Ph.D. in Microelectronics-Photonics from the University of Arkansas. He attended Oklahoma State University where he graduated with a B.S. in Computer Science and an M.S. and B.S. in Electrical Engineering. He is currently a facultyDr. Emilie A. Siverling, Minnesota State University, Mankato Emilie A. Siverling is an Assistant Professor of Integrated Engineering and the Iron Range Engineering Bell Program through Minnesota State University, Mankato. She has a Ph.D. in Engineering Education, an M.S.Ed. in Curriculum and Instruction - Science Education, and a B.S. in Materials Science and Engineering. ©American Society for Engineering Education, 2023 A Self-Study of Faculty Methods
visualization of mechanical phenomenon, and the ability toeffortlessly analyze instructor demonstrations. When applied to the curriculum of a traditional laboratoryprogram, these advantages should translate into an exportable, flexible, and independent platform. Ineffect becoming a cyber laboratory that can travel with the student, requiring only a laptop computer, adigital video camera, and a student’s initiative to operate. By exporting the analysis of mechanicalphenomena to the student’s domain, we attempt to bridge the most important gap in science education:connecting the classroom to the dorm room, while encouraging student’s to analyze everyday phenomenathat might otherwise go unexplored. Applications are endless, and limited only by the
visualization of mechanical phenomenon, and the ability toeffortlessly analyze instructor demonstrations. When applied to the curriculum of a traditional laboratoryprogram, these advantages should translate into an exportable, flexible, and independent platform. Ineffect becoming a cyber laboratory that can travel with the student, requiring only a laptop computer, adigital video camera, and a student’s initiative to operate. By exporting the analysis of mechanicalphenomena to the student’s domain, we attempt to bridge the most important gap in science education:connecting the classroom to the dorm room, while encouraging student’s to analyze everyday phenomenathat might otherwise go unexplored. Applications are endless, and limited only by the
insufficient methods for students to acquire hands-on experience in the scientific and technical disciplines necessary for space commerce and exploration. 2. Students have a hard time identifying relevant space systems hardware requirements while designing a real mission. 3. The National Research Council (NRC) committee believes that training students to design and build satellite and satellite instruments, gain hands-on experience with the unique demands of satellite and satellite systems environments and operations, and acquire early knowledge of systems engineering techniques is an extremely important investment to make[4, 5]. Founded by California Polytechnic State
students use Total Quality Management and integrated product design withproject management software.9 At Western Washington University, the Engineering TechnologyDepartment has made alliances with the Colleges of Business and Economics and of Arts andSciences for the development of multidisciplinary teams to work on design projects. They haveintegrated concurrent engineering principles throughout their curriculum. 10 The Departments ofChemical and Materials Engineering and Electrical Engineering at San Jose State Universityworked with science disciplines to develop an interdisciplinary course in semiconductorprocessing. The team approach for this course is set in a context of a start-up company cultureand allows students to be actively engaged in
develop challenging newmultidisciplinary courses that embed engineering science and technology within thecontext of experiential learning and practice. This paper examines the need for andways to integrate engineering science, information technology and multidisciplinarywork. We describe how we have used the University’s Honors Program to providestudents with experiential learning in integrating the knowledge and perspectives oftheir discipline with that of others in the design and development of a virtualproduct. 374 IntroductionIn recent years many leaders from corporate America and academia alike havecalled for undergraduate engineering curriculums that integrate moremultidisciplinary experiential
departure from how I was taught, and that this has a profound impact onstudents. Still, the verdict of independent scholars studying our program has been that we are notthat different, and our efforts at innovation may not be having their intended effect.51 Moreover,the structure of accreditation limits change at our institution and in other new and innovativeengineering programs.52I have pragmatically used EC 2000 as a motivation or justification for the use of criticalpedagogies and for liberal education reforms in the engineering curriculum. At the same time,EC 2000 undercuts some goals of critical pedagogies (and in fact ABET’s own lifelong learningoutcome) by reinforcing the idea of credentialing as the central purpose of an
