modified to use the particular strengths available at HMC. An interestingaspect of PEPS has been its use by HMC faculty to conduct pedagogical experiments that havebeen later implemented in the college classroom. The workshop has been examined using formalassessment techniques and instruments and appears to be realizing its stated goals.IntroductionFor the past four years, Harvey Mudd College (HMC) has hosted a workshop for secondaryschool teachers of math and science. The primary purpose of the workshop is to offer theteachers an introduction to elements of engineering design in a way that will encourage them toincorporate engineering design projects into the high school curriculum. The workshop, Partnersin Engineering Problem Solving (PEPS
-improvement processwas implemented to incorporate class dynamics into the teaching/learning process. The coursehas defined learning and teaching objectives within the constraints of a project-oriented course.The major objective of the course is effective integration of hardware and software in designingcomputer controlled processes and/or systems with the aid of sensors, transducers, dataacquisition board, and instrument control.IntroductionThe ability to conduct and design experiments is rated as one of the highest desirable technicalskills of engineering and engineering technology graduates1,2. Specifically, the survey indicatesthat employers want graduates with a working knowledge of data acquisition, analysis andinterpretation; an ability to
knowledge changes, as they shifttheir focus, as their motivation changes, the map should adapt to their needs as a learner. Theideal approach would be to adapt the map according to the individual cognitive load needs thatare specific to each learner.As noted in Section 1, alleviating these limitations through the design of a proper visualizationtool that enables the viewing of a large quantity of information and personalizes informationvisualization according to the learner’s cognitive load needs will help learners integrate conceptsacross an entire course and even a curriculum, thus providing a more cohesive and flexible bodyof knowledge and will help students move towards a more adaptive expertise.3. Proposed Approach: The Adaptive Concept MapTo
. Page 23.157.1 c American Society for Engineering Education, 2013AN EDUCATIONAL SOFTWARE LIFECYCLE MODEL INSPIRED BY HUMAN PHYSIOLOGYAbstractArtificial Intelligence methods are frequently applied to projects of developing systemsendowed with the intellectual processes in humans, such as the ability to reason, discovermeaning, generalize, or learn from past experiences. However, the question remains, Cana man-made design/artifact be considered conscious? This paper aims to establish a directrelationship between the human physiology and Software Engineering, for educationalpurposes. Teaching Software Engineering can be challenging in cases when taught tonon-engineering students. The class curriculum needs
teaching an online graduate Operations Management course.A combination of instructional approaches including active learning, cooperative learning andproblem-based learning were applied in teaching through threaded discussions, BlackboardCollaborate sessions and project etc. In addition, students developed simulation games in theirgroup project to simulate business operations and dynamics. The design of the games not onlyhelped students quickly gain a conceptual background of the real world operations problems, butalso increased the depth of their learning. A rich combination of project work and exposure toengineering practice throughout the curriculum provided excellent vehicles for students todevelop their critical thinking and problem-solving
ethics module in Ethics Seminar course by assessing theimpact of the integrated e-learning module on: 1. knowledge of code(s) of ethics 2. using code(s) of ethics for ethical reasoning 3. conducting ethical reasoning 4. FE exam ethics section preparedness 5. ethical behavioral growthOnline Ethics ModuleThe University of New Haven developed a series of 18 online learning modules as part of their effort todevelop the entrepreneurial mindset of their engineering and computer science students [18]. Theuniversity’s plan is to integrate the modules into core engineering, and applied science courses and doesnot plan to use the modules outside off core classes. Content experts developed the modules with an onlineeducation
and management, legal aspects, construction contract administration, public works, and Renewable Energy. ©American Society for Engineering Education, 2024 Writing skills can be improved using AI tools: An Analysis AbstractAt the college level, there are courses that teach 'Technical Writing' to engineering students atthe undergraduate level. Typically, the writing component in the curriculum presents asignificant challenge for undergraduate students as they work toward graduation. However, withthe introduction of Artificial Intelligence tools for writing, students find it somewhat easier toproduce written content for their courses.Artificial
