studentmotivation. This paper builds upon the previous work by describing the implementation ofLEWAS based modules into a senior level hydrology course given in spring 2014 as well as theimplementation into freshman level courses at VWCC. Preliminary results from studentassessment in the VWCC freshman level courses have indicated that the LEWAS modules didincrease student motivation.Design of the LEWAS LabThe LEWAS lab is composed of an interdisciplinary group of researchers from a variety ofbackgrounds all working together to create, maintain and expand the LEWAS lab. Currentlythere are 4 graduate students and 4 undergraduate students working in the lab, and in the past thelab has graduated 3 graduate students (2 MS, 1 PhD), 6 undergraduate students, and
Page 24.768.3seen in Figure 1. The code was developed through the MPLAB Integrated DevelopmentEnvironment (IDE) programming interface with frequent references to Microchipdocumentation. Figure 1: Two PICDEM boards used together for Lab 3Standard computers with a USB port are capable of running the IDE. For this class, studentsused MPLAB IDE on MacBook Airs to program. The USB port is used to power and transfercode developed on the computer to the microcontroller. External power sources can also beused.B. ScheduleInitially, the course was designed to use five 90 minute lectures to cover main topics followed bythree labs requiring two to three 90 minute blocks. Lectures included topics regarding parts of amicrocontroller
system has served as a key component in our K-12 outreach program, our freshman chemical engineering classes and as a means for engagingour chemical engineering students in service learning activities.This integration of activities, all surrounding the LEGO™ Robotics system (coupled to Vernier®sensors and probes and “in house”-designed apparatus) has engaged students at all levels, frommiddle school through chemical engineering seniors in an exciting, “studio-based” environment.Anecdotal evidence suggests students readily “latching onto” key concepts and various aspectsof engineering through this “multi-modal” learning approach. Objectives of this method ofprogram integration include: 1) strengthened recruiting of students to engineering studies
be prepared in the current global environment. The qualities that acurrent engineering program should possess include: global and local focus, innovative,collaborative, transparent, flexible, market-driven and accountable.1 The global focus ensuresthat the skills acquired are internationally benchmarked while the local focus makes certain thatthe needs of the regional economy are understood. Flexibility in curricula will allow for quickchange to adapt to current situations and make the process transparent.In Drexel University’s College of Engineering-Engineering Technology (ET) department, manycourses related to design, manufacturing processes, green manufacturing and engineeringmaterials are offered to the students in the Bachelor of Science
method.IntroductionEngineering capstone design courses are recognized as “a culminating experience” wherestudents apply “knowledge and abilities to practical engineering problems”1 that “draws on allprevious course work”2. The capstone experience permits students to connect theory andpractice in the final academic process of developing professional skills of engineering design,professional relationships, and teamwork. Capstone texts each have variations of the designprocess such as stage-gate, systems engineering, and systems engineering lifecycle; however, noconsensus on what specifically constitutes engineering design was found3. Research indicatesthat experienced engineers recognize that the common process being described by these terms isiterative in nature and
and DiscussionIn the United States there are sixty-four institutions offering ABET-accredited engineering orengineering science degrees with forty-two housing engineering science programs within asingle engineering department (Tables 1-3). Engineering science or general engineeringprograms tend to be found at smaller institutions. Privately funded institutions made up amajority (69%) of these schools (Tables 1 and 2). Of the engineering departments offeringengineering science degrees, only four (9.5%) offer environmental engineering concentrations:Dartmouth College, Geneva College, Mercer University, and Messiah College (Tables 1 and 2).Notably, all of these schools are private institutions. In addition to these, Calvin College andSwarthmore
. Figure 1 shows the timeline of a typical freshman engineering program at VillanovaUniversity’s College of Engineering. In the first semester, this freshman engineering coursebegins with a seven-week core lesson plan incorporating engineering fundamentals alongsidedynamic hands-on group micro-projects that bring classroom lessons to life. Following the corelesson plan, students are presented with the opportunity to select two of six interdisciplinary, 7-week hands-on mini projects. These mini projects that span the second half of the first semesterand the first half of the second semester have been designed to expose students to a minimum oftwo different engineering disciplines. By mid second semester, students select their preferredengineering
