
Explore the origin and development of value engineering and learn its fundamentals and methods for applying it in projects.
Explore the definition of value engineering and apply its analytical procedure to identify cost-effective ways to improve function and value.
Explore three fundamental concepts of value engineering as presented in the course, and note the caption's references to champions.
Apply ABC analysis to select objects in value engineering, categorizing items as A, B, or C to guide prioritization and resource allocation.
Explore the cost–worth method as part of the fundamentals and methods of value engineering for making informed project decisions.
Delve into the value index (coefficient) method as part of the fundamentals and methods of value engineering.
Explore fundamental value engineering concepts and apply the forced-choice method and 0–1 scoring method to evaluate options and improve project value.
Discover the forced-choice method and its 0–4 scoring method within value engineering, illustrating how to evaluate options and prioritize value improvements.
Explore fundamentals and methods of value engineering and apply the most suitable area method, the Tanaka method, to guide analysis and decision making.
Apply function analysis and function definition within the fundamentals and methods of value engineering today.
Learn how function analysis and function classification improve value engineering by clarifying how things work together to make tasks easier.
Explore function analysis and function organization to optimize value engineering decisions, identify essential functions, and improve project outcomes.
Explore function analysis and function measurement within value engineering, guided by a coded sequence and rhythmic cues that illustrate core concepts in a concise, actionable way.
Explore alternative innovation methods within fundamentals and methods of value engineering, guiding you to find your way and learn how to apply new approaches.
This course focuses on the theories, methods, and practical applications of Value Engineering (VE) in engineering projects and product development. Centered on the core principle of achieving required functions at the lowest life-cycle cost, the course aims to cultivate value-oriented thinking and systematic decision-making skills among students, enabling them to balance functionality, cost, quality, and overall project performance.
The course begins with an introduction to the background, development, and fundamental concepts of value engineering. It explains the intrinsic relationships among value, function, and cost, helping students establish a clear understanding of value as a ratio between function and cost rather than cost reduction alone. Emphasis is placed on developing an engineering mindset that prioritizes functional performance and economic efficiency throughout the entire life cycle of a project.
A major part of the course is devoted to functional analysis methods. Students will learn how to define and classify functions, describe functions using standardized verb–noun expressions, and evaluate function importance. Techniques such as function system diagrams and function–cost analysis are introduced to support the identification of high-cost, low-value components, providing a solid analytical foundation for value improvement.
In terms of methods and tools, the course systematically presents the standard Value Engineering job plan and commonly used analytical techniques, including function–cost analysis, the value coefficient method, the 0–1 and 0–4 scoring methods, brainstorming, and alternative evaluation and selection methods. By integrating both qualitative and quantitative approaches, students develop the ability to generate, compare, and optimize improvement proposals in a structured and objective manner.
The course places strong emphasis on practical applications. Through case studies drawn from construction engineering, equipment selection and replacement, construction method optimization, and material and structural alternatives, students learn how value engineering is applied during the design, construction, and operation stages of engineering projects. Case discussions and exercises help students understand the practical role of value engineering in improving economic efficiency, controlling costs, and optimizing resource allocation.
Upon completion of the course, students will have a systematic understanding of value engineering theory and methods. They will be able to analyze engineering problems from both functional and economic perspectives, propose feasible value improvement solutions, and support engineering decisions that achieve optimal technical and economic performance. This course provides a solid foundation for future work in engineering management, project evaluation, and techno-economic analysis.