past 11years. As a result, teachers and students have participated in interactive programs concerningbiology, recycling, composting and vermiculture. The most popular program, “Worms Eat OurGarbage”, enables students to set up and maintain their own classroom worm bin [4].ME 481 serves as the capstone design course in the mechanical engineering program at MichiganState University. Student teams are assigned real world projects for the semester. Most of theseprojects are sponsored by industry, but each semester a few are humanitarian projects that look toserve the community. The Solar Worm Bin project came about due to the publicity of one ofthese humanitarian projects, Solar Ovens for Tanzania. The engineering teacher at Woodcreek
thefluid mechanics course, Expertiza was used exclusively in the fall and in combination withblackboard in the spring. Reviewers were required to score artifacts on set criteria and leavewritten comments. Within the Expertiza system, authors are able to provide feedback to theirreviewers. This feature was used by one of the instructors.Fluid Mechanics AssignmentThe Fluid Mechanics class in the Mechanical Engineering Technology program at Old DominionUniversity (ODU) is a 3-credit, 300-level course. More than 80% of the students are already intheir senior year by the time they take the course. The instructor has over 10 years of experienceworking in industry and has designed the class with a heavy emphasis on concepts fromindustrial applications
cognitive science. It has been shown that “mentalmodels guide and regulate all human perceptions of the physical and social world” [13]. Mentalmodels are representations generated by humans to provide subjectively plausible explanations ona concept and provides the basis for understanding and application of the concept [14].Consequently, providing learners with appropriate information to help construct appropriatemental representations are crucial during learning of complex concepts.The developed M3E module can help students create appropriate mental representations explicitly.The mental model assists students to summarize the complex and abstract solid mechanics conceptto a vivid observation, leading to enhanced understanding. Therefore, training
% willing to recommend such activities to their teachersand classmates. This program is a good example of a successful university-industry-governmentpartnership to provide an alternative internship experience for students that could serve as amodel for other universities with similar aims.IntroductionThe importance of university-industry partnerships has been recognized in engineering educationthroughout the world. For example, the American Society for Engineering Education (ASEE) hasa division devoted to College Industry Partnerships [1] and sponsors an annual conference onIndustry and Education Collaboration [2]. Many ways to develop partnerships betweenuniversities and industry are described in the proceedings from this division and conference
, and provide an opportunity to improve their grades. Overall, itwas found that the interactive activities discussed in this paper increased engagement,information retention, critical thinking skills and overall learning experience of the engineeringstudents.1. IntroductionIncorporating interactive teaching methods into post-secondary classrooms is not commonplacein North America, and there is uncertainty as to the efficacy of certain methods for engineeringeducation. Traditionally, engineering education has not included interactive activities focussedon real world applications. Rather, teaching methods have been restricted to traditional formatsincluding equations and step-by-step procedures which can restrict students’ creativity
readings. Part 2 consisted of onediscussion question: If memory sizes of computers are increasing rapidly, why are databasemanagement systems needed? Students were asked to write at least two complete sentences.Part 3 of the guided study required students to do some independent lookup of information aswell as to reflect and speculate. The first question is shown in Figure 2. The goal of thequestion was to help students to understand how storage sizes relate to some real world mediaobjects. Figure 2. A Guided Study Investigative QuestionThe second question in Part 3 asks students to reflect on their software usage for the previous 24hours, recall terminology, and perform a speculative synthesis of the two. The first part of
medicine is, but theyreally don’t have a very clear picture of engineering.” Another teacher was quick to add, “Idon’t have a very clear picture of engineering!” These reports are consistent with those reportedelsewhere.6,7 Other goals included getting more real-world applications to incorporate in scienceclasses, and learning more about NGSS. Several teachers articulated a desire to incorporate orimprove a project aspect in their courses; at least one teacher each said he or she was looking forguidance in how to create, structure, or assess projects. All of the teachers agreed that thesewere worthwhile topics to explore during the workshop, and these fit well with the instructor’sinitial concept of the workshop. One teacher added that he wanted
