MCP HubMCP Hub
Volver a habilidades

test-team-coordination

pjt222
Actualizado 2 days ago
3 vistas
17
2
17
Ver en GitHub
Metaaitestingdesign

Acerca de

Esta habilidad ejecuta escenarios de prueba predefinidos contra equipos de IA para evaluar sus patrones de coordinación y rendimiento. Observa los comportamientos del equipo, verifica los criterios de aceptación y genera informes estructurados RESULT.md. Úsela para validar la coordinación del equipo, comparar patrones en cargas de trabajo equivalentes o establecer líneas base de rendimiento para composiciones de equipos.

Instalación rápida

Claude Code

Recomendado
Principal
npx skills add pjt222/agent-almanac -a claude-code
Comando PluginAlternativo
/plugin add https://github.com/pjt222/agent-almanac
Git CloneAlternativo
git clone https://github.com/pjt222/agent-almanac.git ~/.claude/skills/test-team-coordination

Copia y pega este comando en Claude Code para instalar esta habilidad

Documentación

Test Team Coordination

Execute test scenario from tests/scenarios/teams/ against target team. Observe coordination pattern behaviors, evaluate acceptance criteria, score rubric, produce RESULT.md in tests/results/.

When Use

  • Validate team's coordination pattern produces expected behaviors
  • Run structured test after modifying team definition or agent
  • Compare coordination patterns by running same scenario with different teams
  • Establish baseline performance metrics for team composition
  • Regression testing after adding new agents or changing team membership

Inputs

  • Required: Path to test scenario file (e.g., tests/scenarios/teams/test-opaque-team-cartographers-audit.md)
  • Optional: Run ID override (default: YYYY-MM-DD-<target>-NNN auto-generated)
  • Optional: Team size override (default: from scenario frontmatter)
  • Optional: Skip scope change (default: false — inject scope change if defined)

Steps

Step 1: Load and Validate Test Scenario

1.1. Read the test scenario file specified in the input.

1.2. Parse YAML frontmatter and extract:

  • target — the team to test
  • coordination-pattern — the expected pattern
  • team-size — number of members to spawn
  • Acceptance criteria table
  • Scoring rubric (if present)
  • Ground truth data (if present)

1.3. Verify the scenario file has all required sections:

  • Objective
  • Pre-conditions
  • Task (with Primary Task subsection)
  • Expected Behaviors
  • Acceptance Criteria
  • Observation Protocol

Got: Scenario file loads, parses, contains all required sections.

If fail: File missing or unparseable? Abort with error message identifying missing file or malformed section. Optional sections (Rubric, Ground Truth, Variants) absent? Note absence, continue.

Step 2: Verify Pre-conditions

2.1. Walk through each pre-condition checkbox in the scenario.

2.2. For file-existence checks, use Glob to verify.

2.3. For registry count checks, parse the relevant _registry.yml and compare total_* against actual file counts on disk.

2.4. For branch/git state checks, run git status --porcelain and git branch --show-current.

Got: All pre-conditions satisfied.

If fail: Any pre-condition fails? Record as BLOCKED in results. Decide whether to proceed (soft pre-condition) or abort (hard pre-condition like missing target team file). Document decision.

Step 3: Load Coordination Pattern Criteria

3.1. Read tests/_registry.yml and locate the coordination_patterns entry matching the scenario's coordination-pattern value.

3.2. Extract the key_behaviors list for this pattern.

3.3. These behaviors become the observation checklist — each must be watched for during execution and recorded as observed/not observed.

Got: Pattern key behaviors loaded, ready for observation.

If fail: Coordination pattern not defined in registry? Use scenario's Expected Behaviors section as sole observation source. Log warning.

