, project methodology will be discussed. We discuss the project design program fromstudents’ point of view, and the experience earned in design, integration, and also in written and oralcommunication skills. Methodology used to evaluate the effectiveness of the capstone design program Page 26.520.2in term of learning outcomes is also described.ASEE Annual Conference, 2015Introduction:In this day and age, technology is improving the system performance and saving energy. Frombeing able to use cellular phones as cameras, computers the sizes of notebooks, and vehicles thatrun on renewable energy other than fossil fuels. Another popular topic is
addition, the creation of this course hasincreased student interest in communications systems and RF electronics and electromagneticsand an increase in capstone projects involving these principles. As part of the course evaluation,students are asked if class activities are well prepared. Out of a total of five points, the averageresponse was 4.23 in Fall 2013 and 4.78 in Spring 2014. The students are also asked if theassignments and projects aided in achieving course objectives. The average response was 4.31 inFall 2013 and 4.72 in Spring 2014. One can see that the responses were good and also increasedfor the second offering of the course. This can be attributed to “fine tuning” that was done to theinteractive exercises and the course project
Paper ID #13329Teaching and Learning Open-Ended Problem Solving Throughout a New De-gree ProgramProf. Jenifer Blacklock, Colorado School of Mines Dr. Jenifer Blacklock is the Assistant Department Head in the Mechanical Engineering department at Col- orado School of Mines. Jenifer is active in the Undergraduate Curriculum in the Mechanical Engineering department and is an advocate of using hands-on-learning tools to help develop strong math, science and engineering foundations.Prof. Jered H Dean, Colorado School of Mines Jered is Director of the Mines College of Engineering and Computational Sciences Capstone Design Pro
the CEE Department. Development of professional skillsculminates in a civil engineering capstone class were students work on multidisciplinary teams toachieve common design project goals and communicate their engineering findings to aprofessional and public audience. Specific CEE courses that develop student professional skillsare identified in Table 2 and are further described in an accompanying matrix provided in Table3 that summarizes mapping of 28 course objectives to levels of Bloom’s Taxonomy. Courseobjectives are mapped to Bloom’s Taxonomy levels and provide a collective view of curriculummapping for professional skills development. Half, 14 of 28, of the course goals aligned withprofessional skills development are from Professional
creating a Connect Four game with AI that played against the user.Dynamics. Our Dynamics course is as much of a Capstone course as anything for McLennanEngineering. The embedded project for this class is for students to design a Rube Goldbergmachine. Rather than the typical high-school version of this project, potentially involving a lotof dominos and maybe an exploding potato, students must meet specific design goals todemonstrate certain types of motion studied within the class. There are requirements about set-up time and success rate of the machine. (Anyone who has attempted such a machine willrecognize the challenge in having a five-minute reset time and an 80% successful completionrate.) Students must build the machines in a CAD program and
the problem on hand.As we can see from how learning takes place in this initiative, there is a great balancebetween learning and service in this activity (Figure 2). The focus of working on theproject definitely is on service learning.Figure 2: What is Service Learning (Furco 2000)The three dimensions of service learning are 1. Curricular Content 2. Service 3. Social IssueThis project experience serves as a capstone project for the students. Students are able to Page 26.1367.4apply their curricular content and develop practical knowledge. For example, one of theprojects involves developing a sound maintenance plan for the wastewater plant
during the internship, write a finalreport on their capstone project, and deliver a final poster presentation of their capstone project.Rubrics are provided for the students so they understand the expectations for each deliverable.Upon completion of the program, students will be able to 1. Demonstrate broad technical skills 2. Think critically & solve problems 3. Discuss current research 4. Discuss the history, theory, & ethics of stem cell investigation 5. Present and communicate effectively 6. Network with professionals in the fieldInternship MatchingThe centerpiece of this program is the 9-month internship that our students embark on. As such,we worked to develop a formal procedure to facilitate the pairing process to
recruit and retain capable freshmen students from ourintroductory courses (Introduction to Computer Science, and to some extent, Introduction toProgramming, and Programming Methodology) and the second is to remove the anxiety thestudents have, stemming from the unknowns of their future educational experiences. Theprogram works by showcasing the accomplishments of our senior students to our freshmen inthe Introduction to Computer Science and to have a question and answer session between thesenior presenters and the freshmen students. We invite the senior students from different senior level courses, such as Senior SoftwareEngineering Project, our capstone course, and high-level elective courses, for example, DataAcquisition and Control. Each of
