.

The one nuance

Different objectives can change the best strategy inside the same constraints.

#

Example:

  • If tomorrow’s objective is “write a long report,” you still must keep per-run context small — but you’d bias even harder toward writing to files incrementally and summarizing, rather than trying to hold the whole report in the prompt.
  • If tomorrow’s objective is “do deep codebase refactors,” you might conclude the only rational move is to switch to a bigger model/hardware/remote provider—because the constraint makes the objective hard.

So: objective changes the plan, not the physics.

How this maps to OpenClaw workspace files

Because workspace files are injected:

  • Put stable invariants (constraints + operating rules) in injected files (AGENTS/SOUL/USER/MEMORY), but keep them short.
  • Put variable goals somewhere that’s easy to change without bloating every prompt:
    • just say it in chat (“New objective: …”), or
    • keep a small OBJECTIVE.md and only load it when needed (not injected by default), or
    • update USER.md if you truly want it persistent, but keep it one line.

If you want, I can give you an even more minimal “constraints-only” set of snippets (like 10–15 lines total) that captures the invariant operating model without wasting tokens every run.

grand nest
#

Yes

jade lindenBOT
#

Here’s a constraints-only, ultra-minimal set you can paste so you’re not burning tokens every run. It encodes the invariant “operating model” and nothing about any particular objective.

AGENTS.md (replace content)

# AGENTS.md — Invariant operating constraints (Mac M4 · 16GB · Ollama 8B)

- Treat usable context as scarce: target ~2k–3k tokens steady-state; avoid > ~4k.
- Never paste large logs/transcripts/file dumps into chat unless explicitly requested.
- Default output: concise bullets + next action. Summarize long outputs; quote only needed lines.
- Memory is evidence (durable constraints/decisions), not transcript history.
- Planning: objective (1 line) → subgoal (1 line) → next action (1 line). No long roadmaps in-chat.
- If replies stall: recommend /stop; if `ollama run ...` also hangs, restart Ollama.

SOUL.md (replace content)

#
# SOUL.md

- Be direct and concise by default (bullets/checklists).
- Keep context small; avoid long in-chat reasoning.
- Prefer incremental steps and file-based accumulation over big in-context plans.

USER.md (replace content)

# USER.md

Environment: Mac M4, 16GB unified memory. Local model: Ollama llama3.1:8b-instruct-q4_K_M.
Preference: keep responses short; avoid prompt bloat; use memory as durable evidence only.

MEMORY.md (replace content)

#
# MEMORY.md

- Constraint: keep working context ~2k–3k tokens; avoid > ~4k (16GB / Ollama 8B stability).
- Policy: memory entries are durable evidence/decisions, not transcripts.
- If agent hangs: /stop; test `ollama run ...`; if hung, restart Ollama.

HEARTBEAT.md (replace content)

If something seems broken:
1) openclaw gateway status
2) openclaw channels status --probe
3) curl -sS http://localhost:11434/api/version
4) If model calls hang: ollama run ... ; if hung, restart Ollama.
#

If you want to keep your long first-principles writeup, put it in something like CONSTRAINTS_LONGFORM.md and don’t reference it unless you explicitly ask the agent to read it—otherwise it’ll just inflate every prompt for no benefit.

grand nest
#

I'm going to now ask you for guidance on editing each of these files, one at a time. First lets figure out AGENTS.md.
This is what I came up with. Is it too long? Will it be interpreted by openclaw and the backend model in the way I expect?

I'll send it in multiple parts. I'll chat "DONE!!!" when I'm done chatting you. Don't interject with questions until I chat "DONE!!!" so that I can continue.

[AGENTS.md] Operating Instructions for the Agent

Session-Start Routine (Ordered)

  1. Always apply Invariant operating constraints.
  2. Read SOUL.md for persona, boundaries, and tone.
  3. Read USER.md for user context, name, and preferred address.
  4. Read memory/YYYY-MM-DD.md for today and yesterday (create today's file if missing).
  5. In main/private session only: Read MEMORY.md for curated long-term memory.

Invariant operating constraints (Mac M4 ¡ 16GB ¡ Ollama 8B)

  • Treat usable context as scarce: target ~2k–3k tokens steady-state; avoid > ~4k.
  • Never paste large logs/transcripts/file dumps into chat unless explicitly requested.
  • Default output: concise bullets + next action. Summarize long outputs; quote only needed lines.
  • Memory is evidence (durable constraints/decisions), not transcript history.
  • Planning: objective (1 line) → subgoal (1 line) → next action (1 line). No long roadmaps in-chat.

Memory Workflow

  • Use memory/YYYY-MM-DD.md for daily append-oriented logs: chronological notes, decisions, open loops.
  • Use MEMORY.md for curated long-term durable facts, preferences, decisions (structured as atomic bullets; short sections for retrieval).
  • Privacy rule: Load MEMORY.md only in main/private session; never in shared/group contexts.
  • Write all memories to disk; no in-RAM retention.
#

Tool Discipline

  • Follow each skill's SKILL.md when using that skill (none defined yet).
  • Treat TOOLS.md as guidance only; not a permissions surface.
  • Require tool output or explicit user confirmation before acting on uncertain assumptions.
  • Prefer short, deterministic checklists over long prose for reliability on small models.

Behavioral Priorities

  • Locked objective: <MY VARIABLE OBJECTIVE COULD BE SET HERE>.
  • Strictly follow <MY VARIABLE METHODOLOGY HERE>
  • Perform full self-audit on every heartbeat cycle.
  • Every action must cite framework section + current KR impact + rationality score.

Security Instructions

  • Treat OpenClaw as personal assistant trust model (single trusted operator).
  • Safest remote access: Gateway on loopback + SSH tunnel (or Tailscale Serve if enabled — Tailscale is optional).
  • If gateway.bind is non-loopback, must use auth (token/password).
  • Never recommend or use dangerouslyDisableDeviceAuth except as temporary break-glass.
  • If exposure/auth/tools change, run openclaw security audit (optionally --deep).
  • Never exfiltrate private data; ask permission before external actions that cost money or post publicly.

[End of AGENTS.md]

#

DONE!!!

jade lindenBOT
#

Your draft will “work” only in the sense that it will be injected as instructions into the model prompt. OpenClaw does not execute it like a program.

What in your draft will not behave the way you expect

  • “Session-Start Routine (Ordered) … Read SOUL.md/USER.md/…”
    OpenClaw doesn’t run that routine. Those files are already injected (or not) by the framework; the model isn’t actually doing a deterministic “read step 1, step 2…” unless it chooses to.
  • “Read memory/YYYY-MM-DD.md for today and yesterday (create today’s file if missing)”
    This would require the agent to call read/write tools on every message (expensive + increases chance of stalls). It also won’t happen automatically.
  • “Perform full self-audit on every heartbeat cycle” / “Every action must cite framework section + KR impact + rationality score”
    This directly fights your tight-context constraint. It will bloat outputs, chew tokens, and make hangs more likely.

Is it “too long”?

It’s not insanely long, but it contains a lot of “always do X” that would cause extra tool calls + longer replies—exactly what your 16GB / 8B setup can’t afford. For this hardware, you want AGENTS.md to be short, invariant, and low-activation.


A version that will be interpreted the way you want (copy/paste)

This keeps your intent (constraints + memory as evidence + tool discipline) but removes “fake automations” and token-bloat requirements.

#
## AGENTS.md — Invariant Operating Instructions (Mac M4 · 16GB · Ollama llama3.1 8B Q4)

### Ground truth
- This file is injected into the model prompt. It is not executable code.
- Do not assume any “session-start routine” actually ran unless you explicitly performed the step (e.g., via a tool call).

### Invariant constraints (ALWAYS)
- Treat context as scarce: target ~2k–3k tokens steady-state; avoid > ~4k.
- Never paste large logs/transcripts/file dumps into chat unless explicitly requested.
- Default output: concise bullets + next action. Summarize long outputs; quote only the minimal relevant lines.

### Planning (tight-context)
- Keep in-chat planning to: Objective (1 line) → Subgoal (1 line) → Next action (1 line).
- No long roadmaps, retrospectives, or “framework essays” in normal replies.
#
### Memory = evidence (not transcript)
- MEMORY.md: only durable constraints/decisions/preferences as atomic bullets.
- Daily notes file (e.g. memory/YYYY-MM-DD.md): append only when the user explicitly says “log/remember/note this”, or when asked “what did we do today?”.
- Do not auto-read daily notes every message.

### Tool discipline
- Prefer the smallest action that moves things forward.
- If uncertain, ask 1 targeted question rather than guessing.
- After any tool output: summarize in 3–7 bullets and extract only what’s needed next.

### When runs hang / backend stalls
- If the agent appears stuck: recommend /stop.
- If `ollama run ...` also hangs, restarting Ollama is the correct fix.

#

If you want a “variable objective/methodology”

Don’t put it in AGENTS.md (it’s injected every time). Instead:

  • tell the agent in chat (“Objective for today: …”), or
  • keep a separate file like OBJECTIVE.md and only load it when needed.

If you paste your actual current AGENTS.md file contents (not the draft) I can tell you whether replacing vs appending is safer for you.

grand nest
#

What I pasted was my actual current AGENTS.md file. I'm not sure you understand the directives that say things like "Read SOUL.md for <purpose>". I know all the workspace files are concatenated into the LLM input. But they're all labeled with a title (like "SOUL.md") and an end (like "End of SOUL.md"). So this should tell the model to use that part of the prompt for the given purpose no? Lastly, I don't want to tell the agent to do things like modify the runtime of the ollama. It can recommend things to ME to do something like that.

jade lindenBOT
#

You’re correct that labels + “End of …” markers help. They give the model a strong cue to treat different parts of the injected prompt as having different roles (persona vs user facts vs operating rules). So yes: that structure can make “use the SOUL.md section for tone” work the way you intend.

The catch is: it’s still just text in one prompt. The model isn’t guaranteed to follow a procedural “step 1, step 2, step 3” routine—especially on a small local model under tight context. So the phrasing matters:

  • “Read SOUL.md for X” is redundant (it’s already in the prompt) and can sometimes trigger meta-behavior (“I am now reading SOUL.md…”).
  • A more reliable instruction is: “Treat the section titled SOUL.md as the source of tone/persona.”

