benefits and challenges of creating a multidisciplinarysenior capstone course from the perspective of engineering faculty. From this study five overallthemes emerged: 1.) multidisciplinary courses reflect real world, 2.) students are primarybeneficiaries of multidisciplinary courses, 3.) current university structure and organization cancreate obstacles, 4.) senior capstone is a critical component in engineering education, and 5.)dedication of resources. The paper will conclude with recommendations for working with facultyto create a more multidisciplinary learning environment for students and initial thoughts on thenext steps in the development process.Capstone as Part of Engineering EducationThe requirements of a 21st-century engineer are
conceptual solutions for a design problem withminimal constraints to create a situation in which they felt free to generate ideas they naturallyfelt were most appropriate for the problem. Second, participants generated ideas for a differentdesign problem that was framed either to encourage more adaptive or more innovative ideas. Wecoded each idea using two different versions of a paradigm-relatedness metric. The metricsassessed the extent to which an idea works within or extends beyond currently prevailingparadigms for the problem. Version 1 had two levels: (1) paradigm-preserving or (2) paradigm-modifying. Version 2 added a third intermediate level: (1) paradigm-preserving, (2) somewhatparadigm-modifying, or (3) strongly paradigm-modifying. We
S-STEM project “HumanConnect” is aligned withthe Humanitarian Engineering Scholars (HES) program in the College of Engineering andsupports scholarships of up to 4 full years for academically talented students who demonstratefinancial need, enabling them to enter the STEM workforce or graduate school following STEMdegree completion. Our two main goals are to 1) Positively impact the retention and graduationof Engineering students with financial need and 2) Improve academic performance relative to acontrol group (selected from another scholars’ community, Green Engineering Scholars or GES).In the first year of the award (2013-14), scholarships were granted to a first cohort of 15 students(11 first year and 4 second year). In the second year
. Finally,students will be tasked to check the “measured” values with the theoretical values calculated byequations that they have learned in the mechanics of material course. This software wascompleted in December 2015 and is currently tested through a course project in one of the twomechanics of material sections. The efficacy of the “virtual” hands-on learning experience inmechanics of material course via VML will be assessed by 1) in-class survey, 2) comparison ofquiz scores conducted pre- and post-project with VML, and 3) statistical analysis (T-test) on thefinal exam scores.2 IntroductionMany studies have indicated the importance of hands-on experience in engineering or physicseducation1,2. However, in most colleges, the majority of the class
FEA results with the theoretical hand-calculation results. The second project was a team design project which was to baseline thestructural strength of a real device and then redesign it according to the design specifications.During the successful implementation of the two projects in spring semester 2015, the majorityof students had strong positive feedbacks about the projects based on the data collected bothdirectly and indirectly. This paper will provide details of the two projects, their implementationand the analyzed results of a student survey.1. IntroductionOne of the main outcomes of any mechanical engineering program is that mechanicalengineering students are able to develop product designs within specified constraints. One ofthe
airfoil in the following way: 1. The first digit describes the maximum camber as a percent of the chord. 2. The second digit describes the location of that maximum camber measured from the leading edge in percent of the chord. 3. The final two digits describe the maximum thickness of the airfoil in percent of the chord.With all percentages given in respect to the length of the chord, the classification of the NACA2412 determines that the airfoil has a maximum camber of 2% located at 40% from the leadingedge, with a maximum thickness of 12%.The professor desired to experiment with the learning process of the honors students. Heprovided them with a project and allowed them to learn about the different subjects involvedwhile they
authored numerous papers on sus- tainability related to topics such as low impact development and carbon sequestration, and is active in the sustainability education community. Dr. Haselbach is a licensed professional engineer and a LEED AP (BD+C). Prior to her academic career she founded an engineering consulting company in the New York – Connecticut area. Her degrees include a BS in Civil and Environmental Engineering from Cornell, an MS in Chemical Engineering from UC Berkeley, and a PhD in Environmental Engineering from the Uni- versity of Connecticut. She is currently an Associate Professor in Civil and Environmental Engineering at Washington State University, an Associate Director of the USDOT Tier 1 UTC: Center
