of CNC maching education at the Faculty of Technology”, New Trends and Issues Proceedings on Humanities and Social Sciences, vol. 7(1), pg 84-91, 2020 [7] T. Morimoto, K. Tania, N. Delson, and C. L. Sandoval, “Assess Experiential Learning Outcomes”, in Proceedings of American Society for Engineering Education, virtual conference, 2020 [8] W. D. Vian and N. L. Denton, "Laboratory Project Determining the Effect of Process Types on the Mechanical Properties," American Society for Engineering Education, 2019 [9] B. G. Emiroglu and S. Sahin, "Analysis of Students' Performances during Lab Sessions of Computer Networks Course," Educational Technology & Society, vol. 16(3), pp. 329
approximately 850 functional interfaces. In 2003, the Mars Exploration Rover incorporated9 instruments resulting in 1750 functional interfaces. The recent Mars Science Laboratory Mars2020 Perseverance included 8-10 instruments for an estimate of 2,500 functional interfaces[McKelvin, et al., 2015]. In another example, Lockheed’s Martin F-22 Raptor has an estimate of1.7 million lines of code while the F-35a includes almost 8 million lines of code [Capaccio, 2021].Following previous examples, it could be seen that existing engineering methods, tools, andprocesses would be overwhelmed by the increasing complexity and characteristics of emergingdigital systems such as Cyber-Physical Systems, Industry 4.0, Model-Based Engineering, andSociety 5.0.Professional
Engineering Education at the University of Florida. He obtained his M.Eng. in Industrial Engineering from Texas A&M University and his B.S. in Industrial Engineering from Texas A&M University. His research interests involve engineering education research for video development to increase engagement and methods to teach artificial intelligence and machine learning in higher education.Michelle Alvarado Dr. Michelle Alvarado is an Assistant Professor at the University of Florida. She obtained her Ph.D. and M.Eng. in Industrial Engineering from Texas A&M University and her B.S. in Industrial Engineering from the University of Alabama. Dr. Alvarado is the Co-Founder and Co-Director of the HEALTH-Engine Laboratory
Grande valley (UTRGV). Prior to joining the faculty at the legacy institution, The University of Texas at Brownsville (UTB), he was a visiting professor at the Rochester Institute of Technology, Rochester, NY. Also, an Associate Professor of Production Engineering Technology at PSG College of Technology Bharathiar University, India, where he served as the Director of Computer Vision Laboratory and a Captain of the National Cadet Corps – Engineering Division. He has over 30 years of teaching and research experience in manufacturing/mechanical engineering and engineering technology. He currently teaches in the areas of CAD/CAM/CIM, Robotics & Automation, Product and Process Design, Materials and Manufacturing processes
source electronics as a microcontroller for hands-on lab activities related to theirsummer research experiences. Each participant worked on a CPS project in the laboratory oftheir research mentor and interacted daily with graduate research assistants over the seven weeks.Because we asked participants to translate their research experiences into a curricular unit bycreating a PBL unit for a community college course, we designed the RET to be a PBLexperience for participants. The driving question was “What kinds of energy production andcontrols would we need to travel to Mars?” The entry event on the first day of the RET PBL wasa luncheon featuring videos of the research groups’ on-going projects and a guest speaker,aligned with the driving
student-centered. Unlike industry internships where theexperience of student interns can depend on how much time and effort engineers or supervisorsput into assigning them meaningful projects, everything in an REU program is intended toprovide the student participants with a positive and enriching experience. REU experiences suchas the one at OU provide not only a research experience, but also multiple opportunities forstudents to grow professionally and academically through seminars, industry or laboratory tours,professional development opportunities, conference presentations, as well as social activitiesmeant to enhance their sense of belonging and increase their sense of self efficacy. The researchliterature is very clear about the positive
Paper ID #38344Using Telehealth Technologies to Build Nurse PractitionerStudent ConfidenceDawn O. EckhoffMichelle Taub (Assistant Professor)Hansen MansyDamla Turgut (Professor)Sang-Eun Song (Associate Professor) Associate Professor at the Department of Mechanical and Aerospace Engineering, founding director of Interventional Robotics Laboratory at University of Central Florida. © American Society for Engineering Education, 2022 Powered by www.slayte.com Using Telehealth Technologies toBuild Nurse Practitioner Student ConfidenceDawn O. Eckhoff, Ph.D., APRN
National Laboratory focusing on developing a modern computational framework for the nonlinear seismic analysis of Department of Energy nuclear facilities and systems. For her engineering education research, she is interested in exploring how to use technology such as virtual reality and 3D printing to enhance student engagement. She is an active member of ASCE, ASEE, and SEAONC.Shahrukh Humayoun Dr. Shah Rukh Humayoun is an Assistant Professor in the Department of Computer Science, San Francisco State University (SFSU), USA. His current research topics include human-computer interaction, virtual reality, information visualization, visual analytics, and software engineering. He has co-organized more than 10 workshops in his
