engineering teams to work CONCURRENTLY with manufacturing engineering teams tocompress the product development cycle = CIM.Globalization of manufacturing; China; off-shore manufacturing with design in USA; new graduates should give Page 25.1218.10VERY SERIOUS consideration to accepting an offshore assignment for an American company to learn how globalmanuf. is evolving.Safety = #1 = In every class – every lab – one safety question on every exam. The (eye, finger, foot, …, LIFE ) yousave may be your own – or your best friend’s.Ethics = the recent “creative accounting” scandals in corporate America have caused the loss of millions of
taken.Only 45% of students felt this was cheating, but 76% of them admitted to doing this.Similarly, 94% of faculty think that it is cheating for students to preview an exam froman unapproved exam file, but only 57% of students see this as cheating. It is difficult toidentify the exact reason for this difference, but it may be linked to a socialization processthat students undergo when they enter college or perhaps sooner. For example, 60% ofstudents reported that they disapproved of cheating and 71% felt guilty about cheatingindicating that for most students there is an ethical implication associated with academicdishonesty.10 However, in the same study, 85% of students indicated that cheating was anormal part of life in college.Several researchers
especially Maccia, appropriately described the structure of man’sknowledge, and specifically the concept of design [1]. The design concept could be portrayed asthe total interaction of four fundamental theories: 1. Form Theory Explain a design concept in terms of: Form & arrangement - Mathematics & Logic, 2. Event Theory Explain a design concept in terms of: Physical Sciences, Biological Sciences, Social Sciences, Physics, Chemistry, Botany, Zoology, 3. Value Theory Explain a design concept in terms of: Good and/or right, and/or ethical, and/or beautiful, Fine arts & humanities, 4. Technique Theory (a study of technique theory would then be
, establishing key words, etc. Problems numbered 10, 11, 12 and 13 have roots in the overall upbringing of young people,influence of peers and media, prevailing general culture and social values. Having little influenceover these issues, university education must take advantages brought by the other side of some ofthese problems. Lack of interest in group work and lack of respect for authority do have somepositive notion in them. They are typically associated with principles of western culture, such asindependence, individualism and self-reliance. The overlying challenge for engineering educators ishow to harness these positive personal characteristics into skills of team work, efficientcommunication and high work ethic which are among the skills
professionalsocieties generally adopt a code of ethics to guide their membership. A code of ethics shouldeventually be adopted for ecological engineering.The second sticking point then, is if we decide to include a statement of values in the definition,what values should we express? This is a hot topic, but concepts such as human benefit,sustainability, and ecological health and integrity are often mentioned in the literature. For now,the statement of values in the definition of ecological engineering will be most accepted if itappeals to a plurality of value frameworks.7Program ScopeWe have defined ecological engineering broadly and advocate its application to a number ofproblem areas. Potential applications include: 1. The design of ecological systems
the FTX collapse as a case study through which students can deliberate onthese issues.IntroductionWhen I started following the rapid collapse of the FTX cryptocurrency exchange in November2022, I was already considering the possibility of a case study for my engineering students.Students at my institution (and, I suspect, elsewhere) had been enthusiastic about investments incryptocurrency, even forming an official school club. I thought that studying a spectacular failurein crypto might leverage students’ interests in the manner of other case studies in engineeringethics and communication, such as the Challenger and Columbia space shuttle tragedies. I oftendevelop lessons out of such news stories when they lead with an obvious ethical lapse
, invokes a context inwhich “societal actors and innovators become mutually responsive to each other with a view onthe (ethical) acceptability, sustainability, and societal desirability of the innovation process andits marketable products” (Von Schomberg quoted by Schwartz-Plaschg, p. 149). In other words,the language of RRI assumes a very different kind of relationship between actors than does thelanguage of regulation. An awareness of the power of analogies can heighten our sensibilitiesregarding the linguistic choices we habitually make.Where analogical imagination refers to the context evoked by a particular choice of words,analogical reasoning is a form of critical thinking in which we make an implicit comparisonexplicit and explore how the
