approaches to a broader audience.Dr. Edwin van Hassel, University of Antwerp Edwin van Hassel is an assistant professor at the Faculty of Transport and Regional economics, Antwerp University where he is also teaching three courses. He has an engineering degree in naval architecture and he has a PhD in applied economics. His main research interest and expertise is in inland navigation, port hinterland transport, ship design and transport modelling. He holds a PhD with a topic in the field of inland waterway transport. More recently the scope of his work has been extended to maritime cost chain modelling. He also is involved in several research ranging from logistics projects to infrastructure cost benefit analysis and
redundant array of independent disks (RAID) controllers. His research interests include engineering education, robotics, and literate programming. c American Society for Engineering Education, 2019 A framework for automatically verifying students’ assembly-language translations of C functions1. AbstractAssembly language instruction represents a core required skill for many computer science andelectrical and computer engineering curriculums. A common approach in assembly languagepedagogy involves teaching students to translate from C to assembly. Unfortunately, the typicalapproach to verifying the correctness of these translations lacks rigor. This paper presents a com
report survey information on learningoutcomes from individual courses. This work includes tracking relationships of these courseoutcomes to departmental and program outcomes in the support of continuous qualityimprovement. The paper describes the design of the web-based course-exit survey and the datacollection and analysis processes supported by the tool.IntroductionThe Department of Electrical and Computer Engineering at Gannon University has developed aweb-based course-exit survey in support of its EC2000 evaluation efforts. The department hasrecently completed a major effort in restructuring and refining its departmental goals andobjectives, catalog, and operations in preparation for its next ABET visitation using EC2000criteria [1]. This
simulation results.Past research projects, such as the work from the professors of engineering in San FranciscoState published in 2012 which develop a probabilistic approach for reliability assessment of real-time hybrid simulation results2 especially when the true structural response is not available. Alinear elastic single-degree-of-freedom structure is used to determine the statistical distributionof actuator delay values corresponding to certain accuracy3. Nonlinear structural behavior isconsidered through the Bouc-Wen model4. The Bouc-Wen model is used in modeling thehysteresis phenomenon in the dynamically excited nonlinear structures it is used to help further Proceedings of the 2014 American Society for Engineering Education Zone IV
to uti-lize their prior pedagogical knowledge and experiences to create integrated curricular modules.The approach of integrating computing concepts into existing instruction through authentic educatorexperiences and creation-focused pedagogy, fostered by educators has been established in the literaturethrough NSF-supported work (Borowczak and Burrows 2018; Burrows et al. 2021; 2018).As an educational community, and especially in science and engineering education, we understand thatexposure to authentic advanced topics serves as one mechanism for students, educators, and our commu-nities to gain interest, knowledge, and entry into available high-demand and high-paying STEM occupa-tions (Labor Statistics 2018). However, for educators to adopt
. (2002). Efficacy of interactive internet-based education in structural timber design, Journal of Engineering Education, 91(4), pp.371-387.[8] Cooper, M. (2005). Remote laboratories in teaching and learning – issues impinging on widespread adoption in science and engineering education, International Journal of Online Engineering, 1(1), pp.1-7.[9] Swearengen, J. C., Barnes, S., Coe, S., Reinhardt, C., and Subramanian, K. (2002). Globalization and the undergraduate manufacturing engineering curriculum, Journal of Engineering Education, April, pp.255-261.[10] Burgess, L. A. (2003). WebCT as an E-learning tool: A study of technology students’ perceptions, Journal of Technology Education, 15(1).[11] Esche, S. K. (2001). Remote
. Page 26.231.2In 2011, Karimi et al. investigated the effects of solution manuals on student learning bycomparing grade distributions in thermodynamics courses. They reported that the percentage ofstudents who earn lower grades (D, F, and W) in thermodynamics courses increases whenstudents have access to solution manuals6.Though there are a number of reports concerning negative effects of solution manuals on studentlearning, there are few reports which emphasize the positive effects. For example, Georgievaproposed a new method of teaching undergraduate mathematics in which the students areallowed free access to the complete solution manual7. The philosophy behind this approach isthat homework should be used as an opportunity for students to
