10-Day Industry-Oriented NPD Design Workshop

Practical New Product Development & Mechanical Product Design Workshop

Duration: 10 Days

Session Duration: 90 Minutes per Day

Total Duration: 15 Hours

Format: Instructor-Led | Practical Exercises | Engineering Case Studies | Design Activities | Capstone Project

About the Workshop

This 10-Day Industry-Oriented NPD Design Workshop is designed to provide practical exposure to the mechanical New Product Development (NPD) process.

The workshop follows a typical product development journey from customer requirements and product specifications through concept development, mechanical design, material selection, design analysis, prototyping, design verification, engineering drawings and final design release.

The focus is on understanding how a mechanical product is developed in an industry environment, while applying structured engineering methods to practical design problems.

WORKSHOP OBJECTIVES

By the end of the workshop, participants will be able to:

  • Understand the complete NPD process

  • Convert customer requirements into engineering requirements

  • Identify Critical-to-Quality characteristics

  • Develop product specifications

  • Generate and evaluate design concepts

  • Select appropriate materials

  • Develop mechanical design concepts

  • Consider Design for Manufacturing and Assembly

  • Apply engineering calculations during design

  • Apply GD&T and tolerance principles

  • Perform basic tolerance stack-up analysis

  • Identify design risks and failure modes

  • Understand prototype development

  • Plan Design Verification activities

  • Prepare engineering drawings and specifications

  • Understand Engineering Change processes

  • Understand design review activities

  • Prepare a basic Design Release package

  • Communicate design decisions in an engineering environment

10-DAY WORKSHOP PLAN

DAY 1 — Introduction to NPD & Product Development

Key Topics

  • What is New Product Development?
  • Product development lifecycle
  • Typical NPD phases
  • Customer need vs engineering requirement
  • Product requirements
  • Product specifications
  • Design inputs
  • Design outputs
  • Cross-functional product development
  • Role of the Mechanical Design Engineer
  • Design reviews and engineering gates
  • Introduction to Design Verification

Hands-On Activity

Analyze a product requirement and identify the engineering activities required to develop the product.

DAY 2 — Requirements, Specifications & Design Inputs

Key Topics

  • Voice of Customer
  • Customer requirements
  • Engineering requirements
  • Design inputs
  • Product specifications
  • Functional requirements
  • Performance requirements
  • Dimensional requirements
  • Environmental requirements
  • Regulatory and applicable standards
  • Critical characteristics
  • CTQ identification
  • Requirement traceability

Hands-On Activity

Convert customer requirements into measurable engineering specifications for a mechanical product.

DAY 3 — Concept Development & Design Selection

Key Topics

  • Design problem definition
  • Functional decomposition
  • Product architecture
  • Concept generation
  • Concept screening
  • Concept evaluation
  • Design alternatives
  • Engineering trade-offs
  • Pugh concept selection
  • Decision matrices
  • Design constraints
  • Risk vs performance
  • Concept selection

Hands-On Activity

Generate multiple concepts for a mechanical product and select a concept using an engineering decision matrix.

DAY 4 — Mechanical Product Design

Key Topics

  • Design for function
  • Component design
  • Assembly design
  • Load paths
  • Interfaces
  • Mechanical joints
  • Fasteners
  • Bearings
  • Shafts
  • Springs
  • Brackets
  • Housings
  • Material selection
  • Design margins
  • Design calculations
  • Basic strength and stiffness considerations

Hands-On Activity

Develop a preliminary mechanical design for a product based on defined requirements.

DAY 5 — DFM, DFA & Design Optimization

Key Topics

  • Design for Manufacturing
  • Design for Assembly
  • Manufacturing process considerations
  • Machined components
  • Sheet-metal components
  • Cast components
  • Injection-molded components
  • Fastener selection
  • Part count reduction
  • Standard components
  • Assembly accessibility
  • Manufacturing tolerances
  • Cost considerations
  • Design simplification
  • Common manufacturability issues

Hands-On Activity

Review a mechanical assembly and identify opportunities for part-count reduction, manufacturing improvement and assembly simplification.

DAY 6 — GD&T, Tolerance & Design Robustness

Key Topics

  • Role of tolerances in NPD
  • Dimensional tolerancing
  • Functional dimensioning
  • GD&T application
  • Datum strategy
  • Critical dimensions
  • Tolerance stack-up
  • Gap and clearance
  • Interference conditions
  • Worst Case analysis
  • Statistical variation concepts
  • Design robustness
  • Tolerance allocation

Hands-On Activity

Analyze a mechanical assembly and determine whether the proposed design tolerances satisfy the functional requirement.

DAY 7 — Design Risk & Engineering Problem Solving

Key Topics

  • Design risk management
  • Failure Mode and Effects Analysis
  • Design FMEA concepts
  • Failure modes
  • Causes and effects
  • Severity
  • Occurrence
  • Detection
  • Risk prioritization
  • Prevention and detection controls
  • Design mitigation
  • Lessons learned
  • Root cause analysis
  • Engineering problem-solving approach

Hands-On Activity

Develop a basic Design FMEA for a mechanical product and identify design actions to reduce risk.

