graduate studentsenrolled. The College of Engineering and Applied Sciences (referred to as “College” in the rest Page 24.735.2of this paper) offers 14 undergraduate degree programs with an enrollment of 2,220 in FallSemester 2013; and offers 9 masters and 5 doctoral programs with 460 graduate students.1 TheCollege offers the following undergraduate engineering or technology programs that qualify topotentially participate in the S-STEM Scholars Program: Aeronautical Engineering, ChemicalEngineering, Civil Engineering, Computer Engineering, Construction Engineering, ElectricalEngineering, Industrial and Entrepreneurial Engineering, Mechanical
. Engineering Retention ProgramMore specifically, the retention program consists of weekly individual or group meetings withthe STEP retention counselor and attendance at academic and career workshops. In Table 1,topics for meetings with the counselor are shown for each month. Page 24.736.2 Table 1: Meetings with STEP Retention CounselorCounselor Meetings Topic 1 Topic 2 Topic 3September Program Introductions Academic Updates Survey of InterestsOctober Mid-term grades Learning Styles Study skills Professor
Office, International Academy of Design and Technology. (c-1) Five Closely Related Publications (out of >100 refereed publications) None. (c-2) Five Other Significant Publications 1. Caldwell, T.D., Foster, K., Lane, T., Caldwell, R.A., Vergara, C.E., and Sticklen, Jon. What Happens After a Summer Bridge Program: The DPO Scholars Program. Accepted for publication in ASEE 2011. Paper 1790. Five Synergistic Activities 1. Serving as Program Manager for MSU on National Science Foundation NSF 03-520; Michigan Louis Stokes Alliance for Minority Participation (MI-LSAMP); under the direction of Mary Sue Coleman, Ralph Kummler, Levi Thompson, Edmond Tsang and Thomas Wolf. This award was effective from September 1, 2005
while appealing to students’ inductiveand deductive reasoning ability. Using a five step model [1] which includes 1) using aphenomenological overview, 2) a macroscopic qualitative approach 3) a microscopic approach 4)a macroscopic quantitative approach and 5) a microscopic qualitative approach, this papersuggests the redesign of electrical courses aimed at increasing students’ conceptualunderstanding about AC circuits. This work will not only provide information on a holisticapproach to delivering and teaching AC circuit concepts but will also provide an alternativeframework that can be applied to teaching other complex scientific concepts.BackgroundIn engineering learning environments, students are presented with the information throughout
understanding ofa scheduler’s job. Their pragmatic preparation would be orientated to success if they test thecurrent business practices and/or direct applications of the subject matters in the constructionjobsite. Early in the nineties, Benjamin et. al.1 created a knowledge‐based prototype forimproving scheduling productivity; the results confirm the system's effectiveness and support thefurther development of knowledge‐based systems as tools for improving the productivity of theconstruction industry. Real-world learning based on industry project-specific context and best business practicesmay make students a lot more marketable to industry. Every student from each group is sharingcomments, opinions, concerns and experiences, field trip notes
manufacturingprogram. These group curriculum areas by industry needs, as illustrated in Figure 1. The capstonelecture content is highlighted in green as mapped to the four pillars. There is very little coverage ofmanufacturing topics, which is reasonable given the interdisciplinary course composition. However,there is a heavy focus on design, quality, and management as applied to all engineering disciplines. In allengineering programs at GVSU, the course serves as the designated source of business knowledge formany disciplines. For the manufacturing engineering students, most of the unhighlighted topics have beenaddressed in prerequisite courses.The GVSU Senior Project DescriptionA senior project was conducted for a company that makes aftermarket equipment
,graduates, and faculty are presented. This paper also provides direction to the faculty for whichtypes of projects should be pursued for optimal educational benefit and to pinpoint areas thatmight need improvement in project design and implementation.1. IntroductionEngineering design courses provide valuable design experience for engineering students. Thecapstone design courses has gained considerable attention ever since it was found that the studentoutcomes set forth by the Accreditation Board for Engineering and Technology (ABET) areachievable in this course1 . Although capstone design courses are commonly taught at mostengineering schools, how they are taught and what they include varies widely2. Manysuggestions have been made to improve the
the areas of integration of Page 24.743.1 computation in engineering curricula and in developing comprehensive strategies to retain early engineer- ing students. She is active nationally and internationally in engineering accreditation and is a Fellow of ABET and of the AIChE. c American Society for Engineering Education, 2014 Influence of Integrated Academic and Co-Curricular Activities on First-Year Student SuccessIntroductionIncreasing the number of STEM graduates from U.S. universities is a national priority.1 Thisneed can be addressed through a
