redundo
Point it at your AI agent's OTLP traces. Get a report on what's wasted.
enable telemetry → point at the collector output → redundo adapt → redundo analyze → HTML report
redundo adapt --source openinference ./otlp_traces | redundo analyze --format html > report.html
No account, no SaaS, no infrastructure to stand up beyond a local OTLP receiver. It runs entirely on your machine, over data that never leaves it.
See it work
redundo analyze examples/demo_trace.jsonl
Coverage: 16/25 events priced (64%) -- $0.1060 of tracked spend is what this analysis actually covers.
9 event(s) had no cost_usd and are excluded from every dollar figure below -- the percentages are computed on the priced subset, not your total spend.
Candidate redundant-repeat pairs: 8
3 confirmed_waste -- repeated call, unchanged result, no intervening write, task failed. All four, confirmed -- drop any one and it's a guess, not a finding.
cost_usd: 0.028000
by model:
gpt-5.6: count=3 cost_usd=0.028000 tokens_in=3240 tokens_out=230
sample cases (spot-check these by hand):
- task=session-001 step=2 (tool_call/web_search): result identical; no intervening write; task terminated in failure
- task=session-006 step=1 (llm_call/gpt-5.6): result identical; no intervening write; task terminated in failure
3 likely_legitimate -- a specific reason it's not waste: result changed (polling worked), a write intervened (verification), or the task succeeded and neither the result nor the write status is already confirmed waste on its own
2 unclassified -- everything else -- a required signal (result, write status, or outcome) was missing from the trace, or the call confirms waste on its own and task-level success can't settle whether it mattered. No verdict, on purpose
0 near_duplicate -- arguments are similar but not identical to an earlier call on the same execution path (SimHash fingerprint comparison, not exact content_hash equality) -- surfaced for manual review, not a waste/legitimate verdict.
Every number above traces back to a sample case you can check by hand
against the fixture at examples/demo_trace.jsonl.
Or open examples/demo_report.html for the
same result as the self-contained HTML report. That's the actual product:
not a dollar figure to trust blindly, but one you can verify line by line.
What it is
redundo is two programs joined by a pipe, installed as one package.
adapt turns OTLP telemetry from a specific agent framework (Hermes,
Claude Code, Claude Cowork, ...) into one common, well-defined event
schema. analyze reads that schema and runs an actual analysis over
it. Today that means classifying repeated LLM/tool calls as confirmed
waste, likely legitimate, or unclassified, plus a fourth,
lower-confidence near-duplicate bucket for similar-but-not-identical
repeats. The schema in between is the real contract, not the pipe. If
your framework isn't supported yet, skip adapt and pipe in your own
NDJSON matching the schema; analyze doesn't know or
care where its input came from.
Quickstart
pip install "redundo[collector]"
# 1. Start a local OTLP receiver (skip this if you already run a real
# OTel Collector or backend -- point your source at that instead and
# use its output directory below).
redundo collect --out-dir ./otlp_traces &
# 2. Enable your agent framework's OTLP export, pointed at
# http://localhost:4318, and run it. See docs/ for the exact env vars
# each supported source needs.
# 3. Convert whatever got captured, then analyze it -- one pipe.
redundo adapt ./otlp_traces --summary | redundo analyze --format html > report.html
Already have a real collector or backend? Skip step 1 and pip install redundo without the extra. adapt and analyze themselves have no
dependencies at all; only collect needs the extra.
The source (which framework produced the captured data) is detected
automatically. You don't tell it. --summary on adapt prints what it
found: how many records came out, what fraction have observable content
vs. had to degrade honestly to "unknown," anything it had to skip and why.
See docs/ for exactly what each source provides and doesn't.
Each half also runs on its own:
redundo adapt ./otlp_traces -o trace.jsonl # just convert
redundo analyze trace.jsonl --format json # just analyze a file
redundo analyze trace.jsonl # reads stdin if the path is omitted or "-"
Supported sources
| Source | What it captures | Docs |
|---|---|---|
| OpenInference (Hermes, and anything else instrumented with an OpenInference-compatible library) | Full call/result content on both LLM and tool spans | docs/openinference.md |
| Claude Code (CLI, IDE extensions, Agent SDK) | Tool arguments and output via OTEL_LOG_TOOL_DETAILS/OTEL_LOG_TOOL_CONTENT; MCP tool arguments require the logs signal |
docs/claude-code.md |
| Claude Cowork | Logs-signal only; tool arguments observable, tool output is not, under any configuration | docs/cowork.md |
OpenClaw (@openclaw/diagnostics-otel) |
Content is opt-in (captureContent, off by default). cost_usd is an estimate apportioned from the metrics signal, only when metrics were captured. task_id is always trace-scoped, not conversation-scoped; see docs/openclaw.md for why that's structural, not a fallback |
docs/openclaw.md |
| OpenClaw Localtrace (openclaw-localtrace plugin) | Real conversation-scoped task_id, a real write/mutation signal per tool call, and a per-call cost_usd estimate. Capabilities no other OpenClaw source here has |
docs/openclaw-localtrace.md |
More sources are expected over time. An OpenTelemetry-based agent
observability adapter is only useful if it keeps pace with what people are
actually building agents with. Third-party sources don't need a PR
here at all. Install a package registering itself under the
redundo.adapter.sources entry-point group and it appears in --source
automatically; see docs/plugins.md.