, especially those who commute or live off-campus. The creation of study groups isencouraged, as well as supervision of students to ensure completion homework [7]. Within theselearning-centers, effective retention initiatives that supported student diversity in learning thatmay require different approaches to college teaching, even in math and sciences [10]. Preliminary evaluations of students found that while most students prefer the new approaches tolearning, women and some minority students demonstrated differences in preferred learningstyles as assessed by the Myers-Briggs Inventory [5]. Additionally, when considering theexternal obstacles and characteristics of NT students, it cannot be assumed that students arelargely isolated from worldly
Paul andElder model of critical thinking specifically, the University of Louisville adopted it specificallyas the core of their Quality Enhancement Plan for undergraduate education, e.g. [10] As far aswe have determined, the present work is the first to apply the Paul & Elder approach to theteaching of critical reading and writing to engineering graduate students.The Course 1/Course 2 sequence was originally implemented in the University of South CarolinaCollege of Engineering and Computing (CEC) as part of the graduate curriculum in BiomedicalEngineering, which was established in 2008. Since that time, the courses have evolved into theircurrent form and have been taken by students in all CEC PhD-granting programs. The CT modelis, of
technologies.It becomes more and more vital as people spend more and more time connected to the networkfrom anywhere anytime. Many areas of wireless networks demand highly trained personnel tosolve the new challenges such as site survey, wireless security, etc. There is a great demand oftechnicians and engineers who can maintain and secure the wireless networked environment.While electrical and computer engineering and computer science curriculums offer students fewwireless networking courses; this may not enough to train network professionals with the properbackground on the newer wireless technologies. Although many courses on computer andwireless networks have been developed in these programs, they are primarily focused on in-depth mathematics
. American c Society for Engineering Education, 2021 Examining the Changing Perceptions of Graduate Students’ Role as Teaching Assistant with Online and Hybrid Labs during COVID-19” (Instruction)Abstract The transition from traditionally face-to-face “in-person” courses to hybrid/onlinelaboratory courses as a result of the COVID-19 pandemic has fundamentally altered how theselabs are delivered in the mechanical engineering curriculum at Clemson University. This paperseeks to capture the graduates’ and undergraduates’ changing perceptions of the roles andresponsibilities that graduate laboratory assistants (GLAs) have in the delivery of course materialwithin the
. He is currently interested in engineering design education, engineering education policy, and the philosophy of engineering education.Ms. Brianna Healey Derr, Bucknell University Brianna is an Instructional Technologist specializing in Video at Bucknell University located in Lewis- burg, Pa. She received her certificate in Digital Storytelling in the Spring of 2014 from the University of Colorado Denver in partnership with The Center for Digital Storytelling now called StoryCenter. She partners with faculty to integrate multimodal storytelling into the curriculum and to aid in the discovery of new innovative ways to educate. c American Society for Engineering Education, 2016
primary purposes of an engineering or construction management curriculum is toprepare students to enter the workforce upon graduation, ready to engage in a variety ofresponsibilities as a part of a multidisciplinary team. The transition from student to professionalmust occur quickly – often in as little as four-to-five years. Central to this transformation is thestudent’s ability to translate the theories and principles introduced in the classroom into tangibleskills appropriate to their particular discipline and work effectively with a variety of people frommultiple disciplines. While there are many pedagogical approaches that seek to accomplish thisgoal, project-based learning explicitly presents students with the opportunity to put theory
education applications, research has been presented on the development ofvirtual CNC simulators that can be used in training. These include work by Ong et al.,10 Wang etal.11 and He et al.12. These simulators are developed using building blocks that in most caseshave been created and integrated by the authors. In some cases they provide unique capabilitiessuch as allowing users to measure cutting forces during machining10. However, these papersfocus mostly on describing the development and capabilities of these tools. Little is reported inthese cases on the deployment and impact in the curriculum. Djassemi13 does report on anexperience in developing a hands-on approach to CAD/CAM instruction that does includeverification. While he presents some
subject matter requirements listed in many state sciencestandards. One example from the New York science standards is given below. New York Standard 4-Physical Science. Energy and matter interact through forces that result in changes in motion. Use simple machines made of pulleys and levers to lift objects and describe how each machine transforms the force applied to it1. Page 7.382.1 “Proceedings of the 2002 American Society of Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Education”Concepts of mechanical advantage, particularly force, motion, and