certainlocale. According the U.S. Census Bureau, there is going to be a great change in the make-up of thenation’s population. Based on current projections in terms of underrepresented minorities, theUnited States will be a majority-minority nation by 2043. By 2060, the Hispanic population willbe doubled and the African-American population will have increased by a factor of 1.5, alongwith increases in the other minority groups [1]. Taking these predictions into account, there is currently a strong disparity between theexpected number of minorities involved in science, technology, engineering and mathematics(STEM) and what is actually seen. Based on data obtained from the National ScienceFoundation (NSF) [2], if one looks at the 20-year trend of
equitable access to engineering education (and morediverse participation in engineering); and an economic need for a new engineering workforce.The US Department of Labor expects the demand for engineers to increase 11% over the nextdecade,1 yet the percentage of students graduating with engineering degrees has been steadilydeclining for the past twenty years2 . The lack of engineers is especially pronounced amongwomen and minorities—in 2007, only 12% of bachelor’s degrees in engineering were awarded toblack and Hispanic students, and 19% to women3. In order to maintain its competitive advantage,inspiring and preparing more children to become engineers has become an imperative mandatefor the US.As we consider how to inspire and prepare children to
learning and cooperative learning have bothbeen used to classify these types of learning activities. Some authors use the termsinterchangeably, while others consider them on a continuum with cooperative learning being themost structured and collaborative learning the least structured.1 For the purpose of this paper, werefer to structured in-class or out-of-class group activities as formal collaboration and voluntarypeer-to-peer student initiated activities as informal collaboration.Background Literature The majority of the research on collaboration has focused on teacher initiated formalcollaboration as part of course design. Definitive reviews have established that formalcollaborative learning techniques can positively influence students
information literacy assessments thatcan be used to diagnose engineering students’ self-directed learning with a focus on informationliteracy skills and attitudes. The two assessments constructed consist of a multiple-choiceinstrument3 and a Likert scale self-assessment of student behaviors related to engineeringdesign8. Preliminary work was carried out under a Purdue Engineer of 2020 seed grant. Theproject goals and objectives are summarized in Figure 1.These instruments will situate self-directed learning within an engineering context by: 1)focusing on skills used in the engineering design process, 2) using technical and scientific topicsrelevant to engineering and engineering grand challenges, 3) being designed and evaluated byengineering faculty
, the Katrina hurricane along the GulfCoast of the United States in 2005, the earthquake in Haiti in 2010, or the most recentlyearthquake and tsunami in Japan. From the White House report on Hurricane Katrina, the stateand local government should develop modern, flexible and transparent logistic system forstockpiling commodities and supplies during the emergency [1]. Improvements in emergencymanagement information and decisions will have a positive impact on those most affected by thedisaster – the affected population. The affected population, however, can create difficulties forthe decision-maker. Each has varying disaster-caused or exacerbated needs and varied demandsfor services from the response organizations. With a general perception of
productfrom its design and production to service support and retirement. Nowadays, PLM has become amission-critical component for manufacturers, and it forms the information backbone of aproduct and its company1. However, facing the explosion of digital product data and differentuser requirements, the development of PLM is limited by (1) isolated “Islands of Data” and“Island of Automation,” (2) the massive data flow of distanced collaborative design,manufacturing, and management; and (3) incapability of humans interpreting and synthesizingdata from different perspectives. The current state severely limits communication across differentuser groups and discourages collaborative management and concurrent product development.3D models are used in almost
learn engineeringconcepts through a concept-based professional development program and to examine theimplementation issues and problems encountered by teachers as they incorporate engineeringconcepts into standards-based curricula and instructional activities. A set of seven researchquestions have been developed to address these goals. These are: 1. What experiences and techniques are effective for improving science teachers’ understanding of engineering concepts through the professional development process? 2. What gains can be achieved in science teachers’ understandings of engineering concepts as a result of using the Project Infuse professional development model? 3. What experiences and techniques are effective in enabling
