, specific criticalskills necessary for success in upper level courses.The consequences are several and can be severe: 1) faculty spend an inordinate amount ofclassroom and mentoring time in upper level courses on remedial rather than advanced skillsdevelopment; 2) student achievement suffers as the cumulative effects of skills not masteredcompounds; 3) retention rates of upper level students are negatively impacted.This paper describes initial activities and results toward development of an innovative on-line,critical skills, intelligent remedial tutorial learning system intended to serve those studentsrequiring extra-curricular learning support to enable their successful matriculation and retentionin upper level courses. This founding work project
the French International Engineering Program and Professor of French at the University of Rhode Island. His research focuses on scientific and professional literature of eighteenth- century France. In addition, he has published on the teaching of French and on the role of experiential education in the language curriculum. His work has appeared in journals including French Review, Aus- tralian Journal of French Studies, Online Journal of Global Engineering Education, and Symposium. His current project is a textbook on French for engineering.Ms. Silke A. ScholzAnette Geithner Page 19.20.1
Library and Fort), Luxor (Karnak temple, several pyramids), CopticChurch, Cairo (oldest mosque, oldest church, and oldest synagogue and several modern andhistorical sites). The Bradley contingent stayed at five-star hotels in Amman (Jordan), on theNile in Luxor (Egypt) and at the American University of Cairo dormitories. All this wasaccomplished with four separate courses being taught concurrently: Nonwestern History,Construction Safety, Water Supply and Hydraulic Engineering, and Company ProjectManagement. Students were exposed to the same topics and for the same length of time as on theBradley campus. Classes were held at partnering universities in Jordan and Egypt, andoccasionally in hotel conference rooms.The course on Company Project
world. While at ASU he has taught more than 40 different courses at the graduate and undergraduate levels in engineering and in social entrepreneurship. He has also worked in industry in both conventional and alternative energy conversion systems. Since 2007 in his capacity within GlobalResolve he has initiated programs and managed in-country student teams from ASU and partner universities in the developing world that have worked on multiple projects. Examples include the design and construction of a microbial fuel cell composting latrine in West Africa, installation of a gelled ethanol plant that produces clean cooking fuel in a rural Ghanaian village, the development of highly ef- ficient gelfuel stoves, a
Situation Regular and realistic self-assessment is a critical component of effective careermanagement. Professionals must always be surveying the landscape of their current situation,thinking about future goals and, most importantly, how to attain them. Three assessment areaswill be discussed here. The first area is job satisfaction – what makes work good or bad and howimportant these are to one’s position. The second area is more about development; i.e., how oneis learning and growing on the job. This can mean keeping up with trends and new technologies,and managing the workload so that there is time for those projects that teach new things. Thelast area involves looking at how organizational values impact development choices. A form foruse
basic question remains; will the professors teaching design courses teach the required infor-mation with considerable added knowledge? Further, does the professor perform knowledging? Page 9.1177.8The capstone course involving design analysis generally has a team of students working on a pro- Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering Educationject, and the class has a number of projects going simultaneously, each with a different set ofspecifications. The knowledge involved in these classes occurs in at
Session Number: 2558 Building an Undergraduate Security Curriculum Anne Marchant, Edgar H Sibley, Hugh Tazewell (Taz) Daughtrey Jr. George Mason University/ James Madison UniversityAbstractFaculty at George Mason University (GMU) and James Madison University (JMU) in Virginiaare collaborating on a project to develop a model for an undergraduate Information Securitycurriculum to be implemented beginning in the fall of 2004 at both institutions. The curriculumwill include coursework in programming, operating systems, and networking as a basis for themajor courses in security. Security coursework will
of a professional problem solver and engineer through the use of casestudies. The evaluators of the project state that the students' efforts lend credence to the notionthat engagement in case studies enhances problem solving and higher cognitive skills. Given the success of case studies in achieving the objectives, we decided to develop acase study that shows the use of information technologies in engineering. Therefore, wecontacted a cell phone company, Powertel (now part of T-Mobile) and obtained cooperationfrom the engineering managers in developing the case study. This paper describes the case studyand provides details from an evaluation of the use of the case study in classrooms. It concludes