, neurosurgical, and pediatric devices. She teaches courses in design, biomechanics, and mechanics at University of Delaware and is heavily involved in K12 engineering edu- cation efforts at the local, state, and national levels. c American Society for Engineering Education, 2016 Improving Scientific Writing Capability in an Undergraduate Population using a Fading Paradigm Scaffolding ApproachIntroduction The Accreditation Board for Engineering & Technology (ABET) requires that engineeringstudents graduate with “an ability to communicate effectively”1, hence the need for problem basedlearning approaches that also foster scientific writing skills. This need is typically met throughstudent hands
recognize that team building and communicationskills could have been a potential benefit to the assignment based on the literature, these gainswere not measured with data reported in this paper. Rather, the paper focuses on otherpedagogical benefits related to conceptual understanding and awareness.Scavenger Hunt Assignment The scavenger hunt assignment was designed with the goal of getting students out of theclassroom and into a real world setting to practice structural engineering principles. There werethree critical phases of the assignment: 1) visit seven structures demonstrating seven differentconditions, 2) analyze three of the selected structures using appropriate load types, free bodydiagrams, and structural determinacy, and 3
encompasses eight major iterative components:identifying a need or problem, research the need or problem, develop possible solutions, selectthe best possible solutions, construct a prototype, test and evaluate, communicate the solution,and redesign. The design loop is shown graphically in Figure 1. Identify the need or problem Research Redesign the need or problem Develop
included a pump designactivity. Finally, the petroleum engineering lesson allowed students to use laboratory simulatorshighlighting fluid flow, the role of proppants in maintaining fracture openings, and the effect ofpermeability on production of hydrocarbons. The learning objectives for each discipline aresummarized in Table 1. Table 1: Lesson learning objective for six disciplines Discipline Lesson Learning Objectives • Describe moment of inertia and how it relates to bending of structural Civil members • Describe the distribution of forces over an area • Describe the consequences of constructing structures and infrastructure without proper foundations
time in 2013-2014 academic year and two groups completed the project (distal fibular fracture and mandibularfracture). In 2014-2015 academic years, two groups completed the projects (ulna fracture andclavicle fracture), and some student works are shown below. (a) (b) (c)Figure 1. (a) Plate design before surgical instruction given, (b) Plate design after surgicalinstruction given and (c) Size and shape comparision of two 3D printed platesFigure 1 showed that the differences in the plate design before and after the introduction of thesurgical procedure. A group designed the plate for clavicle fracture based on anatomy, fracturesites of clavicle and the engineering mechanics
the classroom with videotechnology and uses class time to engage students in problem solving that is facilitated by theinstructor. This paper describes students’ perceptions and reactions to one college professor’sattempt to utilize a flipped classroom model with his engineering students. Further discussion isoffered in the paper analyzing the ways in which the course structure evolved and the lessonslearned.IntroductionThe “flipped class” has several variations.1 Flipped classrooms are generally structured to havepre-recorded presentations of the course materials followed by in-class activities. Theexpectation within flipped classrooms is for students to view and study the material prior toclass. For some flipped classes, students complete
engineers,etc., as indicated in Table 1.Although these studies have identified key factors influencing retention, the approaches theyused can be lengthy, invasive of student privacy, closed-ended, and/or confusing. For example,an extensive study conducted in 1966 considered attrition at three Midwestern universities.3Academically proficient male students, selected at random from a group of qualified students,were categorized as persisters or non-persisters based on their academic performance and theirretention in the engineering program during their freshman and sophomore years. Studyparticipants were first asked to complete a 35 question, fill-in-the-blank and multiple choicequestionnaire examining educational, personal, and family history
including the syllabus and majorcontent. Assessment of industry’s need for improvement in engineering leadership, the currentimpact and consequences of poorly led engineering projects and the global risk to thecompetitiveness of companies, if not addressed, was presented in 20122.The program addresses assessment, development of and mastery of 14 specific leadership areasillustrated in a polar chart (Figure 1: Leadership Capability Polar Chart), known in the programas the “spider chart”. Figure 1: Leadership Capability Polar ChartThe spider chart is also used as the baseline for a 360-degree feedback process to measure thesuccess of students in improving each of these skills.The exercise described in this paper contributes
