use two orthree workshop sessions focusing on the deconstruction of definitions and on the self-commitment plan. Integrating these workshops into introductory courses would work well. Group Perspective The group perspective engages students with team development activities where studentsapply what they are studying about group processes to in-class simulations. Together, groupscreate a team contract; develop a team purpose and norms, member roles, and team goals tosuccessfully complete the final project. Teams undergo mid-module and post-module 360evaluation reviews, where students evaluate self and team members, and the instructor evaluatesindividuals and the team as one unit. The group module is ideal for
. In thispaper, we will present how to improve undergraduate student education through high impactactivities in a cooperative learning setting. Specifically, scalable, low cost manufacturing processfor making high performance energy conversion nanomaterials is dealt with. Cooperativelearning on several upper division general engineering courses including Independent Researchand Studies, Senior Capstone Design, Special Topics on Nanotechnology is investigated. Severalscalable, low cost manufacturing research tasks are adopted to enhance the context learningthrough cooperative learning approach that integrates advanced manufacturing research activitiesinto both academic and social learning experiences. Team-based research projects areimplemented
Table 1. Participating InstitutionsInstitution A is a small, private liberal arts college with approximately 1,500 undergraduatestudents. The department of mathematics and computer science has approximately 25 CS majors,and the CS major is designed to offer students hands-on experience on real-world projects whileproviding a grounding in theoretical ideas. The course used in the survey is a senior-levelsoftware engineering capstone course that used OpenMRS as a project base. Students addressedbug reports to learn the system and then designed and implemented a new add-on module.Institution B is a public liberal arts university serving approximately 6,100 undergraduatestudents and 800 graduate students. Founded in 1980, the Computer Science
presentations for students and other users to browse and download from any locationusing remote desktop and virtual lab server. The interactive components, simulations andlaboratory experiments are available for other universities and Drexel University-affiliatedcolleges. Online learning will be a channel for use of the developed materials and also theirdissemination.Curricular developments and integrative approachSenior Design Project Course Sequence Page 26.1009.3One of the most impacted courses by this project is Drexel University Engineering TechnologyMET 421/422/423 (Senior Project Design) - a sequence of three-quarter capstone project designcourses
heavily emphasized scientific theory while abandoning engineering design and creativesynthesis 2. The hands-on training and applied learning methods of earlier engineering educationwere re-introduced to the curricula, and design became a major focus in the reform ofengineering education. The Accreditation Board of Engineering and Technology 3 influenced thedevelopment of capstone design courses offered to senior-level students to meet the need ofdesign implementation in engineering curricula 4. Capstone design courses enable students tobecome familiar with the engineering design process through a class project requiring theapplication of knowledge and training received in freshman, sophomore, and junior levelcourses. While the addition of
the solenoid valve for therequired amount of water needed for the crops, based on the average soil moisture reading, or theagronomist remotely use the cloud data to trigger a channel by writing a specific value. The linklocated below the channel is assigned to turn on and off a solenoid valve. Sensor data arecollected using wireless communication to avoid loose running signal wires and cables in thefield.This is a one semester senior capstone project, involving four electrical engineering students.Senior Capstone Projects represent the culmination of the educational experience, integrating theclassroom with real world problems. The students handle open ended engineering problemswhose solutions require a synthesis of engineering knowledge
the workforce isrooted in educational development. The majority of the staff is comprised of students at variouslevels of their industrial education, including postdoctoral scholars, graduate students in bothMaster’s and PhD programs, and undergraduate students. Students are involved in our centereither full time in the form of internships and co-ops, or part time as a work study, researchassistant, project support, or capstone team. In the past two years, interning students have beenapplying from various disciplines beyond industrial and systems engineering, including bio-medical engineering, economics, statistics, human factors, electrical and computer engineering,medical, and nursing. These students are the main driving force behind
top 10 percent University Admission Profile 27-31 95% ranked in top 25 percentIn the senior year, engineering students are required to complete a capstone project to satisfytheir capstone experience. The EEIC offers a Multidisciplinary Capstone program (MDC) as anoption for students to replace their discipline specific capstone experience. Students arepartnered with industry companies to improve processes, reduce costs, or create new products.MDC also offers non-engineering students the opportunity to participate thru the EEIC’sengineering sciences minor program. This promotes discipline diversity in the program whilegiving students’ academic credit. Through
