Paper ID #9304Development of Graduate Leadership and Management Programs for Work-ing ProfessionalsDr. Ronald W. Welch, The Citadel Ron Welch (P.E.) received his B.S. degree in Engineering Mechanics from the United States Military Academy in 1982. He received his M.S. and Ph.D. degrees in Civil Engineering from the University of Illinois, Champaign-Urbana in 1990 and 1999, respectively. He became the Dean of Engineering at The Citadel on 1 July 2011. Prior to his current position, he was the Department Head of Civil Engineering at The University of Texas at Tyler from Jan 2007 to June 2011 as well as served in the Corps of
) Evolve! The learner is asked to describe how her or his views have shifted based on the content presented in the module, and how she or he will use the content in future applications in the engineering community (community-centered) Reflect!The learner is given time to personally reflect on the content and learning that has transpired in the module (learner-centered.) Stemming from early constructivist theorists like John Dewey and Jean Piaget, structured time for reflection in learning is becoming a well-recognized component in meaningful engineering learning environments.The LEADER modules were designed and structured to advance particular professionalsskills as identified: (1) via empirical findings
Laboratories allow students to see how molecular interaction gives rise to thephenomena described by mathematical equations. The IVLs can currently be accessed online viathe AIChE Concept Warehouse (cw.edudiv.org). This paper focuses on how students use twoIVLs, one based around the thermodynamics threshold concept of pressure-volume work and theother on that of reversibility.1. Pv Work. Work is an abstract concept, and it is often difficult for students to understand how the act of doing work on a system adds energy. Intuitively, students may understand that compressing a gas causes it to undergo an increase in temperature, or a ‘heating up’. The purpose of the work simulation is to give students a physical model explaining why doing work on
electronics converter applications. The experiments are designedto be focused on the ECE aspect of the renewable energy and most of the experiments are open-ended.I IntroductionIn the past decade, renewable energy has become one of the hottest topics in engineeringeducation[1]. To catch this trend, Gannon University has been offering the integration ofrenewable energy into electrical power systems course to ECE undergraduate students as atechnical elective since Spring2010. Textbooks covering general topics in renewable energy havebeen published by major higher-education publishers[2-4], yet it is not easy to find a matchingtextbook that has appropriate knowledge level and tailored scope for junior/senior ECEundergraduate students with the focus
oncampus. Each surveying group was paired with a highway design group to complete the project.The highway design teams (senior level) served as the project lead and each surveying team(sophomore level) was required to communicate with their highway design counterparts tocollaboratively complete this project. This paper presents the development of a civil engineeringtechnology/construction management MULC model and the results of the first delivery of aMULC project.IntroductionAs of December 2010, the Program for International Student Assessment (PISA) results revealedthat U.S. students ranked 17th in science and 25th in math out of 70 other developedcountries.[1] Unfortunately, these rankings are neither new to the science, technology,engineering
meaning and relevance of Page 24.429.2the data the students acquire in the laboratory.A significant body of literature is available in engineering education journals and conferenceproceedings addressing the issues of modernizing teaching laboratories to take advantage of newand emerging educational technologies. Many of these papers can be categorized as either (1)projects incorporating multimedia elements to create on-line materials to facilitate the delivery oftheory instruction while retaining a significant “hands-on” component,1-13 or (2) projects inwhich virtual or remotely operated laboratories suitable for distance or totally on-line
their lack of interest in the course material and lack ofmotivation to learn and apply this material to their future studies and work. Despite thispessimistic background, the authors propose the following working hypotheses and apply themto a large service course in Electrical Engineering (EE) for non-EE engineering majors.The working hypotheses: 1. Non-EE engineering students who are taking a required EE course can develop interest in EE, become motivated and confident to apply EE to their fields of major. 2. Researchers can identify what teaching events and/or components of the course foster students’ interest and motivation. 3. Researchers can find out what parts of the course material the students see as valuable
Iowa State University in the followingways: 1) They can help address capacity issues caused by increasing enrollments; 2) They canfacilitate online learning opportunities for off-campus students, including the increasing numberof students pursuing internship and co-op opportunities, thus enabling offering to new studentsand potentially minimizing time to degree for in-program students. Offering lab activities onlinedemands modification of current laboratory systems or the creation of new systems. In additionany laboratory experience that is thus delivered must be assessed for its impact on studentlearning in comparison with the traditional experience. Consequently we have endeavored topilot selected laboratory experiences in our undergraduate
