and Biomedical Engineering at University of Tennessee Health Science Center (UTHSC) through the Joint Graduate Program in Biomedical Engineering at UM/UTHSC. Dr. Curry received B.S. and M.S. degrees in electrical engineering and Ph.D. in biomedical engineering from the University of Memphis. Her current research interests include cardiac and neural electrophysiology with applications in cardio- and neuro-modulation via implantable electrostimulation devices, computational modeling and visualiza- tion, and best practices in undergraduate engineering education. These efforts have been funded by the National Institutes of Health, National Science Foundation, and American Heart Association. Dr. Curry is a member of
Engineering Education40 Samson, Perry, Brooks, Thomas, Cole, David, Cruz, Mathew, Dulin, Charles, Kim, Philip, “Internet-ActivatedMultimedia as A Distance Learning Alternative,” Proceedings of the Frontiers in Education Conference, pp. 11b5-27, 1999.41 Schulte, Michael, Power, Christopher, Andrews, Corey, Hamilton, Tysha, Muniz, Wilmarie, Haileselassie, Hiriti,Haileselassie, Welela, Mlodossich, Keli, Leveque, Christina, Smith, Erika, Bristol, Adfia, “National Society ofBlack Engineers Community Outreach Program,” Proceedings of the Frontiers in Education Conference, pp. 12d4-1 - 12d4-6, 1999.42 Fletcher, Shawna, White, Mary Aleta, Anderson-Rowland, Mary R., “Design and Implementation of EngineeringProjects for the Women in Applied Science and
“a model for enabling ubiquitous, convenient, on-demand network access to a shared pool ofconfigurable computing resources (e.g., networks, servers, storage, applications, and services)that can be rapidly provisioned and released with minimal management effort or service providerinteraction” [5]. Essentially, cloud computing leverages the Internet as a means to delivercomputational and networking services that would otherwise be facilitated by local serversand/or personal computers. Cloud computing is an emerging area of computing/IT experiencingrapid growth in recent years. This development is due, in part, to the growing need to cost-effectively process, store, and secure large amounts of data. Because of its novelty, little hasbeen done
Paper ID #29428Reimagining Engineering Education: Does Industry 4.0 Need Education 4.0?Dr. Shuvra Das, University of Detroit Mercy Shuvra Das is a Profesor of Mechanical Engineering at University of Detroit Mercy. He received his Ph.D. in Engineering Mechanics from Iowa State University in 1991. His research interests include Mechatron- ics, Modeling and Simulation of Systems, FEA and other CAE applications in Multi-physics Problems and Engineering Education.Dr. Darrell K. Kleinke P.E., University of Detroit Mercy Dr. Kleinke has over 25 years of industry experience in the design and development of electro-mechanical
1See For Kids: K6 Outreach Efforts At Mississippi StateUniversity 2000 2 0University Faculty Commitment And Involvement In AnOutreach Program: Instrumental In Program Success 2000 4 0Summer Technology And Engineering Program: An OutreachProgram Benefitting Women Engineering Students FromMiddle School Through Graduate School 2001 3 0A Nationwide Internet Based Engineering Design Contest ForK12 Outreach 2001 0 3Lessons Learned From The Implementation Of A Gk12 GrantOutreach Program 2001 7 2The
records. (www.ed.gov/policy/gen/guid/fpco/ferpa/index.html) Thelaw applies to all schools that receive funds under an applicable program of the U.S. Departmentof Education.One of the features of BSTAM is that the data is stored in a separate Excel workbook from thesource code. This was designed to facilitate easier updating of the source code without the riskof releasing confidential student data. The source code serves as an Excel Add-in, however itwas determined that keeping the file in an Excel workbook format was more accessible for nontechnical users. Hence, the data workbook can remain under the control of individuals who havea right to access and use the data.The key to assignment of persons to teams is to make use of only the data that is
are faced with the challenge of applying classroom lessons toreal-life applications. The challenges faced in industry can involve problem identification,equation selection, and mixed subject material. To an employer who hires a young engineer,there persists a learning curve. This, accompanied by a common lack of confidence, can delaythe transition period from student-engineer to practicing–engineer. The sooner the new hire canovercome the aforementioned obstacles the sooner they become an asset to their company. It is achallenging task of the professor to guide students and encourage them to applying scholasticmaterial by thinking outside of the textbooks
Paper ID #17610My Fifty Years of CalculusDr. Shirley B. Pomeranz, The University of Tulsa Shirley Pomeranz Associate Professor Department of Mathematics The University of Tulsa Research and Teaching Interests: Boundary Element Method and Finite Element Method, Numerical Methods, Engineering Applications of Mathematics, Applications of Mathematica, Women in Mathemat- icsDr. Peyton James Cook Ph.D., The University of Tulsa Department of Mathematics c American Society for Engineering Education, 2017 My Fifty Years of CalculusAbstractAt the end of the fall 2015 semester
