address theproblem of premature infant mortality in the developing world. Students look at why the infant mortalityrates are much lower in developed countries, even if the premature birth rate is similar, such as betweenthe US and sub-Saharan Africa. They discover that access to infant incubators might help address thisproblem in the developing world, but that access to electricity is a limiting factor. They then set out todesign an infant incubator using chemical reactions to provide the heat. They learn about chemicalreactions, insolating and conducting materials, and phase change materials to regulate the heat in anorganic way as they address problems that arise while designing their incubator. Curriculum Features
the redesign of a first year program-ming for engineers course at Hofstra University. The pedagogy has been redesignedusing an activity centric model [1]. This course is also offered in four local highschools as part of the K-12 outreach program, Pathways to Engineering, sponsoredby the School of Engineering. Teachers received professional development and usethe curriculum to teach classes of 15-28 students. The students have the option totake the course for three credits and receive an official transcript from the university.MaterialsThe materials needed can be found on the original activity developed at IndianaUniversity, Bloomington and funded in part by the National Science Foundation andIndiana University 1995. For convenience, they are
Predrag Tošić University of Idaho - Coeur d’AleneAbstractWe discuss opportunities and challenges encountered in developing new undergraduate degree programsthat are inherently cross-disciplinary and require institutional and instructional support from differentdepartments and colleges. We have recently been involved in early stages of curriculum development foran undergraduate BA/BS Data Analytics program at Washington State University (WSU), involvingfaculty and resources from Computer Science, Mathematics & Statistics, College of Business, and otherunits at the University. The development of such a new degree program required developing entirely newcourses and their syllabi, identifying faculty across the
: • develops educational program, submits it for approval to Faculty Academic Board and further to the HSE Directorate of Basic Education Programs and Vice-Rector for Academic Affairs; • clarifies the curriculum for each academic year and suggests teaching staff for the program courses; • submits a petition to the Department Chair for replacing lecturers in case of unsatisfactory results of monitoring the quality of teaching of specific courses; • approves the course syllabi; • generates suggestions for changes in the program educational standard and curriculum, based on international experience in realization of similar educational programs abroad; • considers reports monitoring students’ opinions about the
CAD BASED DESIGN COURSE USING A STATE OF THE ART SYSTEM LEVEL LANGUAGE Suryaprasad Jayadevappa (esj002c@motorola.com) Ravi Shankar ( ravi @cse.fau.edu)1.0 IntroductionMost major U.S universities offer a design course based on Verilog at the undergraduatelevel. Verilog is used in the high-tech industry to design and develop their commercialproducts. The increase in design complexity, shortened time to market and intellectualproperty based methodologies has created a knowledge gap for both the practicingengineer and the new graduate. Today, there is need for higher levels of abstraction
engineers that can adapt to the needs of the globalized world. Theprogram was created to produce graduates with proficiency in engineering pedagogy andexpertise in engineering education research, that are responsible for designing engineering coursepedagogy, curriculum, and leveraged research to improve learning outcomes [12].The purpose of the faculty members in the program is to use ENGE research into their teachingpractices to develop doctoral students as effective engineering educators and researchers. Theyare encouraged to promote innovative cutting-edge research [12].The Doctorate of Philosophy in Engineering Education at Utah State University is offeredthrough the Engineering and Technology Education Department. According to Benson, Becker
complete the project and thebusiness management strategies that contributed to its success. It discusses the lessonslearned by students working on the project and from interaction with students from otheruniversities during the competition. Lessons from the post competition analysis, includingstrategies for future competitions are discussed. Finally, the overall impact resulting fromthe project on the training of engineering students, curriculum development and updatestrategies are discussed. Page 8.719.1Keywords: Integrated Engineering Education, Multi-Disciplinary, NationallyProceedings of the 2003 American Society for Engineering Education Annual