communitycollege system over eight years. Particular attention is given to developmental mathematicscourse-taking among the community college STEM credential recipients in the sample. Findingshighlight the importance of understanding the nuanced context of STEM within communitycolleges. IntroductionCommunity colleges are an important entry point to postsecondary education for adults with noprevious college education or postsecondary credential, and they generally provide completerswith a wage benefit.1 Some research suggests that individuals pursuing and completingpostsecondary science, technology, engineering, and mathematics (STEM) credentials accrueeven greater labor market benefits than students in non-STEM
pioneer and expert in distance learn- ing and eCommerce. He is also a Kent Fellow on Social Ethics from University of Southern California where he completed his post-doctoral studies. Dr. Tita’s research interests are in exploring the role of the Web in trade development and education and training, in general, for the emerging economies. Other primary teaching and research interests are professional ethics, e-commerce, entrepreneurship, social en- trepreneurship, and strategy in the global economy. Address: D’Amore-Kim School of Business, Northeastern University 360 Huntington Avenue, Rm.219A, HA Boston, MA 02115 Email: w.tita@neu.edu; wtigatita@yahoo.com Phone: 1-617-373-7259 Mobile: 1-508-735-7945
. Page 24.434.2The instrumentation setup which can be used for most human physiology laboratory experimentis shown in figure 1 below. Figure 1 Biomedical Instrumentation SetupTypical experiments using this basic instrumentation setup includes Cardiovascular Physiologytest, Neurophysiology test, and Pulmonary Ventilation test. The following are a compilation ofexperiments for each category.A. Cardiovascular Physiology Experiments1. Electrocardiogram and Heart Sounds2. Electrocardiogram and Peripheral Circulation3. Exercise, the Electrocardiogram and Peripheral Circulation4. Blood Pressure, Peripheral Circulation and Body Position5. Blood Pressure, Peripheral Circulation and Imposed ConditionsB. Neuro Physiology
the lessonslearned, the summer outreach activity happened at partner institutions, and finally, theundergraduate research experience. I. IntroductionProgrammable Logic Devices in general and FPGA-based re-programmable logic design becamemore attractive as a design media during the last decade, and as a result, industrial use of FPGAin digital logic design is increasing rapidly. Considering the following technology trend inindustry, the need for highly qualified logic designers with FPGA expertise is increasing rapidly.According to the United States Department of Labor, the job outlook is on the rise and willcontinue to expand for at least the short- to medium-term future [1]. To respond to the industryneeds for FPGA design skills
curriculum modules and laboratorymodules to teach microcontroller concepts. During the second year 60 faculty throughout theU.S. were taught microcontroller/embedded system concepts and exercised hands-on laboratoryexperiment activities using distance learning technologies. Feedback has been favorable. Duringyear three an additional group of faculty will be taught these concepts and an academiccommunity with common interest of embedded system design will be built, bringing the totalfaculty trained to 120.Goals of the Project To accomplish this statement of work, there are four guiding goals that include:1. Create a teaching platform with supporting instructional and hands-on laboratory modules to teach microcontroller concepts and activities
of the program. Qualitative data allows for a better understanding of the instructorseffectiveness as well as the effectiveness of the course. Assessment techniques were used indetermining the effectiveness of summer camp outreach programs on spiking females,international and URMs interest in pursuing STEM related studies at the university level6, 7, 8.The environmental engineering mini-course served three overreaching goals: (1) increase thenumber of females pursuing engineering; (2) recruit academically strong international students toengineering programs, specifically to TTU; and (3) increase the number of Hispanics, AfricanAmericans and other underrepresented minorities (URMs) enrolling in engineering programs.This paper details outreach
teachengineers professional skills, global and cultural competencies, hands-on experience, andcomplex problem solving1,3,5,6. These claims have fueled this research’s focus on EWB-USAmembers.In order to better understand EWB-USA members, this research compares questionnaireresponses from engineers who are EWB-USA members with engineers not involved with theorganization. In general, we seek to better understand the ways in which these two groups ofengineers are similar and different in (1) how they begin their engineering studies, (2) what theylearn during their educational experiences, and (3) what they expect in their future engineeringcareers. This paper shares the findings from a pilot survey that will later be deployed to theentire memberships of
