A Module-Based Approach to Finite Element Methods

 

 

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What is a Learning Module?

 

  • A Learning Module (LM) is a structured, concise, and self-sufficient learning resource. An LM provides the learner with the required content in a precise and concise manner, enabling the learner to learn more efficiently and effectively. It has a number of characteristics that distinguish it from a traditional textbook or textbook chapter.
  • An LM is learning objective driven, and its scope is clearly defined and bounded. The module is compact and precise in presentation, and its core material contains only contents essential for achieving the learning objectives. Since an LM is inherently concise, it can be learned relatively quickly and efficiently.
  • An LM is independent and free-standing. Module-based learning is therefore non-sequential and flexible, and can be personalized with ease.
  • The proposed Learning Module-Based approach is built on sound pedagogical principles and promotes new teaching strategies of modular learning, conceptual analysis, and abstract modeling.
  • It explores and addresses a significant and current challenge in undergraduate engineering education: the need to introduce efficiently and effectively new content reflecting cutting edge developments in science, technology, engineering, and mathematics (STEM) fields, the Finite Element Method.
  • Success of the proposed work will create new learning materials and teaching strategies for undergraduate students in engineering and contribute positively to the health and vitality of national STEM education.
  • It also helps faculty develop expertise in engineering education, assess learning, and evaluate innovations.

 

The impact can be appreciated from five aspects:

 

  • It provides an effective way, without requiring a major change to the existing curricula, to introduce one of the most important tools to students’ learning experience in STEM fields.
  • It helps train knowledgeable and competent future engineers in keeping pace with the needs of the industry.
  • It empowers students in their capabilities of analyzing real-life engineering problems which, in turn, enhances their experiences in other technical courses.
  • It enables and encourages the participation of all students, especially women and underrepresented minorities, and will have a positive impact on student retention in engineering programs.
  • Although the target audience is primarily undergraduate engineering students in the U.S. universities, the need for an effective introduction to FEM is shared by a broad spectrum of industries. The impact is expected to reach all the industries that can benefit from the use of FEM.