problems have become more complicated andcomplex, requiring creative thinking and skilled engineers to solve these problems. To betterprepare our students in this area, the focus of our computer engineering capstone design coursehas been the design of embedded systems. By requiring an embedded design project in ourcapstone course, our students receive hand-on training in embedded systems that will enablethem for careers after graduation7.Senior Design Project Course at Utah Valley UniversityOur Senior Design Project Course serves as a project-oriented capstone course for computerengineering majors. This required course emphasizes major hardware and software co-design.This course satisfies the ABET (Accreditation Board for Engineering and
their knowledge of industry’s needs and gainingperspectives on how they could better prepare students for industry careers.24DiscussionCollaborations between industry and academia took a number of different forms, and haddifferent purposes. The collaborations examined in this abbreviated study range from very smallefforts to extremely large ones, with little infrastructure required to those requiring largeorganizational structure. Collaborations were found in all levels of education and research with avariety of combinations to suit both the academic and industrial partners.While industry-academia collaboration is widely accepted to be desirable and beneficial, thereare many issues that should be studied in order to improve its implementation
spectrum, which is to be expected over the courseof a student’s college career. However, those students who perform very poorly in the first term(GPA near 2.0) tend to remain toward the lower end of the major, and a number of students whodo well in the first term continue to stay near the top. 4.5 Final cumulative major GPA 4 3.5 y = 0.7199x + 0.7879 3 R² = 0.477 2.5 2 1.5 1
questions were multiple choice or true/false related to specific technicalinformation covered over the course of the semester. Three additional questions were includedon the pre- and posttest related to students’ perceptions about their understanding of the conceptsand their comfort in discussing course material with their peers or instructors.In addition, a survey was administered at the end of the semester regarding student’s generalopinion of the flipped course format and their perceptions of the value of various aspects of thecourse on their learning as well as the perceive value of the course for their careers. Studentswere encouraged to participate in the survey by being allowed to drop low homework orparticipation scores in exchange for
improvement could become a norm.Professional development education requires a different business model than that of traditionalundergraduate and graduate education. Topics are different, students engage differently in thelearning process, and an understanding of evolving workforce needs by faculty is paramount.Early career faculty members adapting to traditional teaching norms may find professionaldevelopment courses in conflict with the world of tenure-track faculty. Some more experiencedfaculty members, particularly among land-grant institutions whose mission includes service tothe broader community, may be more inclined to espouse the value of continuous learning. Thetransition from theory-based education to professional development is unique
developingsolutions. Because the middle years of the engineering curricula tend to focus on developing analyticalskills, students do not see many undefined problems at that stage, so this introduction can broaden theirunderstanding of the engineering profession. The EWB Challenge provides valuable engineeringbackground, introduces students to international development issues early in their careers, and connectsthem to a larger international effort that includes students from all over the world. The students at Colorado State University seem to have become more interested in being active ininternational efforts such as EWB projects so the EWB Challenge can be used as a complement to theexisting EWB-USA efforts. The Challenge also engages many more students
skills are essential for career development. However, in typicaluniversity settings, undergraduate students take different courses and work on different projects indifferent teams each semester. As a result, students lack opportunities to work on multi-yearprojects and develop the skills essential for long-term planning. To remedy this situation, ourdepartment has created elective courses that allow students from all years (first-year students tograduate students) to work on research projects under the supervision of faculty members and thementorship of senior graduate students. These projects provide the opportunities for students tolearn many skills essential in workplace, such as (1) understanding how projects are designed andmanaged; (2
will be graduating in February 2017 with a teaching certification for grades 5-12 in New York State and a B.S. in Education and Chemistry. Her passion for teaching began in her high school chemistry class with Mrs. Merante, after seeing just how valuable a talented and determined teacher was to future STEM fields. Kathleen enjoys teaching tennis over the summer to students ages 8-16 and is looking forward to her graduation to begin her career. c American Society for Engineering Education, 2016Engineering Ambassadors: Bridging the Gap between Engineering and Education Undergraduates and Middle and High School StudentsAbstractEngineering Ambassadors program at Manhattan