DAY 8 — Prototype Development & Design Verification

Key Topics

  • Prototype purpose
  • Prototype planning
  • Prototype build considerations
  • Prototype vs production design
  • Design verification
  • Verification requirements
  • Verification methods
  • Test planning
  • Acceptance criteria
  • Dimensional verification
  • Functional testing
  • Performance testing
  • Test results
  • Verification documentation
  • Design iteration

Hands-On Activity

Create a basic Design Verification plan for a mechanical product based on its engineering requirements.

DAY 9 — Engineering Drawings, Design Review & Design Release

Key Topics

  • Engineering drawing requirements
  • Drawing structure
  • Dimensions and tolerances
  • GD&T
  • Material specifications
  • Surface requirements
  • Parts lists
  • Assembly drawings
  • Design review
  • Drawing review checklist
  • Design documentation
  • Revision control
  • Engineering changes
  • Change requests
  • Design release
  • Manufacturing handover
  • Design release package

Hands-On Activity

Review a product design package and identify missing or incorrect information before design release.

DAY 10 — FINAL NPD DESIGN CAPSTONE PROJECT

Complete Mechanical Product Development Project

Participants will work through a realistic NPD design problem and apply the concepts learned throughout the workshop.

Project Workflow

  • Customer Requirement
  • Engineering Requirements
  • Product Specifications
  • Functional Decomposition
  • Concept Generation
  • Concept Selection
  • Preliminary Mechanical Design
  • Material & Manufacturing Considerations
  • GD&T & Tolerance Definition
  • Tolerance / Design Analysis
  • Design Risk Analysis
  • Prototype Planning
  • Design Verification
  • Engineering Drawing & Documentation
  • Design Review
  • Final Design Release

HANDS-ON LEARNING

Throughout the workshop, participants will work on engineering activities involving:

  • Product requirements
  • Mechanical concepts
  • Component design
  • Assembly design
  • Material selection
  • Manufacturing considerations
  • GD&T
  • Tolerance analysis
  • Design risk
  • Design verification
  • Engineering drawings
  • Design reviews
  • Engineering changes
  • Design release

SKILLS YOU WILL DEVELOP

By completing this workshop, you will be able to:

  • Understand the complete NPD lifecycle
  • Translate customer needs into engineering requirements
  • Create measurable product specifications
  • Perform functional decomposition
  • Generate mechanical design concepts
  • Evaluate alternative concepts
  • Make engineering trade-off decisions
  • Develop preliminary mechanical designs
  • Select appropriate materials
  • Consider manufacturing and assembly requirements
  • Apply DFM/DFA principles
  • Define functional dimensions and tolerances
  • Apply GD&T concepts
  • Perform basic tolerance stack-up analysis
  • Identify design risks
  • Perform basic Design FMEA
  • Develop Design Verification plans
  • Participate in engineering design reviews
  • Prepare engineering documentation
  • Understand Engineering Change processes
  • Prepare a basic design release package

WORKSHOP STRUCTURE

Day

Module

Primary Skill

01

NPD & Product Development

Understand the NPD lifecycle

02

Requirements & Specifications

Convert requirements into design inputs

03

Concept Development

Generate and select concepts

04

Mechanical Product Design

Develop mechanical solutions

05

DFM / DFA

Design for manufacturing and assembly

06

GD&T & Tolerance

Develop robust designs

07

Design Risk & FMEA

Identify and mitigate design risks

08

Prototype & Design Verification

Plan design verification

09

Drawing, Review & Release

Prepare design for release

10

NPD Capstone Project

Complete an NPD design project

FINAL WORKSHOP OUTCOME

At the end of the workshop, participants will have worked through a complete mechanical NPD process covering:

Customer Requirement

Engineering Requirement

Product Specification

Concept Development

Concept Selection

Mechanical Design

DFM / DFA

GD&T & Tolerance

Design Risk Analysis

Prototype Planning

Design Verification

Engineering Documentation

Design Review

Design Release

Who Should Attend?

This workshop is suitable for:

Mechanical Engineering Students | Mechanical Design Engineers | CAD Engineers | Product Development Engineers | NPD Engineers | Manufacturing Engineers | Quality Engineers | Engineering Professionals

Prerequisites

Basic understanding of:

  • Engineering drawing
  • Basic mechanical design
  • Mechanical components
  • Basic manufacturing concepts

Prior NPD experience is not required.

Workshop Format

10 Days × 90 Minutes

15 Hours of Industry-Oriented Learning

Theory + Worked Examples + Design Exercises + Engineering Case Studies + Design Reviews + Final Capstone Project

Focus

Practical | Product Development | Mechanical Design | Industry-Oriented | NPD