Context7
Up-to-date docs for AI agents
Beschreibung vom Entwickler (englisches Original)
Turn-level governance observability for Claude Code transcripts. Local-first, no LLM inside.
Diese drei werden nie zu einer Punktzahl zusammengefasst: Meinungen, Messungen und Beliebtheit sind verschiedene Dinge.
Für diesen Server haben wir noch keine Zusammenfassung in einfacher Sprache geschrieben. Unten stehen die Fakten, die wir aus der Registry gelesen haben.
Wähle die KI-App, die du nutzt, und kopiere die Einstellungen.
HSCOPE_MCP_WRITEDu brauchst
Welche App nutzt du?
Wähle oben deine App. Wir merken sie uns, damit der Button beim nächsten Mal „In … installieren“ anzeigt.
Öffne Claude Desktop → Settings → Developer → Edit Config und füge dies in claude_desktop_config.json ein
{
"mcpServers": {
"hscope": {
"command": "npx",
"args": [
"-y",
"hscope",
"mcp"
],
"env": {
"HSCOPE_MCP_WRITE": "your-value"
}
}
}
}Führe das in deinem Terminal aus
claude mcp add hscope --env HSCOPE_MCP_WRITE=your-value -- npx -y hscope mcpTrag die leeren Werte ein, bevor du ihn startest.
In .cursor/mcp.json in deinem Projekt oder in ~/.cursor/mcp.json einfügen
{
"mcpServers": {
"hscope": {
"command": "npx",
"args": [
"-y",
"hscope",
"mcp"
],
"env": {
"HSCOPE_MCP_WRITE": "your-value"
}
}
}
}Dein Browser fragt, ob er die App öffnen darf, dann zeigt die App die Einstellungen und bittet dich um Bestätigung. Schlüsselwerte bleiben leer, damit du sie selbst einträgst.
In .vscode/mcp.json in deinem Projekt einfügen
{
"servers": {
"hscope": {
"type": "stdio",
"command": "npx",
"args": [
"-y",
"hscope",
"mcp"
],
"env": {
"HSCOPE_MCP_WRITE": "your-value"
}
}
}
}Dein Browser fragt, ob er die App öffnen darf, dann zeigt die App die Einstellungen und bittet dich um Bestätigung. Schlüsselwerte bleiben leer, damit du sie selbst einträgst.
Dieser Server läuft auf deinem Computer, und ChatGPT kann sich nur mit Servern im Internet verbinden. Wähle eine andere App.
Deine Auswahl bleibt in einem Cookie auf diesem Gerät; kein Konto nötig.
HSCOPE_MCP_WRITE envDiese Einstellungen werden aus dem Registry-Eintrag des Entwicklers erzeugt. Wenn in der README etwas anderes steht, folge der README.
Läuft auf deinem Computer; die Tool-Liste erscheint nach der Installation in deiner KI-App.
Wir prüfen Informationen, die jeder sehen kann; den Code haben wir nicht gelesen. Checks, die nicht zutreffen, werden nicht mitgezählt. · Geprüft am 6. Nov. 2026
Der Registry-Name wurde mit dem GitHub-Konto moongioh bestätigt, dem das Repo gehört
Dieses Repo haben wir noch nicht von GitHub gelesen
Dieses Repo haben wir noch nicht von GitHub gelesen
Dieser Server läuft auf deinem Computer; es gibt keinen Endpunkt im Internet
Läuft auf deinem Computer und nutzt stattdessen lokale Einstellungen
Läuft auf deinem Computer; Tool-Listen können wir nur von Endpunkten im Internet lesen
Verglichen mit allen aktiven Servern dieser Kategorie in der Registry. Sterne zählen nur, wenn dem Herausgeber das Repo gehört.
Er hat 1 von 1 zutreffenden Basischecks bestanden. Den Code haben wir nicht gelesen. Bevor du einen Schlüssel oder Token hinzufügst, sieh nach, welche Zugriffe der Server verlangt, und nutze einen Schlüssel, der nur die Berechtigungen hat, die du brauchst.
Die Registry nennt keinen erforderlichen Schlüssel, manche Server bitten dich aber bei der ersten Nutzung, dich anzumelden.
Er läuft auf deinem Computer. Deine KI-App startet ihn bei Bedarf, und die Daten laufen nicht über die Server des Entwicklers (außer der Server ruft selbst einen Onlinedienst auf).
Das GitHub-Repo wurde zuletzt – geändert, und die neueste Version (0.1.3) kam vor 4 Monaten in die Registry.