, andregulatory environment demands continuous adaptation in all aspects of the industry. Therefore,Construction Management (CM) education needs to continually assess and re-assess itscurriculum and see if its program properly educates future construction leaders who will facesuch dynamic and continual change.Most CM graduate programs are designed specifically for middle and upper-level managementpositions within the construction industry.1 One of the major purposes of the CM graduateprogram is to educate and train construction professionals and managers so that they can getprepared for a successful and productive career.2 The curriculum provides a holistic foundationof management, technology, finance, legal principles, and other valuable skills
class gives thestudents all of the needed project management tools to use and prepare over the summer for a rapidstartup and action-oriented subsequent Fall and Spring semester project. This is especially criticalfor competition team senior project activities.The sequence consists of three separate courses across three semesters: Introduction toEngineering Projects, Engineering Projects 1, and Engineering Projects 2. Introduction toEngineering Projects was intended to introduce students to the CDS projects while teachingmatching engineering specifications to customer requirements, prototyping, product testing &evaluation, and project management. Engineering Projects 1 was intended to cover the vehicledesign while teaching quality function
the STEM fields—science,technology, engineering and math—womenhave been historically underrepresented inengineering more than any other STEMfield. Over the last twenty years, thenumber of B.S. degrees conferred towomen in engineering has been about 18%of all B.S. engineering degrees, and lessthan 1/3 and 1/2 of their respective ratios inbiological sciences and mathematic 1 ; seeFigure 1. The fact that the percentage offemale degrees in mathematics is more thantwice that of engineering suggests thatfemales’ ability in mastering mathematicsis not a factor. A recent study 2, tracking Figure 1. Percentage Females with B.S. Degrees.about 1,500 college-bound students over a decade, has found that
are placed into groups of 4-5 and are required to worktogether to solve several hands-on projects. Both courses are one-credit to minimize operatingcosts and avoid exceeding the 120 credit hour limit imposed by the State University system.According to data collected in a paper published by Honken and Ralston18, the top four reasonsfor choosing a major are: 1) interest, 2) job availability, 3) salary, and 4) confident in one’sability to succeed in the respective discipline. There is need to better understand the differencesbetween career-based and project-based seminar courses and their respective impacts onengineering self-confidence. In this paper, two different one-credit, first-year introduction toengineering courses: seminar and project
section with the closed-ended project were only surveyed afterthe course. Each student was asked to evaluate the effectiveness of four types of courseprojects—Closed-ended (Closed), Open-ended paper (Open Paper), Non-sponsored design andbuild (Non-sponsor D&B), and Sponsored design and build (Sponsored D&B). The survey wasconducted on a Likert scale with 1 being, “Not at all effective” and 5 being, “Extremelyeffective”. The questions asked were, 1. How effective were the projects you completed at reinforcing course content? 2. How effective were the projects at enhancing your creativity? 3. How effective were the projects at enhancing your open-ended problem solution skills? 4. How effective were the projects you completed at
interaction, and improvelearning outcomes. This paper presents the learning theory that supports hands-on experience,the basic structure of the course, the implantation and logistics of the projects, and assessmentapplied to evaluate outcomes as a result of this hands-on addition.Introduction“The function of the engineering profession is to manipulate materials, energy, and information,thereby creating benefit for humankind. To do this successfully, engineers must have aknowledge of nature that goes beyond mere theory.” [1] Various forms of laboratory learningexperience are utilized in engineering curricula to assist students to gain this knowledge. Amongthese laboratory approaches, simulation based on computer software [2, 3] and hands-onexperiments
, and the visual-spatial sketchpad.1 Sweller’s work in CLT also played an influential role inthe development of Mayer’s cognitive theory of multimedia learning, which provides insight intothe ways in which content and presentation style can overload students’ limited working memorycapacity.1 Cognitive overload is specific to the individual, and recent research suggests that oneof the main features of this overload involves the individual’s prior knowledge base.3Understanding human cognitive architecture allows for greater instructional efficacy. Specifically, the instructional delivery of course materials should differ for novice andexpert learners in order to maximize learning.1 Typically, novices are in need of morescaffolding, due to
promising young science and engineering graduate studentsfinancial support and stipend for three years of their graduate studies. The GRFP requires twowritten documents as a part of the application package, one of which is a research statement bywhich students propose their intended graduate research project. The criteria by which thewritten documents are assessed are by the intellectual merit of the project—or the potential of theproject to “advance knowledge and understanding within its own field or across differentfields”, and broader impacts—“the potential of the project to benefit society and contribute to theachievement of specific, desired societal outcomes”1. The fellowship program is open to U.S.citizens or permanent residents in their