to engage and encourage students to think creatively in design andengineering. Investigators are exploring how and why the Analytic Hierarchy Process (AHP)method facilitates a creative process, overcomes obstacles to creativity and changes students’perceptions to explore creative design solutions. An AHP-based creativity process is developedand implemented in three different case studies. Lessons learned from these initial trials arediscussed herein and will contribute to a detailed investigation to assess the effectiveness of theproposed AHP-based design process to foster an environment for engineering students to thinkcreatively and to produce creative solutions.1. IntroductionEngineers and STEM professionals must possess the skills and
) courses; these problems further serve tovertically integrate the two courses. The subject of this paper is to describe the projects that havebeen developed for the MoM course. These projects engage students in the use of the structuralanalysis software SAP2000 and also design codes from ASCE, AISC, and AASHTO. Initialassessment results demonstrate that students enjoy the realistic feel of the projects and that theyare able to complete the required tasks, but with a variety of execution and interpretive errors.1. Introduction The understanding that the essence of engineering is “to design” is well established1, yetengineering education has often emphasized analysis at the expense of fostering creativity indesign.2 Nevertheless, many
goals of the program are (1) to increasegeneral awareness of the field of materials engineering among participants and the largercommunity, (2) to increase the awareness of students and parents of the specificopportunities available to study engineering at UAB, and (3) to recruit students to thematerials engineering program at UAB. The paper will discuss the methods used toevaluate the efficacy of the program, as well as best practices and lessons learned sincethe program’s inception. Since the author initiated the program during her first year as afaculty member, the use of rigorous evaluation methods has been important to justifyingthe time and expense of the program, as well as its value in her tenure portfolio.Background and
professional development, and opening the Innovation Center which will provide a pipeline for all students in the Skyline feeder for a vision of future opportunity and career success. Patty served as Principal at Skyline high school for 5 years , she transformed and formed the STEM & VPA Academies which have currently 500 students as part of these certification programs. She was instrumental in securing grants, business and educational partnerships for Skyline and continues to do this work in her new position. Ms. Quinones also organized efforts to implement: 1 on 1 Laptop Initiative, Mini-STEM Academy in the summer, HS Department of Computer Science, internships & jobs for STEM students. Ms. Quinones has presented
literature review, resources, course goals, objectives and assignments.Literature reviewThe U.S. construction industry has long been saddled with a reputation as being resistant toinnovation. Countless scholarly papers and articles in the popular press have identified this traitand bemoaned its effects on both the construction industry and the country as a whole.Respected construction researcher E. Sarah Slaughter acknowledged in her study on constructioninnovation that the “…generally accepted perception of the construction industry viewsinnovation as a rare occurrence.”1 This view is supported by industry journals as EngineeringNews Record editorialized in 2003 that innovation within the building industry is nothing lessthan a paradox, noting that
underrepresentedminorities in the STEM education pipeline. Women constitute 46% of the American labor force,yet only 9% of today’s practicing engineers are women. Similarly, 43% of the students in theUnited States are of African American, Latino, or Native American descent. Yet of theengineering-related bachelor’s degrees awarded in the United States, less than 15% are awardedto underrepresented minorities.1 By creating an engineering program that more closelyresembles America’s demographics, the alarming gap between genders and ethnicities will beginto close - which will simultaneously increase the number of STEM laborers. II. ECE Outreach:Increasing the overall number of STEM graduates is not only a national concern, but on asmaller scale it is of vital
remaining threestudents from Computer Science disciplines.Two or three students are required to form a team to brainstorm, conduct research, design, build,and test a robot using LEGO Mindstorm NXT. The project simulates a real business case. Theteams were asked to investigate, design and implement a prototype of a small, inexpensivesystem that can fulfill the given engineering challenge with the limitation of the budget formaterials and labors. The challenge was to design and program a robot to maneuver through agiven test area in the shortest time, as shown in Fig. 1. It required the robot to go forward,backward, make turns, sense/avoid objects, sense/response the light, and sense/response thesound. The challenge requires a team to practice