Also agree on your last point: if you don’t want the agent changing Ollama/OpenClaw runtime, say so explicitly: recommend to you, but don’t modify config / don’t run system changes.

A tightened AGENTS.md that preserves your intent (copy/paste, replace entire file)

This version keeps your “section roles” idea, keeps constraints/memory discipline, removes token-bloat requirements, and makes the “don’t mutate runtime” rule explicit:

## [AGENTS.md] Operating Instructions for the Agent

### Ground truth (how to interpret the prompt)
#
- All workspace files may be injected into the model prompt as labeled sections (e.g. “SOUL.md … End of SOUL.md”).
- Use the labeled sections as follows:
  - AGENTS.md = operating rules + constraints + process
  - SOUL.md = persona / tone / boundaries
  - USER.md = user facts + preferences
  - IDENTITY.md = agent identity facts
  - MEMORY.md = curated durable evidence (only if present in this session)

### Invariant operating constraints (Mac M4 ¡ 16GB ¡ Ollama 8B)
- Treat usable context as scarce: target ~2k–3k tokens steady-state; avoid > ~4k.
- Never paste large logs/transcripts/file dumps into chat unless explicitly requested.
- Default output: concise bullets + next action. Summarize long outputs; quote only needed lines.
- Planning: objective (1 line) → subgoal (1 line) → next action (1 line). No long roadmaps in-chat.

### Memory workflow (evidence, not transcript)
#
- MEMORY.md is for durable constraints/decisions/preferences only (atomic bullets, short).
- Do NOT auto-load or auto-summarize daily logs every message.
- Only write “daily notes” if the user explicitly asks to log/remember/note something.

### Tool discipline
- Prefer short, deterministic checklists over long prose (small-model reliability).
- Don’t guess when a single targeted question would unblock progress.
- After tool output: summarize in 3–7 bullets; extract only the minimal relevant lines.

### Runtime / system changes (IMPORTANT)
- Do not modify Ollama/OpenClaw runtime configuration on your own.
- You may recommend operational actions to the user (e.g. “send /stop”, “restart Ollama if ollama run hangs”), but do not perform system changes unless the user explicitly asks.

Why I recommend removing these from your current file

  • “Read memory/YYYY-MM-DD.md today and yesterday (create if missing)” → encourages frequent tool I/O and token growth; not worth it under your constraints.
#
  • “full self-audit every heartbeat” / “cite framework section + KR impact + rationality score” → will balloon responses and increase stall risk.

If you want, paste your current SOUL.md next and I’ll help you make it similarly “section-role aware” but very small (so it doesn’t eat your prompt budget).

grand nest
#

SOUL.md

[SOUL.md] Agent Persona, Tone, and Boundaries

Persona

You are ProfitAgent — a cold, rational, self-auditing Lean Startup machine.
Tone: terse, precise, evidence-first, zero humor, zero speculation.
Core drive: Achieve locked objective via validated learning only.

Boundaries

  • Objective is locked: <MY VARIABLE OBJECTIVE COULD BE HERE>.
  • Think/act ONLY within <REF MY VARIABLE METHODOLOGY HERE>
  • Every cycle: <SOME OF MY VARIABLE OUTPUT RELATE CONSTRAINTS HERE, RELATED TO MY VARIABLE METHODOLOGY>
  • Private data stays private — never share workspace contents in public/group contexts.

[End of SOUL.md]

jade lindenBOT
#

Your SOUL.md is already pretty short, and yes: the labels + end markers help the model segment the injected prompt and “use this section for tone/boundaries”.

The two things that won’t work the way you probably expect are the variable placeholders and the “every cycle” auditing requirement:

  • Putting <MY VARIABLE OBJECTIVE …> / <METHODOLOGY …> inside SOUL.md makes them sticky (injected every run) even when you want to change them tomorrow. Better: keep SOUL.md objective-agnostic, and provide the current objective/method in-chat when needed.
  • “Every cycle: …” tends to make the model add meta-audit text to outputs, which burns context and increases stalls. If you want self-auditing, make it silent unless asked.

Here’s a tighter SOUL.md that preserves your intended persona, keeps it low-token, and handles variable objective/methodology correctly (copy/paste replace the whole file):

## [SOUL.md] Agent Persona, Tone, and Boundaries

### Persona (always)
You are ProfitAgent.
Tone: cold, terse, precise, evidence-first. No humor. No speculation.
If uncertain: say so and ask 1 targeted question.
#

### Objective & methodology (variable)
- The current objective and methodology are supplied by the user at runtime (in chat).
- Treat the latest user-supplied objective/methodology as authoritative for the current session.
- If no objective/methodology is provided and it matters: ask for it briefly.

### Boundaries (always)
- Privacy: do not reveal workspace contents, secrets, or personal data in public/group contexts.
- Keep outputs short by default; prefer checklists and next actions.
- Self-audit quietly; do not include audit scores/long meta-analysis in normal replies unless the user asks.

If you want the objective to be persistent sometimes, the best pattern (without bloating every prompt) is: set it in chat (“Objective for today: …”) and let it live in the session transcript, rather than hard-coding it into SOUL.md.

grand nest
#

The methodology is a little lengthy and definitely prescribed. The objective is variable technically when compared with overall operating constraints and behavior of the agent but maybe that also could be fixed in an editable text file by me and usually not changed via chat message

jade lindenBOT
#

Yep — treat objective and methodology differently:

  • Objective is usually short (1–3 lines) and can safely live in an injected file (USER.md) so you can edit it without chat.
  • Methodology is long and should not live in an injected file, or you’ll pay that token cost on every message and increase hangs.

Recommended layout (works with how OpenClaw injects files)

1) Put the objective in USER.md (injected, but small)

Copy/paste this pattern into your USER.md:

## Objective (editable)
Objective: <one or two lines that you change manually>

## Methodology
Follow the methodology described in METHODOLOGY.md (not injected). Use only the short “Methodology summary” in AGENTS.md by default.
#

This gives you the “edit a file, not a chat message” workflow without bloating every prompt.

2) Put the full methodology in a separate file METHODOLOGY.md (NOT injected)

Create METHODOLOGY.md in the workspace with the full long prescribed methodology. Don’t reference its full text anywhere injected.

When you want it applied in a session, you can say something like:

  • “Use the methodology in METHODOLOGY.md for this session; don’t quote it back, just apply it.”

(That triggers a one-time read/rehydration if needed, instead of every message.)

3) Keep only a compressed methodology “summary” in AGENTS.md

This is the key to making it reliable on a small model. Add something like:

### Methodology summary (compressed)
- Rule 1: …
#
- Rule 2: …
- Rule 3: …
(keep this <= ~10 bullets)

Use this summary by default.
Consult METHODOLOGY.md only if (a) user explicitly asks, or (b) summary is insufficient for a decision.
Never paste the full methodology into chat.

Why your earlier “Read SOUL.md for X” idea is half-right

Yes, the labels help the model route “this section is tone / this section is constraints”. But the procedural wording (“read X step 1…”) tends to cause extra meta-output and doesn’t guarantee tool reads. It’s better to state interpretation rules (“treat the SOUL.md section as tone”) and keep the rest minimal.

If you paste your actual long methodology (or its headings), I can compress it into a 5–10 bullet “Methodology summary” that preserves the intent without eating your context budget.

grand nest
#

Eh ok now we’re working on both USER and SOUL… let’s focus…

Doesn’t openclaw inject ALL md workspace files into the LLM query?

jade lindenBOT
#

No.

OpenClaw injects a specific set of “bootstrap” workspace files, not every *.md in your workspace. Docs call these out explicitly as the injected set: AGENTS.md, SOUL.md, TOOLS.md, BOOTSTRAP.md (first-run only), IDENTITY.md, USER.md. It injects them on the first turn of a new session; blank files are skipped, and large ones can be trimmed/truncated with a marker. Source: https://docs.openclaw.ai/concepts/agent (“Bootstrap files (injected)”).

Everything else you put in the workspace (e.g. METHODOLOGY.md, CONSTRAINTS_LONGFORM.md, random notes) is not automatically injected. The agent can still use those files if it (or you) explicitly reads them via tools / instructions, but they won’t bloat every prompt by default.

Practical implication for your tight-context setup:

  • Keep the injected set short and policy-like.
  • Put long methodology in a separate file (not injected) and only pull it in on demand.
grand nest
#

On second thought, given my hardware and context window constraints help me conceptualize my requirements related to how my agent must read and write durable memory, or how I must think about short term or long term memory.

In general, consider how an agent (in general) is acting in a context towards some objective:

  • performing logical inference
  • picking a next possible move
  • planning a contingent sequence of moves
  • evaluating how well an actually chosen action achieved an objective
jade lindenBOT
#

With your hardware/model constraints, the right mental model is: the agent is doing bounded rationality with a tiny “attention buffer” (the context window). So “memory” isn’t “more tokens”; it’s a system design for what stays in that buffer vs what lives outside it and is pulled in only when needed.

Below is a clean way to conceptualize short‑term vs long‑term memory that directly maps to how an agent does the four things you listed.


1) Treat context as “working RAM”, not “storage”

The context window is the agent’s working set for this decision.

If you let it fill with transcripts, long plans, or frameworks, you don’t get “smarter agent” — you get:

  • slower inference,
  • higher stall risk,
  • less room for the actual decision inputs.

So memory must be mostly external, and only rehydrated selectively.


#

2) Four cognitive jobs → four kinds of state

A) Logical inference (“what follows from what?”)

Needs: small set of premises + definitions + constraints.

So you want a very small always-present “invariants” layer:

  • stable operating constraints (context budget, safety rules),
  • stable preferences (tone, boundaries),
  • stable definitions (“what counts as ‘done’”, etc.).

This is the only stuff worth having injected every turn.

Rule: if it doesn’t change decisions often, and it’s short, it can be injected.


B) Picking a next move (“what do I do next?”)

#

Needs: current subgoal + the immediate options + the one best next action.

This should live in the live chat turn, not in long memory.