engineering professor at the University ofColorado Boulder and has interests in sustainability, Learning Through Service (course-basedservice-learning and extracurricular service programs), social responsibility development instudents, ethics, and global issues. Her teaching for undergraduate students has focusedprimarily in the first year and capstone design, with learning outcomes targeting sustainability inall of her courses. She has found that project-based learning is an effective method to achieve adiversity of inter-related, complex learning outcomes. She has also found that case studies canserve as the basis for stimulating students’ considerations of complex issues such as ethics andsustainability. A case study that she has used for many
a design project: 1. Conceptual design review; 2. Preliminarydesign review; 3. Evaluation and test review; 4. Critical design review.Success in system engineering derives from the realization that design activity requires a “team”approach. A general challenge in today’s environment pertains to implementing the overall systemdesign process rapidly, in a limited amount of time, and at a minimal cost. Multidisciplinary teams;experiential learning approaches, capstone design experiences, warnings on tort of negligence,feasibility studies, project planning, design requirements and constraints, trade-off analysistechniques, functional block diagram, design flowchart, design feedbacks, design management,work breakdown structure, design steps and
purpose is apparent. Accordingly, four classes areimplementing the current version of the writing guide (available once the pilot is complete,anticipated for June 2015, at http://www.d.umn.edu/civileng/writing_guide) during the Spring2015 semester: two required junior-level classes, the senior capstone design course, and onegraduate elective. The authors will seek informal feedback throughout the semester and formalfeedback at the end of the semester in each of the four classes from students enrolled in thosecourses. Additionally, the authors will seek feedback from members of the department’sIndustrial Advisory Board (IAB) and from local practicing engineers who frequently volunteer asmentors in introduction to civil engineering projects
iteration. This project isdescribed in more detail elsewhere.10 Students work in teams on to determine the best (optimal)input parameters to a industrially sized virtual CVD reactor, which deposits thin films onpolished silicon wafers. The experiments student teams design are performed virtually, through acomputer simulation. Thus, student teams are provided opportunities to practice the complete,iterative cycle of experimental design where they develop and refine their solution based onanalysis of experiments. Integral to their success is the ability to develop and operationalizemodels and identify appropriate strategies. This project has most commonly been delivered aspart of the senior-level capstone engineering projects course, but also has
literature on teaching engineering design through project-oriented capstone courses. J. Eng. Educ. 2, 17–28 (1997).7. National Academy of Engineering. Infusing Real World Experiences into Engineering Education. 40 (2012). Page 26.165.15 at 8. Ro, H. K., Merson, D., Lattuca, L. R. & Terenzini, P. T. Validity of the Contextual Competence Scale for Engineering Students. J. Eng. Educ. 104, 35–54 (2015).9. Hotaling, N., Fasse, B., Bost, L. F., Hermann, C. D. & Forest, C. R. A quantitative analysis of the effects of a multidisciplinary engineering capstone design course. J. Eng. Educ. 101, 630–656 (2012
Paper ID #13095Comparing Organizational Structures: Two Case Studies of Engineering Com-paniesCarlye Anne Lauff, University of Colorado, Boulder Carlye is a 2nd year PhD student in Mechanical Engineering with a concentration in Design. She is originally from Pittsburgh, PA and received her B.S. in Mechanical Engineering from the Pennsylvania State University. At the University of Colorado Boulder, she is advised by Dr. Mark Rentschler and co-advised by Dr. Daria Kotys-Schwartz. For the past two years, she has worked as a Graduate Research Assistant on the NSF-funded project entitled ”Cognitive Ethnographies of Engineering
designs related to capstone senior design projects1,2.Such projects show students how to use different types of technology, process selection anddemonstrate how advanced technology can be used in an actual design and manufacturingapplication. Overall, many different fields of engineering can benefit from the application ofsoftware simulation tools and CAD designs, enabling the development of skill and knowledge inmany different engineering aspects and processes.In the United States, undergraduate curricula in Engineering Technology (ET), MechanicalEngineering, Industrial, or Manufacturing Engineering generally include a course inManufacturing Processes. This is also a requirement for ABET accreditation3. ABET-ETACcriteria specifically requires
