2012 ◽  
Vol 56 ◽  
pp. 617-626 ◽  
Author(s):  
Norhayati Ahmad ◽  
Khairiyah Mohd Yusof ◽  
Azlina Mohd Kosnin ◽  
Su Kai Min Daniel

1997 ◽  
Vol 26 (2) ◽  
pp. 127-136 ◽  
Author(s):  
C. Wu

The Mechanical Engineering Department at the United States Naval Academy is currently evaluating a new teaching method which implements the use of a computer software. Utilizing the thermodynamic based software CyclePad, Intelligent Computer Aided Instruction (ICAI) is incorporated in an advanced energy conversion course (EM443) for Mechanical Engineering students. The use of the CyclePad software enhances lectures and aids students in visualization and design.


Author(s):  
Guido W. Lopez

Traditionally, the teaching and learning of introductory undergraduate Thermodynamics in Mechanical Engineering programs stressed the manipulation of formulas and the use of property tables. At present, the use of computer-based instruction is becoming more common in the classroom and it is proving to be a valuable tool for enhancing the educational experience of students. In teaching Thermodynamics, for example, much of the tedious manipulative and computational work encountered while solving problems can now be effectively and quickly executed by computer software. This approach leaves ample time for instructors to emphasize concepts and principles instead of procedures, and to foster an environment that helps students to master the underlying science of the discipline while minimizing computational burden. A comparative study between teaching introductory Thermodynamics using a traditional approach versus using the software EES (acronym for Engineering Equation Solver) as a computational tool is presented in this paper. A statistical comparison of academic performance in introductory Thermodynamics between two groups of engineering students of comparable academic level and capability but enrolled in different schools is also part of this study. Qualitative and quantitative results suggest that students can achieve a clearer understanding of concepts, definitions and principles of introductory Thermodynamics when using computer software as a tool in their learning process.


Author(s):  
Manjit Singh Sidhu

The Mechanical Engineering course is largely based on practical skills and requires the acquisition of basic skills and domain knowledge before applying them on real problems. In order to design and develop a technology assisted problem solving (TAPS) package particularly to guide students in learning and solving engineering problems, it is necessary to be acquainted with its development and its process of realization in practical terms in computer software. User interface design has been applied in learning environments as discussed in previous Chapter 3. Therefore it is informative to discover the extent to which they help engineering students in their learning and thereby be incorporated in TAPS packages. This examination includes an overview of good practice in the positioning and operation of navigational features, visual screen presentation, the nature of presentation, help and feedback and views on the role of the learner in using the TAPS packages. This Chapter discusses the need to learn practical Mechanical Engineering skills and reviews the tutorial and situational learning approaches. Additionally the Chapter provides an overview of TAPS packages and the approach adopted for problem solving and student learning.


Author(s):  
James Long ◽  
John C. Anderson ◽  
Wangping Sun

Smart assembly is a term that is being used to describe the concept of integration of virtual and real time tools and methods to achieve gains in productivity, lead time, quality, and agility in the manufacturing arena. This paper describes efforts and successes in planning and implementing a laboratory to teach undergraduate engineering students these tools and allow for applied research. Between 1973 and 2004 the percentage of goods consumed in the US that are produced in the US has dropped from 83% to 24%. Much of this decrease has been driven by globalization. Goods can be manufactured for 30 to 50% less in China, for example, than in the US. This poses a very real threat to the manufacturing base of the US. An alternative business model that places the production closer to the customer is gaining favor as at least partial solution to this problem. This model is driven by automation and systems engineering to decrease cost and increase flexibility. The lab at Oregon Institute of Technology will use a collection of small robots and standard material handling devices to model physical systems. Discrete event simulation programs will be developed that allow engineers to quickly and easily model changes. This project is a collaboration of the Manufacturing and the Computer Software Engineering Technology programs. It is being driven by a series of faculty and student projects.


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