a larger scale. We also recommend a curriculum for undergraduate course of Data Mining.Our proposed curriculum has been inspired with the work by Chakrabarti et. al. [3], but we areconsidering new concepts such as big data analysis in this study.The Rationale for Teaching Data MiningTo justify including Data Mining courses in undergraduate Computer Science programs weconducted an investigation into fields of study that have demand for graduates to have datascience skills and experience. We chose six different majors listed below and searched for jobsrelated to that field on employment websites like Indeed, Ziprecruiter, and Workopolis. For eachmajor we found ten different job offerings that required a degree in the field of study and for
. Undergraduate preparation in engineering should notreduce fundamentals in statics, strength of materials, dynamics, thermodynamics,electrical science, fluid mechanics, and design to provide competent preparation inecology and biology. An advanced degree is required to obtain these additional skills.An ecological engineering curriculum should be composed of an undergraduate degree(or equivalent) from an Accreditation Board of Engineering and Technology (ABET)-accredited engineering program, and a Master of Science or Doctor of Philosophy degreein ecological engineering. The undergraduate degree should provide a substantiveunderstanding of physical, biological, and chemical processes. Students from non-engineering undergraduate programs should be
graduates to apply experimental methods in the development of newprocesses and products. In a larger, research-oriented engineering university, this change inemphasis may simply result in collaborative efforts between the physics and engineeringdepartments, and local industry. In a more isolated regional university the supportingengineering college structure often does not exist. This paper discusses the evolution oflaboratory experiences in the Engineering Physics program at Murray State University (MSU)involving applications from both mechanical and electrical engineering.Refinement of the MSU Engineering Physics curriculum and subsequent ABET accreditationilluminated the students’ need for applied mechanical and electrical laboratory experiences
Framework for Sustainability Practices in Construction Education Curriculum using BIM Jin-Lee Kim, Ph.D., P.E., LEED AP BD+C Department of Civil Engineering & Construction Engineering Management, California State University Long Beach, 1250 Bellflower Blvd., Long Beach, CA 90840 - U.S.A Email: jinlee.kim@csulb.eduAbstractThis paper presents a framework to develop a unique and innovative virtual approach in order todeliver sustainability practices using Building Information Modeling (BIM) technology forundergraduate students and implement it as a new hands-on laboratory- and project-based coursein the
learning environment, and incorporating the use of information technology in theteaching/learning process. In the first two years of Project Catalyst, a core group of faculty fromall five engineering departments at Bucknell University has begun implementing this focusedshift by systematically incorporating collaborative and problem-based learning into their courses.This emphasis has required a coordinated effort to introduce significant elements of teambuilding and problem solving into the undergraduate curriculum.This paper discusses a conceptual framework for progressively developing students' problemsolving and team skills across the curriculum. The framework is modeled after the university'swriting program and identifies introductory
, Electrical &Computer and Mechanical Engineering were established originally in 1996. Two additionaldepartments have since been added to the College: Biomedical Engineering (fall 2014) and theEngineering Entrepreneurship Program (to begin fall 2016).The College implements the use of innovative methods of teaching and learning to preparestudents for entry into a rapidly changing and highly competitive marketplace (Marchese et al.,1997; Newell et al., 1999; Dahm and Newell, 2001). The major hallmark of our Rowanengineering program is a unique common class known as the Engineering Clinics. Theengineering clinic class is integrated throughout the entire curriculum for eight semesters. Allfive engineering departments of Biomedical, Chemical, Civil
Paper ID #26492An Integrated Social Justice Engineering Curriculum at Loyola UniversityChicagoDr. Gail Baura, Loyola University Chicago Dr. Gail Baura is a Professor and Director of Engineering Science at Loyola University Chicago. While creating the curriculum for this new program, she embedded multi-semester projects to increase student engagement and performance. Previously, she was a Professor of Medical Devices at Keck Graduate In- stitute of Applied Life Sciences, which is one of the Claremont Colleges. She received her BS Electrical Engineering degree from Loyola Marymount University, her MS Electrical Engineering