pedagogicalapproaches were insufficient, emphasizing the need for frameworks like UDL and differentiatedinstruction. These findings reinforce the importance of providing professional developmentopportunities to equip educators with the skills to meet diverse learner needs.The tension between conceptual and technical instruction highlights the complexity of teachingAI concepts in a way that balances accessibility and rigor. This challenge underscores theimportance of curriculum design that scaffolds technical skills while focusing on high-levelunderstanding. Collaborative curriculum development involving instructors, neurodivergentlearners, and content experts could address these gaps more effectively.Social and emotional challenges in the classroom further
enhance their curriculum. Students are asked to prepare a 30 second pitch of their proposal, which they present in a mock poster session to reviewers (graduate students). o Pitch / Proposal (Individual)—this final presentation of the course goes hand-in- hand with the proposal assignment described further (below). Students are asked to present their proposal to a defined set of reviewers, as applicable to the topic, using the medium they deem most appropriate. Evaluation is on building a convincing argument, choice and development of appropriate media, and presentation skills. • Critical Reading and Research Summary—similar to an
Graduate Certificate in Engineering Education. With experience as an engineer and a mathematics teacher, he promotes the expansion of equitable and high-quality learning opportunities for both engineering and K–12 students through mathematical modeling. His research focuses on exploring the process of refining mathematical ideas and engineering concepts that engineering students develop while engaging in model development sequences built in real engineering contexts.Dr. Guadalupe Carmona, The University of Texas at San Antonio Dr. Carmona is Professor of STEM Education at The University of Texas at San Antonio and also serves as Executive Director of ConTex, an initiative between The University of Texas System and Mexico’s
courses in both quality control and quality assurance areas as well as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation course as well as for quality control undergraduate and graduate courses in ET Masters program. Also, she introduced the first experiential activity for Applied Mechanics courses. She is coordinator and advisor for capstone projects for Engineering Technology.Mr. M. Eric Carr, Drexel University Mr. Eric
teacher as a mentor, and the teacherin the role of friend and counselor when necessary. It is important that teachers determine whothey are as teachers and where they are going as they develop the sk ills of students necessary forsuccess in the professional world. Teachers are in fact the leaders that students meet today sothat they may prepare themselves for employment in their future. Although some believe thatthis influence is excessive, it is in fact real. How teachers teach students to survive in collegewill help them survive after graduation.IntroductionWatch carefully. Listen intently. The sights you may see and the sounds you may hear areteachers abdicating their roles as leaders in the classroom. Discussions and concerns over the“power
the engineering design process and design thinking into STEM education and works with K-12 educators to increase teacher capacity in classroom engineering education. She also teaches a first-year Engineering Projects course at CU. Prior to pursuing a career in higher education, Jennifer taught middle school science for 15 years and she received a Teacher of the Year community award and guided her students to numerous state and national sustainable project awards, including the Siemens We Can Change the World Challenge. After transitioning from the classroom, she joined the CU Cooperative Institute for Environmental Sciences (CIRES) Education & Outreach Program as a Curriculum Development and Program Manager where
Department of Engineering Education and Psychology of the Kazan National Research Technological University (Russia). She has Ph.D. in Social Psychology and also works as head of the minor degree program in Psychology at the university. Scientific interests: motivation, value system of a person, self-development, diversity issues.Dr. Liliya Vasilievna Prikhodko c American Society for Engineering Education, 2016 Individual peculiarities of engineering students attending minor degree programs. Research on psychology and education. Professional activity of a contemporary global engineer requires constantimprovement of engineering training1. One of the ways to make the educational system
multiple and sometime conflicting requirements, and 2) Following a systematic approachsuch that those decision and their effect on the final design can be communicated. This has beensummarized by some employers as “lacking the feel” for engineering. The motivation for this workis that by providing opportunities to develop these skills, students will be better prepared for theirengineering careers. While innovative methods for providing students with those skills is the central focus ofthis research. Evaluation of the effectiveness of those skills is critical for furthering this researchand providing metrics and goals for future curriculum changes. Therefore, in this paper we present