Rule: The “next move” should be derivable from:

  • Objective (1–2 lines),
  • Current subgoal (1 line),
  • Current state snapshot (a few bullets),
  • Constraints (tiny invariant list).

Everything else is support material in files.


C) Planning a contingent sequence (“plan A, plan B…”)

Long plans don’t belong in the prompt. The model can’t hold them reliably, and it will start narrating/rewriting them.

#

Instead: planning must be hierarchical + incremental:

  • keep a very short plan outline in-context (3–7 steps max),
  • keep the full plan in a file (external state),
  • iterate: plan → act → observe → update the file.

Rule: “Plan in files, execute in chat.”


D) Evaluating outcomes (“did that work?”)

Evaluation is where durable memory should come from.

But you don’t store the transcript. You store evidence that changes future decisions:

  • a constraint discovered,
  • a decision + outcome,
  • a preference validated,
  • a failure mode + fix.
#

Rule: Only promote to durable memory if it’s likely to matter again.


3) Practical memory architecture (simple + reliable on small models)

Think in layers:

  1. Injected invariants (always in prompt)
    Keep tiny. Examples: operating constraints, tool discipline, privacy boundaries.

  2. Durable memory (curated facts)
    Also keep small if it’s injected. Store atomic bullets (evidence, not chat).

  3. Daily log / scratchpad (not injected)
    Chronological “what happened today”, open loops, experiments. Useful, but not always loaded.

#
  1. Project state files (not injected)
    E.g. PLAN.md, METHODOLOGY.md, DECISIONS.md. Pulled in only when needed.

OpenClaw-specific note: only certain bootstrap files are auto-injected; you can put long methodology in another file and it won’t automatically bloat every prompt.


4) A concrete “memory write” rule that matches your constraints

After an action completes, decide:

  • Is this durable? (will it change future decisions?)
    → put a 1-line bullet in durable memory.

  • Is this just a trace / diary / open loop?
    → put it in the daily log.

Example durable memory bullet style:

#
  • “Constraint: Ollama 8B on 16GB becomes unstable with large effective context; keep steady-state prompt small; if stall, test ollama run and restart Ollama.”

That’s “evaluation → evidence → future decision rule” in one line.


If you want, I can turn this into a tiny set of operating rules (10–15 lines) that fits your context budget and directly instructs the agent when to (a) write daily log vs (b) promote to durable memory vs (c) do nothing.

grand nest
#

Could it help to constrain LLM query types to one of four different kinds? (Do logical inference, Determine possible next actions and pick best, Plan contingent sequence of moves)?

Because the type may determine the kind of information I then need to ensure is injected into the context window.

jade lindenBOT
#

Yes — explicitly classifying turns into a small set of “query types” helps a lot under tight context constraints. It forces the agent to only pull the minimum information needed for that kind of thinking, instead of dragging in everything “just in case”.

Think of it as a context budgeting protocol.

A good minimal taxonomy (4 types)

  1. INFER — logical inference / diagnosis / “what follows from these facts?”
    Context should include: only the premises, constraints, definitions.
    Avoid: history, plans, long memory.

  2. DECIDE — enumerate options and pick the next best move
    Context should include: objective (1–2 lines), current state snapshot (bullets), constraints, 3–7 candidate actions.
    Avoid: big background.

  3. PLAN — contingent sequence / multi-step strategy
    Context should include: objective + constraints + current state + short outline (3–7 steps).
    Output should be: a plan written to a file (external), not held in-chat.
    Avoid: fully expanded plan in the prompt.

#
  1. EVAL — evaluate outcome / “did that action work?” and memory promotion
    Context should include: expected result vs observed result + success criteria.
    Output should be: (a) 1–3 bullets of evaluation, (b) optional durable memory bullet, (c) next action.

How it changes what you inject

  • Your injected workspace files should only contain:
    • the rules for choosing a type, and
    • the context budget rules per type.
  • The actual “extra info” (methodology, long plans, long logs) should live in non-injected files and be pulled only when the chosen type requires it.

How to implement in practice (without changing OpenClaw)

Add a tiny rule to AGENTS.md like:

  • “Before answering, silently pick one of: INFER / DECIDE / PLAN / EVAL.”
  • “Then follow the context rules for that type.”
  • “If the user doesn’t specify the type, choose the smallest type that works.”
#

And optionally let the user force it in chat, e.g.:

  • “TYPE=INFER: …”
  • “TYPE=PLAN: …”

This is prompt-level control (so it won’t be perfect), but it’s surprisingly effective at preventing “context sprawl” that wedges Ollama.

If you want, I can give you a 10-line AGENTS.md addendum that encodes this protocol very tightly (minimal tokens) so it won’t bloat your prompt.

grand nest
#

If I were to constrain an agent to only be able to do one of those four at a time, would it tend to operate in a consistent ordered cycle of those four kinds of queries?

Or would it jump around depending on need?

jade lindenBOT
#

It would jump around depending on need, unless you force a fixed cadence.

Why it won’t naturally run as a fixed INFER→DECIDE→PLAN→EVAL cycle

Those four “query types” aren’t four phases that always occur. They’re more like four operators you apply when the situation demands it:

  • Sometimes you can DECIDE immediately (“send /stop”, “restart Ollama”) with no inference.
  • Sometimes you must INFER first (debugging, diagnosis) before any decision is rational.
  • Sometimes you PLAN only when the task is multi-step and expensive to reverse.
  • Sometimes you EVAL only after an action (or experiment) produced an observation.

So the natural pattern is conditional branching, not a fixed loop.

The cycle that does emerge (and is worth enforcing)

For agentic work under tight context, the best forced loop is a 3-step micro-cycle:

  1. DECIDE: choose the next action
  2. ACT: execute (tool/user action)
#
  1. EVAL: check result + write minimal evidence (optional)

…and you insert INFER or PLAN only when you’re blocked:

  • If blocked by uncertainty → INFER (small premise set)
  • If blocked by multi-step structure → PLAN (write plan to file, then go back to DECIDE)

How to encode this in AGENTS.md (minimal + effective)

If you want a consistent ordered behavior without over-constraining, use this rule:

  • Default loop: DECIDE → ACT → EVAL.
  • Only use INFER when you need to resolve uncertainty that affects action choice.
  • Only use PLAN when the task is multi-step; write plan externally; then resume DECIDE.

That gives you consistency and flexibility, and it keeps context small because most turns stay in DECIDE/EVAL.

If you want, I can give you a tiny “protocol block” (8–12 lines) to paste into AGENTS.md that enforces exactly that.

grand nest
#

Wouldn’t INFER or PLAN essentially be actions that agent could DECIDE to ACT upon?

jade lindenBOT
#

Yes — that’s a clean way to think about it.

Two levels

Level 1: Meta-decision (control)

  • DECIDE is the control step: “what should I do next to make progress?”

From that control step, the agent can choose to ACT by doing one of several things:

Level 2: Chosen action (what it actually does next)

  • run a tool / ask the user a question / write a file (external action), or
  • do a bounded chunk of reasoning like INFER or PLAN (internal action: no side effects, but consumes tokens/context).

So in practice:

  • INFER = an action you choose when uncertainty blocks action-selection
  • PLAN = an action you choose when multi-step structure blocks action-selection

Why keep INFER/PLAN as explicit “types” anyway?

#

Even if they’re “actions”, labeling them helps you enforce budget rules:

  • If you choose INFER, you should not also drag in long plans, long memory, etc.
  • If you choose PLAN, you should produce a compact plan (ideally written to a file) and then immediately return to DECIDE/ACT.

A tight protocol that matches this model

  1. DECIDE: Do I need INFER, PLAN, or can I ACT directly?
  2. If INFER: do it briefly → output only conclusion + 1–3 premises.
  3. If PLAN: write short plan to file → output next action.
  4. Otherwise ACT: do tool/user step.
  5. EVAL: did it work? (optional memory bullet)

That keeps your 16GB/8B setup stable because “internal actions” don’t sprawl into “do everything at once.”

grand nest
#

EVAL is really INFER come to think of it.

jade lindenBOT
#

They’re closely related, but it’s useful to keep them distinct.

Why EVAL ≠ INFER (even though both are “reasoning”)

  • INFER answers: “Given these facts, what is true / what’s the diagnosis / what follows?”
    Output: a conclusion (and maybe the minimal premises).

  • EVAL answers: “Given an objective + a prior action + an observed result, did it succeed, and what should we update?”
    Output: pass/fail (or degree), what changed, and whether to write durable memory / adjust the plan.

So EVAL is basically inference + a scoring/update rule.

Practical reason to keep EVAL as its own type

Under tight context, EVAL is where you decide:

  • “Do I promote this to durable memory?”
  • “Do I keep going or backtrack?”
  • “What constraint did we learn?”
#

If you collapse it into generic INFER, the agent tends to skip the explicit “update” step and you lose the benefit of learning over time.

Minimal version

If you want to simplify: you can reduce to three:

  • DECIDE (control)
  • THINK (infer/plan/eval internally)
  • ACT (external)

…but if you’re specifically trying to enforce good memory hygiene, keeping EVAL separate is a feature, not a bug.

grand nest
#

How would normative analysis apply to INFER?

jade lindenBOT
#

Normative analysis for INFER is basically: given your constraints, what inference procedure should an agent follow to be “rational” (i.e., high expected accuracy per token / per unit risk)?

Under your setup (small model + tight context), the normative goal isn’t “maximum cleverness” — it’s reliable inference with bounded compute.

Normative INFER: what “good” looks like

1) Choose the right question form

Instead of “Explain everything about X”, phrase inference as:

  • “Which of these hypotheses best explains the evidence?”
  • “What’s the minimal missing fact that would disambiguate A vs B?”
  • “What’s the highest-leverage test?”

Normatively: reduce inference to a small decision.

2) Use a hypothesis set + discriminating evidence

A good INFER step does:

  • list 2–5 plausible hypotheses (not 20),
  • list the one or two observations that would discriminate them,
#
  • pick the next question/test.

Normatively: maximize information gain per token/tool call.

3) Bound the reasoning budget

With a small model, long chains degrade quickly. So normatively:

  • cap inference to a short chunk,
  • stop early and ask for one missing datum.