andcomputer science). While some schools are adding programs in mechatronics and robotics, this isnot always feasible. An alternative is to increase exposure to programming and electrical contentin traditionally mechanical engineering courses, such as through the incorporation ofmicroprocessors across the curriculum.This work investigates the incorporation of microprocessors (specifically Arduinos) into theMechanical Engineering curriculum. The goals of this effort are to increase students’ familiaritylevel with microprocessor capabilities, to increase exposure to mechatronic systems, to allow forhigher fidelity prototypes in class projects, and to provide an accessible and inexpensive way forstudents to explore applications of what they learn in
. Page 24.963.1 c American Society for Engineering Education, 2014 Organ-izing the curriculum with hands-on, biomedically- related learning modulesABSTRACT The relatively new discipline of biomedical engineering emerged from informal collaborations be-tween engineers, physicians and life scientists, and is the fastest growing engineering discipline at mostuniversities. Chemical, mechanical, and electrical engineers play an important and expanding role in thisburgeoning field because the fundamental core principles of each discipline are critical to biomedicalmainstays such as the design of artificial organs. This project introduces hands-on, biomedically
theirstudents with tools to continue to learn new tools and strategies throughout their professionalcareer, many experience difficulty determining methods to measure how well their curriculainstill lifelong learning attributes. The Engineer of 2020 discusses “the imperative for engineersto be lifelong learners,” noting that technology changes rapidly and that engineers frequentlychange careers.2Litzinger et al. noted that lifelong learning can occur in two modes: formal and informal. Theformal mode includes university courses, and the informal mode refers to learning that takesplace naturally as an individual learns to accomplish a task3. We believe that project-intensiveeducational experiences provide fertile ground for practicing both modes of
engineering students to complete assignments or a project involv-ing bio-inspired design to practice the technique and demonstrate its value. Integration occurs atthe freshman through senior levels, in a variety of departments, and depends primarily on whenengineering design is offered in the curriculum. Consequently, varying levels of instruction andsupport are provided to the students, and many rely on the resources provided by the BiomimicryInstitute, such as the database AskNature.org. This points to the lack of engineering-focused,evidence-based instructional resources that are available to faculty who wish to integrate bio-inspired design into their courses.2. Research Approach Our plan to develop and test instructional resources for
aerospace engineering that encompasses both theoretical analysis and experimental inves- tigations such as designing and testing of propulsion systems including design and development of pilot testing facility, mechanical instrumentation, and industrial applications of aircraft engines. In the last eight years, Dr. Husanu gained experience in teaching ME and ET courses in both quality control and quality assurance areas. Dr. Husanu has addressed a broad spectrum of students. After instructing various levels of education, she was granted experience in thermal-fluid, energy conversion and mechanical areas. She also has extensive experience in curriculum development.Dr. Radian G Belu, Drexel University (Tech.) Dr. Radian
interests include the areas of reconfigurable computing, analog circuit design, and semiconductor testing.Mukul Shirvaikar, University of Texas at Tyler Dr. Mukul Shirvaikar is the Chair and Professor of Electrical Engineering at the University of Texas at Tyler, where he develops curriculum and laboratories in computer engineering. Prior to this he worked at Texas Instruments specializing in real time imaging systems. Dr. Shirvaikar graduated with his doc- torate from the University of Tennessee. He also has a M.S. degree from the University of Maine, and a B.Tech. from Banaras Hindu University, India. His current research interests include real time imaging and engineering education
Engineering Education, 2016 Preliminary Work on Weaving Professionalism Throughout the Engineering CurriculumI. IntroductionA diverse team of educators are redefining what it means to teach and learn in an Electrical andComputer Engineering (ECE) department, along with the processes and value systems throughwhich people become engineers.26 As one of six schools charged by the National ScienceFoundation with revolutionizing engineering and computer science education for the nation, thispaper describes how the project team is paving the way to change through organizational andpedagogical innovations that empower multifaceted faculty teams to embed professionalismthroughout the curriculum. Working in close
manufacturing. This is supposed to help to enhance the students’understanding of complex concepts, such as automated machine tools, and the numerical controlof the motions of automated machine tools, and also help training students in these operationswithout actually working on these tools. The interest in virtual reality applications is not limitedto the United States as it is shown by Mendez et al.[7]. They describe the Gironacel project, whichis a virtual learning environment produced by the University of Girona in Spain for qualitymanagement courses within engineering schools to understand, for example, how to implementthe ISO 9001:2000 standard in a practical way. They created a virtual company, Gironacel, andexplain how this new tool was designed