Why trust these numbers
Every report opens with a coverage line, before any bucket:
Coverage: 16/25 events priced (64%) -- $0.1060 of tracked spend is what this analysis actually covers.
9 event(s) had no cost_usd and are excluded from every dollar figure below -- the percentages are computed on the priced subset, not your total spend.
This is measured over the entire loaded corpus, not just the events
that ended up in a candidate pair. The point is telling a reader what
fraction of their total data the numbers below are even computed on,
before they trust or forward those numbers. If metadata.task_id_source
is present on any event, a second line reports what fraction were
grouped by a source's most precise available signal versus a fallback.
If no source in the loaded corpus ever sets that key, the line is
omitted entirely rather than reporting a fabricated "0%": silence here
means "this dimension can't be spoken to for this data," not "everything
failed."
A third line reports comparability: what fraction of tasks had at least one candidate pair (a repeated call) for the buckets below to say anything about, versus tasks where nothing repeated at all and so nothing about them appears in any bucket. That's not a data gap (every call in those tasks was simply unique), but without this line, "this task had nothing to compare" and "this task's spend belongs to a source with missing signal" both look identical: silent absence from the bucket breakdown.
Two things hold across every source and every analysis in this repo:
- Degrade honestly, never guess. When a source doesn't provide enough
information to compute something real (a tool's result content, an
LLM's response text, whether a call had a side effect), it's either
omitted or marked explicitly as unobservable, never a fabricated
placeholder that could be mistaken for real data.
unclassifiedis not a bug to be minimized with heuristics; it's the honest answer when a trace doesn't say. Every source doc indocs/has a "known gaps" section that says exactly what can't be seen and why. - Every non-obvious decision is verified against real captured data,
not just a source's published documentation. Several of the decisions
in
docs/claude-code.mdin particular exist specifically because the docs and the actual data disagreed.
Five specific edge cases in the schema contract itself, like what
happens with no parent_id and how branching, parallel tasks, and
chains of repeats get handled, are resolved explicitly, not left
ambiguous. See docs/schema.md for exactly what each
one decides and why.
The four buckets
Given a candidate pair (an original call and a later, identical repeat of it in the same execution path):
- confirmed_waste: identical arguments (that's what makes it a candidate pair in the first place), identical result, no intervening write, task terminated in failure. All four confirmed, none assumed.
- likely_legitimate: result changed, or a write intervened. Either
one confirmed is enough, unconditionally. Terminal success is also
legit-supporting, but only as a tie-breaker: if either call-level
signal already confirms waste (identical result, or no intervening
write; one alone is enough, they needn't agree), the task having
succeeded anyway doesn't override that. See
classify.py's module docstring for the full reasoning. - unclassified: everything else. At least one required signal (result identity, write status, or terminal outcome) couldn't be read off the trace, and no legitimate-use signal fired either, or one call-level signal alone confirms the call looks wasted and the task merely succeeded anyway, which isn't proof the repeat contributed.
- near_duplicate: a lower-confidence, differently-shaped finding.
Arguments similar but not identical to an earlier call on the same
path (a SimHash fingerprint comparison, not exact
content_hashequality). Deliberately not folded into the three verdicts above: this is a similarity claim, not a waste/legitimate outcome, and stating it as a bucket of its own keeps that distinction visible instead of overstating what a fingerprint comparison can support. Never double-counted against an exact match already in one of the three buckets above. See docs/hashing.md for what a similarity fingerprint can and can't support.
The rule itself is printed next to every count in the actual report
output, not left implicit in a label. "42 confirmed_waste" is a claim;
"42 confirmed_waste -- repeated call, unchanged result, no intervening write, task failed" is a claim someone can check against one case by
hand. unclassified is not minimized with heuristics: a confident wrong
classification is worse than a large unclassified bucket, because the
first time someone spot-checks a "confirmed waste" case by hand and finds
it wasn't, the tool stops being trusted.
