secondary schools anddiscussed advantages of teaching Medical Physics1. Robinson2 has presented their experience ofoffering an introductory Biomedical Engineering course to students from various backgrounds.This course was offered as Science, Technology & Society (STS) elective for engineering andnon-engineering students. They examined the technological basis of innovation, ethics andeconomics of medical technology. Ramon has discussed teaching medical instrumentation usingMATLAB. They cover several topics including EEG, ECG, Biosensors and Electrodes, Bloodflow and MRI3.Toft-Nielsen et al. has explained the importance of teaching virtualinstrumentation to students of Biomedical Engineering. They have designed a one credit course“LabVIEW
like a rigid cylinder” (FG 1, student 1)Senior-level students (i.e., final year engineering/graduating students): “…you have to respect the machinists and respect your trades… having a little bit more of that experience just seeing the depth of what they have to know is very useful in just being an engineer.” (FG 4, student 2) “I don’t think as students we’re taught enough about how important it is to be a professional faculty and what that means to you and what that means is your responsibilities…a lot of it is in regard to ethics. As a professional you have the ethics code to stand by… Also about understanding your role and the potential for you to do harm to the public and also your role and
through the things I do not separate properly” and “design withpurpose so it doesn't harm the environment now or in the future. Take long term cost intoaccount. Not just immediate cost.”Some students specifically mentioned ethical access of materials (8%) and mindful managementof how much material would be used (2%) intertwined with previously presented codes like “lifecycle” and “environmental impact”: “Whether they can be reused and whether you can get thematerial in an ethical way.” and “Cost, amount of material, access to certain materials,environmental-friendly ratings” and “Which field of engineering I'm in and what my choicesare.” These student responses suggest a broader range of understood consequences associatedwith management of
also discovered ethical concerns regarding the technology. If a computer is used inthe communication of multiple individuals, how could misuse be detected and controlled?After the opportunity areas were defined, the teams envisioned future scenarios that illustrate animproved operator task flow with the integration of mixed reality technology. A head-mounteddisplay (HMD), the Microsoft HoloLens, was chosen to allow hands free operation. As part ofthe multidisciplinary teamwork, the technical limitations from the mechanical engineering pointof view had to be understood as well as the current limitations regarding the software andhardware of the HMD device.Follow up conversations with engineering lead to a more thorough, holistic understanding
promotion of professional societies, industryinput is blended with current skill needs to provide a means to express competency throughpractice (e.g., apprenticeship or experience). These mechanisms are consistent with the BOK andvalidated by a community of professional peers.Body of Knowledge Development ProcessAM will thrive as a field with a strong base of professionals who share a common set of ethics andknowledge based on a BOK. An AM BOK, in the context of a professional model like the onedepicted in Figure 1, will also ensure that formal learning frameworks and industry competenciesmutually reinforce. To this end, we are developing an AM BOK to test and refine in the contextof a large-scale triangulation of AM program syllabi, job posting
sufficient cachet that accreditation is not necessary. This may be true; who would not hirea Stanford University graduate simply because the computer science program at Stanford Univer-sity is not accredited by ABET? At the same time, conforming to accreditation standards and peerreview would have helped Stanford or University of Texas avoid headlines that revealed that theircomputer science students have been graduating without taking course work in ethics, somethingABET accreditation standards have required for decades 7 . In contrast, several high-profile andprestigious programs such as MIT are accredited. In this case, presumably, the program or theinstitution has seen value in the accreditation process, or even perhaps to signal to lesser
implementation issues for software systems,including software life cycle, requirements definition and specification, prototyping,verification, validation, testing, fault-tolerance, social and ethical issues of commercialsoftware, and management.A term project is assigned to the students after the 2nd interim exam, which is approximatelyone month before the end of the semester. Each student is requested to design andimplement an image classifier using CNN. The students are expected to use transferlearning to customize pre-trained neural networks for new classes. The new network shouldbe able to distinguish at least two new classes that are not included in the pre-trainednetwork. The students are expected to use TensorFlow as the development tool, because
