community of a small campus. Localized versions of all the standard student servicesand support programs representative of a functional institution of higher learning are located on-site, guaranteeing not only access, but also services geared toward specific needs of thisparticular college population. The K-State at Salina is comprised of three academic departments--Aviation, Arts Sciences and Business, and Engineering Technology--as well as library faculty,and the Division of Continuing Education. The Department of Engineering Technology providesstudents with a choice of enrolling in either an associate or baccalaureate degree program. Thedepartment offers associate of technology degrees in Construction Engineering Technology,Computer Systems
between the communitycollege, university and industry partners, a non-profit organization, and social scientistsattempts to more fully understand how to implement, assess, and expand computing pathwaysfor a diverse group of students, especially in the CC context.One of the primary objectives for the project was to develop and implement an interdisciplinaryAI certificate, which was completed at the HSCC. As the program matured, two college creditcertificates were developed. The first certificate is the AI Awareness Certificate, where studentshad to take both the AI Thinking and AI Ethics course, and choose either an AI Business classor AI Robotics course. The Artificial Intelligence Practitioner certificate shares the AI thinkingand ethics courses
increasing numbers and “a clear need andcall for critical global competencies, they remain lacking in college graduates and the workforce[11].” At the same time, study abroad programs are trending shorter. At the writing of this paper,64.9 % of students enroll in study abroad programs shorter than 8 weeks in duration [10].Historically, an entire semester abroad had been the convention for decades. This invites thequestion of whether and how practitioners can develop these requisite global competencies asshorter sojourns abroad undergird the paradigm.The extent to which participants acquire global competency during study abroad continues toelude researchers despite their best efforts. Assessment is a multidimensional challenge,complicated by limited
and resources [6].Low parental expectations and little social support due to the lack of college-going culture in ruralcommunities can impact student interest and opportunity in STEM engagement [1, 2, 7]. Ruralstudents often lack exposure and opportunities for STEM exposure during K-12, which can impacttheir motivation and readiness for STEM majors and careers. [8, 1, 2, 9]. In addition, rural studentsoften have difficulty transitioning to a more urban setting where universities and researchinstitutions are typically located [10]. Many of the same situations related to student achievementexist in both urban schools in large cities and rural area schools, however, urban schools typicallyhave significantly more aid for educational programs than
student learning.9 As far back as 1996, a classroomcommunication system called Classtalk was employed in large undergraduate physics classes inorder to facilitate the presentation of questions for small group work.10 Dufresene et al. foundClasstalk to be a useful tool not only for engaging students in active learning during the lecturehour, but also for enhancing overall communication within the classroom.10 Lopez-Herrejon andSchulman report on the use of CPS in a computer science programming class.11 They do notreport performance or student preference data, but instead focus on several examples where thefeedback from CPS provided real-time insight to the instructor about student learning andinfluenced the content or the teaching methodology in
information is known about ET graduates and even less has been written about theacademic pathway of these graduates [6]. Conventional wisdom attributes high attrition fromengineering to other disciplines an unavoidable cost of under-prepared or unmotivated studentsentering engineering degree programs. As noted by [2] and others, not all those who exit theengineering discipline do so primarily because of low academic performance.Several researchers have examined the career pathways of students who have left engineeringand found success in other STEM disciplines [8, 9, 10] but largely absent from the publishedliterature is specific information on students who transfer from engineering into ET. Ortiz andSriraman [1] explored faculty perceptions on why
(sample pictures are shown in Figure 1). Data was collected focused on both conceptual andanalytical knowledge as well as problem-solving skills. The conceptual and analytical knowledgeis assessed through student’s understanding of manufacturing topics. Some key conceptsconsidered in the manufacturing games are included in Table 1. Table 1. Some key manufacturing related concepts considered in the simulation games. Concept Definition Mass Production Production of large quantities of identical products. Lead Time The amount of time between receiving an order and the completion and shipment of the order to the customer. Takt Time The available production time divided by the units
