-designedinfrastructure to measure and develop student outcomes which are not related only withknowledge. The verbs used in Criterion 3 student outcomes like; apply, design, conduct, use,communicate, function are mostly action based verbs and needs to be measured by using differenttools other than brain-based assignments like written/oral exam, project or term paper.In this study, a draft model of measuring student outcomes is offered. This model mainly contains“Potential Assessment Center (PAC)” application and “Individual Development Plan (IDP)”. PACis a process where assessors work with students to collect evidence of an outcome (competence),using the tools (exercises) tailored specially for the purpose of measuring the student outcomesthat comprise the
Analysis of human activities on smart devices using Riak TS Hinduja Dhanasekaran, Siddharth Selvam, Jeongkyu Lee University of Bridgeport Abstract—In this paper we have definition – “Extremely large data setsimplemented Riak TS which is a time that may be analyzed computationally toseries-based database. It is a key value- reveal patterns, trends, and associations,based database and has time as especially relating to human behaviorimportant parameter. During the and interactions”.implementation of the project we haveunderstood the installation process, We should also
jobs in 2007. Fall 2019 Mid-Atlantic ASEE Conference, November1-2, 2019 – Cooper Union, NYCFigure 2 Cumulative wind capacity by the end of 2007 and Year 2007 only installedFigure 3 Direct jobs created in Europe 2007, cumulative capacity installed until 2007 resultant jobs/MWThe manufacturing of wind turbines gives more employment opportunities. Nevertheless, the industrycreates jobs in research and development, system design, installation and maintenance, education andtraining, energy auditing and management and consulting.From a case study from Germany, it is known as far as back in 1997 the Building Code of Germany wasaltered via a change in legislation to bring the “wind power” projects as the highly favored projects in thelaw
Institute of Technology ever since. The module includes both classdemo and small group project and testing.The intended learning outcomes for the hands-on active learning module are: 1) Observe the effects of different stiffness and mass on the frequency of structures. 2) Observe resonance of the building. 3) Calculate the natural frequency and stiffness of the building.The class demo project uses a 6-story comprehensive balsa wood building model simulating thereal-world building as shown in Figure 1, and the building details include mini-figures andfurniture on each floor to representing real loads, adjustable mass on each floor and adjustablelateral stiffness of the building. The input motions are simulated earthquake loads from
explore the multiple ways that “capacity building”is being defined today, with an emphasis on its use in connection with international development.And it will make the case for engineering educators to align themselves and their students withoverseas projects which promise the best long range results for developing countries.IntroductionThe media have made aid to underdeveloped countries a staple item for the past few years. TheBill and Melinda Gates Foundation, with its vast resources, now makes headlines regularly.When Warren Buffett added his billions to it, interest grows. When those resources are turned tothe eradication of malaria, HIV/Aids and TB, the public around the world pays even greaterattention. Then add forays into Africa by stars
, and mathematics (STEM) fields is to engage students in undergraduateresearch. The Summer Undergraduate Research in Engineering/Science (SURE) program at[INSTITUTION]--a highly selective technology-focused research institution--was firstimplemented in 1992. SURE is a ten-week summer program for junior- and senior-level minorityundergraduates from a variety of institutions. Students paired with faculty and graduate mentorson research projects attend enrichment activities and conclude the program with researchpresentations to their peers and program faculty. In 2005, a survey of former SURE participantswas conducted. Of the 62 respondents who had completed their bachelors’ degrees, 72.6 percentindicated they had enrolled in or completed a
Signal Processing Chapter in Phoenix, and is a member of Eta Kappa Nu, and Sigma Xi. Andreas Spanias is co-recipient of the 2002 IEEE Donald G. Fink paper prize award and he is a Fellow of the IEEE. He served as Distinguished lecturer of the IEEE SPS in 2004 and he received the 2004 IEEE signal processing society award for meritorious scientific service.Karthikeyan Ramamurthy, Arizona State University Karthikeyan Ramamurthy is a Masters student in the Department of Electrical Engineering and a student member of the Sensor Signal and Information Processing (SenSIP) center. He worked on the J-DSP project as a programmer of the J-DSP/LabVIEW interface.Jayaraman Jayaraman , Arizona State