communication skills. In addition, part of the goalfor getting students to participate in the project of exploring an ethical dilemma and arguing forone course of action over another was to prepare them for the kinds of experiences they arelikely to encounter when they go to work as an engineer, and the grading criteria were intendedto promote the skills they will need when faced with difficult situations. During the course of Page 9.550.4their career they will almost certainly find themselves in situations where they disagree with the Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition
presentation methods used in large-scale classroom settings can inhibit students’ ability to follow their instructor’s thoughtprocess because either the format is too small to be viewed effectively by the entire classas in the case of whiteboards, or too static to illustrate the problem-solving process as inthe case of overhead projection of transparencies or prepared Powerpoint slides. TabletPCs connected to large-screen projection systems offer one solution for presentingmaterial in a large-scale format while maintaining a dynamic presentation. We evaluatethe potential of this classroom technology by considering both an instructional point ofview and a learning point of view. In terms of instruction, the pen based tablet PCs offerseveral inherent
given to attitudinal differencesbetween male and female students and among students in different age groups.I. IntroductionSince the Marshall Plan of 1947 and President Truman’s famous ‘Point Four’ of his secondinaugural address, United States foreign policy has stressed the importance of applying technicalknowledge to aid ‘under-developed’ countries2. This has resulted in more than five decades ofU.S. funding for humanitarian projects; however, because most U.S. engineers choose to work inthe corporate sector, few have made substantial contributions to the solution of the humanitarianproblems that face other nations. The few engineers who do work in U.S. aid and developmentorganizations must commit to the objectives of U.S. foreign policy
“Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”Undergraduates notes that many students graduate having accumulated the necessary number of courses,but still lacking a coherent body of knowledge or any inkling as to how one concept might relate to others.This project recognizes the importance of incorporating the most current research on learning whendeveloping new curricula that include modules that are being used by “old faculty.” Thereforeconnections of the research modules with the existing theory and topics covered in the affected EEcourses is a priority. In addition, our challenge in developing the innovations
---- ---- 27 15The deliverables of the course are summarized in the grading policy table below. Points x Weight = Total Pct. Project Assignments [9, 1 double] 100 5 500 36.5 Homeworks [4] 40 2 80 5.8 Pop Quizzes [9] 90 1 90 6.6 Lab Sessions [15] 150 2 300 21.9 Midterm Examinations [2] 200 1 200 14.6 Final Examination 100 2 200 14.6
as a tool for organized achievement, visiondevelopment, and the resolution of problems impeding the students’ education. First the chartshould be explained as needed. The students should be provided an opportunity to develop theirreflections, and a period of meaningful class discussion should follow. To fill out the BAMchart, a student begins at the basic level and moves upward toward self-actualization. The basicneeds should be understood as those needs that must be satisfied before significant progress canbe made. Basic needs include the mastery of prerequisite knowledge, access to the requiredtextbooks, the tools necessary to complete projects, course accommodations for personaldisabilities, the management of personal problems, the
are ill-defined questions to which there is on specific “right answer,” but more thanone defensible solution. “Thought problems” require higher order thinking abilities andattitudes and tend to facilitate the exhibition of intellectual curiosity (Reeves and Laffey,1999). Third, it is conducive for crossdisciplinary teams. The purpose of this paper is todescribe how we are implementing the idea in a special international section of the Fall 2002senior design, ENGR 4920. The prerequisite for ENGR 4920 is ENGR 2920 Engineering Design Methodology, inwhich students are introduced to the design process as well as related tools for decision-making.In regular ENGR 4920 sections, students are expected to complete a design project under