preclinical and clinical testing, in order to prepare them to succeed in a regulatory-basedenvironment.This is a case-study based course, where cases range from small in-class examples that facilitateactive student engagement in the material, to large cases that span multiple lessons andincorporate out of class assignments and projects. Cases are selected and presented such thatstudents gain insights into the progression and complexities of “real-life” devices, while learningin vitro and in vivo preclinical evaluation techniques, clinical trial guidelines, FDA processes andrequirements, and overall regulatory constraints.IntroductionFDA regulations are a large part of many facets of life in the medical device industry. In rolesranging from business
.4MITCommitteeontheUseofHumanSubjectApproval,#1310005921The third goal was to create a resource to which they could return during and after thecourse. Again, young professionals----especially ELL---benefit when they have resourcematerial that they can use independently and review as needed.In the Skoltech classroom, the communication instructor used active learning techniquesrather than long lectures. When a student has numerous opportunities—small, large--- toapply concepts, integrating what s/he has learned into what s/he already knows, thestudent’s abilities are displayed, the instructor can support the nascent skills, and studentsapply their skllls rather than stay at the conceptual level (Bean, 2011).As in all WAC/WID pedagogy, feedback on communication organization, style, and
sector consumed 465.6 trillion Btu and ranks at 24thamong the 50 states. This large energy consumption makes manufacturing an attractive sector tofocus on, because a small reduction in energy consumption through utilization of energy efficientequipment and practices could result in significant savings. The report (2001) of the NationalEnergy Policy Development group (NEPD) led by Vice-president Cheney named six industriesthat consume three-quarters of all industrial energy3. They are lumber and paper; chemicals;petroleum refining; primary metals; food processing; and stone, clay, and glass. Improved energyefficiency in these energy-intensive industries yields even larger improvements in overallproductivity, product quality, safety, and pollution
with end-to-endinstruction on the analysis and design steps generally followed in the development of an electricdrive system. An electric drive system includes generation, power electronic drive or powerprocessing unit (PPU), motor, and load components. By end-to-end instruction we mean teachthe student to design an electric drive system, with appropriate understanding of the role thatgeneration and end-use (motor plus load) affects the design of the PPU.This objective correlates well with Accreditation Board for Engineering and Technology(ABET), Accrediting Engineering Programs, criterion 3 (Program Outcomes and Assessment),item (c), which states “Engineering programs must demonstrate that their graduates have anability to design a system
unique approach to green engineering. TheGreen Engineering Program pioneers the use of risk assessment tools beyond just screeningchemicals. The Green Engineering Program applies these tools to the design, retrofit, andoptimization of feedstocks, waste streams, and unit operations in processes and products.The concept of risk assessment takes into consideration the extent of harm a chemical and its usecan pose to the environment. While traditional pollution prevention techniques focused onsimply reducing as much waste as possible by treating all wastes as equal, risk assessmentmethods used in pollution prevention can help quantify the degree of environmental impact forindividual chemicals. With this approach to pollution prevention, engineers
simple task. The secondactivity was to modify an Arduino C program to manipulate a small robotic arm to stack buildingblocks.Robots are often used to automate tasks in industry. Any dangerous, repetitive, and/or boringmotion is a candidate for automation. However, developing good motion-control routines forrobots is generally much more difficult than completing the same tasks ourselves. Picking up,moving, and placing stacking blocks, for example, is a trivial task for most adults, but can bequite challenging to program.Starting from the provided code, students’ task was to accomplish as many of the followingchallenges as they can in the time available. Place the blocks on their respective squares and runthe program to manipulate the blocks as
effectiveness pedagogy inand architectural educational setting. 1degree programs have existed at UDC since the 1968 inception of Washington TechnicalInstitute. It has since expanded from a two-year program to include a Bachelor of Science inArchitecture (BScA) degree program and a graduate degree program offering a Master ofArchitecture (M’Arch) program.The program has many successful graduates including successful lincencures in Architecture.This success rate is in no small part the result of a flexible syllabi and service learning approachthat we have been using.Importance of Flexible Course Syllabi and Service Learning (SL)The importance of flexible course syllabi is proven by offering the students an