interactivity of the learning environmenteffects student learning. Interactivity is one of the current buzzwords in multimedia and internet-based software applications, and everyone seems to agree that interactivity is a key feature in aneffective computer-based learning environment. However, in reality there is a wide disparity inthe types of activities that are called interactive, and there is a lack of research on determiningthe impact of various forms of interactivity on student learning. This interactivity questionhighlights a third issue, the need to develop tools and procedures that allow efficient outcomes-based assessment. Due to EC2000, it is now more important than ever to design assessmentdirectly into educational materials, which is the
based in part upon work supported by the National Science Foundation Researchin Engineering Education program under Grant No. 1129178. Any opinions, findings, andconclusions or recommendations expressed in this material are those of the authors and do notnecessarily reflect the views of the National Science Foundation.References1. UNESCO. Engineering: Issues, Challenges and Opportunities for Development. France: UNESCO; 2010.2. EWB-USA. Our History [Internet]. Engineers Without Borders USA. 2013 [cited 2013 Oct 4]. Available from: http://www.ewb-usa.org/our-story/our-history3. Amadei B, Sandekian R. Model of Integrating Humanitarian Development into Engineering Education. J Prof Issues Eng Educ Pract. 2010 Apr;136:84–92.4
Paper ID #37380Students utilization of Discord Messaging Platform in anIntroduction to MATLAB CourseEmily Hammond (Teaching Assistant Professor) Emily Hammond is currently an Assistant Teaching Professor at the University at Buffalo. Her teaching focuses on introduction to programming and computational methods for engineers and supporting the first year program. She holds a Ph.D. in Biomedical Engineering from the University of Iowa.Jayden Mitchell Jayden Mitchell is an undergraduate research assistant in the Department of Engineering Education at the University at Buffalo. He is majoring in Aerospace
knowledge gained to lesson plans based on the K-12 state and nationalstandards for engineering design and technology. This is depicted in Figure 1. Students will alsoexplore appropriate models of learning and assessment for DET as well as consider gender andequity issues within DET as they develop curricular materials and address the research questions.Assessing what skills and knowledge students learn and how well they learn them will guidefollow-on programmatic changes.The education faculty members on the course design team will learn the techno logical designprocess, scalability, applicability, and the range of DET concepts appropriate for teachereducation programs—and by example, appropriate for engineering courses. Most educationfaculty have
programs. This work (which was inspired by my own experiences as a graduate student in astronomy) built upon my background in physics education research from my undergraduate days, when I began working as a Learning Assistant (LA) with Dr. Chandra Turpen. My experience as an LA introduced me to PER, and gave me the opportunity to get involved in curriculum design and research as an undergraduate. After my PhD, I returned to Dr. Turpen’s group as a postdoctoral researcher, and have since redirected my focus to the study of ethics and institutional change in STEM higher education.David Tomblin (Director/Senior Lecturer) UMD College ParkAmol Agrawal Amol Agrawal is an undergraduate student at the University of Maryland
. American c Society for Engineering Education, 2021Cross-Cultural User Interface Design in a Global Marketplace:Building Appreciation for Diversity, Equity, and InclusionIrini Spyridakis, Assistant Teaching ProfessorHuman Centered Design & EngineeringUniversity of Washington Cross-Cultural User Interface Design in a Global Marketplace: Building Appreciation for Diversity, Equity, and InclusionAbstractIn today’s increasingly global environment and with our growing reliance on the internet forcommunication and commerce, it is important to educate students about the cultural differencesin audiences and how these differences relate to rhetorical and design strategies. This paperreports on a
studentsbelong to groups under-represented in engineering such as women and minorities, andthose who have a poor preparation in math. 9. Focus on four or five key concepts 10. Choose topics relevant and familiar to students. Focus on “real world”applications and technologies that make a difference in daily life ( computers,transportation , heating and cooling, xerography, aviation, communications … ) 11. Draw on introductory engineering textbooks in your field as a source ofsimple problems for the class to tackle. 12. Use computers for more than word processing. Introduce students toprogramming, CAD/CAM and computer modeling. Have students use email and explorethe Internet. 13. Arrange visits
