Page 14.408.24000), Bioprocess Separation Engineering (BIOE 4010), Bioprocess Plant Design, andSimulation and Analysis (BIOE 4020). The bioprocess engineering concentration courses are inaddition to the two semester capstone design sequence that will also have some bioprocessrelated component. The faculty of ECU’s engineering program are encouraged to pursue novel approachesto engineering education. The newly created concentration in bioprocess engineering providesan excellent opportunity to develop and implement a novel curriculum based upon provenpedagogical approaches designed to engage the students and improve their mastery of concepts.The objectives of this project are: 1. Utilize proven techniques to develop nine
different levels of emphasis on experiential learning. Those schoolswith less experiential learning courses tended to feature more courses where students learnedconcepts and demonstrated competence through traditional exercises like problem sets andexams. Engineering educators have steadily incorporated problem-based learning exercises,projects and capstone experiences into undergraduate engineering education. Problem-basedLearning (PBL) has been one technique introduced in order to bring ‘real life’ problems into theclassroom. Those educational exercises, particularly PBL, emphasize information-seeking as askill that will be developed through participation in the exercise. What we may see in these datais the payoff of those activities, but as one
Chemical Engineering. He is a registered Professional Engineer in Tennessee. He has nineteen years of industrial experience in industrial process and product development in the detergent, paper, and packaging industries. He teaches capstone design, value engineering and engineering economy at the undergraduate level, and technical innovation and advanced engineering economy in the graduate Engineering Management program. His research interests include product development, technical innovation, entrepreneurship, and design. c American Society for Engineering Education, 2016 A Comprehensive Approach to Power Sector Workforce DevelopmentAbstractThe University
that wouldplace fewer burdens on educators, while helping engineering students take the time to understandthe lessons that are afforded by engineering courses through reflective activities.To address these issues, a few researchers in engineering education have successfully designedor developed new methods and tools to support student reflection. For example, Chen et al.combined the use of weblogs and wikis with the creation of portfolios (Folio Thinking) tosupport learning and reflection in an introductory freshman seminar on design engineering atStanford University. Chen et al. indicate that a challenge in project-based design courses is thatstudents “see what they have produced but they do not see what they have learned.” They reportthat
Texas at El Paso. The curriculum for this course includes engineering designconcepts and projects and subsequently a 3D design capstone project was added to the curriculum.In 2013, the department (name removed) invested in a Makerbot Replicator 2nd Generation 3Dprinter, with a build volume of 28.5 L x 15.3 W x 15.5 H cm. As a final project, the students ineach of the three classes were grouped in teams of no more than five students. Each team had tocreate a 3D design of a bridge and the final part of the assignment was to 3D print this bridge. Thedesign had to meet specific criteria such as exact dimensions on width, length and height, and hadto support an object of at least five pounds without breaking3. A total of 15 bridges were printed.The
). Current research focuses on sustainable engineering, community development, water and wastewater treatment design, stormwater retention/detention and treatment design, urban hydrology, constructed wetland and stream restoration design, ecological stabilization, sustainable engineering in land development, water resources, water and wastewater treatment. He is also the faculty advisor for Duke Engineers for International Development and the Duke Chapter of Engineers Without Borders and has led DukeEngage experiences every year since the inception of the program. He has facilitated and/or led trips to Indonesia, Uganda, Kenya, Honduras, El Salvador, Bolivia, and Peru. Representative projects he has worked on include
career in engineering working with companies such as General Motors, Ford Motor Company and Microsoft, she pursued a Master’s degree in Education from Michigan State University. Later, Araceli completed a PhD in Engineering Education from Tufts University. She is also experienced in education policy and prior to joining the Professoriate, she was Director of Educator Preparation - focusing on STEM education projects at the Texas Higher Education Coordinating Board. In 2013, she was named Director of the Texas State University LBJ Institute for STEM Education and Re- search. Her research interests include studying the role of engineering as a curricular context and problem- based learning as an instructional