-Scholar at the University of Illinois at Urbana-Champaign. His interests include computational complexity theory, professional ethics, and engineering education research. He served as the editor of the Journal of Engineering Education from 2012 to 2017. He currently serves as a member of the edito- rial boards of College Teaching and Accountability in Research. He is a Carnegie Scholar and an IEEE Fellow. Professor Loui was Associate Dean of the Graduate College at Illinois from 1996 to 2000. He directed the theory of computing program at the National Science Foundation from 1990 to 1991. He earned the Ph.D. at M.I.T. in 1980. c American Society for Engineering Education, 2018 WIP
expected level of achievement forthe sustainability outcome is Bloom’s level knowledge, comprehension, and application. BOK2 expectsthat analysis be reached through work experience, i.e. after the bachelor’s degree. The sustainabilityoutcome meets or exceeds Bloom’s taxonomy levels for sixteen of the twenty-four outcomes. BOKspecifies the synthesis level for seven outcomes, including experiments, design, technical specialization,communication, lifelong learning, professional and ethical responsibility, and evaluation level for threeoutcomes, including design, technical specialization, professional and ethical responsibility (ASCE 2008). This paper develops a rubric for evaluating students’ sustainability knowledge based on integrat-ing
Session CEED 442Cultural CompetenciesThe most important cultural competencies for engineering graduates according to an industrypoll:• Can appreciate other cultures-‐ avoids ethnocentrism• Is able to communicate across cultures• Is proficient working in or directing a team of ethnic and cultural diversity• Can effectively deal with ethical issues related to cultural differences• Has had a chance to practice engineering in a global context• Cultural, social, and political awarenessThe American Society for Engineering Education (ASEE) Corporate Member Council (CMC) Proceedings of the
. Industry Innovation andInfrastructure, 10. Reduced Inequalities, 11. Sustainable Cities and Communities, 12.Responsible Consumption and Production, 13. Climate Action, and 17. Partnership for the Goals.Higher education institutions have been assigned with the mission of contribute to globaldevelopment and the expansion of knowledge, to impart the ethical vision and technicalknowledge needed to ensure a high quality of life for future generations; therefore sustainabledevelopment should be the framework in which higher education set its sights5. It is within thiscontext that the Engineering Technology program at UTRGV is working in capstone projects toadvance in the fields of technology development, smart environments, and innovation
• Beyond Surveys • Power of Utopia + Storytelling • Beyond “Do no Harm” • Researchers• Relationship Building • Participants • Make no assumptions • Value of Emergence • Ethical treatment of connections • Humility, Trust, Patience • Personal Responsibility for data • Research on Research? Chanel Beebe Beebe@purdue.edu ChanelBeebe.com
interaction • Cross-directorate programs: NRI-2.0: Ubiquitous Collaborative Robots Smart & Connected Communities AI Infrastructure Smart and Connected Health Collaborative Research in Computational Neuroscience ModelingNew in FY19: Machine Learning• AI and Society (CISE, SBE, Partnership on AI) Massive Data Management• Real-Time Machine Learning (CISE, ENG, DARPA) Sensing / Data Acquisition• CISE FEAT DCL: Fairness, Ethics, Accountability, and Transparency (NSF 19-016
, how problem solving is taught, how empathy and ethics areincorporated into the engineering curriculum, and so on.In order for EER&I to have impact, people from many audiences need to hear about the resultsand resolve to act on what they have learned. Some audiences identified were internal to theuniversity and some were external. Internal audiences include faculty who are interested inadapting new approaches to teaching, faculty who are skeptical but curious, and administratorsinterested in utilizing research results or starting their own engineering education researchprograms. External audiences include students and parents who want to know how engineeringwill be taught at universities they are considering and faculty at other
. She received her Ph.D. in Engineering Education at Utah State University with a research focus on the ethical and career aspects of mentoring of science and engineering graduate students and hidden curriculum in engineering. c American Society for Engineering Education, 2020 Lessons learned about fostering curricular changeIntroductionDespite the numerous calls for institutional change to engineering curriculum, the wayengineering has been taught has not changed significantly over the last century [1], [2]. Tocounter this, the National Science Foundation put out a call for proposals to design and enactnew approaches to engineering education focused on organizational and cultural change
