intrinsicchallenges, such as the need to account for the differences in the technical background of thestudents. Student-faculty interaction outside the classroom may play a particularly important rolein effectively meeting these challenges in multidisciplinary courses.To this end, we build upon an applied communications framework developed by Fusani3 toinvestigate the impact of student-faculty interaction outside the classroom in a variety of coursesin a multidisciplinary engineering program. Our purpose is to identify qualities of successfulstudent-faculty interaction to help both students and faculty optimize their contact outside theclassroom.MethodsOur study focused on three courses within the ABET-accredited general engineering curriculumat a small
shown in Table 1. This set of requirements laysthe foundation for all engineering majors. Students matriculate to their respective engineeringmajor after completing the requirements and achieving minimum grade levels.Table 1: First-Year Engineering Required Courses Calculus I Calculus II General Chemistry I Ideas to Innovation I Ideas to Innovation II English Composition Fundamentals of Speech Communication Physics I (mechanics) Science Selective – (General Chemistry II, Computer Programming or Biology):The two engineering courses, Ideas to Innovation I and II, are designed and taught by faculty inengineering education. The four main content areas are design, teamwork, major exploration andcomputing
/ASME/ASEE interna- tional conferences, and as a reviewer and panelist for numerous externally funded proposals. He served as the general chair for 2016 ASEE NCS Conference, 2011 ASEE NCS conference, Technical Committee Member for IEEE ISVLSI, IEEE MWSCAS, IEEE WF-IoT, and currently serves on the editorial board for International Journal of Forensic Software Engineering. He has served as the Chair of IEEE Northeast Michigan Section, and vice-chair for ASEE North Central Section. He served as PI, co-PI, and senior personnel in several externally funded grants from organizations such as NSF, NASA, and the regional industry. He is a founding advisor for the IEEE Student Chapter at CMU, an elected member of Tau Beta
multiplegenerations about a significant historical event: the beginning of Westward Expansion. Initiallydeveloped for use in a text-only environment, this simulation was designed to present studentswith active learning experiences involving those migrating along the Trail [1]. The game allowsa player to outfit a wagon and then lead a small party on a 2000-mile trek while being cautiouswith supplies, keeping a good travel pace, and learning how to cross a river. While thiseducationally-focused game has achieved near cult-like status, it has also generated complaintsconcerning the lack of representation of those outside of the provided white male protagonistavatar [2]. Although the most common complaint involves the stereotypical portrayal of NativeAmericans
the study of objects, structures, and materials on the nanometer scales. The field of nanoscience is growing exponentially over the past years and nanotechnology is impacting our daily lives in many ways 1. The National Science Foundation (NSF) estimates that the job projection for nanotechnology will cover around several million workers worldwide and about $3 trillion in sales for nanotechnology related products by 20202. With this demand, nanotechnology education is being offered by more and more universities around the world. This implies the importance of the education and training on a new generation of skilled individuals in nanotechnology. In other words, it is necessary to have an effective teaching and
encouraging. Similar to the trend in Midterm exams, students’performance also improved in the course with increasing percentage of students receiving 70%or higher and reducing percentage of students receiving less than 60%. Thus, dividing the coursematerial can improve class performance.IntroductionTo increase student learning and classroom participation, many different techniques are appliedin engineering schools. Some instructors use the traditional instructor-led method, some use ahybrid method or flipped classroom. In a traditional instructor-led class, faculties give lecture onthe topic where the instructor generally controls the materials and pace of learning1. With theease of making lecture videos, in a hybrid class, instructors can now blend
, facility, and prior experience with programming. Research1 has shownbenefits in using tutorials via mobile and web applications to better engage students and helpthem learn at their own pace and level. The programming platform will be Matlab/Octave2 whichis a programming language initially developed for numerical computations. It is widely usedacross industry and academia and research institutions. Knowledge in Matlab/Octave is requiredin many of the engineering job openings, which makes it a very important technical skill that ourstudents have to master for a successful career as engineers.Knowledge of programming and specifically Matlab is a prerequisite for several classes taught atthe Schools of Engineering around the country and a Matlab