states, before returning to Indiana. Since 1979 he has been with Endress+Hauser, a worldwide leader in process automation measurement. At the US headquarters in the metropolitan Indianapolis area, Don has held roles as diverse as R&D physicist, Engineering Manager, Product Development Specialist, Product Manager, and Technical Training Manager. Today he works in Technical Talent Development where his role is all about engineering students - exposing them to the process industries by engaging with faculty and programs with time, people, and equipment – and hiring high potential graduates for an Endress+Hauser development program. It is in this faculty engagement realm that Don finds himself co-authoring this paper
developed for primary school, junior high schooland high school, respectively. In 2008, France implemented new science education standard“the new curriculum for primary school”[10], including discovery-oriented curriculum forprimary students, experiment-oriented for junior high students, and integration-orientedcurriculum for senior-high students. Japan's recent education reform was in 2008, with afocus on emphasizing scientific inquiry methods and life-related problem solving activities.At the 2013 Global STEMx Education Conference, Finland, Australia, New Zealand andother countries have participated to discuss science education for new era. Along with scienceeducation reform, original meaning of STEM (Science, Technology, Engineering
curriculum calledNASA-Threads which integrates engineering, mathematics, and physics concepts through hands-on projects. NASA-Threads combines NASA applications, fundamentals, technology, andcommunication with projects that are facilitated by an inexpensive robotic platform.Fundamentals are taught in this active classroom environment as projects unfold. The hands-onprojects build excitement and foster the development of student confidence and creativity; theyalso develop student ability to solve realistic multiple-step problems.Each student participating in the NASA-Threads curriculum is provided with their own robot(Boe-Bot) which provides a tool for measurement and control of physical systems. We haveadopted the Boe-Bot robotics platform from
tools should be further developed in the curriculum.However, despite the potential of generative design processes in both education and practice, adegree of caution must be maintained. The strategy utilized in this case study was based on Page 22.368.16leveraging students prior CAD and computing knowledge in order to introduce higher-ordermodeling skills along with the generative design concepts. Introducing generative designconcepts into the broader curriculum could exacerbate the lack of digital design skills prevalentamong many senior faculty in architecture programs. More importantly, the ability to easilygenerate complex geometry may
, development andtesting of their chosen project in their senior year. This paper provides a summary of the coursestructure, content, projects and evaluation of assessment results from the first offering of thiscourse with a discussion of additional topics covered in the second offering.OverviewUniversities across the country recognize the importance of instilling design early in theengineering curriculum. Engineering programs routinely have introductory design courses asfirst-year experiences to initiate discussion on various important engineering skills, and then thesenior capstone design courses focus on individual or team projects where students step throughthe design process. If elements of the product design process are left until the senior year
-20 as well as theenhancement of education and training of individuals as implemented in one of the consortiummember institutions. The outreach components involved the training of undergraduate studentsthrough summer exchange at universities as well as through summer internship placement atnational laboratories. A local outreach to middle / high schools was established through theimplementation of an advanced manufacturing skills development after-school program formiddle school students. The paper also presents the model curriculum for the outreach programand shows the integration of undergraduate students and K-12 teachers working together.Introduction to MSIPP Program In 2012, the National Nuclear Security Agency (NNSA) established the
at GD, Senior Engineering Manager at LM, and Advisory Engineer/Scientist at IBM. Dr. Squires is a contributing author and editor to the Systems Engineering Body of Knowledge (sebokwiki.org) and the Graduate Reference Curriculum for Systems Engineering (bkcase.org/grcse). She is certified by PMI as a Project Management Professional, and by INCOSE as a Certified Systems Engineering Practitioner, including in Acquisition. Dr. Squires is a lifetime member of the Beta Gamma Sigma, Tau Beta Pi, and Eta Kappa Nu Honor Societies. She is a Senior Member of the IEEE, a member of and Director on the Systems Engineering Division board of ASEE, and a member of the ASEM, NDIA, INCOSE, and PMI. Degrees earned include a BSEE from