. Page 24.774.3Students include: 1) traditional undergraduate students, 2) working professionals returning to theuniversity to pursue an advanced degree, or 3) executives looking to learn with other executives.eli2 aims to create a learning environment and experience where students can discover the desireand confidence to be an engineering leader throughout their career. Our mission covers anengineer’s complete career life-cycle. This life-cycle focus is consistent with the AccreditationBoard for Engineering and Technology’s (ABET) focus on the need for life-long learning7. eli2carries the mission across the entire life-cycle of an engineer’s career. eli2 offers programsunique to each of these three student populations. eli2 supports the
Decision Making (IDM) and HUM 207h:Science, Medicine and Reason (SMR), respectively.This is an exploratory paper about the two courses (and plans for additional future courses),detailing the experiences of students and the instructor in the pilot (IDM) as well as the designand the plan of assessment of the resulting new course (SMR). In the process, we examine theneed for and some challenges in integrating liberal education into engineering, technology, IT,and management curricula, along with the role of the humanities, social sciences, andcommunication in engineering education as the means for deepening students’ undergraduateexperiences.1 Although the course has a Humanities prefix, it involves almost equal parts psychology
Page 24.777.3IntroductionThe International Engineering Program at the University of Rhode Island was conceived in 1987.The program was originally designed as a dual degree program for German and Engineeringmajors; students received bachelor’s degrees in the language as well as in their engineeringdiscipline. Key components of the program from the beginning were specialized languagecourses that included instruction in technical German and a six-month professional internshipwith an engineering company in one of the German-speaking countries.1 In 1995 an optionalsemester of study at URI's partner university, the Technische Universität Braunschweig, wasadded. The German undergraduate exchange was eventually expanded to include graduateprograms in
c American Society for Engineering Education, 2014 Integrating Sustainability Engineering into Second-Year CompositionAbstractCommunity colleges are currently facing several challenges, namely 1) increasing the number ofstudents successfully completing STEM degrees, 2) increasing the number of transfers betweencommunity colleges and four-year institutions in STEM majors, and 3) increasing the overalltechnical ability of the current workforce. As more community colleges offer engineering andengineering technology, they must also look for ways to increase student participation andretention within STEM and STEM-related fields that are feasible given cost and personnellimitations. One way our
on student, faculty, and programperformance. All materials developed in the proposed TUES 2 program (courses, modules) willemploy well-known experiential learning pedagogies and build on the teams’ sustainabilityengineering educational expertise. Flexibility will be built into the stand-alone course materialsand modules to accommodate the resources of different faculty and facilitate the adoption ofthese courses across different universities. Our aim is to train students to think outside the box,connect their learning to the real world, and who are prepared to tackle the engineeringchallenges of a global economy. Specifically, through this proposal we plan to (1) create and (2
. Page 24.780.1 c American Society for Engineering Education, 2014 Integrating the Energy Efficiency and Assessment Components into ManufacturingAbstractThis paper reports the current developments and implementations on energy efficiency andassessment studies in an engineering technology program. The developments are basically in twocategories: 1) Web-based teaching modules of Renewable Energy Education have beendeveloped through a funded research project. Instructional Materials, Laboratory Practices andAssessment Exercises have been posted to iLearn (which a Desire2Learn system) and Canvas(which is an Instructure system). Developed materials have been tested by
(Figure 1). FIGURE 1 Descriptive Framework Showing General Features and Subcomponents of Integrated STEM Education GOALS OUTCOMESGoals for Students Outcomes for StudentsSTEM literacy Learning and achievement21st century competencies 21st century competenciesSTEM workforce readiness STEM course taking, educational persistence, andInterest and engagement graduation ratesMaking connections
vertically integrated service-learning designprogram (engaging first-year students, sophomores, juniors and seniors) with a first-year learningcommunity to provide students with the benefits of an authentic design experience as well as thesupport of a first-year learning community. The learning community courses are used as analternative path to the traditional first-year engineering program of the university.Purdue University’s First-Year Engineering ProgramAll engineering students at Purdue University are required to complete a common first year coreof classes shown in Table 1 before matriculating to their respective engineering major.Minimum grade levels are established for matriculation to the major of their choice. The First-Year Program
