Learning byExploring. Each of the above teaching architectures applies directly to computational designteaching and is illustrated later in this paper. While there is still debate regarding the exclusivity of the ELT approach (whether itcovers all possible situations), there are plenty of cases where adopting it could become aneffective tool to enhance educational experience, particularly in early years of college education.Examples of curricular activitiesThe basis for defining a successful program for first-year students is not whether it is digital oranalog based, but rather how the curriculum connects to the students’ already possessedknowledge and their ability to build on this knowledge. That said, more and more incomingfreshmen are
Proceedings of the 2007 Middle Atlantic Section Fall Conference of the American Society for Engineering Education 1 Spacecraft Systems Engineering Courses for Traditional Engineering Curriculum Chang-Hee Won, Department of Electrical and Computer Engineering Temple UniversityAbstract Systems engineering is an important skill for future engineers. Systems engineering is amanagement technology that allows engineers to effectively design, develop, and deploy large
Learning byExploring. Each of the above teaching architectures applies directly to computational designteaching and is illustrated later in this paper. While there is still debate regarding the exclusivity of the ELT approach (whether itcovers all possible situations), there are plenty of cases where adopting it could become aneffective tool to enhance educational experience, particularly in early years of college education.Examples of curricular activitiesThe basis for defining a successful program for first-year students is not whether it is digital oranalog based, but rather how the curriculum connects to the students’ already possessedknowledge and their ability to build on this knowledge. That said, more and more incomingfreshmen are
prescriptions. The “rule of three” is followed, which states that every topic should be presented geometrically, numerically, and algebraically. A symbolic mathematics application program (MAPLE) is used for complex calculations and graphing.• Multimedia instructional packagesExploring Chemistry and Introduction to General Chemistry, distributed by Falcon Softwaresupplement the standard chemistry textbook. The lecture and laboratory components of the course are integrated to a much greater extent than in the standard curriculum.• A “hands-on” approach that emphasizes in-class experimentation provides the basis for the physics instruction. Computer simulations complement physical experiments. The physics text has a workbook
requirements that must bemet, and objectives that must be optimized. From this came the idea for developing a linear, additive, multi-objective model that identifies the objectives that must be considered when designing a curriculum, and containsthe mathematical relationships necessary to quantify the value of a specific curriculum. This paper presents thedetails of this curriculum evaluation model including the objectives, the mathematical equation for eachobjective, and the incorporation of these values into a computer program. The model can be used in theevaluation of various curricula alternatives, and to conduct sensitivity analysis to better understand theirdifferences. OBJECTIVES OF THE MULTI-OBJECTIVE MODEL The
eTutor – An Interactive Module for Electrical Engineering Curriculum RUBA A. AMARIN University of Central Florida: Dept. of Electrical Engineering and Computer Science Orlando, United States ramarin@knights.ucf.edu ISSA BATARSEH* Princess Sumaya University for Technology Amman, JordanRUBA A. AMARINRuba A. Amarin is with the University of Central Florida, Orlando, FL 32816 USA. Rubareceived the B.S. degree in Electronic Engineering from the Princess Sumaya University forTechnology, Amman
conversations surroundingequity, diversity, and inclusion within engineering education. Specifically, we plan to facilitatediscussion around the following topics/questions:1. What challenges can teachers/researchers expect while covering complex social justice issues, like disparities in organ transplantation?2. How might this curriculum design (or curriculum in general) more effectively leverage students’ funds of knowledge and foster the development of engineering identity?3. How might authentic engineering practices (e.g., developing models, analyzing data, using math/computational thinking) be further incorporated into learning about the social justice aspects of science topics?We expect these topics to yield productive and engaging