, security, and other high-risk activities.Training of Faculty and Students• Modification of Responsible Conduct of Research (RCR) training to inform students and faculty of foreign threats and federal export control, disclosure, and reporting requirements. Institutions have incorporated modules on export-controlled research, protection of intellectual property, preservation of scientific integrity, ethical behavior in conducting federally-funded research, agency reporting and disclosure requirements, and processes for reporting suspicious behavior into RCR training for students and faculty. These efforts often include providing information on technical areas of specific interest to untoward actors and are being conducted in the context of
, ethics, etc. throughout their four-year undergraduate program of study [9-10] orgraduate program of study [11].The course discussed here is different from the models just mentioned in that it encompasses allof the following characteristics: (a) targeted towards beginning engineering students; (b) stand-alone, college-wide course; (c) emphasizing both career development and job searching skillsnecessary to secure an internship or full-time employment; and (d) taught primarily by practicingengineers. The goal of this course is not only to teach students the tactics and tools necessary tosecure a job, as emphasized in the work of Sharp and Rowe [12], but also to introduce studentsvery early on to the types of skills that they should be developing
the evaluation of the prototype. • Engineering ethics. Design Project: • Demonstrate the understanding of the design process. • Demonstrate competence in defining design objectives. • Generate design concepts that meet design objectives. • Manage the team and project effectively. Software Applications • Demonstrate the use of spreadsheets for calculation and data analysis. • Show the capability to prepare graphs and charts with spreadsheets. • Show capability to prepare power point presentations. Page 12.1544.6
continually emailing and interacting, the most often received communication from SUST is an auto reply to email (written in Chinese). ECU and CTU seem to be dedicated to making the international series a reality, SUST seems to be taking more of a lackadaisical approach. 4. Cultures influence time of work. It has been generally accepted that the mid-evening timing for the lectures to be received at SUST reasonable due to the work ethic of the Chinese populace. 5. The growing impetus for engineering students in the US to be exposed to international influences may be pushing the ECU staff more so than the international participants. 6. The project has provided an
, d. an ability to apply creativity in the design of systems, components or processes appropriate to program objectives, e. an ability to function effectively on teams, f. an ability to identify, analyze and solve technical problems, g. an ability to communicate effectively, h. a recognition of the need for, and an ability to engage in lifelong learning, i. an ability to understand professional, ethical and social responsibilities, j. a respect for diversity and a knowledge of contemporary professional, societal and global issues, and k. a commitment to quality, timeliness, and continuous improvement.Only four of the eleven criteria apply to technical areas. All others cover “soft
discipline of Manufacturing Engineering. The role and function of themanufacturing engineer are introduced in the context of the production, inspection, qualitycontrol, and enterprise environments. Manufacturing engineering methods, techniques andalgorithms are introduced, and engineering ethics issues are also discussed. Applicable ABETOutcomes are: 1, 2, 3, 4, 5, 7, 8, 9, and 11. Applicable Track-Specific ABET Outcomes are: M1,M2, M3, and M4.Product and Tool Design (Junior Year Spring Term): This course provides an introduction toproduct design issues including design for manufacturing and assembly, the producibility index,process planning and tolerance selection. The course also covers the design and engineering ofjigs, fixtures, and tooling used
professional ethics as well as featuring seminars by guest speakers. Students arerequired to have weekly meetings with their project advisor throughout the two semesters of thecourse. The final product must involve significant design and be a physical device, computermodel, or a complete description of a manufacturing process for a mechanical or biomedicalapplication. For many students, this capstone design experience provides the most relevantpreparation for working in industry, and marks a segue from their academic training into theirprofessional careers.Students in the capstone engineering course were recruited to design AT for the ChallengedAmerica program. A rehabilitation technology graduate student with a background inengineering was recruited
specialization.Computer science core requirements consist of 28 hours. These core requirements, which aretaken by all the areas of specialty, are given below: • CNS 1400 Object-Oriented Programming I • CNS 1410 Object-Oriented Programming II • CNS 2810 Assembly Language & Computer Architecture • CNS 3050 Computer Ethics • CNS 2420 Object-Oriented Data Structures • CNS 2600 Fundamentals of Data Communications • CNS 301R Invited Speakers Series • CNS 3060 Operating Systems Theory • CNS 3240 Introduction to Computational Theory • CNS 3690 Advanced Topics in Data CommunicationsThe following courses will only be required for the Embedded Systems Engineering area
