Paper ID #42820Incorporating an Entrepreneurial Mindset, Bio-Inspired Design, and STEAMApproach to Enhance Learning in a Computer Aided Design and ModelingClassDr. Thomas Aming’a Omwando, Simpson University Dr. Thomas Omwando holds a PhD in Industrial Engineering from the University of Wisconsin Milwaukee. He is an Assistant Professor and Director of Engineering program at Simpson University. His teaching interests are in statistical quality control, manufacturing processes, engineering/project management, engineering economy and production and operations analysis. His research interests are in sustainable manufacturing
teamwork, ethics, social context, and other broadconsiderations. The need to teach design has traditionally been addressed in Capstone courses.There is a trend to introduce design earlier in the curriculum such as through first-yearintroduction to engineering subjects or through required design “cornerstone” subjects2.A difficulty frequently observed in design projects is that students begin work too late. This hasbeen referred to as “time scallop” -- as deadlines are approached, effort levels rise rapidly andfall back to low levels repeatedly2. A challenge to implementing early design experiences inengineering programs is the readiness of the student population for hands-on design work. Fewstudents have been exposed to manufacturing equipment in
Devices, Capstone-style Launch Projects, and Robotics (Mobility, Navigation, and Manipulation) with a focus on Human Robot Interaction (HRI).Kyle Toshiro Brown, University of Washington ©American Society for Engineering Education, 2025 Bridging Cultures and Advancing Robotics: A Joint Program on Human-Robot Interaction Through Multicultural, Interdisciplinary Learning Feng Chen, Kyle T. Brown, Midori Sugaya, and John G. Raiti Shibaura Institute of Technology and University of Washington1 AbstractJapan is one of the leaders in the world in the field of robotics. They are strong in many sectors ofrobotics including: space
students maylearn about the importance of inclusive design, they are rarely provided with opportunities toapply these concepts in project-based learning or capstone design experiences. This gap ineducation perpetuates the separation of DEI from core engineering ethics, reinforcing theperception that equity and inclusion are secondary concerns.Lack of Dynamic Frameworks for Complex ChallengesCurrent frameworks in engineering ethics often adopt static approaches that do not account forthe dynamic interplay between technical, social, and environmental factors. For example,sustainability frameworks may emphasize resource efficiency and environmental impact withoutconsidering how social inequities influence the distribution of benefits and burdens
deliberately chosen because the word Robotics can be easilyidentified by high school Students particularly due to the popularity of competitions such as FIRSTRobotics, while employers can better identify with the word mechatronics when they seekprospective employees with certain skills. Our industrial partners’ need for engineers trained inmechatronic principles is being met through this undergraduate program in which all basicconcepts are taught through rigorous integrated coursework. During the three mandatory co-opterms our Students are able to apply skills learned in classes and design projects to solve realproblems at their workplace. Also, seniors work on a two-semester capstone design problemwhere they learn first-hand how new engineering
Engineering Education and a Technical Program Chair for the Frontiers in Education Conference 2022.Brian J Novoselich (Lieutenant Colonel) (United States Military Academy) Brian J. Novoselich, Ph.D., P.E., is an active duty army officer, associate professor in the Department of Civil and Mechanical Engineering, and the director of strategic plans and assessment (G5) for the United States Military Academy (USMA) at West Point. He earned his Ph.D. in engineering education at Virginia Tech in 2016. He holds Master’s and Bachelor’s degrees in mechanical engineering from The University of Texas at Austin and USMA respectively. His research interests include capstone design teaching and assessment, undergraduate engineering student
knowledge and skills leading to advanced careers in management, supervisory, and otherprofessional positions.The PMT program was introduced at Kansas State University Polytechnic Campus (KSP) in 2012. Itoffers common core courses in professional skills such as leadership, project management,communication and teamwork in professional settings; and tracks in areas of emphasis such as Aviation,Engineering, Technology Management, and other disciplinary areas; and a capstone experience.One of the five core courses of the Professional Master of Technology (PMT) program at KSP isInformatics and Technology Management (COT 706). Through a modular format, the course aims toprovide tools in areas of statistics, research methods and data mining. The course
motivation for being a leader.Again, comparison yields a shift in perception. Upon completion of the course, the studentscompleted a course evaluation survey to aid the course developer in determining if the course ismeeting the university’s leadership education goals. In addition, the students completed a peerassessment of leadership skills and characteristics near the beginning and at the conclusion of thecourse. The peer assessment yields some shifts in leadership development. Finally, as a finalassessment at the conclusion of the final team course project, the students completed a peerperformance evaluation, and the results are reported.1. IntroductionEntrepreneurshipLawrence Technological University (LTU) has offered students entrepreneurial
