project-development

Design and validate LLM batch processing pipelines with staged architecture and cost estimation.

Updated Apr 7, 2026
One-click install
npx skills add https://github.com/NT-boop-star/BRMV-tract --skill project-development-nt-boop-star
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: project-development
Source: https://github.com/NT-boop-star/BRMV-tract/tree/main/antigravity/skills/project-development
Command: npx skills add https://github.com/NT-boop-star/BRMV-tract --skill project-development-nt-boop-star

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes scripts (resource) and references (resource) components.

What problem does it solve? Teams waste weeks building LLM automation on tasks that models cannot handle, or over-engineer agent architectures that constrain model performance. This Skill provides a methodology for validating task-model fit, structuring staged pipelines, and estimating costs before writing production code. ## Core Features & Use Cases - Task-Model Fit Evaluation: Decision tables and a manual prototype step to determine whether a task suits LLM processing before any automation is built. - Staged Pipeline Architecture: A canonical acquire-prepare-process-parse-render structure with file-system state management, idempotent stages, and a ready-to-customize Python template. - Cost Estimation & Architecture Guidance: Token cost formulas, single vs multi-agent decision criteria, and case studies from Karpathy's HN Time Capsule, Vercel d0, and Manus. - Use Case: You need to analyze 900 documents with an LLM. Use this Skill to validate the task with a manual prototype, scaffold the pipeline from the template script, estimate token costs, and run parallel batch processing with structured output parsing. ## Quick Start Ask the agent to help you design a batch processing pipeline for your LLM task, starting with a manual prototype validation and cost estimate.

Frequently Asked Questions about project-development

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

FAQPage Schema
How do I know if my task is suitable for LLM processing?

Check task-model fit before writing code. Tasks suited to LLMs involve synthesis across sources, subjective judgment with rubrics, natural language output, and error tolerance. Avoid tasks requiring precise computation, real-time responses, or perfect accuracy. Always run one manual prototype through the model interface first.

How do I structure an LLM batch processing pipeline in Python?

Use a five-stage architecture: acquire, prepare, process, parse, render. Only the process stage calls the LLM; all other stages are deterministic. Store intermediate outputs as files per item so stages are idempotent, cacheable, and independently re-runnable.

When should I use multi-agent architecture instead of a single pipeline?

Default to single-agent pipelines for batch processing with independent items. Escalate to multi-agent only when parallel exploration is required, the task exceeds a single context window, or specialized sub-agents demonstrably improve benchmark quality. Multi-agent costs roughly 15x more tokens than chat.

How do I estimate LLM API costs for a batch job?

Multiply item count by tokens per item by price per token, then add a 20-30% buffer for retries and failures. Estimate input tokens from prompt length and output tokens from typical response length. Track actual costs during development to catch overruns early.

Why does my LLM output parsing fail intermittently?

LLMs do not follow format instructions perfectly, so rigid parsers break on minor variations. Use flexible regex patterns that tolerate formatting differences, provide defaults for missing sections, and log parse failures for review instead of crashing.

Should I add more tools to improve my agent's performance?

Usually not. Vercel's d0 agent improved from 80% to 100% success by reducing from 17 tools to 2 primitives. Start minimal with file system access and add complexity only when production evidence proves it necessary, since scaffolding often constrains capable models.