begin choosing their electivesfrom different specialization areas.The Bachelor of Science in Computer Science program was one of the first Bachelor of Scienceprograms implemented at UVSC in 1993. The program’s goal has been to provide a qualityprogram that meets accreditation standards while providing the students with a skill set thatallows them to succeed in computing careers.2 Since our school does not offer a stand alone fouryears engineering program, the computer science department curriculum contains an area ofspecialization in computer engineering.Computing Curriculum – Computer Engineering draft 20043 specifies eighteen knowledge areas;sixteen of which relates directly to Computer Engineering and two relate to mathematics(probability
his Ph.D. degree from the University of Pennsylvania in 1971. His technical work ranges over the topics of optical data links, integrated circuit technology, RF semiconductor components, and semiconductor component reliable. He is a Senior Member of the IEEE and an ABET EAC program evaluator in Electrical Engineering. Page 15.1152.1© American Society for Engineering Education, 2010 Sustainable Assessment for Program Improvement and ABET PreparationAbstractOne of the fundamental challenges of program assessment is to develop a process that issustainable and has the rigor to
minorities had substantial improvement in theirprofessional skills as well as advanced their knowledge in both areas of infrastructuresustainability and Front-End Planning. Furthermore, the analysis of the open-ended questionsrevealed that the students valued the PBL method because it offers interactivity, teamwork, aninterdisciplinary knowledge-sharing platform, and the ability to simulate a real-life workenvironment. The findings of this study reveal the positive outcome of the implementedapproach by integrating PBL activity in sustainability education for minority students from AECmajors. This method conveys an effective scheme to foster infrastructure sustainability conceptswhile nurturing multiple professional skills of minority students
activities are delivered in-person. We note that even the traditional approachbranches into two distinctive models (not shown in the Figure 1). One model represents thetraditional engineering curriculum in which the theory of the subject is presented first, followedby the hands-on activities. There is an alternative model commonly adapted by the engineeringtechnology programs, in which the theoretical knowledge presented in the lectures isimmediately reinforced with the laboratory hands-on activities.The second case represents the blended learning, which combines face-to-face classroommethods with computer-mediated activities to form an integrated instructional approach. Figure 1: Educational approaches currently used in academiaThe
courses, and helped to develop aPOGIL community. The IntroCS-POGIL project is a larger-scale study of how facultyimplement POGIL in introductory CS courses and the factors that affect faculty implementationand student outcomes. Together, these projects are working to expand the set of POGIL activitiesfor CS, the community of CS teachers who use POGIL, and the evidence of effectiveness.These projects also explore some promising future directions: Tools for activity authors, including a Design Canvas to help sketch key activity elements, and an add-on for Google Docs to generate student and teacher versions of an activity from a single master copy. Integrating technology into activities, using a learning management system or
Paper ID #43392Board 425: Work in Progress: Initiating a Research Experience for TeachersCentered on ManufacturingProf. Marian Kennedy, Clemson University Marian Kennedy is an Associate Professor within the Department of Materials Science & Engineering at Clemson University. Her research group focused on the mechanical and tribological characterization of thin films. She also contributes to engineering education with a focus on developing early career researchers and faculty.Dr. Kristin Kelly Frady, Clemson University Kristin Frady is an Assistant Professor and Founding Program Director of the Human Capital Education
pureProduct (1a) and Equipment/Machine Design (1d) are possibilities, projects often focus onProcess Design (1b) which in recent years has increasingly involved use of Robotics andAutomation (1e), and Manufacturing Systems Integration (1f). Design of Tooling is alsocommon (1c). “Improvement” is the bread-and-butter design modality for a manufacturingengineer as opposed to novel product or machine design. As such, the design activity is typicallyhighly constrained by an existing process. The design problem is often framed as improvementto a process through changes such as better tooling, incorporation of robotics and automation,improved layouts and workflow, more efficient resource utilization, enhanced workerergonomics and safety, and better