West Texas A&M University, Canyon, TX Copyright 2024, American Society for Engineering Education 2 IntroductionIn undergraduate Engineering Design Courses, students universally must address a technicalchallenge and develop an adequate solution that is suitable to address the project technical, schedule,and budget requirements. In concert with that technical development process, our institution’sstudents are also introduced to the professional development techniques often employed by industryto holistically look at an individual’s performance using 360-degree feedback where perspectivesfrom a manager/supervisor are used in
construction project engineer for a construction contractor and as a research engineer for the Naval Civil Engineering Laboratory in Port Hueneme California. His teaching interests include construction equipment, cost estimating and construction process design. His research interests include highway and heavy construction methods, road maintenance methods and innovations in construction process administration.Dr. Natalya A. Koehler Koehler, Franklin University, OH Instructional Design Faculty Franklin University, OHDr. Aliye Karabulut Ilgu, Iowa State University Page 24.1400.1 c
containing boilerplate code that does not add pedagogical value. Participants canfree their mind from gory details and focus on the specific aspect that matters. Second, weprovide scripts to automate repetitive steps, such as launching tracing experiments. Third,the instruction document serves also as a report template, thus allowing students to writefindings while performing the activity. This document is part of a paperless grading process,and is returned annotated. Because the setup is well established, we can afford to reviewtheir code and provide valuable feedback.3.1 Session 1: Introduction to conceptsStudents have programmed a robot on an embedded board as assignment in a previoussemester project course. We take advantage of this prior
Paper ID #9708Training for Student Teaching Fellows at Rowan UniversityDr. Linda M Head, Rowan University Associate Professor of Electrical and Computer EngineeringMs. Melanie Basantis, Rowan University Ms. Melanie Basantis (Director, Engineering Outreach Office) earned her MBA from Widener Univer- sity and dual degrees in Industrial Engineering and Business Management from The Pennsylvania State University. Ms. Basantis spent 15 years in industry at the Boeing Company working as an Engineer on projects related to defense aircraft including the V-22 Osprey and CH-46 and CH-47 tandem rotor heli- copters along with
humanitarian endeavors. He founded and currently serves as CEO and President of LIMBS International (LIMBS.org) a non-profit entity which develops low-cost pros- thetic devices for under-developed areas of the world. Gonzalez has worked with students in Africa, Asia, Europe, Australia, and Latin and South America on various international engineering research and hu- manitarian projects. He also has been awarded the American Society of Engineering Educators Teaching Award and the Minnie Stevens Piper Foundation Award as a Texas Piper Professor of 2008. He also serves as an engineering program evaluator for ABET (Accrediting Board for Engineering and Technology).Ms. Elsa Q. Villa, University of Texas, El PasoDr. Peter Golding
project involving a decision-making/strategic performance problem (students had to identify dietary deficiencies of differentpeople and generate proposals for improving their health) was implemented.MethodologyThe course Introduction to Food Engineering is offered to students in their first semester of theFood Engineering Licenciatura (BS) at UDLAP. The studied course was conducted in twoweekly sessions of 75 minutes each during fall 2011 and 2012 semester in which eight (6women) and five students (4 women) were enrolled, respectively. One weekly session wasdedicated to reviewing theoretical basics of the discipline at introductory level, such as theconcepts of food quality, food safety, food spoilage and stability, food preservation, food
B. MakramDr. Rajendra Singh, Clemson University Dr. Rajendra Singh is currently D. Houser Banks Professor in the Department of Electrical and Computer Engineering and the Director of the Center for Silicon Nanoelectronics at Clemson University. With proven success in operations, project/program leadership, R&D, product/process commercialization, and start-ups, Dr. Singh has over 33 years of industrial and academic experience of photovoltaic (PV) and semiconductor industries. From solar cells to integrated circuits, he has led the work on semiconductor and PV device, materials and processing by manufacturable innovation and defining critical path. He has published over 340 papers in various journals and
Paper ID #8178Solving Material Balance Problems at Unsteady State using a Remote Labo-ratory in the classroomDr. Darinka del Carmen Ramirez, Tecnol´ogico de Monterrey (ITESM), M´exico Dr. Darinka del Carmen Ram´ırez Hern´andez has been a professor in the Chemical Engineering Depart- ment of Tecnol´ogico de Monterrey (ITESM) in Campus Monterrey, M´exico since 1996. She also works on the Virtual Laboratory Project at ITESM. Dr. Ram´ırez earned a Ph.D. in Innovation in Education from ITESM in 2011, an M.S. in Chemical Engineering from ITESM in 1989, and a B.S. in Biochemical Engi- neering from IT La Paz in 1987. She teaches to
