several corecourses in electrical and mechanical engineering, as well as a laboratory course in weldingprinciples and manufacturing operations. Biomedical engineering is being developed as a fifthconcentration, built upon the common core.Part of our approach to the BME concentration includes a special integration of curriculum. Theconcept of curricular integration has been occurring at all levels of education, from primarygrades through graduate school. In the spirit of past academic emphases on “writing across thecurriculum,” “ethics across the curriculum,” “computers across the curriculum,” and “designacross the curriculum,” the approach we have taken is that of introducing “biomedicalengineering across the curriculum.” Specialized materials
communication skills, and promotes student personaland social growth and leadership development. Advocates of service learning see the benefits asbeing similar to those of community service but with added focus and structure, elements that helpmake the experience more meaningful for all involved2.The students are graded on their presentation and their paper, each at ten percent of the grade for atotal of twenty percent of their grade for the course. The paper and presentation are also used toevaluate ABET outcome 4, “An ability to recognize ethical and professional responsibilities inengineering situations and make informed judgements, which must consider the impact ofengineering solutions in global, economic, environmental, and societal contexts
Department of Mechanical Engineering Michigan State University East Lansing, MI 48824There are many things that a university must focus on when deciding on what to teach ourincoming and ongoing students. For engineering we hope that during their first years on campusstudents become acquainted with ethics, writing, speaking, and all the “soft skills” associatedwith the more liberal side of the institution. Many people do not realize that our students willsink or swim with their ability to function in a society that does not contain 100% engineers. Butthat is of little concern to many who simply say that controls, fluids, thermal sciences, and themany other engineering topics are the
design andpractical application proficiencies, a profound understanding of environmental impactassessments, and the refinement of problem-solving competencies and analytical reasoning.Furthermore, this endeavor aims to cultivate a heightened awareness of ethical considerationsand social responsibilities inherent in engineering projects, thereby preparing students tonavigate the complex interplay between technological advancements and environmentalstewardship in their professional pursuits.Assessment methodThe assessment methodology for this educational initiative encompasses two critical facets:technical writing proficiency and design functionality, with both being evaluated through directassessment rubrics.For technical writing, A comprehensive
this phase, adhering to the guidelines of the Office forHuman Research Protections (OHRP) and the relevant university department is essential tomaintain ethical standards and safeguard participant confidentiality and privacy. The collecteddata will then be used to write a Python code that employs deep learning to identify parametersindicative of various attention levels. The software will utilize this data to set an attention rangeand send alerts to an external device, notifying when the user has lost focus. Additionally, thesystem will exhibit intelligent recognition of recurrent short concentration periods, suggestingbreaks to prevent mental fatigue. As the project advances, there is potential to enhance the system'scapabilities by exploring
sinceAI is still in its initial stages of development and the issue of liability if an AI system makes amistake. The skill gap and training are required to prepare many workers on how to reflect AIsystems on their jobs.9 Finally, there are many ethical challenges the construction industryshould consider. Workers need to ensure that AI systems are used fairly, without bias, and withdue respect for human privacy. 10, 112. Study Objective This study aims to evaluate the effectiveness of integrating AI into BIM software forinnovative construction management and decision-making. The software assesses an existingbuilding designed to meet LEED standards. Furthermore, the study aims to compare theevaluation of energy consumption. This involves
and resultant student learning outcomes were created with the intention of trainingstudents with the skill sets required to address complex societal challenges built from theexperiences working within the Engineering for Sustainable Development (ESD) realm.The ideals that have emerged from this domain focus on considering political dimensions,structural conditions, ethical considerations, as well as stakeholder understanding, values anddynamics; these considerations are aimed at addressing the problematic engagements and pitfallsseen historically within the HE domain. “Humanitarian Engineering” effectively and cohesivelyintegrates these skill sets and linkages to address issues far beyond what we have historically andethnocentrically