integration of research and engineering have been studied in the abovecases. We show that integration can be achieved, that the various sets of requirements need tobe communicated clearly, in particular to industry representatives, but that it is indeedpossible to perform the integration synergistically.In this paper we however only show anecdotal descriptions of thesis projects and studentaction. In a further study it would be necessary to study a sample of thesis projects andreports, to classify according to the models described above, and to relate these to the overalloutcome and assessment of the thesis.References 1. Heitmann, G., Challenges of engineering education and curriculum development in the context of the Bologna process
Company and Rockwell International. She is a member of ASEE and SWE.Prof. Branimir Pejcinovic, Portland State University Branimir Pejcinovic received his Ph.D. degree from University of Massachusetts, Amherst. He is a Professor and former Associate Chair for Undergraduate Education at Portland State University, Electrical and Computer Engineering department. He has led department-wide changes in curriculum with emphasis on the project- and lab-based instruction and learning. He was awarded the best paper award by the ECE division of ASEE in 2017 for his work on freshman engineering course development. His research interests are in the areas of engineering education, microwave absorber design, ferroelectrics, photovoltaics
programming concept of Java. Therefore, it will be difficult for students to takeadvantage of object-oriented programming concepts. In this paper, an objects first Java teachingmethod with BlueJ, a simplified and virtualized development environment, is presented. A post-course assessment is conducted. The interpretation of the assessment results is also discussed.IntroductionJava was created by James Gosling at Sun Microsystems1. It combines object-oriented (OO)features such as data abstraction, inheritance, and dynamic binding with procedural features suchas variables, assignment, and control structures. The result is a powerful but complex languagethat is difficult for beginning programmer to master.The Java programming language has become
. However, due to concerns in the math department over requirements that mathfaculty have a set number of graduate hours in mathematics, this practice had to be abandoned.By the fall of 2005, it was becoming increasingly evident that the department had to dosomething different to get our students the foundation in mathematics necessary for the majorcourses. This issue was considered as part of a broader curriculum review in 2005-6. Theauthors recommended to the rest of the department that we develop two courses within thedepartment to cover needed topics from algebra, trigonometry, and calculus. Students at thesatellite campus could take these courses in place of the current requirements for precalculus andcalculus. This would allow the engineering
teaching and learning methods to power engineering education. c American Society for Engineering Education, 2016 An Introductory Laboratory in Power Engineering Technology: A Systems Approach Matthew TurnerAbstractThis paper presents the design of a curriculum and the associated hardware for the laboratory componentof an introductory power engineering technology course for sophomore students. The content wasdeveloped to implement a systems approach that uses the modern electric power network as aninterconnected system to be designed, analyzed, and tested. The major hardware components of theelectrical power system are studied and analyzed in individual laboratory
Graphics, the Engineering Technology, and the New Engineering Educators Divisions and their education and instructional agendas. Page 26.749.1 c American Society for Engineering Education, 2015 Facilitating Additive Manufacturing Engagement and OutreachIntroductionIn addition to delivering instruction to students on the technical dimensions of additivemanufacturing, engineering technology can and some suggest must play a role in deliveringinstruction on additive manufacturing’s role in stimulating economic development, regionaltransformation, and domestic competitiveness. That is, the
University Purdue University, Indianapolis Dr. Miller is the Undergraduate Program Director and Clinical Associate Professor of Biomedical Engi- neering at Indiana University-Purdue University Indianapolis (IUPUI). After earning her BS in Materials Science and Engineering from Purdue University (West Lafayette), she earned her MS and PhD degrees at the University of Michigan (Ann Arbor). Her current roles include teaching, assisting in program assess- ment, student advising, and helping oversee undergraduate curriculum development and enhancement. c American Society for Engineering Education, 2020 Biomedical Engineering Students Gain Design Knowledge and Report Increased Confidence When
• MS-ETS1-1. Define the criteria and constraints of a design problem with sufficient precisionlocal science museum are collaborating Sciences, 3Sociology, and 4Guarini School to ensure a successful solution.with middle-school STEM teachers from of Graduate & Advanced Studiesrural schools to develop project-based • MS-ETS1-2. Evaluate competing designcurricula. Dartmouth College solutions using a systemic