required core course every semesterwith a S-L project that is either a required or elective part of the course. During 2005-06fourteen core ME courses had S-L projects, and a required engineering ethics course alsohad S-L in addition to four elective courses. Nine of twelve ME faculty membersincorporated S-L in those courses (more recently 12 of 13), in addition to 3 facultyoutside the department teaching courses for ME students. This initiative is part of acollege-wide effort to have all five undergraduate programs have S-L integrated into thecore curriculum (ECE, ChE, CE, and Plastics E).Courses and projects included, for examples, introduction to engineering for first yearstudents (common to students in all five programs) who designed and built
Paper ID #10842Mapping the curriculum around student learning outcomes and assessmentof learningDr. Ihab Mohammad Hamdi Saad P.E., Northern Kentucky University Dr. Ihab Saad is Department Chair and Professor of Construction Management and an alumnus of the University of Kentucky in Lexington where he received his Ph.D. in 1996 from the department of Civil Engineering and Construction. He has over 25 years of experience in the construction industry primarily in the civil/construction project management area. Dr. Saad received his Bachelor of Science and Master’s degrees in Civil Engineering from Cairo Uni- versity in
Paper ID #38323Integrating Equity in the Systems Engineering Curriculum: A Pilot StudyDr. Julie Drzymalski, Temple University Julie Drzymalski is a Professor of Instruction and Director of the Industrial and Systems Engineering program. Her teaching interests lie in the areas of operations research and systems modeling. Current re- search pursuits are in the application of complex adaptive systems modeling to areas such as supply chains and human centered systems. Previously held industrial positions include various quality engineering, project and program management positions in the construction industries of the greater
Paper ID #27263An Integrated Four-year Hands-on Design Curriculum: A Case StudyDr. Emad W. Jassim, University of Illinois at Urbana-Champaign Dr. Emad W. Jassim is an Assistant Dean for Undergraduate Programs in the College of Engineering at the University of Illinois at Urbana-Champaign. Prior to this position he was the Director of Under- graduate Programs at the University of Illinois at Urbana-Champaign Department of Mechanical Science and Engineering (MechSE) where he also served as Chief Advisor, Senior Design Project Coordinator, and lecturer of thermal/fluid science courses. He received his BS, MS, and PhD from the
environments, andpublic health, who are as well versed in professional skills as they are in technical skills is thechallenge we face as engineering educators.This paper describes a new civil engineering curriculum designed to meet these challenges. Ournew curriculum, that was the result of a multi-year effort, is centered around a “design spine”.The design spine, series of eight courses, is expected to improve the development of professionalskills, improve fluency with data analysis and computing skills, improve critical thinking skills,and integrate systems thinking through project-based learning. The design spine helps connectand integrate the separate subdiscipline courses typical of most civil engineering curricula as asystem of systems.The
American Chemical Society, American Society of Microbiology and American Society of Engineering Education. In addition to teaching and research, Professor Brigham serves on the Wentworth Faculty Senate and the Biological Engineering ABET and Curriculum Development Committee.Dr. Afsaneh Ghanavati, Wentworth Institute of Technology Afsaneh Ghanavati received the B.S. degree in electrical engineering from Shiraz University, Iran in 1998, and the M.S. and the Ph.D. in electrical engineering from Northeastern University, Boston, MA in 2012 and 2018 respectively. She is currently an assistant professor in the electrical and computer engineering program, school of engineering at Wentworth Institute of Technology. Her present
outside our traditional service area. We havehad considerable success in delivering Applied Project Management via our own CART CMS Page 12.522.3and wanted to explore the possibility of using it more extensively throughout the curriculum.This expansion of web-based delivery presents obvious and not so obvious challenges particularto the delivery of an MIET Online curriculum. We are in the process of critically analyzing theadvantages and disadvantages of such program delivery.2. MIET Online Admission RequirementsTo enter our program a student must be 21 years of age and have completed an associate degreeor the equivalent from an accredited
SWJTU in China were collected and presented in Table 2. This table lists onlythe courses that are directly related to English writing or Technical Writing. It amounts to 10credit hours in total, out of 180 credit hours to graduation. The links of the course paths related tothe full curriculum of SWJTU are given in reference 13. Table 2. English Writing Course Paths of Engineering Departments at SWJTU Dept. Civil Mechanical Electrical Computer Engineering Engineering Engineering Engineering Semester 1st Semester English I-4 English I-4 English I-4 English I-4 2nd Semester English II-2