research and teaching interests in mechanics, including nonlinear structural analysis, computational mechanics, and biomechanics. He is also active in engineering education and engineering ethics, particularly in mechanics education and appropriate technology. At UPRM, Papadopoulos serves as the coordinator of the Engineering Mechanics Committee, which manages the mechanics courses taken by all engineering majors. He also co-coordinates the Social, Ethical, and Global Issues (SEGI) in Engineering Program, and Forums on Philosophy, Engineering, and Technology.Matthew W. Ohland, Purdue University, West Lafayette Matthew W. Ohland is Associate Professor of Engineering Education at Purdue University. He has de- grees
be compared with the actualcitations in the formal reports. Please refer to Appendix 1 for the worksheets containing thethree sets of questions. The questions were designed to be readily comprehensible by students,and also to yield data that would be of interest to both librarians and instructors.The ethical review application for this study is currently being processed as a “minimal risk” Page 22.1682.5application by the Behavioural Research and Ethics Board at UBC. All students have beenassured that the study is voluntary. Participants cannot be identified and those who do notparticipate will not be penalized.Signed consent forms and the
the areas of engineering ethics and engineering education. Page 22.583.1 c American Society for Engineering Education, 2011 Engineering Education and the Entrepreneurial Mind at Baylor UniversityAbstractOur current economy is facing many new challenges, including the challenge of technologicalcompetition from other countries. Engineering educators face the challenge of how to motivateour students to become competitive in a global marketplace. The challenge is how to bringinnovation back into the engineering disciplines, when many of our faculty have never worked inindustry, and so are not necessarily
engineers have always practiced.The main objective of this paper is to present the approach used to integrate sustainabilityengineering content into the engineering curriculum at our University. The approach involvesoffering a multidisciplinary class in sustainability engineering which was offered to junior orsenior engineering students as a technical elective class with no prerequisites. The class wasdivided in four main modules which are Life Cycle Assessment, Energy Management, Designfor Sustainability, and Ethical Consumerism.A team teaching approach was used to teach the class with faculty members from thedepartments of Mechanical Engineering and Industrial, Manufacturing and Systems EngineeringDepartment. In the class, students were required
involve diverse stakeholders. The pilot projects in this group integrateengineering and liberal arts topics, and in some cases students and faculty, and direct thestudent’s attention to the “problem formulation” phase of design. They challenge students todevelop innovative and ethical approaches to complex, wide-ranging problems.By deliberately keeping the challenges broad, and asking students to consider each problem frommany perspectives, these projects encourage students to develop a better understanding ofengineering in context and the need for knowledge of other disciplines. Faculty from sixinstitutions will work on introductory course projects. The mix of institutions, including threeinstitutes of technology, two liberal arts colleges, and
whet the students’ appetites for subsequent courseswhere similar problems are addressed in far greater detail and sophistication. Students begin toappreciate the creative and innovative nature of engineering practice through exposure to “realworld” problems wherein they must justify their choice among many feasible solutions.Measurements addresses professional engineering issues by presenting case studies in projectmanagement and engineering ethics to stimulate class discussion.III. Format and StructureMeasurements is a 3-credit course that includes two 50 minute lectures and one three-hourlaboratory period per week for 14 weeks. The lecture sessions have a maximum of 30 studentswhile the laboratory sessions have a maximum of 20 students. The
.” Journal of ProfessionalIssues in Engineering Education and Practice, ASCE, 121 (4), 260 – 261.7. Koehn, E. (1991). “An ethics and professionalism seminar in the civil engineering curriculum.” Journal ofProfessional Issues in Engineering Education and Practice, ASCE, 117 (2), 96 – 101.8. Major, M. M. (1994). “Surviving the crunch.” ASEE Prism, American Society for Engineering Education,3 (7), 14 – 19.9. McCuen, R. H. (1994). “Constructive learning model for ethics education.” Journal of Professional Issuesin Engineering Education and Practice, ASCE, 120 (3), 273 – 278.10. Weingardt, R. G. (1993). “Engineers need a broader perspective and a better Image.” ASCE News, American Society of Civil Engineers, 18 (6), 7, & 11.BiographyEnno “Ed” Koehn
of ProfessionalIssues in Engineering Education and Practice, ASCE, 121 (4), 260 – 261.7. Koehn, E. (1991). “An ethics and professionalism seminar in the civil engineering curriculum.” Journal ofProfessional Issues in Engineering Education and Practice, ASCE, 117 (2), 96 – 101.8. Major, M. M. (1994). “Surviving the crunch.” ASEE Prism, 3 (7), 14 – 19.9. McCuen, R. H. (1994). “Constructive learning model for ethics education.” Journal of Professional Issuesin Engineering Education and Practice, ASCE, 120 (3), 273 – 278.10. Weingardt, R. G. (1993). “Engineers need a broader perspective and a better Image.” ASCE News, 18 (6), 7 – 11.BiographyEnno “Ed” Koehn is Professor and Chair of the Department of Civil Engineering at Lamar University