contacthours, with 3-credit hours. The course instructions closely follow the Excellence in CivilEngineering Education (ExCEEd) Teaching Model [12]. Since the course is taught in thelecture/lab format, there is ample time and opportunity for active, hands-on learning during theclass period. All instructors require attendance, take roll, and for students who have an excessivenumber of unexcused absences, there is a grade reduction outlined in the syllabus.Figure 1 shows the DSESA course within the undergraduate Civil Engineering curriculum. Amore readable Civil Engineering Curriculum Flowchart shown in Figure 1 is available inAppendix 1. The direct prerequisites for the course are Statistical Methods or Statistics withCalculus, Computational Tools for
GLOBALIZATION AND PRODUCT DESIGN CURRICULUM IN ENGINEERING PROGRAMS Devdas Shetty1 and Seong J. Choi2 1 Professor and Vernon D Roosa Chair holder University of Hartford, Connecticut 06117 (USA) 860- 768-4615; Shetty@hartford.edu 2. Professor of Mechanical Engineering, Korean University of Technology and Education, South KoreaAbstractToday products are manufactured and marketed globally and supply chains have dominated themanufacturing landscape. Most companies have much wider product ranges. These
Session 2315 Suggested Topics for a Civil Engineering Curriculum Jose M. Roësset, James T. P. Yao Texas A&M University at College StationAbstractAs continued developments in computer hardware and software provide us with moreefficient means to carry out cumbersome computations and with enhanced means ofcommunication and information transfer, the role of civil engineers must change. Thecurrent civil engineering curricula at most universities are no longer appropriate to produceleaders of our society in the 21st century. If engineers want to maintain a prominentposition in society a new
Session FA4-4 Innovative CAD/CAM Curriculum for Industrial Technology Programs Dr. Farzin Heidari Industrial Technology Department, Texas A&M University--Kingsville AbstractThe CAD/CAM process integrates the geometry, toolpath and the G-code program to create apart on a milling machine. Three different steps are taken for a CAD/CAM process. First thegeometry for the part is created as a CAD file. The second step is to create a toolpath byassigning a cutting option to a section of the drawing. Each selected toolpath has its ownparameters. The result
Session 3617 The Context of Change in Engineering Curriculum Fazil T. Najafi and Paul Kaczorowski University of Florida/Florida Department of Transportation Introduction The current world-wide trend in engineering education has been to identifi the il.mction of engineeringeducation and knowledge as the product of its universities with the public and industry as its customers andengineering graduates as its product carriers. It is the aim of engineering colleges to provide their students
syllabus, which is very ambitious, makes the taskof delivery of education very difficult and thus creates a challenge for which we are preparing ourselves and ourgraduate students, who will, in turn, help the students in the physical and computer laboratories. The difficultiesarise due to the fact that we plan to use equipment and software which are not routinely used in the currentengineering curriculum. These include not only state-of-the-art particle instrumentation for characterization,mixing and flow property measurement, but also image analysis and video animation equipment. We must alsoteach the students the use of associated software. The current curriculum does not have the infrastructure toaccommodate this, and our challenge is to
team of professors using acombination of traditional lecturing and alternative instructional methods including cooperative learning,activity-based class sessions, and extensive use of computer simulations. A single computer-equippedclassroom that accommodates 36 students serves for all class meetings (except for chemistry wet-labs). Thispaper outlines the approach used to develop and teach the curriculum and proposes necessary conditions formultidisciplinary team teaching to be effective.Faculty Roles and Tasks One faculty member (RMF) serves as overall project coordinator and instructor in the first-semesterengineering course. Another (JEG), who is fully supported by the project funding, takes principalresponsibility for student
modeling, advanced assemblies and drawing creation. Many parts arecreated and several quizzes are given. Assessment of these activities by the instructor includevisual inspection, following specifications and orientation of the parts.A decision was made to hold off on offering students the free CSWA certification exams untilthe students became more proficient with the software. It was decided among faculty to offer thecertification as the final exam during the second-level graphics course MECET 226 Computer-Aided Design. This would give students time to become familiar with Engineering Graphicspractices while also learning the software. No curriculum changes were made beforeadministering the first CSWA exam in the spring of 2011. The results for