short-term study abroad agree that one of the main benefits isthat it can increase students’ interest for further international experiences. Olson and Lalley statethat “a faculty led, highly structured, two to three week study abroad experience for students intheir early year of their college careers could greatly benefit these students by opening their eyesto a wide berth of opportunities such as internships abroad, studying a second language, longerinternational experiences in their later years, and a reduction of travel anxiety”.4For all the reasons listed above, in 2014 MCC’s engineering faculty began looking into thepossibility of putting together an international travel course. Although international travelcourses are somewhat uncommon at
Paper ID #14448Design, Build, and Installation of an Automated Bike Rental System as a Partof Capstone DesignDr. Scott F. Kiefer, York College of Pennsylvania Scott Kiefer has spent the past fifteen years teaching mechanical engineering at four institutions. As an exemplary teaching specialist in mechanical engineering at Michigan State University, Scott received the Withrow Award for Teaching Excellence, given to one faculty member in the College in Engineering for outstanding instructional performance. Scott specializes in machine design, vibrations and controls, and mechatronics. He started his career at the University
). Therefore, as they continue to acquire knowledge along their academic andprofessional career, their ability to effectively think critically will improve accordingly. It iscritical to convey to students that perseverance in developing these skills is crucial, and to assurethem that, over time, mastering these skills will become ‘second nature’ and will have a strong,positive impact on their ability to make meaningful contributions to the engineering profession.References 1. Paul, Niewoehner, and Elder. (2006). The Thinkers Guide to Engineering Reasoning. Foundation for Critical Thinking. 2. Thompson, A and Ralston, P. (2015). Using the Engineering Grand Challenges to Foster Critical Thinking and Awareness of the Engineer’s
, matched to engineering challenges for societal benefit. The course uses case studies,Granta CES software, laboratory and design activities, with selected readings to providerelevance for core concepts in materials science early in student’s academic career. The goal ofthis paper is to provide a model of how other universities can design laboratories for students,aligning best practices with departmental goals.BackgroundA 2008 report from the Workshop on Materials Science and Materials Engineering Educationsponsored by the National Science Foundation September 18-19, 2008, promoted changes forundergraduate programs in materials science1: “To attract more students to the discipline, materials programs should change the message used to
societies and has served on many com- mittees and programs, and continuously attends and presents refereed papers at international, national, and local professional meetings and conferences. Lastly, Najafi attends courses, seminars and workshops, and has developed courses, videos and software packages during his career. His areas of specialization in- clude transportation planning and management, legal aspects, construction contract administration, public works and renewable energy.Miss Mona Alsaffar, University of FloridaMs. Serafina C. SchwererLt. Nicholas Brown, University of Florida I am 2013 graduate of the University of Florida with a B.S. in Environmental Engineering. I was commis- sioned as an officer in
learn in mathematics courses is connected to their engineering careers, andfaculty view this as a great concern.4.9. Confidence when using mathematics“[Fear of math] seems beaten into students. not enough time is spent on justifying why it isinteresting to look at, more is spent on the testable nuggets.” -Computer Science faculty memberEngineering faculty say that mathematically mature students are “able to understand conceptslike infinity and a limit and not be scared.” Faculty at all levels and in many departments speakof students being skittish around mathematics. Both theorists and practitioners want students tobe less scared, and more curious. They want their students to “appreciate the power ofmathematical modeling.” And this fear has
engineering in the Volgeneau School of Engineering, and is the Secretary of the George Mason University Chapter of the American Society of Mechanical Engineers.Dr. Oscar Barton Jr., George Mason University Oscar Barton, Jr., Ph.D, P.E. is a Professor of Mechanical Engineering at George Mason University A native of Washington, D.C., Professor Barton received his B.S in Mechanical Engineering from Tuskegee (Institute) University, his M.S in Mechanical Engineering and Ph.D degree in Applied Mechanics from Howard University. Dr. Barton joined the faculty of Mechanical Engineering Department at George Ma- son University fall 2014, after completing a 22 year career at the U.S. Naval Academy. His research focuses on the