Page 22.188.2be solved by citizens possessing a broad knowledge of the issues involved, and cross-talkbetween engineers and their brethren in the humanities is essential to accomplishing this. Unfortunately, the truth is that very few universities require even a single course about thecomposition and function of infrastructure for those not majoring in engineering. This is apuzzle, since the built environment surrounds us in our daily life, simultaneously shaping andexpressing our choices, large and small. Understanding infrastructure, viewed in this way, is notspecialized knowledge but an essential element in building a whole understanding of the way asociety functions and the choices it makes. Infrastructure is not just technical
to minimize self-shading in the future so as to maximize the power output of the array.Since the start of our program, the lab activities have included two graduate students, threesenior projects, two in ME and one in CPE, two international students, three summerundergraduate research students, two ME students doing independent studies and two studentclubs.After laying out below the different modes of student participation we have explored, we willpresent a few of the projects in more detail and assess the perceived value of the students’experiences. Finally, we will present some of the current projects we are supporting through thisprogram, highlighting the multidisciplinary aspects of each one of them.Modes of Student ParticipationSenior
Paper ID #5932Influence of S-STEM Funding: Challenges and SuccessesDr. Mo Ahmadian, Eastern New Mexico University Dr. Mo Ahmadian is a professor of Electronics Engineering Technology at Eastern New Mexico Univer- sity. He also serves as ABET/TAC program evaluator for Electronics and Computer Engineering Tech- nology programs. He received his B.S., M.S., and Ph.D. in Electrical Engineering from the University of Missouri-Columbia. Before starting Ph.D. work, he worked three years as a project engineer. Page 23.745.1
extra credit. They felt it still motivated them but that they could be more creative without the stress of receiving a grade.The Worst Part of the Project In both cases, students felt the worst part was: seeing many designs fail, choosing a design, having such a small heat source, finding time for their groups to meet, and completing the analysis. Specific to Case 1, the students did not like the large weight on performance. Page 22.382.8Student reflection on what they could have done differently Students realized they could have gotten more out of the
Undergraduate Programs and Professor-in-Residence in the De- partment of Chemical and Biomolecular Engineering at the University of Connecticut. He received his B.S. in chemical engineering from Lehigh University in 1998, and his M.S.C.E.P and Ph.D. in chemical engineering from the Massachusetts Institute of Technology in 2000 and 2003, respectively. His primary areas of interest are chemical vapor deposition and engineering pedagogy.Dr. Matthew Cooper, North Carolina State University Dr. Matthew Cooper is a Teaching Associate Professor in the Department of Chemical and Biomolecular Engineering at NC State University where he teaches courses in Material and Energy Balances, Unit Op- erations, Transport Phenomena and
is manager of HM&S IT-Consulting and provides services for Automotive SPiCE, ISO 15504+33000 and CMMI in the role of assessor and instructor. He performed more than 100 process assessments in software development departments for different companies in the finance, insurance, research, automotive, and automation sector. Currently, his main occupation is a consulting project for process improvement for an automobile supplier. On Fridays, he is teaching computer science introductory and programming courses at Joanneum University of Applied Sciences in Graz, Austria. c American Society for Engineering Education, 2019 Investigation of the transition from order to chaos using a numerical
; we included the table assignments on participant nametags. We used the report-out time allotted for small groups to talk about their Data Analysis & concept mapping experience and results to observe commonalities andSession Concept Mapping: differences in group experiences, make connections across ideas, and ensure 12 report out to large that uncommon or divergent ideas were included in the larger discussion groups along with the more common, recurrent themes. This
environment in teacher’s classroom. The response to this program during thefirst quarter was positive from both a student perspective as well as a teacher perspective. Theability to have someone with the necessary technical knowledge to help strengthen the labcomponent of a course is absolutely invaluable especially when time is very limited toindividually work on. The access of a second person in the classroom to assist students workingin small groups provides faster response time to student questions as well as provides multipleapproaches to problem solving which helps student learning.These have been a piloted efforts and sustaining these will require substantial support frominstitution and industry
. The GPSS aims to supportgovernment decision-makers in boosting efficient large-scale intervention strategies andinvestment plans to reduce disaster risks in schools and improve learning environments forchildren.ContextIn the learning experience examined in this paper, two student teams were formed during theWinter 2020 term to collaborate with a professional team from the GPSS of the World Bank todesign a solution aimed at improving baseline data to assess the vulnerability of schoolinfrastructure. Students from an upper-division undergraduate level Human-ComputerInteraction (HCI) course and a graduate-level Artificial Intelligence/Machine Learning (AI/ML)course participated. The AI/ML team developed a back-end automatic structural