SPECTRE’s broaderscope and the entry situations it creates for new participants. SPECTRE students practiceincremental design in an existing complex system, rather than starting with a clean design slate.The day-to-day level of complexity is greater than most student projects can address. Testingalso becomes more sophisticated and deals with more subtle measurements and interpretationsthan in shorter smaller efforts. Upon entering a legacy project the new team must master quicklytheir predecessors’ technical plans and implementations before they can start their own work.This must be done critically, and may involve immediate testing, because the preceding designscannot always be trusted. Fresh perspectives reveal new problems or new approaches that
Sensor-net Self-Organization and Control (SenSOC) and other next-generation capabilities within a broad rangeof potentially unanticipated operational contexts”9 which aids improved mission planning andrehearsal.9-10 Modeling and simulation environments such as AUV Workbench present engagingPBL opportunities to introduce students to interactive simulations based on vehicle test data andphysics based models thereby supporting science and technology research and education.The Introduction to Electrical Engineering course at Texas A&M University-Kingsville wasrecently replaced by a new freshman seminar course. Under the new course format, studentshave less time in the lab, as the new structure has two contact hours in the lab/class versus
audio for courses or limit their use of two-wayinteraction to informational sessions or small group interaction. Further, we found thatspecifically engineering-related courses available in a distance format seem to be limited to lowlevel math or computer science courses or engineering courses that do not have a lab component.Our conversations indicated that a) each school must consider what is best for its constituenciesand b) that interactive distance learning is gaining traction, but must be approached carefully,including careful coordination with administration and supporting departments.Our approach uses web conferencing software (Adobe Connect) as the primary course deliverymode for remote students, but remote students do come to our
Paper ID #37433VEX V5 Workcell: Industrial Robotic Arm Model for STEMEducation (Other)Arif Sirinterlikci Arif Sirinterlikci is a university professor of industrial and manufacturing engineering at Robert Morris University. His teaching and research interests lie in manufacturing engineering, specifically in industrial automation and robotics, CAD/CAE/CAM, 3D scanning and printing, medical manufacturing, and entertainment technology. In addition, he has recently developed courses in different areas of Industry 4.0 including Industrial Internet of Things (IIoT) and Mixed Reality (MR) for Industry.Jason
majorgoal of American democracy. Present day action towards that goal is the National ScienceFoundation (NSF) Scholarships in Science Technology Engineering and Math (S-STEM)program. Each year, new student success programs guided by educational theory and evidence-based practices are funded and developed to provide critical support to low-incomepostsecondary students in STEM. The Endeavour Program at the University of Houston is one ofthose programs. In the fall of 2018, Endeavour recruited its first cohort of STEM freshmen.Since then, two cohorts have completed the two-year program with the third set to complete theprogram in spring 2023. This paper presents data for what would have been the 3rd-year mark ofthe program. However, due to two program
need to develop a global awareness and theability to operate effectively in different cultural settings; settings where members potentiallyfrom various countries and regions with different traditions of work and personal relationswill endeavor to effectively collaborate. For undergraduate institutions and specificallySchools of Engineering, Design and Technology intending to respond to the challenges ofthese increasingly important global contexts, a key emerging question is how best to preparestudents for such settings while continuing also with engineering fundamentals and theincreasingly complex technological subject matter.Clearly there can be several approaches to develop students for multi-disciplinary,international collaboration settings
, this approach has a low time-cost. By usingthe two simple rules presented in Section 2.1 to guide the process, we address the finding thatstudents succeed best in teamwork when there are specific instructions about listening,leadership, consensus building and conflict resolution [7,12].Even though collaborative learning has been supported by the National Science Foundation andrecommended by the education community, it is still not widely practiced in engineering Proceedings of the 2010 ASEE North Midwest Sectional Conference.classrooms [13]. When implementing active learning, faculty sometimes find it difficult to giveup their role as controllers of knowledge [2]. However, giving an exam is an expected part ofboth
) coursetitled “Managing Riverine and Coastal Floods for Resilient Communities”. Students enrolled inthe CRC course completed an in-depth analysis of the challenges faced in a coastal communityin western Puerto Rico and proposed solutions to mitigate the impact of flooding.2. RISE-UP ProjectThe Resilient Infrastructure and Sustainability Education – Undergraduate Program (RISE-UP)is a collaborative project funded by the HIS division of The National Science Foundation. Theprogram's goal is to develop an interdisciplinary curriculum among three campuses at TheUniversity of Puerto Rico. The new curricular endeavor prepares students to designinfrastructure that can withstand the impact of natural events.[5]. One of the program’s broaderimpacts is to benefit
