and development of the NMSU-UACH dual aerospace engineering bachelor’s degree program and of the NMSU-UACH engineering joint Ph.D. program. Olague’s participation has been instrumental to these collaborations. Currently, Olague is a College Instructor at NMSU and an Assistant Professor at UACH.Dr. Ian H Leslie, New Mexico State University Dr. Leslie is currently the interim department head of the Mechanical & Aerospace Engineering Depart- ment. He has been with New Mexico State University since 1984.Dr. Thomas D. Burton, New Mexico State University Thomas Burton is currently Department Chair of Aerospace Engineering at Khalifa University of Science, Technology, and Research. He served as Department Head of
- combustion, fuel cells, green fuels, and plasma assisted combustion. Husanu has prior industrial experi- ence in aerospace engineering that encompasses both theoretical analysis and experimental investigations such as designing and testing of propulsion systems including design and development of pilot testing fa- cility, mechanical instrumentation, and industrial applications of aircraft engines. Also, in the past seven years, she gained experience in teaching ME and ET courses in thermal-fluid and energy conversion ar- eas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum
world. Page 25.3.1 c American Society for Engineering Education, 2012AbstractThe primary goal of this newly developed certificate program is to address the need for“green” workforce development related to education, training, and public informationdissemination of renewable energy and sustainability. The certificate programincorporates the significant research and teaching experience of faculty members at theCollege of Engineering and Computer Science in Florida Atlantic University (FAU) toaddress the industrial needs in this field. An innovative curriculum is designed thatincludes exposure to all
accumulation system,and as such it is alternately known as the European Credit Transfer and Accumulation System,although the same ECTS acronym is used.Given that the ECTS is defined by the participating European countries, the Ministers of HigherEducation of participating European countries issued this statement during their meeting of 2003:“Ministers stress the important role played by the European Credit Transfer System (ECTS) infacilitating student mobility and international curriculum development. They note that ECTS isincreasingly becoming a generalized basis for the national credit systems. They encouragefurther progress with the goal that the ECTS becomes not only a transfer but also anaccumulation system, to be applied consistently as it
difficulty dealing with ambiguity anduncertainty when they are faced with real-world machine design problems [2]. Anotherexperience-based skill required by engineers is to move forward amidst ambiguity anduncertainty. Liu and Brown also suggest that including active and project-based learning has thepotential to develop this experience-based skills in undergraduate students. Monterrubio andSirinterlikci implement this active learning approach into the curriculum of a Machine Designcourse by including a semester-long laboratory in which students design and construct aninjection-mold [3]. The authors found increased student engagement and high achievement ofexperience-based outcomes such as effective use of industrial and manufacturing tools such
].To address this tension at our university, we are engaging undergraduate engineering studentsacross multiple phases of soft robotics curriculum development. Students are developing softrobotics learning modules as co-designers, which is what is presented in this paper. In the future,they will get to pilot their activities with other students. Once modules are fully developed andpiloted, they will be implemented in courses across our mechanical engineering (ME) curriculumand shared publicly. Overall, our full project will explore the potential for student-generated softrobotics modules to impact the learning and interest in soft robotics of both (a) the studentsdesigning the modules and (b) the students participating in the modules once they
well developed mass transportation. Living expenses are Page 23.1264.2somewhat comparable. Small grants are available from an EU cooperation called ERASMUS toencourage student participation from countries where students may not have the economic meansto participate in the program. European sites are funded by individual governments, theEuropean Union, and the participating colleges. Figure 1. EPS SitesIt is interesting to note that individual EPS programs are not formally coordinated through acentral governing body but that coordination is sound - achieved through
Students in an Introductory Mechanical Engineering Course toSucceed in StaticsAbstractThis research explores scaffolding strategies employed at Washington State UniversityVancouver to support first-year students in succeeding in an introductory mechanicalengineering course, with a particular focus on their subsequent performance in Statics. As inmany undergraduate engineering programs student retention has been a concern, especially in thelower division of the mechanical engineering program. In the past two years the introductorymechanical engineering course has been redesigned to prepare students for the rest of theirengineering curriculum by incorporating several design projects, involving senior students andfaculty as mentors, and giving