potential usage in integrated STEM. Firstly, their competency using AI toolsappears to greatly influence their attitude toward AI-integrated STEM pedagogy. Second, theirperceptions of AI's effectiveness, utility, and ethics seem to significantly impact their willingnessto adopt AI for classroom usage. Lastly, research suggests that PSTs recognize both the benefits,like improving student engagement and personalized learning, and the challenges posed bytechnical difficulties or the complexity of interspersing these technologies in their STEMclassrooms. As such, teacher education related to meaningfully using AI tools is an importantfocus of integrating AI. Teachers must be skilled and confident in using AI tools in theirclassrooms, while also able to
attention and prompting areconsideration of whether this form of education aligns adequately in terms of content,structure, and process to effectively prepare scholars and researchers to address the current andfuture needs of society [8]. In the process of interconnection between fields and contexts,different agents intervene, each with their roles. For instance, [9] the discussion addresses threedistinct agents in interaction—the research producers, the research users, and theintermediaries—and underscores the persistence of a gap among them [10]. It has been shown inprevious studies that copyright compliance and ethical use of research reports are an integral partof scholarly publishing [11]. This is because copyright violation is assumed to be
) Intro. to Geotechnical Engineering (4) Intro. to Water Resources (3) 6 (16) Ethics (3) Materials of Construction (3) Professional Practice & Management in Civil Engineering (3) Global Civil Engineering Design Electives (6) 7 (16) Awareness (3
principles ofecological engineering design for the required ecological functions or services.The project’s main objective was to design a wetland ecosystem to treat stormwater from aparking lot on campus [Table 1]. A specific area was identified and assigned as the location forthe the parking lot and the wetland.Table 1 Details of the semester-long project on design of a stormwater wetland Purpose Provide experiential learning in Ecological Engineering Design to enhance disciplinary knowledge (ecological engineering, ecology, data science, water quality) and soft skills (ethics, collaboration, leadership, communication). Task 1
: history of electrical engineering,electrical concepts and components, digital systems, communications systems, electronics,power systems and computer engineering. The students are also exposed to the NationalElectrical Code and to the tools commonly used by electrical engineering students likeoscilloscopes, multimeters, functions generators, PSpice and MATLAB. In order to complementthe freshman experience, practicing electrical engineers is invited to talk about their industrialexperiences and a module on engineering your career is introduced. Finally, the students are alsoexpected to attend IEEE meetings, and study the IEEE code of ethics. The intention of the courseis to provide the students with a healthy exposure to professional practice and
5 Describe the operations and applications of industrial equipment 6 Identify, analyze and describe environmental, health and safety issues 7 Define professional and ethical responsibilities in the engineering profession 8 Analyze ethical issues in case studies 9 Use hardware and software tools to solve basic engineering problems 10 Demonstrate an ability to communicate effectively 11 Apply unit conversions and statistical metrics to solve problems and analyze data Table 2 Classroom Assessment Activities Assessment activity wt% Assessment activity wt% 1 Tour Reports 8 6
that appropriately reflects the values and culture of society for which it is intended.9 Give examples of relationships among technologies and connections between technology and other fields of study.Responsibility10 Can identify and analyze professional, ethical, and social responsibilities as related to technology.11 Participates appropriately in decisions about the development and use of technology.12 Demonstrates an interest and ability in life-long learning and self-education about technological issues.Capabilities13 Formulate pertinent questions, of self and others, regarding the benefits and risks of technologies.14 Obtain and interpret information about new technologies.15 Discriminate the role of problem
students submitted a final project report, and made a slide presentation covering thesame topics to the faculty and representatives of the cooperating food processor.The course technical content and grading method remained the same. However, we didincorporate readings6, 7, 8 into the early design classes, to take the opportunity to discussprofessionalism, ethics, and other important topics with the class. This illustrates a tactic that webelieve is critical to the success of engineering curricula in general: students know that what wespend time doing is important. If we pay lip service to ethics, writing, computer use, synthesis,and oral communication skills, and focus our classes on analysis, then our students come tobelieve that engineering is
