Additional handout • Electrophoretic mobility o Example / Class ActivityThe biographical highlight of Meredith Gourdine is an effective way to draw attention to arenowned and accomplished minority in an area related to the experiment16. It also serves as atransition into talking about the many possible paths one takes to success in life. Some of theindustrial applications described in Farrell's "Exploring The Potential of Electrodialysis" arediscussed in lecture and explored by students in the preassignment19. In addition, the authorshope to continue to integrate such electrical separations modules throughout the MSUcurriculum. Next, the lecture reviews some fundamental chemistry and we talk about applyingthis
thesegoals and result in extraordinary transformation of both teacher and students. Studentengagement and excitement are elevated at the same time as the depth of learning increases.Students become better engineers because they can think critically, solve problems individuallyor in teams, write better, and orally present information. Teachers find themselves challengingstudents with an even more demanding curriculum. Examples from a software engineeringcourse will illustrate how these methods can challenge students more, create higher standards forlearning, and produce better engineers than a typical lecture approach to teaching.2. Organization and Goals of the Software Engineering Course This paper describes how cooperative learning and
elected to Fellow grade in ASME in 2006.Dr. Shaobo Huang, South Dakota School of Mines and Technology Dr. Shaobo Huang is an Assistant Professor and the Stensaas Endowed STEM Chair in the Department of Mechanical Engineering at South Dakota School of Mines & Technology. Her research interests in- clude student retention and academic performance in engineering, student achievement evaluation and assessment, and K-12 STEM curriculum design.Mr. Ryan H. Koontz, South Dakota School of Mines and Technology Ryan Koontz received his Bachelors degree in Mechanical Engineering in 1999 and M.S. degree in me- chanical engineering in 2002 from the South Dakota School of Mines and Technology (SDSM&T). He joined the SDSM&
membranesThermodynamics can likewise be combined with other courses commonly found in theAgricultural or Bioresource curriculum at the junior and senior levels. Cundiff andMankin (2003) have developed a modularized approach that integrates thermodynamicprinciples into processing and structures and environments for plants and animals. Theybegin at the microbial level and construct (needed) links to customary mass and energybalances. They organize their course into the following modules: Module I. Introduction to the dynamics of biological systems Module II. Development of a general environmental control model Module III. Dynamics of plant systems Module IV. Dynamics of animal systems
: Theory and Practice. “Writing is integrative, entailing theactive use of one’s total intellectual equipment; writing requires symbolic manipulation, which in turnfacilitates learning; writing serves as an epistemic function, modifying the human knowledge it records;writing in (is?—doesn’t make sense otherwise) a unique mode of learning involving all themajor types of learning; writing provides both immediate and long-term self-provided feedback; writingis active and personal; and writing is a self-paced mode of learning.”3 There seems to be a consensusamong educational researchers that a person retains information best when the learner has to actively dealwith the material. This active participation can be achieved through immediate
(faculty, space, andlaboratory) required with this approach. Many believe that their school’s senior capstone coursesdeliver project-based learning experiences. There was an interest in flexibility in the curriculum,so that students can take specialized courses such as entrepreneurship courses if they so desire.There was a stated need for text modules, not textbooks, to integrate innovative material into thetraditional courses. A recommendation was made to aggregate best practices from differentinstitutions to be shared among peers. Interestingly, department heads also mentioned that oneof the larger barriers to change within the curriculum and pedagogical approach is faculty.Another question was if the professional school model, similar to
education, art, materials, science, motivational theory, curriculum development and related higher education subject matter. He helped found and teaches at a summer camp for gifted children and has a sculpture studio in West Virginia.Clark Greene, Buffalo State College Mr. Greene has 20 years of experience in classroom instruction, curriculum writing, delivering professional development and leading standards writing initiatives for technology educationSteve Macho, Buffalo State College Dr Steve Macho, a Minnesota farm boy has been involved in technology his entire life. Steve participated in an early concurrent program studying robotics technology in 1984. In the 1980s Steve worked in a variety
