Career Advice

Promotions in mechanical engineering aren’t earned by technical skills alone. Mastering thermodynamics, CAD, and design principles is essential, but what truly accelerates careers is the ability to connect engineering excellence with measurable business impact and cross-functional influence. This guide introduces five key KPIs—from Project Performance Index and Return on Engineering Investment to Innovation Multipliers, Cross-Functional Influence, and Talent Acceleration. Each KPI includes clear definitions, measurement methods, benchmarks, and practical examples to help engineers move from individual contributor roles to leadership positions. By focusing on measurable outcomes, adopting smarter processes, and selectively piloting AI-powered design management platforms, mechanical engineers can reduce risk, speed up development cycles, and demonstrate leadership value across the organization.

This comprehensive guide explores how artificial intelligence is transforming mechanical engineering workflows and product development processes. From general AI platforms like ChatGPT to specialized engineering solutions, we examine the current landscape of AI tools available to mechanical engineers. The article highlights three core components of engineering AI: intelligent automation, data-driven insights, and seamless integration. We dive deep into market solutions including collaboration platforms, generative design tools, and simulation AI, with special focus on bananaz - an AI copilot that integrates directly into CAD and PDM systems. The guide covers implementation strategies, future trends, and practical benefits like 90% faster revision cycles and proactive error prevention. Whether you're looking to automate design validation, accelerate reviews, or gain intelligent engineering insights, this guide provides the roadmap for successfully implementing AI in mechanical engineering workflows.

Comprehensive guide to NC (Nonconformity), CC (Change Control), CAPA (Corrective and Preventive Action), and TDA (Temporary Deviation Approval) in medical device design and manufacturing. Discover how to manage design changes, address nonconformities, maintain regulatory compliance, and improve quality in your QMS processes.

DFM for CNC machining ensures parts are designed for efficient, cost-effective, and precise manufacturing. This guide by Naor Edry covers CNC processes like milling, turning, drilling, and grinding, material selection, tolerances, surface finishes, and geometry optimization. Learn how to improve manufacturability, reduce costs, and enhance quality through smart design choices, fixturing strategies, and collaboration with manufacturers.

Learn the DFM essentials of hole design that every mechanical engineer should know — from technology selection to cost-aware tolerancing. This guide helps you avoid common mistakes and design holes that are both functional and manufacturable.