current with today’s technological advances. One solution, that has receivedattention during the 1990’s, is the university-industry partnership. Liaw4 believes thatstrong industry ties add breadth, depth, and continuity to the undergraduate education.Along with the benefits, these partnerships can create ethical concerns. Such concernsinclude the rights of both parties, approaches that are fair to all, and the need to avoidconflict of interest5. To address these concerns, guidelines that direct the actions ofpartners have been promulgated by such bodies as the U.S. Office of Science andTechnology 6.In this paper, we present a partnership and collaboration that has recently been createdbetween University of Maryland Eastern Shore (UMES), Lab-Volt
includes chemical and biological considerations in water quality, wastewatertreatment and discharge, diffusion and dispersion of wastewater in estuaries and oceanicenvironments, maintenance dredging and material disposal, and engineering methods used toanalyze and mitigate the effects of marine pollution. Students also gain familiarity withenvironmental laws, ethics and economics as they pertain to the marine environment.Most class lectures are adapted from a conventional environmental engineering text such asMasters’ Introduction to Environmental Engineering and Science4. Readings from Laws’Aquatic Pollution5 and other marine-related references are assigned to supplement class lectures.The research project requirement of the initial “issues
already struggling to survive past their limit to afford energy and goods?Food for the hungry is another consideration. A strong outcry has erupted over the use of foodproducts (such as corn) for the production of ethanol to be used as a fuel.4 Thus, discussions ofboth ethics and economics should clearly be part of any decision to convert from the use of coalto alternative fuels in new designs for power plants.Project SpecificationsJunior MEs taking Thermodynamics are introduced to many of the fundamental principles (work,heat, quality, enthalpy, entropy, and efficiency) and components (piston-cylinder, throttle, nozzle,diffuser, compressor, pump, boiler, condenser, and turbine) which are incorporated into energyproduction. Energy-producing
formulation and implementation.Case studies are included as well as computer simulation of business enterprises. 3. Oral and Written Communication (3 credits)The social context of scientific writing; recording as the basis for writing; the importance ofdigital electronics; a professional approach to writing; collaborative writing; your audience andaims; organizing and drafting documents; revising for organization and style; developinggraphics; searching the literature; documenting sources; memos, letters and e-mail; progressreports; journal articles; oral presentations; instructions, procedures, and computerdocumentation. 4. Legal and Ethical Issues for Engineering Managers (3 credits)Introduction to ethical and legal issues as applied to
realistic constraints, such as economic factors, safety, reliability, aesthetics, ethics and social impact.Implicit in this understanding of Figure 1. Navajo Bridge in the Grand Canyon Nationalengineering design is that need is Park7something that is established by non-engineers or engineers working outside of engineering practice and is communicated in anover-the-wall approach to the engineers. Non-engineering factors such economics, safety,reliability, aesthetics, ethics, and social impact are relegated to a plethora of systematizedapproaches often known as Design for X If engineering design is merely the application ofalready well defined knowledge then there indeed
preparingstudents to become engineers in the 21st century and the importance of integrating all elements ofsuccessful engineering practice in engineering education. In addition, they wrote a shortdescription of an idea or plan for implementing innovative techniques in their classroom. On thebasis of these ideas, they were preliminarily placed in one of four affinity groups that stemmedfrom Educating Engineers: design education, engineering fundamentals and analysis, laboratory/project/ experience-based learning, or ethics/society/broader engineering skills. Attendees wereable to attend more than one affinity group session at the symposium.The organizers strove for a mix of formal and informal networking opportunities, small groupdiscussions, and panel
the EET program fullfills more strongly theABET outcomes related to: • Demonstrate that students are able to function on multi-disciplinary teams, • That students show a strong ability to identify, formulate, and solve engineering problems • That students are able to understand professional, social, environmental and ethical responsibility.Due to this collaboration EET faculty and IAB members agreed that the senior design courseexperience could be greatly enhanced if the students could work in projects related to solveproblems that engineering industries face every day. Giving students experience with a real-world design project that involves managing tasks, people, budgets and deadlines. The projectsalso