with insights into the evolution of technology and its impact on society andhistorical developments. However, not every student takes this course and benefits from it.Another approach to integrating history into engineering is by teaching historical snapshotswithin the engineering curriculum [7]. Many textbooks claim to provide a historical context,often including brief histories and applications of engineering principles. Instructors can expandon this by providing a more in-depth introduction to historical snapshots.With a sense of curiosity, we embarked on implementing the idea of introducing historicalfigures and related case studies into our two mechanical engineering core courses, EngineeringFluid Mechanics and Design of Machine Elements
their field but has since spread to other STEM subjects and even non-STEM subjectssuch as music. However, the availability of materials to facilitate the use of POGIL inMechanical Engineering courses has so far been limited to Materials Science. This paperdescribes results from the development and use of more than 120 guided inquiries or worksheetson which students work on in small groups of 3 or 4 to answer a series of questions forThermodynamics, Fluid Mechanics, Heat Transfer, and Instrumentation courses.Results from end-of-course grades in six different courses have shown an increase in studentknowledge in the classes taught with the POGIL-like strategies compared to the same coursetaught with a traditional lecture style. The fraction of
RTOS and introduce basic theoretic topics intheir microcontroller courses. As a result, students who have a good understanding of theory andconcepts of RTOS do not have the opportunity to map their knowledge onto real-worldimplementations. To bridge the gap between conceptual understanding and concreteimplementations, an embedded RTOS educational platform has been established for EETstudents in the Department of Engineering Technology & Industrial Distribution at Texas A&MUniversity as well as in the Engineering Technology program at Northern Kentucky University.This paper only focuses on hardware design and development of the embedded RTOS platform.The laboratory curriculum development and student learning outcomes/feedback will
curriculum in their alma mater schools.Bibliography:1. Edward Lumsdane, “Industry-University Collaboration in High-Tech Training: Requirements for a Sustained Program,” Proceedings ASEE/NCS, April 2-4, 1998, Detroit, MI. Page 4.224.62. IDEAS By Structural Design Research Corporation (SDRC)3. Microsim, “PSPICE”,4. E. H. Shaban. “Corona Power Loss in Transmission Lines’” M.S. thesis, University of Khartoum, Sudan, 1976.5. Tanner VLSI layout software.6. Cypress Semiconductor, “VHDL Development System for PLDs, CPLDs, and FPGAs,” San Jose,, CA 95134.7. Roth, Charles, “Digital System Design Using VHDL,” PWS Publishing.8
Education, 2015 Design, Development, and Implementation of the Instructional Module Development System (IMODS) Division: NSF Grantees Poster Session AbstractThere is a growing demand and interest in faculty professional development in areas such asoutcome-based education (OBE), curriculum design, and pedagogical and assessment strategies.In response to this demand, a number of universities have established teaching and learningcenters to provide institution-wide, and sometimes program specific support. A team ofresearchers is engaged in a User-Centered Design (UCD) approach to develop the InstructionalModule Development System (IMODS), a software program that facilitates course design.IMODS will
Develop partnerships and build a team Connections Persist through and learn from failure Create Value Communicate an engineering solution in terms of societal benefits CuriosityEntrepreneurship is vital to higher education systems as it has proven to stimulate the economy,increase job opportunities, and encourage technological progress [13], [14]. The importance ofincorporating entrepreneurship within the classroom has been gaining recognition in engineeringcommunities. Nearly 50 universities across the nation have partnered with KEEN to implementEML into their curriculum [10]. A study conducted in an engineering physiology courseexamined the impacts of EML in a module
preparation of engineering students for industry positions [3]. Biomedicalengineers are similarly expected to possess sufficient 3D design knowledge for biomechanicalapplications and medical device development, but the implementation of 3D design inbiomedical engineering courses is less prevalent compared to alternative engineeringsubdisciplines owing, in part, to the broad scope of the field.CAD-based software packages such as SolidWorks have been increasingly emphasized as avaluable tool for biomedical engineers. At the University of Arkansas, SolidWorks is currentlyintegrated into the biomedical engineering curriculum primarily during the two-semester SeniorDesign course where students identify and create novel technology in response to a clinical
