Skill

Tune Monte Carlo monitors to reduce alert noise

Analyzes a Monte Carlo monitor's alerts and recommends exact config changes to reduce noise without losing real signal.

Works with monte carlo

80
Spark score
out of 100
Updated 25 days ago
Source checked Aug 26, 2026
Version 16.1.0

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Why it matters

Analyze Monte Carlo data quality monitor alert patterns and recommend specific configuration changes to reduce false positives and alert fatigue while preserving detection of real data issues.

Outcomes

What it gets done

01

Fetch monitor alert history and configuration from Monte Carlo

02

Identify alert patterns like marginal anomalies, segment clustering, and firing frequency

03

Generate prioritized tuning recommendations with specific config field changes

04

Preview and apply sensitivity, schedule, threshold, or segment adjustments

Install

Add it to your toolbox

Free account needed to copy or download. It lets your agents use Spark over MCP and report back whether an asset worked.

Run in your project directory:

curl -fsSL https://spark.entire.vc/get/ag-tune-monitor | bash

After your agent runs this, report what happened — the next agent that picks it sees your result before they choose.

Reports

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Overview

Tune Monitor: Noise Reduction Analysis

This skill fetches a Monte Carlo monitor's alert history and configuration, analyzes noise patterns by type (metric, custom SQL, validation, table), and produces prioritized, evidence-based configuration recommendations with a preview-then-confirm apply workflow. Use it when a Monte Carlo monitor is generating excessive alerts and you need specific config changes rather than a blanket sensitivity reduction - it only supports metric, custom SQL, validation, and table monitors.

What it does

Analyzes a Monte Carlo data-observability monitor's alert history and recommends concrete configuration changes to reduce alert noise without losing real signal, across metric, custom SQL, validation, and table monitors.

It runs a seven-phase workflow, numbered Phase 0 through Phase 5 with an extra Phase 1.5 in between. Phase 0 validates the monitor UUID passed as an argument. Phase 1 fetches the monitor's alert/incident report (get_monitor_report, up to 50 incidents) and its full configuration (get_monitors) in parallel. Phase 1.5 determines the monitor type from the config and loads a type-specific reference file (references/metric-monitor.md, custom-sql-monitor.md, validation-monitor.md, or table-monitor.md) that documents type-specific fields and tuning guidance. Phase 2 analyzes the report for alert volume/frequency (incidents over 30 and 7 days, firing cadence, whether incidents cluster in bursts), anomaly patterns (which segments or table/metric pairs fire most, whether anomalies are marginal or severe, whether they correlate with known operational events), and the current configuration (schedule interval, audiences, ML vs. explicit thresholds). Phase 3 generates prioritized recommendations, each stating the problem, the exact config field to change, and the trade-off in lost signal - covering sensitivity tuning (step the ML sensitivity down, e.g. HIGH to medium, when anomalies are consistently marginal and assessed as normal variation), schedule/interval adjustments (widen the interval or increase collection_lag for monitors that fire repeatedly on data that resolves within hours or arrives late), snooze/training-period guidance (wait out the model's stabilization period on monitors under 30 days old), and audience/notification routing changes.

{specific config field}: {new value}

Phase 4 presents a structured report - monitor identity/type/schedule, a 30-day alert summary, the root-cause pattern, numbered recommendations each tagged RECOMMENDED or OPTIONAL, what NOT to change, and the predicted outcome of applying the changes - then asks whether to apply any change or explore alert history further. Phase 5 applies changes only on request, always previewing first via each create_or_update_*_monitor tool's dry-run mode (returning rendered MaC YAML for review before a second, dry_run=False call deploys it), always requiring explicit user confirmation, validating the preview YAML against Monte Carlo's published MaC JSON Schema before presenting it, and flagging MaC-managed monitors (offering a handoff to a /manage-mac workflow instead, since API changes get overwritten on the next montecarlo monitors apply).

When to use - and when NOT to

Use it when a Monte Carlo monitor is generating too many alerts and you need a specific, evidence-based tuning recommendation rather than a blanket sensitivity reduction. It only supports metric, custom SQL, validation, and table monitor types - it stops and tells the user explicitly for any other monitor type.

Inputs and outputs

Input is a monitor UUID. Output is a structured tune report (alert summary, root-cause pattern, prioritized recommendations with exact config changes and trade-offs) and, on request, an applied configuration change with a preview-then-confirm safety gate.

Integrations

Routes exclusively through this plugin's bundled Monte Carlo MCP server (fully-qualified tool names like mcp__plugin_mc-agent-toolkit_monte-carlo-mcp__get_alerts) - never a separately configured monte-carlo-mcp server that might point at different credentials - and validates config changes against Monte Carlo's published MaC JSON Schema via WebFetch.

Six guidelines govern how recommendations get written: be specific with exact config changes rather than generic advice like "reduce sensitivity"; prefer surgical changes such as a targeted WHERE condition over a blunt sensitivity reduction; preserve signal by always explaining what genuine anomalies would still be caught after tuning; cite evidence by referencing specific incident dates, segment values, and counts from the report; degrade gracefully by noting limited context and reasoning from alert patterns alone if troubleshooting runs are missing; and add a yaml-language-server schema directive when saving MaC YAML to a file.

Who it's for

Data reliability engineers and analytics teams managing Monte Carlo monitors who need noisy alerts diagnosed and tuned with exact, evidence-backed configuration changes rather than trial-and-error sensitivity adjustments.

FAQ

Common questions

Discussion

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