provide important technical and communication experiences forundergraduate and graduate students. Senior capstone, thesis, design, and other project activitiesare means to develop teamwork and communication skills. ABET student outcomes reflect thesecritical skills [1] and experiences applying soft skills in the context of project work are valuable.The process of documenting a project and presenting the results enhances one’s technicalunderstanding in ways that students do not often appreciate. Technical poster presentations area common communication mode in which effective delivery depends heavily on succinctexpression, audience analysis, and visual design. Much of the literature related to posterpresentations deals with course-level poster
and I want to make use of what I learned in this project.”An interesting comment from a leader in the capstone project in year five at the final presentation was that he believed that his competence to act as a leader for a group of fifteen students from several different cultures during the full time semester long project had to a substantial amount been due to his experiences in the Runestone and the IT in Society courses. The setting was quite different, but he said that he felt better equipped and had greater confidence regarding dealing with issues coming up, especially having a greater awareness of culture being a source for
c American Society for Engineering Education, 2014 Embedding video-based learning modules for library research methods in an online graduate engineering degree programAbstractAt the University of California, Berkeley, the College of Engineering has launched a fully onlineMaster's degree program in integrated circuits. As part of this program, students are required tocomplete a comprehensive capstone project requiring access to the research literature andtraining on its use.The Library plays an important role in providing the information resources and instruction tohelp students succeed in their capstone. In response to student need, we designed an onlineinstruction environment that supports common information challenges, uses
instructor evaluation of the degree of learning achievement of individual students on a capstone team, which includes consideration of the collective achievements of the team. o Peer evaluation (optional by instructor). o Grading of deliverables by the instructors (project plan, mid-term review, final report, exhibit (and abstract), oral presentation, team minutes, web site if applicable). o Teamwork survey. o Self-assessment. o Senior Design Symposium judging (with evaluation criteria explicitly indexed to the learning objectives and articulated via rubrics for all measures). 5. Conclusions:Teaching a design courses for
predominantly reflect thecenturies old traditional engineering science model. In this model the fundamental conceptsof mathematics and science are viewed as content that is prerequisite to practice anddelivered to students as abstracted cognitive instruction through a sequence of lectures,tutorials and examinations. Despite a strong demand by engineering stakeholders forincreased emphasis on engineering ability and professional competencies, there is littleopportunity within this model for these to be addressed within the types of authentic contextsthat are required if learning is to be situated as practice3. While Capstone project-baseddesign courses have found their place as culturally acceptable vehicles for many of theengineering ability and
variety of information technology software packages used as the modernengineering tools in the Civil Engineering program. Spreadsheets (Excel) and mathematicalprograms (MathCAD) are used in many courses and several courses use specific programs: • Site Civil Engineering Design: ArcGIS and Civil3D • Geotechnical Engineering: Slope/w • Hydrology/Hydraulics Engineering: HEC-RAS and HEC-HMS. • Advanced Mechanics of Materials: SolidWorks and Autodyn • Structural Analysis: ROBOT and REVIT • Advanced Structural Analysis: ROBOT, MASTAN, and CONWEP • Construction Management: MS Project, Google Earth, and Google SketchUp • Transportation Engineering: STREETThe intent of the Civil Engineering Program’s capstone course is to then integrate
Paper ID #8971Assessment of Product Archaeology as a Framework for Contextualizing En-gineering DesignDr. Kemper Lewis, University at Buffalo, SUNY Kemper Lewis is a Professor of Mechanical and Aerospace Engineering at the University at Buffalo - SUNY. He is the project PI for the collaborative NSF TUES grant, ”Assessment of Product Archaeology as a Framework for Contextualizing Engineering Design”. The project is a collaborative effort between the University at Buffalo - SUNY, Arizona State University, Penn State University, Northwestern University, Bucknell University, and Virginia Tech.Dr. Deborah A. Moore-Russo
the scope of the studio project or the educational discipline, the design studiomodel may only be found in capstone courses. For example, the instrumentation anddevelopment suites found in electrical engineering laboratories can be costly. This fact placesconstraints on the number of laboratory classrooms that are equipped and hence limits the abilityto provide the studio design based model across a broader range of courses in an electricalengineering curriculum. In the past, this may have not been a significant problem as manystudents entering an electrical engineering program had previous hands-on experience.However, this has changed and the latest generation of students entering electrical programs havea wide variety of experiences and