. Page 26.1455.7The analysis of the EduDesignathon projects occurred as the author, Jessica A. Artiles, began herwork as a mentor for 2.009 Product Engineering Process 13 , the MIT Mechanical EngineeringFigure 5: EduLinks, a Designathon hack to capture the direct and indirect influences each player,stakeholder, and theory has within the education system.Department’s senior capstone class, instructed by Professor David R. Wallace, co-author on thispaper and Thesis advisor to Jessica. The course takes graduating seniors on an adventure throughproduct design teaching them the virtues of following a deliberate process, and slowly engagingthem to think like designers.Figure 6: Schematic of the 2.009 Product Engineering Processes project workflow
a two semester capstoneproject. Two options for capstone projects are offered: SAE competition teams and industry-sponsored projects (ISPs). SAE competition teams include Baja SAE, Formula SAE, FormulaHybrid, SAE Aero Design, and SAE Supermileage. The SAE competition projects are well-known by students with prior-years’ vehicles available, strict timelines, and a year-to-yearprocess of continual improvement. This makes them attractive to students with aspirations in thetransportation industry, but can limit student learning as each student may participate in thedesign of only a small portion of the vehicle.ISPs are more varied, representing real, time-sensitive problems posed by industry partners whocommit to funding the project. For a
universal design in engineering curriculaAs our participants noted, there are few examples of accessibility and disability being included inthe engineering curricula. What are the best places to start introducing disability or UD into analready packed engineering curriculum? Capstone or cornerstone engineering design classes area natural fit for incorporating UD concepts into the engineering curriculum, challenging studentsto design for individuals of all abilities and backgrounds. Many engineering programs offerspecialty capstone design courses focused on assistive technology that provide a natural point forintroducing UD principles. For example: ● Recent senior design projects from the Colorado School of Mines under the mentorship of
Habitat Design Challenge: Teaching Engineering Design in a Multidisciplinary Role-Play ScenarioAbstractWithin the ocean engineering program at the U.S. Naval Academy, formal design instruction isprovided in our introductory design course, EN461, a precursor to capstone design. A usefulinstructional module towards this purpose is the Hex-Oid Habitat Design Challenge that providesstudents with a multidisciplinary design-team experience involving multiple phases of the designprocess and an opportunity to refine technical communication skills both within and external tothe design team. Working in teams of 4-6, each team member is assigned a distinct role, e.g.,Architect, Buoyancy Engineer, Foundation Engineer, etc., and each is
Paper ID #11559e-Learning Modules for Improving Lifelong Learning AbilityDr. Michele Miller, Michigan Technological University Dr. Michele Miller is a Professor of Mechanical Engineering at Michigan Technological University. She teaches classes on manufacturing and does research in engineering education with particular interest in hands-on ability, lifelong learning, and project-based learning.Dr. Sheryl A. Sorby, Ohio State University Dr. Sheryl Sorby is currently a Professor of STEM Education at The Ohio State University and was re- cently a Fulbright Scholar at the Dublin Institute of Technology in Dublin, Ireland. She is
communicatingeffectively and efficiently. Much work has been done to investigate the effect of interventions inupperclassmen capstone courses (see bibliography). Additionally, courses which integratewriting and project design instruction are becoming increasingly common6,8 . Thisinterdisciplinary combination has the potential to give students an experience in technical writingand engineering design closer to that practiced outside of an academic setting8 .For this paper, the researchers examined the effect of instructional interventions on earlyengineering students, primarily freshmen and sophomores. The course in question is ENGR 14:Introduction to Solid Mechanics. This is a prerequisite course for many higher level engineeringclasses which combines
one-semester capstone class. These half-courses allow students to exploreembedded system interfacing or higher-level embedded concepts while planning andinvestigating ideas for their capstone project.Our objective in this presentation is to give other educators working with courses in EmbeddedComputing a description of our laboratory experiments that have been shown to provide studentswith a contextual basis for the relevance of the in-lab experience1. We will describe theseexperiments in a high level way and show how they build on earlier BYOE presentation materialfrom the University of Virginia. In showing how we structured these experimental courses, alongwith the actual experiments, we provide insight on how individual institutions may