. Ray, (1992), Robotics and Manufacturing Automation, John Wiley & Sons, Inc. New York, NY.[3] Hsieh, S. and Hsieh, P.Y., “Web-based Modules for Programmable Logic Controller Education,” Computer Applications in Engineering Education, 13(4), Dec 2005, pp. 266- 279.[4] Hsieh, S. and Hsieh, P.Y., “An Integrated Virtual Learning System for Programmable Logic Controller,” Journal of Engineering Education, 93(2), April, 2004.[5] Hsieh, S. and Hsieh, P.Y., “Animations and Intelligent Tutoring Systems for Programmable Logic Controller Education,” International Journal of Engineering Education, 19(2), 2003.[6] Hsieh, S., “Reconfigurable and Scalable Automated Systems Projects for Manufacturing Automation and Control Education
school and they are uncertain of how to approach something like a calculus or chemistrytextbook. As the majority of our students are intending to major in engineering (or anotherSTEM field), technical reading is a necessary skill, as evidenced by ABET General Criterion 3(i), which calls for programs to develop in students “a recognition of the need for, and an abilityto engage in life-long learning” (ABET 2016).Much of the existing literature on student reading abilities in mathematics is a direct result of thework of Dr. Mary D. Shepherd. Shepherd has published extensively on reading skills and therole of reading in college algebra and calculus classes. Her work discusses methods of guidingstudents through reading a mathematics textbook
segments of meaningful problems. 12An important result of, our initial experience with this approach is that it has high potential forkeeping the interest and engagement of alumni. Alumni are interested in the continuing work onthe progressive project with which they have been involved.We expect to make many adjustments as we learn more about how to pass progressive projectsacross several groups of students, but our early results are promising.Bibliography1 “The Engineer of 2020: Visions of Engineering in the New Century,” National Academy of Engineering,(2004)2 “National Automated Highway System Research Program – A Review”, Transportation Research BoardSpecial Report 253, National Research Council3
softwarearchitecture with the Handy Board, guided by published detailed engineering descriptions onNASA websites12. Response from both teachers and students was enthusiastic: the teachersborrowed a complete Handy Board kit for further testing, and by Spring 1998 had made a majorequipment purchase to equip a lab at their school with Handy Boards and LEGOs, using theirown variants of the Summer 1997 robotics curriculum. This encouraged the formal developmentof a new 10-day summer course, Autonomous Robotics for High School Science Teachers(BIOL 803), that began with 10 participants in Summer 1999. To distinguish this initialtraditional in-person robotics laboratory from the later distance-learning version, which had adifferent name but the same course number
Product Design class in the MechanicalEngineering Technology major at Rochester Institute of Technology utilizes this educationalpractice to supply students with real-world experience. Through this experimental process,multiple benefits are discovered, along with several pitfalls, which will serve to educate studentswho may encounter similar experiences as they progress through their engineering education.This report addresses these benefits and pitfalls as well as proposes methods with which tocombat such problems encountered throughout the process.introductionThe product design curriculum in the Mechanical Engineering Technology major is comprised ofa series of three classes that are intended to walk the students through the entire process from
aresimplistic and don’t require more formal training [14]. Contrastingly, we took the approach thatit is critical for scientists to be thoughtful and intentional throughout the developing and planningprocess with all the stakeholders. Outreach training focused on the mindfulness awarenessproject goals, the cultivation of community partnerships, and engagement of a non-technicalaudience in a science or engineering topic. After several initial informal education workshops,the students were given the opportunity to tailor their outreach projects to align best with theirpersonal interests, given the following broad topics: 1) Deliver a talk to high school studentsabout their undergraduate experience as a science or engineering major, 2) Write a draft
highaltitude, helium filled balloons. The following sections will briefly discuss what balloons can offer to aspace engineering curriculum and describe some of the organizations and bureaucracies with whichthe hopeful ballooner may want to or may have to coordinate. Finally, the Academy’s recentexperience and future plans are presented as an example of one school’s first ever ballooningadventure.Whv Balloons for a Space Experiment? Clearly, a balloon payload at 100,000 feet isn’t “in space” but it is in a harsh environment thatchallenges the student designers to toughen or protect the equipment they plan to send aloft.Atmospheric pressure is reduced by a factor of 75 and the craft is cold soaked for hours at -50 to -70