collaboration will have a breakthrough due in part because compactand easy-to-use CoBots will drive the market (Executive Summary World Robotics, 2016). WithCoBots expected impact on productivity and workers’ safety (Ding et al., 2013; Akella et al.,1999), it is imperative that higher education institutions incorporate this technology into learningprograms for a career-ready workforce.This paper describes an advanced, industry-driven, hands-on learning environment andeducational curriculum focused on collaborative robotics and the integration of the technologyinto advanced manufacturing systems. A hand-on CoBot learning environment has been and iscurrently being created, which will be incorporated into three different courses at Wayne StateUniversity
Paper ID #20016Culturally-Relevant Engineering Design Curriculum for the Navajo NationDr. Shawn S Jordan, Arizona State University, Polytechnic campus SHAWN JORDAN, Ph.D. is an Assistant Professor of engineering in the Ira A. Fulton Schools of En- gineering at Arizona State University. He teaches context-centered electrical engineering and embedded systems design courses, and studies the use of context in both K-12 and undergraduate engineering design education. He received his Ph.D. in Engineering Education (2010) and M.S./B.S. in Electrical and Com- puter Engineering from Purdue University. Dr. Jordan is PI on
Cyber Tutor System into Engineering Education". Proceedings of the 2014 ASEE Annual Conference and Exposition. Indianapolis, Indiana [4] Ranjeet, A.; Robert, A. C. "Facilitating Additive Manufacturing Engagement and Outreach". Proceedings of the 2015 ASEE Annual Conference and Exposition. Seattle, Washington. [5] Lisa Denny, C. et al. "RET Project in Additive Manufacturing. Proceedings of the 2011 ASEE Annual Conference and Exposition. Vancouver, British Columbia. [6] Ananda M, P. "Realizing Proof of Concept in Machine Design with 3d Printing". Proceedings of the 2015 ASEE Annual Conference and Exposition. Seattle, Washington. [7] Kee, M. P."Design and Fabrication of an Electric Go-Kart Using 3D Printing
rationale for thetransition to engineeringThe new Department of Engineering and Design created at WWU has three engineeringprograms in Manufacturing, Plastics and Composites, and Electrical Engineering. Theseprograms were created from their technology equivalents as part of the decision packageapproved by the Washington State legislature in 2013. In addition to these, the department has aprogram in Industrial Design and another in Industrial Technology-Vehicle Design. The rationalefor this transition was to create a new source of engineers for the state to take advantage ofexpanding opportunities in the aerospace industry. The curriculums of the technology programswere both highly “hands on” with sufficient rigor in mathematics, science and
Institute of Technology, University of Virginia, University of Cincinnati, Raytheon, andArthur D. Little has developed a new digital system design curriculum and supporting courseinfrastructure in the form of an electronic archive of instructional material – course modules,labs, projects, and interactive educational CD-ROMs. Included in this electronic archive ordigital library are over 200 hours of instructional material suitable for immediate insertion atthe undergraduate and graduate levels. To date, over 80 educational institutions have obtainededucational material developed by the RASSP E&F team. In this paper, we present the technicalgoals and rationale, including an Educational Maturity Model (EMM), motivating our efforts.Additional
. Data-setdevelopment for these exercises is also discussed. MATLAB and the Image ProcessingToolbox are utilized to allow students to focus on higher-level understanding ofcommonly available image processing tools. The use of advanced tools allows students toattempt and finish meaningful examples. This paper focuses on exercises that serve as auseful complement to robotics curriculum and student robotics projects.1. IntroductionThis paper describes a single semester computer vision course tailored to fourth yearundergraduate students with strong engineering backgrounds and moderate computerprogramming skills. The students referred to in this paper are in the Weapons andSystems Engineering department at the United States Naval Academy. They have
Computer Science (SETCS), we continue to increase the number andimprove the quality of course offerings. A primary goal of the program is to provide anon-line curriculum that remains TAC-ABET accredited by conforming to TAC-ABETrequirements to ensure the quality of the on-line ARET courses. Development,applications, and testing of our course delivery method are addressed. The curriculumhas been designed to operate in our own interactive web-based environment forsubmission of coursework; concept diagrams, drawings, reports, assorted forms, andprogramming. Project submissions will be uploaded through our own CART CourseManagement System (CMS) for review, grading, and posted to the CMS for the studentto review. Students provide feedback evaluation