and lessons learned in teaching the course will also be presented.IntroductionElectrical engineering is a broad field of engineering which encompasses many areas such ascommunication, controls, electronics, computers, electromagnetics, and power. Within the powerarea there are sub-disciplines which are typically categorized into the traditional power systems,power electronics, electric machines, and renewable energy. In California, Cal Poly StateUniversity is among a few universities that offers power concentration within the electricalengineering department. In addition to requiring all electrical engineering students to take theelectric machines class, the department offers many technical elective courses in power systems,power electronics
Engineering Technology (MET) program is to educateits MET students on energy conservation in general and for buildings in specific. In this study,which was part of a project conducted for HVAC & Refrigeration class (MET 42100), the teamdecided to investigate ways to reduce energy or improve the coefficient of performance (COP)and efficiency of refrigeration cycles by looking into energy consumption in the condenser unit ofthe system. Sometimes overlooked and underappreciated, a power plant condenser can make orbreak the efficiency and power delivery goals. Understanding how important a role thecondenser plays is a good step toward greater energy conservation awareness. The teamconducted a parametric study to analytically investigate improvements
-based learning and active learning, also referred to as inductive learning have been extensivelyresearched. While the results of these various pedagogies vary, in general, their effect on studentlearning has been demonstrated to be positive in comparison to traditional lecturing.A hands-on approach to learning concepts of aerospace engineering is therefore not a newpedagogical approach and has found wide usage, and enhanced learning has been reported in theliterature. This aspect has been acknowledged by professional societies who have supported itsadoption. Thus, while engineering education over the years has emphasized capstone designactivities, more recently aerospace engineering curricula have incorporated elements of buildingand flying
the master of the subject matter and a high level of communication skills.The SUS program plans to apply for accreditation under ASAC in the next two years. In thissection, we investigate the degree to which the eight major guidelines developed from the ESEprogram assessment plan can be applied to multidisciplinary masters programs betweenengineering and non-engineering disciplines in general, and the SUS masters programspecifically. 1. Assessment of high-level courses only By definition, a masters level course is at a high level. However, in multidisciplinary programs, masters level courses not in the student’s baccalaureate discipline or school may be taught at a lower level. As a result, only courses within the student’s
in Mechanical Engineering from University of New Hampshire, USA and B.Tech [Hons.] in Ocean Engineering & Naval Architecture from Indian Insti- tute of Technology, Kharagpur, India. Her research interests include Computational Fluid Dynamics (CFD), Numerical Analysis and Applied Mathematics, Heat Transfer Applications, Mechanical Design, Nanotechnology, HP/HT Rheology. She also has strong industrial experience as a Senior Technical Pro- fessional at Halliburton [Oil-well Cementing Research & Development]. American c Society for Engineering Education, 2022 Full Paper: Provision of the practical learning environment via application-based
the School of Engineering at San Francisco State Uni- versity. His primary research interests are in the direct synthesis, characterization, and applications of nanocomposites and nanostructures for energy generation and storage. ˜Mr. Gilbert Ramirez, Canada College Gilbert Ramirez is a Bay Area resident who is originally from Southern California. Gilbert is currently studying Mechanical Engineering and has 15 years experience in the mechanical trade. He will be attend- ing Santa Clara University this Spring and his goal is to teach engineering after graduation. In his free time, Gilbert enjoys spending time with his three children and training for triathlons.Mr. Javier Robert PiccolottiDr
studentsobserved across the 4 sections/sessions). On average 1/7 students in each section (4/28) askedquestions of the UGTAs or colleagues that were not directly about the worksheet assigned. 15/28showed generally good focus/engagement in their work, but 9/28 exhibited poorfocus/engagement as exhibited by frequently checking his/her cellphone, looking at a non-relevant website, playing a videogame, or leaving lab as soon as it was practical to do so.Students in these sections did not exhibit curiosity by looking up information beyond what wasdirectly relevant to the worksheet, although 5/14 students did ask questions about non-amperometric methods of measuring blood glucose in the second week of observations, whichmay have been prompted by a question in
://www.sandiego.edu/disability/documents/Rethinking_Higher_Education_for_Students_with_Autism_Spe ctrum_Disorders_APA.pdf.19. Beder, S. (1999). Beyond technicalities: expanding engineering thinking. Journal of Professional Issues in Engineering Education and Practice, 125(1), 12-18.20. Uditsky, B., & Hughson, A. (2006). Inclusive post-secondary education for students with significant developmental disabilities: challenging legal, moral and pragmatic assumptions. Retrieved from www.researchgate.net/publication/265156319_Title_Inclusive_post- secondary_education_for_students_with_significant_developmental_disabilities_challenging_legal_moral_and_ pragmatic_assumptions.21. Neary, P., Gilmore, L., & Ashburner, J. (2015