standards for accreditation so that a facilities management program'soutcomes can be measured by how well core competencies are being demonstrated. Eachprogram is encouraged to retain its uniqueness while providing the basic curricular structureneeded to assure that graduates are prepared for real-world careers in facility management.3After initial meeting with local IFMA representatives, the faculty from CPM program anddepartment of engineering and engineering technology of college of professional studies anddepartment of computer information systems and department of management of college ofbusiness worked together created initial curriculum layout. The initial curriculum was submitted Proceedings of the 2019 Conference for
associated with integrating alarge wheel loader simulator into its construction education curriculum. The results of the studywere used to evaluate the learning potential from the use of equipment stimulators and to identifyconstruction courses that may benefit from their incorporation.Caterpillar Virtual Training SystemThe Caterpillar Virtual Training System (VTS) is a personal computer (PC) based equipmentoperator training simulator used to train inexperienced operators in the basic skills associatedwith a general family of equipment1. The VTS is comprised of a personal computer running thereal-time 3D simulation application, a virtual display system, OEM equipment controls, and canbe augmented with an OEM operator seat to increase realism
knowledge gairmd through research at TTU has assisted inspecifying wind load provisions of ANSI A58. 1-1982 and ASCE 7-88 (1990). These national standards areused by professionals across the country.Kiesling et. al. (1995) discusses how these research results were translated into practice. III. COURSEWARE OBJECTIVE The results of the wind engineering research accomplishments (as mentioned in the previous section)need to be transferred to the curriculum of the departments involved in wind engineering, such as Civil andMechanical Engineering, Atmospheric Science, and Architecture. This objective is being achieved bydeveloping educational modules, using the latest multimedia computer technology and wind
Page 24.1354.1 c American Society for Engineering Education, 2014 Utilizing Rep-Rap Machines in Engineering CurriculumIntroductionIn this ABET accredited manufacturing engineering program, the lead author has been teachingthe Rapid Prototyping and Reverse Engineering course for 8 years at Robert Morris University(RMU). The basic curriculum has been well set other than the new developments. The newdevelopments are added to the course content on an annual basis due to the dynamic nature ofboth fields. In addition, the laboratories have been equipped with multiple relevant technologiesincluding Stereolithography (SLA Viper), Fused Deposition Modeling (Dimension Elite), and3D Printing (Prometal RXD
Page 4.380.1materials, and academic scholarships.The program focuses on community building and utilizes undergraduate student role models,while the curriculum focuses on engineering design, technical communication, and includes avery unique design project. The program content and curriculum are designed to prepare thestudents for success in the CEAS’s engineering program. This overall objective is accomplishedby implementing five curriculum goals, which are:1. Build community among the participants and current engineering students.2. Introduce participants to computing at ASU.3. Introduce participants to engineering and more specifically incorporate: • engineering documentation and design projects • team building and team competition
Page 4.381.1materials, and academic scholarships.The program focuses on community building and utilizes undergraduate student role models,while the curriculum focuses on engineering design, technical communication, and includes avery unique design project. The program content and curriculum are designed to prepare thestudents for success in the CEAS’s engineering program. This overall objective is accomplishedby implementing five curriculum goals, which are:1. Build community among the participants and current engineering students.2. Introduce participants to computing at ASU.3. Introduce participants to engineering and more specifically incorporate: • engineering documentation and design projects • team building and team competition
Paper ID #37524Addressing Business Research Needs in the Engineering CurriculumMs. Hyunjung Lee, Cornell University Hyunjung Lee is a Research and Instruction Librarian in the Engineering Library at Cornell University. She earned her M.S. in Computational Sciences from Marquette University, an M.S. in Environmental En- gineering from the University of Kansas, and a B.S. in Civil Engineering from Minnesota State University, Mankato. At Cornell, Hyunjung is the library liaison to the following departments: civil and environmen- tal engineering, earth and atmospheric sciences, computer science, and information science. As
