modern pieces of equipment that facilitate students' learning andprepare them for the anticipated challenges during their professional career. A NSF-ILI grant1together with a matching fund by CSUF have provided the minimum required funding for theequipment that make up the infrastructure of the lab.The laboratory is established to have eight workstations that can support both software andhardware development. Each station is equipped with at least a desktop computer, a dataacquisition hardware/software, an oscilloscope, a multimeter, a function generator, a powersupply, and a microcontroller trainer. Other equipment and discrete components are alsoavailable for conduct of experiments and projects. The development plan has included
literacy. One reason this occurs isthat in associate-degree career and transfer programs that are not technological in nature, studentsare required to take at most two courses in mathematics and the sciences. Approximately one-half of all students in a degree program at HACC are part of this population. These studentsoften graduate without developing scientific and technological literacy.The National Science Foundation NSF awarded an Instrumentation and Laboratory ImprovementGrant to three faculty members from the Mathematics, Engineering, and Technology Division atHACC. The grant, awarded under the NSF's Leadership in Laboratory Development program,was made for the investigators to develop a text and a laboratory manual for an
civil construction encompasses a wide range ofvery different projects involving very large operations. Contractors must be able to prepareestimates that are competitive enough to secure contracts yet allows reasonable profit uponsuccessful completion of the projects. In reality, the success of both contractors and owners ofmajor projects is dependent upon the construction estimating skills of key individuals within acompany or an agency. Poorly prepared estimates can lead to distressful results such asfinancial insolvency and abandoned projects. Many construction graduates start their career asan estimator before moving on to become project engineer, project manager or owner of aconstruction company. At California State Polytechnic
Page 3.115.2their breadth of interests, not necessarily their initial technical depth at graduation, that gave themthe background to succeed in management.9 They also perceive that in today’s global economy itis vital for engineers to have the broad background to be able to assess and understand theeconomic, environmental, and ethical effects of their work. This is especially applicable to theconstruction industry.It has also been mentioned in the literature that the skills required by a typical employee tend tovary during an engineer’s career.8 For example, basic technical skills are extremely importantdirectly after graduation. Later in life, knowledge of communication, organizational, managerial,and social skills may be more significant to
Cincinnati area baccalaureateinstitutions such as Northern Kentucky University. As flight instructors, these graduates canaccumulate additional flight hours, which in turn, increases their employability upon graduationfrom a baccalaureate program. Recruiting Plans Recruiting efforts for the Aviation Program began during the academic year (1991-1992), theyear before the startup date for the program. These efforts consisted of letters to area high schoolgraduates, radio and billboard advertisement, communication with high school guidancecounselors, and a presence at some area career fairs. Low enrollments were expected during the first years of the program. This was thoughtdue in part to the high
course could be used to impressupon students the importance of the subject that they study and its applications.Furthermore, it prepares students with a strong knowledge that they could build on overtheir career. In this experiment students learned: • The role that vibration has in our daily life. • What transducers are, how they are made and used? • What data to collect using data acquisition package and how to evaluate and use the data? • How failure due to vibration occurs, and how to alleviate them? • How vibrations are taken into account in designing machinery or structures. • How to diagnose problems and find the best possible solution?Another result that is of particular interest, which
experience completed by a student did not turn out favorably. The studentwrote, “ I was not at all pleased with the type of work I was doing; however, it was a greatlearning experience. I didn’t gain much financially, but professionally I grew by leaps andbounds. A mentor of mine observed that the experience gave me the knowledge of what it is thatI do not want to do for a career. It was just a shame that I couldn’t have spent my time doingsomething that I enjoyed and was professionally interested in.” This particular student was hiredfor a position to process meteorological weather data. His position as a data processor requiredhim to modify existing FORTRAN programs to process raw data from the database into usefulinformation used in a weather