computer engineering capstone senior project. As such this paper concerns problem solvedand lessons learned while conducting the design and testing; the paper also describes the firsthand experiences of the student who integrated and developed the Mac Bluetooth interface. Oneof the downsides of typical mobile robots is that they can’t travel safely over rough unknownterrain. The key feature of this ATSV is that it can travel over uneven and vegetated groundwhile remotely-controlled.Autonomous Terrain Sensing Vehicle has three different settings that a user can selectphysically from the keypad on the HC12 board or from a GUI that has been designed tocommunicate via Bluetooth. The vehicle has sonar that detects if there is an object ten inchesfrom
of the “hardware” for the HPT (air engine,planetary gearset, tachometer, etc.) in earlier semesters. The control system is the “capstone” forthe five-semester design project, which has been described in an earlier publication [1]. Thispaper describes the development of the “faculty prototype” of the control system, and givespreliminary results of implementing the control system design project in the classroom.IntroductionToyota has been recognized for developingcutting-edge hybrid systems. Specifically, theyhave developed and implemented the ToyotaHybrid System (THS) which combines agasoline engine and an electric motor, with theadvantage of not requiring external charging.According to the Toyota [2] the THS II systemachieves nearly twice
fields.In this paper we describe our efforts at the University of _________ to design and implement a lowcost PIV system. The design has progressed iteratively: first as a summer project for incoming freshmenas a part of an extant National Science Foundation (NSF) STEM Talent Expansion Program (STEP)Grant, then as a part of undergraduate research (UGR) as part of several local UGR student grants,then for senior capstone design projects aimed at design of systems to make quality measurements tosupport our overall research goals. Details of design, costs, strengths, and challenges are presented. Wenow seek to engage students with PIV, our initial ideas regarding this direction are discussed.IntroductionExperimental fluid dynamics is a field that is
successfully transition intoSTEM-related careers. Based on the number of participating students and institutions describedby Marken and Lewis, one area of partnership is dual-enrollment agreements between thesecondary and post-secondary institutions. Another important aspect is the use of commonequipment that engineering and engineering technology programs can successfully adapt forcommon technology instruction. This project employed of a single, flexible, and expandabletechnology training platform that can provide the continuity of a learning environment andbenefit all levels of education economically. This paper presents the results of how oneuniversity senior capstone project grew into collaboration between university departments, acommunity
CC) in the summer of 2013. Their work was related to CSUN’s humanpowered vehicle project, which is one of the senior capstone options for mechanical engineeringstudents. Specifically, the group worked on developing methodologies for predicting drag onhuman powered vehicles, using the previous year’s vehicle as a test bed. The drag on this vehiclewas estimated using computer simulation, wind tunnel tests, and field measurements.IntroductionIncreasing the number of graduates from STEM disciplines is clearly a national priority. Giventhe evolving demographics of the U.S., it makes sense to focus on ethnic and racial groups who Page 24.21.2are
the overwhelming need forfaculty assistance and resources as uncovered by the survey.Internationalization database: The broader curriculum would be further enriched, particularly asrelated to thesis and capstone projects, by student access to faculty expertise with respect tointernational research or educational experiences through a common informational database.Faculty colleagues could also use this database as a way to identify potential collaborators indevelopment of internationally-focused student capstone experience projects or course topics.Mentorship and global-learning outcomes: The Villanova Institute for Teaching and Learning(VITAL) should create a repository of educational modules /syllabi from faculty who received aVITAL grant to
offer courses on Eclipse-based MBD of embedded system, only the graduate school in Chinese Science Academy hasopened a research course recently as far as best knowledge.5. ConclusionMBD is cost effective for developing complex and reliable-critical embedded systems. Thispaper presents our teaching experiences of integrating this new MBD paradigm into a system-level Programming Tools course for CE and EE students. It mainly describes two new topicsintegrated to this PT course: MBD concepts and eclipse-based software tools supporting MBD,from the course materials preparation and instruction approaches two aspects. In the future,students and our teachers will together create and gather more capstone projects related to MBDby means of eclipse-based