performance characteristics.This paper focuses on the DBT process of the test bed and the development of the experiment.Moreover, an assessment of the project is provided through an analysis of the following projectoutcomes: 1) The student worker’s learning experiences during the execution of thisextracurricular project inclusive of both technical and project management aspects and 2) Theimpact of the implementation of this extracurricular project as a course experiment in theExperimentation and Instrumentation course as part of the ME Program’s curriculum sequence.IntroductionThe Mechanical Engineering (ME) Program at Western Kentucky University focuses on creatingprofessional learning experiences in order to “provide students with the opportunity
(women, middle school, minority students and others) and electronic communications which reinforced messages in the print medium. One example of an electronic communication is Engineers On-line. This website is maintained by current engineering students and designed for engineering students who want to learn more about the engineering profession, Iowa State engineering programs, or just general enrollment information like what residence hall should I live in.• Integrated communication plan – various communication plans were developed for specific market segments (middle school, year in high school, female, minority, out- of-state or Iowa resident). For high school juniors and seniors, the communication plan
industrial controls course in an engineering curriculum issomewhat surprising, since many processes and products use the methods taught in such acourse. As pointed out by Clough3, discrete and batch process control is often a missing link inan undergraduate engineering student’s controls education. In fact, the first technical skill listedin the Society of Manufacturing Engineer’s list of educational competency gaps isManufacturing Process Control4. Members of the UT Martin Industrial Advisory Committee,who come principally from manufacturing backgrounds, have consistently emphasized theimportance of this course. Although industrial controls courses are not common in engineeringcurriculum, they do exist, and Bachnak5 describes a similar three course
able to do B, which will benefit you in C.” Using this as atemplate, I decided to approach a software company named Newtek. My primary argument was,“If you provide Purdue with lab copies of LightWave 3D, we will integrate it into our animationclasses and, when our students graduate, they will have been exposed to LightWave instead ofjust Kinetix’s 3DS Max, your major competitor’s package.” I augmented the argument byproviding details concerning the Technical Graphics curriculum to include the number ofclasses, students per class, past employment demographics of recent graduates, current hardwareand software set-up, etc. I also highlighted my professional experience using their product toanimate the current television opening for the Chicago
Bordogna,19 21st centuryprofessionals will need to be astute makers, trusted innovators, change agents, master integrators,enterprise enablers, technology stewards, and knowledge handlers. The environment in whichthey are brought up will play a major role in their total development.Ironically though, no asset is so vital, yet so poorly understood and managed, as the C&Icapabilities of an organization. This paper is designed to provide insights and guidelines to startand grow these resources. From Accountants to Zoologist (A to Z or anything in-between), onecan learn how to turn potential into performance by becoming a leader in one’s own domain. Therole of leadership in developing strategic directions is in discovering the channels through
Page 9.988.9PreK-12 classrooms and technology in teacher education.Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition CopyrightÆÉ 2004, American Society for Engineering EducationMELANIE SCHILTZis a senior in elementary education from Manilla, Iowa. She works in the Toying With TechnologySM Laboratory asan undergraduate teaching/laboratory assistant. Her interests include integrating engineering concepts into theelementary education curriculum. Page 9.988.10Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition CopyrightÆÉ 2004, American
exposure of an audience to thesite and when the audience is seeking specific facts or instructions. However, there is a definite rolefor complexity. Elaborate demonstrations, simulations, and multimedia can enhance learning andstimulate interest in content.2 This recommendation is consistent with cognitive flexibility theory.22Design with complexity is most appropriate with more experienced users and when the audiencemust integrate knowledge. The project WWW site has a mixture of simplicity and complexity elements. The sitehomepage and the main pages for each collection are mainly text and have limited content. A user’sinitial exposure to the site is highly usable with clear guidance on the site content. For the studentaudience
-2.27 0.023 Student Technology Use -1.84 0.065 STEM Instruction -1.80 0.071 st 21 Century Learning Attitudes -2.09 0.036 Teacher Leadership Attitudes -0.51 0.600 STEM Career Awareness -2.10 0.035The authors were not surprised that the barriers in integrating DET and the studenttechnology use would not be significantly impacted by the PD workshop activities. Thereare many barriers school teachers face when they attempt to try a new teaching approachor an innovative technology in their instruction. Because these
