-level course)Mechanical Design II is a machine design course aimed at designing and analyzing machineryand components to prevent failure in load bearing and power transmission applications. Thecourse contains new hands-on labs and design projects to reinforce the material: Investigation of failure modes such as yielding, fracture, and fatigue. Design and optimization of machine components such as springs, threaded fasteners, bearings, and gears. Introduction to finite element analysis and modern software packages. Hands-on group project that involves designing, manufacturing, and testing power transmitting or load bearing machinery utilizing the concepts and skills gained in the course. The instructors formulate common design projects
Paper ID #43363Promoting Transfer Students’ Success through Articulation Agreements: AnEmpirical Case Study in Mechanical EngineeringAnna-Lena Dicke, University of California, Irvine Dr. Dicke is an Associate Project Scientist within the School of Education at the University of California, Irvine. In her research, she aims to understand how students’ motivation and interest in the STEM fields can be fostered to secure their educational persistence and long-term career success. Trying to bridge the gap between theory and practice, she is currently involved in an NSF-funded project aimed at fostering the persistence and
Paper ID #30209Teaching Dynamics Using a Flipped Classroom Blended ApproachDr. Sudeshna Pal, University of Central Florida Dr. Sudeshna Pal received her PhD degree in Biosystems and Agricultural Engineering from Michigan State University in 2009. She is a Lecturer in the Mechanical and Aerospace Engineering Department at the University of Central Florida (UCF), where she teaches courses in the areas of system dynamics, controls and biomedical engineering. Her current research interests include engineering education with focus on blended learning, project based learning, digital education and design education. She received
on promoting undergraduate education in CAM and CNC machining[22].Fig. 8 Generative designs of compact lightweight air-cooled heat sinks using nTopology [13].Module 3: Genetic Algorithms for Thermal Systems Analysis and DesignThis module implements genetic algorithms (GA) to optimize the design of heat exchangers.Compared to exhaust search and more commonly-used gradient-descent optimization, GArequires a much shorter computational time and avoids being trapped by local minima, and isthus a very promising approach for high-degree-of-freedom system design (Fig. 9a & b). Thismodule will provide necessary materials and guidelines for interested instructors to incorporatethe module into a heat transfer-related course in the Mechanical
information ofstudents, future studies will include this information.Acknowledgments:This material is based upon work supported by the National Science Foundation under Grant No.2019664. We would like to acknowledge the expertise and support received from ProfessorAutar Kaw of the USF Mechanical Engineering Department, USF Innovative Education, and theUSF Provost's office.References:[1] L. Albers and L. Bottomley, "The Impact of Activity Based Learning, A New Instructional Method in an Existing Mechanical Engineering Curriculum for Fluid Mechanics," in Proceedings of 2011 ASEE Annual Conference and Exposition, Vancouver, Canada, 2011.[2] D. L. Bondehagen, "Inspiring Students to Learn Fluid Mechanics Through Engagement
Paper ID #48464Leveraging ChatGPT 4.0’s Image Processing Feature for Enhanced Problem-SolvingSupport in Mechanical Engineering CoursesProf. Milad Rezvani Rad, University of Southern Indiana Dr. Milad Rad is an Assistant Professor in the Engineering Department at the University of Southern Indiana. He earned his Ph.D. in Mechanical Engineering from the University of Alberta in Canada. Besides his specialization in functional thermally sprayed coatings, he explores innovative AI-driven approaches to enhance student engagement in the classroom.Dr. Julian Ly Davis, University of Southern Indiana Jul Davis is an Associate
for a tactical missile in fairly good detail—theneed for it and the specifications. His team presented material that gave a context in whichtactical missile issues were discussed. Session Two talked about design trade issues. A numberof experts in various discipline areas discussed the various aspects of tactical missile design.These were Systems Engineering, Aerodynamics, Propulsion, Trajectories, Structures, Avionics,and Platform Integration. The final session, Session Three, showed a particular solution to thedesign requirements outlined in Session One. This was performed by a graduate class at TheUniversity of Alabama in HUntsville during the previous semester in conjunction with a 600-level mechanical and aerospace engineering design