. Canadian Social Studies, 33(3), 90–92.33. Foote, C.J. and Vermette, P.J. (2001). Teaching Portfolio 101: Implementing the Teaching Portfolio in Introductory Courses. Journal of Instructional Psychology, 28(1), 31–37.34. Hillyer, J. and Lye, T. C. (1996). Portfolios and Second Graders' Self-assessment of their Development as Writers. Reading Improvement, 33(3), 148-159.35. Prototype to Production. http://www.ed.psu.edu/educ/e2020.36. Dempster, A. P., Laird, N. M. and Rubin, D. B. (1977). Maximum Likelihood from Incomplete Data via the EM Algorithm. Journal of the Royal Statistical Society. Series A. General, 39(1), 1.37. Graham, J. W. (2009). Missing Data Analysis: Making it Work in the Real World. Annual Review of Psychology, 60(1
NASA’s overall vision and its fundamental basis, and Agency initiatives supporting them (Why? Such knowledge is, after all, the primary purpose behind the all work NASA engineers do). II. Sharing NASA’s vast reservoir of engineering experience, wisdom, and lessons learned (Why? It is imperative to impart this real-world engineering wisdom from seasoned experts to the next generation of NASA engineers). III. Innovatively designing hardware for manufacturability, assembly, and servicing (Why? Engineers should “think outside the box” to develop inventive, creative solutions, while mindfully not increasing program risk and cost).(1) A Better Understanding of What
., Smith, M.J., “Integrated Knowledge Resources for Cross-Disciplinary Learning”.Session D-7, Proceedings of ICEE 2001, the International Conference on Engineering Education,Trondheim, Norway, August 2001. International Network on Engineering Education & Research, 2001. ISBN: 1-588-74-091-9. http://www.ineer.org/Events/ICEE2001/Proceedings/papers/108.pdf8 Komerath, N.M., Knowledge Management Techniques in Experimental Projects. Session 1426,Proceedings of the ASEE Annual Conference, Albuquerque, NM, June 20019 Komerath, N.M., Smith, M.J., “Lessons from a Resource for Learning Across Disciplines”. Chap. 13. In Aung, W.,Hoffman, M., King, R., Ng, W.J., Sanchez Ruiz, L.M., Editors, “INNOVATIONS 2003: World Innovations inEngineering Education
the assigned team and individualprojects on the learning and the teamwork skills. The given statements listed below (1-20) must bejudged using Likert scale. 1. Working on projects has helped me understand better the importance of FEA in engineering design and analysis 2. Working on projects has developed my confidence on FE analysis 3. Working on projects has helped me in learning and understanding the calculation steps of FEM 4. Working on projects has helped me in mastering ANSYS as a tool for engineering analysis 5. Generally, project-based learning is the preferred method to study Finite Element Analysis 6. The traditional learning method with class instruction followed by homework and exams should not be used
simulation to achievesystem-level responses for modern performance-based design. As shown in Figure 1, the criticaland/or complex components of a structural system that may be difficult to model numerically arebuilt as physical specimens and tested as the experimental substructures. The rest of thestructural system, which is generally simple to model and analyze, is analytically modeled as thenumerical substructure. RTHS therefore has attracted considerable research interests in the lasttwo decades [2-3]. One of recent advances is the development of structural property dependentintegration algorithms and their application to RTHS. Explicit integration algorithms are oftenpreferred than implicit ones to avoid back and forth actuator movements
level and accuracy of technical description that the students present, inaddition to guiding student’s inquiries into their topic. An assignment earlier in the semester thatinvolves researching and writing about the science and engineering behind an idea, product, orprocess provides the experience for navigating academic work and more applied treatments oftheir subject matter. Frequent meetings with the research teams is useful for monitoring studentunderstanding of their topic and for directing them towards resources.Figure 1 below reflects student’s perspectives as they begin their research. At this point,students have looked at the Grand Challenges website which identifies the challenge andpotential technological remedies. Students have not
. Over 80% ofthe energy used worldwide comes from the finite nonrenewable sources and this is supposed toincrease significantly in coming years. According to U.S. Energy Information Administration'sInternational Energy Outlook 2017, world’s energy consumption is expected to increase by 48%between year 2015 and 2040.A fluid power system [1] transforms available form of energy to mechanical energy through theuse of a fluid media. It also deals with transmission and control of forces and motion using apressurized fluid. In general, a fluid power system, specifically hydraulics system is a cost-effective solution of problems requiring high power density and large reversible force or torque inan application. It is also easy to control and can be