” can be used to carry out cumbersome calculationsin the background. This synergetic effect enables to highlight the most relevant process synthesisprinciples, while the student is kept away from the mathematical and numerical complexities involvedin the solution of the problem. The case study presented serves to illustrate the effectiveness of aproper combination of programming techniques with conceptual design ideas.I. IntroductionThe use of calculation packages in Chemical Engineering (FLOWTRAN, PROCESS, and TK Solver)has become increasingly popular with technical advances in hardware. The use of these packages,however, is not an integral part of Chemical Engineering curriculum. Furthermore, there is not aconsensus on which program or
hands-on activities, and (7) encouragestudent reflection." With these criteria in mind, we created our curriculum to include thefollowing activities: College Activity Purpose/Description Readiness Skill Area Cognitive Strategies – Critical Thinking In an effort to expose students to the A student’s ability to idea of thinking at a higher level, we develop and apply posed open-ended questions similar to higher level thinking those they may encounter in a college skills such as curiosity, class. In order to respond effectively, analysis, and synthesis
Engineering and Engineering Technology and gives the studentsa more technical program using applications in an energy and environmental curriculum. In thisprogram, the students are instructed in applications used in industry, be it forms of energysavings approaches, new materials and processes, or new sources and needs in the production ofenergy. The Energy and Environmental Systems Technology program will provideundergraduate students with an understanding of the application and needs in areas as well as Page 25.151.5new advances which better the environment and new technologies that utilize green principles,and green transportation topics. The
collaborationand begin to situate the experience of the student-instructor in STEM outreach as an important,but largely unexplored, area of pedagogical interest.Undergraduate engineering students from the State University of New York at Binghamton spentsummers with the Engineering Outreach Office at the University of Toronto to gain insight andexperience into the processes and operations of a long-standing outreach program. Uponreturning to their home institution, the students deployed this knowledge by developing anddelivering curriculum locally. We outline the progress to date and discuss the elements of this‘apprenticeship model’ aimed at developing new outreach programs focused on STEM literacyand engagement. Logistics associated with the
Paper ID #32320The Use of Virtual Design Modules in an Introduction to EngineeringCourse: Impact on Learning Outcomes and Engineering IdentityDr. Shannon Barker, University of Virginia Dr. Shannon Barker completed her PhD at the University of Alabama at Birmingham, and completed two post-doctoral fellowships at the University of Washington and Ecole Polytechnique Federale de Lau- sanne, specializing in gene delivery. Shannon has been in graduate higher education leadership for seven years both at the Georgia Institute of Technology and the University of Virginia, and is currently the Undergraduate Program Director for the
web server through either the Internet or a corporate intranet.We will discuss the feasibility of training an engineering student to be prepared for thedesign and implementation of web-based commercial/industrial applications bypresenting the curriculum development plan in the next section.B.2 Development planA course with a lab will be offered in the coming summer semester. The course has threecredits, two for lecture and one for lab experimentation. The lab portion of the courseconsists of seven experiments and a project. Each experiment requires approximatelytwo weeks of lab time. Students need to do some preparation before the lab and write areport upon completion of the lab.In terms of the lecture material, the course will address the
, the exoskeleton is emerging from imagination to the real worldnowadays with the advancing of key enabling technologies, and gradually found its role in manyapplications in medical, civilian and military. Moreover, an exoskeleton is an integration of manytechnologies spanning multiple engineering disciplinary. With this inspiration, we organized an © American Society for Engineering Education, 2017 2017 ASEE Conferenceundergraduate student team to work on the exoskeleton suit development. The suit is a student-centered multifunctional platform that enables students in practicing diversified engineeringdesign and explore innovative technologies. Through the development of the
introduction of constructive competition provides an additionalelement of motivation, as it enhances realism and amplifies student ideas.IntroductionThis paper reports initial findings from taking existing video game design techniques and Page 15.229.3processes and integrating them into the wireless communication engineering curriculum. Usinggames to teach and inform has been the subject of many studies, due to the engaging nature andapparent concentration of playing games in order to achieve goals and entertain1. This projectoriginated in the desire to enhance learning in the Wireless Communications Masters (WCM)degree program at National University
