importantbecause it involves removing the data when it is no longer necessary. The sixth principle to theGDPR standard is being able to maintain the integrity and confidentiality of the data [7].The most salient feature of the curriculum is that it is aligned with industry needs and standards.It will have collaborations with outside agencies and experts in the field to provide the studentswith better learning outcomes. Several agencies and standards are already being considered,including, Palo Alto, Red Hat Academy, and Amazon Web Services.CONCLUSIONAs cybersecurity is on the rise in today’s world, we need a lot number of professionals withexpertise in security tool design and development. The computer security curriculum is developedwith the state-of-the
advancedparallel computers, is an essential component in the establishment of our industry’s competitive edge.In response to this need, faculty in the Colleges of Engineering, Science, and Earth and Mineral Sciencesat the Pennsylvania State University have combined to develop a curriculum in advanced computationthat emphasizes the capabilities and uses of parallel computers. The goal and method of approach canbe summarized as:Goal: - To train undergraduate and graduate students in advanced computation with an emphasis on the capabilities and uses of parallel computers.Approach - Through the introduction of a sequence of courses at the senior and introductory graduate level in advanced computation; through the development of software demonstrations
human variability into account during userinterviews, but not applying those insights into mathematical models that determine how theactual product is shaped and manufactured. How might instructors integrate inclusive practicesinto these courses without adding even more material into content-packed classes? This work inprogress paper presents an ongoing case study as one attempt to answer that question.Our setting: transforming a middle-years course at a research-centric institutionOur case study occurs in a required undergraduate course in biomedical engineering at a largepublic research-intensive university. The course, which we will call Conservation Principles forthe purposes of this paper, is typically taken in the second or third year and
of whatthey will find in their courses. Page 2.133.3ConclusionsDesign can be an integral part of every course in the curriculum. Using it to show correlationsbetween what is taught and what will be encountered in the real world gives the student the toolsto continue to accept the educational system as a valuable activity. Allowing students to quicklyformulate plans and even more quickly build the designs in in-class activities gives them thechance to see design at work and keeps alive the connection with other courses.Out-of-class design activities allow students to create within environments of their ownselection. Working together in
prerequisite course. To test the validity ofthis assumption, the faculty of the Mechanical Engineering Technology Department (MET) atIndiana University - Purdue University, Indianapolis (IUPUI), instituted, in the fall of 1999, areview test for students beginning a Thermodynamics II course. The test was made up of sixquestions on basic differential and integral calculus and four questions on basic thermodynamics.These represented the course’s two prerequisites and all questions were multiple choice. Theaverage scores for the students over an eight semester period were 46.6% for the mathematicsand 38.3% for the thermodynamics, with a 43.3% overall. Clearly, retention has been limited. In the fall of 2001 the MET Department instituted a
participants in a technicalcultural sharing setting 35. Ideally developing consensus as a result of pursuing inquiry-basedinvestigations. Over the course of three months, one urban school was studied, and in particular,one classroom Grade 5 (N=31) where engaged in modeling activities that were a) designedaround a modeling pedagogy, b) leveraged graphic modeling tools to make sense of phenomenaat the microscopic level, c) integrated within their existing curriculum, and d) all within a mixed-ability classroom setting. The teacher was self-selected based on an earlier two-year GraphicallyEnhanced Elementary Science study, where graphic-modeling tools were designed to supportstudent representational practices in their science notebooks. This qualitative
-: I2 + I- ↔ I3- (3)The concentration of the I3- ion can be measured accurately with spectrophotometry and Beer’slaw. Thus, the yield of reaction 2 is readily determined. Consequently, this reaction was deemedsuitable for an undergraduate experiment because it meets several important criteria: • The reagents are cheap and reasonably safe, with water acting as the solvent. • Quantitative results can be obtained with a fairly simple analytical method. • The kinetics are known10. • Imperfect mixing has an effect on product distribution that is straightforward to quantify and explain.The experiment will be integrated into a junior course on Chemical ReactionEngineering in the Spring 2002 semester