: 1. To identify the phases of the engineering design process. 2. To design an engineering project and construct a physical model of the project. 3. To prepare a technical report for a design project and make an effective oral presentation that summarizes the project. 4. To recognize the importance of working in a design team. 5. To recognize the importance of the NSPE Code of Ethics and the responsibility of Professional Engineers.The textbook is Engineering by Design4 that is based on the five phases of the engineeringdesign process: 1. Needs Assessment 2. Problem Formulation 3. Abstraction and Synthesis 4. Analysis 5. ImplementationDescription of Hybrid CourseThe hybrid model consisted of distance
introduce students toapplications of nanotechnology through four different modules. The modules are selected inorder to have hierarchy in student learning in three different areas (fuel cells, batteries andsolar photovoltaics) of alternative energy technologies. The modular nature of this proposedcourse will offer the benefit of allowing students to register for varying credit hoursdepending on their interest/requirement. The course contents are given below in fourmodules: 1. Nanotechnology ‚ What is in the nanotechnology ‚ Synthesis and characterization of carbon nanotubes ‚ Energy related application areas ‚ Implications for philosophy, ethics, and society 2. Smart Batteries ‚ Nanomaterials for anodes
professional communicationthroughout the curriculum as well as a relevant structure to discuss many issues related to designincluding intellectual property, professionalism, entrepreneurialism, engineering ethics, and theneed for lifelong learning.All the design projects are client-based, real-world design problems, solicited primarily from themedical and life sciences faculty around the university, as well as from biomedical engineeringcompanies. Also we do projects with individuals who have specific rehabilitation needs. Thedesign faculty team reviews the proposed projects and chooses those that are well matched to thestudents’ abilities and likely to result in physical prototypes. Once a team of four students isformed and chooses a project, the
., understands engineering) • A multi-disciplinary, systems perspective. • A basic understanding of the context in which engineering is practiced. o Economics (including business practices) o History o The environment o Customer and societal needs • Good communication skills. o Written, oral, graphic and listening • High ethical standards. • An ability to think both critically and creatively-independently & cooperatively. • Flexibility. The ability and self-confidence to adapt to rapid or major change. • Curiosity and a desire to learn for life
a holistic solution to the client's problem. 5 Accurately and effectively report findings and recommendations both orally and verbally to the client. 6 Function as a contributing member of a multidisciplinary team. 7 Understand professional and ethical responsibilities of a military officer and engineer and the broad education necessary to understand the impact of engineering solutions on contemporary problems in a global and societal context. 8 Recognize the need for, and an ability to engage in life-long learning. 9 Use the techniques, skills, modern engineering tools and technologies necessary for service as an officer and for engineering
. This addresses ethical, analyticaland legal concerns. As the intellectual property portfolio now defines – to a great extent– the value of many technology companies, it behooves the engineer to simultaneouslydesign and document one’s work. Moreover, this documentation approach is furtherenhanced by MATHCAD’s visual interface of mathematical formulae in their standard(textbook) form. As other authors1 have dutifully noted, programming languages andother software packages unfortunately still require a substantial translation or encryption– even for the most basic of mathematical expressions. Lastly, MATHCAD was alsoselected for its nimble facility in displaying and converting all types of engineering unitsand dimensions. From a pedagogical
curriculum approach. The twentiethcentury psychologist, Jerome Bruner, proposed the concept of the spiral curriculum. Bruneradvocates that a curriculum as it develops should revisit the basic ideas repeatedly, building uponthem until the student has grasped the full formal apparatus that goes with them.5 In theproposed reformulation, a theme of sustainability has been selected to provide a contextualframework. The supporting principles of design, ethics, and a systems approach and cross-cutting skills of communication, teamwork, life-long learning, research experience, and labexperience will be woven throughout the curricula.In the spring of 2005 the department piloted a new model for student instruction in one of thefreshman year engineering