There's a fifth bucket this analysis deliberately doesn't attempt: silent-wrong (identical call, identical-looking success, wrong answer both times). That's not computable from a trace alone. It needs a correctness oracle external to the trace itself. A different analysis module, built on the same schema, is where something like that would live.
Setup by source
Every source below is the same three-step shape from the Quickstart:
start redundo collect, point the framework's OTLP export at it, run
the framework, then redundo adapt | redundo analyze. What differs per
source is exactly which env vars and config keys turn that export on and
what they unlock. That's what each subsection gives you, copy-pasteable.
Start the collector once, in its own terminal, before any of these:
pip install "redundo[collector]"
redundo collect --out-dir ./otlp_traces &
OpenClaw
openclaw plugins install clawhub:@openclaw/diagnostics-otel
openclaw plugins enable diagnostics-otel
openclaw config set diagnostics.enabled true
openclaw config set diagnostics.otel.enabled true
openclaw config set diagnostics.otel.endpoint "http://localhost:4318"
openclaw config set diagnostics.otel.captureContent true # opt-in; off by default
# restart the Gateway, then drive real turns through it, then:
redundo adapt ./otlp_traces --source openclaw --summary | redundo analyze --format html > report.html
captureContent is opt-in and off by default. Without it you still get
counts, timing, and an estimated cost, but call/result content stays
unobservable, so nothing can be confirmed as a repeat. Cost only exists
on the metrics signal (never per-call), so it's an apportioned estimate,
not an exactly metered figure. cost_usd stays None entirely unless
you also point redundo adapt at a directory that has metrics files in
it (the same otlp_traces dir redundo collect already writes them
to). task_id for this source is always trace-scoped, not
conversation-scoped, which is a structural property of what OpenClaw's
exporter emits, not a fallback. Full detail, including a documented case
where a live Gateway exported zero spans across several real turns (an
OpenClaw-side gap, not a redundo one), is in
docs/openclaw.md.
Want a real conversation-scoped task_id, a real per-call write signal,
and a real per-call cost estimate instead of an apportioned one? See
docs/openclaw-localtrace.md for the
openclaw-localtrace
plugin, which needs no redundo collect step at all.
Hermes
Hermes (and any other framework instrumented with an OpenInference-compatible
library) doesn't need source-specific flags to unlock content the way
Claude Code or OpenClaw do. An OpenInference LLM/TOOL span carries its
full input.value/output.value by default. All that's needed is
standard OTel export, pointed at the collector:
export OTEL_EXPORTER_OTLP_ENDPOINT=http://localhost:4318
export OTEL_EXPORTER_OTLP_PROTOCOL=http/protobuf
# then run Hermes (or your OpenInference-instrumented app) as usual
redundo adapt ./otlp_traces --source openinference --summary | redundo analyze --format html > report.html
task_id prefers gen_ai.conversation.id. If a trace's spans never
carry it, grouping falls back to the trace ID and that fallback is
reported, not silently assumed. See
docs/openinference.md.
Claude CLI
export CLAUDE_CODE_ENABLE_TELEMETRY=1
export CLAUDE_CODE_ENHANCED_TELEMETRY_BETA=1
export OTEL_TRACES_EXPORTER=otlp
export OTEL_LOGS_EXPORTER=otlp
export OTEL_METRICS_EXPORTER=none # not consumed by this adapter
export OTEL_EXPORTER_OTLP_PROTOCOL=http/protobuf
export OTEL_EXPORTER_OTLP_ENDPOINT=http://localhost:4318
export OTEL_TRACES_EXPORT_INTERVAL=1000
export OTEL_LOGS_EXPORT_INTERVAL=1000
export OTEL_LOG_USER_PROMPTS=1 # first-of-turn llm_call content
export OTEL_LOG_TOOL_DETAILS=1 # built-in tool arguments + MCP tool_input
export OTEL_LOG_TOOL_CONTENT=1 # tool.output content (needs tracing on)
# run your claude session(s), then:
redundo adapt ./otlp_traces --source claude-code --summary | redundo analyze --format html > report.html
Two independent signals matter here. Traces alone still produce a valid
corpus, but MCP tool call arguments only ever appear on the logs signal
(OTEL_LOGS_EXPORTER=otlp + OTEL_LOG_TOOL_DETAILS=1), and tool
output content only ever appears in a span event gated by
OTEL_LOG_TOOL_CONTENT=1. OTEL_TRACES_EXPORT_INTERVAL=1000 (or lower)
matters for short-lived -p invocations: the default 5s interval can
lose the whole session to an early exit. Full detail in
docs/claude-code.md.
