program. The institution must evaluate, advise, and monitor students to determine its success in meeting program objectives. Criterion 2. Program Educational Objectives Each engineering program for which an institution seeks accreditation or reaccreditation must have in place (a) detailed published educational objectives that are consistent with the mission of the institution and these criteria (b) a process based on the needs of the program’s various constituencies in which the objectives are determined and periodically evaluated (c) a curriculum and process that ensures the achievement of these objectives (d) a system of ongoing evaluation that demonstrates achievement of these objectives and
software. It details changes I made in the followingfall semester to create lecture videos using Camtasia, and integrating PowerPoint slides with narrated board-workusing a document camera. The paper concludes with lessons learned, and provides recommendations for thefuture when we return to normal in-person instruction.317 – Numerical Methods is a three semester credit course that, until recently, was a required course for allmechanical engineering students at our university [1]. 317 has been replaced as a required course by 117 –Introduction to Programming for Engineers, and is now an applied elective course. 317 focuses on numericalmethods to (i) solve a system of linear or non-linear equations, (ii) fit a linearized fitting function, (iii
Paper ID #12850Blending Entrepreneurship and Design in an Immersive EnvironmentDr. Bryan O’Neil Boulanger, Ohio Northern University Dr. Boulanger is an Associate Professor of Environmental Engineering in the Department of Civil En- gineering at Ohio Northern University. His academic interests include immersive learning, experiential learning, risk management, and surface chemistry.Prof. Joe Tranquillo, Bucknell University Joe Tranquillo is an Associate Professor of Biomedical and Electrical Engineering at Bucknell University. Joe was the founder and inaugural chair of the Biomedical Engineering Society Undergraduate
. Gargac, “Integrating Entrepreneurial Mind-set into First-Year Engineering Curriculum through Active Learning Exercises,” Association for Engineering Education - Engineering Library Division Papers, 2019.[5] C. Vignola, J. London, R. Ayala and W. Huang, “Cultivating an Entrepreneurial Mindset in an Undergraduate Engineering Statistics Course using Project-based Learning,” 2017 IEEE Frontiers in Education Conference (FIE), Indianapolis, IN, 2017, pp. 1-4.[6] H. Burden, J. Steghöfer and O. Hagvall Svensson, “Facilitating Entrepreneurial Experiences through a Software Engineering Project Course,” 2019 IEEE/ACM 41st International Conference on Software Engineering: Software Engineering Education and Training
fit intoa standards-based science curriculum that is already taught in middle and high school classrooms(physical science, physics, chemistry, and biology). Additional components of the programinclude why students should learn about nanoscale science and engineering (workforcedevelopment) and how it is an interdisciplinary field which helps students understand theinterconnections between the sciences and engineering.IntroductionNanoscale science and engineering (NSE) is viewed by many as the next great technicalrevolution. Evidence for this belief in the U.S. is the establishment of the NationalNanotechnology Initiative (NNI) and the nearly quadrupling of its budget since its inception in2001 from $464 million to nearly $1.8 billion in 20102
encouraged to participate and engage inthe innovation lab to expand their learning experiences from the first semester to senior year. Asstudents move through an innovation and entrepreneurship environment they can increase theirresponsibilities by moving from team member to managing small project teams. Thus, the Centeris designed to foster interdisciplinary, project based, and collaborative activities with internaland/or external constituencies which can bring together cross-curricular interests and projectsthat may occur in three different formats: (1) integral part of the curriculum, (2) extra-curricularprojects among departments and/or subject matter areas, (3) projects focusing on outside
prepare students psychologically for thisin the very first week.Finally, supply chain management is now taught in numerous IEundergraduate programs, usually, as a part of the production or operationsplanning course. It is unclear at this stage if revenue management will alsobecome an integral part of our IE curriculum in the future. It could bemore easily incorporated into a course in marketing or finance than intooperations planning. All the indicators show that the service economy islikely to grow in the future, and therefore it is quite possible that revenuemanagement could earn its place in the core of the IE curriculum in thenext 10 years.References[1] P.P. Belobaba. Application of a probabilistic decision model to airline seat
hasreached a new high.Using research on contextual learners, student retention, and the 21st Century workplace, a newcurriculum has been designed that focuses on an integrated, problem-based approach. Two majorinstructional components are completed: Technology Gateway and the first-year engineeringtechnology core, called the ET Core. Both curriculum components model the workplace throughthe use of industrial-type problems in the curriculum and student and faculty teams in theclassroom. The general education requirements of physics, mathematics and communications aretaught concurrently with technology in the context of solving workplace-related problems. TheET Core consists of eleven courses. The Technology Gateway serves as a pre