studentsbelong to groups under-represented in engineering such as women and minorities, andthose who have a poor preparation in math. 9. Focus on four or five key concepts 10. Choose topics relevant and familiar to students. Focus on “real world”applications and technologies that make a difference in daily life ( computers,transportation , heating and cooling, xerography, aviation, communications … ) 11. Draw on introductory engineering textbooks in your field as a source ofsimple problems for the class to tackle. 12. Use computers for more than word processing. Introduce students toprogramming, CAD/CAM and computer modeling. Have students use email and explorethe Internet. 13. Arrange visits
AC 2011-656: GUIDED REFLECTIONRonald C Rosenberg, Michigan State University Associate Dean for Special Initiatives and Associate Director, Applied Engineering Sciences Program, College of Engineering, Michigan State University. Long-term interest in modeling and simulation of engineering and ecological systems. Co-author of two texts on systems dynamics primarily intended for mechanical, electrical and control engineers. Strong interest in effective methods for teaching systems concepts to broad audiences.Jon Sticklen, Michigan State University Jon Sticklen is the Director of the Center for Engineering Education Research at Michigan State Univer- sity. Dr. Sticklen is also Director of Applied Engineering
-developed and supported the implementation of online learning environments and a cognitive tutoring system, and taught preservice and inservice educators as an assistant professor of educational technology. At the core of all his work is supporting the development of instructional opportunities that provide learners the chance to engage in building deep conceptual understanding of content. © American Society for Engineering Education, 2022 Powered by www.slayte.com How College Students Feel about Data Privacy and the Data EconomyAbstractModern technological applications collect an unprecedented volume of data on their
. What is known is that women applicants formanagerial positions are accepted significantly less often than equally qualified males [4].Furthermore in traditionally male dominated positions there is a preference to select males [6].More recently Patil [2] noted that in male-dominated organizations female recruiter’s indicate apreference for male applicants. Kwon and Milgrom [3] further identified the gender inverseeffect that occurs when top female managers within a male-dominated occupation increases;namely women become less likely to quit (same gender attraction) as men become more likely to(opposite-gender aversion).This research is interested in determining if similar pervasive stereotypes exist with respect tofemales in the industrial
(CI) through the application of genomics software tools and data. Thecornerstone of the project-centric approach was the development and implementation ofeducational modules centered on applying a transdisciplinary approach to specific and typicalchallenges that are faced by current scientists in the area of pathosystems biology (host-pathogen-environment interactions). The course modules were further modified by BSC to fittheir students and training objectives. We report here the first implementation of the CI courseand a summary of our initial observations to aid others in implementing similar courses.Specifically, we discuss materials developed at Bluefield and implementation of the Center forApplied Research and Technology (CART) Course
, and marketing.These teams work with program faculty advisors and representatives of the sponsor-corporationsto develop detailed, implementable solutions that enhance productivity and ROI.The objectives of the advanced nanotechnology entrepreneurship course at PSU are to: utilize theproduct design and development process in inculcating in the aspiring entrepreneur theimportance of entrepreneurial decision making skills, and the need for ethical andenvironmentally-friendly leadership practices.This paper discusses the efforts and results of the design, development and delivery of theadvanced nanotechnology entrepreneurship course. A search of the literature indicates1-3that thiscourse is fairly unique with its combination of nanotechnology and
15.535.14Appendix C: Software Engineering Team Project Assignment Course Project Description AERSP 440: Introduction to Software Engineering for Aerospace Engineers Instructor: Prof. Lyle N. Long TA: Oranuj Janrathitikarn Spring, 2009The project for this course will be the development of a software system for a mobile robot.Mobile robots are beneficial in many applications especially for interplanetary exploration andoperation in extreme environments. A radio-controlled truck with an on-board computer will becontrolled by a desktop computer via wireless LAN through the internet [Ref. 1]. Therefore, thetruck will be able to
possibility of navigating with no precise end aim or purpose, continuallyexploring what a site or the internet has to offer [37].There are many software resources available to configure web crawling techniques, which canmake web scraping and data extraction much easier and faster. These tools may instantly detect awebpage's structure or provide a documentation framework that eliminates the need to manuallygenerate web scraping code or other parsing functions that gather and convert data, as well asspreadsheet apps that store the extracted data [37]. Some popular tools include Scrapy [38],Beautiful Soup [39], Octoparse [40], ParseHub [41], and Application Programming Interface(API)-based tools [42]. Among these, APIs are helpful as through this, users