Claude Agent SDK
The same env vars as Claude CLI above. The SDK launches the claude
binary as a subprocess and that subprocess inherits its parent's
environment, so set these in whatever process calls query() (shell
export before running your script, or os.environ/process.env before
the SDK import) rather than anywhere inside the SDK's own options:
export CLAUDE_CODE_ENABLE_TELEMETRY=1
export CLAUDE_CODE_ENHANCED_TELEMETRY_BETA=1
export OTEL_TRACES_EXPORTER=otlp
export OTEL_LOGS_EXPORTER=otlp
export OTEL_METRICS_EXPORTER=none
export OTEL_EXPORTER_OTLP_PROTOCOL=http/protobuf
export OTEL_EXPORTER_OTLP_ENDPOINT=http://localhost:4318
export OTEL_TRACES_EXPORT_INTERVAL=1000
export OTEL_LOGS_EXPORT_INTERVAL=1000
export OTEL_LOG_USER_PROMPTS=1
export OTEL_LOG_TOOL_DETAILS=1
export OTEL_LOG_TOOL_CONTENT=1
python your_agent_script.py # anything that calls claude_agent_sdk.query()
redundo adapt ./otlp_traces --source claude-code --summary | redundo analyze --format html > report.html
Same --source claude-code as the CLI. The SDK is detected as the same
source, not a separate one. One thing genuinely differs under the hood:
the SDK always launches the CLI in streaming mode, which never emits the
claude_code.interaction span the CLI normally uses to attach a turn's
prompt text. This adapter recovers llm_call content for that case
automatically via a time-window correlation against the logs signal.
There's nothing to configure for it, but if you want to know exactly how
(and its limits), see "Recovering llm_call content when there's no
interaction span at all" in docs/claude-code.md.
Each source has a genuinely different OTLP shape, not just different
attribute names, and redundo adapt tells them apart from the data
itself (span names, openinference.span.kind attributes, and for
logs-only sources, the OTLP resource-level service.name attribute).
See detect.py's module docstring for
the exact rules, and force a specific source with --source if you ever
need to skip detection.
Usage
redundo analyze trace.jsonl
redundo analyze trace.jsonl --format json
redundo analyze trace.jsonl --format html --output report.html
redundo analyze trace.jsonl --lenient # skip malformed rows instead of failing
redundo analyze trace.jsonl --analysis waste # the default -- other analyses can register under this flag
The HTML report is a single self-contained file: no CDN assets, no webfonts, no JS, just inline SVG and CSS, safe to open straight from disk or send anywhere. Every value pulled from the trace (model names, workflow labels, classification reasons) is HTML-escaped before being written, since that content is attacker-controlled if the trace comes from somewhere untrusted.
Or as a library:
from redundo.adapter import detect_source, convert_claude_code
from redundo.analyzer import load_events, WasteAnalysis
documents = [...] # parsed OTLP JSON documents
detection = detect_source(documents)
records, summary = convert_claude_code(documents) # or convert_openinference / convert_cowork / convert_openclaw
events = load_events("trace.jsonl")
result = WasteAnalysis().run(events)
Or run a different analysis the same way. Any Analysis subclass takes
a list[Event] and returns an AnalysisResult that every renderer
(to_text/to_json/to_html) already knows how to display:
from redundo.analyzer import AnalysisRegistry, to_html
result = AnalysisRegistry().get("waste").run(events)
open("report.html", "w").write(to_html(result))
Every Classification carries a one-line reason naming exactly which
signals fired and why. That's what the CLI's "sample cases" section
prints, meant for spot-checking a verdict by hand.
Extending redundo
Adapter sources, analyses, and report formats are all plugin points via
Python entry points. A separate package registering itself under
redundo.adapter.sources, redundo.analyzer.analyses, or
redundo.analyzer.report_formats shows up in --source/--analysis/
--format automatically, no PR against this repo needed. See
docs/plugins.md for the full contract and
examples/redundo-plugin-example/
for a complete, working, minimal package implementing all three.
Contributing one in-tree instead, or to the shared schema/coverage infrastructure itself, is covered in CONTRIBUTING.md.
Development
uv sync
uv run pytest
tests/analyzer/fixtures/sample.jsonl has one task per bucket (including
each of the three likely_legitimate triggers separately) and doubles as
a runnable example. tests/adapter/ and tests/analyzer/ run
independently of each other, matching the module split.
License
MIT. See LICENSE.
Release files for redundo 0.2.0
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| File | Interpreter | ABI | Platform | Reset |
|---|---|---|---|---|
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Total release size: 317.4 kB
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