features of virtual, collaborative engineering environments, state-of-the-artsimulation tools, and advanced learning management systems. An integral part of this projectinvolves the development and teaching of a new, two-semester senior level design course that isoffered synchronously at both institutions and which emphasizes teamwork, collaboration at adistance and multidisciplinary activities. One long-term goal of the project is that the courseprovides the context for feedback on the nature of virtual interactions, and therefore on how toimprove the AIDE. In addition, we aim to study whether multifaceted instructional methods thatleverage emerging information technologies can enhance student learning on fundamentaltechnologies, systems-level
.— ..-. . CONCLUSION The AIMS program and AIMS chemistry course did impact the persistence of students in the School ofEngineering and their success in the first chemistry course. Nevertheless, we hoped that the impact would begreater and longer lasting. Both the declining enthusiasm of the students and a judgment that the modestimprovement in student performance may not be worth the large expenditure of limited human resources led tothe cessation of the program after the Fall 94 Quarter. Mercer University will convert from the quarter system to the semester system in the Fall of 1997, andthe School of Engineering is using the change in academic calendar as an opportunity to implement a modernand integrated engineering curriculum. We plan to
. 2 AbstractIn response to the need for a diverse, highly skilled STEM workforce that can workcollaboratively and communicate effectively, colleges of engineering have developed diversity-focused recruitment, retention, and outreach efforts. Many programs have also begun toemphasize technical communication skills. A national organization that integrates these prioritiesis the Engineering Ambassadors Network (EAN), which trains undergraduates to raise awarenessof what engineers do and how they contribute to society. Typical ambassador activities includethe delivery of a presentation and a hands-on activity to middle or high school students.Currently, there are an estimated 634 EAs in the United States
Edition), McGraw-Hill, NY, 2004.3. W.D. Callister, Materials Science and Engineering : An Introduction, (7th Edition), J. Wiley & Sons, NY 2006.4. Gr. Stephanopoulos, “Invited comment: Chemical and Biological Engineering,” Chemical Engineering Science 58 (2003) 4931 – 49335. R.C. Armstrong, Curriculum Revitalization in Chemical Engineering, 24th Annual Meeting of the Council for Chemical Research (CCR), 2002.6. K.J. Bundy, Fundamentals of Biomaterials : Science and Applications, Springer, 2006.7. A. Cottrell, An Introduction to Metallurgy, Institute of Materials, 1995.8. J.R. Fried, Polymer Science & Technology, 2nd edition, Prentice Hall, Upper Saddle River, NJ, 2003.9
redesigned a project in an introductory bioengineering course to explore stress managementtechniques through physiology, biosensors, and design. The project allows students to developdesign skills and to explore the impact of wellness practices on human physiology. Assessmentof the curricular redesign will be measured by student evaluations of the offering and theirwillingness to engage in the mindfulness portion of the course. The COVID-19 pandemic hasemphasized the need to focus on student wellbeing in addition to physical health. Integration ofwellness into the core curriculum promotes the use of existing campus resources presented inclass and may normalize the use of these resources within engineering departments and colleges.Ultimately, the
,self-worth) [6].Sense of community is defined as “the perception of similarity to others, an acknowledgedinterdependence with others, a willingness to maintain this interdependence by giving to or doingfor others what one expects from them, and the feeling that one is part of a larger dependable andstable structure [7].” It is comprised of the following sub-factors [8], [9], [10]: 1. Membership: feeling that one has invested part of oneself. 2. Influence: sense of opportunity to affect outcomes. 3. Needs fulfillment: both individual and community needs are met reciprocally. 4. Emotional connection: shared history, personal investment, and quality interaction.Commuter students face additional challenges in integrating into
2006-63: AN ASSESSMENT AND CONTINUOUS IMPROVEMENT MODEL FORENGINEERING TECHNOLOGY PROGRAMSAlok Verma, Old Dominion University Alok K. Verma is Ray Ferrari Professor and, Director of the Automated Manufacturing Laboratory at Old Dominion University. He also serves as the Chief Technologist of the Lean Institute and MET Program Director at ODU. Alok received his B.S. in Aeronautical Engineering, MS in Engineering Mechanics and PhD in Mechanical Engineering. Alok is a licensed professional engineer in the state of Virginia, a certified manufacturing engineer and has certification in Lean Manufacturing and Six Sigma. His publications are in the areas of Lean Manufacturing, Process Automation and
communication, engineering problem solving, teamwork, global/societal impacts andethics. These questions also address the students’ level of engagement with the material and theirmotivation. Students’ responses to both sets of questions provides an insight into their learning.To determine if the integration of a service-learning curriculum into Engineering 100 affectedthe student’s learning in the course, a detailed statistical analysis of the teaching evaluationresponses was performed. These analyses included a Stepwise Regression analysis, MultipleRegression analysis, Correlation analysis, and a Multifactor ANOVA test performed on theteaching evaluations for four successive semesters of ENG 100 taught by the same instructor; thefirst three without