Session 1526 Field Experiences in the Engineering Curriculum Jess Everett, Linda Head, Beena Sukumaran, Joseph Orlins and Kauser Jahan Rowan UniversityABSTRACTField methods are an important part of engineering often neglected in the undergraduatecurriculum. Through the National Science Foundation’s Course, Curriculum, and LaboratoryImprovement (CCLI) program, the College of Engineering at Rowan University is creatingopportunities for undergraduate students to carry out engineering field activities as part oftraditional courses and Engineering Clinics. Faculty from Civil and Environmental (CEE
, provide differentlevel of quality awareness and methodologies used in engineering. Basically, the programs sharethe offering and introduce simple concepts of quality through courses like Probability andStatistics, and Manufacturing Processes. Some of the programs go further and include SPC andsimilar introductory topics.As a faculty member in an Engineering Technology Department, a Six Sigma certified at theMaster Black Belt level, and with years of experience training industrial professionals in SixSigma, I studied the curriculum and analyzed quality components of existing programs. Thisanalysis concluded that the abstract approach that most of the graduates have been throughduring their college education did not help to establish a link to the
assignmentsto be submitted in Mathcad format, instructors within a department can reinforce the utility of theprogram and gradually aide in the development of basic Mathcad skills.Assembling the booklet with faculty input is essential to ensure the problems shown areindicative of those that will be learned in each course. In addition, the booklet provides eachinstructor an easy opportunity to integrate Mathcad into their class. A consistent departmentalapproach using this method will give each student several opportunities to use the program eachsemester. After only a few semesters the utility of the program should be evident to the student.ImplementationThe initial phase of implementation involves developing a list of all the required courses
Paper ID #19636Redesign of Calculus Curriculum in EngineeringDr. Hui Ma, University of Virginia Hui Ma received her Ph.D. in applied mathematics from the University of Alabama at Birmingham in 2012. Her current research focuses on the Errors-In-Variables (EIV) model and fitting geometric curves and surfaces to observed data points. Before joining the University of Virginia (UVA), she worked as an assistant professor at Black Hills State University for two years. In her current role as an APMA faculty member at UVA, she teaches applied math courses to engineering students. Her goals in teaching are to help students
Ergonomics. Dr. Koubek received his Ph.D. in Industrial Engineering from Purdue University. Page 11.954.1© American Society for Engineering Education, 2006 THE NEW CURRICULUM IN INDUSTRIAL ENGINEERING AT THE PENNSYLVANIA STATE UNIVERSITYIntroduction Even though the old curriculum in Industrial Engineering at Penn StateUniversity covers basic tools an industrial engineer should possess, broader applicabilityof these tools in areas such as service processes was not very well covered in thiscurriculum. Based on the feedback received from the current students and alumni, thedepartment faculty decided to modify the
, and the integration of engineering and education.Richard Gilbert, University of South Florida RICHARD GILBERT is a professor of Chemical Engineering in the College of Engineering at the University of South Florida. He is a co-pi on the FL-ATE Center Grant. He has developed educational materials for ISA (Instrument Society of America), AVS (American Vacuum Society) Science Educator’s Workshop, and the National Science Foundation through a grant to develop high school science and math curriculum content. He is currently working with D. L. Jamerson Elementary School to develop curriculum content for its Center for Math and Engineering.Bradley Jenkins, St. Petersburg College BRADLEY
sciencesare taught alongside clinical sciences [4]. This approach has been shown to improve both studentknowledge and clinical skills [5, 6]. In an undergraduate engineering curriculum verticalintegration has previously been used to improve student engagement through concurrent teachingand utilization of the concepts. More specifically, in an engineering design course a combinationof professional, ethical, technical, or communication skills are both taught and used [7, 8]. Vertical integration can give students exposure to design skills prior to a fourth yearcapstone project; yet, it does not inherently provide a context for the experience. Industry,service learning, or academic research could all fill this criterion. Industry or service
to apply therapeutic hypothermia in the event of stroke and heart attack.Dr. Bonnie Angelone, Rowan University Psychology Page 25.814.1 c American Society for Engineering Education, 2012 Integrating the Mechanical Engineering Curriculum using a Long-Term Green Design Project Part 1: The Hybrid Powertrain ProjectAbstractSubjects that are separate in the curriculum, such as thermodynamics and mechanical design, areintegrated in practice, since thermal and mechanical systems must function cohesively in realmechanical systems (e.g. an air