compared to the traditional approach.Introduction For approximately 10 years, the instructional team, consisting of technical and technicalcommunication faculty, has taught the Chemical Engineering senior capstone process designcourse the same way. The 5-credit course has been project-based where students in the sameteams (4-5 members) for the entire semester develop a process design, including all required unitoperations, equipment sizing, and energy requirements, and an economic evaluation of the finaldesign. In a typical semester, the design problem prompts are generated by the course technicalinstructors, and are not repeated semester to semester. The prompts generally consist of at mosttwo paragraphs identifying desired feedstock and
clinical trials, economics, ethics, and regulatorystrategies. Throughout the second year, students will continue working on their research project,with the culmination of the second year being a summer clinical or industrial immersion relevantto the project. In addition to immersion experiences, we are planning tracks: research,entrepreneurship, professional school, and industry; while these are at early stages indevelopment, they are being developed to integrate with other campus activities.Beginning junior year, students will continue undergraduate research while being extensivelytrained in engineering design, in contrast to traditional education which focuses primarily ondesign in the senior capstone course. The coursework for this year is not
.Simpson, et al. 9 believe that interdisciplinary experience is more representative of what studentswill find in the real world and advocate interdisciplinary capstone projects. Schaffer, et al. 10have concluded – based on their study of 256 students from 60 teams - that Cross disciplinaryTeam Learning (CDTL) increases self-efficacy across all respondents. Apelian11 believes thatone of the important skills for the 21stcentury engineer is the ability to work with anybodyanywhere. He concludes that we need to educate engineers such that they understand the societalcontext of their work and have an understanding of the human dimension around the globe,coupled with innovation and creativity. Michaelsen, et al.12 have claimed that innovation
of their followers, as well as teach them why they make certaindecisions. Note that while students may think this effort is repetitive at first (e.g. one inventoryexercise is the same as another), if they are challenged to find the differences, they can criticallyunderstand the importance of each effort designed to help them learn more about themselves.The team concept is further built through multiple class interviews of visiting leaders. While theteambuilding is important to the capstone project, the immediate goal during the Fall seminar isfor the students to work together as a team in the interview of the visiting leader. It can beuncomfortable for students to ask probing and sometimes personal questions of noted leadersthat might wind
design process will require many iterativesteps requiring applications of higher order skills in the cognitive domain of Bloom’sTaxonomy1, application, analysis, synthesis, and evaluation, or in revised form of Bloom’staxonomy2, apply, analyze, evaluate, and create. The revised form replaces noun in each skilllevel to the corresponding verb form and exchanges the places of top two levels. Both originaland revised taxonomy are shown in Figure 1. (a) (b) Figure 1 Original (a) and revised (b) Bloom's taxonomy3 A capstone design course, a culminating course designed to showcase students’ ability toapply engineering design process, is a required course in every engineering
performance parameters for a given type of aircraft and the IPT completelydesigns the prototype, capstone-course aircraft. Results are documented in four presentationsand three reports. The final presentation is evaluated by a panel of industry experts who assign agrade for the students and valuable industry perspectives for the students and faculty. In thethird course (Aircraft Detail Design), the same design groups continue the capstone experienceby taking their aircraft into the next phase of the Research, Development, Test, and Evaluation(RDT&E) process by applying wind tunnel testing, model modification, and re-testing to verifythe best design solution. The IPT will complete the project by making a configurationrecommendation for the first
describe the course’s desired student learningoutcomes which were developed based upon needs identified in the preparation of studentsentering the senior design experience. For previous ECE students their first exposure to manydesign concepts and tools was during their senior year course. Building key design skills andconceptual understanding via exposure to multiple small, open-ended projects that increase incomplexity through the semester during their junior spring semester will enable students to entertheir capstone course the following year in a higher state of readiness. The course providesexposure to multiple design processes prevalent in academe and industry and encouragesstudents to internalize the key steps common to nearly all