before being implementedinto the curriculum. As with other types of technologies, from video simulations to computer-based tutorials, the instructor must be comfortable with not only the medium, but also themessage sent through the medium to the students. In an on-line discussion, the instructor mustcarefully monitor students’ statements about concepts and redirect them as necessary.Monitoring the discussions requires time and commitment on the part of the instructor, as well asa desire to assist the student to come to a deeper understanding of the concept itself. Theinstructor’s role is often to not only provide an opportunity for in-depth investigation into a topic,but also to provide constructive feedback as necessary. In this way, the
data science micro-credential have unique opportunities to improve critical super-skills, including writtencommunication, project management, iterative thinking, and real-world problem-solving.THE NEED FOR DATA ACUMENEngineering disciplines are increasingly adopting and integrating data science into their problem-solving and experimental approaches [1-3]; yet few engineering programs directly integrate datascience and visualization into their curriculum. In an effort to address this need and respond tothe NASEM report on Data Science for Undergraduates, which calls on institutions to increase“data acumen” through “a range of educational pathways,” [REDACTED] School ofEngineering and Applied Sciences launched an undergraduate micro-credential
: Page 26.1583.6International Business EnvironmentThe current learning outcome for the course is somewhat “Think Local, Act Local”. Studentsidentify an engineering problem in the community or in industry and then develop a product orservice to fit local customers, regulations, and market requirements. One of the anticipatedlearning outcomes of the proposed curriculum modification was to broaden the course objectiveto “Think Global, Act Global”. Students are expected to learn about global business dynamics,economic integration, supply demand, manufacturing, supply chain, logistics, etc. whichenhance students understanding about multinational businesses and global engineeringproblems, and needs for solutions.Cross Cultural Elements of Engineering
,and is followed up with writing assignments. CSE 1002 Intro to CSE is open to freshmen CS andSE majors and is offered only in fall semesters. Objectives of the course are defined as:• Enhance understanding of the CS and SE academic majors,• Develop team building skills and encourage group participation,• Develop computational thinking skills,• Provide an awareness of ethical issues unique to computing,• Provide an understanding of the history of computing, and• Develop an awareness of the career opportunities available to computing majors.Experience with summer computing camps for high school and middle school students hasdemonstrated that using a robot-based curriculum helps increase confidence in the use
withengineering and technology. The end goal of this partnership is to provide a teacher with theknowledge, tools, and confidence to implement an engineering and technology curriculum intheir classroom.In this paper we examine teachers’ reactions on their participation in STOMP. We specificallylook at teacher perceptions of STOMP, experience and comfort level in teaching STEM content,and their shear interest in the STOMP program. We also examine a need and rationale behind athree-phase model in which STOMP has a sustainable impact on a teacher’s ability to implementSTEM curricula.Results of this study show that STOMP has raised teachers’ confidence in teaching andknowledge of engineering and technology content. These results support the use of a three
undergraduate student. Exposureto tangible work experience and a glimpse of the relationship between theory and practice was aninspiration to work harder as a student and to pursue an advanced degree in Civil Engineering.Recognizing the potential importance of the internship experience to more fully complement astudent’s education, a priority as a new engineering educator was to establish a summerinternship program in the Civil Engineering Department. However, since no such programexisted, a simple yet effective program was created. The goal of the internship program was to Page 4.29.1provide California State University, Los Angeles (CSULA) Civil
past few years, electrical and electronic systemson seagoing vessels have become highly sophisticated. The efficient operation of modern vesselsdepends upon the operation and maintenance of electrical and electronic equipment. Electro-technical officer (ETO) on a ship is responsible for maintaining electronic equipment like radars,navigational equipment, global positioning systems, and voice data recorders. Currently, noinstitution of higher education in the USA is offering an ETO degree. Texas A&M Universitywill be the first to develop and offer such a program. The development and implementation ofthe new electro-technical program at Texas A&M University are discussed in this paper.I. IntroductionToday’s ships are highly automated, so