Paper ID #30435Real-World Examples and Sociotechnical Integration: What’s the Connec-tion?Jacquelene Erickson, Colorado School of Mines Jacquelene Erickson is a fourth year undergraduate student at Colorado School of Mines pursuing a major in Electrical Engineering. After graduation in May 2020, she plans to work in electrical distribution design at an engineering firm.Dr. Stephanie Claussen, Colorado School of Mines Stephanie Claussen is a Teaching Professor with a joint appointment in the Engineering, Design, and Society Division and the Electrical Engineering Department at the Colorado School of Mines. She ob
acomponent of our computer programming assessment of first-year engineers from a written finalexam format to an integrated programming project. This project was administered at the end ofthe semester across several sections of a first-year problem solving course that uses andultimately integrates C++ and MATLAB to introduce students to engineering analysis and design.The details of the rationale, project development, assignment types, and final outcomes are setforth in the paper. The intent of this discussion is to provide a working model that othereducators may follow to assist in developing an effective and representative programmingassessment method that can be used by multiple instructors. To that end we will also make ourwork available to other
.Proceedings of the 2002 American Society for Engineering Education Annual Conference & ExpositionCopyright © 2002, American Society for Engineering Ed ucationConclusionsDeveloping a new engineering degree program is a major undertaking for a department andcollege, and requires substantial preliminary work to ensure that critical elements are in place.These include adequate research facilities, a commitment by the University for faculty recruitment,creating an environment fostering curriculum development, establishing laboratory instructionalfacilities, and cultivating the support of interested parties in the University. Over ten years ofexpanding activities and curricula in photonics have led to a proposal for a new MS in Photonicsoffered through
previously studied in certain materials basic to thenew program is not valid. This lack of sequence might result from educational gaps that areinherent within departmental offerings. Therefore, the educator must find solutions that satisfythe educational needs of the students, incorporate the new knowledge, and accomplish all thesewith a restricted number of credit hours.3. Proposed SolutionWe propose the embedded method of instruction. The basic philosophy of this method is thesplitting of an area into sub-areas and introduce the sub-areas into different standard courses thatexist in the curriculum. The material can be incorporated in different forms such as problems,examples, footnotes, text, figures, etc. To investigate the effectiveness of our
2006-371: AN INTEGRATED APPROACH TO A ONE-SEMESTER SHIP DESIGNEXPERIENCE AT USCGATodd Taylor, U.S. Coast Guard AcademyKurt Colella, U.S. Coast Guard Academy CAPT Colella joined the USCGA faculty in 1988. He earned his B.S. in Ocean Engineering from USCGA in 1981. He received MS degrees in Mechanical Engineering and Naval Architecture and Marine Engineering from Massachusetts Institute of Technology in 1985. In 1997 he earned his Ph.D. in Mechanical Engineering from the University of Connecticut. He has been a registered Professional Engineer in the State of New Hampshire since 1991. At the Coast Guard Academy, he has taught a variety of courses in ship design, fluid mechanics, thermodynamics
AC 2012-4700: MEASURING THE EFFECT OF ONLINE HOMEWORKPROCEDURES ON STUDENT EXAM PERFORMANCEAlison M. Knight, Mayo Clinic Alison M. Knight received her bachelor’s degree in Industrial Engineering from Tennessee Technological University. She worked for three years for TranSystems as a simulation analyst. She then received her MSE in Systems Engineering at the University of Alabama in Huntsville. During her graduate studies, she was a teaching assistant and later instructor for undergraduate Engineering Economy courses. She is currently working as a Health Systems Engineering Analyst at Mayo Clinic in Rochester, MN.Dr. Gillian M. Nicholls, University of Alabama, Huntsville Gillian Nicholls is an Assistant Professor of
Paper ID #19538A Journey to Integrate Spatial Visualization into Community College Engi-neering and Technology Programs to Increase Student Diversity and Reten-tionMr. Kenneth Paul Grimes, Tidewater Community College Kenny Grimes is an Associate Professor of Engineering at Tidewater Community College in Virginia Beach, VA. TCC’s Associate of Science in Engineering program produces transfer students that comprise nearly half of the Old Dominion University engineering undergraduate population. Mr. Grimes’ TCC position is a culmination of diverse prior experiences from careers as a powertrain control system engineer at
engineeringcurriculum. To add to this gap in literature, this paper analyzes quantitative responses of genderand sexual minority students’ perceptions of the engineering curricula from the survey conductedin 2018.Relevant LiteratureThe predominant normative marker of science and scientists in the U.S. has historically andcontinues to be based on White cisgender male perspectives [1]–[7]. Not surprisingly, thishomogenous and heterogenous perspective leads to pedagogical practices in which minoritizedstudents underperform compared to when innovative pedagogical models are used, such asflipped classrooms [8], [9]. This long-standing conceptualization of science and scientists alsoresults in an engineering curriculum that deems “issues of communication, justice