Apps, die MCP unterstützen, etwa Claude Desktop, Claude Code, Cursor und VS Code. Außerdem brauchst du Node.js, Python (uv) auf deinem Computer.
In derselben Kategorie: Context7, Codebase Memory, Exa
Server derselben Kategorie von anderen Entwicklern, sortiert nach Sternen.
So liest du eine Karte:★ GitHub-SterneiDrei Säulen: Bewertungen · Checks · NutzungiAktualisiert = neueste Version in der Registry veröffentlichti
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Unverändert aus dem Repo des Entwicklers übernommen. PopNx MCP hat den Inhalt weder geprüft noch empfiehlt es ihn. HTML, Bilder und Skripte wurden entfernt. Links führen von dieser Website weg.
Turn-level governance observability for agent harnesses. HarnessScope reads the transcripts your agent harness already writes, judges every turn against your workspace's own operating rules (plan-before-code, verify-before-done, context budget, path boundaries, …), and serves a local viewer that shows *how* each session traversed that governance structure — passes included, not just violations.
*Every frame above is hscope demo: a synthetic corpus, generated locally. Real transcripts carry full prompt text and are never demo material.*
A session is not one model talking to itself — it spawns subagents, they run on models the parent does not, and a streamed response writes the same request several times. Read that structure naively and the numbers are wrong. These are the corrections, each measured on this project's own transcripts:
| Read naively | Actually | Why |
|---|---|---|
| Re-read waste | 42% of it was false | A subagent reading a file the parent read has not re-read anything — it never had those tokens. Waste is charged per context window (agent_id), not per session. |
| 90,957,147 output tokens | 32,348,242 (2.8× overcount) | A streamed response writes several usage records per requestId. Count the *last* one — the early ones are partial (2, where the finished response says 31,979). |
| 3,121 turns | 2,438 (28% inflation) | A turn is one user prompt (promptId). Interrupt notices, echoes and blocks are user records too. |
| A stable format | 29 harness versions in one month | The transcript format is undocumented and it moves. So hscope doctor fails loudly and names the version that broke it, instead of emitting a wrong number quietly. |
| The re-read waste that survived that | 81% of it was false too | Keyed on (context, path), *paging* a large file (offset=501) is indistinguishable from reading it twice — and each new chunk was charged as tokens the context already held. 692,292 of 854,334 tok. The key now carries the span. |
The last row is the one that matters most, and it is the youngest: it was found after v0.1.3 shipped, by pointing the tool at its own workspace and reading the answer. The same class of mistake as row one, one layer further down, in code that had already passed its own tests. A tool that claims to catch a governance failure had better survive being aimed at itself — so that is now the standing use of it, and what it said next was worse.
It cost three rules their default. R1 (index-first), R2 (inline-first) and R6 (approval-gate) ask semantic questions — *is this a domain question? was this fan-out warranted? is this code under that plan?* — and answered them with syntactic tests: a keyword in the prompt, the prompt's character count, the project folder. Measured against real sessions, 84% of R2's violations were turns invoking a command whose entire job is to fan out. That is not a threshold in need of tuning; a proxy that does not track the concept cannot be tuned into one. They now ship disabled, each carrying the false-positive rate it was measured at (precision, a first-class field on the rule, surfaced in the model, in rule_health, and as a hoverable badge). Off is not the point — *off, and here is why, with the number* is the point. A rule silently shipped on is how a governance screen becomes noise nobody trusts, which is the failure this project exists to name.
R8 stopped reporting a compliance rate for the same reason. Its opportunities *are* its violations by construction — a re-read counter never observes a *compliant* re-read — so "0% compliance" was an identity, not a finding: a number that reads like an indictment and says nothing. It reports its quantity now, and no ratio.
These are observations of one corpus, not a benchmark — your numbers will differ. The point is that they are *readable at all*: metrics know quantities, a bill knows money, and neither knows the word "subagent". Full reasoning: docs/MULTI-AGENT.md.
HarnessScope watches a different layer than most "LLM observability" tools: not the app you instrumented, but the agent harness itself, read from its own transcripts.
| Tool | Watches | How it gets data | Runs |
|---|---|---|---|
| HarnessScope (`hscope`) | Governance compliance + token flow of Claude Code sessions, turn by turn | Reads transcript JSONL — after the fact, or live as the harness appends it (--watch). Zero instrumentation, no hooks into the session | Local, no LLM inside |
ccusage and similar CLIs | Token/cost totals from the same transcripts | Reads transcript JSONL | Local |
| LangSmith / Langfuse | Traces of LLM calls your application makes | SDK instrumentation you write | SaaS (Langfuse also self-host) |
| Arize Phoenix (OpenInference) | OTel traces of LLM apps you instrument | OTel SDK instrumentation | Local / self-host |
Claude Code /cost, OTel metrics | The current session's spend; aggregate counters | In-harness | In-harness |
The row nobody else covers: *did the session follow the workspace's operating rules* — plan-before-code, verify-before-done, path boundaries, context budget. Cost tools tell you what a session spent; tracing tools tell you what your app's LLM calls did; HarnessScope tells you whether the agent worked the way your workspace says agents must work.