course was delivered and howthe students applied the knowledge on designing and developing a ‘ReadingAssistant’. It also describes what conclusions were drawn on the effectiveness of themethod and what lessons were learned.2.0 Engineering ManagementEngineering Management is a discipline that is not rigidly defined and this is evidentfrom a variety of Engineering Management programs offered by different universities.According to Gupta President, Institution of Engineers, India [1], EngineeringManagement is the process of planning, organising, staffing, leading and influencing Page 24.759.2people, and controlling activities, which have a Technological
Page 24.760.2members without revealing information to other groups.IntroductionAs students learning is widely accepted as key metric of student success, increased attention isbeing paid to the tools and techniques best suited to its successful adoption in classroomenvironment. It is very evident that technology seems to offer a natural and accessible way toadvance students learning [1]. ECAR has surveyed undergraduate students annually since 2004about technology in higher education and found that more and more students are using latesteducation technology in their education [2]. On an average student to computer ratio of 4:1 and ateacher and student population ready, willing and able to use technology (Figure 1). Yet despiteits availability
, sustainable power supply, data collection hardware, and data processing software allwork together to provide real-time 24/7 watershed data. The LEWAS functions as anenvironmental monitoring lab which collects continuous water quality, water flow, and weatherdata and transmits it in real time to a data server, where it is stored and broadcast to the LEWASdata viewing website.The LEWAS lab is composed of an interdisciplinary team from a variety of backgrounds, whoall work together to develop and maintain the lab. There are currently 4 graduate students and 4undergraduate students working in the lab, and in the past the lab has graduated 3 graduatestudents (2 MS, 1 PhD) and 6 undergraduate students, and hosted 5 NSF REU students1-5
Page 24.762.3have been generally positive, further high-quality research is needed to validate the overallFlipped Classroom model.Applying Mr. Pink’s research to teaching andlearning in higher education, one mightsimilarly argue that the extrinsic motivationincurred by assigning grades to typicalhomework assignments and quizzes isadequate for learning. However, encouragingintrinsic motivation is much more effective inhelping students to progress up Bloom’sTaxonomy (Bloom) (Overbaugh and Schultz),shown in Figure 1. Following Pink’sargument, in order for students to embracesolving wicked and other complex problems,they must be motivated to do so. What is Figure 1: Bloom's Taxonomy after Overbaugh and
: Pedagogical Objectives The pedagogical foundation for the 2D Design Activity rests in the Kolb learning model18, whichdescribes the complete progressive cycle of learning experiences. As shown in Figure 1, thismodel is based on four fundamental progressive experiences needed for learning: concreteexperience, reflective observation, abstract conceptualization and active experimentation. In theKolb model of learning, the goal for any course or teaching activity is to follow this progressionof student led learning, and to act as a facilitator in the natural inquisitive exploration that willoccur in this progression. Concrete
insupporting ABET accreditation of the Civil Engineering program as well other programs in thedepartment are presented.1. IntroductionThe Civil Engineering (CE) program started at Indiana University-Purdue University FortWayne (IPFW) in 2006; the only public program offered in the area that enables students to getexcellent public education while living at home and attending school. In December 2008, theCivil Engineering Assessment Plan (CEAP) was developed and approved, based on thedepartment’s existing “one-assessment-plan-fits-all” format that was developed for all programsin 2004. The assessment plan requires intensive effort to implement and lacks consistency anddocumentation in some aspects of assessment. In order to meet the ABET requirements
four instructors and judged by both instructors andpractitioners.The senior capstone design course 1 (Senior Project I) requires a group project involving a completedesign that may contain a host of modules including architectural design, structural and foundationdesign, cost estimating, building mechanical and lighting/electrical system design, building occupancyand accessibility studies, elevator design, etc. The Capstone design course is a multi-disciplinary effort;and as such it may involve other disciplines in addition to those in architectural engineering. As aminimum, the project always involves an architectural design, mechanical (HVAC), electrical andlighting systems design, structural and foundation design, and at least one other
will be reduced by morethan half.Introduction The director of a YMCA camp in Cascade, Idaho, is considering a commitment toappropriate forms of on-site renewable energy as its primary source. The load is stronglysummer peaking. The camp’s main multipurpose building, named The Barn, has the heaviest, butrepresentative load. Water heating is the most significant load of the building. Therefore, makingThe Barn “green” was selected as a pilot project. Figure 1 shows the power usage both at thecampsite for The Barn and for the total campsite. Reducing the electrical energy draw from thepublic utility creates significant savings, not just for the energy bill, but also by reducing thedemand charge. It lays the groundwork for creating a