diesel,biodiesel, alcohols and vegetable oils have been tested in compression ignition engines in detail.There is some work done in the literature regarding the operation of micro gas turbines withalternative fuels such as biodiesel and straight vegetable oils [1-4]. Because vegetable oils have ahigh viscosity, they cannot be used in gas turbines without fuel modification. Such modificationcan be done by preheating vegetable oils to the point where the viscosity is comparable to dieselfuel in order to achieve good fuel atomization, which affects combustion and emissioncharacteristics. Although biodiesel has a lower viscosity than vegetable oils, it is still moreviscous than diesel. Thus, some fuel preheat is needed in order to achieve
Museum’s CollectionWithin STEM education, a movement called STEAM (Science, Technology, Engineering, Art,and Mathematics) is gathering momentum. Yet, while articles abound with ideas forincorporating STEAM concepts into K-12 classrooms, the literature on STEAM education at theuniversity level is scant. Complicating matters is the fact that the “A” in STEAM does notalways stand for “Art”; for example, in one recent ASEE paper that contains the words “STEAMcurricula” in its title, the “A” stands for “Agriculture” [1].However, reflections on STEAM at the university level can be found in a few papers presented atthe 2013 ASEE convention. One, “Faculty reflections on a STEAM-inspired interdisciplinarystudio course,” offers insights on the opportunities
) as an assessment tool for their Introduction toEngineering course sequence. While each year the ePortfolio assignments have expanded, theyhave been focused largely in three types of reflections: (1) student experiences within the collegebut outside of the course, (2) the skills gained specifically through course projects, and (3) theirfour year plan to be a successful engineering student as defined by the ABET a-k criteria.ePortfolio assignments were initially included to allow students to reflect on their education,develop evidence of their blossoming skills, and take control of their graduation plan. After thefirst year of practice, there was a clear secondary benefit to the faculty and student advisors.Anecdotally, student reflections
difficulty DHH students experience in developingthe critical skill of problem solving, which requires the integration of information to iterativelygenerate hypotheses and solutions around the traditional scientific method. The struggles thatmany DHH students face in mathematics as well as general problem-solving skills are well-documented and limit the potential for DHH students to be successful while pursuing careers inSTEM. 1-3Several important findings in DHH research have provided some insight as to why DHH studentslag behind their hearing peers in the development of problem-solving skills. First, DHHstudents, on average, do not possess the same level of conceptual knowledge as their hearingpeers.4-6 As a result, when faced with a problem
assessment results will be compared to the 2009and 2011 studies, along with other assessments. It is believed that these results, and thecontinued assessment of the teaching approach at this institution, will provide valuable insight toother programs to help them overcome the challenges of teaching information technologies.IntroductionThe purpose of this paper is to present the results of the assessment of the continued efforts toimprove the learning and teaching of a site design software package in the Civil Engineerprogram at the United States Military Academy. The results are an extension of two previouslypublished papers: Integration of Information Technology Software in a Civil EngineeringProgram (2009, Caldwell et. al.)1 and Integration of
and mechanical engineering technology education programs.The field of manufacturing engineering covers the broad spectrum of topics derived from thedefinition, “Manufacturing requires that a modification of the shape, form, or properties of amaterial that takes place in a way that adds value”1. The ASME’s Vision 2030 surveys of industryengineering supervisors and early career mechanical engineers have illustrated that the curriculaof mechanical engineering and related programs have an urgent need to enhance students’comprehension of ‘how things are made and work,’ e.g., the knowledge and skills needed todesign and efficiently produce products via high-performance systems.2 This paper focusesprimarily on a model for the manufacturing field
Engineers. This paper is a collaborative effort between the NationalResource Center for Materials Technology Education (MatEd), and the Society of ManufacturingEngineers (SME), through its Center for Education and the Manufacturing Education &Research Community.1. Introduction and BackgroundThis paper focuses on the integration of materials technology into the overall field ofmanufacturing. Manufacturing relates to the transformation of materials from one form toanother. In this process, the properties of the materials involved can also be transformed—thatis, the manufacturing process can change the properties of materials. Thus in the materialsselection and manufacturing planning phases of the design process for a product, it is essentialthat