Paper ID #37100Event Related Potentials (ERP) Study to UnderstandFunction to Object Mapping for Engineering StudentMegan MarshallMd Tanvir Ahad Md Tanvir Ahad received his Bachelor’s degree from Ahsanullah University of Science and Technology on November 2013 in Electrical and Electronic Engineering. From January 2015July 2015 he was at the Dana Engineering International Ltd (GEWaukesha) in Dhaka, Bangladesh as an Assistant Engineer (GEWaukesha) gas engine. From 2015-2018 he was at the Applied DSP Laboratory of the Lamar University at Beaumont,TX, USA, and obtained a Master’s degree in Electrical Engineering on
all First Year Scholars and thereafter. HomeWorks 10% Quizzes (3x) 9% Laboratory Work (6x) 24% Exams (3x) 57%Results and DiscussionsThe Office of Undergraduate Research sets up a method of regular accounting that ensures thateach First Year Scholars’ progress is monitored at several points within each semester of theAward. Student involvement and their connections to the campus community are key factors inthe regular assessments as these are known to correlate well with retention. By so doing,institutional initiatives have been created to increase student involvement and enhance theirfeelings of community on campus. Partnerships on our campus
, conducted in a laboratory setting. In all of his research, the goal is two-fold: (1) exploring fundamental cognitive processes related to learning to add to our theoretical understanding, and (2), where appropriate, applying this knowledge to improve education. An assumption underlying his research approach is that current educational issues provide investigators with some of the most compelling research topics and that rigorous empirical work aids us in making the education process more successful. He has collaborated actively with researchers in STEM disciplines outside of psychology (engineering and chemistry). Dr. Therriault currently serves as a Board Member on UF’s IRB.Elliot P. Douglas (Professor) Dr. Elliot P
into usable energy, while simultaneouslyprotecting humanity from the potentially harmful aspects of these resources and processes. Theengineering students develop prototype laboratory equipment and procedures that will beeffective in teaching renewable energy concepts in a general education setting. After the designsare finalized, successful modules will be incorporated into a new lab manual for the earth sciencelab course.Background – Educating Future Engineers and Future Educators of Future Engineers The engineering education research literature is replete with many articles that describeapproaches to teaching engineering students how to design and conduct experiments. After abrief survey, it appears that most of these approaches
is currently the Head of Assessment and Research at the Siebel Center for Design (SCD) at the University of Illinois at Urbana-Champaign. He works with a group of undergraduate and graduate SCD scholars at SCD’s Assessment and Research Laboratory to conduct research that informs and evaluates the practice of teaching and learning human-centered design in formal and informal learning environments. His research focuses on studying students’ collaborative problem-solving processes and the role of the teacher in facilitating these processes in STEM classrooms that feature the learning of STEM through design.Brian K. Johnson (Professor) (University of Illinois at Urbana - Champaign)© American Society for Engineering Education
COVID-19 pandemic,” 2022 ASEE Gulf Southwest Annual Conference, 2022.[15] B. Hur, “ARM Cortex M4F-based, Microcontroller-based, and Laboratory-oriented Course Development inHigher Education,” 2019 ASEE Annual Conference & Exposition, 2019.[16] B. Hur, A. E. P. Goulart, L. Porter, N. Sarker, and M. Willey, “Embedded System Education Curriculum UsingTI SimpleLink Microcontrollers in Engineering Technology,” 2020 ASEE Annual Conference, 2020.[17] P. P. Song, Y. M. Qi, and D. C. Cai, “Research and application of autodesk fusion360 in industrial design,”IOP Conference Series: Materials Science and Engineering, vol. 359, no. 1, 2018.[18] B. Hur and W. R. Eisenstadt, “Low-power wireless climate monitoring system with RFID security accessfeature
student in chemical engineering. As an undergraduate student, healong with several fellow students struggled with a lack of understanding in a requiredcourse in numerical and computational methods (NCM). Despite the fact that heobtained a good grade in this course, he did not retain or fully grasp much of theinformation taught in this course. He eventually learned computational methods whileworking at research laboratories and by doing some personal research on mathematicalmodeling. Thus, he is motivated to explore the literature on the topic of numerical andcomputational methods in engineering and computing education, which cansubsequently help to broaden the understanding of these methods and ensure that futurestudents have a better experience