any one of the four phases. Some phases of the cycle may be passed over.Figure 1: Portions of the experimental learning cycle corresponding to partitions of the cerebral Page 26.868.3cortex.There are several learning style models that outline the individual’s preferred learning style.Some of the more popular learning style models that are used throughout academia and industryare as follows. The Gregorc Style Delineator (GSD) is based in phenomenological research inthat Gregorc defines learning styles as “distinctive and observable behaviors that provide cluesabout the mediation abilities of individuals and how their minds relate to the world
projects are done in the service of a local non-profit entity and give students opportunitiesto apply classroom engineering concepts to real-world needs. Examples of academic servicelearning projects within the engineering context have included the design of devices tailored fordifferently-abled individuals, design of water treatment systems for developing communities, anddesign of structures for non-profit organizations.Attending Professional Conferences and MeetingsAttending and/or presenting at professional conferences provides opportunities for students todevelop their professional identity and affinity. It also provides an opportunity to network andseek career information which may not be directly available on campus. ASPIRE recipientshave
programs aredifficult to create without college wide support and structure to foster this growth.7The Ohio State University (OSU) offers students, through its Multidisciplinary CapstoneProgram (MDC), a broad range of opportunities for both engineering and non-engineeringstudents to work directly with industry personnel on company-sponsored product and processdesign projects. OSU provides students an opportunity to apply their academics and professionaland practical skills to real-world problems as a member of a multidisciplinary team. Theprogram is a two-semester project design sequence. Based on the project scope, the coordinatorsform teams and assign a faculty advisor to ensure project success. The sponsor is vested in theprogram by assigning an
ratings of instruction. Communication Education, 45(1), pp.29–39.Ohland, M.W. et al., 2008. Persistence, engagement, and migration in engineering programs. Journal of Engineering Education.Olin, D. et al., 2005. Online engineering education : Learning anywhere, anytime. Journal of Engineering Education, 9(January).Qattawi, A., Venhovens, P. & Brooks, J., 2014. Rethinking automotive engineering education - Deep orange as a collaborative innovation framework for project-based learning incorporating real-world case studies. In ASEE Annual Conference and Exposition, Conference Proceedings.Richardson, J.C. & Swan, K., 2003. Examining social presence in online courses in relation to students’ perceived learning and
motivated real-world novel multi-faceted approach which borrows from the princi-and everyday examples, 2) elementary graphical program- ples of multiple representations. The curriculum also aims toming, and 3) a custom video game designed to test and highlight the benefits of learning CS concepts to the studentsexercise concepts in a fun environment. Pretest/posttest so that they can see how computing can impact their lives.analysis show promising trends, including positive changes So in part to achieve this goal, the curriculum proposed alsoin attitudes and learning of computational thinking and incorporates a “STEM talk” element, which exposes studentscoding concepts
adecision.The focus of this class is introducing how industrial engineering topics can be implemented inExcel and how these topics can be combined to assist users with making difficult multi-dimensional solutions. This course teaches students how to transform large amounts of data intoactionable information and important metrics using user-friendly graphics that assist the user incategorizing, analyzing, and comparing solution alternatives. IE topics such as OperationsResearch, Engineering Economy, and Simulation are heavily expanded upon to show studentsadditional applications and solution methods in Excel.This course is broken into three main sections: VBA, Excel, and Project Work. During the firstportion of the class, students are introduced to
. During Fall 2013 he created IDEAS (Interdisciplinary Display for Engineering Analysis Statics) which is a project based learning activity designed specifically for promoting creativity, team-work, and presentation skills for undergraduate sophomore and junior students, as well as by exposing the students to the fascinating world of scientific/technological research based engineering. IDEAS is becoming the cor- nerstone event for the sophomore engineering students at UCF: from fall 2013 to fall 2018 approximately 3000 students have created, designed, presented, and defended around 900 projects and papers.Sudipta Dey Tirtha, University of Central Florida Sudipta Dey Tirtha is a doctoral student in the Department of Civil