Laboratory of KnowledgeEngineering for Materials Science Xiong Luo received the Ph.D. degree from Central South University, China, in 2004. He currently works as a Professor in the School of Computer and Communication Engineering, University of Science and Technology Beijing, China. His current research interests include machine learning, cloud computing, and computational intelligence. He has published extensively in his areas of interest in journals, such as the Future Generation Computer Systems, Computer Networks, IEEE Access, and Personal and Ubiquitous Computing. c American Society for Engineering Education, 2017Enhancing Communication with Students Using a Teaching Method Based onTopical
substance based conception of energy) that can lead to thesemisconceptions. Page 12.37.6As a continuation of the Delphi study in thermodynamics, 12 worked onprioritizing concepts in mechanics and electrical circuits. Also in electricalengineering materials work in 13 used student interviews to identify difficultconcepts in logic design.In the area of solid mechanics (stress) work in 14 describes student difficultieswith the concept of shear stress.There should be no doubt that there are a number of sources of misconceptionsavailable in the literature. The objective is to select one of these misconceptionsfor the class you are working on. Select or devise a problem
preparing students for the workplace has spawned interest in self-directed student teams that possess a higher degree of autonomy over decision making. Thisnaturalistic study analyzed communication within two self-directed design teams in anundergraduate mechanical engineering capstone course at the Massachusetts Institute ofTechnology (MIT), in which 8 student-led teams initiated and developed new product prototypesover the semester. Insights presented here, from the first part of the full study, focused on apivotal, relatively high-stress meeting, in which all 24 members of each team collectivelydiscussed four product options and decided on one product to prototype. The audio recording andtranscript of the meetings was used to compare the
Paper ID #31046Performance Balanced Team Formation for Group Study and Design ProjectsDr. Amir Karimi P.E., The University of Texas at San Antonio Amir Karimi, University of Texas, San Antonio Amir Karimi is a Professor of Mechanical Engineering at The University of Texas at San Antonio (UTSA). He received his Ph.D. degree in Mechanical Engineering from the University of Kentucky in 1982. His teaching and research interests are in thermal sciences. He has served as the Chair of Mechanical Engineering (1987 to 1992 and September 1998 to January of 2003), College of Engineering Associate Dean of Academic Affairs (Jan. 2003
Paper ID #15020World Energy in Engineering DesignDr. Michele Putko P.E., University of Massachusetts - Lowell Michele is a lecturer in the Department of Mechanical Engineering at UMass, Lowell. She earned her Ph.D. in mechanical engineering from Old Dominion University and her M.S. from Auburn University. She also holds a Masters of Strategic Studies form the U.S. Army War College, and a B.S. from the United States Military Academy. She retired as a Colonel from the United States Army after a 28-year career in multi-functional logistics. Her research interests include energy literacy, climate change literacy, and
Paper ID #33952Adventures in Remote Learning: Communication Strategies for ActiveEngagementDr. Carl W. Luchies, The University of Kansas Carl Luchies is an Associate Professor in Mechanical Engineering and a core faculty member in the Bioengineering Graduate Program at the University of Kansas. Dr. Luchies earned his BS, MS and PhD in Mechanical Engineering from the University of Michigan. Dr. Luchies teaches courses in Dynamics, Modeling and Simulation, and Biomechanics. Dr. Luchies utilizes evidence-based, student-centered and active-learning teaching methods in his engineering education program. He conducts education
assessment of oral presentations, engineering notebooks, andwritten reports. The proposed future development of the assessment system includesincorporating weekly five minute oral updates from each student along with the weekly notebookevaluation. Additionally, it is proposed that alumni who have completed the same project beincluded in the assessment process.1. Introduction From its inception, the York College of Pennsylvania Mechanical Engineering Programhas always prided itself on being a “hands-on” engineering program. Lab experiences are usedheavily throughout the academic curriculum to reinforce lecture material, and all students arerequired to complete three separate terms of co-op experience as a graduation requirement.1 Thecapstone
for multi core processors.The HPC server cluster approach allows the development of different clients on many differentplatforms. This paper will show the details of the implementation of both, the client and theserver applications as well as how the data interchanges between them. The paper will alsoillustrate the behavior of the system with some experiments.The development of the system includes only open source free software. The complete softwarepackage will be of both free distribution and access.IntroductionThe focus of this research relates to a basic Dynamics course, taught to sophomore engineering(civil and mechanical) college students. Hibbeler1 covers all course contents, comprisingKinematics and Kinetics of Particles and Planar