biomimetic. From the department’s perspective, the ability to exploit newopportunities and solve problems within the domain of complex systems will be the hallmark ofsuccessful engineers in the 21st century. Towards this goal and throughout the program, there isan explicit emphasis on the use of Mathematica in the solution of problems involving iteration,differentiation, integration, solution to ODE and PE, matrix manipulation, and vector algebra.The present course aims to develop numerical and modeling skills through a consideration ofissues related to social justice. The particular issues which have been integrated into thisrequired sophomore level course include distribution of wealth, the costs and tradeoff associatedwith health care, the
thus one has to harness theknowledge archiving and retrieval capabilities possible with today’s information technology. Theauthors describe their experiences with a popular materials and process selection program(Cambridge Engineering Selector) that has been deployed in a junior level manufacturingprocesses class as well as a senior/graduate level aluminum design class. Students experiencedifferent aspects of the software, with the usage of its vast capabilities getting more sophisticatedas they progress along the curriculum.Background The process of design necessitates a good understanding of the properties of materials aswell as the manufacturing processes necessary to create a product out of these materials.Fundamentals of material
module. The captured data wasinserted into a MySQL database where a webpage with a graphing application programminginterface (API) was used to display the data. The system has been successfully tested in real timewhere data was successfully obtained and displayed. Future enhancements to safeguard the data,including the encryption of the patient data is under investigation.Keywords: Body Area Networks, Sensor Networks, Wireless Communications.I. IntroductionPressing medical issues such as the aging population in developed countries andthe skyrocketing cost of healthcare have prompted the emergence of technology-driven improvements of current healthcare practices. For instance, recentadvances in electronics have enabled the development of
doors, to ensureyou have your seat belt on, house alarm systems, traffic monitoring and control,almost every industrial process and many more applications. Using sensors andsensor data in engineering classrooms is becoming increasingly beneficial forengineering education. It motivates students to pursue science and engineeringdisciplines as well as associated career paths1. Lessons in the classroom quicklybecome more interesting2 and engaging3. Advances in mobile devices, education, business and research have resultedin the use of powerful microprocessors with an array of capabilities and sensorsbuilt in4. Mobile devices are capable of word processing, Internet access, andsome are even capable of preliminary human motion analysis4. It seems
vehicles (UAVs),and aerospace applications. It empowers autonomous systems to navigate efficiently and safelythrough complex environments, avoiding obstacles while optimizing for factors such as time, en-ergy consumption, and mission objectives.1Traditional motion planning solutions often rely on geometric, sampling or optimization-basedmethods to generate feasible and efficient paths from a starting point to a goal point while avoidingobstacles. Among these, graph-based methods, including Dijkstra’s algorithm,2 the A* (A-star)algorithm,3 and D* (D-star) Lite,4 as well as sampling-based methods such as Rapidly-exploringRandom Trees (RRT) and RRT*,5, 6 are among the most widely used solutions.In recent years, deep reinforcement learning (RL) based
information in the context. 4.Demonstrate an ability to communicate clearly and precisely about technical matters related to Engineering Mechanics. 5.Accomplish hands-on tasks that require the application of knowledge of Engineering Mechanics. The mechanics course has the same learning outcomes for its delivery in traditional and blended mode.To assess the successful delivery of these learning outcomes, a range of assessment activities as well asa final exam are undertaken by all students. The old and new assessment structures for the course aregiven in Table 2. The learning outcomes assessed for each assessment activity are also listed in Table 2.The assessments within the old structure comprised of test papers, assignments
allowed us to let freshman participate in semiconductordevice fabrication. This paper focuses on the content and teaching of “Applied MaterialsScience”.IntroductionThe purpose of engineering education is well described by the words of Stephen van Rensselaer,the founder of the first civilian engineering college :“...instructing persons, who may choose toapply themselves, in the application of science to the common purposes of life"1. This meansdesign. Many engineering curricula are either introducing or attempting to introduce designthroughout the various courses in their curricula2, and those who do find it successful3. Designrequires materials selection and the evaluation of alternative materials4. Thus, if design is goingto be integrated