embeddedsystems class for seniors and introductory graduate students. Example dissections will bepresented and discussed. The paper will detail how the dissections furthered the class toward itseducational objectives. Finally, qualitative comments from students will be provided, along withobservations from the instructor. IntroductionMississippi State University has recently revised its undergraduate computer engineering (CPE)program with input from alumni and advisory employers. The CPE program has focused onembedded computer systems. Embedded systems form a rich application source through whichCPE education can be made relevant. Embedded computer systems are a timely subject that isimmediately useful to students in their senior design projects
@fau.edu.Ivan Esparragoza, Pennsylvania State University Ivan E. Esparragoza is an Associate Professor of Engineering at Penn State Brandywine. His current research interests are in the areas of Global Engineering Education, Engineering Design Education, Innovative Design, and Global Design. He has introduced multinational design projects in a freshman introductory engineering design course in collaboration with institutions in Latin America and the Caribbean as part of his effort to contribute to the formation of world class engineers for the Americas. He is Vice-President for Region I and assistant of the Executive Director of the Latin American and Caribbean Consortium of Engineering
data show that at least 30 of the student ventures funded by NCIIA havebrought at least one new product or service to the market, and an additional 15 projects areactively pursuing commercialization. In addition, NCIIA-funded projects have led to $36 millionin additional leverage ($1.6 million from awards and competitions; almost $3.7 million in privateand federal contracts; almost $9 million in grants; and $23 million in additional investment).ConclusionsNCIIA’s mission has focused on expanding opportunities for engineering students to engage inentrepreneurship by supporting curriculum, projects, and complementary activities that gearedtoward commercialization outcomes. The outcomes of the past decade provide strong evidencethat engineering
Engineering. She completed a postdoc at the Center for Advanced Decision Support in Water and Environmental Systems (CADSWES) at UC Boulder. Beth’s career goals include increasing the diversity of engineering students and improving education for all engineering students. Three of Beth’s current projects are: 1) an NSF planning project for the Collaborative Large-scale Engineering Analysis Network for Environmental Research, 2) an NSF Scientific Leadership Scholars project providing 4-year scholarships to 30 students in computer science, environmental recourses engineering and mathematics and 3) a water resources curriculum project using CADSWES software
Technology, Union College’s Converging Technologies Program o Provides engineering courses for non-engineers in an effort to improve technological literacy.Multidisciplinary Engineering and Liberal Arts:• Project, research, and seminar courses that enroll multiple majors o E.g. Purdue University’s EPICS Program (project-based service-learning course with students of different majors), University of Maryland’s Gemstone Program (multidisciplinary four-year program for selected undergraduate honors students of all majors who design, direct and conduct research exploring the interdependence of science and technology with society as part of a living-learning community), Union College’s
Student Learning Outcome F Student Learning Outcomes Course Measurement Matrix (Items 1-7 direct embedded measures) 1. ENGR 200 - Engineering Graphics II 2. ENGR 325 – Engineering Design 3. ENGR 310 – Numerical Methods 4. ME 238A –Design Project I 5. ME 238B –Design Project II 6. ENGR 420 – Thermal-Fluid Systems 7. ENGR 495 – Lifelong Development for Engineers 8. Fundamentals of Engineering Exam (EIT) 9. Senior Exit Survey (Indirect Assessment)10. Alumni Survey (Indirect Assessment)11. Alumni Employer (Indirect Assessment)It is clear that EC2000 driven program assessment will not disappear from engineeringaccreditation criteria. Overall, comprehensive program improvement has been measured
disciplines (Figure 2). Each of these studentshas a unique research experience as they progress to be the next generation of technologyleaders, who possess: a) multidisciplinary research proficiency b) an international researchprospective c) an industry/business perspective and d) technical communication and leadershipskills. Page 11.802.4B. Florida-Georgia Louis Strokes Alliance for Minority Participation -Bridge to Doctorate Project (FGLSAMP-BD)The “Bridge to Doctorate” (BD) program started as an extension of the Florida Georgia LouisStokes Alliance for Minority Participation (LSAMP) undergraduate program. The goal of theLSAMP undergraduate
). The project, to expire in August 2006, was recently granted a one-year no-cost extension. The paper describes the processes for selection of scholars and renewalof scholarship, and includes data on department distribution, student demographics and retention.It describes programmatic elements that worked or did not work in retaining students in CSEMSdegree programs. The program’s retention rates exceed RIT’s averages – at each year level andwithin each of the four academic programs. The program has been successful in developing apartnership among the four academic departments, and has strengthened the coordinationmechanisms with the supporting units. Successful EMC2 elements are being deployed elsewhereat RIT to retain female and minority