stiffness is predicted, and they are mechanically tested for stiffness. A number ofparameters are discussed and used, such as geometry and volume fraction. However, the effectand importance of these parameters on mechanical behavior can be hard to grasp. Hand analysisis cumbersome, and may not be friendly to relational analysis.Modeling can address these issues by allowing the student to readily change material anddimensional parameters to observe their consequences on mechanical behavior. This approachhas been successfully used in other MET Program courses such Mechanics of Materials andTechnical Dynamics. Examples include the effect of length on the moment of a cantilever beamand the effect of various beam shapes on mechanical behavior.This study
Paper ID #14135How Enhanced Transcripts Can Help Evaluate Graduate School Applica-tionsDr. Randall D. Manteufel, University of Texas, San Antonio Randall Manteufel is Associate Professor in Mechanical Engineering at the University of Texas at San Antonio. He teaches thermal-fluid courses.Dr. Amir Karimi, University of Texas, San Antonio Amir Karimi, University of Texas, San Antonio Amir Karimi is a Professor of Mechanical Engineering at The University of Texas at San Antonio (UTSA). He received his Ph.D. degree in Mechanical Engineering from the University of Kentucky in 1982. His teaching and research interests are in
mental model that students can reference. The learning objectives were mapped in a logical progression from their initial freshman experience through Senior Design. The first course that students see is EPICS I where students learn the basics behind engineering practice and are introduced to the design framework. Following EPICS I, a new course, MEGN200 Introduction to Mechanical Engineering, was introduced into the curriculum. This course is taught around project based learning, where students learn fundamental material at the beginning of each of the three projects and are then required to implement those basic concepts learned to complete open
Paper ID #46272Continued Study on Using Design Review in CAD Projects in MechanicalEngineering (Part II)Dr. Jamie Szwalek, The University of Illinois at Chicago Jamie Szwalek is currently a Clinical Associate Professor at University of Illinois at Chicago. She has been teaching mechanical engineering for over 10 years.Christopher Carducci, The University of Illinois at Chicago ©American Society for Engineering Education, 2025 Continued Study on Using Design Review in CAD Projects in Mechanical Engineering (Part II)This paper continues reporting on design review, a process for
social and political ramifications of their work.Dr. John Peter Voccio Assistant Professor, Ph.D, Department of Mechanical Engineering and Technology, Wentworth Institute of Technology, Boston, MA 02115, Phone: 617-989-4258, Email: voccioj@wit.edu, Specialization in Mechanical Design, Finite Element Analysis and SuperconductWenye Camilla Kuo-Dahab, Wentworth Institute of TechnologyBrian Ernst, Wentworth Institute of TechnologyChris Bode-Aluko, Wentworth Institute of Technology ©American Society for Engineering Education, 2025 Integrating Material Focused on Climate Change into Existing Courses in a Civil Engineering Degree ProgramAbstractMeaningfully addressing the climate crisis
ona 1 to 5 Likert Scale. The independent reviewer uses the Likert Scale to evaluate how well thequiz satisfies each assessment form statement. The scale used was as follows: (1) not at all, (2)needs improvement, (3) marginal, (4) satisfactory, and (5) exceptional. This assessment processis used to determine if the checklist is a valuable tool to develop/revise more effective quizzes.Control and Experimental Groups for Developing New QuizzesA sophomore level fundamentals of mechanics course is required for all students at The UnitedStates Air-Force Academy (USAFA). The course is three semester hours (no lab) and topicsincluded statics and mechanics of materials. This course was offered in the fall of 2009 and has24 sections, 1 lead instructor
project team has prepared twoone-hour modules on nanotechnology for a required introduction to materials engineering course.The third component consists of two one-hour modules that have been integrated into a required,junior-level course offered by the Mechanical Engineering department but available to allstudents who have taken the prerequisites. The fourth component is a new course that will bedeveloped under this program and will be offered as an elective under the interdisciplinaryMechanics and Materials (MEMA) program. Each of the four components is described ingreater detail in the following sections of the paper.The purpose is to describe the modifications that have been made to sections of required coursesin the freshman, sophomore, and