Summary: Introduces students to the concepts of natural and man-made water treatment and purificationas they engage in prototyping working water filters from a variety of natural materials.1. Students plan and carry out an 1. Build Background Knowledge: Show students one or both of theinvestigation of water purification following videos. These videos provide context for the experiment. Eachusing natural materials. video describes an approach to filtration; together, they offer different2. Through design, prototyping & frames in terms of scope & scale of filtration systems.analysis, students identify the Water Treatment Plant:http://goo.gl/gfgCn3materials and
, like mother like daughter],” there areestablished connections between family background and students' educational aims andoutcomes.3,4 Families are critical to providing support for student attainment through emotionalas well as financial dimensions, from purchasing textbooks to paying for college.3,5 Parents shapechildren's attitudes, motivations, values, and aspirations through a socialized family culture andare a locus of control in the education of their children.6,7 Social scientists have noted thisinfluence and the patterns by which students “inherit” the occupational status of their parents.This finding, especially true for sons, and is referred to as occupational inheritance whichoperates by two primary mechanisms: 1) socialization of
/ engineering to society and thereby increase their interest in thesecareers.22Males tend to have a more positive view of engineering’s impacts on society than women. Forexample, in a fall 1998 study incoming first-year male engineering students had a more positiveperception of how engineers contribute to society than female students at five institutions (withadditional 10 institutions that were higher, but not statistically significant).1 The perception ofengineers as contributing to the welfare of society was also more positive among first year maleengineering students’ in 2006, where male students averaged 4.66 compared to females at 4.29(on a 6-point Likert scale where 4 = agree a little bit, 5 = agree, 6 = strongly agree).2Differences in the
ininterviews that they can influence students to pursue science, technology, engineering, and math(STEM) degrees after high school. The research team created a survey to see if a broader sampleof teachers would agree that teachers can influence students to study STEM after high school.The survey listed 18 items that might influence students to study STEM in college.Unbeknownst to respondents, each item reflected one of three factors: 1) teacher instruction andadvising 2) student proclivity, and 3) student traits. The survey was completed by 215 teachers,who identified student proclivity as most influential in students’ decisions whether to pursueSTEM majors in college, followed by teacher instruction & advising. The authors thendistributed a
complicated, with many stages inthe engineering recruiting and admissions cycle during which any student, and especiallycoveted female students, can be lost to other universities.The “recruiting funnel” is a well understood college admissions process.1 The top of the funnel(see Figure 1) represents the prospects stage and contains the highest number of students—allthose who have some interest in attending a university. Some of the prospective students apply,becoming applicants. The applicants are reviewed by the admissions department and a portion isadmitted. From those admits, a subset of students decides to attend the university, confirmingtheir intent to enroll and becoming enrollees. The final stage of the funnel is referred to as the“yield” and
’ questions or concerns, andstudents’ feeling of isolation from the instructor and other students enrolled in class.1-6 Song andcolleagues found that a familiarity with online technologies and proper time managementcontributed to student satisfaction in an online environment. 2 They also indicated that a lack ofstudent understanding of course objectives lead to students’ dissatisfaction in a web-basedcourse.2To improve online courses, it is necessary to understand the learners’ experience and to addressthe challenges faced by online learners.3-6 Although the implementation of blogs and chat roomshave significantly improved students’ experience in a web-based course, it is also important toadapt other technological advances to the online environment
competing options.Since inception the overall mission of the program has remained the same while specificcomponents have been transformed to reflect the changing needs of our student population. Abrief review of the academic accomplishments of participating students in previous EDGEprograms as reported by National Student Clearinghouse in December 2012 is shown in Table 1.Education Enrolled Not in Enrolled in Graduated Enrolled in Graduated GraduatedLevel in EDGE Records a 2 Year with a 4 Year with a with a College Associate University Bachelor Master’s Degrees
number of national and state policies that encourage theuse of traditional energy sources. These policies range from royalty relief to the provision of taxincentives, direct payments, and other forms of support to the non-renewable energy industry.“The combination of subsidies—or ‘perverse incentives’— to develop fossil fuel energy sources,and a lack of sufficient incentives to develop renewable energy and promote energy efficiency,distorts energy policy in ways that have helped cause, and continue to exacerbate, our climatechange problem12.Learning Outcomes and Methods of Evaluations or AssessmentStudents after successfully completing of this course should be able to perform the followingtasks as shown in Table-1