span. The lift or the thrust produced bythe propeller is proportional to the square of the speed. It varies linearly with all the otherparameters of interest. The variable pitch propeller is used in small single engine general aviationaircraft and in large turbo prop heavy lift aircraft. To help students study and understand theseconcepts, the apparatus was designed where the propeller was mounted on a truck bed that rollsover a platform. The truck bed was attached with a stationary digital force measurement scale.As the thrust increases, the truck bed moves and the amount of thrust being produced by thepropellers is measured using the scale. The conceptual design is shown in Figure 1
. At thisinstitution, 32 credit hours of general education are required, not including the math and sciencerequirements which are already covered by ABET. This is above the national average forengineering programs which is 26.7 hours7. The joint nature of the engineering programsrequires each student to take 16 to 18 credit hours via ITV from the partner institution. These 3constraining factors account for approximately 110 to 112 credit hours of the engineeringprograms. With each of the programs requiring just over 130 credit hours, this providesapproximately 8 courses in which technical electives, advanced topics, and capstone courses canbe delivered. So while it has been shown that cross disciplinary projects can be very effective,proper
an intensive five-week program which focuses ondevelopment of both technical competences and professional communication skills. Students inthe program cohort are grouped in small teams and paired with faculty researchers in a variety ofdisciplines. While each team works on their individual projects the entire cohort meets regularlyto work together to develop the professional and presentation skills necessary to explain theirresearch to a wide audience.Description of student researchersThe students participating in the AC2 summer research program were selected from our campusand several community colleges through a competitive application process. They were providedwith the opportunity to identify projects of interest, but the final placement
, finalizing the besttechnical solution, and presenting the technical solutions to the sponsors [1-2]. The problemsolver must have the abilities and skills to identify, analyze, and solve problems practically andeffectively. These skills are valuable and critical in both academic and real-world settings.Developing these problem-solving skills in the early STEM stage, like high school, offersnumerous benefits to the students. It not only boosts their critical thinking, logical, and analyticalmindsets but also encourages innovative and creative thinking to help generate shining ideasfrom various perspectives. In addition, problem-solving progress cultivated the grit andperseverance of the students under challenging circumstances.BackgroundThe difference
presented a research poster (Figure 1). They received very positivefeedback not only for their project, but for their presentation skills and enthusiasm. Page 22.179.4 Figure 1: Team Nursing poster presented at Ohio Northern University Undergraduate Research SymposiumFinal Report:The technical description of the team‟s accomplishments was presented to engineering andnursing in a technical report. This report details the results of the two design implementationsand a brief conclusion from the perspective of the group. The report is presented below
helps GFA student prepare her rocket Each was divided into two sessions so for the launch competition.that the first workshop took place overthe first two visits and the second occurred during the latter half of the semester (see Figure 3).All workshops began with a brief lecture introducing students to the relevant theory and itsapplications.1) Rocket Design and Building Workshops I and II (February, March, 2009) Teams of two students calculated the performance (thrust, altitude and flight time) and main geometrical parameters of a rocket using NASA’s Rocket Modeler software. They next used these parameters to design and build water bottle rockets from 2-liter soda bottles. The final event of the workshop was a launch competition
is a frequently used technique. This can take many forms including: • Exam questions (Have students generate 5 exam questions based on the material for that day/week) • Student-led discussions (Have 1-2 students in each class come prepared with 2-3 discussion questions and lead the class in a discussion based on the material for that day/week) • Student-led classroom activities (Have 1-2 students come to class prepared to lead their classmates in a 30-minute activity that demonstrates the material covered that day/week). 6. Debates – Students divided into groups are given two opposite sides of an issue and allowed to make
with initialprototypes for the technology and discussing technical specifications with the group.Throughout the course, student groups gave presentations to the class, and at the end of thequarter a poster fair and demo session was held for the general public.Spring QuarterIn spring quarter, CSE students enrolled in a five credit capstone and were partnered with HCDEstudents who signed up for two credits of directed research. CSE students built robust prototypeimplementations of the designs developed in winter, and HCDE students helped evaluate theprototype through user testing. Throughout the quarter, student groups presented their ideas tothe class and to panels of experts in formal presentations, poster sessions, and written reports.There