#engineering.

Act as a Sustainability Engineer. Guide us through an ISO 14040/14044 compliant Lifecycle Assessment for our product: [Insert Product]. 1. Define the 'Functional Unit.' 2. Establish the System Boundary (Cradle-to-Grave vs. Cradle-to-Gate). 3. List the Inventory data needed (Energy, Raw Materials, Emissions). 4. Suggest 5 impact categories to analyze (e.g., GWP, Eutrophication, Resource Depletion).

Act as a Reliability Engineer. Build a 'Preventive Maintenance' schedule for [Insert Machine Name]. 1. List 'Daily' (Operator), 'Weekly,' 'Monthly,' and 'Annual' tasks. 2. Define clear 'Pass/Fail' criteria for inspections (e.g., belt tension, oil clarity). 3. Estimate the 'Planned Downtime' required for each PM. 4. Provide a 'Critical Failure Mode' list for each task to explain *why* the maintenance is being performed (e.g., to prevent motor burnout).

Act as a Tooling Engineer. Design a management system for our molds and dies. 1. Create a 'Shot Counter' log to track wear. 2. Define maintenance levels (Level 1: Cleaning, Level 2: Polishing, Level 3: Component Replacement). 3. Suggest a storage system with QR codes for fast retrieval. 4. Provide a 'Tooling History' template to record every repair and modification made to a specific mold.

Act as an Engineering Project Manager. We are installing new equipment. Draft a 'Commissioning Plan' covering: 1. Factory Acceptance Test (FAT) at the vendor site. 2. Site Acceptance Test (SAT) at our facility. 3. IQ/OQ/PQ (Installation, Operational, and Performance Qualification) protocols. 4. A 'Punch List' for final sign-off and payment release. Define specific 'Pass/Fail' criteria for machine speed and error rates.

Act as a Manufacturing Engineer. Review a product design for [Insert Product Name]. Apply DFM and DFA (Design for Assembly) principles to: 1. Reduce part count. 2. Suggest standardized fasteners and components. 3. Identify difficult manufacturing features (e.g., thin walls, deep holes). 4. Suggest more cost-effective materials or processes (e.g., injection molding vs. machining). Provide a 'Cost Reduction Estimate' for each suggestion.

Act as a Quality Engineer. Facilitate an 8D (Eight Disciplines) problem-solving report for a quality defect: [Describe Defect, e.g., inconsistent weld strength]. Guide me through: D1-D3 (Team, Problem Description, Containment). D4 (Root Cause Analysis using 5 Whys and Fishbone). D5-D6 (Permanent Corrective Actions). D7-D8 (Prevention and Team Recognition). Provide specific questions to ask at each stage.

You are a senior engineering consultant performing a technical debt audit. Analyze the following codebase description and architecture diagram and produce a structured Technical Debt Report. Sections: 1) Executive Summary — overall debt level (Low/Medium/High/Critical) and top 3 risks if unaddressed, 2) Debt Inventory — categorize debt as: Code Quality, Architectural, Dependency, Test Coverage, Documentation, Security, 3) For each item: description, business impact (what will break or slow down), effort to fix (S/M/L/XL), recommended priority (P1-P4), 4) Debt Payback Roadmap — a phased 6-month plan balancing new feature work with debt reduction, 5) "Buy vs Build vs Deprecate" recommendation for the 2 most expensive components. Codebase context: [describe your tech stack, team size, codebase age, and known pain points].