本书提出了一种创新设计理论的综合体系，能够提升设计中所必需的创新思维和创造力。该理论构建了设计中各元素以及设计过程的模型和算法，能够帮助收集和量化概念设计阶段中可用的较为模糊的设计信息，通过推动创造性的思维和抽象性思考，促进设计的逻辑性和结构化的进程。该理论应用可拓学探索设计问题的重构和设计思维的发散，并应用公理化设计理论指导功能需求和设计参数的迭代分解，在此过程中促进创新思维和创新设计方案的产生。可拓学与公理化设计理论的协同作用，是跨专业、跨学科的协同研究和发展，同时融合了中国哲学中的抽象思维模式和西方理论中的迭代设计流程。 本书能够帮助学生以及工程、自然和社会科学、商业等多领域的从业人员建立解决设计问题的创造性和创新性的思维及方式。

前辅文
1 Introduction
  1.1 Design Thinking
  1.2 Design Thinking Process
  1.3 Engineering Design Methodology
  1.4 Engineering Design Process
   1.4.1 Stage of Need Analysis
   1.4.2 Stage of Conceptual Design
   1.4.3 Stage of Embodiment Design
   1.4.4 Stage of Detailed Design
  1.5 Arrangement of the Book
  References
2 Need Identification and Analysis
  2.1 Need Identification
   2.1.1 Abstraction
   2.1.2 Critical Parameter Identification
   2.1.3 Questioning
  2.2 Need Analysis
   2.2.1 Perceive Apparent Needs
   2.2.2 Gather Information
   2.2.3 Identify Real Need
   2.2.4 Identification of Functional Requirements
   2.2.5 Identification of Non-Functional Requirements
   2.2.6 Identification of Constraints
   2.2.7 Organization of Function Structure
   2.2.8 Development of Design Requirements
  2.3 Progressive Cavity Pump Example
  2.4 Dust Storm Design
  2.5 Identification of Information and Resources Needs
  2.6 Planning for Innovation Opportunities
  2.7 Discussion and Summary
  References
3 Axiomatic Design: A Theory for Guiding Design Process
  3.1 Domains
  3.2 Mapping Process
  3.3 Axioms
  3.4 Coupling
  3.5 Constraints
  3.6 Discussion and Summary
  References
4 Extenics: A Methodology for Solving Wicked Problems
  4.1 Wicked Problems
  4.2 Abductive Reasoning
  4.3 Theoretical Framework of Extenics
  4.4 Basic-Element Theory
   4.4.1 Concepts of Basic-Elements
   4.4.2 Logical Operations of Basic-Elements
  4.5 Features of Basic-Elements
  4.6 Extension Innovation Methods
  4.7 Feasibility Problem in Extenics
  4.8 Discussion and Summary
  References
5 Design Innovation by Synergy
  5.1 Complementary Properties of Axiomatic Design and Extenics
  5.2 Features of Creative Synthesis
   5.2.1 Functional Requirements (FRs)
   5.2.2 Design Parameters (DPs)
   5.2.3 Coupling Problems
   5.2.4 Constraints
  5.3 Synergized Formulation
   5.3.1 Association of Functional and Physical Domains
   5.3.2 Independence Criterion
  5.4 Discussion and Summary
  References
6 Innovative Design Methodology
  6.1 Functional Requirement Analysis
  6.2 Design Parameter Analysis
  6.3 Mapping Between FRs and DPs
  6.4 Expanding Solutions
  6.5 Illustrative Example
   6.5.1 Conceptual Design of Corn Harvester Header
   6.5.2 Zigzag-Mapping Process
  6.6 Discussion and Summary
  References
7 Design Decoupling Methodology
  7.1 Coupling Identification
  7.2 AD-Based Decoupling Method
  7.3 General Framework
  7.4 Decoupling Models
   7.4.1 Decoupling by Changing Number of DPs
   7.4.2 Decoupling by Reducing Value of Aij
   7.4.3 Decoupling by Extending Design Range
  7.5 Illustrative Examples
  7.6 Discussion and Summary
  References
8 Closure
  8.1 Essence of the Synergized Theory
  8.2 Implication and Outlook
Index