School ofEngineering Mathematics and Science (SEMS) energy curriculum. In the fall semester of the2010 school year at Robert Morris University, SEMS began laying the groundwork for whatis now an alternative energy minor. This is an interdisciplinary minor that was developedthrough the combined efforts of engineering and science faculty. The curriculum was basedon the currently available expertise in environmental science and engineering. Theinitiative began as a collaborative effort and after multiple meetings and the consent of theuniversity registrar; the minor was offered to the students and has achieved a verypromising enrollment in the first semester of its offering. The alternative energy minor iscomprised of three capstone courses and two
Paper ID #15045Assessing The Effectiveness of an Engineering Summer Day CampMs. Alison Haugh, University of St. Thomas Alison Haugh is in the third year of her studies at the University of St. Thomas, Majoring in Elementary Education and STEM Education,while Minoring in Engineering Education. Her undergraduate Playful Learning Lab research is focused on expanding quality engineering education with an eye to under-served populations, including students with disabilities. Alison is the Lead STEPS (Science, Technology and En- gineering Preview program) curriculum constructor, lead trainer and lead on-site researcher
courses mentioned above. As a matter of fact, thanks to anotherNSF grant received in mid 1990’s it became integrated in our Electrical Engineering curriculum and it isused extensively in most of the courses we deliver. Having such a standard computational tool gives thestudent long enough a time to become a competent user and saves time from training particularly in thehigher level courses where course-specific tools have to be introduced.2. Description of the CourseThe Analog Integrated Circuits (=”CMOS Analog IC Design”) course has the goal to introduceprinciples of operation, fabrication technology and design of analog integrated circuits to ElectricalEngineering students at the senior level. VLSI fabrication is introduced with an emphasis on
courses mentioned above. As a matter of fact, thanks to anotherNSF grant received in mid 1990’s it became integrated in our Electrical Engineering curriculum and it isused extensively in most of the courses we deliver. Having such a standard computational tool gives thestudent long enough a time to become a competent user and saves time from training particularly in thehigher level courses where course-specific tools have to be introduced.2. Description of the CourseThe Analog Integrated Circuits (=”CMOS Analog IC Design”) course has the goal to introduceprinciples of operation, fabrication technology and design of analog integrated circuits to ElectricalEngineering students at the senior level. VLSI fabrication is introduced with an emphasis on
courses mentioned above. As a matter of fact, thanks to anotherNSF grant received in mid 1990’s it became integrated in our Electrical Engineering curriculum and it isused extensively in most of the courses we deliver. Having such a standard computational tool gives thestudent long enough a time to become a competent user and saves time from training particularly in thehigher level courses where course-specific tools have to be introduced.2. Description of the CourseThe Analog Integrated Circuits (=”CMOS Analog IC Design”) course has the goal to introduceprinciples of operation, fabrication technology and design of analog integrated circuits to ElectricalEngineering students at the senior level. VLSI fabrication is introduced with an emphasis on
Colorado Denver, and curriculum lead at Inworks, an interdisciplinary innovation lab. Her research focuses on transformative experiences in engineering education. She is currently division chair of the Technological and Engineering Literacy - Philosophy of Engineering Division (TELPhE). American c Society for Engineering Education, 2021 Comparing Student Outcomes from Four Iterations of an Engineering Learning CommunityAbstractThis Complete Evidence-based Practice paper evaluates the impact of learning communities onthe academic success of first-year engineering students. The Engineering Learning Community(ELC) at a large urban university is
motivation forlearning, teamwork, leader instructors, problem solving capability, continuousimprovement mechanisms, empowered students, and assessment of learning throughevaluation of the teams as well as the individuals. Dahlagard, Kristensen and Kanji2discuss use of total quality principles in education. Zadelhoff, Wet, Pothas andPretorius3 redesign and deliver an operations research course by utilizing teamlearning and assessment, and empowering students to improve motivation andlearning. Krishnan and Houshmand4 use Quality Function Deployment (QFD) foridentifying the stakeholder requirements in designing the engineering curricula.Hillman and Plonka5 also use QFD for curriculum design. Similarly, Burgar6 choosesto use QFD in designing a course