Step 4: Execute Task

4.1. Create the result directory: tests/results/YYYY-MM-DD-<target>-NNN/.

4.2. Record T0 (task start timestamp).

4.3. Read the target team's definition from teams/<target>.md, extract the CONFIG block, and activate the team: call TeamCreate with the team name, spawn teammates using each member's subagent_type, and create tasks from the CONFIG tasks list. Use the team-size from the scenario. Pass the Primary Task prompt verbatim from the scenario's Task section.

4.4. Observe the team's execution phases. Record timestamps for:

  • T1: Form assessment / task decomposition complete
  • T2: Role assignments visible

4.5. If the scenario defines a Scope Change Trigger and skip-scope-change is false:

  • Wait until Phase 2 (role assignment) is visible
  • Record T3 (scope change injection timestamp)
  • Send the scope change prompt to the team via SendMessage
  • Record T4 (scope change absorbed — role adjustment visible)

4.6. Continue observing until the team delivers its output.

  • Record T5 (integration begins)
  • Record T6 (final report delivered)

4.7. Capture the team's complete output.

Got: Team executes task through coordination pattern phases. Timestamps recorded for all transitions. Scope change (if applicable) injected and absorbed.

If fail: Team fails produce output? Record failure point and any error messages. Team stalls? Note last observed phase and timeout. Proceed to evaluation with partial results.

Step 5: Evaluate Pattern Behaviors

5.1. For each key behavior from Step 3, determine whether it was observed during execution:

  • Observed: Clear evidence in the team's output or coordination
  • Partial: Some evidence but incomplete or ambiguous
  • Not observed: No evidence

5.2. For each task-specific behavior from the scenario's Expected Behaviors section, apply the same evaluation.

5.3. Record findings in the observation log.

Got: All or most pattern-specific and task-specific behaviors observed.

If fail: Unobserved behaviors are findings, not failures of test procedure. Record accurately — they indicate coordination pattern did not fully manifest.

Step 6: Evaluate Acceptance Criteria

6.1. Walk through each acceptance criterion from the scenario.

6.2. For each criterion, assign a determination:

  • PASS: Criterion clearly met with observable evidence
  • PARTIAL: Criterion partially met (counts toward threshold at 0.5 weight)
  • FAIL: Criterion not met despite opportunity
  • BLOCKED: Could not evaluate (pre-condition failure, team timeout, etc.)

6.3. If the scenario includes Ground Truth data, verify reported findings against it:

  • Calculate accuracy percentages per category
  • Flag false positives and false negatives

6.4. If the scenario includes a Scoring Rubric, score each dimension 1-5 with brief justification.

6.5. Calculate summary metrics:

  • Acceptance: X/N criteria passed (PARTIAL counts as 0.5)
  • Threshold: PASS if >= threshold defined in scenario
  • Rubric total: X/Y points (if applicable)

Got: All acceptance criteria have determination. Summary metrics calculated.

If fail: Fewer than half criteria can be evaluated (too many BLOCKED)? Test run inconclusive. Document why, recommend re-running after fixing pre-conditions.

Step 7: Generate RESULT.md

7.1. Create tests/results/YYYY-MM-DD-<target>-NNN/RESULT.md using the Recording Template from the scenario's Observation Protocol.

7.2. Populate all sections:

  • Run metadata (observer, timestamps, duration)
  • Phase log with all recorded timestamps
  • Role emergence log (for adaptive/team tests)
  • Acceptance criteria results table
  • Rubric scores table (if applicable)
  • Ground truth verification table (if applicable)
  • Key observations (narrative)
  • Lessons learned

7.3. Include the team's raw output as an appendix or in a separate file (team-output.md) in the same result directory.

7.4. Add a summary verdict at the top:

**Verdict**: PASS | FAIL | INCONCLUSIVE
**Score**: X/N criteria (Y/Z rubric points)
**Duration**: Xm

Got: Complete RESULT.md with all sections populated and clear verdict.

If fail: Result file cannot be written? Output results to stdout as fallback. Evaluation data should never be lost.