challenges existing for wireless sensor networks.Typical ones include the unreliable wireless communication systems, limited power availability,failure of nodes, large- scale deployment.Educational excellence requires exposing students to the current edge of research. To ensure thatstudent projects are along the same trajectory that the industry is moving, educators mustcontinually introduce emerging techniques, practices, and applications into the curriculum. Thefield of wireless sensor networks is growing quickly, and there is an increasing interest inproviding students with a foundation in the area. It is crucial that the emerging field of wirelesssensor networks be integrated into the computer science and engineering curriculums.Undergraduate
Integrating Entrepreneurial Minded Learning in Circuit Analysis and Design CourseThe challenge of integrating EML in engineering curriculum is adding the EML activitieswithout additional workload to the currently packed curriculum. Instead of developing separatecourses in entrepreneurship, CoE plans to integrate EML into numerous engineering courses.Each course will have EML elements to help students grow with KEEN’s “the three Cs”(Curiosity, Connections, Creating Value) [13]. Incorporating EML in different course sequencessuch as analog and digital circuits, electronic design, and communication sequences will providestudents an opportunity to develop an entrepreneurial mindset. EML has already been integratedinto Electronics Design I (EE375
. The paper will begin by outlining the scholar team concept and summarizing first-three-year results. Then, the background, structure and activities of the micro-manufacturing scholar-venture team will be discussed. Integration of exploration and learning will be highlighted. Concluding observations will be offered concerning possible migration of the concept to other interested institutions.A Search for New Learning Methods: During academic year 2004, faculty in the Electricaland Computer Engineering Department of North Dakota State University conducted an intensivestudy of ways and means to enhance the effectiveness of already robust undergraduate programs.Through the expected many iterations and blind alleys, the search led to a concept of
Lisa Gardiner is the K-12 Education Manager at the UCAR Center for Science Education and leads curriculum development and teacher professional development. She holds a B.A. in geology and marine science from Smith College, a Ph.D. in geology from University of Georgia, and an M.F.A. in creative nonfiction writing from Goucher College.Ms. Katya Anna Hafich, University of Colorado Boulder Katya Hafich is the Outreach and Education Coordinator for the NSF-funded AirWaterGas Sustainability Research Network, based at CU Boulder. She holds a B.A. in Latin American Studies and a B.S. in Environmental Science from the University of New Mexico, and an M.A. in Geography from CU Boulder. She currently shares a joint
identifyingopportunities and creating value -the key elements of an entrepreneurial mindset- are now otherhighly valued qualities that employers want to see. Therefore, EM is gaining attraction inengineering education. Literature provides many examples of institution wide efforts aim topromote EM. These efforts are important and necessary in brining attention to EM and exposingstudents to diverse EM experiences. It is equally important to foster EML in individual courses,as EM is not an add-on but rather a way of practicing engineering that addresses the needs ofpeople and society. Hence it should be built into the curriculum. This paper presents a case studythat aims to integrate EM into a junior level engineering statistics course. Statistics is typically
Integrating Engineering Applications into First-Year Calculus in Active, Collaborative, Problem-solving Sections Lisa Schneider, Michael Kelley, Shefford P. Baker Cornell UniversityAbstractIn Fall 2007 Cornell University engineering students who are enrolled in Calculus for Engineers,the first course in the required engineering math sequence, are working together in groups toapply the basic calculus concepts and methods they are learning to solve engineering-relatedproblems. Typically, students would not be introduced to such problems until later in theengineering curriculum. Through this innovation, faculty hope students will a) develop a deeperand more
) © American Society for Engineering Education, 2022 Powered by www.slayte.com Scaffolding reflection across the design curriculum: Triangulating Student, Alumni, and Faculty Perspectives of the Role of Design within an Engineering Science Program1.0 IntroductionHigher education institutions regularly make significant investments to promote a high-qualityundergraduate experience [1]. Curriculum design in higher education is localized, andstandardization of higher education curricula mainly targets meeting specific accreditationbodies' requirements [2]. As such, little relational emphasis is placed on how the plannedcurriculum is enacted by instructors and experienced by students
