Calmo
ProductDebug Production x10 Faster with AI.
Capabilities9 decomposed
production-error-trace-collection-and-enrichment
Medium confidenceAutomatically captures stack traces, request context, and system state from production errors through instrumentation hooks or log aggregation integrations. Enriches raw error data with source maps, variable snapshots, and execution timeline context to reconstruct the exact state when failures occurred, enabling developers to understand root causes without reproduction.
Combines error trace collection with AI-driven context enrichment to automatically surface the most relevant debugging information (variable states, execution paths, related logs) rather than requiring manual log digging
Faster root-cause identification than traditional error tracking (Sentry, Rollbar) because AI synthesizes context across traces, logs, and metrics automatically rather than requiring manual correlation
ai-powered-root-cause-analysis
Medium confidenceUses LLM-based analysis to examine error traces, logs, and system state to generate hypotheses about failure root causes. The system patterns-matches against known failure modes, analyzes code paths, and correlates timing with system events to produce ranked explanations with confidence scores and suggested fixes, reducing manual investigation time.
Applies multi-step reasoning (trace analysis → pattern matching → code path simulation → hypothesis ranking) rather than simple keyword matching, enabling diagnosis of subtle failures across distributed systems
Faster than manual debugging and more accurate than rule-based alert systems because it reasons about causal relationships between events rather than matching static patterns
error-to-fix-code-generation
Medium confidenceGenerates code patches or configuration changes directly from error analysis results. The system understands the error context, examines the relevant source code, and produces targeted fixes (bug patches, configuration corrections, dependency updates) with explanations of why the fix resolves the issue. Fixes are presented as diffs or pull request suggestions.
Generates context-aware patches that understand the error's root cause rather than applying generic fixes, and integrates with Git/PR workflows for seamless deployment
More targeted than generic code generation tools because it reasons backward from error diagnosis to produce specific fixes rather than forward from requirements
cross-service-error-correlation
Medium confidenceTraces errors across microservices and distributed systems by correlating request IDs, timing, and service dependencies. Automatically maps which upstream service failures caused downstream errors, reconstructs the full request path through the system, and identifies the true origin of failures that manifest in multiple services. Uses distributed tracing standards (OpenTelemetry, Jaeger) for integration.
Automatically reconstructs request paths across service boundaries and identifies failure origins using timing and dependency analysis rather than requiring manual trace inspection
Faster than manual trace analysis because it automatically correlates events across services and identifies the true failure origin rather than requiring engineers to follow request IDs manually
intelligent-error-deduplication-and-grouping
Medium confidenceUses semantic analysis and pattern matching to group similar errors across different manifestations. Errors with identical root causes but different stack traces, error messages, or triggering conditions are automatically clustered together. Deduplication reduces alert fatigue by surfacing unique issues rather than variants of the same problem, and enables trend analysis across error families.
Uses semantic similarity and root-cause analysis rather than simple string matching to group errors, enabling detection of the same bug manifesting through different code paths or error messages
Reduces alert noise more effectively than regex-based grouping because it understands error semantics and root causes rather than just matching error message patterns
contextual-alert-prioritization
Medium confidenceRanks errors by business impact using context about user count affected, service criticality, error frequency trends, and business metrics. Combines error severity with impact analysis to surface the most urgent issues first. Learns from past incident severity to improve prioritization over time, and suppresses low-impact errors to reduce noise.
Combines error severity with business impact metrics (affected users, service criticality) rather than treating all errors equally, enabling prioritization by actual business consequence
More effective incident triage than severity-only ranking because it factors in user impact and business context rather than just error characteristics
ai-assisted-incident-runbook-generation
Medium confidenceAutomatically generates incident response runbooks from error analysis, historical incident data, and known remediation patterns. Produces step-by-step guides for on-call engineers including diagnostic commands, rollback procedures, and escalation paths. Runbooks are customized to the specific error and organization's infrastructure, and improve over time as incidents are resolved.
Generates context-specific runbooks from error analysis and historical incidents rather than generic templates, enabling faster incident response with organization-specific procedures
More useful than static runbook templates because it generates specific steps for the actual error and learns from past incidents rather than requiring manual updates
production-debugging-session-replay
Medium confidenceReconstructs the execution context of production errors by replaying the request through the system with captured state. Captures variable values, function arguments, and execution flow at error time, then allows engineers to step through the execution path interactively. Integrates with IDE debuggers for familiar debugging experience without requiring local reproduction.
Captures and replays production execution state to enable interactive debugging without reproduction, using IDE debugger protocols for familiar debugging experience
Faster debugging than local reproduction because it uses actual production state and execution flow rather than requiring engineers to recreate conditions
performance-regression-detection-and-analysis
Medium confidenceMonitors application performance metrics (latency, throughput, resource usage) and automatically detects regressions by comparing against historical baselines. Uses statistical analysis to identify significant performance changes, correlates regressions with code deployments and infrastructure changes, and generates hypotheses about performance causes. Integrates with APM systems for metric collection.
Uses statistical analysis and deployment correlation to detect performance regressions automatically rather than requiring manual threshold configuration, and generates root cause hypotheses
More effective than static performance thresholds because it adapts to system baselines and correlates regressions with specific deployments rather than alerting on absolute values
Capabilities are decomposed by AI analysis. Each maps to specific user intents and improves with match feedback.
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Best For
- ✓backend teams debugging production incidents in real-time
- ✓full-stack teams with complex distributed systems
- ✓SaaS companies needing rapid incident response
- ✓teams with large error volumes who need triage automation
- ✓on-call engineers needing rapid incident diagnosis
- ✓developers unfamiliar with specific codebases debugging inherited systems
- ✓teams with CI/CD pipelines ready to auto-merge low-risk fixes
- ✓developers needing rapid incident remediation
Known Limitations
- ⚠Requires instrumentation setup — not zero-config for all frameworks
- ⚠Source map availability is critical; minified code without maps limits debuggability
- ⚠High-volume error streams may require sampling to avoid storage/cost explosion
- ⚠Privacy-sensitive data (PII, secrets) requires careful filtering configuration
- ⚠AI analysis quality depends on error context completeness — sparse logs produce unreliable hypotheses
- ⚠Cannot replace domain expertise for complex distributed system failures
Requirements
Input / Output
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Debug Production x10 Faster with AI.
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