Paper ID #44710The Impacts of Reflective Writing on Peer Evaluations in EngineeringDesign CoursesMr. Adam Weaver, Baylor University Mr. Adam Weaver joined the Baylor Department of Electrical and Computer Engineering with over 15 years of experience in industry and government service. He served in the Active Duty Air Force as an engineer for over eight years, specializing in test and evaluation of avionics, guidance/navigation, and space systems. After his time in the military, he worked as a Propulsion Test and Integration Engineer with Space Exploration Technologies as well as multiple positions with L3Harris
) Page 24.637.14 Develop Faculty Expertise Develop materials that explain benefits of learning through multiple methods (i.e., traditional lectures combined with games). Demonstrate materials and teaching methods at workshops to help instructors use multiple teaching methods. Establish an online distribution site that includes a discussion forum for sharing classroom experiences.Implement Educational Innovations Integrate online games into traditional instruction in Transportation Engineering courses at home institution. Work with high school teachers to include course module in driver’s education courses. Digitally disseminate game, course module, and assessment tools that Transportation
enrolled in talent developmentprogram5, using web-based instructional materials to learn with Rube Goldberg projects in K-12classrooms6, using Rube Goldberg projects as a design based learning tool for freshmenengineering students7, providing early experience in multidisciplinary teaming and an earlyexposure to ethics in an interdisciplinary freshmen course8, integrating design andexperimentation to freshmen students with an electromechanical Rube Goldberg design project9,introducing design early in the curriculum to improve motivation and increase retention10,assessing engineering students’ understanding of design after a short workshop given precedingthe beginning of their first semester11.Besides K-12 and freshmen level, RGMs were also used in
Institute of Aeronautics and Astronautics Student Chapter at LTU, chair of the First Year Engineering Experience committee, chair for the LTU KEEN Course Modification Team, chair for the LTU Leadership Curriculum Committee, supervisor of the LTU Thermo-Fluids Laboratory, coordinator of the Certificate/Minor in Aeronautical Engineering, and faculty advisor of the LTU SAE Aero Design Team. Dr. Gerhart conducts workshops on active, collaborative, and problem-based learning, entrepreneurial mindset education, creative problem solving, and innovation. He is an author of a fluid mechanics textbook. c American Society for Engineering Education, 2018 Assessment of Fluid Power Modules
yearundergraduates enrolled in EE courses; the unique audience represents students enrolled inHBCU colleges. In this paper, the authors discuss how integration of the innovative MobileStudio concept was used to increase the amount of student-centered learning and document itsimpact on student outcomes. The authors begin with an overview of theories that inspired thedesign of the project and of technology supported learning. Descriptive narrative explains thereal-time usability of the ADB that was developed. Results focus on the impact of experimentalcentric instruction on students’ immediate learning and their affect toward learning. The findingsalso discuss facilitators and barriers to implementation and potential needs for sustainability.KeywordsCircuits
become a permanent part of the engineering curriculum. Before offering the ELC in thefall of 2017, several improvements were made to the program. One of the major improvementswas to include a Precalculus course in addition to Calculus I, and a core composition Englishcourse. The added option of taking either Calculus I or Precalculus allowed all of the students inthe learning community to be enrolled in an ELC math course. The improved fall 2017 ELC alsoincluded courses for the students to take in their second semester including a second semesterEnglish course, a second semester math course and a Solidworks design course. Having linkedclasses through the entire first year allowed the students to stay with the same group of peers insmaller class
integrate sociotechnical dimensions into engineering solutions throughspecific and intentional design practices.In the same ways that ignoring cost throughout the design processes will not result in an outcomewith no monetary impact, ignoring sociotechnical considerations throughout design will not resultin an outcome devoid of social, political, economic, etc. impact. Indeed, overlooking these 1dimensions can result in real and imagined design solutions that harm the environment, reinforcesystemic inequity and injustice, and/or lead to designs for which there might be “unintendedconsequences” [1]-[3].And while studies from engineering practice
Asst. Vice Chancellor, International EducationBACKGROUND . .The traditional education of engineers and engineering technologists includes classroom training and hands-on ‘.experience in the form of laboratory exercises and simple design exercises. There is considerable pressure fromindustry to increase meaningful experience through internships during the college training period. The experi-ence gained during such industrial employment has been shown to have a positive influence in a number ofareas. This paper anticipates the extension of internships into a formalized program, where industrial experienceis an integral part of the education of the student.In industry, the environment is changing. Design teams of the future will