engineeringdepartments were involved. The avenues of student participation included summer internships,independent project work, and Capstone Senior Design projects. By working on the solarfurnace project, students developed a myriad of valuable skills in such areas as projectmanagement, technical writing, communication, design, manufacturing, mechatronics, finiteelement analysis, circuit analysis, programming, and instrumentation. Additionally, 40 percentof the students who participated in the project chose to continue their engineering studies ingraduate schools around the country.1. IntroductionMultiple studies1-3 have shown the benefits of project-based learning. Students who participatein complex engineering projects develop a myriad of valuable skills
found in a traditional high schoolprogram, specialized courses that include an introduction to research method and twoTechnology and Engineering courses, and a University- or industry-based research mentorshipthat starts in the summer of the 10th grade and culminates in a senior capstone project. TheIntroduction to Research method class is designed to provide students with a vital, year long,full-emersion experience into the processes and activities involved with scientific andengineering research and practices. The Technology and Engineering courses, in 10th and 11thgrades, introduce students to the technology tools and their applications in science andengineering practices through modern, hands-on experiments. These courses integrate a
students after the faculty, in May 2012,endorsed a goal that 50% of graduates will complete an international experience by 2017.Across the last seven years, approximately 20% of engineering graduates completed aninternational experience of varied durations, with the percentage increasing from 13% in 2008to 23% in 2014 as we added new programs that include traditional study abroad as well asinternational experiences through service, capstone projects, elective courses, and researchopportunities. Having established School targets, we recognized that not all global experiencesare created equal with respect to cross-cultural awareness, exposure to global engineeringpractice, or the development of skills for living and working in different cultural
undergraduate electrical engineering capstone project at SeattleUniversity in which the students gained first-hand experience designing and implementing anoff-grid solution in an LEDC. In particular, four students designed and assisted in the installationof a 4.8 kW hybrid wind and solar energy kiosk as part of a larger multidisciplinary team ofabout 20 volunteer practitioners. The energy kiosk provides electricity to 70 families in ruralMuhuru Bay, Kenya. The project is the grand prize winner of the 2014 National Council ofExaminers for Engineering and Surveying (NCEES) Award for Connecting Professional Practiceand Education.This paper provides an overview of the project and highlights the technical and non-technicalconstraints encountered. Because
system, component, or process to meet desired needs within realisticconstraints such as economic, environmental, social, political, ethical, health and safety,manufacturability, and sustainability Page 26.52.3e) an ability to identify, formulate, and solve engineering problems2. Hands-on projectThe added hands-on project consists in basic laboratories to design and test an injection plasticmold. The activities will be carried out in groups of three students. Although there are severalpublications from previous ASEE Conferences related to capstone projects3 and Machine Designcourses4, this publication differs in that this work proposes a new
, usually go on to work for construction companies. A construction engineer isexpected to possess technical and managerial skills. Technical content is well covered inconstruction curricula and it is considered a fundamental knowledge and skill. Technicalskills play key role for graduates to step in to the industry. If the new hires nurture theirtechnical capabilities with good business skills in following years, they build successfulcareers. Construction is people oriented business and employees from field engineers toexecutives are on the front lines serving clients on a daily basis. Due to credit-hourlimitations, other than the Project Management and Construction Capstone courses at theUniversity of Texas at San Antonio, all core courses include
throughout the curriculum, and while they occasionallystand alone in one course (e.g. fundamentals of speech communication or intro topsychology), they are often merged into each of the core courses that are critical to theHCDD major. These core courses fall into three categories: Learning studios, Experiencestudios, and Capstone experience.We envision the Learning studios to be project-based courses where students of relativelythe same skill level work collaboratively under a professor’s close supervision. Theprojects are set up so that the students’ learning experience meets specific learningoutcomes. During their undergraduate tenure, students would take four different learningstudios. Each learning studio combines at least three of the six
Education Annual Conference & Exposition. 2. J. Darrell Gibson, M. Patricia Brackin, “Techniques for the Implementation and Administration of Industrial Projects for Engineering Design Courses,” Proceedings of the 1999 American Society for Engineering Education Annual Conference & Exposition. 3. James Noble, “An Approach for Engineering Curriculum Integration in Capstone Design Courses,” Page 26.191.13 International Journal of Engineering Education, 14(3), 197-203, 1998.4. Ana Vila-Parrish, Dianne Raubenheimer, “Integrating Project Management & Lean-Six Sigma Methodologies in an Industrial