extensivefield work providing customized project management training classes for engineering staffmembers from diverse manufacturing industries. The core competencies are mapped to theProject Management Institute’s Body of Knowledge (PMBOK) and the EMBOK to establishrelevancy for the defined undergraduate project management course.IntroductionThe Project Management Institute (PMI) defines project management as the application ofknowledge, skills, tools and techniques to manage activities required to meet objectives within aproject scope.1 The role of a project manager is to lead a team while balancing competingconstraints of scope, cost, and time which are impacted by project risks and desired quality. TheEngineering Management Body of Knowledge (EMBOK
physiology. Dr. Quick promotes student learning and success through incorporating evidence based instructional approaches into both the large lecture and laboratory courses, including active learning techniques that foster student interaction. c American Society for Engineering Education, 2016 Enhancing STEM Education at Oregon State University – Year 2ESTEME@OSU and the Theory of ChangeIn this paper, we update progress through the second year of the NSF WIDER fundedESTEME@OSU Project. The ESTEME@OSU Project is summarized below, and more detailcan be found elsewhere.1 ESTEME@OSU seeks to catalyze broad institutional change throughscaling and cross-pollination of efforts utilizing two evidence-based
approximately 20% of the surveyed studentscould solve programming problems expected by their instructors. In addition, the importance ofprogramming continues to grow; not only are CS and ECE students expected to master the art ofprogramming, but student mastery of domain-specific languages such as MATLAB, R, Maple, andMathematica are now required to perform analysis across a number of engineering disciplines.// 161: Assert CE. _LATB12=1; // 162: Send address of temperature LSB // (0x01): // // .. image:: max31722_registers.png ioMasterSPI1(0x01); // 163: Read data u8_lsb=ioMasterSPI1(0); u8_msb=ioMasterSPI1(0); // 164: Deassert CE. _LATB12=0; // // I2C // === // Available I2C functions: void startI2C1(void); void rstartI2C1(void); void stopI2C1(void
, disabilities, and combination ofthese factors. It also provides flexibilities to on-campus students. In this paper, the frameworkstructure of an asynchronous course and laboratory development for an automation control ispresented. The challenge in this development is to implement the hands-on laboratory experienceto those distance learning students who may not be able to access the real equipment. Results ofthe implementation including opinion feedbacks and grade distributions show that studentswelcome the format of this development.1. IntroductionThe development of asynchronous courses in the engineering technology is based on thefollowing reasons: a. A significant number of engineering/engineering technology students are part-time students
suggest that even with today’s emphasis on first year programs in engineering themajority of engineering schools still depend on one or two credit, single semester, introductorycourses. The lack of prestige for professors associated with one credit introductory courses, aswell as the small effect on student GPA, leads to a situation where these courses becomeoutdated and irrelevant to the educational needs of the students13.At the Virginia Military Institute, the 1 credit hour Introduction to Mechanical Engineeringcourse, ME-105, had reached a point where it was of limited value to students, providing somebackground in manufacturing and design, but no information about the increasingly importantareas of programming and electromechanical systems
blades andcomputational fluid dynamic (CFD) analysis. In this case study, 5ms-1 wind speed is used since itreplicates the wind conditions in the local regions of Georgia. In this research, final results showa comparison of the validation study and the experimental analyses at 5ms-1. Figure 1 shows thefinal computer aided 3-D model of the designed NREL VI geometric blade for test comparison. (a) (b) Figure 1: NREL Phase VI 3D geometric blade design; (a) Reverse isometric view of NREL CAD design. (b) Isometric view of NREL CAD design.The validation comparison is made between Normal Force Coefficient CN and the Non-dimensional Span at 5ms-1. Figure 2 shows the
Paper ID #15674Integrating Computer Engineering Labs with a ”Sound Theme”Dr. Pong P. Chu, Cleveland State University c American Society for Engineering Education, 2016 Integrating Computer Engineering Labs with a “Sound Theme”1. Motivation Recent engineering education studies call for change to enhance student learning and to betterprepare graduates to meet the new challenge1,2,3. A good engineer should have a deepunderstanding of a domain and can apply the knowledge to solve problems4. This requires twotypes of practices – the “component skill,” which is the knowledge of a specific domain, and the“integration skill