, general chemistry; general chemistry chemistry, general chemistry statics, strength of materials, thermodynamics, at least one additional an earth science, fluid mechanics, area of basic science a biological science electric circuits, fluid mechanics engineering economicsTechnical proficient in 2 of the 3 basic reach the design level in knowledge of four civil environmental issues associatedBreadth curriculum areas: one of 4
programs for those interested in community service.Mr. Randall G Bock, Pennsylvania State University, University Park Randall G. Bock is a research assistant in the department of Agricultural and Biological Engineering, an instructor of Continuing Education, and president of Bock Industries, Inc. His educational interests include the development of novel engineering design projects to enhance learning in computer aided design and analysis, and the integration of additive manufacturing in the engineering curriculum Page 26.1111.1 c American Society for Engineering Education, 2015
class, perhaps, instead of simply online as an e-mailthread. For some lessons the path through these stages would branch in different directions,depending what the instructor felt would be most helpful to students.Developing the lessons as web-based stages convinced us also to add an instructor-based “side” Page 10.1470.3to all the modules. Since the goal of the project is to create an undergraduate curriculum inengineering ethics, we wanted to make the lessons as usable as possible for different styles ofProceedings of the 2005 American Society for Engineering Education Annual Conference & ExpositionCopyright©2005, American Society for
, where she focused on improving the first year physics course by developing and implementing ’Link Maps’, as well as synthesising an understanding of physics student learning by integrating a variety of theoretical backgrounds, from neuroscience via cognitive psychology to educational theories. Christine’s current research focuses on improving the science teacher education program at Oslo and Akershus University College, and she has a keen interest in how the brain learns physics. Christine also holds a position as Adjunct Associate Professor of University Pedagogy at the Norwegian University of Science and Technology, where she teaches short courses on university teaching to PhD students and researchers
Paper ID #19164The Effects of Design Thinking Methods on Pre-service PK-12 Engineeringand STEM Teacher Capabilities, Confidence, and Motivation in Creativity(Work in Progress)Dr. Tanner J. Huffman, The College of New Jersey Dr. Tanner Huffman is an Assistant Professor in the Department of Integrative STEM Education in the School of Engineering at The College of New Jersey.Prof. Manuel Alejandro Figueroa, The College of New Jersey Dr. Manuel Figueroa is an Assistant Professor in the Department of Technological Studies at The College of New Jersey. His research involves the development of nanoparticle coatings for various
understand the difference between civil,mechanical, electrical and chemical engineering. These problems will help delineate thedifferences. The modules will emphasize the societal benefits engineers provides to the world.It has been shown that such problems appeal to a diverse group of students22. An exampleproblem can be found below. Page 22.1651.4Example Problem: The objective of this problem is to expose students to one of the applicationsof integration and trigonometric functions in the energy field.Rising pollution levels and worrying changes inclimate, arising in most part from energyprocesses, demand the reduction of ever-increasing
moreemphasis on ABET skills 2-7. One way to for instructors to better understand how to incorporateABET skills 2-7 in the classroom is by increasing the level of collaboration between academiaand industry to incorporate the changing needs of engineering industry into curriculum [12].Curriculum should be regularly reviewed to ensure it is meeting ABET standards across multiplecourses which will enable students an opportunity to practice and refine their skills over time.From the data, it is clear that instructors need to provide students with opportunities to improveon skills that go beyond basic problem-solving. Not only is student development necessary,reflecting on how to integrate more of the ABET outcomes across the curriculum helps to fulfilthe
development in engineering students. c American Society for Engineering Education, 2016 An Evaluation of Direct and Indirect Measures for Assessment of Professional Skills in an Undergraduate Civil Engineering CurriculumIntroductionThe undergraduate Civil Engineering curriculum at The Citadel emphasizes preparation ofgraduates to serve as principled leaders in design, construction, maintenance and operation of thebuilt-environment. In support of this vision, department faculty adopted a series of outcomesfocusing on the professional skills needed to prepare graduates for successful engineeringcareers. Course material is provided recurrently within the curriculum that emphasizes studentdevelopment of