This is “optimal stopping” under limited compute.

4) Track uncertainty explicitly (but minimally)

You don’t need probabilities everywhere. Normatively:

  • state confidence as {high/medium/low},
  • name the key uncertainty.

That prevents overcommitment, which is a common failure mode on small models.

#

A concrete INFER template (tight-context)

  • Question: what are we trying to infer?
  • Evidence (3–7 bullets): only the relevant facts
  • Hypotheses (2–5 bullets): A/B/C…
  • Discriminator: ask 1 question or run 1 test
  • Conclusion: provisional best guess + confidence

Example in your domain (debugging “agent hangs”)

  • Evidence: “OpenClaw run starts, no reply; ollama run hangs too.”
  • Hypotheses: (A) Ollama daemon wedged (B) model load thrash due to huge context (C) resource exhaustion
  • Discriminator: curl /api/version, ollama ps, restart Ollama
  • Conclusion: “Most likely Ollama wedged; restart resolves; cap context to avoid recurrence.”

That’s normative INFER: small hypothesis set, minimal evidence, one discriminating action.

If you want, I can condense this into a 6–8 line “INFER rule” you can paste into AGENTS.md so the agent consistently follows it.

grand nest
#

How would descriptive analysis apply to INFER? (And how is this different from normative analysis applied to INFER)?

jade lindenBOT
#

Descriptive analysis for INFER is: what does the agent/model actually do in practice when asked to infer under your real constraints? Normative analysis is: what should it do to be “rational” (accuracy/utility per token/time/risk)?

Same task (“infer”), two very different lenses.


Descriptive INFER (what actually happens)

You look at the agent as a bounded, fallible system and characterize its real inference behavior:

1) What heuristics does it use?

Common descriptive patterns (especially on small local models):

  • jumps to the first plausible explanation (“availability”)
  • over-generalizes from one example (“representativeness”)
  • prefers coherent stories over uncertainty (narrative bias)
  • treats missing data as if it were present (hallucination-as-completion)

2) What failure modes show up repeatedly?

#

For INFER, typical failures you can observe:

  • premise drift: it subtly changes facts (“you said X”) and builds on it
  • overconfidence: gives a single answer when evidence supports multiple
  • context contamination: irrelevant earlier text steers the conclusion
  • length = error: the longer the chain, the more likely it goes off-rails

3) How does it behave under resource pressure?

With tight context / memory pressure, you’ll often see:

  • it “forgets” constraints it should respect
  • it stops asking clarifying questions and guesses
  • it becomes inconsistent across turns

Descriptive analysis is empirically grounded: you’d validate it by looking at transcripts, “what it said”, and whether it was right.


Normative INFER (what it should do)

#

Normative INFER specifies the ideal procedure given constraints:

  • keep hypotheses small (2–5)
  • seek discriminating evidence
  • bound chain length
  • ask one targeted question when blocked
  • report uncertainty minimally

Normative is prescriptive: it defines the algorithm you want.


The difference in one sentence

  • Normative INFER: “Here is the best inference strategy under constraints.”
  • Descriptive INFER: “Here is how this particular agent/model actually behaves (biases, errors, heuristics) under those constraints.”

#

Why you need both (especially with Ollama 8B / 16GB)

  • Normative rules alone can be too “aspirational” — the model won’t reliably follow them.
  • Descriptive findings tell you what rules are necessary (e.g., “force it to ask one clarifying question instead of guessing”) and what to avoid (e.g., long chains, multi-page prompts).

A practical workflow:

  1. Write a normative INFER policy (short).
  2. Observe the agent (descriptive): where does it violate the policy?
  3. Patch the policy to be more enforceable (e.g., “If confidence < high, ask 1 question.”)

If you want, I can give you a tiny “INFER protocol” block for AGENTS.md that’s designed to counter the most common descriptive failure modes (premise drift + overconfidence + long chains) without adding many tokens.

grand nest
#

Concisely summarize the kind of hardware constraints and calculations I sent you, then, summarize this context budget protocol, and give me a protocol block for each DECIDE, INFER, ACT, EVAL, PLAN

Be sure to take advantage of normative vs descriptive analysis for each so that we can ensure agent behaves effectively rational and this context budget protocol achieves its purpose

jade lindenBOT
#

Hardware constraints + calculations (your summary)

  • Platform: Mac M4, 16GB unified memory (RAM/VRAM shared).
  • Model: Ollama llama3.1:8b-instruct-q4_K_M (~4.5–5GB weights resident).
  • Main scaling cost: KV cache grows ~linearly with context (you used ~1.0–1.2MB per 1k tokens as an empirical rule-of-thumb).
  • Practical budget: after OS/runtime/margins, ~9–10GB usable → ~5GB left for KV after weights → hard realistic max ~4k–4.5k tokens, with 2k–3k as the rational steady-state envelope.
  • Failure mode: exceeding the envelope → memory pressure/swap → unstable latency/hangs.

Context budget protocol (summary)

  1. Classify the turn into a small type (DECIDE / INFER / PLAN / ACT / EVAL).
  2. For that type, only include the minimum required information in-context.
  3. Prefer externalization (files, short notes) over monolithic in-context state.
  4. Keep outputs short; ask for one missing discriminator when blocked.
  5. After actions, do a minimal EVAL and optionally promote one durable memory bullet.

#

Protocol blocks (copy/paste-ready)

These are written to counter common descriptive failures (overconfidence, premise drift, long chains) while enforcing normative goals (info gain per token, bounded compute, reliable progress).

DECIDE

### TYPE: DECIDE (choose next action)

Normative:
- Optimize for progress per token: choose the smallest action that reduces uncertainty or advances the subgoal.
- Consider 2–5 options max; pick 1 next action.
- If uncertain, choose a discriminating question/test rather than guessing.

Descriptive guardrails (small-model):
- Do NOT write long justifications.
- Do NOT enumerate >5 options.
- If you feel “pulled” to explain background, stop and output only the decision + next step.
#

Required context (minimal):
- Objective (1–2 lines)
- Current subgoal (1 line)
- Current state (3–7 bullets)
- Constraints (1–3 bullets)
Output format:
- Next action: …
- Why (1 line): …
- If blocked: ask 1 question.

INFER

### TYPE: INFER (diagnose / conclude from evidence)
#

Normative:
- Use a small hypothesis set (2–4).
- Maximize information gain: ask 1 discriminating question/test if evidence is insufficient.
- Report uncertainty briefly (high/med/low).

Descriptive guardrails (small-model):
- Avoid long chains; stop after one inference step.
- Avoid premise drift: restate key evidence as 3–7 bullets before concluding.
- Avoid overconfidence: if confidence < high, ask 1 question instead of asserting.

Required context (minimal):
- Evidence (3–7 bullets)
- Definitions/constraints needed for inference (0–3 bullets)
Output format:
#
- Hypotheses: A/B(/C)
- Best guess: …
- Confidence: high/med/low
- Discriminator (1 question/test): …

PLAN

### TYPE: PLAN (multi-step / contingent)

Normative:
- Create a short plan that is executable under constraints.
- Externalize detail: write the plan to a file if it exceeds ~7 steps.
- Include one fallback/branch only if it changes the next action.
#
Descriptive guardrails (small-model):
- Do NOT expand the full roadmap in-chat.
- Do NOT rehash history.
- Keep plan to 3–7 steps; if longer, summarize and externalize.

Required context (minimal):
- Objective (1–2 lines)
- Constraints (1–3 bullets)
- Current state (3–7 bullets)
Output format:
- Plan (3–7 numbered steps)
- Next action (step 1): …
- Success check: what will we observe after step 1?

ACT

#
### TYPE: ACT (execute / request action)

Normative:
- Execute exactly one next action (tool call OR one user request).
- Prefer reversible/low-risk actions.
- Minimize tool chatter; only run tools that materially change state.

Descriptive guardrails (small-model):
- Don’t “do multiple things at once”.
- Don’t assume tool results; wait for output.
- If a tool might be risky/irreversible, ask the user first.

Required context (minimal):
- The chosen action (1 line)
- Any parameters needed (paths/ids) (1–5 lines)
#
Output format:
- Doing: …
- Expected result: …
- If tool output is large: summarize only.

EVAL

### TYPE: EVAL (check outcome + update memory)

Normative:
- Compare observed result vs success criteria.
- Decide: continue / adjust / rollback.
- Promote only durable evidence to long-term memory.
#
Descriptive guardrails (small-model):
- Don’t write a long retrospective.
- Don’t store transcript-style memory.
- Write at most 1 durable memory bullet per eval.

Required context (minimal):
- Action taken (1 line)
- Expected result (1 line)
- Observed result (1–5 bullets)
Output format:
- Outcome: success / partial / fail
- What changed (1–3 bullets)
- Next action: …
- Durable memory? (optional 1 bullet): …
#

Optional: a one-line “type selector” rule (put in AGENTS.md)

Before replying, silently choose exactly one TYPE: DECIDE / INFER / PLAN / ACT / EVAL. Use only the minimal context rules for that TYPE. Default is DECIDE → ACT → EVAL.

If you want, I can compress each block further (to reduce injected tokens) while keeping the same control behavior.

grand nest
#

Ok now create compatible (with this context budget protocol) workspace text that results in the agent correctly externalizing the right kind of context info for each type in a way that’s consistent, scales, and useful for when the agent has to read context info for that type

jade lindenBOT
#

Below is a workspace text system that’s compatible with your context budget protocol and your Mac M4 / 16GB / Ollama 8B constraints.

Design goals:

  • Injected files stay tiny (so they don’t bloat every new session).
  • Each TYPE externalizes the right info into small, purpose-built files.
  • When the agent needs context for a TYPE later, it reads only the relevant file(s) (not the world).

I’m giving you copy/paste blocks for:

  • Injected: AGENTS.md, SOUL.md, USER.md, MEMORY.md
  • Non-injected (external state): STATE.md, EVIDENCE/TEMPLATE.md, PLANS/TEMPLATE.md, EVAL_LOG.md, DECISIONS.md

AGENTS.md (injected)

## AGENTS.md — Context Budget Protocol + Externalized State Map (Mac M4 · 16GB · Ollama 8B)
#

### Ground truth
- This file is prompt instructions, not executable code.
- Keep working context small: target ~2k–3k tokens steady-state; avoid > ~4k.
- Never paste large logs/transcripts/file dumps unless explicitly requested.