., The Innovation Ethic, American Management Association, 1971. 3) Drucker, P., Managing in a Time of Great Change. 4) Army Leadership FM 22-100, Headquarters, Department of the Army, August 1999. 5) Bush, Vannevar, “Science The Endless Frontier”. A Report to the President by Vannevar Bush, Director of the Office of Scientific Research and Development,” July 1945 ... Page 15.1104.7 Appendix: A Stages of Professional Maturation, Autonomy, and Responsibilities in Engineering Practice for Responsible Technology
introduce Page 15.421.9 technology to rural African villages? • We require a course in critical inquiry for second semester students. The goal there is to have them develop a broad perspective on engineering and to begin the process of becoming a rational thinker instead of a rationalizer. • In the ethics area, we have a small module at the sophomore level that we are developing it in the context of a campus wide effort at having ethics education permeate the curriculum. Most of these students did not have an opportunity to take this module and it is not a formal degree requirement. • All of these would
presentations by VillanovaEngineering and Business faculty, as well as industry experts. The technical (molecules, processand equipment) and business (pharmaceutical economics, marketing and management basicswere covered by Villanova engineering and business faculty respectively. Experts from theindustry discussed current and complex issues facing the industry such as; drug manufacturingand marketing regulations in China, ethics and logistics of clinical trials in India and drug anti-counterfeiting efforts. The pedagogical approach included lecture, discussion, case analysis, andindustry focused projects.The purpose of this paper is to describe the benefits and challenges associated with this newcourse at Villanova. Two noteworthy and somewhat
ethical perspectives.This paper will focus on body-altering technologies as portrayed in H.G. Wells’s The Island ofDr. Moreau (1896). 1 In addition to raising animal-human, gender, and mind-body issues, thisnovel questions the level of responsibility required of the researcher towards his subjects andtowards other professionals.The Island of Dr. MoreauA classic of science fiction, The Island of Dr. Moreau tells the tale of a mad vivisectionist whotoils on a remote Pacific island, attempting to transform animals into humans. We first meet ournarrator, Edward Prendick, a natural historian, in the dinghy of the Lady Vain, a ship that hasrecently sunk. Castaway from the very opening of the novel, Prendick relates how he alonesurvived the ordeal
countries o Work in a globally distributed team o Work in a team with colleagues from other disciplines (e.g. marketing, law, biology) o Develop innovative solutions to problems o Make effective oral presentations o Write effectively o Use project management skills o Identify ethical implications of my job assignments and decisions o Apply a professional code of ethics in my work o Consider sustainability in my projects/products o Lead a project teamThere are many questions asked on the survey, and not all were of interest for this particularstudy. In addition to the internationalization questions listed above, other survey questions thatwere of
recognized. 4. Writing Voice: Students emphasized maintaining their writing style while leveraging AI for assistance. 5. Commitment: The importance of personal engagement and critical thinking in academic work was highlighted.Recommendations for Improved Integration: Enhanced Resources and Training: Providing students with resources and training opportunities to effectively utilize AI tools in engineering education. Critical Thinking and Verification: Emphasizing the importance of independent verification and critical thinking alongside AI-generated information. Ethical Considerations: Raising awareness about potential biases and the evolving nature of AI, promoting responsible use. Developing new
Research and International Marketing. Committed to academic excellence, she actively contributes to the institution’s strategic planning initiatives and has served as a judge for various prestigious competitions, including The American Marketing Association’s Student Case Competition, Ethics in Leadership, and Marketing Research. Prior to her academic tenure, Dr. Shuayto co-founded Wingme Cosmetics, LLC, where she held the position of Chief Operating Officer. In this capacity, she provided visionary leadership, directing the company’s overall administration and spearheading its mission-driven activities. Her responsibilities ranged from representing the CEO in business matters to overseeing operational functions