partnershipwith the State Societies, NSPE’s Mission4 is to be “the organization of licensedProfessional Engineers (PEs) and Engineer Interns (EIs)” and, the mission goes on tostate that “NSPE enhances the image of its members and their ability to ethically andprofessionally practice engineering” and does this “through education, licensureadvocacy, leadership training, multi-disciplinary networking, and outreach.” NSPE’sVision and Mission are supported by the following eight values4: 1. Protection of the public welfare above all other considerations 2. Ethical and competent practice of engineering 3. Innovation through the creative application of math, science, and engineering 4. The PE license as the highest standard of
COMPLIANCE SOFTWARE DEVELOPMENT PROBLEM: IMPORTANCE AND POSSIBLE SOLUTIONS AbstractSuccessful modern software development often requires compliance with both ethical andlegal standards. This creates the “computer compliance software problem”. That isdefined and discussed together with reasons for its importance. Some possible solutionapproaches are defined and discussed, with some related examples. There have been a fewwell documented past software disasters, and there exist recent but undocumented softwaredisasters, but there are reasons for hope that progress is being made toward solving thecompliance software development problem and some are briefly discussed. Hope resides ingreater software knowledge
: Visions of Engineering in the New Century. Theseattributes are identified as strong analytical skills, practical ingenuity, creativity,communication, business and management, leadership, high ethical standards,professionalism; dynamism, agility, resilience, and flexibility, and becoming lifelonglearners.1This project is motivated by the results and findings of our initial assessment of the Air ForceInstitute of Technology (AFIT) Summer Research Program (published in 2013 ASEE AnnualMeeting2) and a series of reports published by the National Academy during the past decadeentitled The Engineer of 2020: Visions of Engineering in the New Century, Rising Above theGathering Storm and Examination of the U.S. Air Force’s Science, Technology, Engineering
midway through the year (or who do not pass on their first attempt) may enroll in thespring. Aside from transfer students, when taking this course most students will only have theresearch comprehension and skills they developed in high school. Although they will need tocontinue learning how to properly conduct research at a college level as they progress throughthe degree program, they are expected to meet a baseline level of ethical and effective research topass the course. According to the Common Core State Standards, 12th grade students should becapable of researching a topic as follows: CCSS ELA Literacy-W.11-12.8 Gather relevant information from multiple authoritative print and digital sources, using advanced
usefulness of thetool, specifically noting that they did not have the opportunity to simply copy and paste what anAI tool suggests. Instead, they had a chance to rethink and revise their writing through the KVIStool. In addition, the visualized graph appears to help students capture the overall focus of theirwriting, rather than losing sight of their main idea by concentrating too narrowly on a specificaspect.As AI technologies grow more advanced, concerns about over-reliance, ethical use, and misusehave become increasingly significant. Addressing issues such as authenticity, feedback quality,bias, and digital literacy is critical to harnessing the potential of generative AI in engineeringeducation and ensuring equitable learning opportunities. The
projects, by providing alternate viewpoints and that will increaseteam’s performance.5- As a new freshman Student, by asking many primitive questions from the instructor. As theresult instructor will be more prepared for the harder questions from other students.6- As a Simulator in which students can practice their project presentations.7- As a Flashcard for practicing and preparing for exam.8- For collecting Feedback regarding lectures or course.9- As a Student Advisor, by providing teaching plan, submitting course incomplete applicationform, registration, course progress, pre-requisite requirement, etc.Creating these nine options requires several best practices to ensure that they are effective,ethical, and user friendly. You can also use
,” Science Advances, Vol. 9, 2023. [Online] Available: https://doi.org/10.1126/sciadv.adh2458. 6. J. Simon, The Ultimate Resource, 1981. 7. Union of Concerned Scientists, “What is Climate Engineering,” Explainer [Blog] 6 November 2017. [Online] Available: https://www.ucs.org/resources/what-climate-engineering. 8. D.B. Oerther, “Is It Time to Decenter Humans in Our Discussion of Sustainable Development?” Environmental Engineering Science, Vol. 39, No. 11, 2022. [Online] Available: https://doi.org/10.1089/ees.2022.0239. 9. D.B. Oerther, “Environmental Health Professionals: Local Interprofessional Collaborations Require Global Thinking to Meet Shared Ethical Obligations,” J. Environ. Health, vol. 84, pp. 26-28
educational andin 5 weeks. professional goals. The WWII German Encryption System project is such a project.Before we undertake to explain how this isaccomplished we begin by highlighting the key Student projects conducted in a Socratic classroomaspects and benefits of a Socratic type method.. build passion, create a strong work ethic, cultivate an ability to rapidly assimilate new knowledge and finally2.0 The Socratic Practitioner increase self-confidence. We have seen thatSocratic pedagogy continues to be largely absent in cultivating