than a comparable solar power plant. Money isn’t everything, though. The shift in thinking towards environmentally friendly power plays to solar power’s strength over coal.8ConclusionA mechanical engineering (ME) education includes many topics which are essential to theproblem-solving career MEs are known for. The ABET requirement for “design of componentsor processes of thermal systems” might be satisfied by a course or other experience during whichall students design and fabricate a pump or compressor or heat exchanger. We have chosen tointegrate energy production and policy into a project through which students are encouraged tobecome more active as citizens. Our hope is that future generations of MEs will be
session, a professor from a particular disciplineintroduces his/her discipline and answers any questions about it. The second hour isstructured so that students research the particular discipline, for example, finding outwhat graduates in the field do, average salary, employment statistics, outlook, potentialfor graduate study, national needs, potential for advancement, career outlook, etc.Students purchase a textbook about engineering graphics and will be required to completeseveral graphics assignments. Students benefit from access to online tutoring material,some interactive sessions with an instructor, and questions and answers sessions spreadthroughout the semester.Enrollment in this course is currently capped at 16 students, with 8 lab
the needs of creative engineering practice in industry toenhance U.S. technological innovation and competitiveness. This paper implements the findingsof the National Collaborative as a model pilot effort at a major university. The Masters forEngineering Professionals to be introduced at New Jersey Institute of Technology is reflective ofthe skills, knowledge and actions required for early career development in developingengineering leaders for the first stage of Direct Leadership [Levels 1-3 Engineering]. Thepostgraduate engineering curriculum has been designed as a matrix of advanced studies versusskills, knowledge and actions required for Level 3 engineering. Program emphasis is placed uponengineering creativity, innovation, and its
/Manufacturing (ITM)The objective of the ITM track is to develop advanced leadership skills needed by technicalmanagers and related positions in world-class industries. It widens student career potential withproject management skills for organizing resources, implementing systems, increasingproductivity, reducing waste and improving product quality using statistics and business researchmethods.Program OutcomesProgram outcomes describe the knowledge, skills, and abilities students are expected to acquirefrom the program, and prepare them to achieve the program educational objectives.Measurement will be in accordance with the program assessment and continuous improvementtools given in later section.It is intended that graduates of Master of Science in
creative engineering design for academia,business, and the engineering profession is a much greater challenge than was originallyimagined by the founders. The ideal product of the program is an individual with traits thatstretch beyond conventional engineering education norms to include commitment to Page 15.1052.2creating value, creativity, risk-taking, strong communication and interpersonal skills,business acumen, ability to integrate ideas, capability to explore ideas, and a capability tocollaborate with other professions, in addition to technical competence. This individual, indue course in their career, would show adeptness at creating higher
offered for the first time inFall 2007. The three modules were ASIC design, PCB design, and MEMS. Thefollowing survey was taken for 21 students who attended both ASIC and PCB design.Highest score was 5.0 and lowest is 1. 1. I intend to pursue a career in electronic manufacturing or a closely related area 3.77 2. I enjoyed Catapult software used in this ASIC design course 3.77 3. I found computer laboratories with ASIC design easy to follow and helpful for the project 4.05 4. I feel like I’ m gaining confidence to do hardware design with ASIC or PCB
. Page 15.496.3Another benefit of this approach is to hardwire the concept of “deadlines” by relating the numberof points earned in each step of the project to timely submission of the required documents. Timemanagement, stress management, and dealing with deadlines are among the skills necessary forlanding a successful career in engineering. As part of the design assessment, students also haveto perform a cost and failure analysis of their design. This gives the students an opportunity toevaluate the real value of their design and to critic their approach.One major challenge for the supervisor is evaluating every individual student in every team.Certainly, some team members contribute to the project more than others. One of the methodsused in
students with problem solvingskills. Assessing situations and drawing conclusions to requests from a client is requisite for allarchitects, engineers, and construction management students. Problem resolution in a step bystep approach leading to creative development of the project outcomes leads directly into criticalthinking processes. Outcomes are based and assessed on the participation, creation, reflection,resolution and acceptance by a client. Orientation and transition of students into their careers canbe dependent on the processes undertaken in problem based learning and is relevant to the PeggyCrosby Center Project. Real life situations lend themselves to develop creative thinkers that canpresent their results in a professional manner. This