regionalelectrical utilities have hired a significant percentage of each graduating class. This strong clientbase has served actively on the program’s Industrial Advisory Committee and helped shape athree-course, power sequence in the program. The first course in the sequence was EET 321 – Power Systems I. That course coveredThree Phase Power, Magnetics, Per Unit Calculations, Transformers, DC Motors, DCGenerators, and an introduction to Programmable Logic Controllers. The second course wasEET 422, which covered AC Induction Motors, AC Synchronous Motors and Generators,Admittance and Impedance Matrix Calculations, and Transmission Lines. The final course wasEET 423, which covered Power Flow Analysis, Symmetrical Components, Sequence Networks,Three
? The incorporation of a thesis or capstone project offers students an opportunity to research a subject in further depth or integrate their skills in an industry project.· Should a certain number of core courses be required? The inclusion of a set of core courses tends to add more structure to a degree program, but can remove some of the flexibility that students tend to enjoy.· Is the degree also available through distance education? More degree programs are now offering their classes to non-traditional students located away from the local campus. This allows students to continue working at their jobs while pursuing a higher education.LimitationsMany other programs were looked at, but are not included in this report
engineers is broadened importantly. Those potentialitiesand possibilities are as important to the ongoing dynamic process of creation in theUniverse as those that reside within us as each of us plays an integral role in thecommunion of subjects.As educators, we might ask how can we integrate an engineering ethic based on love intothe curriculum? No, we are not calling for a new course or a new section of course thatfocuses on engineering or professional ethics. Rather, we are suggesting that whilemodeling engineering problems whether in capstone design or engineering sciencesettings we can directly and explicitly speak to the issues that have been tabbed by theUnited nations as the most important challenges we face as a society at the start of
AC 2012-3051: HEALTHCARE TECHNOLOGY MANAGEMENT: CHANG-ING THE NAME OF THE FIELD TO IMPROVE AWARENESSProf. Barbara Christe, Indiana University-Purdue University, Indianapolis Barbara Christe is an Associate Professor and Program Director for biomedical engineering technology at Indiana University-Purdue University, Indianapolis. Prior to teaching, Christe was a Clinical Engineer at the University of Connecticut Health Center in Farmington, Conn. She holds a biomedical engineer- ing master’s degree from Rensselaer, Hartford, and a bachelor’s degree in biomedical engineering from Marquette University. She is actively engaged in the recruitment and retention of students in the BMET field.Prof. Steven J. Yelton P.E
are measured by their worth to industry upon graduation. In graduate education, a student’s worth many times is based on their potential to help faculty sustain research dollars. Engineering-only institutions are more likely to be in search of research dollars. Institutions dependent on research dollars for their existence must reward these faculty, thus creating an atmosphere where a Ph.D. is a requirement for tenure and promotion. This arrangement is not conducive to faculty collaboration between engineering and ET programs.• A seamless transition for students to go from ET to engineering and back again is promoted when the ET program requires differential and integral calculus in their curriculum.• With the change in the ABET
transferrable as concrete tools for auniversal framework for any engineering design curriculum. Introduction The importance of integrating team-building strategies into the engineering curricula concernsuniversities around the world. Not only engineering accreditation agencies are requiringteamwork assessment, but the professional workplace is expecting graduates that are prepared tobe productive in cross-functional teams1,2. From an innovation point of view, team negotiationstrategies are crucial for engineering design. Negotiation techniques entail the ways thatindividuals deliberate, discuss or communicate in order to achieve a particular temporary or longterm agreement or consensus. In this line, Hargadon and Bechky (2006) propose a model
.At the national level, several formal and informal curriculum revision activities are taking placeto address the need for integration of constraint-based CAD into the curriculum 7,1,8,9. Along withtraditional topics, such as visualization skills and standards, 3D constraint-based solid modelingis being considered an important topic. In addition, applied and theoretical knowledge ofengineering graphics are also being emphasized. Even with the onset of these new developmentsin curriculum integration, how are these tools being used? Is there an emphasis on menuselections or comprehensive strategies? Duff 10 suggested that engineering graphics could betaught as a body of knowledge independent of specific tools. The tools that existed within
Session 1353 Module-based Freshman Engineering Course Development Christopher J. Rowe, Anita Mahadevan-Jansen Vanderbilt UniversityAbstractThe freshman year of engineering continues to be one of the most critical components ofundergraduate curriculum development for engineering schools. There is an ongoing challenge indeveloping an introductory engineering course that meets the needs of the school/college as wellas the students in an effective manner. A major complaint of students is that there is no formalmechanism that helps students make an informed decision on their choice