systematic procedures. Itrequires cultivating ethical values, honing creative skills in engineering, working collaborativelyand iteratively, and solving complex problems in a multidisciplinary environment. TheAccreditation Board of Engineering and Technology (ABET) formally acknowledged theimportance of these notions in their most recent requirements - (students’ outcome 5): “an abilityto function effectively on a team whose members together provide leadership, create acollaborative and inclusive environment, establish goals, plan tasks, and meet objectives.”Project-based teamwork is particularly crucial in a first-year engineering design course. Anexperiential learning environment promotes acquiring essential skills and abilities that will beused
. At the start ofthe course, students are introduced to the ethical conduct standards and practices published bythe IEEE and ACM14, which they are expected to follow throughout the course.While some courses simply download programs onto a student’s existing computer platform,simulating a penetration test is more involved. Rather than simply providing students with acompiled list of security tools, it’s important to provide a structured lab environment in whichstudents can safely practice and develop information security techniques. For the first two weeksof the course, students receive instruction on how to set up a VMWare virtual environmentwhich is used for the rest of the course, including a review of basic programming techniques ageneral
-formed groups and did a project ofinterest to all members of the group. Grading of the project was based on a demonstration andreport that were due at the end of the quarter. Due to the uniqueness of each project, weeklymeetings were set up where the students reported progress and problems. An ongoing Google-Doc document was also created that they were required to update weekly and was graded.Lectures included topics which all majors could participate in such as privacy and security,ethics, discussions of computer systems where humans are considered an element and a moretechnical section where each major taught the rest of the class something that was related to thecourse that they were experts on. Grading was largely based on the project but
research interests in engineering education include service-learning, sustainable engineering, social responsibility, ethics, and diversity. Bielefeldt is also a licensed P.E.Greg Rulifson P.E., University of Colorado, Boulder Greg Rulifson is a Civil Engineering doctoral candidate focused on qualitative engineering education re- search while also completing the Engineering in Developing Communities certificate. Greg earned his bachelor’s degree in Civil Engineering with a minor in Global Poverty and Practice from UC Berkeley where he acquired a passion for using engineering to facilitate developing communities’ capacity for suc- cess. He earned his master’s degree in Structural Engineering and Risk Analysis from
engineering projects. The National Academyof Engineering [1, 2] argues that the “Engineer of 2020” must not only be technically capable, butalso be able to understand the contextual requirements and consequences of their work.ABET program accreditation criteria[3] promote contextual engineering practice in several of itsoutcomes criteria [italics added]: (c) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability (f) an understanding of professional and ethical responsibility (h) the broad education necessary to understand the impact of engineering
economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability?” The average score for this criterion was a 9.5 indicated a significant educational impact. The entire Perseus II project is directly aligned with this criterion. The fact that the project had an actual mission demonstration and engaged stakeholders and sponsors added Page 26.110.23 tremendously.(d) How did you participation in Perseus II impact your “ability to function on multidisciplinary teams?” This criterion scored a 10. All students indicated that they had significant positive impact on what is a critical skill
itsoutcomes criteria [italics added]: (c) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability (f) an understanding of professional and ethical responsibility (h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context (j) a knowledge of contemporary issues.In this research, we define contextual competence as an engineer's ability to anticipate andunderstand the constraints and impacts of social, cultural, environmental, political, and
. IntroductionEngineering curriculum frequently focuses on technical, analytical, and decision makingknowledge and skills, evident by the common focus of courses on math and physics principles[1]–[3]. Course problem sets and projects routinely focus on determining variables and solvingequations where there is one “right” answer [4]. However, engineering work is inherently bothtechnical and social [5], [6]. To address major problems of today’s world, engineering studentsneed to develop contextual and cultural competencies, ethical responsibility, and socialengagement knowledge and skills, as well as the ability to work across disciplinary boundaries[7]–[10]. Engagement in these skills, which we collectively call “comprehensive engineeringknowledge and skills”, are