) PinIn the students’ final project report, students state that “The design challenges presented anoutstanding learning experience to help add knowledge in troubleshooting and circuit design on apractical level as opposed to a simulation level. The final circuit is the result of lots of hard work,with much knowledge gained along the way.” This shows students gained valuable realengineering experiences through this project, which will benefit their future careers. Page 15.349.5 Figure 2. Experimental setup of the solar battery charger Table 3. Efficiency of the SEPIC converter with different input voltage
teaching career. Any measurable improvements in student learning since then couldbe attributable to the handout design, or they could be attributable to overall improvements in myteaching abilities.ConclusionsIn a highly visual course such as Fluid Power, PowerPoint is an essential instructional tool forteaching engineering graphs, cutaway images, electrical circuits, and fluid power diagrams. Page 15.372.9However, PowerPoint’s printing options are inadequate. This paper discusses a number oftechniques for creating note-friendly handouts by moving PowerPoint images into MS Word,modifying the images, and providing generous whitespace for
constantexploration of innovative design. In a collaborative, integrated and multidisciplinary setting, ourArchitectural Program provides a professional education joined with other programs. Thepractitioner-based program balances theoretical, technical, professional, and current knowledge.Students are ultimately prepared for careers in architecture and a wide assortment of otherdesign, construction, or business related professions. Architecture curriculum is by natureconnected.Many believe that learning in a compartmental fashion has never been fully successful; ourarchitecture curriculum is by its nature integrated and connected. We have found that the mostimportant element in good teaching is enabling students to think and learn on their own.However, more
preparing students for the LEED APAccreditation Exam. The text book for this course “Sustainable Construction and Design”explains in detail the LEED rating system, distribution of credits, and the Certification process.Course goals: The goals of the course were to increase student awareness about the LEED ratingsystem, help them in being a LEED AP and support USGBC efforts in promoting sustainability.Another important objective of course was to assist student in taking LEED AP AccreditationExam before graduation so they can start a professional career with LEED Accreditation in hand.Course Contents:The major topics covered in the course were: ≠ The Foundations of Sustainability ≠ Site and Natural Energy Mapping : Covering USGBC LEED NC
AC 2010-939: STANDARDS FOR NEW EDUCATORS: GUIDE TO ABETOUTCOMES AND STANDARDS AVAILABILITY IN LIBRARIESCharlotte Erdmann, Purdue University Page 15.1088.1© American Society for Engineering Education, 2010Standards for New Educators: Guide to ABET Outcomes and Standards Availability inLibrariesAbstractEngineering educators worked with standards in industrial and research careers. Many facultymembers use standards in their research and teaching. Awareness of standards may develop in avariety of ways including reading and writing dissertations, journal articles, conference papers,and handbooks. References to standards are also prevalent in bibliographic databases, andcampus websites
successful careers in manufacturing engineering and allied professions.The curriculum consists of 63 credit hours of engineering fundamental and manufacturing core,33 credit hours of mathematics and science and 31 credit hours of general education courses toprepare students for engineering practice as required by ABET 1 (Criterion 4) and to meet theUniversity’s general educational requirements as well.The process of fourteen outcomes developed for the MANE program at Virginia State Universityalong with the methodology of assessment was described 2. The program provides students withextensive experience in basic science and mathematics, engineering science, laboratories,computers, design, communication and teamwork, along with humanities and social
unified multi-disciplinary curriculum. This paper describes one such program, a Master ofScience degree in Robotics Engineering (RBE) at Worcester Polytechnic Institute (WPI).The M.S. program is a natural successor to the B.S. program in Robotics Engineering that wasintroduced in 20071,4. The B.S. offers what we believe to be excellent undergraduate educationin preparation for careers in robotics and related fields. However, there is a limited amount ofscientific and engineering material that one can cover in a 4-year degree while still providing therich undergraduate experience necessary to become a well-rounded citizen in today’s society.The RBE M.S. degree goes beyond the B.S. to prepare graduates for technical leadership roles inthe robotics