workshop representing approximately a 45% of the faculty.- Once the Committee for Competences had advanced significantly in its job, so that the curricular change process was adequately settling in every Department and Center, another 14 committees were created focusing on the analysis and propositions in specific areas of teaching in Engineering; these were: o Mathematics and Physics o Chemistry and Biology o Computers Programming o Methodologies for teaching - Learning o Innovation and entrepreneurship o Service learning and social responsibility o Design o Graduation mechanisms o Undergraduate – graduate articulation o ABET 2000 processes o Financial impact of the new curriculum o Communication strategies for the national media
Session 2793 Academic Threads - Curriculum Integration for Specific Capabilities Michael P. Deisenroth, Brian M. Kleiner, Russell D. Meller, Sonya Mook Grado Department of Industrial and Systems Engineering, Virginia Polytechnic Institute and State University, Blacksburg, VirginiaAbstractThis paper will begin with a discussion of learning objectives and illustrate their applicationwithin a number of different basic courses in industrial and systems engineering. It will thenintroduce the notion of “Academic Threads” and present a number of different situations
the Program of Mathematics and Statistics at Louisiana TechUniversity with research interests in ordered sets, graph theory and computer science. In the integratedengineering curriculum his task is to develop course materials and to align content to facilitate better interactionbetween all courses. Dr. Schroeder earned the Vordiplom in Mathematics and Physics at the TechnischeUniversitaet Berlin in 1988, the MS in Mathematics at Kansas State University in 1989 and the Ph.D. inMathematics in 1992.JENNA P. CARPENTERJenna Carpenter is the Interim Academic Director of Chemical and Industrial Engineering at Louisiana TechUniversity, as well as an Associate Professor in the Mathematics and Statistics Program. Her research interestsinclude quadratic
. Page 17.30.1 c American Society for Engineering Education, 2012 INTERNATIONAL COLLABORATION IN CURRICULUM AND LABORATORY DEVELOPMENT Dr. K. P. Isaac Member Secretary, All India Council for Technical Education, India kpisaac@yahoo.comAbstract The aim of any country‟s higher education system is sustainable developmentand achieving higher growth rates. India aims to increase the higher educationenrolment rate from about 12 percent at present to 30 percent over a decade. Technicaleducation at all levels in India is witnessing a consistent growth by establishing newinstitutions, addition of courses and increase in seats
Technology (SES) Beth McGrath is Executive Director of the Center for Innovation in Engineering and Science Education at Stevens Institute of Technology.Mr. Jason Sayres, Stevens Institute of Technology Jason Sayres is responsible for teacher training and developing Internet-based curriculum materials. He has a B.E. in Engineering Physics from Stevens Institute of Technology and an M.S. in Applied Physics from Columbia University.Karen A Peterson, EdLab Group Karen A. Peterson, M.Ed. is the Chief Executive Officer for the EdLab Group. Currently, she is the Prin- cipal Investigator for the National Girls Collaborative Project, SciGirls – A New National TV Series, the Computer Science Collaboration Project, Bio-ITEST
. Also, sample inadequacies andcurriculum observations are listed.Table 2: Sample work and curriculum notesAcademic Work related to Program CurriculumStanding Outcome 1. Computer aided design 6 3-D needs more coverage 2. Product inspection 1 good 3. Documenting safety 7 adequatesophomore procedures and codes 4. Dimensions and 6 weak/could be enhanced tolerances 5. Testing 5 good 1. Design of experiments 3,5
programs) (4 programs) (10 programs) Min Average Max Min Average Max Min Average Max 126 129.3 136 193 197.8 203 158 162.2 167 With regards to required courses, the analysis of the national AE curriculum is divided intofive general areas: (1) mathematics and science (including computer science), (2) generaleducation, (3) architecture, (4) engineering, and (5) other (including technical electives). Theseclassifications are based on five general areas identified by ABET for accreditation ofarchitectural engineering programs. The information was collected by analyzing the publishedcurricula of the seventeen different programs. Table 3 lists the
AC 2010-1121: THE ENACTED CURRICULUM: A VIDEO BASED ANALYSISAmy Prevost, University of Wisconsin, Madison Amy Prevost is a graduate student in Education Leadership and Policy Analysis at the University of Wisconsin-Madison. Her research has focused on the STEM career pipeline, especially related to engineering and engineering education and biotechnology.Mitchell Nathan, University of Wisconsin, Madison Mitchell J. Nathan is Professor of Educational Psychology, Curriculum & Instruction, and Psychology, in the School of Education at the University of Wisconsin-Madison, and Chair of the Learning Sciences program. He is a research fellow at the Wisconsin Center for Education Research