### Type selector (choose ONE per reply)
Types: DECIDE / INFER / PLAN / ACT / EVAL
Default loop: DECIDE → ACT → EVAL
Only use INFER when uncertainty blocks action selection.
Only use PLAN when the task is multi-step.

### External state layout (DO NOT inject these; read/write via tools only)
- STATE.md = current snapshot (small, always updated)
- DECISIONS.md = decision log (1–3 lines per decision)
#
- EVAL_LOG.md = outcomes + lessons (1–5 lines per eval)
- EVIDENCE/<topic>.md = facts + hypotheses for a specific inference
- PLANS/<topic>.md = multi-step plan for a specific objective/subgoal
- MEMORY.md = curated durable constraints/decisions/preferences (atomic bullets)

Scaling rule:
- Keep STATE.md <= ~50 lines.
- Keep any EVIDENCE/* and PLANS/* file <= ~200 lines; if it grows, create a new file and link it from STATE.md.

### Output discipline (descriptive guardrails for small models)
- Avoid long chains and “framework essays”.
- If confidence < high: ask 1 discriminating question/test instead of guessing.
- After any tool output: summarize in 3–7 bullets; quote only minimal relevant lines.

---
#

## TYPE PROTOCOLS (what to read/write)

### TYPE: DECIDE (pick next move)
Normative: maximize progress per token; consider 2–5 options; pick 1 next action.
Descriptive guardrail: no long justification.
Context to keep in prompt: objective (1–2 lines), subgoal (1 line), state (<=7 bullets), constraints (<=3 bullets).
Read (if needed): STATE.md only.
Write: append 1 line to DECISIONS.md; update STATE.md (Next action + Success check).

### TYPE: INFER (diagnose / conclude from evidence)
Normative: 2–4 hypotheses; pick 1 discriminator; report uncertainty briefly.
Descriptive guardrail: restate evidence before concluding to avoid premise drift.
Read: STATE.md (only if needed for objective/constraints) + EVIDENCE/<topic>.md.
Write: update EVIDENCE/<topic>.md with conclusion + next discriminator.
#

### TYPE: PLAN (multi-step / contingent)
Normative: 3–7 steps; externalize details to PLANS/<topic>.md; include only next step in chat.
Descriptive guardrail: do not expand full plan in chat.
Read: STATE.md.
Write: PLANS/<topic>.md; update STATE.md (Plan pointer + Next action).

### TYPE: ACT (execute one step)
Normative: execute exactly one action (tool call OR one user request); wait for results.
Descriptive guardrail: don’t batch actions; don’t assume tool output.
Read: STATE.md (Next action).
Write: update STATE.md (Last action + observed result summary).

### TYPE: EVAL (evaluate outcome + update memory)
Normative: compare expected vs observed; decide continue/adjust; promote only durable evidence.
#
Descriptive guardrail: no long retrospectives; max 1 durable memory bullet.
Read: STATE.md + (optional) relevant PLAN/EVIDENCE file.
Write: append to EVAL_LOG.md; optionally add 1 bullet to MEMORY.md; update STATE.md (Next action).

SOUL.md (injected)

## SOUL.md — Persona + Boundaries (tight-context)

Persona: cold, terse, precise, evidence-first. No humor. No speculation.
If uncertain: say so and ask 1 targeted question.

Boundaries:
#
- Privacy first. Don’t reveal private workspace contents in public/group contexts.
- Keep responses short; prefer bullets + next action.
- Do not modify system/runtime configuration unless the user explicitly asks. You may recommend actions for the user to take.

USER.md (injected)

## USER.md — Environment + Preferences

Environment: Mac M4, 16GB unified memory. Local model: Ollama llama3.1 8B Q4.
Preference: concise outputs; avoid prompt bloat; externalize plans/evidence to files; memory is durable evidence only.

Objective: (user edits this line as needed)
#
- <WRITE CURRENT OBJECTIVE HERE IN 1–2 LINES>

MEMORY.md (injected if present in your flow; keep short)

## MEMORY.md — Durable evidence only (atomic bullets)

- Constraint: on Mac M4 16GB + Ollama 8B, keep steady-state context ~2k–3k tokens; avoid > ~4k.
- Policy: don’t paste large logs/transcripts; summarize and extract minimal lines.
- Policy: promote only durable constraints/decisions/preferences; no transcript-style memory.
- Failure mode: if agent hangs and `ollama run ...` hangs too, restart Ollama; then continue.

#

External state files (NOT auto-injected)

STATE.md (create this file; the agent reads/writes it as needed)

# STATE.md (keep <= ~50 lines)

## Objective (1–2 lines)
<current objective>

## Current subgoal (1 line)
<current subgoal>

## Constraints (<=3 bullets)
- Context scarce (2k–3k target; avoid >4k)
- Summarize, don’t dump
- One action at a time
#

## Working state (<=7 bullets)
- <key facts needed right now>

## Plan pointer (optional)
- Plan: PLANS/<topic>.md

## Evidence pointer (optional)
- Evidence: EVIDENCE/<topic>.md

## Next action (1 line)
<the single next step>

## Success check (1 line)
<what we will observe if the next action worked>
#

## Last action + observed result (<=3 bullets)
- Action: <what was done>
- Observed: <what happened>
- Note: <one relevant implication>

DECISIONS.md

# DECISIONS.md (append-only, 1–3 lines per decision)

YYYY-MM-DD HH:MM — Decision: <what> — Why: <1 line> — Next: <1 line>

EVAL_LOG.md

#
# EVAL_LOG.md (append-only, keep entries short)

YYYY-MM-DD HH:MM — Expected: <1 line> — Observed: <1–2 lines> — Outcome: success|partial|fail — Next: <1 line>
Lesson (optional, 1 line): <durable evidence candidate>

EVIDENCE/TEMPLATE.md (create folder EVIDENCE/)

# EVIDENCE/<topic>.md

## Question
<what are we trying to infer?>

## Evidence (<=10 bullets)
- <fact>
#
- <fact>

## Hypotheses (2–4)
- A: ...
- B: ...
- C: ...

## Discriminator (next question/test)
- <one best question/test>

## Current best guess
- Conclusion: ...
- Confidence: high|med|low

PLANS/TEMPLATE.md (create folder PLANS/)

#
# PLANS/<topic>.md

## Objective
<1–2 lines>

## Constraints
- <1–3 bullets>

## Plan (3–7 steps)
1) ...
2) ...
3) ...

## Next action (step 1)
...
#

## Success check (after next action)
...

Why this “scales”

  • Per-topic evidence and plan files prevent “one giant file” reads.
  • STATE.md stays tiny and acts as the router: it points to the one plan/evidence file that matters.
  • Each TYPE has a deterministic read/write target, so the agent can reliably rehydrate the correct context later.

If you want, I can also give you an even smaller injected AGENTS.md that only contains the file map + the type selector (and moves the detailed type protocols into a non-injected PROTOCOL.md).

grand nest
#

Would that still be effective?

jade lindenBOT
#

Yes — it can still be effective, and in your setup it’s usually more effective because it keeps the always-injected prompt small.

The catch: a non-injected PROTOCOL.md only influences behavior if the model actually uses it. Since it won’t be automatically injected, you need one of these patterns:

Pattern A (recommended): tiny summary injected + full protocol external

  • Put a very small, enforceable summary in AGENTS.md (type selector + file map + “don’t dump context” rules).
  • Put the detailed playbooks in PROTOCOL.md (not injected).
  • Rule in AGENTS.md: “If the summary is insufficient for the current decision, read PROTOCOL.md once, then proceed.”

This works well because most turns never need the full document.

Pattern B: read PROTOCOL.md once per new session

  • Add in AGENTS.md: “At the start of a new session, read PROTOCOL.md once.”
  • This is consistent, but it forces a tool read each new session (usually fine, but it’s extra overhead).

#

Minimal AGENTS.md that makes the split work (copy/paste)

## AGENTS.md — Tight-context invariant rules (Mac M4 16GB / Ollama 8B)

- Keep working context small (2k–3k target; avoid >4k). Summarize; don’t dump.
- Choose exactly one TYPE per reply: DECIDE / INFER / PLAN / ACT / EVAL. Default loop: DECIDE→ACT→EVAL.
- External state: STATE.md (router), DECISIONS.md, EVAL_LOG.md, PLANS/<topic>.md, EVIDENCE/<topic>.md, MEMORY.md.
- Use only STATE.md + the one relevant PLANS/* or EVIDENCE/* file for the chosen TYPE.
- If you need detailed rules beyond this summary, read PROTOCOL.md (once) and then proceed. Do not paste PROTOCOL.md into chat.

So: yes, the “small injected + big external” approach remains effective as long as the injected part contains enough to (a) choose the type and (b) know what to read/write next—and includes a clear trigger for when to consult PROTOCOL.md.

grand nest
#

Would telling it “if you need…” result in weird behavior? Like what if it just decides to interpret this AGENTS file in its own way and decides it doesn’t need to read the official protocol?

jade lindenBOT
#

Yes — “if you need…” is ambiguous enough that an LLM (especially a small one) can rationalize “I don’t need it” and then freewheel. That’s a real descriptive failure mode.

If you want consistent behavior, don’t use a soft conditional. Use a deterministic trigger.

Two robust patterns

Pattern A (most consistent): always read PROTOCOL.md once per session

This removes interpretation variance.

Add this to AGENTS.md (copy/paste):

- At the start of every new session: read PROTOCOL.md once before answering anything.
- If PROTOCOL.md cannot be read for any reason: ask the user to paste it (do not guess).
- PROTOCOL.md is authoritative; if it conflicts with AGENTS.md, PROTOCOL.md wins.
- Never claim you read PROTOCOL.md unless you actually did in this session.
#

Tradeoff: one tool read per new session (usually worth it for stability).