hybridelectric vehicles (PHEV) are growing in popularity, increasing the demand for efficientand reliable power flow control systems that can monitor and regulate power flow inhybrid AC-DC power systems [1]-[2]. Control of power flow in hybrid AC-DC powersystems is done by controlling the multiple bidirectional DC-DC and AC-DC convertersused in these grids [3]-[4]. It is of the utmost importance to teach power systemsengineering students how to communicate with devices, such as converters and batterymanagement systems, to monitor and control the power flow across a micro grid [5]. Thegrowing implementation of smart grids and wireless communications emphasizes theneed to teach students how to implement wireless communication devices withapplications to
energy11(http://www.che.msstate.edu/pdfs/energy/index.html) modules online.Multidisciplinary Nature of Solar EnergyConsider a photovoltaic installation on an individual’s roof-top. Apart from the higher efficiencyof the panels, the individual will also look for a cheaper material for panels. In order to regain apart of his investment, he might think of selling the excess electricity produced. Thus like anyother method for power generation, utilization of Solar Energy is not solely based on science orengineering. Factors like finances and policy making also play an important role in itsdevelopment. This multidisciplinary nature of Solar Energy is illustrated in Figure 1. As a result,it would not be sufficient to provide students with only the
motivation andinterest in course content and improve retention.5-6 Through computing, instructors can bringtogether concepts and ideas from mathematics, science, and engineering and allow students tointeract with them, helping to form the cross-disciplinary mental connections necessary for moreexpert-like understanding.7-8In the fall of 2012, the University of Cincinnati converted from a quarter system to a semestersystem. This conversion provided an ideal opportunity to review the first-year curriculum for theengineering and engineering technology students and make changes to help improve retentionand performance of students in the College of Engineering and Applied Science (CEAS). Thecollege faculty agreed on an almost common first year (Table 1
Page 24.452.1 c American Society for Engineering Education, 2014 Effect of Student Model Presentations from a Speaking Contest on the Development of Engineering Students as SpeakersIntroduction Because of TED.com, many high quality models exist of professional engineers andscientists presenting. However, high quality examples of students presenting are lacking. Suchhigh quality models by engineering students are important because many engineering studentscannot project themselves presenting in the same manner as TED speakers, who are experts intheir fields [1]. For instance, engineering students simply cannot generate the same level oforiginal content as TED speakers do. At Pennsylvania State
capstone projectsrequire two courses done over a three month period. Since these constraints require projects to becompleted within a time intensive setting, preparation and execution have to be flawless to meetthe learning outcomes previously established. There is little room for error or slack. This paperpresents a process to complete an effective capstone project. In addition, this project provides ado’s and don’ts list.Capstone Project The Integrated Project Course is the capstone course of National University’s curriculum.It is the last two classes taken by the students before graduation. The two classes run for threeinstructional months. The initial class (1 month) focuses on establishing an approved projectproposal. Although the
other educators who are interested in adopting CPBL-beyond-Classroom to redesign their courses based on the learning needs of their own students. A. IntroductionThe ability to solve real-world problems and design systems or components under realisticconstraints are essential to engineering and computer science graduates, as both mandated byABET and highly valued in professional practice. To help students develop such valuable skills,project-based learning (PBL) has been considered as a useful pedagogy by many engineering/CSeducators. However, it is also recognized that PBL may not always function if not designed andintegrated in the curriculum appropriately [1-4]. This challenge magnifies at commuter campuseswhere students having difficulty
stated by McCracken et al., the average studentperformance witnessed in their study was even lower than they expected.1 This issue is Page 24.455.2exacerbated within the context of the Engineering Models courses due to the additional subjectmatter intended to provide context within engineering, mathematics, and the sciences included inthe course. In addition, the Engineering Models I and II courses are predominately taken byfirst-year students so they are also dealing with the sudden change in school environment.Therefore, methods need to be developed to help students develop an understanding ofcomputing concepts to allow them to focus on the