cartridge. The smart pen user must writeon special “dot paper” (see Figure 1b)) that allows the pen to orient itself. The dots arepractically not visible to the naked eye and give the dot paper a slightly gray appearance.a) Smart Pen. b) Writing with Smart Pen on Dot Paper to Create Pencast. Figure 1. Smart Pen and Creating Pencast. Page 24.790.4Figure 2. Pencast Sample Screen Shot Page 24.790.5Compatible DevicesPencasts can be viewed on the several software platforms listed above by any device that canaccess these platforms. The authors have primarily utilized the familiar
expertise of ourcolleagues, but we all feel responsible for all the programs. Thus, regardless of disciplinarybackground, each has learned a great deal about the other engineering disciplines.Multidisciplinarity of sustainabilitySustainability involves products, processes, and practices that meet the needs of currentgenerations while preserving the ability of future generations to meet their needs. Sustainabilityhas three major components, sometimes called people, planet, and profit, as explained in moredepth by Figure 1. Thus the topic of sustainability is inherently interdisciplinary, both withinengineering disciplines and in connecting engineering to disciplines outside of engineering
which can be taught as a self-‐standing Engineering and Technology exploratory elective. The units are 1) Biomechanics, 2) Electromagnetic Radiation (EMR), 3) Renewable Energy and 4) Analog to Digital Conversion. In each unit, students take the role of employees of an engineering company, responding to a “Request For Proposal “(RFP) by using LEGO® MINDSTORMS NXT robotics and 3-‐D prototyping to solve the relevant engineering challenge. Engineering Design Model The REDC units use a model of engineering design that correlates to the spiral model of product development by Sheppard, Macatangay
Literature: Like most initiatives to address the underrepresentation of women and minorities in STEM, the advocacy tips are drawn from a rich body of literature and evidence-‐based experiences. In a recent essay, Acker [1] reflects on 30 years of theorizing and researching gendered substructures enacted in organizations and, while recognizing that recent research provides clearer understandings of why women enter and/or remain in academia, also acknowledges that “a number of issues about how to think about gender inequalities remain unresolved” (pg. 214). Acker further notes that white men generally dominate top organizational positions and that
Education, 2014 Interactive Probabilistic Risk Analysis for Construction Engineering and Management Jing Du, Ph.D.1, Yilmaz Hatipkarasulu, Ph.D.2 and Rui Liu, Ph.D.31 Department of Construction Science, The University of Texas at San Antonio, San Antonio, TX;PH (210) 458-3053; email: jing.du@utsa.edu2 Department of Construction Science, The University of Texas at San Antonio, San Antonio, TX;PH (210) 458-3099; email: yilmaz.karasulu@utsa.edu3 Department of Construction Science, The University of Texas at San Antonio, San Antonio,TX; PH (210) 458-3054; email: rui.liu@utsa.eduAbstractRisk analysis is critical to the success of construction projects. Traditionally, probabilistic riskanalysis is based
“learning-by-doing” and problem-basedlearning methodologies [1, 2]. Students process new knowledge and master complex operationaland maintenance skills in such a way that it makes sense to them in their own frame of reference.According to contextual learning theory, learning skills and acquiring knowledge "in context" isthe most efficient learning strategy [4, 5].The software has a flexible multi-layered and open-ended architecture. All learning and teachingresources are based on a uniform pedagogical approach and conceptually organized in such amanner that they compliment each other and enable students to tackle the leaning subject from Page
students.introductionFor over five (5) years, Rowan University faculty members have been engaged as EducationalOutreach Partners with the NSF-sponsored ERC on Structured Organic Particulate Systems Page 24.797.2hosted by Rutgers University (with member schools: New Jersey Institute of Technology, PurdueUniversity and University of Puerto Rico-Mayaguez). The goal of this educational partnershiphas been to develop and disseminate undergraduate materials related to pharmaceuticaltechnology and to seek ways to integrate this into the undergraduate engineering curriculum.1-3Pilot testing at Rowan University, including the use of some of the materials in the
although not free of frustrations. Faculty also observed the pedagogicalvalue of collaborative projects but there was no consensus as to if or how much extra work isrequired to administer them.1- IntroductionCapstone design projects, being the culminating experience of a typical four year engineeringcurriculum, present an opportunity to reinforce a number of critical soft skills that are deemedimportant in professional engineering practice. Such soft skills are outlined by the EngineeringCriteria of ABET1 relating to communications, teamwork, ethical responsibilities, contextualunderstanding, among others. A more extensive list of student outcomes, presented by the KernEntrepreneurship Education Network (KEEN), is aimed at fostering an