University. Dr. Talley teaches courses in the Construction Science and Management Program, and her research focus is in student en- gagement and retention in engineering and engineering technology education. Contact: kgt5@txstate.eduDr. Araceli Martinez Ortiz, Texas State University, San Marcos Araceli Martinez Ortiz, PhD., is Research Associate Professor of Engineering Education in the College of Education at Texas State University. She leads a comprehensive research agenda related to issues of curriculum and instruction in engineering education, motivation and preparation of under served pop- ulations of students and teachers and in assessing the impact of operationalizing culturally responsive teaching in the STEM
to solve the challenges of managing theinteractions of the personal working in the projects. Over the past 2 years, the engineeringtechnology program has provided more than 70 students with exposure to robotics and controltopics. This course provides exciting and compelling educational opportunities for students,offers real-world applications that naturally motivate the need for learning specific technologies,and serves a broader research and development program that utilizes the functional roboticprojects to support externally funded science and technology research projects. The experienceof the authors, as well as the course assessment results, show that this course provides strongstudent motivation for learning, offers comprehensive and
University. His areas of interest are engineering curriculum reform; outcome-based assessment of student’s learning; and leadership and policy. Dr. Haghighi led the development of the vision and the creation of the first department of engineering education and the first graduate degree program in engineering education in the world. Dr. Haghighi was a driving force behind the Engineering Education Research Colloquies which resulted in the development and publication of a research agenda for research in engineering education. Dr. Haghighi has published more than 200 technical papers and has won three national outstanding paper awards. He is a Class 5 ESCO/ACOP Leadership Development Fellow, as well as a CIC
of Science in Computer Networks and Systems (CNS) will serve as the case studyin this paper. Although its concept can be traced to 1991, next fall will mark only the tenth yearof its actual existence at Ferris State University1.A fertile environment…Throughout the 1990’s domestic technology and manufacturing flourished. The explosion oftechnology and the ability to practically realize the most sophisticated applications in affordableproducts created excitement and expectations not only for engineers but also marketers,executives, stock holders and especially consumers. Embedded applications were beingdeveloped by both large and small companies for every industrial, commercial, consumer,medical, and military application. Personal Computer
which programs to utilize during the semester itself, where previously this may nothave been possible. Likewise, virtualization can overcome the problems associated with notenough computers in a classroom or computer lab, since most university students already own aPC and through virtualization can easily operate the needed program without having to install it.Since software is run without being installed, the challenges and irritations associated withinstallation, licensing, and cross-platform non-operability are avoided. Instead, students mustonly configure the small client applet that allows them to connect to the remote server, and arethen able to bring up the program as needed, even if their machine wouldn’t otherwise haveadequate RAM, a
planned but provided useful insights forour analyses. This was presented at FIE in 2013.3A supplement was requested and granted to extend this work to include Civil and Aerospaceengineering. This also included an extension of the grant funding until December 31, 2014. Page 24.1289.2Significant resultsFrom FIE13 Paper “Student Demographics and Outcomes in Electrical and MechanicalEngineering” Using longitudinal data from eleven institutions in the U.S., this study exploresthe persistence of students in the two largest engineering disciplines: Electrical (EE) andMechanical (ME). These programs have large enrollments of students but small
theoretical framework includesthree key elements [6]: “1.Cognitive presence: Understand each student’s situation and ensure that the course materials are selected based on students’ background. 2. Teaching presence: Build a supporting instructor-student connection and ensure that each student would have the same access to the learning materials and sources. 3. Social presence: Build a strong student-to-student connection and ensure that each student could communicate in a trusting and supporting environment” (p.2).Airport Administration CourseAirport Administration is one of the core courses for undergraduate students majoring in theAviation Administration program under the school of Technology at a large southwest stateuniversity