Course Information
Registration period
Year-round Recruitment
Course Level
Study Mode
Duration
2 Hour(s) 41 Minute(s)
Language
English
Taught by
Aditya Bharat Patil
Rating
Course Overview
Cost Engineering for Mechanical Engineers (Design-to-Cost + VAVE)
Most engineers learn how to design for performance. This course teaches you how to design for cost and why that distinction is the difference between products that succeed in the market and those that don't.
Cost Engineering for Mechanical Engineers is a 7-module, evidence-based professional development course built around one central truth: 70–80% of a product's total cost is locked in during the first 20% of the design process. By the time manufacturing begins, it's often too late to meaningfully cut costs without damaging quality, schedule, or supplier relationships.
This course gives you the frameworks, tools, and industrial case studies to act at the right time in design.
What You'll Learn
How to apply Design-to-Cost (DTC) principles from concept stage, not as an afterthought
How to read and build Cost Breakdown Structures (CBS) across materials, machining, tooling, and quality
How to perform Value Analysis and Value Engineering (VAVE) using the FAST methodology to maximize the function-to-cost ratio
How to think in Lifecycle Cost (LCC) terms because initial purchase price is often just 10–15% of total ownership cost
How to interpret and apply cost-performance trade-off curves and sensitivity analysis
The Chief Engineer Doctrine: owning cost targets, questioning every tolerance, and building cost consciousness across your team
Course Modules
Introduction to Cost Engineering & Design-to-Cost Principles : cost as a fundamental design parameter
Fundamentals of Cost Estimating : techniques from analogous estimating to Monte Carlo simulation
Value Analysis & Value Engineering (VAVE) : function-based thinking, FAST diagrams, 15–30% savings in practice
Theoretical Explanation of Tools for Cost Optimization : DFMA, aPriori, and Should Costing in combination ( No Live Demo)
Strategic Design Trade-offs & Lifecycle Cost Thinking : the engineering cost triangle, LCC models, cost avoidance vs. cost cutting
Industrial Case Studies : pump impeller, electric motor housing, and cast iron valve body redesigns with quantified outcomes
Cost Commitment, Causal Engineering & Chief Engineer Doctrine : the cost lock curve, upstream causal chains, and evidence-based contrast analysis
Who This Course Is For
Mechanical and product engineers wanting to add commercial awareness to their technical skillset
Design engineers working in high-volume manufacturing (automotive, industrial equipment, pumps, motors)
Engineering managers responsible for cost targets and supplier negotiations
Anyone preparing for a Chief Engineer, Design-to-Cost, or VAVE specialist role
Why This Course Stands Out
Every claim is backed by peer-reviewed, open-access research; 30 references from MDPI, ScienceDirect, SpringerLink, and CIRP. This is not opinion-based content. It's engineering knowledge grounded in evidence, taught through real industrial redesigns with measurable outcomes: 22% cost reduction on a pump impeller, 28% on a valve body consolidation, 15% on a motor housing all with the tools and reasoning explained step by step.
7 Modules · Real Industrial Case Studies · Practical Cost Reduction Strategies · 30 Open-Access References
Course Content
- 8 section(s)
- 38 lecture(s)
- Section 1 Introduction
- Section 2 Module 1: Introduction to Cost Engineering & Design-to-Cost Principles
- Section 3 Module 2: Fundamentals of Cost Estimating in Mechanical Design
- Section 4 Module 3: Value Analysis and Value Engineering (VAVE) in Practice
- Section 5 Module 4: Tools for Cost Optimization – DFMA, aPriori, and Should Costing
- Section 6 Module 5: Strategic Design Trade-offs and Lifecycle Cost Thinking
- Section 7 Module 6: Case Studies – Pumps, Motors, and Castings
- Section 8 Cost Commitment, Causal Engineering & Chief Engineer Doctrine
What You’ll Learn
- How to design mechanical products with cost-efficiency in mind, using practical methods like Design-to-Cost (DTC)., How to apply Value Analysis and Value Engineering (VAVE) to make smart design choices based on a product’s real function., How to estimate the cost of parts and systems using different techniques—from quick approximations to detailed breakdowns., How to balance performance, cost, and manufacturability with tools like trade-off curves and cost-performance analysis., How to think beyond initial price by using lifecycle cost analysis to evaluate total ownership cost over time.