education, capstone design, and introductory materials science and engineering. His research interests include strategies for web-based teaching and learning, misconceptions and their repair, and role of formative feedback on conceptual change. He has co-developed a Materials Concept Inventory for assessing conceptual knowledge of stu- dents in introductory materials engineering classes. He is currently conducting research on web-based tools for teaching and learning, misconceptions and strategies and tools to promote conceptual change in materials courses. Page 24.614.1 c American
, tachometer, etc.) in earlier semesters. The control system is the “capstone” forthe five-semester design project, which has been described in an earlier publication [1]. Thispaper describes the development of the “faculty prototype” of the control system, and givespreliminary results of implementing the control system design project in the classroom.IntroductionToyota has been recognized for developingcutting-edge hybrid systems. Specifically, theyhave developed and implemented the ToyotaHybrid System (THS) which combines agasoline engine and an electric motor, with theadvantage of not requiring external charging.According to the Toyota [2] the THS II systemachieves nearly twice the fuel efficiency ofconventional gasoline engines. This system
through 3 laboratorywork. Because students can and probably would prefer to work at home, we will change from 2hours of formal lab with the TA to an open laboratory format in which the students bring in theirwork to show their TA and get help if they need it. This addresses the space issues and reducesTA cost issues. We are also experimenting with access via Instant Messenger or Skype sostudents can ask questions of a TA.Goal Number 3: Enhance Open Ended Design and Innovation Experience: Our industrialadvisory board has for years been concerned about both the lack of student exposure to state ofthe art test equipment and test procedures, and the lack of open ended design experiences prior totheir senior capstone project. As the University
projects must be externallydriven or supported. Faculty research projects can be used as long as there is a well-defined goalto which the faculty member will hold the students accountable. As such the variety and types ofprojects available is dependent upon availability.The senior capstone design course is a challenging experience for both the faculty and thestudents. For the students, this course is often the first experience in which they have the primaryresponsibility to formulate and solve a complex open-ended problem over an extended period oftime. For the faculty, the challenge is to develop a course structure that teaches students how to break down the open-ended problem into manageable pieces and
Projects-Based Courses to Validate Practical Engineering Solution Techniques ........... 53Student Learning and Engagement through First Year Programs .................................................................... 61The Study of Gyroscopic Motion through Inquiry-Based Learning Activities ............................................... 69Cyber Education Motivated the Creation of the Virtual Instruction Cloud CLaaS, a New DistanceLearning Modality ................................................................................................................................................................ 81Learning by Doing, a Method to Engage Underrepresented Minority Students Learning ElectricalCircuits
Paper ID #9120Assessing Knowledge and Application of the Design ProcessDr. Ann Saterbak, Rice UniversityDr. Tracy Volz, Rice University Tracy Volz, PhD, is the Director of Rice University’s Program in Writing and Communication. Prior to this role, she spent fourteen years teaching technical communication in the Rice Center for Engineering Leadership and in the Cain Project in Engineering and Professional Communication at Rice. In addition to working with Rice faculty and students, Dr. Volz has conducted communication seminars for professional engineering societies and corporations. Her scholarly interests focus on oral
worked for Lockheed Palo Alto Research Laboratories prior to coming to Taylor Universityin 1994. He is currently a Professor of Engineering and Physics at Taylor University. Some of the courses that he regu- larly has taught include Principles of Engineering, Intro to Electronics, Statics, Advanced Electronics, Jr. Engineering Projects, FE Review, Control Systems, Fundamentals of Space Flight Systems, Astronomy, and Sr. Capstone Sequence. He enjoys mentoring undergraduate students in aerospace, sensors, and energy-related research projects. Some of the research areas include spacecraft nano-satellite technologies, satellite payload instrumenta- tion, High Altitude research Platform (HARP) experiments, wave particle
important objective is to improve and re-develop seven currentindustrial training modules covering prototyping, machine tool calibration, precision metrology,offline and online quality control, remote monitoring and supervision of machining and roboticassembly processes, and quality assurance. This activity is currently undergoing, its progressbeing highlighted in the sections below. We will develop industry-supplied and coordinatedprojects, as well as capstone projects for collaborative student teams. The newly-equippedlaboratories will be networked for cross-institutional use between Drexel University andaffiliated community colleges. The heart of this project is the hardware and software described inthe following sections of the report. The