Session 1410 References1. Christman, Leah and Ochs, John B., “Implementing an Entrepreneurial, Standards- Focused, Project-Based Learning Model,” Community of Agile Partners in Education (CAPE) Collaborative Faculty Project Grant, January 2004.2. Ochs, John, B, Watkins, Todd A, and Snyder, Drew M., “Lessons Learned in Building Cross-Disciplinary Partnerships in Entrepreneurship Education through Integrated Product Development (IPD),” Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition, June 2003.3. Ochs, John, B, and Watkins, Todd A., “Lehigh’s Interdisciplinary Capstone Courses in Integrated Product Development (IPD),” Abstract
. Inthe original physics-based curricula, labs involving mechanical application were practically non-existent. To provide for new mechanical lab activities, basic laboratory stations were procured,an engineering measurements lab and course were created, and innovative, low-cost practicalexperiences were developed. These activities quickly became too numerous for a single course,and will need to be distributed into the engineering science courses. The electrical engineeringcomponent has been influenced by technology advances and changes in focus. Improvements tolaboratory equipment and software have simultaneously simplified many lab measurementswhile allowing for more complex projects. The focus has shifted from fundamental physicsmeasurements
particular emphasis on the behavior of these molecules in ”non-native” environments such as those often found in biotechnology. His research efforts have earned him the NSF CAREER Award and the Young Faculty Award from the Defense Advanced Research Projects Agency (DARPA). As part of his research efforts, Knotts creates outreach programs to help teachers improve K-12 STEM education.Dr. W. Vincent Wilding, Brigham Young UniversityDr. William G. Pitt, Brigham Young University William G. Pitt received a Ph.D. in chemical engineering in 1987 from the University of Wisconsin, Madison. He obtained a faculty position at Brigham Young University in the Chemical Engineering Department, where he has served since 1987. He is
created to monitor internship programs andensure proper depth and breadth of experience for new engineers.14 Industry should providefeedback to academia on how well prepared graduates are as they enter internship programs. Byusing feedback from the industry perspective, faculty can drive the right curriculumimprovements that best prepare engineers to meet the demands of professional practice.The Perspective of Students on their Preparation for Professional PracticeBielefeldt’s recent study at CU investigated how civil engineering students perceived theeducational outcome requirements in the BOK2.15 The project had three main goals: 1) Introduce the BOK2 to first year civil engineering students and determine what information they perceived
generated data. Several flavors are alternated, the most common being 3-axis surface machining. The other two courses focus on the design and fabrication of injection molds (ETEC 335) and tooling and fixtures (ETEC 427). The former heavily utilizes both CAD and CAM in CATIA to design and machine an injection mold. Finally, each student must complete a senior capstone project (ETEC 422 and 424) that allows them to integrate the use of the skills they have acquired in the program. Extensive Page 22.411.8 CAD modeling is a requirement of this project. Typically these projects also lead to the use of CAM and CNC to fabricate a part
mostcredible data to guide energy investment and policy. Its vision is analyzing, speeding and Page 22.192.3smoothing the transition to sustainable energy worldwide. In doing so, it recognizes that it mustbring together the decisions made by policy makers, energy companies, investors and lawmakersworldwide, building project teams from all disciplines and all countries. This is the kind ofmodel we are aiming to replicate in our course.At Miami University a group of faculty from across the institution began to meet to consideramultidisciplinary energy studies program. The goal was to create an interdisciplinary major inenergy studies that exposed the
Greenwood Press: Westport Connenicut. p. 115 - 133.32. Johnson, D., R. Johnson, and K. Smith, Cooperative Learning Returns to College: What evidence is there that it works? Change, 1998. 30(4): p. 26-35.33. Nembhard, D., K. Yip, and A. Shtub, Comparing competitive and cooperative strategies for learning project management. Journal of Engineering Education, 2009. 98(2): p. 181-192.34. Keyser, M.W., Active learning and cooperative learning: understanding the difference and using both styles effectively. Research Strategies, 2000. 17(1): p. 35-44.35. Pimmel, R., Cooperative learning instructional activities in a capstone design course. Journal of Engineering Education, 2001. 90(3): p. 413-421.36. Finelli, C.J., A
primary research project is sponsored by the Federal Highway Administration, and focuses on improving engineering education methods. I am also contributing to a research project sponsored by the US Department of Energy, in which I am assisting with the solid mechanics modeling of moisture swing polymers for use in low-energy carbon capture. For my senior capstone, I led the development of a theoretical offshore wind farm for the 2022 Collegiate Wind Competition, and helped our team earn second place at the competition. This experience led me to become the current president of NAU’s Energy Club, where I now manage two interdisciplinary engineering teams who are working to complete the Collegiate Wind Competition and