classroom lecture and provide a medium for the instructorto assess what the student has learned. A student who maintains a high level of comprehensionshould be able to return a detailed explanation of the material to the instructor. The integration offormal writing tasks within the engineering curriculum thus provides an excellent opportunity toimprove student abilities to communicate specialized information effectively. Equally beneficial,such integration simultaneously becomes a tool for teaching and learning and for meeting theexpectations of accreditation boards and employers.III. Assignment Objectives and the Selection of TopicsThe key element of implementing a successful writing assignment for any course is to specifyfocused objectives
, amenability to visualdemonstrations, remotely operated laboratory activities integrated with well-developed lecturesoffers excellent means for attracting students to engineering and engineering technology[2].Thermodynamics and Heat Transfer course is a three hour-credit junior to senior undergraduatecore curriculum course designed for all ET students.This course was developed as being writing intensive but also one of the main precursors ofCapstone project, having embedded in its curricula a final student-led team project that has itsmain outcome a working prototype of a thermo-fluid system. While the pre-requisites for thiscourse do not include traditional senior courses for mechanical engineering technology such asfluid mechanics (only Fluid Power
AC 2010-1837: INTEGRATION AND REINFORCEMENT OF MECHANICALENGINEERING SKILLS BEGINNING IN THE FIRST-YEAR DESIGNEXPERIENCEDebra Mascaro, University of Utah Debra J. Mascaro is the Director of Undergraduate Studies in Mechanical Engineering at the University of Utah. She holds a B.A. in Physics from Gustavus Adolphus College in St. Peter, MN and a Ph.D. in Materials Science and Engineering from the Massachusetts Institute of Technology. She teaches freshman design and senior-/graduate-level classes in microscale engineering and organic electronics.Stacy Bamberg, University of Utah Stacy J. Morris Bamberg is an assistant professor of Mechanical Engineering at the University of Utah. She
to deepen and broaden her knowledge of a key application domain for information systems. She has taught both online and hybrid courses and is interested in enhancing the quality of online learning experiences.Cheryl Willis, University of Houston Cheryl Willis is an Associate Professor of Information Systems Technology at the University of Houston. She received her Ph.D. in Curriculum and Instruction from the University of Florida. Her teaching focus is primarily on applications development and database management. Her research interests include curriculum revision processes for career and technology programs; service learning in information technology undergraduate programs and the use of
,designers, and lawyers. These professionals were invited in March of 2016 to participate in aday-long workshop to discuss the program in Indianapolis, Indiana. During that time,participants were given an overview of the major ideas for the program, were asked to provideinput regarding employability of this future DCI graduate, and participated in break-out sessionsto discuss curriculum priorities. For potential professional placement of DCI graduates,workshop participants validated the list previously elaborated by organizers, which includedpositions in the following areas: • Design/Build Manager • Owner’s Representative • Developer Representative • Business Developer • Design Manager • Program Manager • Finance or
by requiring students to take an existing security course from another program (i.e.Computer Science, MIS, etc.). It could be accomplished by adding a new course to the curriculumspecifically to address security. With any of these methods, however, it should be visible to the publichow the program integrated security through catalog entries.Many factors potentially would impact this decision. In some cases, there are several shared courseswith an associated computer science program. The CAC ABET criteria for Computer Science was revisedin 2019 [14] to specifically call out the that the curriculum must include “Principles and practices forsecure computing.” In these cases, a single shared course for both software engineers and computerscience
., problem-based engineering design challenges that require the use and development ofscience and mathematics content can serve as models for integrated STEM activities. STEMintegration means that the disciplines of science, technology, engineering, and mathematics aremeaningfully combined to create cohesive units to deepen students’ understanding of eachdiscipline17. STEM integration is an interdisciplinary curriculum approach allowing for themarriage of the four disciplines18.Argumentation in EducationArguments are an integral part of being human and are found within our daily lives19. Whilechildren do have basic argumentation skills, they can be improved with age and practice12. Assuch, it becomes the responsibility of teachers to offer
of RHIT's sustainability education. Such an evaluation willshed light on the institution's progress, strengths, and areas for improvement in meeting itsoverarching mission and vision with respect to sustainability education.This report aims to comprehensively explore RHIT's sustainability education, examining itsinitiatives, curriculum, and integration of sustainability principles across various disciplines. Bydelving into the sustainable practices and educational approaches employed by the institute, wecan better understand how RHIT is cultivating a generation of engineers and scientists whopossess the knowledge and skills needed to define and solve the multifaceted problems of ourcomplex global society.Following the assessment of the