was the only girl in class among guys but over theyears I’ve worked past this.” Another student noted, “Professors speeding along courseworkbecause majority of the students which [sic] are dominantly males who already work in this field,already know this. Not giving enough time or breaking it down clear enough for you to actuallylearn what is being taught. It’s just being shown.” Yet another female student pointed to “Timemanagement since I am a housewife” as a major challenge. 90 80 70 60 50 Male 40 Female 30 20 10 0 Individual in- Team projects capstone project other class practiceFigure 3
the students are more deeply exposed to designmethodologies. Within their senior year, students are required to complete an individual seniordesign (capstone) project, in which they apply their skills and knowledge to a project of theirchoosing. The Harvard-HKUST International Design Experience is positioned so that studentscan use the design thinking and project management skills that they have developed throughoutthe summer, in addition to the introductory design project within their engineering discipline, tobetter prepare for the more advanced multi-disciplinary project courses required in the junior andsenior years. Unlike the Harvard students, the students from HKUST had little or no exposure todesign thinking and methods prior to the
programs that were related tothe energy efficiency, sustainability, green design and renewable energy fields. Schools withundergraduate engineering programs are working to include sustainability and sustainable designinto their curricula6-12. The methods for doing so can be subject-, problem-oriented, can be basedon case studies, or could be part of a capstone experience. Sustainability can also be anopportunity to satisfy the general education component of ABET criteria.In our green manufacturing project, a two-level approaches was taken in our curriculum changesto incorporate sustainability, green, sustainable design and renewable energy subjects. A firstlevel such topics, subjects and problems were introduced by the faculty involved in this
Paper ID #12608Students Writing for Professional Practice: A Model for Collaboration amongFaculty, Practitioners and Writing SpecialistsProf. Susan Conrad, Portland State University Susan Conrad, Ph.D., is a Professor of Applied Linguistics and head of the Civil Engineering Writing Project. She has written numerous articles and books about English grammar, discourse, and corpus linguistics.Dr. William A Kitch P.E., California State Polytechnic University, Pomona Dr. Kitch is a Professor of Civil Engineering at Cal Poly Pomona. Before starting his academic career he spent 24 years as a practicing engineer in both the
. Page 26.1619.1 c American Society for Engineering Education, 2015 Understanding Additive Manufacturing Part Performance through Modeling and Laboratory ExperimentsAbstractAdditive manufacturing (AM) has attracted extensive attention in recent years due to its wideapplications in academia and industry. As most of the AM parts are built layer by layer, it isclear that parts manufactured from AM processes would perform differently compared toparts manufactured from conventional processes such as casting and injection molding. Sincestudents often rely on AM for part fabrication in courses and capstone projects, and industriescould adopt AM to produce components for their products, there is a
Paper ID #12742Dispelling Student Myths about Writing in Civil EngineeringDr. Susan Conrad, Portland State University Susan Conrad, Professor of Applied Linguistics, is the head of the Civil Engineering Writing Project, in which engineering faculty, engineering practitioners, and writing specialists collaborate to improve writ- ing instruction in civil engineering courses. She has written numerous articles and books about English grammar, discourse, and corpus linguistics. Page 26.552.1
following metrics will be used to compare thedifference between the two groups throughout the 4 years of the project: retention in engineeringand major, graduation rates, GPA, design self-efficacy, demographics (gender, race, andethnicity), and idea generation ability.A quasi-experimental approach will be used to compare students that are highly engaged inuniversity maker spaces to those that are not. This study will be performed at the GeorgiaInstitute of Technology, James Madison University, and Texas States University. Participantswill be recruited from multiple engineering design classes (e.g. capstone courses) and they willself-report their engagement in the university maker space throughout their career. This data willbe used to separate the
administrative positions at one large private university in In- donesia. He has developed and delivered numerous international workshops on student-centered learning and online learning-related topics during his service. Dr. Lawanto’s research interests include cognition, learning, and instruction, and online learning.Prof. Kurt Henry Becker, Utah State University - Engineering Education Kurt Becker is the current director for the Center for Engineering Education Research (CEER) which examines innovative and effective engineering education practices as well as classroom technologies that advance learning and teaching in engineering. He is also working on National Science Foundation (NSF) funded projects exploring engineering