increasingstudents’ knowledge about the power of entrepreneurial mindset and the required skills. For thispurpose, a short tutorial course module was presented to clarify the impact of havingentrepreneurial mindset and the associated skills on future career of engineering students.Students mostly consider the projects and case studies just as part of their course load; however,increasing their awareness about the motivation behind the designated activities can facilitate theachievement of EML goals. Once the students understand the significance of the relationshipbetween the course assignments and EML-oriented skills that they are expected to develop, thetraining procedure will be more meaningful and motivating.3.1. Module I: Demand forecasting moduleIn the
system in student learningIntroductionHigh intense rainfall causes floods. Flooding in vulnerable river systems results in huge propertydamage. Proper understanding of watershed hydrology and river flow hydraulics is essential toflood plain management and mitigation. As a part of the civil engineering curriculum, studentslearn about these concepts. In STEM education, students need to spend extra time and effort aftertheir college education to connect the knowledge gained through classroom instruction to thepractical applications required within their careers. It is very difficult to create a lab module for asevere flooding scenario. However, new technological developments have made this possible.This research work is intended to transfer
sustaining US competitiveness in the sectors ofmanufacturing, technology, services, and government. As such, the Colorado State University(CSU) SE graduate program has particular relevance for students engaged in distance, mid-career education. In response to feedback from industrial partners, the Systems Engineeringprogram at CSU has developed a suite of courses that are offered concurrently online and in aclassroom setting. The technologies used to broadcast the CSU SE program courses allow forstudent feedback, question and answer, and synchronous online interaction, but the rates andtypes of these student interactions varies by course, by instructor, and by semester. This papersseeks to develop a deeper understanding of what techniques for
professional careers. Therefore, undergraduate laboratoriesrequire constant updating and development of new and innovative experiments each semester,which requires a fairly large amount of time on the instructors’ side. In addition to well-chosenexperiments, students’ data should be checked before they leave the lab to make sure that thedata is at least acceptable to complete the lab assignment.The lab experiments for this course were developed with low cost and user friendly requirementsin mind. It is important to mention the fact that since this course was newly developed, itrequired time and creativity from the instructor. The instructor did not have a reference labmanual to start with. Hence, the instructor’s experience played a role on the time
oralcommunications and knowledge in engineering ethics from an instructor-led team-orientedenvironment. The industry sponsor also benefits from the project deliverables and anopportunity to interact with groups of students who are often eager for an opportunity to applytheir knowledge and ultimately launch their career. Details of sample projects and feedbackfrom students in meeting course objectives are discussed in this paper.IntroductionOne of the critical steps in the product realization process is the engineering design, whichdeserves special attention in undergraduate education to better prepare graduating engineers insatisfying the rapidly changing demands of the industry [1][2]. An engineering graduate shouldbe able to apply the knowledge of
, however, this freedom becomes a crutch to avoidcritical thinking and truly understanding the problem and solution. It is normal for students tostart at this level; the danger is that they never grow out of it and continue these poor practicesinto their careers, where the consequences are real and significant. Figure 1 is a long-standingcartoon from the public domain that captures the universally acknowledged dysfunctional natureof software development in reality. While none of these disconnects are entirely avoidable, manyof the problems that could be resolved early unfortunately propagate to the later stages, wherethe cost to correct them rises exponentially. (The term “disconnect” is appropriate because thesedecisions indeed seem like the
, and Marshall University. Neal is a member of ASEE, ASEM, and IIE.Ms. Erika Belitzky, Student Erika is a high school student interested in science. She intends to study toward a career in medicine and/or research. c American Society for Engineering Education, 2016 Experiential Learning and Engineering Management Effectiveness: A Leadership Class Case StudyAbstractWith increased electronic communication and global, virtual teams, the requirement for skilledengineering managers has received increased focus in technical organizations. This paperprovides observations regarding the effectiveness of graduate students completing a hands-onengineering task in the classroom. The
