Your CI
remembers now.

When CI breaks, ForgeBeyond tells your team why, where to look, and what to do — using memory-native failure reasoning that remembers every incident, every fix, every regression.

Open source. Install in 2 minutes. forge quickstart

forgebeyondbot commented 23 seconds ago
regression high confidence memory match
Similar to prior incident — resolved Feb 3 by @orders-team (commit a1b2c3d)
Owner: @orders-team Action: investigate_regression

Four steps. One memory-aware PR comment.

1

CI fails

GitHub Actions workflow goes red. ForgeBeyond parses logs, test output, and the git diff — JUnit XML, pytest, TAP, raw logs, workflow YAML.

2

Classify & remember

Classifies into a bounded failure taxonomy using deterministic rules first. Searches failure memory by fingerprint, component overlap, subcategory, and text similarity for related prior incidents.

3

Reason about root cause

Attributes the root cause by correlating the failure with the diff, identifies the file and line, routes to the likely owner via CODEOWNERS. Confidence score backed by explicit evidence.

4

Comment with memory

Posts a PR comment with classification, root cause, fix guidance, and prior incident history — "Previously resolved Feb 3 by @orders-team (commit a1b2c3d). May have regressed."

This is what your team sees.

Every analysis lands as a PR comment — no dashboards, no context switching. Toggle between failure types to see how ForgeBeyond adapts.

forgebeyondbot commented 23 seconds ago
Classification flaky_test
Confidence high
Method deterministic
Evidence
fingerprint: match — seen 12 times in 30 days
rerun_rate: 91% success on rerun (11 of 12)
pattern: test_checkout_flow intermittent timeout at assertion
source: deterministic — fingerprint + recurrence store
Likely owner platform-team CODEOWNERS match on tests/integration/
Recommended action

rerun_likely_flake — Rerun is safe, but this test has been flaky for 23 days. Consider quarantining.

The memory tab is the core of ForgeBeyond: when a failure resembles a prior incident, it surfaces the full history — who fixed it, when, and how — right in the PR comment. Resolution is detected automatically when tests start passing. The upstream tab shows cross-repo awareness: when an upstream service changes its API, ForgeBeyond links the failure to the exact change and author.

CI failures waste your team's best hours.

Log spelunking

A build goes red. An engineer opens a 500-line log, scrolls to the error, cross-references with the diff, checks if it happened before. This takes 15–60 minutes. It happens multiple times a day.

Reflexive re-runs

When a build fails ambiguously, the default is to click re-run. This wastes CI compute, delays merges, and hides real regressions behind retry luck.

Zero institutional memory

The same Redis timeout broke builds three times this week. Someone fixed it last month — but nobody remembers who, or what they did. Every occurrence is triaged from scratch because your CI has no memory.

Your CI has amnesia.
Ours doesn't.

Every failure becomes a Failure Memory Object — a semantic record that captures the full story: what broke, why, how often, which component, who fixed it, and what they did. Not a hash. A narrative the system can reason about.

Semantic retrieval — when a new failure occurs, ForgeBeyond searches memory using four strategies simultaneously: fingerprint match, component overlap, subcategory correlation, and text similarity. It finds related incidents even when stack traces drift or error messages change.

Resolution tracking — when tests start passing again, resolution is recorded automatically. No manual close-out. The next time the same pattern appears, your team sees: "Previously resolved Feb 3 by @orders-team (commit a1b2c3d). May have regressed."

fingerprint: a3f8c2d environment_infra
First seen — classified regression
Seen 4x — routed to @orders-team
Auto-resolved — tests passing, fix recorded (a1b2c3d)
Regression — same pattern, PR comment includes prior resolution
Resolution status Regressed

Deterministic first. AI second. Always labeled.

Evidence, not vibes.

Every classification is grounded in deterministic signals: fingerprint matches, failure memory retrieval, diff correlation, exit code patterns. Confidence scores come with explicit evidence. Auditable and reproducible.

AI is the fallback, not the headline.

When deterministic methods can't resolve a failure, a bounded AI reasoning step runs on curated, redacted evidence. Its output is always labeled model_assisted.

"I don't know" is a real answer.

When evidence is insufficient, the system says so. Low confidence outputs use hedging language and include whatever partial evidence was gathered. We never fake certainty.

Artifacts
Parse & extract
Memory retrieval multi-strategy
Deterministic rules deterministic
High/Medium confidence
Output deterministic
Low confidence
Bounded AI model_assisted
Output model_assisted

Most classifications never touch AI. That's by design.

See it work. Then install it.

Try it in 2 minutes.

git clone, make setup, forge quickstart. Runs preflight checks, analyzes 3 real failure scenarios, and shows what ForgeBeyond can do for your repo. Or try forge demo --story for the full memory lifecycle.

GitHub-native delivery.

PR comments and check run annotations via GitHub Actions. forge init generates the workflow. No new dashboard to check — results appear where your team already works.

Redaction by default.

Secrets and tokens stripped before any data reaches AI analysis. Common patterns caught automatically. Least privilege: reads logs, writes comments. No access to code, branches, or settings.

Deterministic-only mode.

For teams that can't use external LLMs: zero data sent to AI providers. Classification runs entirely on deterministic rules. Set deterministic_only: true in config.

The trajectory.

Every engineering org has institutional knowledge about their failures — it's just trapped in Slack threads and people's heads. ForgeBeyond makes that memory durable and automatic. Today: memory-native CI failure reasoning that classifies, remembers, retrieves, and tracks resolutions. The trajectory: institutional memory across the entire development workflow.
  • Memory-native failure reasoning — every failure becomes a semantic Failure Memory Object
  • Multi-strategy retrieval (fingerprint, component overlap, subcategory, text similarity)
  • Resolution tracking — auto-detects when failures are fixed, records how
  • Regression detection — flags when resolved patterns return, with prior fix context
  • Deterministic-first classification with bounded LLM fallback (always labeled)
  • Deterministic confidence scoring — evidence-grounded, never asks the LLM
  • GitHub Actions workflow + PR comments + check run annotations
  • CODEOWNERS-based owner routing and cross-service context
  • CLI with quickstart, demo (--story, --memory, --all), doctor, init
  • Parsers for JUnit XML, pytest, TAP, raw logs, git diff, workflow YAML, CODEOWNERS

What we won't build — and why.

General distributed RCA

Requires full topology knowledge we don't have. We're honest about it.

Autonomous remediation

One bad auto-revert destroys all trust. We recommend; you decide.

Observability replacement

We consume signals from Datadog, Grafana, PagerDuty — not compete with them.

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