require students to understand C (typically learned during junior year) or requirepart of the course to teach coding syntax. In order to introduce robotics and cyber-physicalsystems earlier in the curriculum, we have developed an interface to allow students to remotelycontrol a wireless microcontroller (e.g., Arduino MKR 1010) using MATLAB. This interfacecomprises two halves: 1) a MATLAB class that abstracts UDP commands transmitted over Wi-Fi, and 2) a custom C++ library for receiving, parsing, and responding to commands over UDP,as well as streaming data back to the client. The interface leverages students’ existing knowledgeof MATLAB and bypasses the need for C programming, allowing students to get early exposureto hardware-software
Paper ID #25912Using LEGO Mindstorms and MATLAB in Curriculum Design of ActiveLearning Activities for a First-year Engineering Computing CourseDr. Shelley Lorimer, Grant MacEwan University Shelley Lorimer is an Associate Professor in Engineering (BSEN) Transfer Program at MacEwan Univer- sity. She is an instructor in the introductory engineering courses as well. The BSEN program at MacEwan has grown from forty students since in started almost fifteen years ago, to the current 216 students. The majority of the students in the program transfer to second year engineering at the University of Alberta. Shelley is a graduate of
, which are then evaluatedusing the problem specifications16. During the early concept generation phase, students oftenbecome fixated on their initial concepts, and may prematurely begin evaluation10, 17, 18. Thisresults in a need for pedagogical strategies to aid students in enriching their conceptual designphase. Instructors must understand how concepts are generated, and how tools can facilitate theexploration of potential design solutions.One challenge in teaching concept generation in engineering is that techniques proven helpful inconcept generation may be slow to be adopted by instructors19-21. Thus, in this study, weexplored how an empirically-validated idea generation tool, Design Heuristics, was integrated byengineering instructors in
. Recent revisions of theET program that include the addition of a four-year seminar series focusing on professionaldevelopment and documentation of student workplace competencies / program outcomes wentinto effect for students entering fall semester 2010. Students, as a requirement for graduation,must individually submit integrative and reflective ePortfolios to document with direct evidencetheir intellectual growth and mastery of the ET program’s workplace competencies. Compilationof the ePortfolio contributes to the students’ professional development, and its completion andsubmittal for summative evaluation in the senior seminar is considered a fundamental componentof the capstone experience. The four-year seminar series provides an opportunity
into their courses. Additionally, these extended student outcomes have been mappedto ABET outcomes. To date, project-based learning (PBL) activities have been implemented orare planned in most of the second and third year Bioengineering integrated core classes, as well asseveral of the track-specific courses and upper level elective courses. As we move forward,establishing an effective assessment mechanism to measure student outcomes will be a keycomponent of our continuous curriculum improvement plan.Introduction:The concept of “Vertically Integrated Projects” and “Connected Curriculum” in university settingsis not new. The concepts were originally conceived at Georgia Institute of Technology and theUniversity College of London, respectively
, mainlyminority, computer science and engineering students, we have recently embarked on anambitious and comprehensive transformation of a major sector of our Computer Science andEngineering curriculum, the first stage of which is transforming the means by which major goalsand objectives of three key courses, Data and Information Structures (COSC-3345), DigitalImage Processing (COSC-4333), and Computer Graphics (COSC-4330) are achieved. The goalis to integrate in a rather “fun and games” way basic concepts from mathematics, statistics,signal and image processing, and computer graphics into a real-life game project. The threecourses are meshed synergistically through a well thought-out 2-D/3-D gaming project, which isintroduced in the junior level course
teacher candidate education methods classes provedto be an ideal setting for also delivering the Engineers Serving Education (ESE) curriculum. TheESE coordinator meets at each of the hubs once a month to train the teacher candidates inpresenting the activity. He has the class of teacher candidates for an hour during which time helays the groundwork for the activity and discusses the engineering design process as it relates tothat month’s activity. He then breaks out the materials for the activity and leads the 20-30teacher candidates in actually performing the activity.While doing the activity, the coordinator and the teacher candidates discuss approaches tofacilitating the activity in the K8 classroom and how to modify the activity and desired