allergic reaction in normal tissue after repeated exposure to thechemical”.11,12 The sensitization of a student to formaldehyde or another chemical has thepotential to severely limit their future career, as it would limit the materials with which theycould safely work with for the remainder of their life.Two separate but complimentary approaches were taken to prevent chemical exposures duringprepreg manufacturing: the implementation engineering controls in the form of a point of sourcecapture ventilation system and usage of extensive personal protective equipment (PPE). Duringthe construction of the prepreg treater, adequate ventilation levels were determined with theassistance of EHS, by simultaneously measuring volatile organic compound (VOC
studentsinto the learning experiences and outcomes that represent the skills and knowledge they willneed to succeed in their careers.1Yet, these efforts do not come naturally in many of the university ecosystems. In many moretraditional engineering programs, these same agile and lean approaches, not to mention theconcept of design thinking2, fail to get incorporated into the improvement process forcurriculum, co-curriculum and program development.The Grassroots EffortsAt Colorado School of Mines, it all started with a comment from a prospective student and aninquiry from a non-traditional undergraduate who was looking for something outside of the 1
part of an EngineeringCourse that adopt direct and indirect learning support actions. The actions discussed were appliedto a Physics I course for freshman students at our Engineering School (a university of 1000students—700 Day/300 Night) 1.Direct and indirect learning support actionsWith the aim to get the students more engaged in their course2,3,4 and at the same time to helpthem develop different skills that are necessary for their future professional careers, theimplemented learning support actions took into account that each student has different grades offacility regarding their particular way of learning (visual presentations, solving problems, etc.).These Learning Support Actions are initially divided into indirect learning actions
fieldprogrammable gate array (FPGA) designs and implementations later in the course. Students usethe Altera Quartus II3 software for design capture (schematic and Verilog) and for logicsimulation. More details on the course can be found in an earlier paper4.The philosophy behind the course is to first teach students the basics of logic circuit analysis anddesign using gates and flip-flops and then move to FPGAs and Verilog. My justification for thisapproach is that technologies and design methods will continue to change and that basicfundamentals will continue to stay the same. So teaching students the fundamentals is the bestway to prepare them for a long career. On the other hand, introducing students to the latesttechnology is also important since that
for engagement with theproject. At the completion of the week participants need to provide their reports to ourpartner (and to copy these to their portfolios).A particular strength of this approach is the opportunity for intergenerational mentoring.Scenario Weeks are open to the whole cohort, allowing for mixing of student engineers at alllevels. The ability to lead, mentor and evaluate other engineers is a key skill for theprogression of any engineer’s career, however it is one that is seldom provided in a traditionaldegree program due to the homogeneity of most of the teams that a student experiences.AccreditationAccreditation of this program will occur through Engineers Australia (EA). Fullaccreditation of engineering degrees requires
leader of character who can understand, implement, and manage technology; andto inspire cadets to a career in the United States Army and a lifetime of personal growth andservice.The civil engineering program established 16 student outcomes to achieve the mission and meetthe ABET accreditation requirements: Our students upon graduation: 1. Design civil engineering components and systems. 2. Demonstrate creativity, in the context of engineering problem-solving. 3. Solve problems in the structural, construction management, hydraulic, and geotechnical discipline areas of civil engineering. 4. Solve problems in math through differential equations, calculus-based physics, and general chemistry. 5. Design
launching torpedoes. Partof the system requirements for their design was to seamlessly integrate the current robosubsystems into their project. This modification also created some continuity in the student’sworking knowledge on the project. In past years, once the completion was finished the studentsgraduated and went on with their various careers and the experiential knowledge was totally lostfrom the project. By having overlapping capstone projects working on the same goals, theexperience and working knowledge is maintained and successfully passed on to other teammembers.The third change made was to have the students create a Robosub Club to encourage youngerstudents to get involved in the project. The club met weekly followed by a pool test