Checks

  • Test scenario file loaded, all required sections present
  • Pre-conditions verified (or documented as BLOCKED)
  • Coordination pattern key behaviors loaded from registry
  • Team spawned, task delivered
  • Scope change injected at right time (if applicable)
  • All pattern-specific behaviors evaluated (observed/partial/not observed)
  • All acceptance criteria have determination (PASS/PARTIAL/FAIL/BLOCKED)
  • Ground truth verification completed (if applicable)
  • RESULT.md generated with all sections populated
  • Summary verdict calculated and recorded

Pitfalls

  • Evaluate output quality instead of coordination: This skill tests how team coordinates, not whether task output is perfect. Team that coordinates well but finds only 7/9 broken refs still demonstrates pattern.
  • Inject scope change too early: Wait until role assignment clear visible before injecting scope change. Too early means team hasn't differentiated yet, so nothing to adapt.
  • Conflate team member output with team output: Opaque team should present unified output. See individual member reports? That's finding about opacity, not test infrastructure problem.
  • Exact ground truth matching: Ground truth counts approximate. Evaluate whether findings in right ballpark, not whether they match exact.
  • Forget to record timestamps: Timestamps essential for measuring phase durations and adaptation speed. Set as events happen, not retroactive.

See Also

  • review-codebase — deep codebase review complements team-level testing
  • review-skill-format — validates individual skill format (this skill validates team coordination)
  • create-team — creates team definitions that this skill tests
  • evolve-team — evolves team definitions based on test findings
  • test-a2a-interop — similar testing pattern for A2A protocol conformance
  • assess-form — morphic assessment that opaque team lead uses internal

Repositorio GitHub

pjt222/agent-almanac
Ruta: i18n/caveman/skills/test-team-coordination
0
agentsagentskillsai-assisted-developmentclaude-codeskillsteams

Habilidades relacionadas

content-collections

Meta

Esta habilidad proporciona una configuración probada en producción para Content Collections, una herramienta centrada en TypeScript que transforma archivos Markdown/MDX en colecciones de datos con tipado seguro mediante validación Zod. Úsala al construir blogs, sitios de documentación o aplicaciones Vite + React con mucho contenido para garantizar seguridad de tipos y validación automática de contenido. Abarca todo, desde la configuración del plugin de Vite y compilación MDX hasta la optimización de despliegue y validación de esquemas.

Ver habilidad

polymarket

Meta

Esta habilidad permite a los desarrolladores crear aplicaciones con la plataforma de mercados de predicción Polymarket, incluyendo la integración de API para operaciones y datos de mercado. También proporciona transmisión de datos en tiempo real a través de WebSocket para monitorear operaciones en vivo y actividad del mercado. Úsela para implementar estrategias de trading o crear herramientas que procesen actualizaciones de mercado en tiempo real.

Ver habilidad

creating-opencode-plugins

Meta

Esta habilidad ayuda a los desarrolladores a crear complementos de OpenCode que se conectan a más de 25 tipos de eventos, como comandos, archivos y operaciones LSP. Proporciona la estructura del complemento, las especificaciones de la API de eventos y los patrones de implementación para módulos en JavaScript/TypeScript. Úsala cuando necesites interceptar, monitorear o extender el ciclo de vida del asistente de IA de OpenCode con lógica personalizada basada en eventos.

Ver habilidad

sglang

Meta

SGLang es un framework de alto rendimiento para el servicio de LLM que se especializa en generación rápida y estructurada para JSON, expresiones regulares y flujos de trabajo de agentes utilizando su caché de prefijos RadixAttention. Ofrece una inferencia significativamente más rápida, especialmente para tareas con prefijos repetidos, lo que lo hace ideal para salidas complejas y estructuradas, y conversaciones multiturno. Elige SGLang sobre alternativas como vLLM cuando necesites decodificación restringida o estés construyendo aplicaciones con uso extensivo de prefijos compartidos.

Ver habilidad