much in the way of answers for faculty whoseek to maintain the effectiveness of their teaching. In particular, our survey of the literature disclosedno research dealing with the loss of informal interaction among students. Accordingly, this paperreports an exploratory study at a Hispanic-Serving Institution to assess the impact of providing aweekly teleconference virtual meetup and Jamboard1 “meetup room” for students in courses deliveredvia remote learning. we review literature related to in-person meetups and study groups, describe apilot project that provided virtual substitutes for in-person meetups, describe a methodology forassessing the effectiveness of the pilot project, and report the results of the assessment
Paper ID #39184Exploring the Role of Mentorship in Enhancing Engineering Students’Innovation Self-EfficacyDr. Azadeh Bolhari P.E., University of Colorado Boulder Dr. Bolhari is a professor of environmental engineering in the Department of Civil, Environmental and Architectural Engineering (CEAE) at the University of Colorado Boulder. Her teaching focuses on fate and transport of contaminants and capstone design. Dr. Bolhari’s research interests explore the bound- aries of engineering and social science to understand formation of innovation self-efficacy in engineering students and evolution of resilience capacity at family
degrees from Virginia Tech, including an M.S. Civil Infrastructure Engineering, M.S. LFS Entomology, and a Ph.D. in Environmental Design and Planning.David Gray David Gray is an Associate Professor of Practice in the Engineering Education Department at Virginia Tech. David is currently serving as the Assistant Department Head for Undergraduate Programs. Dr. Gray teaches in a two-sequence Foundations of Engineering course, several courses within an Interdisciplinary Innovation Minor, and is leading the new Interdisciplinary Senior Design Capstone course within the College of Engineering. David maintains an active undergraduate research group. His research interests focus on teamwork and interdisciplinary
education, and identity (including race, gender, class, and other demographic identities) in engineering. She was awarded a CAREER grant from the National Science Foundation to study expert teaching in capstone design courses, and she is PI or co-PI on numerous NSF grants exploring communication, teamwork, design, identity, and inclusion in engineering. Drawing on theories of situated learning and identity development, her research explores examines the ways in which engineering education supports students’ professional development in a range of contexts across multiple dimensions of identity.Jessica Deters Dr. Jessica Deters holds her PhD in Engineering Education and a M.S. in Systems Engineering from Virginia Tech. She
. A significant aspect of the project was to create a supportnetwork for the students that incorporated existing services provided by the university andestablished new services to aid students throughout their mentored research experience. One ofthe new services was the development and delivery of starting in the second year of the grant andcontinuing through the third year. The purpose of the workshops is to introduce students todifferent aspects of research. The first series of workshops (offered in the 2021-2022 academicyear) were mostly informational and provided initial support for undergraduate researchers. Fromthe experience of developing and hosting the first series, the style of the second series (offered inthe 2022-2023 academic
-offexperiments and sprawling engineering projects. Notably, most capstone and cornerstoneexperiences fit the definition. However, the definition does insist on hands-on activities, so it isdesigned to exclude activities that are purely computer-based.Other works have other implicit definitions of laboratory activities. Some works center the ideaof constructivism in discussing laboratories, and argue that a laboratory activity is one thatprovides rich information for constructing knowledge [11]. Others simply lament the lack ofspecificity in defining laboratory activities [12].Consequently, categorizing laboratory activities or describing universal features of laboratoryactivities is a challenge. Fesisel and Rosa attempt to describe learning objectives
Capstone Project (Optional) Certifications Figure 1. Cyber Security Degree ArchitectureMajor Areas of Study Beyond General EducationThe new holistic multi-disciplinary B.S. Degree is built on a solid foundation of the following fourareas: 1. Mathematics Skills—Precalculus and Statistics a. MATH 2412: Precalculus b. MATH 2334: App Stats Health c. Discrete Math and CS related topics recommended by the ABET are covered in a new course called Foundation of Systems (CSCI-2322) 2. Technical Skills—Computer Science a. 50 Adv. Hrs. 3. Investigation Procedures and Policies
