One-click install
npx skills add https://github.com/MichaelSolati/mkai --skill estimate-michaelsolati
Or copy as Structured Prompt for Agentā–¼
Please help me install this Agent Skill.
Skill: estimate
Source: https://github.com/MichaelSolati/mkai/tree/main/profiles/game-dev/skills/estimate
Command: npx skills add https://github.com/MichaelSolati/mkai --skill estimate-michaelsolati

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill eliminates the guesswork and inconsistency of ad-hoc task estimation that leads to missed deadlines, overallocated teams, and unreliable sprint commitments for game development projects.

Core Features & Use Cases

  • Comprehensive Complexity Analysis: Evaluates code size, dependency coupling, cyclomatic complexity, and integration points to quantify implementation effort.
  • Data-Driven Ranges: Generates optimistic, expected, and pessimistic effort estimates backed by historical sprint velocity and similar past task data.
  • Risk & Dependency Mapping: Identifies potential blockers, risk likelihood, and cross-team dependencies to inform mitigation planning.
  • Use Case: A game development team can use this Skill to estimate the effort of adding a new multiplayer matchmaking system, scanning affected engine code, checking past networking task velocity, and flagging risks around third-party service integration.

Quick Start

Use the estimate skill to provide a structured effort estimate for implementing a player inventory system with cloud save functionality.

Frequently Asked Questions about estimate

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I estimate task effort for game development projects more accurately?ā–¼

Task effort estimation for game development projects analyzes code complexity, dependency coupling, and historical velocity to generate structured estimates with confidence levels. This replaces ad-hoc guesswork by providing optimistic, expected, and pessimistic effort ranges backed by data.

What's the best way to calculate sprint planning effort ranges using historical velocity?ā–¼

Sprint planning effort ranges are calculated by evaluating historical sprint velocity alongside similar past task data. This generates optimistic, expected, and pessimistic estimates, ensuring reliable sprint commitments and preventing team overallocation.

Can I assess code complexity and dependency risks before assigning tasks to a sprint?ā–¼

Yes, code complexity and dependency risks are assessed by evaluating cyclomatic complexity, integration points, and cross-team dependencies. This identifies potential blockers and risk likelihood early, directly informing mitigation planning before sprint assignment.

Does effort forecasting work for estimating multiplayer matchmaking systems with third-party dependencies?ā–¼

Effort forecasting works for multiplayer matchmaking systems by scanning affected engine code, checking past networking task velocity, and flagging risks around third-party service integration. It produces data-driven estimates with confidence levels for stakeholder alignment.

Why does ad-hoc task estimation lead to missed deadlines and overallocated engineering teams?ā–¼

Ad-hoc task estimation leads to missed deadlines because it lacks data-driven ranges and risk breakdowns. Without analyzing code complexity and historical velocity, engineering teams make unreliable sprint commitments and fail to allocate resources properly.

When should I not rely on ad-hoc estimates for resource allocation in software engineering?ā–¼

You should not rely on ad-hoc estimates for resource allocation when implementing complex features like player inventory systems with cloud save functionality. Instead, use structured effort forecasting that maps dependencies and provides recommended budgets.