AC 2009-766: LEADERSHIP MODELS AND PRACTICES COURSE: STUDENTPERCEPTIONS AND DEVELOPMENT OF LEADERSHIP SKILLS ANDINCORPORATION OF A NEW LEADERSHIP COURSEAndrew Gerhart, Lawrence Technological University Andrew Gerhart is an Associate Professor of Mechanical Engineering at Lawrence Technological University. He is actively involved in ASEE, the American Society of Mechanical Engineers, and the Engineering Society of Detroit. He serves as Faculty Advisor for the American Institute of Aeronautics and Astronautics Student Chapter at LTU, and serves as chair for the LTU Leadership Curriculum Committee.Melissa Grunow, Lawrence Technological University Melissa Grunow is the Coordinator for the Leadership
2006-250: DEVELOPMENT OF ONLINE MULTIMEDIA BASED PROTOTYPEE-LECTURE INTERFACE USING HUMAN-LIKE ANIMATED PEDAGOGICALAGENT FOR EFFECTIVE DISSEMINATION OF FINITE ELEMENT METHODJoseph Rencis, University of Arkansas Joseph J. Rencis is currently Professor and Head of the Department of Mechanical Engineering at the University of Arkansas. From 1985 to 2004 he was in the Mechanical Engineering Department at the Worcester Polytechnic Institute. His research focuses on the development of boundary and finite element methods for analyzing solid, heat transfer and fluid mechanics problems. He serves on the editorial board of Engineering Analysis with Boundary Elements and is associate editor of the
AC 2007-228: TECHNOLOGY AND GENDER ISSUES: DEVELOPMENT ANDASSESSMENT OF A FRESHMAN GENERAL EDUCATION COURSE IN THECOLLEGE OF ENGINEERINGPatricia Backer, San Jose State University Patricia Backer is a Professor and chair of the Department of Aviation and Technology in the College of Engineering at SJSU. She holds a BS degree in Chemical Engineering from Rutgers University, a MA and MS degree from Tennessee Temple University, and a MA and PhD from Ohio State. Her research interests are in the integration of multimedia and web-based learning into technology instruction. Page 12.1377.1© American
virtually, we were able to create a program which is scalable, and easilyable to be disseminated to students for their benefit.Although career preparation and science communication are key elements to a science andengineering undergraduate’s professional development, time constraints in the undergraduatecore curriculum often impair their inclusion into the curriculum. The two venues in which theseelements are most commonly addressed are undergraduate seminar courses and summerexperiential learning such as research or internships. Summer research programs have a positiveinfluence on participants learning gains in scientific communication, with particularly high gainsfor underrepresented groups [2]. Since our summer program typically hosts research
requires students to develop knowledge and skills in mathematics, science,engineering topics, and professional skills such as information literacy and communication [1].Most programs put a larger focus on knowledge developed through coursework, but professionalskills are not systematically incorporated in the curriculum although professional skills areextremely important for meaningful employment. To prepare graduates for engineeringprofessions, the University of Michigan-Flint developed a professional skills workshop forengineering students. The workshop consists of seven hours of weekly sessions consideringtopics that are important but not presented in any courses. The workshops included threeimportant areas: engineering standards, investigating
Session #3586 Implications for Technology Curriculum – Outcomes of a DACUM study in Tennessee Lisa Bogaty Pellissippi State Technical Community CollegeAbstractThis paper describes the three major outcomes of using the DACUM (Developing aCurriculum) process in developing curricula for the Tennessee Exemplary FacultyAdvanced Technology Education project, an NSF-funded precursor to the currentsoutheastern Advanced Technology Education (SEATEC) project. The project had threemajor goals: Faculty development, curriculum and curriculum support materialsdevelopment and developing
design skills in the context of a developing country, TheGambia, in collaboration with local students and communities. This program is being developedaround multi-cultural/multi-disciplinary design teams working on community based serviceprojects while studying engineering design methodology through a 3-credit Total Design 24course introduced into the University of The Gambia, UTG, curriculum. In student teams madeup of both Gambian and US students, the goal is to develop sustainable business structures likelyled by graduating UTG students to propagate solutions to other communities (Figure 2).US students will be able to participate in Gambian projects as [1] study abroad students enrolledfor a term at UTG, [2] as part of a design team at their