– G28.In a similar effort, David Beddard and Charles Mura’s senior capstone project group startedworking on a Digital Light Processing (DLP) machine where ultraviolet light from a projector isused to cure photosensitive resin layer by layer. After three semesters of capstone projectsstarting from Fall Semester 2013, the machine has been fully designed and developed and now inworking condition but requires further improvement in accuracy6.Utilization in the CourseThe Rapid Prototyping and Reverse Engineering course has 3D printing process and associatedmaterials content. Applications in rapid prototyping (for product development), rapid tooling,and manufacturing as well as tissue engineering and bio-printing are also included. Studentshave to
Robert M. Bunch is a Professor of Physics and Optical Engineering at Rose-Hulman Institute of Technol- ogy and an Innovation Fellow at Rose-Hulman Ventures. Since joining the Rose-Hulman faculty in 1983, he has been active in developing undergraduate and graduate courses and laboratories for the optical en- gineering educational program. He has directed 23 completed master’s degree thesis projects, consulted with industry, and is co-inventor on two patents. In 2000, he received the Rose-Hulman Board of Trustees Outstanding Scholar Award. His research and technical interests include development of optics-based products, fiber optics, optical instruments, and systems engineering.Dr. Thomas W. Mason, Rose-Hulman Institute of
content, and then we introduce real-time signal processing hands-on project using DSPboards (TMS320C6713 DSK) and simulation tools such as MATLAB and MultiSIM. We willalso present the course assessment and outcome, which include how the students apply theirgained DSP knowledge to their capstone senior projects. Finally, we will address possibleimprovement of the course content and associated laboratories.II. Course Prerequisite RequirementsIn this section, we explain the course pre-requisites, which can be divided into three categories,as described below.A. Digital Signal Processing Course RequirementThe first signal processing course covering the key topics of analog signal processing, such as
community service learning course projectsand capstone course design projects. Students have access to the well-equipped laboratories,including computing laboratories with discipline-specific software that are essential toachievement of program objectives. (CSUN, 2014)This was further emphasized by Sorto (2008) when he stated that increasing competition in themarketplace as well as the need for improved productivity had put more of an emphasis on amore effective management of technical functions of a company. Moreover, in search of betterflexibility and efficiency, many companies have reduced the numbers and levels of managementpositions and instead are giving more decision making power to the teams at the operationallevels. In high tech companies
(ECE) Department at the United States Air Force Academy created a breadth-first introductory course to give students this view as a starting point in their education. A thorough review of the curriculum revealed primary knowledge areas that the students need early in their education in order to better prepare them for the depth of a rigorous ECE curriculum. This knowledge includes, but is not limited to, Radio Frequency (RF) communications, RADAR and electronic warfare, analog circuits including power generation and distribution and digital circuits and systems. These topics were selected due to their extensive use in senior capstone projects and needs the industry of the program constituents? The solution proposed here is to
. Phillips was a faculty member and Chair for DVU’s Biomedical Engineering Technology Program where he mentored senior projects, and taught biomedical, electronics, and basic science courses. In addition, he developed curriculum and courses in these subject matters. Before joining DVU, Dr. Phillips was a Faculty Associate at Arizona State Uni- versity (ASU) for the Bioengineering Department, where he taught and assisted in the development of biomedical engineering courses and mentored student capstone projects. He holds a PhD and Master’s degree in Bioengineering from Arizona State University and a Bachelor’s degree in Electrical Engineering from the University of Illinois. Before entering into a career of higher learning
capstone project in ElectricalEngineering at the U.S. Coast Guard Academy. In this project three students are asked to applylessons learned through three previous years’ academic experience to an autonomous floatingvessel, for the purposes of modeling and real-time heading control. Consistent with the maritimefocus of the U. S. Coast Guard, students construct a four by eight foot barge propelled by sixcommercial Minn Kota trolling motors, in order to study real time heading control algorithmssuch as those which might be encountered on typical Mobile Offshore Drilling Units (MODU’s).Controlling a smaller scale model platform provides students an opportunity to perform systemidentification and control, and allow students opportunities to expand