affaan-m/ECC

agentic-engineering

Operate as an agentic engineer using eval-first execution, decomposition, and cost-aware model routing. Use when AI agents perform most implementation work and humans enforce quality and risk controls.

79Collecting
See how to use itView GitHub source
npx skills add https://github.com/affaan-m/ECC --skill ".kiro/skills/agentic-engineering"
Automated source guide

Source checked Jul 28, 2026·Refresh due Oct 26, 2026

Reorganized from the pinned upstream SKILL.md

Turn agentic-engineering's source instructions into a guide you can follow

According to the pinned SKILL.md from affaan-m/ECC: Use this skill for engineering workflows where AI agents perform most implementation work and humans enforce quality and risk controls.

npx skills add https://github.com/affaan-m/ECC --skill ".kiro/skills/agentic-engineering"
Check the pinned source

Best fit

  • Managing AI-driven development workflows
  • Planning agent task decomposition
  • Optimizing model tier selection

Bring this context

  • A concrete task that matches the documented purpose of agentic-engineering.
  • The files, examples, or context the task depends on.
  • Your constraints, target environment, and definition of done.

Expected outputs

  • A result that follows the pinned agentic-engineering instructions.
  • A concise record of assumptions, inputs used, and unresolved questions.
  • A final check against the source workflow and relevant permission signals.

Key source sections

Read agentic-engineering through these 5 source sections

Sections are extracted automatically from the pinned SKILL.md and link back to the source.

01

Review Focus for AI-Generated Code

Prioritize: - Invariants and edge cases - Error boundaries - Security and auth assumptions - Hidden coupling and rollout risk

SKILL.md · Review Focus for AI-Generated Code
Invariants and edge casesError boundariesSecurity and auth assumptions
02

Operating Principles

1. Define completion criteria before execution. 2. Decompose work into agent-sized units. 3. Route model tiers by task complexity. 4. Measure with evals and regression checks.

SKILL.md · Operating Principles
Define completion criteria before execution.Decompose work into agent-sized units.Route model tiers by task complexity.
03

Eval-First Loop

1. Define capability eval and regression eval. 2. Run baseline and capture failure signatures. 3. Execute implementation. 4. Re-run evals and compare deltas.

SKILL.md · Eval-First Loop
Define capability eval and regression eval.Run baseline and capture failure signatures.Execute implementation.
04

Task Decomposition

Apply the 15-minute unit rule: - Each unit should be independently verifiable - Each unit should have a single dominant risk - Each unit should expose a clear done condition

SKILL.md · Task Decomposition
Each unit should be independently verifiableEach unit should have a single dominant riskEach unit should expose a clear done condition
05

Model Routing

Choose model tier based on task complexity:

SKILL.md · Model Routing
Haiku: Classification, boilerplate transforms, narrow editsExample: Rename variable, add type annotation, format codeSonnet: Implementation and refactors

SkillSignal prompt templates

Provide the task, context, and acceptance criteria

These prompts were written by SkillSignal from the source structure; they are not upstream text.

Task-start prompt

Confirm source fit, inputs, and outputs before acting.

Use agentic-engineering to help me with: [specific task]. Context: [files, data, or background]. Constraints: [environment, scope, and prohibited actions]. Before acting, check the pinned SKILL.md and explain which sections apply, what inputs are still missing, and what you will deliver.

Source-guided execution

Make the Agent explicitly follow the key extracted sections.

Apply the pinned agentic-engineering source to [task]. Pay particular attention to these source sections: “Review Focus for AI-Generated Code”, “Operating Principles”, “Eval-First Loop”, “Task Decomposition”, “Model Routing”. Preserve the important decision at each step. Mark facts not covered by the source as “needs confirmation” instead of inventing them. Then verify the result against my acceptance criteria: [criteria].

Result-review prompt

Check omissions, permissions, and source drift before delivery.

Review the current agentic-engineering result: (1) does it satisfy the original task; (2) were any applicable steps or limits in the pinned SKILL.md missed; (3) did it perform any unauthorized file, command, network, or data action; and (4) which conclusions remain unverified? List issues first, then fix only what the source or user authorization supports.

Output checklist

Verify each item before delivery

The task matches the purpose documented in the SKILL.md.

The source section “Review Focus for AI-Generated Code” has been checked.

The source section “Operating Principles” has been checked.

The source section “Eval-First Loop” has been checked.

The source section “Task Decomposition” has been checked.

Inputs, constraints, and acceptance criteria are explicit.