Paper ID #17938Promoting Entreprenuerially Minded Learning through Online DiscussionsDr. Lisa Bosman, Marquette University Dr. Lisa Bosman holds a PhD in Industrial Engineering from the University of Wisconsin – Milwaukee. Her research interests include solar energy performance modeling, entrepreneurial minded learning, and STEM education.Dr. Brooke K. Mayer, Marquette UniversityProf. Patrick McNamara, Marquette University Dr. McNamara is beginning his 4th year as an assistant professor at Marquette University. His research group focuses on understanding how consumer product chemicals impact microbes and antibiotic resis
search for information and data thatis essential to ensure a successful project result. We found, however, that seniors typicallyresponded with reports that were rather minimal in effort and which did not reflect theirtechnical maturity. The freshmen, on the other hand, provided reports many of which werewhat one would have expected of the seniors. This paper will discuss the manner in which theteaming skills were introduced to freshmen; the manner in which they responded; the typicalresponse of seniors who were not exposed to an introductory course; and, finally, what isrecommended to extend the freshmen experience throughout the curriculum so that the seniorswould clearly demonstrate they have attained the benefits of a planned curriculum
process of newly hired employeeslearning the necessary behaviors, attitudes, and required skills and knowledge for achieving arole in an organization [1]-[4]. As its outcomes linked to employee job performance andretention [4]-[6], new employees' proactive or motivated behaviors in the socializationprocess [7]-[9] have been explored and defined by many scholars. According to previousstudies, new employees' proactive behaviors affect short-term outcomes in the socializationprocess, such as better understanding their roles and jobs, mastering the required knowledgeand skills, and getting socially integrated into the workgroup [6], [8], [10]. In addition, theirproactive behaviors also affect long-term outcomes such as job satisfaction and job
engineering leadershipprograms through co-operated courses, minors, integrated curriculum, scholarship programs,certificated courses and any other ways to help students acquire leadership knowledge andprinciple, team work skills, communication skills, creativity and innovation. MIT-Gordonengineering leadership program (ELP) is developed through cooperating with Sloan BusinessSchool, and it is an integrated curriculum to develop MIT engineering students’ leadershipability [11]. The Engineering Leadership Development Minor (ELDM) of Peen StateUniversity is a minor program that engineering students complete this minor course throughtaking related leadership classes and obtaining the corresponding credits [12]. The engineeringleadership program (ELP) in
the 2002 American So ciety for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Educationall department students at Kuwait University, to provide a voice for the students to theadministration, and act in an advisory capacity to the department chair. The council hasmonthly meetings.The Undergraduate Program Committee is a standing committee of the faculty. Itscomposition is such that all program areas are represented. In addition, one membercoordinates assessment activities with the office of academic assessment. The committee isresponsible for curriculum development and review including setting academic policies,approval of new courses, reviewing assessment
Paper ID #38942Implication of Developing Digital Twins to Improve Students’ LearningExperiencesDr. Mohammad Heidarinejad, Illinois Institute of Technology Mohammad Heidarinejad, Ph.D. is an Assistant Professor in the Department of Civil, Architectural, and Environmental Engineering at Illinois Institute of Technology in Chicago, IL. Mohammad received his Ph.D. in Mechanical Engineering and his M.Sc. in Architectural Engineering, both from Pennsylvania State University. Previously he was a research assistant professor and research associate in the Mechanical Engineering Department at the University of Maryland
for Graphics Education: Results from a Five Year follow-up Survey. The Engineering Design Graphics Journal, 70 (2), 23-30.12. Barr, RE, TJ Krueger, and TA Aanstoos (2004), Assessing Student Outcomes in an Engineering Design and Graphics Course, The Engineering Design Graphics Journal, 68(1), 22-36.13. Hartman, N. (2005) Integrating Surface Modeling into the Engineering Design Graphics Curriculum. The Engineering Design Graphics Journal, 70 (1), 16-22.14. Spence, A. and T. Doyle (2008) Product Centric CAD Education. Computer-Aided Design & Applications, 5(1-4), 381-390.15. Bhatt, R. et al. (2009) A Case for Scaffolded Virtual Prototyping Tutorial Case Studies in Engineering Education. Intl. Journal of
: Graduates demonstrate the capability and desire to pursue progressive and continued intellectual development. 4. Ethical Reasoning: Graduates recognize ethical issues and apply ethical perspectives and concepts in decision making. 5. Science/Technology/Engineering/Mathematics (STEM): Graduates apply science, technology, engineering, and mathematics concepts and processes to solve complex problems. 6. Humanities and Social Sciences: Graduates apply concepts from the humanities and social sciences to understand and analyze the human condition. 7. Disciplinary Depth: Graduates integrate and apply knowledge and methodological approaches gained through in-depth study of an academic discipline.Each of the top-level