, with a background in struc- tural engineering and project management. Dr. Mosier has received regional and international teaching awards through the Associated Schools of Construction. Research interests include the cost of sustainable construction to owners and engineering education.Dr. Heather N. Yates, Oklahoma State University Dr. Yates joined the Oklahoma State University Construction Faculty in 2006 as an Assistant Professor. She received her Bachelor of Science in Engineering Technology from the OSU Construction Manage- ment Department in 1998. She graduated with a Masters of Engineering Technology from Pittsburg State University in 2002. She also earned a Specialist in Education Degree from Pittsburg State
Technological University since March 2014. She has the position of an interpreter and her current area of activities includes: organization international conferences, visits of foreign delega- tions, writing minutes of the meetings; preparation documents for concluding international agreements and making calendar and end-of-year reports. Marina is the author or co-author of about 15 research papers.Dr. Phillip Albert Sanger, Purdue University, West Lafayette Dr. Sanger is a professor in the School of Engineering Technology in the College of Technology of Purdue University. His focus and passion is real world, industry based, senior capstone experiences both domes- tically and internationally. He has successfully developed
Paper ID #23500Work in Progress: Knowledge Translation for Biomedical Engineering Grad-uate StudentsDr. J Christopher Bouwmeester, University of Toronto I am an assistant professor, teaching stream in the Institute of Biomaterials and Biomedical Engineering at the University of Toronto Faculty of Applied Science and Engineering. I have a background in mechanical engineering, biomedical engineering, and cardiovascular physiology. I am currently focused on meshing inverted classroom structures with hands-on activities to teach engineering design in capstone and core biomedical engineering engineering subjects. I am
-cells and DC machines, three-phase AC machines, Induction machines,Regenerative braking, Permanent Magnet Machines and Switched Reluctance Machines. Itstudies electric drive components, the EV transmission configuration and EV motor sizing.Students are required to complete a design project relative to EV and/or HEV design.Bio-technology and Bio-engineering PillarMeasurement and Analysis: Introduces students to mechanical measurements, instrumentationand experiment data. The principles developed in class are applied in the laboratory andtechnical report writing is required. Team based Laboratory experiments utilize statisticaltechniques in mechanical measurements of temperature pressure, force, deformation, strain, androtational
security become ever more importantto Americans, engineering schools that have not traditionally focused on energy are moving toaddress the topic more formally. At Baylor University, an “energy core” of technical electives isbeing developed, including courses on wind energy, solar energy, power systems, turbines andcombustion engines. This paper documents the authors’ observations on the use of the TRNSYSsimulation software package in a senior/graduate elective on solar energy. The paper givesexamples of the types of projects students do using TRNSYS, how it can be used in theclassroom, and some suggestions for educators considering its use in future courses.Comparisons are made between projects completed using general-purpose numerical
wide-spread impact on engineering projects, particularly public works. Compounding thissituation is the already inadequate funding for addressing the rebuilding of the nation’s aginginfrastructure.With the thrust to give more consideration to the social impact of engineering works and theimportance of inculcating these aspects into engineering education, this paper articulates apossible case study that could incorporate economy principles and a national fiscal problem intothe engineering curriculum in either an economics course or a senior capstone or ethics course.Using a subject from current events can demonstrate to students how engineering economicprinciples can be used to assess public policy alternatives. An ancillary aspect of this
integrateresearch ethics into the graduate curriculum in science and engineering. Funded by the NationalScience Foundation, this project has developed four workshops directed toward graduatestudents to provide them with decision making tools for reaching ethical decisions. Theworkshops which build upon one another, (1) help graduate students become aware of issues andproblems in research ethics, (2) outline a method of moral deliberation to help them analyzeproblematic situations, (3) provide students with tools and practice in analyzing real world ethicscases in the research context, and (4) offer a capstone activity in which the students give posterpresentations on a case connected to their research interests.This paper focuses on the third of the series
manufacturingtechnology courses: AA-0003 Advanced Micro-Manufacturing and AA-0004/BB-0001Advanced Automation & Computer-Integrated Manufacturing. The third step willinvolve restructuring the current course BB-0002 Production Planning and Control anddeveloping one new course BB-0003 Scheduling of Automated Manufacturing Systems.These courses, of interdisciplinary nature and their associated hands-on laboratoryexperience, will become capstone courses, which will include trainings on hardware,software, term projects and, most importantly, NBM practice.Generation of Course Modules and CoursesBelow, the conceptual framework of module-based course development through thequasi-web based approach is illustrated.Course Modules1. Simulation for Global & Micro