Unverified facts, compatibility, and outcome claims are clearly marked.

Any file, command, network, or data action has been reviewed.

Choose a different workflow

When another Skill is the better fit

FAQ

What does agentic-engineering do?

Use this skill for engineering workflows where AI agents perform most implementation work and humans enforce quality and risk controls.

How do I start using agentic-engineering?

The catalog detected this source-specific install command: npx skills add https://github.com/affaan-m/ECC --skill ".kiro/skills/agentic-engineering". Inspect the command and pinned source before running it.

Which Agent platforms does it declare?

No dedicated Agent platform is declared in the pinned source record.

Repository stars
234,327
Repository forks
35,711
Quality
79/100
Source repository last pushed

Quality breakdown

Based on traceable docs and repository signals; stars are not treated as quality.

79/100
Documentation26/30
Specificity16/25
Maintenance20/20
Trust signals17/25
View original Skill.mdThis page is parsed directly from the repository SKILL.md without editorial rewriting. Collected: Jul 28, 2026 · about 2 min

Agentic Engineering

Use this skill for engineering workflows where AI agents perform most implementation work and humans enforce quality and risk controls.

Operating Principles

  1. Define completion criteria before execution.
  2. Decompose work into agent-sized units.
  3. Route model tiers by task complexity.
  4. Measure with evals and regression checks.

Eval-First Loop

  1. Define capability eval and regression eval.
  2. Run baseline and capture failure signatures.
  3. Execute implementation.
  4. Re-run evals and compare deltas.

Example workflow:

1. Write test that captures desired behavior (eval)
2. Run test → capture baseline failures
3. Implement feature
4. Re-run test → verify improvements
5. Check for regressions in other tests

Task Decomposition

Apply the 15-minute unit rule:

  • Each unit should be independently verifiable
  • Each unit should have a single dominant risk
  • Each unit should expose a clear done condition

Good decomposition:

Task: Add user authentication
├─ Unit 1: Add password hashing (15 min, security risk)
├─ Unit 2: Create login endpoint (15 min, API contract risk)
├─ Unit 3: Add session management (15 min, state risk)
└─ Unit 4: Protect routes with middleware (15 min, auth logic risk)

Bad decomposition:

Task: Add user authentication (2 hours, multiple risks)

Model Routing

Choose model tier based on task complexity:

  • Haiku: Classification, boilerplate transforms, narrow edits

    • Example: Rename variable, add type annotation, format code
  • Sonnet: Implementation and refactors

    • Example: Implement feature, refactor module, write tests
  • Opus: Architecture, root-cause analysis, multi-file invariants

    • Example: Design system, debug complex issue, review architecture

Cost discipline: Escalate model tier only when lower tier fails with a clear reasoning gap.

Session Strategy

  • Continue session for closely-coupled units

    • Example: Implementing related functions in same module
  • Start fresh session after major phase transitions

    • Example: Moving from implementation to testing
  • Compact after milestone completion, not during active debugging

    • Example: After feature complete, before starting next feature

Review Focus for AI-Generated Code

Prioritize:

  • Invariants and edge cases
  • Error boundaries
  • Security and auth assumptions
  • Hidden coupling and rollout risk

Do not waste review cycles on style-only disagreements when automated format/lint already enforce style.

Review checklist:

  • Edge cases handled (null, empty, boundary values)
  • Error handling comprehensive
  • Security assumptions validated
  • No hidden coupling between modules
  • Rollout risk assessed (breaking changes, migrations)

Cost Discipline

Track per task:

  • Model tier used
  • Token estimate
  • Retries needed
  • Wall-clock time
  • Success/failure outcome

Example tracking:

Task: Implement user login
Model: Sonnet
Tokens: ~5k input, ~2k output
Retries: 1 (initial implementation had auth bug)
Time: 8 minutes
Outcome: Success

When to Use This Skill

  • Managing AI-driven development workflows
  • Planning agent task decomposition
  • Optimizing model tier selection
  • Implementing eval-first development
  • Reviewing AI-generated code
  • Tracking development costs

Integration with Other Skills

  • tdd-workflow: Combine with eval-first loop for test-driven development
  • verification-loop: Use for continuous validation during implementation
  • search-first: Apply before implementation to find existing solutions
  • coding-standards: Reference during code review phase
Source repo
affaan-m/ECC
Skill path
.kiro/skills/agentic-engineering/SKILL.md
Commit SHA
4e973d3eaf92
Repository license
MIT
Data collected