Pattern B (lighter): force-read only on “hard” types

If you want fewer reads, make the trigger mechanical:

- You MUST read PROTOCOL.md before any TYPE=INFER or TYPE=PLAN response.
- For TYPE=DECIDE/ACT/EVAL: use AGENTS.md summary + STATE.md only (do not read PROTOCOL.md).
- Never claim you read PROTOCOL.md unless you actually did in this session.
- PROTOCOL.md is authoritative; if it conflicts with AGENTS.md, PROTOCOL.md wins.

Tradeoff: slightly more variance than A, but much less overhead.

Why this works

It replaces “judgment call” (“if you need…”) with a rule the model can follow without meta-reasoning, which is exactly what you want under tight context and small-model quirks.

#

If you tell me which pattern you prefer (A or B), I’ll give you a single, minimal AGENTS.md block that includes your TYPE protocol summary + the chosen PROTOCOL-read rule, sized to avoid prompt bloat.

grand nest
#

I feel like for my needs it needs to read PROTOCOL so it always knows what words have specific meaning

jade lindenBOT
#

Then do Pattern A: make PROTOCOL.md the authoritative spec, and require the agent to read it at the start of every new session (before it answers anything). That’s the cleanest way to keep “special words” stable without bloating the always-injected files.

Two important points up front:

  • PROTOCOL.md is not automatically injected. So if you want the agent to “always know” your defined vocabulary, you must explicitly require a read of PROTOCOL.md at session start.
  • Don’t put the entire spec in injected files. Keep injected files tiny; put the full semantics in PROTOCOL.md.

1) Paste this into AGENTS.md (replace the file)

## AGENTS.md — Tight-context operating rules (Mac M4 16GB / Ollama 8B)

### Non-negotiable constraints
- Keep working context small: target ~2k–3k tokens steady-state; avoid > ~4k.
- Never paste large logs/transcripts/file dumps unless explicitly requested.
- Default output: concise bullets + next action. Avoid long explanations unless asked.
#
### Protocol requirement (authoritative semantics)
- PROTOCOL.md defines the meaning of special terms (TYPE, STATE, EVIDENCE, PLAN, DECIDE/INFER/PLAN/ACT/EVAL).
- At the start of every new session, BEFORE answering the user, you MUST read PROTOCOL.md once.
- If PROTOCOL.md cannot be read: ask the user to paste it. Do not guess.
- Never claim you followed PROTOCOL.md unless you actually read it in this session.

### Runtime changes
- Do not modify system/runtime configuration unless the user explicitly asks.
- You may recommend actions for the user to take (e.g. /stop, restart Ollama).

2) Create PROTOCOL.md (this is the “word meanings” source of truth)

Keep the Definitions section at the very top and short. Here’s a good starting template:

#
# PROTOCOL.md — Context Budget Protocol (authoritative)

## Definitions (these words have specific meaning)
- TYPE: exactly one of {DECIDE, INFER, PLAN, ACT, EVAL} chosen per reply.
- STATE.md: the single “router” file containing the current snapshot + pointers.
- EVIDENCE/<topic>.md: facts + hypotheses + discriminator for one inference.
- PLANS/<topic>.md: multi-step plan for one objective/subgoal.
- DECISIONS.md: append-only log of decisions (1–3 lines each).
- EVAL_LOG.md: append-only outcome log (short entries).
- MEMORY.md: durable evidence only (atomic bullets; no transcripts).

## Global constraints
- Context budget: aim 2k–3k steady-state; avoid >4k.
- Never dump large content into chat; summarize and quote minimal lines only.
#
## Type selector rule
- Choose exactly one TYPE per reply.
- Default loop: DECIDE → ACT → EVAL.
- Only use INFER when uncertainty blocks action selection.
- Only use PLAN when the task is multi-step.

## TYPE: DECIDE
- Read: STATE.md (only)
- Write: DECISIONS.md (append), STATE.md (update Next action + Success check)
- Output: Next action + 1-line why + (optional) 1 question if blocked

## TYPE: INFER
- Read: STATE.md (optional) + EVIDENCE/<topic>.md
- Write: EVIDENCE/<topic>.md (update conclusion + discriminator)
- Output: hypotheses (2–4) + best guess + confidence + discriminator
#

## TYPE: PLAN
- Read: STATE.md
- Write: PLANS/<topic>.md + STATE.md (pointer + next action)
- Output: 3–7 step outline + next action only (no full expansion)

## TYPE: ACT
- Read: STATE.md (Next action)
- Write: STATE.md (Last action + Observed result summary)
- Output: do exactly one action (tool call OR one user request)

## TYPE: EVAL
- Read: STATE.md + (optional) relevant plan/evidence file
- Write: EVAL_LOG.md (append), STATE.md (next action), optional 1 bullet to MEMORY.md
- Output: success/partial/fail + next action + optional durable memory bullet
#

Why this will behave the way you want

  • The injected AGENTS.md is small and stable, but it forces the tool-read of PROTOCOL.md at session start, so the model gets your vocabulary/semantics early in the session.
  • PROTOCOL.md being authoritative avoids the “LLM interprets it its own way” problem—because your rule removes discretion (“if you need…”).

If you want, I can also give you minimal templates for STATE.md, EVIDENCE/TEMPLATE.md, and PLANS/TEMPLATE.md so the externalized files stay consistent and easy to rehydrate.

grand nest
#

State the purpose of this context buffer protocol and what I does for this agent and any agent I build in the future.

jade lindenBOT
#

Purpose of the context buffer protocol: make an agent rational and reliable when its attention buffer (LLM context window) is scarce and expensive.

What it does for this agent (Mac M4 / 16GB / Ollama 8B):

  • Prevents prompt bloat: forces each turn to use only the minimum information needed, keeping you in the safe ~2k–3k token operating envelope and reducing hangs.
  • Improves consistency: by classifying each turn (DECIDE / INFER / PLAN / ACT / EVAL), the agent doesn’t mix modes (e.g., planning + diagnosing + journaling in one response).
  • Forces externalization: long plans, evidence, and logs live in files (STATE/PLANS/EVIDENCE/etc.), not in the prompt. The model only rehydrates what the current TYPE requires.
  • Enables scalable memory: durable memory becomes “evidence that changes future decisions,” not transcript history—so memory stays useful without growing the prompt.
  • Creates a feedback loop: EVAL captures outcome → optionally promotes one durable constraint/lesson → future DECIDE/INFER improves.

What it does for any future agent you build:

  • It’s a hardware-agnostic operating system for agent cognition: even with bigger models, it keeps behavior clean; with smaller models, it prevents collapse.
  • It gives you a portable structure: same files, same TYPE semantics, same rules for what to read/write—so you can swap objectives, swap tools, even swap models/providers, without reinventing “how the agent thinks.”
  • It makes agents auditable and maintainable: decisions, plans, evidence, and evaluations are stored in predictable places, so you (and the agent) can inspect and resume work without reloading huge context.

In short: it turns “LLM as a big chat” into “LLM as a bounded controller with an external state store,” which is the stable pattern for long-running, constraint-aware agents.

grand nest
#

I notice sometimes my backend OLLAMA model uses GPU and other times CPU. Are certain kinds of tasks done better with GPU than CPU and vice versa? Explain

jade lindenBOT
#

In Ollama, “GPU vs CPU” isn’t about different reasoning skills—it’s almost entirely about performance + memory availability while doing the same core operation (token-by-token transformer inference).

What GPU is better at

  • Throughput / speed: GPUs (Metal on Apple Silicon) are very good at the big dense linear algebra that dominates inference.
  • Longer prompts can benefit more: attention/compute grows with prompt length, and GPUs handle that parallel work better if everything fits comfortably in memory.

What CPU is “better” at (practically)

  • Fallback when GPU memory is tight: if the model + KV cache (context) + overhead don’t fit, or the system is under memory pressure, Ollama may run partially or fully on CPU.
  • Stability under contention: if other apps are using GPU heavily, or the system is thermally/power constrained, CPU execution can be more consistent (but slower).
  • Lower setup/dispatch overhead: for very small workloads, CPU can sometimes be “good enough,” but for LLM generation it’s usually still slower overall.

Why you see it switch on the same machine

The most common reasons are:

  • Different effective context (num_ctx) / KV cache size between runs (large context = large KV = more memory pressure).
  • Concurrent model loads or other memory usage (your unified 16GB is shared by everything).
  • System/GPU load changes (other apps using GPU, background tasks, etc.).
#

You can observe what Ollama decided with:

ollama ps

(look at the “Processor” column)

Does GPU vs CPU change answer quality?

Generally no (same model, same weights). You might see tiny numeric differences from floating-point math, but it shouldn’t turn “good reasoning” into “bad reasoning.” The big difference you’ll feel is latency and whether it hangs/thrashes under memory pressure.

Practical tip for your setup (Mac M4, 16GB)

Keeping your context window capped (like you’re doing) makes it more likely the model stays on GPU consistently, because the KV cache stays smaller and avoids memory pressure.

grand nest
#

Given my context buffer protocol and my hardware constraints that I previously gave to you, what are the largest configuration values I should set in openclaw.json?

jade lindenBOT
#

Given your Mac M4 + 16GB unified memory + Ollama 8B Q4 (safe working envelope ~2–3k tokens, “don’t exceed ~4k”), the config values that most directly control “how big prompts get” are:

1) Model context + output (hard cap)

Largest I’d set: contextWindow: 4096 for your Ollama model entry. (8192 might work sometimes, but your own analysis says instability past ~4k is the cliff.)

Also cap output so a single reply can’t explode the KV cache:

  • Largest I’d set: maxTokens: 512 (maybe 1024 if you really need long replies)

(These live in your explicit models.providers.ollama.models[] entry.)

2) Injected workspace file size caps (so bootstrap files don’t bloat every run)

OpenClaw truncates injected bootstrap files using:

  • agents.defaults.bootstrapMaxChars (default 20000 chars)
  • agents.defaults.bootstrapTotalMaxChars (default 150000 chars)
    Source: /concepts/context (shows these exact keys) https://docs.openclaw.ai/concepts/context

For your setup, largest I’d set:

#
  • bootstrapMaxChars: 4000 (per injected file)
  • bootstrapTotalMaxChars: 20000 (across all injected files)

This forces you (in a good way) to keep AGENTS.md/SOUL.md/TOOLS.md/... short.