Chicago LegalForum, 1(8): 139-167.Davis, D., Trevisan, M., Gerlick, R., Davis, H., McCormack, J., Beyerlein, S., ... Brackin, P. (2010).Assessing team member citizenship in capstone engineering design courses. International Journal ofEngineering Education, 26(4), 771–783Douglas-Mankin, K. R. (2008). Assessment of student learning of design skills from a first semesterdesign project. Transactions of the ASABE, 51(6), 2249–2254.Edwards, B. D., Day, E. A., Arthur, W., & Bell, S. T. (2006). Relationships among team abilitycomposition, team mental models, and team performance. Journal of Applied Psychology, 91, 727–736.Fiegel, G. L., & Denatale, J. S. (2011). Civil engineering capstone design: Team formation, preparation,and performance
production), Management and Entrepreneurship Skills,and career pathways. The Electronics Vocational Framework requires a detailed analysis intoanalog and digital circuitry. Several courses rely on the Drafting Vocational Framework,focusing on computer aided design (Autodesk Inventor, AutoCAD), analyzing blueprints,dimensioning, and creating 2 and 3 dimensional models.In the senior year capstone course, one of the major objectives is to integrate advancedmathematics and science into the engineering and technology education. The governingvocational document for this course requires a large number of embedded academic (i.e. mathand science) skills within the vocational standards. In order to accomplish this, the classcompletes a project analyzing
research inter- ests are in heterogeneous catalysis, materials characterization and nanomaterials synthesis. His research group has pioneered the development of electron microscopy tools for the study of catalysts.Dr. Jamie R Gomez, University of New Mexico Jamie Gomez, Ph.D., is a Lecturer Title III in the department of Chemical & Biological Engineering (CBE) at the University of New Mexico. She is a co- Principal Investigator for the National Science Foundation (NSF) funded Professional Formation of Engineers: Research Initiation in Engineering For- mation (PFE: RIEF) for the project- Using Digital Badging and Design Challenge Modules to Develop Professional Identity. She is a member of the department’s ABET and
in the Department of Civil Engineering at the University of Texas at Tyler. Prior to joining academia, he worked for nearly five years as a project manager and structural analyst for Electric Boar Corporation. Dr. McGin- nis’ research interests include nondestructive evaluation of structures, response of structures to extreme events such as fire and earthquake, and improving undergraduate engineering education. He has published numerous articles concerning the application of digital image correlation, a non-contact photographic method of determining deformations, to study the behavior of unique structures under various loadings. In teaching and mentoring areas, Dr. McGinnis has been recognized by his peers as the
the curriculum with social context Architectural Civil Environmental Mechanical First year First-year projects: some sections S-L, some community context, some little/no social context AR/CV Intro (2-cr) EV Intro (1-cr) Second year Engineering Geology* Fund Environmental Eng Professional Sustainability Principles Issues Third year Intro to Fund Environmental Eng Env Microbiology Construction Intro to Construction Air Pollution Control Fourth year Capstone
are outcomes of the mixed-methods analysis of student datawith discussion of results.Background “Engineering design is a process of devising a system, component, or process to meet desiredneeds and specifications within constraints” [1]. To help meet these goals, developingopportunities for students to experience engineering design prior to their capstone projects hasbeen identified as a priority [2], [3]. The development of communication and teamwork skills inengineering undergraduates is also important [4], [5], and previous researchers have noted thatengineering design and communication share essential features, allowing their co-incorporationinto curriculum to provide a valuable learning experience.The ENG 003 engineering design and
with seeing their projects as small research projects,rather than as an extended homework assignment. Anecdotally, one of the authors has noticedthat senior students also struggle with literature reviews in capstone design, which is clearly aresearch project, potentially pointing to a weakness in the technical writing curriculum thatshould be addressed.The positive correlation between total number of desired behaviors and final grade seemsobvious at first. However, it should be noted that in several cases, some of the strongestcorrelations are for behaviors that are not explicitly required, but are performed by some studentsas general good practices. Moreover, students who used these behaviors at many points in thereport, rather than giving