behavior of structures. • Molecular biology is very much involved in the design and development of BioMEMS based sensors and equipment. • Quantum and molecular physics knowledge is necessary for the modeling of physical behaviors of materials and substances in micro-scales. • Electro-hydrodynamic principles form the basis for the development of micro- fluidic applications such as micro-channels and conduits. • Electro-chemistry is widely used in electrolysis to ionize substances in some micro- manufacturing processes. • Mechanical engineering principles are used primarily for the design and packaging of components. • Electrical engineering knowledge is essential for power supplies, signal processing
AC 2007-831: PROJECT-BASED SOFTWARE APPLICATION ANALYSES INUNDERGRADUATE HEAT TRANSFERMichael Langerman, South Dakota School of Mines and Technology Dr. Langerman is professor and chair of the Mechanical Engineering Department and Co-director of the Computational Mechanics Laboratory at the South Dakota School of Mines and Technology. His career spans 32 years including sixteen years in higher education. His primary academic interest is in thermal science.William Arbegast, South Dakota School of Mines and Technology Mr. Arbegast is the director of the Advanced Material Processing (AMP) center at the South Dakota School of Mines & TechnologyDaniel Dolan, South Dakota School of Mines and
Paper ID #36645Assessing Correlation between Erosion, Abrasion and Hardness Behaviorfor Polymers, Metals and Ceramic Coated Metallic SurfacesDr. Dorina Marta Mihut Dr. Dorina Marta Mihut is an Associate Professor in the Mechanical Engineering Department at Mer- cer University School of Engineering. She graduated with Ph.D. in Materials Science at University of Nebraska-Lincoln; Ph.D. in Technical Physics at Babes-Bolyai University, Romania; M.S. in Mechanical Engineering, University of Nebraska-Lincoln; and B.S. in Mechanical Engineering at Technical Uni- versity Cluj-Napoca, Romania. Her teaching and research interests are
Session 1265 Laboratory Activity Using Rapid Prototyping and Casting Richard Griffin, Terry Creasy, and Jeremy Weinstein MEEN Dept. 3123, Texas A&M University, College Station, TX 77843-3123Abstract Mechanical Engineering at Texas A&M University has been undergoing a curriculumrevision in an effort to reduce the total number of hours that are required for a Bachelor ofScience Degree. As part of the development, a two sequence course- materials andmanufacturing processes have been combined into one course. This past fall, the course wastaught for the first time to multiple sections
Paper ID #34503Challenges in Virtual Instruction and Student Assessment during theCOVID-19 PandemicDr. Amir Karimi P.E., The University of Texas at San Antonio Amir Karimi, University of Texas, San Antonio Amir Karimi is a Professor of Mechanical Engineering at The University of Texas at San Antonio (UTSA). He received his Ph.D. degree in Mechanical Engineering from the University of Kentucky in 1982. His teaching and research interests are in thermal sciences. He has served as the Chair of Mechanical Engineering (1987 to 1992 and September 1998 to January of 2003), College of Engineering Associate Dean of Academic Affairs
analysis, strain measurements and rosette analysis, generalized Hooks law, and orthotropic materials. Specific applications are an introduction to composite materials, analysis of thin and thick cylinders, statically indeterminate members, torsional loading of shafts, power transmission and the shaft analysis, torsional loads in non-circular components and thin tubes, stress concentrations, and combined loads. Solid Covers stress analysis and failure theories of both brittle and ductile materials and energy Mechanics methods. Also includes such topics as elastic impact, stability, axis-symmetric loaded members in flexure and torsion, and
Paper ID #36563Knowledge-Building Approach to Address Societal GrandChallenge in Large-Enrollment Introductory MaterialsScience and Engineering CourseLotanna Longinus Ezeonu (Mr) Mr. Lotanna Ezeonu is a materials science and engineering PhD candidate at the verge of completing his program. He joined Stevens Institute of Technology for his graduate studies with a provost doctoral fellowship award in 2017 after earning a B.Eng in metallurgical and materials engineering from the University of Nigeria, Nsukka. His doctoral research focus is on the synthesis, characterization and testing of catalytic metal nanoparticles
Nanotechnology, forsophomores majoring in science and engineering.II. Design of CourseThe preliminary course content has been divided into weekly topics over a 15 week semester,and this was described in a previous paper [7]. It consisted of combining biology, chemistry,physics, materials science, electrical/mechanical engineering and ethics into one course. Thesedisciplines are team-taught by our faculty in the College of Science and Engineering at LMU.The goal of the course was to provide a descriptive view of how nanotechnology affected thehuman body. Our course emphasized the biological applications of nanotechnology. It startedwith an overview (summary) and its applications from a nanotechnology systems approach,where the individuals disciplines