themechanical engineering department.AssessmentAt the time of writing this paper, the curriculum is in the first year of implementation. Due tothis being a work in progress no assessment has been conducted at this time. In addition, thecourse is only 0.5 credit hours for the student. Due to this low number of hours and the course,being conducted in the fashion of a laboratory course but with the deliverables being design andfabrication of components for the Baja SAE car no assignments and exams were administered.In the future, an increase in hours would allow for homework problems and/or exams to beconducted. Once this change in credit hours is made, a cross-sectional study of the students’work can be conducted. The cross-sectional study will compare
Mechanical Engineering from Kansas State University(K-State) in 2012. Between 2012 and 2016, he worked as a post-doctoral research fellow, Computational Fluid Dynamics (CFD) consultant, and a Thermal-Fluids Laboratory Instructor in the Department of Mechanical Engineering at Villanova University.Kevin Schull Graduated from Mankato State University (name changed to Minnesota State University, Mankato) with a BS in Electronic Engineering Technology with a minor in Computer Science. I worked as a Software Engineering with the Owatonna Tool Company in Owatonna Minnesota and then joined Minnesota State University, Mankato as an Engineering Specialist Senior. © American Society for Engineering Education
significantly affected.Introduction and Background It is easy to say that the COVID-19 pandemic challenged teaching techniques andprocedures at traditional institutions of higher education, but quantifying these consequences ofCOVID is difficult, especially for engineering specialties. Did students perform better inengineering classes thanks to the responsiveness and availability of online instruction, or did theysuffer with the loss of laboratories and demonstrations in the standard classroom? Numerous researchers have grappled with this question, across many disciplines andaround the world. Fundamentally, it appears that COVID lockdown periods, especially thoseearly in the pandemic’s development (2020), increased the state of stress
). Specifically, I-Corps addresses thelack of knowledge academic researchers have about technology entrepreneurship giventhat few receive such training as part of their doctoral programs (Duval-Couetil, et al.,2020). As a result, more are likely to conform to conventional cultural norms inacademia which incentivize obtaining funding to support research and laboratories,rather than pursuing commercialization opportunities (Huyghe & Knockaert, 2015).Hayter et al. (2018), stated that “limited attention has been placed on the role of nationalprograms and policies and their critical role supporting academic entrepreneurship” (p.1059). Considering this, I-Corps offers a valuable context for examining the ability of aprogram to promote and grow involvement
, Natesan, P. Vidhya, and Xiao-Zhi Gao. "Virtual laboratory: A boon to the mechanical engineering education during covid-19 pandemic." Higher Education for the Future 8.1 (2021): 31-46.5. Makransky, Guido, Thomas S. Terkildsen, and Richard E. Mayer. "Adding immersive virtual reality to a science lab simulation causes more presence but less learning." Learning and Instruction 60 (2019): 225-236.6. Deshpande, Amit A. and Samuel H. Huang. "Simulation games in engineering education: A state‐of‐the‐art review." Computer Applications in Engineering Education 19.3 (2011): 399-410.7. Brown, Corina E., et al. "Visualizing molecular structures and shapes: A comparison of virtual reality, computer simulation, and traditional
highlighting the value of thislearning process and the changes we are enacting, the college can attract more environmentally- andsustainably-minded students.The reports and design plans that stem from these courses are also useful to the college administrationfor them to make informed decisions about the stream and floodplain maintenance. The focus of theadministration has typically been on the physical facilities on campus and not so much on the openspace aspects of the campus. There is a growing recognition, however, of the importance of preservinggreenspaces, especially in the context of using this stream as a natural, outdoor laboratory to thebenefit of the students. These data can also be used as the basis for fundraising and grant applicationsto
of ABET’s Software Engineering Curriculum Guidelines," in ASEE Annual Conference, Honolulu, 2007.[6] S. Conroy, "Software Engineering: Where Do Curricula Stand Today?," in ASEE Annual Conference, Louisville, 2010.[7] S. Conry, "Software Engineering, Computer Engineering, Computer Science: Sibling Disciplines with Diverse Cultures," in ASEE Annual Conference, Vancouver, 2011.[8] A. F. Ackerman and S. Acharya, "Software Engineering Education Needs More Engineering," in ASEE Annual Conference, San Antonio, 2012.[9] D. Suri and M. Sebern, "Software Development Laboratory: A Retrospective," in ASEE Annual Conference, Chicago, 2006.[10] S. K. Dey and M. A. Sobhan, "Guidelines for preparing standard software engineering curriculum