• Plasma processes • Electrochemistry • Chemical Mechanical Planarization • Materials Analysis • Optical properties and lithographyThe program encompasses capstone senior design project that involves design and developmentof integrated device, component, process or capability at RIT. Students publish their seniorproject papers in proceedings published each year. The trend over the last several years showsthat ~ 30-50% of senior projects entail materials process development. In addition, students getopportunities during their co-op experience to engage in materials/process development projects.Further graduate coursework in materials science and engineering will provide deeperunderstanding of materials engineering fundamentals
possiblebased only on drawings on the board. When it comes to discussing projections of the 3-dimensional force vector into its 2-dimensional components in the three planes shown, the use ofthe television camera proves invaluable. The camera angle can be changed to show the variousprojections. With the camera directly above the model for example, the resulting view wouldrepresent the projection of the force onto the horizontal (blue) plane. Appropriate camera anglesare used to illustrate projections on the other planes.ConclusionThe experience gained in developing computer animations and simulations for enhancinginstruction in the Statics course was quite valuable. The nature of the materials used in theclassroom had to be changed to meet the needs of
in conjunction with a minor issue. By using personal experience, the instructorreinforces the idea that this topic is one that the student will inevitably encounter, that it will notbe a simple issue to resolve, and that forethought into how the student will react in thesesituations may help them in their careers.A simple example of how this can be used in a class involves the subject of safety factors.Assume an engineer designs a project using appropriate safety factors. To provide aneconomical design, the engineer is likely to design close to allowable limits. After construction,while reviewing as-built drawings the engineer realizes a small construction change has reducedthe safety factor just below those allowed by code [say from 2.00 to
2006-1374: INTERNALLY-DEVELOPED DEPARTMENTAL EXIT EXAMS V/SEXTERNALLY-NORMED ASSESSMENT TESTS: WHAT WE FOUNDVirendra Varma, Missouri Western State University Virendra K. Varma, PhD, PE, F.ASCE, is Professor of construction and Chairman of the Department of Engineering Technology at Missouri Western State University. He served as a Member of the TAC/ABET Commission from 1998-2003. He is a former President of ACI-Missouri, and a former President of the NW Chapter of MSPE (of NSPE). He has published and presented extensively. He is the Chair of the Construction Engineering Division of ASEE. He has held highly responsible roles in design and construction industry ranging from a project
and experience in the relatedfield. At the end, we present a case study that demonstrates how computer sciencestudents can participate in medical informatics projects and research.Data Processing and Knowledge DiscoveryMethodologies for processing data, information and knowledge in medicine and healthcare are essential for analysis and management of clinical data in research and medicalpractice especially in administrative and clinical decision supports. Integrating medicalknowledge and advances into the clinical setting is often difficult due to the complexityof the involved algorithms and protocols. Modern clinical decision support systems(CDSS) assist the clinician in applying new information to patient care through theanalysis of patient
or full-time undergraduate students in Prescott. The topic of spacedebris was introduced in these classes and it was found that this field can serve as a veryelaborate example pool for applied orbital mechanics, mission planning, spacecraft design (busand payload), remote sensing and space surveillance, and classes in a traditional liberal artscurriculum such as history, policy, and law.Projects like the analysis of satellite fragmentations, interactive web based flux directionalitycalculations, and the long term effects of perturbations on a satellite’s orbit are a few exampleson how this important topic can be included in a university curriculum. Undergraduate studentshave been integrated into research projects in addition to the classes
AHDL. The middle segment ofthe first course teaches the basics of counters, sequence modification, cascading, timingdiagrams, and frequency division. This is currently being done with TTL IC counters in lab.Counters described using AHDL are covered in the second semester course. The last segment ofthe course covers the operation and AHDL description of decoders, encoders, multiplexers, and Page 11.1241.7demultiplexers. The final two weeks are spent completing a team project that uses the many Proceedings of the 2006 ASEE Conference