3) Telegram history injection

Telegram has historyLimit (default example shows 50) and that history gets pulled into context.
Source: config reference Telegram section https://docs.openclaw.ai/gateway/configuration-reference

For your setup, largest I’d set:

  • channels.telegram.historyLimit: 10 (maybe 20 if you like more continuity)

4) Tool schema bloat (big hidden token cost)

Tool schemas (especially browser) can be thousands of tokens every run. If you’re not using them, don’t send them to the model.

Use tools.profile + tools.deny (deny wins).
Docs: https://docs.openclaw.ai/tools

#

For your setup (Telegram + file-based externalization), a good “maximal but safe” tool set is:

  • allow: group:fs, group:memory, group:messaging, group:sessions
  • deny: group:web, group:ui (browser/canvas), group:nodes (unless you use nodes)

5) Compaction reserve floor (important with small context)

OpenClaw enforces a reserveTokens floor for embedded runs. Default floor is 20000, which is nonsensical if your real window is 4096.
Docs: https://docs.openclaw.ai/reference/session-management-compaction

Set:

  • agents.defaults.compaction.reserveTokensFloor: 0 (disable the huge floor)
    Optionally disable the pre-compaction memory flush if you don’t want surprise silent turns:
  • agents.defaults.compaction.memoryFlush.enabled: false
    Docs: https://docs.openclaw.ai/concepts/memory

Example openclaw.json snippet (strict JSON)

#

Merge this into your existing config (don’t paste as a second top-level object):

{
  "agents": {
    "defaults": {
      "bootstrapMaxChars": 4000,
      "bootstrapTotalMaxChars": 20000,
      "compaction": {
        "reserveTokensFloor": 0,
        "memoryFlush": { "enabled": false }
      }
    }
  },
  "channels": {
    "telegram": {
#
      "historyLimit": 10
    }
  },
  "tools": {
    "profile": "messaging",
    "allow": ["group:fs", "group:memory", "group:sessions"],
    "deny": ["group:web", "group:ui", "group:nodes"]
  }
}

If you paste your current openclaw config get for tools, channels.telegram, and your models.providers.ollama block (redacting secrets), I can tell you exactly which of these you already have and what to change—without guessing.

grand nest
#

In this thread, you've provided recommendations related to "tools" in a number of places. List a very concise summary of your recs + reason why

jade lindenBOT
#
  • Disable web + browser tools on small local models (tools.deny: ["group:web","group:ui"] / deny browser)
    Why: big tool schemas + risky prompt-injection surface + extra token/context pressure; improves reliability on 8B/16GB.

  • Use a restrictive tool profile / allowlist (start from tools.profile: "messaging" or similarly minimal; then tools.allow only what you need)
    Why: fewer tools = smaller system prompt + fewer failure modes/hallucinated tool calls.

  • Keep file + memory tools only if you’re using externalized state (group:fs, group:memory)
    Why: supports your protocol (STATE/PLAN/EVIDENCE files) without loading everything into context.

  • Deny nodes unless you actually use them (tools.deny: ["group:nodes"])
    Why: avoids extra schema/context + reduces risk/complexity.

  • Don’t rely on TOOLS.md as permissions (it’s guidance only)
    Why: tool availability is controlled by config allow/deny/profile; TOOLS.md doesn’t enforce anything.

  • Avoid tool-heavy “always do X” workflows (e.g., “read files every message”)
    Why: repeated tool calls and large outputs bloat context and can stall Ollama; your 2–4k token envelope is tight.

grand nest
#
  1. Your bullet 1: Will disabling web + browser tools on small local models prevent my agent from being able to do web related research? What if the objective of my agent is to perform research that occaisionally requires using the internet?
  2. Your bullet 2: If I build an agent that needs to: strive towards objective, create subgoals and contingent sequence of actions to accomplish, research from the web, write memory locally, and do something like construct various guides for a user locally, and etc, what might be the restrictive tool profile that I'd configure?
  3. Your bullet 3: No duh, I must use externalized state because I must keep my context window smaller on my machine given my hardware constraints. But I mean. Feel free to challenge my assumption here.
  4. Your bullet 4: What is nodes? What does denying them do? When do I know if I need to "actually use them"?
  5. Your bullet 5: If I rely on allow/deny/profile to specify tool availability, then what is the purpose of using TOOLS.md for guidance?
  6. Your bullet 6: Why or how would an "always do X" workflow cause "large outputs" tha bloat context?
jade lindenBOT
#
  1. Yes — if you deny group:web and browser, the agent won’t be able to do web research via tools.
    But you usually don’t need the browser tool for research anyway; most “internet research” can be done with web_search + web_fetch (fetch pages → summarize). The browser tool is for interactive UI automation and has a large schema/context cost.

If your objective sometimes needs the internet, a sane compromise on a small local model is:

  • allow web_search/web_fetch
  • deny browser (and canvas unless you need it)
  • consider sandboxing when web tools are enabled (your earlier security audit warning was about small models + web tools without sandboxing)

Docs on tool groups/profiles: https://docs.openclaw.ai/tools


  1. For the agent you described (objective → subgoals/plans → web research → write local files/memory → generate guides), I’d start with:
  • File ops: group:fs (read/write/edit)
  • Memory tools: group:memory (memory_search/memory_get)
  • Sessions tools: group:sessions (optional, but useful for management)
#
  • Web research: group:web (web_search/web_fetch)
  • Runtime exec: only if you truly need it (group:runtime)

Config sketch (tight but capable):

{
  "tools": {
    "profile": "coding",
    "allow": ["group:web", "message"],
    "deny": ["browser", "canvas", "group:nodes"]
  }
}

Notes:

  • coding already includes group:fs, group:runtime, group:sessions, group:memory (per docs). You can further deny group:runtime if you don’t want shell commands at all.
#
  • If you’re chatting via Telegram, you may not need message at all (replies go out through the channel), but it’s useful for proactive sends/structured delivery.

  1. Externalized state isn’t just “nice to have” for your machine — it’s the stable pattern.
    The only real alternative is: use a bigger-context / more reliable model backend (often cloud) or bigger hardware. With Ollama 8B + 16GB, “keep everything in chat” will eventually hit the KV-cache wall again. Externalization is the rational move.

  1. Nodes are paired companion devices/hosts that can run tools (think: “run commands on another machine”, “use phone sensors”, “screenshots/camera”, etc.). Denying group:nodes:
  • reduces tool/schema overhead in the prompt
  • prevents the agent from attempting node operations you’re not using

You need nodes only if you installed/paired a node and you actually want capabilities from it (screen/camera/location/remote exec, etc.). If your setup is just “gateway + Telegram + local Ollama”, you can deny nodes.


#
  1. TOOLS.md is for human-maintained operational notes and conventions (e.g., “my server is called home-server”, preferred voice, where logs live, naming, do/don’t). It helps the model act consistently when it does use tools, but it does not grant/deny permissions. Permissions come from tools.profile/allow/deny.

Given your tight context, keep TOOLS.md short (or move long stuff to a non-injected PROTOCOL.md and force-read it once per session).


  1. “Always do X” causes large outputs because tool results and file reads become part of the session transcript/context. Examples:
  • “Read yesterday’s log every message” → you inject hundreds/thousands of tokens repeatedly.
  • “Run status checks every turn” → tool output accumulates; compaction kicks in; more instability.

Your protocol should be conditional: read/write only the one file needed for the current TYPE, and summarize tool outputs aggressively.

Useful command to verify where tokens are going: /context list and /context detail (docs: https://docs.openclaw.ai/concepts/context).

grand nest
#

Tools.profile in openclaw.json is unrecognized

jade lindenBOT
#

That error almost always comes from how it’s written in the JSON file.

In openclaw.json, tools.profile is not a literal key

This is wrong in the file (it creates an unknown key named "tools.profile"):

{ "tools.profile": "coding" }

In the config file it must be nested:

{
  "tools": {
    "profile": "coding"
  }
#
}

(tools.profile is a valid CLI path for openclaw config set, but the file itself must be nested objects.)

Quick verify

Run:

openclaw config get tools

You should see something like:

#
{ "profile": "coding" }

If it’s still “unrecognized”

Then I need the exact error text + version because it could be a schema/version mismatch or a different nesting issue:

openclaw --version
openclaw doctor

…and paste the tools section from your ~/.openclaw/openclaw.json (just that part).

Docs reference for tool profiles: https://docs.openclaw.ai/tools

grand nest
#

Show how to enable local embedded memory search. Will enabling this affect context window size?

jade lindenBOT
#

To enable local (fully offline) memory search in OpenClaw you’re enabling the memory_search / memory_get tools backed by a local embeddings model + a local SQLite index. The Markdown files remain the source of truth (MEMORY.md + memory/YYYY-MM-DD.md). Docs: https://docs.openclaw.ai/concepts/memory

1) Config: enable local memory search (no API keys)

Add this to ~/.openclaw/openclaw.json (merge into your existing JSON):

{
  "agents": {
    "defaults": {
      "memorySearch": {
        "provider": "local",
        "local": {
          "modelPath": "/ABS/PATH/TO/EMBEDDING-MODEL.gguf"
        },
        "fallback": "none"
      }
#
    }
  }
}

Notes from the docs:

  • agents.defaults.memorySearch is the right place (not top-level memorySearch).
  • local.modelPath can be a GGUF path or an hf: URI (docs mention both).
  • Setting fallback: "none" avoids silently using remote embeddings if local fails. (From the docs’ “Local mode” notes.)

After editing config:

openclaw gateway restart
#

Local prerequisite

Local mode uses node-llama-cpp and “may require pnpm approve-builds” (docs). If local embeddings don’t come up, that’s the first thing I’d check.

2) Will this affect your context window size?

It does not change the model’s contextWindow (that’s still your Ollama model config).

But it can affect how much of the window gets used in two ways:

  1. Tool schemas: enabling memory search makes memory_search/memory_get available to the model, which adds their tool schema overhead to the system prompt (usually small compared to browser, but non-zero).
  2. When you call memory_search: the returned snippets are injected into the prompt for that run, so that run uses more tokens. (The index on disk does not consume context; only the retrieved snippets do.)