demonstrated by the realism captured in the project examples given show that they have been able to meet the primary goal of enhancing their modeling skills while at the same time broadening their exposure to the capabilities of software tools in studying the behavior of a mechanical system. In addition to mass property and Bill-of-Material analyses (studied in introductory courses) they are now able to model assemblies where motion can be simulated, interferences checked and kinematic measurements taken.̇ The Challenge of Interpreting an Analysis: While kinematic analysis capabilities integrated into a CAD system can greatly enhance the study of a design, they can also lead to poor design decisions if used incorrectly without proper
acknowledges that when students write about content, theyunderstand it better and remember it longer. This connection between writing and successfullearning strategies has served as the basis of widespread educational reform movements suchWriting Across the Curriculum, Writing to Learn, Writing in the Disciplines, and others. Thesereforms have positively impacted engineering education across the country, including at ourinstitution11. Although one of the great strengths of clicker technology is that it actively engagesstudents with their learning, formulating an original, written response requires an even higherlevel of engagement with the material. Furthermore, multiple-choice questions do little to helpstudents attain an ability to communicate
communities. Morgan works with schools, libraries, and makerspaces to design, document, and open source new lessons, projects, and technical solutions for the community.Dr. Katherine Fu, Georgia Institute of Technology Dr. Kate Fu is an Assistant Professor at Georgia Institute of Technology in Mechanical Engineering. Prior to this appointment, she has been a Postdoctoral Fellow at Massachusetts Institute of Technology and Singapore University of Technology and Design (SUTD). In May 2012, she completed her Ph.D. in Mechanical Engineering at Carnegie Mellon University. She received her M.S. in Mechanical Engineering from Carnegie Mellon in 2009, and her B.S. in Mechanical Engineering from Brown University in 2007. Her
been designed and built as part of an ASHRAEfunded senior design project. The final cost of the entire system was $4593, excluding theattached computer and LabVIEW software which was already available.The unit has undergone preliminary testing with all experiments performed by undergraduate andgraduate students. It is expected that experimental work with students will continue in thefuture. This gives them valuable hands-on experience with both the applied technology and thebasic experimentation concepts.Several potential applications currently exist within the mechanical engineering curriculum forthis demonstration unit. In the future it will be integrated into the undergraduate thermo-fluidsexperimentation course. Students will be expected
new model simulates and requiresthat faculty members become intimately involved as an integral part of the development of Page 11.1420.9synergistic partnerships. These were established among fellow Department members, membersof other departments, local industry, professional societies, charitable foundations, and variousgovernment agencies at all levels. This has resulted in substantial benefits for the engineeringprograms far beyond that from the initial funding campaign.A standing committee (TINE) has also been established at the college level to continue thesearch for ways to fund new initiatives. The committee has as its member’s
Goldberg engineering projects teach students how to take anidea from paper and turn into reality8. For the past eight years each fall semester Texas Techcivil engineering students, mostly freshmen, have their own chance at devising Rube Goldbergmachines. Students have carried out projects to accomplish very precise engineering tasks suchas leveraging a solid wooden cube onto a tall block and moving a small object two inches onto aplatform. A pilot freshman curriculum has been designed and implemented in the MechanicalEngineering Department at the Rochester Institute of Technology9,10. The course sequence givesfreshmen an overview of a broad range of mechanical engineering activities. The first coursegives students most of the basic tools they will
plan at UTEP (“CS-1”), a large fraction of incoming freshmen mustattend several semesters of preparatory “pre calculus” math courses. Most of these students willhave limited if any prior exposure to programming or engineering. The initial implementation ofour course was intended solely to provide an engaging first experience with programming, andfollowed Mark Guzdial’s “Media Computation” curriculum. Dr. Guzdial’s curriculum hassuccessfully engaged Liberal Arts students in programming through the creation of aestheticallymotivated multimedia projects. Attendees in pre-engineering and pre-professional programsreported lack of interest in these aesthetically- focused projects and requested more practicalprojects and assignments. The course has
assembly are available, and the fields presently included in the database are includedlater.1-3 The database is a unique resource that has been studied extensively.1,2,4-17 Highlights ofpublications related to the present work include • studies of retention and performance of students in a number of special programs implemented in the SUCCEED Coalition, including various freshman programs, integrated curricula, an entrepreneurship program, minority engineering programs, Page 9.1244.1 • descriptive studies comparing the characteristics of engineering students with each other and with non-engineering students