of StudentEngagement (NSSE) which is administered to each freshmen and senior student.The Department of Engineering at WKU is an ABET accredited program that has a mission ofproject-based engineering education. The department has chosen to engage students through thistype of educational experience. Since the programs in the Department of Engineering are ABETaccredited, the ABET criterion must be satisfied. The three programs in the department; civilengineering, electrical engineering, and mechanical engineering; have created individualassessment programs in order to continuously improve the programs. Project courses and designexperiences play an integral role in the delivery of the project based courses at WKU. This paperwill examine the
big data analytics that was developed and introduced intoFreshman Engineering Clinic, which is an introductory course for students in all engineeringdisciplines at Rowan University. Learning objectives for the Freshman Engineering Clinicinclude developing skills in data collection, analyzing data to draw sound conclusions, andwriting reports, with visual/graphical representation of information recognized as one criticalcomponent of effective technical writing. The NSF has awarded a grant to Rowan University tosupport vertical integration of big data analytics throughout the engineering curriculum. Thispaper focuses on the Freshman Clinic big data project, the intent of which was to introducestudents to big data analytics while also furthering
undergraduate and experienced graduate students who have a demonstrated interest in issues of sustainable development. 2) Integrating the research experience into education initiatives that are focused on sustainable development. 3) Ensuring the research experience focuses on appropriate technology (defined here as the use of materials and technology that are culturally, economically, and socially suitable to the area in which they are implemented). 4) Using an operational model for sustainable development that is a global partnership, so students understand how to integrate and transfer the best and most appropriate knowledge, methodologies, techniques, and practices between the developed and developing
women before, during and after an undergraduateengineering education. Goodman et al.1 found that half of the women who left engineering leftbecause of lack of interest in the field. Smith, Sheppard, Johnson and Johnson2 highlight theneed for increasing engagement in engineering education. They note that engagement affects astudent’s capacity to learn and to learn deeply, and may positively affect retention rates.Students who withdraw from engineering education often do so because they have becomedisengaged with the undergraduate engineering curriculum.3 Increasingly, engineering is being integrated into pre-college education. Learners in theearly stages of their education are often fascinated with the hands-on, experimental aspect
Session 2548 A Computer Engineering Technology Concentration for a Master of Science in Engineering Technology Dean Lance Smith, Robert Douglas, Ron Day The University of MemphisAbstractThe addition of a Computer Engineering Technology concentration to an existing Master ofScience in Engineering Technology has been proposed for The University of Memphis. Theproposal is based on both student and employer demand. No new resources are needed to add theconcentration, but resources may be needed later if demand exceeds expectations.I. IntroductionThe University of Memphis
/softwareare covered. The final two weeks are dedicated to student-initiated experiment-design projects.For pedagogical reasons, the problem-based learning (PBL)2,3 was adopted for this course. WithPBL, students are empowered to self-direct their educational experience by designingexperimental systems and/or subsystems against given specifications. It is an instructionalmethod which uses real-world problems to facilitate students’ critical thinking and problemsolving skills while accomplishing the course objectives. Students get involved and takeresponsibility for their learning experience, and the instructor becomes a resource. The purposeof implementing PBL is to motivate the student to integrate and utilize their knowledge. In thisinstrumentation
) is a preferred teaching method in many situations.Generally this pedagogy enhances innovation (Lehmann, et al 2008), metacognition (Downing etal, 2008), meaningfulness and thus engagement (Stobral, 1995, Smith et al, 2005, Jiusto &DiBaiasio, 2006), promotes an integrated curriculum (Froyd & Ohland, 2005, Coyle et al, 2006),encourages design thinking (Dym et al, 2005), and is creative and interesting for the instructor.The PBL pedagogy uses an open-ended ambiguous problem or project to provide context forstudent’s inductive reasoning. In project based learning the project is usually larger than inproblem based learning, spanning a week or more in instructional time. Often a large project, ifcorrectly selected, can also match with a