circuit analysis arecovered along with instrumentation topics. The laboratory portion of the course reinforces the conceptslearned in lecture and assignments while building skills in circuit prototyping and measurement. Labexercises have traditionally been a time when students follow a given procedure, collect data, andinterpret the data. The highly structured experience often leads to students focusing on the procedureand not fully thinking through the concepts being covered. To encourage a deeper understanding ofcourse concepts and how they translate to physical systems, two open-ended design projects wereoffered in place of structured labs in the most recent offering the circuits and instrumentation course.The design projects are undirected
independent work, (c) taking more responsibility for one’s own learning, (d) intellectual growth, congruent with the lab project goals mentioned below.Lab Project Specific GoalsThe goal of the ASEPS laboratory sequence is twofold: to relate faculty research and educationand to prepare the mechanical engineering undergraduates at California State UniversityFullerton for their capstone design projects giving them knowledge such as:(1) Hands-on activity in analyzing and designing real world mechanisms;(2) Sketching and drawing, in order to communicate design ideas in team environment;(3) Kinematics, in order to understand what will work and what will not and evaluate alternativesolutions;(5) Controls, in order to be able to look and solve
a variety of design objectives toensure long term sustainability of products and processes. Design for Environment (DfE), orecodesign [7,8] aims to reduce the environmental impact in the life cycle of a product byenhancing its design objectives. It may also aim to reduce resource consumption, in terms ofmaterial, energy, and pollution prevention. Other concepts, such as Design for Disassembly(DfD) and Design for Recycling (DfR) practices [9,10,11], would also allow the productdesigner to have a substantial positive impact on the environmental aspects of a product’slifecycle.This paper presents an approach to the use of energy efficiency in product design in junior andsenior level curriculums and capstone design projects. Because of the
gain and sharpen skills such as: understanding requirement documents, defininggoals, synthesis, design evaluation, making decision, teamwork, written communication, oralcommunication, conduct patent search, creativity, innovation, perform in-depth mechanicalanalysis, problem solving, and machine design. Since the implementation of this approach,capstone project instructors have noticed significant improvement in the ability of studentssynthesize and analyze, and most importantly, the practice of design.Results and discussionTo evaluate the effectiveness of the aforementioned pedagogical approach, a self-perceptionanonymous short survey that consisted of 13 questions was administrated online to previousstudents enrolled in this redesigned
stronger research component and span the breadth of the semester withperiodic update presentations being required.SPIRIT Program - Vertically Integrated PBLThe degree programs in the host department include a series of project-based learning (PBL)courses. The PBL component incorporates open-ended problem solving and project managementto broaden student involvement in practical scenarios and to prepare students for the challengesof their senior capstone project and professional practice. The PBL sequence consists of fivecourses, each with expanding levels of autonomy in the execution of class projects.These courses are: ENGR 199 (freshman year), ENGR 200 (sophomore year), ENGR 350(junior year), and ENGR 400/450 (first and second semesters of senior
from the CMCET 691 Senior Projects course, students are required toproduce time and cost estimates then track their adherence to the proposed schedule and budget.The majority of capstone style courses in construction management programs provide thestudents with a given program, typically including a client provided design and budget. Thevariance comes when students need to mock-up prototypes of joints and assemblies in addition tothe full scale production of the project. Students working on the Transitional Disaster Sheltercompetition learned to develop a secondary budget for mock-ups that ran concurrent with themain shelter construction and schedule the mock-ups to allow time for design changes based onthe results of those mock
as it applies to spacemissions. Students learned key topics related to spacecraft and mission design, includingrequirements development, trade studies, the project life cycle, system hierarchy, risk analysis, andcost analysis. The concepts presented in this course were demonstrated with examples from recentspace missions. The students were exposed to concepts regarding team organization, designfundamentals, and work ethics. These topics are in preparation for the capstone design courseexperience. They learn that systems engineering is iterative and develop judgment that will allowthem to compare and evaluate engineering alternatives. They learn to discuss systems engineeringmethods and processes as well as engage in systems thinking