(PTC) test [18]. Next students materials: (a) molds are sprayed with cookingconducted laboratory experiments to explore different spray, (b) gummy candies (gelatin containing)concepts in food and materials science. These are separated by color, (c)_candies are melted onincluded: (1) gelation, (2) ice cream formulations, (3) a hotplate (d), (e) melted candies are loaded intospherification, (4) capsasin extraction, (5) soft robotic a syringe and (f) 3D printed molds are filled. After curing (g) gummy candies are removedactuator protocol from gummy candies (Figure
increasehome safety.So far, the projects on the platform are not integrated into any established curriculum. The pilottest showed students may be able to complete a relatively complicated task with ROSbackground. The pilot test also showed that a well-designed laboratory series is needed to boostthe success rate of students. Thus, with further training, students can use the platform forindependent projects (senior design, master’s project, etc.). Using this platform with improvedtraining and exercising session, students will gain hands-on experience in implementing allcomponents of robot autonomous navigation and overcoming the steep learning curve of ROS.Bibliography[1] M. J. Mataric, "Robotics education for all ages," in Proc. AAAI Spring Symposium
out in person in a standard classroom (without elements com-monly found in a laboratory) where the teacher presents the contents of the class and the com-ponents.Subsequently, the questions are asked immediately after each topic is explained, once morethan 60% of the participants answer the questions correctly, the next topic is evolved. Oncethe explanations and presentations were concluded, the process of assembly and commissio-ning of the didactic prototype was demonstrated.The last part established is the commissioning of the prototype. The main functions and me-thod of use of the Graphical User Interface or GUI are demonstrated, it ends with the compa-rison of the data acquired by the integrated sensors of the prototype with local
education after helping develop and teach an online only laboratory class. She currently works as a research associate under Dr. Karin Jensen with a focus on engineering student mental health, retention, and development of resources.Joseph Mirabelli Joseph Mirabelli is an Educational Psychology graduate student at the University of Illinois Urbana-Champaign with a focus in Engineering Education. His work focuses on mentorship, mental health, and retention for STEM students and faculty. He was awarded the 2020 NAGAP Gold Award for Graduate Education Research to study engineering faculty perceptions of graduate student well-being and attrition. Before studying education at UIUC, Joseph earned an MS degree in Physics from
,” Proceedings of 1999 American Society for Engineering Education Annual Conference & Exposition.5. Pintar, A. J., Aller, B. M., Rogers, T. N., Schulz, K. H., and Shonnard, D. R., 1999, “Developing an Assessment Plan to Meet ABET 2000,” Proceedings of 1999 American Society for Engineering Education Annual Conference & Exposition.6. Land, R., and Hager, W., 2002, “Pilot Survey: Graduate Satisfaction with ET Education at Penn State,” Proceedings of 2002 American Society for Engineering Education Annual Conference & Exposition.7. Gomez-Rivas, A., and Pincus, G., 2003, “Integration of Class and Laboratory in Engineering Technology,” Proceedings of 2002 American Society for Engineering Education Annual Conference &
Final Team Project 500garnered in the laboratory setting where students work Tests and Final Exam 900individually on engineering and computers graphics Total 3180exercises, and take their tests. However, the large lectureallocates 1000 points for assignments and for a final team project, which is also assigned andmonitored in the large lecture. The rest of this paper focuses on the one-hour common largelecture, where the promoting of the UT-ME outcomes is most evident. Proceedings of the 2005 ASEE Gulf-Southwest Annual Conference Texas A&M University-Corpus Christi Copyright © 2005, American
their attitudes on ethical issues.From students’ own discussions and from Goulet’s experience, it appears that studentattitudes and perceptions can be favorably impacted by clearly and forcefully settingstandards of appropriate behavior and by integrating ethical and legal decision-makinginto the curriculum. In that manner, ethical behavior is something that is done, rather thanstudied. Wankat and Oreovicz have proposed strategies for instilling honest behavior inengineering students by stressing (as did Goulet) the Engineering Code of Ethics; byreducing anxiety that might foster unethical behavior; by faculty always being a presencein the classroom and laboratory; and by structuring engineering education in such waysthat unethical behavior is
Laboratory, Haque, Mohammed E., 31st ASEE/IEEE Frontiers in Education Conference, Session T1C, 20012. Visualization Techniques for Complex Processes in Solid State Engineering, Scott, C., Wake, D., ASEE Annual Conference Proceeding, Sec 3532, 19973. Documentation from URL: http://www.vrco.com, website of the software company that supports CaveLibTM4. Solid State Electronic Devices, Streetman, B., Banerjee, S., 5th Edition, 1999NIKHIL MODIMr. Modi is a graduate student at the College of Engineering, Southern University, Baton Rouge. He hasalso been a Teaching Assistant at the Department of Electrical Engineering. A proficient VC++programmer, he has great interest in computer graphics, computational fluid dynamics, and