First Year Engineering Students Engineering 2007 and written Education engagement responses survey3 An Engineering Major Does Not Journal of July national student (Necessarily) and Engineer Make: Engineering 2009 survey interviews Career Decision Making Among Education Undergraduate Engineering Majors4 The Relations of Ethnicity to Female Journal of October web based individual Engineering Students
capability examples, see Appendix E for an example of a TechnicalCapability which is Capability 5, Design, and then Appendix F for an example of aProfessional Practice Capability that being 20, Business Aspects of Engineering.Uses of the Engineering Body of KnowledgeThe EBOK can be useful, in a variety of ways, to various members of the profession andthose with whom they interact; it is not an abstract concept. The EBOK is a foundationon which professionals prepare for and build careers and from which they communicateabout their profession to others. Page 24.945.14
ourradiation detection course. Students use the detectors to make measurements, calculateefficiency, determine FWHM, examine secondary interactions, and assess shieldingcharacteristics of materials separating the source and the detector. Our problem sets and writtenexams assess student achievement on calculations relating to these type tasks. And the results aregood. But, what our students never see are the visible photons produced when the gamma raysinteracts with the scintillator crystal, how that light makes its way to a photocathode to produceselectrons, how the electrons numbers are multiplied at different dynodes, and how thoseelectrons generate the pulse that enables radiation detection. A revelation in my career as aneducator came last year on
Towson State University. She was previously an Assistant Professor of Management at Clemson Univer- sity and worked for ten years in banking before beginning her academic career. Her areas of research include control in organizations, especially peer influences and other social controls, and teamwork. Her research has been published in journals such as Academy of Management Learning & Education, Orga- nization Science, Educational & Psychological Measurement, Journal of Managerial Issues, Information and Management, and Journal of Information Technology Management.Dr. David Jonathan Woehr, University of North Carolina CharlotteMr. Daniel M. Ferguson, Purdue University, West Lafayette Daniel M. Ferguson is the
account allows student engineers andtechnologists to make better selections of the best designs in terms of performance,cost, and return on investment for new product situations in their future careers.14-15References1. Smith Kevin B. and Larimer, Christopher W. (2009). The Public Policy Theory Primer. Philadelphia: Westview Press.2. Halimahtun, M. K. (2006). Embracing diversity in user needs for affective design. Applied Ergonomics, 37(4), 409-418. http://dx.doi.org/10.1016/ j.apergo.2006.04.0053. Mihelcic, J. R., Crittenden, J. C., Small, M. J., Shonnard, D. R., Zhang, Q., Chen, H., . . . Schnoor, J. L. (2003). Sustainability science and engineering: the emergence of a new metadiscipline. Environ. Sci Technol., 37(23), 5314
and MethodsWe analyze institution-level survey data collected from entering first year students (n=2,658,which represents a 50% response rate from the entering cohort) at a major research institution.Data were collected from students following university admission but prior to matriculation inthis Pre-Orientation Freshmen Survey conducted by the university’s Office of Assessment andEvaluation. Our data include responses from the incoming 2013–2014 cohort, which was thefirst year in which the survey was administered. The survey gathered information onexpectations for the university experience, career aspirations, high school academic experiences,and affinity for community engagement. In addition, the survey collected information onrespondents
Paper ID #7337Meeting the NAE Grand Challenge: Personalized Learning for EngineeringStudents through Instruction on Metacognition and Motivation StrategiesDr. Michele Miller, Michigan Technological University Dr. Michele Miller is an associate professor of Mechanical Engineering at Michigan Technological Uni- versity. She teaches classes on manufacturing and does research in engineering education with particular interest in hands-on ability, lifelong learning, and project-based learning.Dr. James P. De Clerck, Michigan Technological University After an eighteen year career in the automotive industry, Dr. De Clerck joined the
3 hours NANO2151 Career Planning and Industry Tours 1 hours NANO2970 Industry Internship 2 hoursTotal Core Credit Hours 27 hours Program Requirements 72 hrsTable1: NANO-Science Technology Dakota County Technical CollegeCentral New Mexico Community College (CNM):CNM Advanced System Technology program enables its students to succeed in Electronics,photonics and MEMS. The Automation and Telecommunication concentration provides CNMstudents with the analog and digital lab and hands-on experience to get started in high tech careerof industrial automation and control. Courses offered in this concentration provide hands-onexperience in robotic automation, microcontroller and PLD