Paper ID #6422The effectiveness of videos as a learning tool in an engineering ethics course:A students’ perspectiveMs. Mona Itani, American University of Beirut Mona Intani graduated from the American University of Beirut in 2006 and began a profession in com- puter and communications engineering. Itani has worked for multinational telecommunications compa- nies for four years. After earning her master’s in Engineering Management, she joined the engineering management program at the American University of Beirut. She currently teaches engineering ethics and is working on several research projects related to engineering
improvement of the Engineering Technology (ET) curriculum, including integrated laboratories, project- based learning, and practicum-based assessment. Dr. Ertekin serves as the faculty advisor for the student chapter of the Society of Manufacturing Engineers (S058) and is a member of the College’s Undergradu- ate Curriculum Committee. Involved in research, Ertekin has received funding from the National Science Foundation (NSF), private foundations, and industry. His research has focused on the improvement of manufacturing laboratories and curricula and the adoption of process simulation into machining and addi- tive manufacturing practices. His areas of expertise are in CAD/CAM, manufacturing processes, machine and process
. Matthew G. Green, LeTourneau University Matthew Green serves as Associate Dean in the School of Engineering and Engineering Technology and Professor of Mechanical Engineering at LeTourneau University in Texas. His objective is to practice and promote engineering as a serving profession. He has taught and developed design courses for all undergraduate years, and has taught courses such as Dynamics, Thermodynamics, and Machine Design. Past projects include remote power generation, design methods for frontier environments, enhanced engineering learning, and assistive devices for persons with disabilities. He coordinates ABET accreditation activities for LeTourneau University. ©American
3students with practice problems. The chatbot should help with project-related tasks such aschecking out equipment and requesting services. Such information is usually hard to find, andstudents might not even know the facilities they have access to. Another tedious task is schedulingmeetings. Students tend to send back-and-forth emails to set meetings with professors and TAs.The chatbot should assist with scheduling meetings based on the availability of the student and theprofessor or TA. The chatbot should also be able to provide general information unrelated to aparticular course such as Q-drop dates or registration information. Finally, it should easily providethe students with access to all safety documents, such as Safety Data Sheets (SDS
, hands-on components stimulate curiosity. This creates astimulating learning atmosphere that encourages in-depth exploration of the underlyingtechnological concepts and piques curiosity. When compared to more passive learning methods,experiment-centric pedagogy has been demonstrated to boost motivation, peer-learning, andretention [13]. Following a study on learners' experiences after exploration and experimentation,Connor et al. [14] emphasized that project-based pedagogy frequently contains implicit biasesthat limit learning, either in terms of the procedures followed or the expected results. This wouldresult in predictable outcomes that do not promote divergent thinking and creativity [14]. Thisleads to the authors providing evidence that
University. She is the co-PI and co-Director of the NSF-funded Engineering for US All (e4usa) project and Executive Director of e4usa, the non-profit. Dr. Klein-Gardner is a Fellow of ASEE. ©American Society for Engineering Education, 2024 High School Students’ Perspectives on Mathematical Modeling in the Engineering Design Process (RTP)AbstractMathematical modeling skills are essential for engineers to solve real-world problems. Whilethere is a growing emphasis on pre-college engineering education, it remains unclear howpre-college students utilize and perceive mathematical modeling within the engineering designprocess. Engineering for US All (e4usa) is dedicated to crafting engineering
variouscomponents as “edutainment” tools.This camp had twelve students, two instructors, and one volunteer teaching assistant.The students were aged between 8-11 years old, with most students aged between 8and 9. Two students were diagnosed on the autism spectrum and one student wasdiagnosed with attention deficit hyperactivity disorder. Four of the students werefemale.Students were assessed for spatial skills with a timed test on Monday before theyplayed with any of the core components, and assessed again with the same test onFriday after completing the 4-day program. Each day began with a lecture onengineering design principles which explored the concepts of projections and theircorrelation with pictorial and multi-view orthographic representations