between the multiple perspectives shared in ourclassroom activities, and the possibility for multiple approaches to engineering and designchallenges in her other courses. Later in the interview she noted that she had been encouragingher group for a capstone project to look beyond the most obvious ‘engineering’ problems andsolutions to uncover latent issues and non-obvious approaches. Her experience in this coursecontributed to this student’s epistemological development in both disciplines, as she haddeveloped an understanding and acceptance of multiple perspectives.DiscussionThere are a few recurring themes that standout in written responses to the Performing Engineerassignment and the interviews. First, students noted that they discovered the
AC 2012-3046: AN APPROACH TO USING UNDERGRADUATE STUDENTTEAMS TO DEVELOP UNDERGRADUATE LABORATORY EXPERIENCESLt. Col. Kevin A. Gibbons Ret., U.S. Air Force Academy, NexOne, Inc., and CAStLE Kevin Gibbons is a Senior Scientist for NexOne, Inc., in the Center for Aircraft Structural Life Extension (CAStLE) located at the USAF Academy in Colorado Springs. He taught in the AF Academy Department of Engineering Mechanics for four years, where he earned his Assistant Professorship and served as the Director of the Applied Mechanics Laboratory. He currently works as an advisor for a senior capstone research team and mentor to multiple mechanical instrumentation project teams. He earned a B.S. in mechanical engineering with
5. Dinner Speech: Cultivating Collaboration and Interdisciplinary Practice, Thomas MacCalla 10 6. Keynote Speech: Innovations in Undergraduate Bioengineering Education, Melissa Kurtis Micou 11 7. Concluding Speech: When Did Engineering Become so Cool? Engaging a New Generation, David Hauhurst 12 8. Classifying Student Engineering Design Project Types, Micah Lande 13 9. Learning Communities Improve Retention in Engineering and Computer Science, Raman Menon Unnikrishnan and Ricardo V. Lopez
professionalpractice.Ressler17 and others18,19,20,21 discuss the importance of service learning, communicating withcustomers, and collaborating with colleagues and professional associates. Still others discusspartnering with industry as sources of problems for capstone and research projects forinternships. These opportunities are intended to facilitate the transition from the classroom to theworkplace and expose students to practitioners who, in addition to modeling technical expertise,also demonstrate the centrality of effective communication in the workplace. Page 22.167.3In an analysis of communication skills in the engineering workplace, Nicometo et al. report
/Capstone Project IdeasBeyond modules which can be accomplished in a laboratory class setting of two to three hours,the PolyVent can also provide inspiration for larger projects, for courses such as CapstoneEngineering Design not specific to bioengineering but open to many disciplines. Ideas forresearch or advanced undergraduate projects include: ● Designing a PCB to drive an air heater and/or humidifier and creating a supportive software extension ● Designing a nebulizer for drug delivery ● Programming new ventilation modes ● Designing a hardware module to support acoustic ventilation ● Programming the system to become a small animal veterinarian ventilator ● Designing a software control, and possibly a new hardware, to
-level courses. As a department, we took this to mean that studentsneed to complete their first year not only with competency using the CAD software but also with the self-study skills to renew their CAD capability in later courses without direct instructional intervention.Observations made by faculty mentors and external reviewers during senior capstone projects as well asfaculty feedback from other upper-level courses, also indicate our students lack the skill and confidence touse programming for analysis. Currently, we rely on MATLAB as our ME programming language,introduced in the first-year programming course and again in an upper-level third-year course called MEAnalysis. Student work in other upper-level courses demonstrates a lack of a
was developed as part of theNRT requirements in the 2019-2020 academic year and has been taught every fall semester since2019. The course objectives are to enhance graduate students’ systems thinking competency andestablish a knowledge base that students build upon through the educational and experimentalpillars of the NRT at our university. These pillars include field experiences in Southwest Kansas,policy experiences at the state capital, course work, and a subsequent 2-credit capstone, project-based course.This paper aims to describe the experience gained from the NRT Integrated FEW Systems course,which may be beneficial in the implementation of a systems thinking course at the graduate levelin other four-year institutions. The paper
Paper ID #39936Board 264: Endeavour S-STEM Program for First-Year Students: 3rd-YearResultsDr. Diana G. de la Rosa-Pohl, University of Houston Diana de la Rosa-Pohl is an Instructional Associate Professor in the Department of Electrical & Computer Engineering at the University of Houston (UH). She is currently the Director of the Endeavour S-STEM Program. In addition to S-STEM courses, she teaches courses in computer engineering and capstone design. She has also developed multiple project-based first-year experience programs. ©American Society for Engineering Education, 2023 Endeavour S