students in Manufacturing Engineering (ABET accredited) and another 90 students in the interdisciplinaryEngineering Management program with a technical specialty in Manufacturing Engineering. All seniorengineering students are required to take a two semester (two credit hours each semester with four credit hoursof design) capstone course. In the first semester the students define and research an engineering ormanufacturing related problem, develop and evaluate solutions and present their chosen designs. The secondsemester focuses on implementation of solutions and assessment of project outcomes. These senior designprojects are often coordinated with industry or conducted within the university laboratories. The Manufacturing Engineering
provided framework. This approach requires the student to approach the designfirst with an inquisitorial attitude, searching to understand the framework that has been set up forthem. Once this understanding is complete (or sufficient), the student and his or her teammatesare able to embark upon the completion of the design requirements. It is hoped that this technique achieves multiple benefits. First, the techniques will allowthe students to see the framework of a successful design before beginning their ownimplementation. This helps visualize a successful design as a team before they are thrown intothe throes of their senior capstone design project. Second, the techniques remove some of thetedious work that should be covered in
than 25 papers span a wide spectrum of problems in the dynamics of systems and structures. Dr. Orabi has also been involved in developing schemes for vibration control of space structures during the lift off and in orbit. Professor Orabi has taught courses in both undergraduate and graduate level Mechanical Vibrations and undergraduate level capstone design courses, thermodynamics, Measurement Systems, Engineering Mechanics and Introduction to Engineering. One of Professor Orabi’s most recent projects involves the development of learning modules. These modules provide undergraduate engineer- ing students with improved learning of basic, conceptually-difficult engineering concepts in the context of a basic knowledge
Fulton Teachers College at Arizona State University. He also serves as an Extension Services Consultant for the National Center for Women and Information Technology (NCWIT). His past experiences include having been a middle school science teacher, Director of Academic and Instructional Support for the Arizona Department of Education, a research scientist for the Center for Research on Education in Science, Mathematics, Engineering and Technology (CRESMET), and an evaluator for several NSF projects. His first research strand concentrates on the relationship between educational policy and STEM education. His second research strand focuses on studying STEM classroom interactions and subsequent effects on student
authentic learning projects. Learning labs are designed to be used in a face toface classroom experience and is suitable for introductory courses in graduate engineeringcurriculums in industrial, environmental and civil engineering.How do Learning Labs enrich the online learning experience? Learning labs promote a richer and engaging student centered learning experience with collaborative activities. Students develop learning artifacts which will be housed in their e-portfolio. Students create tangible and authentic components for the student’s capstone project. Students bring in prior knowledge (from other courses) and apply to the current course and promote weaving of learning within inter-disciplinary courses
College. She is the senior design co-ordinator for Mechanical Engineering within the School of Engi- neering at Penn State Behrend. She is also involved in the executive committee of Design In Engineering Education Division at ASEE and the Capstone Design Conference.Johnathan Moody, Pennsylvania State College, Erie c American Society for Engineering Education, 2016 MAKER: Redesign of a Multipurpose Hardware Tool to Improve its Functionality and MarketabilityAbstractThis paper presents the summary of a maker project that redesigned a multi-purpose utility tool,originally designed for linemen. While the tool had a great potential, its original design was aletdown and the product was a
time to engage students in problem solving, discussions and intensiveteamwork. The engineering economics course was selected for active learning implementationbecause it is a course that students are required to take for their Mechanical Engineering andIndustrial Engineering degrees at University X. Engineering economics is a course that is criticalto industry-bound students due to its real-world applications. In addition, it is a course that isintegral to engineering senior capstone projects at University X. Changes in this course focusedon collaborative learning to help promote critical thinking and to encourage more activeinteraction among groups of students and across different student groups. The results of thisstudy provide insight into