scholarship, funded by an NSF S-STEM grant, which is renewable for up to three years. The multidisciplinary cohort of scholarsparticipates in a weekly mentoring seminar, an annual retreat of 1-2.5 days, and up to three extra-curricular activities on campus.The multidisciplinary nature of the program extends to the program administrators as well. Eachyear, four or five faculty serve as curriculum designers, seminar leaders, and mentors to thestudents. The faculty mentors have represented biology, computer science, computer informationscience, engineering, engineering technology and math. In addition to the faculty, a graduateassistant from the Department of Experiential Education helps coordinate the seminar and otheractivities.Over the past eight
Aviv.While engaging university and high-school students from a wide geographical area, the contesthas provided an ideal medium for introducing under-represented female and minority Hartford-area high-school teams to the field of engineering. Through the United Technologies TrinityCollege Engineering Initiative (UTCEI) high-school student have worked on research teams thatinclude Trinity faculty and undergraduates. A significant number of high-school students havedeveloped fire-fighting robots and have participated in the TCF2HRC [8].Given this increased popularity of robot competitions in engineering education, it is appropriateto evaluate the integration of the contest in the curriculum and to carry out an authenticassessment of the learning
Innovation and Organizational Sustainability: An Addition to the Engineering Management Curriculum?Abstract and IntroductionThe Baldrige National Performance Excellence Criteria (2013 -2014) 1 places increased emphasison organizational sustainability in terms of societal, environmental, and financial impacts; andinnovation as a discontinuous change in engineering designs and/or business models. Suchconcepts may become important considerations for engineering managers in today’s globalmarketplace. Engineering management educators may become a major player in transformingcompliance with performance specifications into an enhanced competitive business advantage byoffering a total systems approach to managing innovation while ensuring the
it in the post-lecture survey that was not an expected result.The answers to fourth questions indicate that the students improved their knowledge aboutthe differentiation of product marketing vs. service marketing. Even though the resultsindicate that the change in their opinion was in a positive direction and it was significant atp ≤ 0.05 level, there were quite a few students still considering that the both types ofmarketing are likely similar. It may be possible to improve the results by allocating moreclass sessions of business development topic.Summary and ConclusionsThis study covered the integration of business development topic to a Project Managementcourse. In order to assess students’ learning, the survey questionnaires were
interdisciplinary in nature8. The NationalScience Board2 has criticized currently available curricular material as follows, “Few[curriculum materials] introduce real-world interdisciplinary problems and serve as thefoundation for advanced placement courses, school-to-work transition courses, or the challengesof a liberal arts college education. Most innovative science curricula, for instance, seekcoherence, integration, and movement from concrete ideas to abstract concepts9.” These sameconcerns are echoed in the literature that addresses mathematics education.Each of the projects that are discussed in this paper are based on the philosophy that mathematicsand science are related subjects that should be taught through hands-on experiences. The
an educative technique to aidstudents in assigning meaning to experiences. Educators have the unique opportunity to take anactive role in helping to facilitate reflection through many activities. Activities that support Page 26.1196.2reflection are diverse in nature and purpose in the classroom, but can be achieved by usingassorted methods including portfolios, reflective essays, journals, and other activities.5Many fields have investigated reflection as an integral part of their approaches to both their workand educative practices such as health sciences and human-computer interaction (HCI).6,7 Morerecently in engineering education
education, “knowledge is a gift bestowedby those who consider themselves knowledgeable upon those whom they consider to knownothing.”4 The lecture-only model, still very common in engineering education, typifies Freire’sdescription. Common to national reports on engineering education in the 1930s, 40s, 50s, 80s and 90sare, among other things, calls for emphasizing communications and social skills, integrating theliberal arts, particularly social sciences, into the curriculum, incorporating good teaching andcontinued curricular development, and instilling in students an appreciation for life-long learning.9ABET’s Criteria 200010 emphasizes these elements, providing the strongest impetus to date forreform. Liberative pedagogies are well