pipx install hscope # or: pip install hscope · npx -y hscope (Python 3.11+ either way)
hscope demo --serve # synthetic corpus → ingest → judge → viewer
Three invented sessions: one compliant, one wasteful (re-reads, dead context, a boundary read, a completion declared with nothing verifying it), and one fan-out (two subagents — one cites what it read, one does not; one spawned in the background — plus an off-host MCP round trip).
The corpus is held to the same standard as real data: it must satisfy hscope doctor, so a generator writing a shape the parser does not expect gets caught by the invariants. It already earned that twice — a requestId reused across sessions (which hscope correctly read as one API call replayed by a fork), and a padded agentId: that the parser's regex swallowed whole.
hscope # scan ~/.claude/projects → ingest → judge → check → open the viewer
No flags, no config file. Two things it will not get wrong:
It also announces which rules it is about to judge with — neutral presets, or the workspace model it found on disk. Claiming "presets" while quietly applying a model would be the same lie as a silent fallback.
Everything is local-first: no transcript data leaves your machine (the one exception — the opt-in Tier B LLM judge — is off by default and fires only on an explicit per-session click). The tool never writes to your projects, your .mcp.json or your harness settings: *a tool that observes governance must not reshape the surface it observes.*
hscope --watch # the circuit stays live: sessions are re-ingested and re-judged as they run
The harness appends to the transcript while the session is still going, so the data for a live view was always there — what was missing was the loop. --watch scans mtimes every 2s, hashes only the files that moved (mtime is the trigger; the hash is still the decision), re-judges only those sessions, and the viewer refreshes itself. A tick where nothing moved parses nothing, hashes nothing and prints nothing.
It observes; it does not intervene. No hook is installed in your session, nothing is blocked, and a violation on screen is one *a human* has to act on. Blocking would mean a PreToolUse hook — which would make the "no hooks into the session" row above false, bind the tool to one harness, and let a wrong verdict stop your work (post-hoc, a bad call is a bad badge; live, it is a stopped hand). Seeing a re-read loop or a fan-out at 5k tokens instead of 40k is worth having; it does not require the tool to hold the brake.
The turn that is still running is shown, not judged. Judging it would break hscope's own rules: a verification-gate rule would fire on the very turn that is *about* to run the check — a verdict overturned three seconds later — and a streamed response's token usage is not final until its last record lands. So the live turn wears an *in flight · not judged* badge and its verdict appears when the turn ends. A verdict deferred must not become a verdict skipped: if you interrupt that turn the file simply goes quiet, and hscope judges it once its liveness window lapses rather than leaving it withheld forever.
One turn as a fixed-topology schematic: context sources → agent → action surfaces → governance outputs. Subagents are nodes with a spawn edge *and* a return edge — labelled with what came back, which is not what the subagent spent (one real turn: three agents burned 16.5k / 6.3k / 5.3k output tokens and handed the parent 1.5k / 2.2k / 2.0k). Off-host MCP hops and write-capable servers are flagged on the wire.
The turn timeline: what was loaded into context, which tools ran, and the rule verdict on each turn — passes included. A governance view that only lists violations cannot tell "compliant" from "never checked".
Compliance × coverage, per rule. A rule at 100% compliance over 3 evaluable turns is not the same as one at 100% over 300, and a rule nothing can evaluate is reported as such rather than scored.
Per-turn token burn with loss pinpoint markers — re-reads, dead context (loaded, never cited), error churn, cache-window waste — attributed to the turn and the context window that actually paid.
Every hook, MCP server, skill and subagent you registered, next to what your transcripts show was actually called: active / unused / unregistered-call. Registration is a claim; the transcript is the evidence. (No screenshot here on purpose — this screen reads *your* machine's configuration, so any capture of it would be a picture of someone's real workspace.)
Nobody should hand-write rules to try a tool. When the first run finds no workspace model, it seeds one from your repo's structure and leaves a page for the LLM you already have:
hscope # ...with no rules of your own, writes ~/.hscope/<id>/HSCOPE-SETUP.md
hscope mcp --install # prints an MCP snippet; past
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