communitypartnership to enhance education in sustainability. International Journal of Sustainability inHigher Education, 6(4), 392-402. (Document ID: 929185611).2. Brawner, C.E., Felder, R. M., Allen, R., & Brent. R. (2002). A survey of faculty teachingpractices and involvement in faculty development activities. Journal of EngineeringEducation, 91(4), 393. (Document ID: 274560411).3. Brodie, C.A. (2006). Environmental sustainability programs in higher education: Policies,practices and curriculum strategies. Ed.D. dissertation, University of the Pacific, United States --California. (Publication No. AAT 3244681).4. Graedel, T.E. & Allenby, B.R. (2010). Industrial Ecology and Sustainable Engineering. NewJersey: Prentice Hall.5. Nance, M. (2009
Mesa, Arizona AbstractThe Arizona State University and community colleges across the State of Arizona have ahistory of collaboration that is acclaimed as a national model. However, Arizona StateUniversity East and its community college partners are working diligently to elevate theireducational partnership to a new level beyond traditional articulation and the transfer ofcoursework. This paper describes a model curriculum development project designed tocreate a seamless microelectronics laboratory curriculum between local communitycolleges and Arizona State University East (ASUE).INTRODUCTION ASU East and Central Arizona College, Chandler Gilbert Community College, MaricopaAdvanced Technology
five years to support the CEE Department’sinitiatives. These initiatives include curriculum changes, faculty development, mentoring, andchanges in admissions. The initiatives taken by the researchers are influenced by criticaleducation theory which is a framework that utilizes practices in education that enable socialtransformation in students where equity is developed for all students [1]. The research teaminvolved in the RED grant represents a multidisciplinary personnel with backgrounds in civil andenvironmental engineering, engineering education, higher education, and sociology. Currentlythe RED grant is in the fourth year of its lifespan. This year, the researchers added considerablefocus to initiating changes beyond the department to the
primary areas of research are in intersection operations, traffic signal control systems, highway capacity, and transportation engineering education. Page 23.68.2 c American Society for Engineering Education, 2013 A Model for Collaborative Curriculum Design in Transportation Engineering EducationAbstractThe National Transportation Curriculum Project (NTCP) has been underway for four years as anad-hoc, collaborative effort to effect changes in transportation engineering education.Specifically, the NTCP had developed a set of learning outcomes and associated
an unprecedented demand for trainedelectrical engineers with the expertise to design and deploy new wireless communications services,encompassing the high growth areas of cellular telephone, personal communications, paging services, andwireless local area networks. The project described in this paper teams electrical engineering faculty fromVirginia Tech’s Mobile and Portable Radio Research Group (MPRG) and from the University of Missouri-Rolla to develop an innovative communications curriculum which draws from current research on radiosignal propagation modeling, computer-aided design and simulation of wireless communication systems, anddigital signal processing techniques to improve the performance and spectral efficiency of wireless
presents an opportunity for curriculum development where ServiceDesign and Development should become an integral part of the design education. Thetopic of service design and development must be viewed as a very important step increating value, delivering satisfaction to the customer and sharpen the competitive edgefor the manufacturers and therefore should become one of the focal points ofundergraduate engineering education.In accordance with the ideas outlined above, a new curriculum is developed to bridge theidentified educational gap by developing and delivering a three credit course called‘Product and Service Design’ in the Summer 2010 term. The developed coursecurriculum is described in detail in this paper. The curriculum includes the
Session 10-1 Cooperative Learning: An Integral Part of Mechanical Engineering Technology Curriculum James Mayrose, David J. Kukulka State University of New York College at Buffalo AbstractStudents are confronted with an enormous amount of engineering content during their course ofstudy. Due to the tremendous amount of pressure placed upon performance in the way of grades,students often look for ways to “cut corners” or do “just enough” to get a decent grade. Studentswill only learn to master engineering concepts
design. Studentsusually see analysis as being theoretical while design is seen as dealing with practical issues,whereas in fact analysis and design are closely intertwined.At Penn State we are attempting to integrate various parts of the curriculum by developingproject design examples that cover analysis and design of structural components within thecontext of a complete structural system. This approach has already been implemented in ourcourse on design of concrete structures and we are currently developing the modules for ourstructural analysis course.As part of the assessment process, a baseline test has been developed to assess the student'sunderstanding of structural engineering concepts at various stages of their development.II. Structural