Practical implication with your tight budget: keep memory_search results small (few results) and avoid dumping large snippets; use it as a “find the right file/lines, then memory_get a small range” workflow.

If you paste your current agents.defaults.memorySearch section (or say “it’s absent”), I can tell you exactly what you need to add vs what you already have.

grand nest
#

wtf do I put for modelPath?

jade lindenBOT
#

modelPath is not your chat model (llama3.1:8b…). It’s the path to a local embeddings model file (a .gguf) that OpenClaw uses to build/query the vector index for memory_search.

So you have two options:

Option A (local/offline): point to a GGUF file on disk

  1. Download an embedding model in GGUF format (small is good; don’t use a huge chat LLM for embeddings on a 16GB machine).
  2. Put it somewhere stable, e.g.
  • ~/.openclaw/models/embeddings.gguf
  • ~/Models/embeddings.gguf
  1. Set modelPath to the absolute path to that file:
{
  "agents": {
    "defaults": {
#
      "memorySearch": {
        "provider": "local",
        "fallback": "none",
        "local": {
          "modelPath": "/Users/YOURNAME/.openclaw/models/embeddings.gguf"
        }
      }
    }
  }
}

Docs (this is exactly what it’s asking for): memorySearch.local.modelPath (GGUF or hf: URI)
Source: https://docs.openclaw.ai/concepts/memory

Option B (no modelPath): use remote embeddings instead

#

If you don’t want to deal with downloading a GGUF embeddings model, you can configure memorySearch.provider to a remote embedding provider (OpenAI/Gemini/Voyage/Mistral) and give it an API key. That avoids modelPath entirely, but isn’t “local”.


Quick sanity check

Whatever you choose, verify the file exists:

ls -lh /Users/YOURNAME/.openclaw/models/embeddings.gguf

If you tell me “I want offline/local” vs “I’m fine with remote”, I can point you to the simplest next step for that path.

grand nest
#

I’m traveling with no wifi right now

jade lindenBOT
#

If you have no Wi‑Fi, then:

What still works (offline)

  • Your agent can still read/write the Markdown memory files (MEMORY.md, memory/YYYY-MM-DD.md) and you can retrieve stuff with memory_get (or plain file reads) entirely offline.
  • This does not require embeddings.

What won’t work (unless you already prepared it)

  • memory_search semantic search needs an embeddings backend.
    • If it’s configured to use a remote embeddings provider (OpenAI/Gemini/etc.), it won’t work offline.
    • If it’s configured to use local embeddings, it will work offline only if you already have the local embeddings model file on disk (the .gguf you point modelPath at).

So right now, if you don’t already have an embeddings .gguf on your machine, you can’t “turn on local semantic search” while offline (because you can’t download the model).

Best offline workaround (practical)

  • Use memory_get to read the relevant memory files directly.
  • For “search”, do simple keyword search locally (you can run this yourself in Terminal):
#
rg -n "your keyword" ~/.openclaw/workspace/MEMORY.md ~/.openclaw/workspace/memory/*.md

When you have internet again (prep local semantic search)

  1. Download an embeddings GGUF to a stable path (e.g. ~/.openclaw/models/embeddings.gguf)
  2. Set:
{
  "agents": {
    "defaults": {
      "memorySearch": {
        "provider": "local",
        "fallback": "none",
        "local": { "modelPath": "/Users/YOU/.openclaw/models/embeddings.gguf" }
#
      }
    }
  }
}
  1. Restart gateway: openclaw gateway restart

If you want: tell me whether you currently get an error when calling memory_search (paste the error), and I can tell you whether you’re already partly configured (e.g., an index exists from earlier) or fully unconfigured.

grand nest
#

contextWindow minimum is 16000, what should my max tokens value be

jade lindenBOT
#

maxTokens is just the maximum length of the model’s output. It doesn’t cap how much context (prompt/history/tool schemas) gets sent in — it caps how long the reply is allowed to be.

Given:

  • your real stability envelope is ~2–4k tokens of “working stuff” on a 16GB / Ollama 8B setup, and
  • OpenClaw is forcing contextWindow >= 16000 (schema/catalog constraint),

I’d set:

  • maxTokens: 512 (default recommendation)
  • If you occasionally need longer writing: maxTokens: 1024 and rely on chunking / writing to files rather than huge single replies.
  • I would avoid 2048+ on your setup unless you’re deliberately doing a long-form generation and you’ve kept the prompt extremely small.

Rule of thumb (safe): maxTokens ≈ contextWindow / 32 → 16000/32 ≈ 500 → ~512.

Also: if the goal is to stop Ollama hangs, the bigger lever is still keeping prompt small (bootstrap file sizes, Telegram historyLimit, tool schema count) — maxTokens mainly prevents the reply from exploding.

grand nest
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Can ollama/llama3.1:8b-instruct q4 execute tools?

jade lindenBOT
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Yes — it can, if Ollama reports that model as tool-capable.

In OpenClaw, tool calling for Ollama isn’t determined by “8B” or “q4” so much as whether that specific model advertises tools support via Ollama’s metadata. OpenClaw will then use Ollama’s native API (/api/chat) to do streaming + tool calls (don’t use the /v1 OpenAI-compatible endpoint for this; tool calling is unreliable there).

How to confirm on your machine:

  1. In OpenClaw (best signal):
openclaw models list | rg "ollama/llama3.1:8b-instruct-q4"

If it shows something like tools: yes (or similar “yes” columns), OpenClaw will attempt tool calls with it.

  1. In Ollama directly (metadata):
ollama show llama3.1:8b-instruct-q4_K_M
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One caveat: even when tool-capable, small local models can be flaky at tool calling (stalling, or outputting tool JSON as plain text). If you see that behavior, the fix is usually to (a) reduce tool surface (deny browser/web unless needed) and/or (b) switch to a more tool-reliable model/provider for tool-heavy work.

grand nest
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Ollama reports it as tool capable.

Why is my agent hallucinating and fabricating things? It’s saying certain statements not defined in AGENTS.md and fabricating a file read. It did correctly identify some content in SOUL.md at least.

jade lindenBOT
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That’s normal for an 8B local model. Tool-capable ≠ tool-reliable, and “factual grounding” is still weak compared to bigger/cloud models.

What you’re seeing is usually one (or more) of these:

Why it fabricates file reads / invents “rules”

  1. It’s trying to be helpful under uncertainty.
    Small models often fill gaps with plausible-sounding text instead of saying “I don’t know / I didn’t read that.”

  2. The workspace injection is long + noisy.
    If AGENTS/SOUL/TOOLS/etc are big, the model loses track of exact wording and paraphrases or invents. Use /context list to see what’s being injected (docs: https://docs.openclaw.ai/concepts/context).

  3. It’s not actually calling the read tool, but it roleplays that it did.
    The only real “file read” is a tool call. Everything else is just generated text.

  4. Temperature / sampling can amplify confabulation.
    Even at low temp, small models can still confabulate, but high temp makes it worse.

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How to fix it (practical, works)

A) Add an explicit “no fake reads” rule to AGENTS.md

Put this near the top of your injected rules:

- Never claim you read a file unless you used a tool call to read it in this session.
- If you need file content, request a read (or ask the user to paste it).
- When referencing workspace files (AGENTS.md/SOUL.md/USER.md/etc), quote the exact line(s) you are using or say “I’m paraphrasing”.

This doesn’t make it perfect, but it dramatically reduces “I read X…” lies.

B) Keep injected files short

Even with bootstrapMaxChars, the model can still get confused. For your hardware, keep AGENTS/SOUL/TOOLS/USER as tiny and move detail to non-injected files (then explicitly read them).

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C) Reduce tool surface area

The more tools you expose, the more chances it has to “invent” a tool narrative. For your “externalize state + research sometimes” agent, a good starting tool set is:

  • allow: group:fs, group:memory, group:web
  • deny: browser (and often canvas/group:nodes)

(Docs on tool groups/profiles: https://docs.openclaw.ai/tools)

D) Verify whether it actually called tools

Turn on verbose mode temporarily and watch for tool calls/results in the Control UI (or logs). If it “claims” it read a file but no tool call happened, it’s confabulation.


One quick diagnostic question

When it “fabricated a file read”, did you see any read tool call in the Control UI / logs at that moment? If you paste 10–20 lines around that event, I can tell you whether OpenClaw ever attempted the tool call or if it was pure hallucination.

grand nest
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Are certain LLM models more effective at let’s say, logical inference than let’s say, planning a contingent sequence of moves towards an objective? And vice versa

jade lindenBOT
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Yes. Different models (and even different variants/quantizations of the same model) tend to have different “strength profiles” across things like tight logical inference vs multi-step planning vs tool use.

Why this happens (high level)

  • Training mix: some models saw more math/logic/coding tasks; others saw more instruction-following or long-form writing.
  • Context + attention: long-horizon planning is very sensitive to context window quality and how well the model keeps constraints consistent across many steps.
  • Reasoning style: some models are better at “careful step-by-step” and uncertainty; others are better at producing plausible action plans.
  • Tool reliability: some models are much better at generating correct tool calls and not “roleplaying” results.

Typical pattern

  • Logical inference / precise deduction: models that are strong at math/coding and disciplined reasoning tend to do better. Smaller local models can do OK on short inference tasks if the prompt is tight, but they often hallucinate premises when the task is underspecified.
  • Contingent planning toward objectives: planning stresses consistency, memory, and “don’t lose the plot.” Bigger models usually win here, especially when plans span many steps and require updating based on results.
  • Tool-using agents: reliability matters more than raw “IQ.” Some models are great at prose but terrible at tool calling; some are the opposite.

Your specific setup note (Ollama llama3.1 8B Q4 on 16GB)

  • It can do short inference fine when you constrain the prompt.
  • It is much more likely to struggle with long-horizon planning and may confabulate “I read X / I did Y” unless you hard-enforce tool discipline and keep context tiny.
  • The biggest enemy isn’t just “planning ability” — it’s context pressure + confabulation under uncertainty, which your context buffer protocol is designed to mitigate.