program over the next five years, New York State will contribute $160 million while International SEMATECH and its member companies, including IBM will add $193 million. The initial project will be aimed at R&D in the area of advanced lithography infrastructure for extreme ultraviolet (EUV) lithography. EUV will be crucial for computer chip manufacturing technology in the future because technical advances are expected to cause present day manufacturing methods to become obsolete for the most advanced chips.”Assessment of Local Needs and HVCC RequirementsWhile many manufacturing segments have been declining in the U.S., the semiconductormanufacturing industry has continued to grow. In addition, developments in Nanotechnologyare poised to
to your course. When your students are learning, what are they doing? How do you engage your students? Give a narrative of how your course unfolds. Element: Teaching and Describe what happens in your course outside of the Learning outside the classroom. Office hours, e-mail, homework, projects, classroom clinical, etc. Element: Role of Course What materials do students use and how do they help the Materials students meet the course objectives? Element: Role of Teaching How to do you interact with your teaching assistants or other Assistants and other instructors and what
the associations between thefaculty dimensions of faculty technical currency, faculty teaching techniques, and facultycommitment to student success, and self-reported student learning and success. Facultyprofessional development activities and technical currency play an important role inpromoting student learning and success. Therefore, an investigation is warranted toexplore the relationship between student learning/success with these faculty constructs.II. Purpose of the StudyThe purpose of this research project was to explore the relationship between students’perceptions of the importance of three faculty dimensions – technical currency, teachingtechniques, and commitment to student success – and their self-reported learning andsuccess
areas.Michael Chan, China Travel Ship Management LimitedDru Wilson, Central Michigan University Page 12.913.1© American Society for Engineering Education, 2007 Integrating CAD/CAM/CAE and Composite Molding Technologies in a Research ExperienceAbstractThis paper discusses the research experience of a student who integrated design andmanufacturing functions to improve a brake shoe used on a band saw. The CAD/CAM andcomposite tooling technologies selected for this project were primarily based on student’sundergraduate and graduate course work. The scanning/digitizing and rapid prototypingtechnologies were also studied. This
the term in which a course was offeredwere also available for ET majors for semesters prior to Fall 2006.Table 1. Course and Data Characteristics. Student-Course Semesters Number of Weeks of ID* Brief Description of data Students Time Data A First year course, laboratory only, required submittal of lab notebook and problem sets 5 65 888 (1 credit) B First year, lecture and lab, required submittal of projects, lab reports, and 1 19 285 problem sets (4 credits) C
models, and on the rapidly developing web-based social networking and contentmanagement tools. It utilizes virtual communities of practice (VCP) to help faculty membersunderstand and implement research-based instructional approaches.The two goals of the project are: (1) to develop a sustainable VCP model for facultydevelopment that will enable relatively inexperienced faculty members to gain an understandingof research-based instructional approaches and to implement these approaches in theirclassrooms and (2) to identify VCP best practices by developing approaches for characterizingthe operation of VCP implementations and relating these to VCP effectiveness. This paper firstsummarizes the literature that underlies the VCP approach; then it
of the experiments so thatstudents can more readily connect the results with the real world. In an effort to improve studentlearning in structural dynamics, forced vibration testing2,3,4 of buildings on the Cal Poly campushas been conducted. Page 23.628.2The Bridge House, a one-story building spanning a small seasonal creek, was constructed in19665 by undergraduate students in the Cal Poly outdoor experimental construction laboratory.The goal of the project was to create a structure that utilized the rough terrain of the nine acrecanyon (see Figure 1). The building has served many purposes over the years including housingfor the canyon
Paper ID #6477FUTURE WORLDS: Development of Assessment Methods for an InteractiveCyberlearning Platform for Informal Explorations in Sustainability for Stu-dents Ages 9 – 12 (Research to Practice)Ms. Rebecca Arielle Citrin, Lafayette College Rebecca Citrin is a junior Civil and Environmental Engineering student at Lafayette College with a strong interest in K-12 Engineering Education. She is currently working with Lafayette College and North Carolina State University faculty members on an NSF-funded education project. Citrin has conducted research on various informal K-12 engineering education projects and has worked on