Educational Innovation Award in 2012 for his work in teaching information assurance to students of all ages.Dr. Julie Ann Rursch, Iowa State University Julie A. Rursch is an Associate Teaching Professor in the Department of Electrical and Computer Engi- neering at Iowa State University. Her focus is on secure and reliable computing. She has been an integral part of onboarding the B.S. in Cyber Security Engineering and the minor in Cyber Security Engineering. c American Society for Engineering Education, 2020 Building a Cyber Security Engineering Program? Begin by Cloning Your Computer Engineering ProgramAbstractIntroductionThe nation is facing an increasing need for a
Robotic Application” by Yeh and Hammondwhere Wayne State University completed a project for Applied Manufacturing TechnologiesInc. 3. Their paper described the details of an industrially sponsored student vision project atWayne State for a robot to pick up car wheels from the conveyer line and place themaccurately into the drop-off fixture. In a similar effort to generate interest within their ownprogram and from local industries, The Department of Technology at Northern IllinoisUniversity responded to strength its curriculum by adding new relevant areas in itsautomation courses such as machine vision4. Within NIU’s automation course, basicsprinciples of vision are covered, including camera systems, basic optics, lighting, and imagecapturing and
; Zlotkowski, 1998) andis now generally recognized as an important part of higher education as evidenced by CampusCompact, the major society for service-learning in higher education, which boasts more than1,200 university members.Leah Jamieson pioneered service-learning in engineering through the Engineering Projects inCommunity Service (EPICS) program at Purdue (Coyle et al., 1997). This model featuresvertically integrated teams consisting of an equal number of freshman, sophomore, junior, andsenior engineering students who take a course repeating times for semester credit and who worktogether on solving a significant community problem. The EPICS model has been expanded toinclude approximately 20 colleges of engineering nationally and internationally
the students. During thefive years previous to the Fall 2002 semester, the average pass rate for Circuit Analysis was 52%,and the average pass rate for Electromagnetics was 57%. This pass rate is defined as thepercentage of the students who officially attempt the course, who earn a high enough grade to getcredit and move on in the curriculum. Therefore, to pass means that they have earned a “C-“ orhigher. An attempt includes the grade of W, the grade earned by those students who withdrawafter being in the course for about a month or more. These pass rates are, of course, distressinglylow, both for the students, and for the faculty involved in the course. While an exhaustive listingof the different changes that have been made to attempt to
support thedevelopment of an entrepreneurial mindset 4 . The core concepts promoted by KEEN can besummarized into “3Cs”, which stand for Curiosity, Connections, and Creating Value 4 .There have been numerous published works on implementing EML in almost all fields ofengineering. Related to Biomedical Engineering curriculum, a wide range of biomedicalengineering topics have already been practiced with EML-focused teaching activities 5,6,7 .However, there have been insufficient coverage on topics directly related to certainentrepreneurship activities, for example, Intellectual Property (IP) protection. IP strategies arecrucial for the success of many industries, including medical device companies. Senior yearundergraduate students in Biomedical
collection of Unit Plans that integrate technology. 3. Models of meaningful classroom projects that integrate instruction in developing critical thinking skills provide the learners with an opportunity to enhance their knowledge. 4. Tools and strategies for developing one’s own exemplary technology-supported learning should always receive encouragement from the instructor 5. It is important to learn how project-based units can effectively engage students in meaningful work and promote higher-order thinking. 6. It is necessary to see how questions and ongoing assessment keep project work focused on important learning goals. 7. One needs to gather ideas from a collection of exemplary Unit Plans and design one’s own
other engineering education institutions: at heart, the project aims to helpstudents better understand, and hence be better prepared for, their post-graduation futures. Lackof student preparation in all dimensions needed to succeed in the engineering environment–a“misalignment” between engineering education and practice has long been noted, and manyengineering graduates still endure a challenging transition to the workforce [1], [2]. To addressthis need, engineering educators have incorporated project-based learning in the curriculum [3],[4], [5], including capstones [6] and design projects [7]. [7] proposes more broadly that“curriculum developers and instructors should employ an integrative approach where studentscan connect their use of