3) PBL may lead to lower teacher ratings8. Some implementations of PBL provide significant prepared guidance from the instructor3 and this appears to improve student acceptance. For the curriculum as a whole, Brodeur9 recommends a progressive implantation of problem-based learning: “early experiences are designed to be success experiences with greater levels of faculty direction and support. As students’ confidence and initiative grow, they are introduced to more complex, unknown, real-world applications” (p. 7). PBL originated in the medical school at McMaster University and there is evidence for its benefits in these settings; evidence is less clear for engineering curricula3,4,5,8,10.• Project-Based Learning
skills, while simultaneously honingpersonal effectiveness skills, through the development and completion of an industrialdesign project supplied by a “real world” company. Engineering expectations includeapplying both previously learned and newly acquired knowledge and skills to identifying,formulating, and solving a complex engineering problem, which results in tangibledeliverables and a financial incentive for the company. Engineered solutions willconsider extensive ramifications, including political, ethical, environmental, social andeconomic issues, as well as sustainability and manufacturability of solutions. Projectdevelopments will be communicated formally and informally, through written and verbalmeans, to all levels of personnel
a single creativity assessment17. The question emerged,will the consensual assessment technique yield high levels of inter-rater reliability when appliedto middle school children’s game art and design projects? Questions of inter-rater reliabilitybecome particularly important when we think about scaling this assessment technique to real-world classrooms where there may be a range of individuals being used for rating, includingstudents in the classroom.Reliability and Validity of the Consensual Assessment Technique. Teachers’ schedules do notroutinely allow for devoting large blocks of time to spreading dozens of projects around theroom and bringing in rater after rater to conduct individual assessment sessions. However, theCAT offers
generally stayed the same or improved throughout thecapstone experience. There are some interesting results where the skill level is reported to havedecreased, namely Q2-5 and Q12. Though our sample size is limited we believe there is anexplanation for this regression in skill level. Questions 2-4 focus on working with others andintegrating different perspectives in the problem solving process. Students may haveoverestimated their ability based on a lack of experience working with people from differentbackgrounds. The result in Question 5 regarding interpreting and organizing information leadsto an inherent challenge in a capstone course that incorporates real-world problems. Since dataand information are not provided to the students in a formal
the opportunity toconnect what they are learning in the classroom to events outside the classroom. Learning isenhanced if students understand the relationship between abstract ideas and real-worldapplications. This can be achieved through interdisciplinary, multi-disciplinary approaches toscience curricula.8 In the book, They’re not Dumb they’re different, Tobias proposes thatcapable students reject science degree programs because of their emphasis on individualcompetition, narrow syllabus content, lack of application, context and of opportunities forcooperative or interactive learning.17According to research studies, the implementation of group work in the classroom creates a moreequitable learning environment. It has also been shown to be a
-standardtechnology. The introduction of SMT/PCB facilities has had a significant impact across theentire undergraduate curriculum, from sophomore year core courses through senior designprojects, and has improved the overall educational experience and outcomes.IntroductionRecent curriculum redesign in the Department of Electrical and Computer Engineering at DukeUniversity funded by the National Science Foundation has focused on real-world problems as ameans for the successful training of modern engineers. The redesigned curriculum provides ourstudents with more opportunities for hands-on experiences in applying theory to practicalapplications.1 Project-based learning is a central driver in this process which has been shownthrough prior work to motivate
Module 5: Energy Storage Module 6: Solar Bio/Ecology Systems3.1.4. Simulation Uses TRYNSIS 16 which is a transient systems simulation program, capable of simulating user- specified energy systems subject to weather data and other time- dependent forcing functions. TRNSYS is highly modular. Main applications include: solar systems (solar thermal and photovoltaic systems), low energy buildings and HVAC systems, renewable energy systems, cogeneration and fuel cells. The simulation exercises in the summer offering 2009 were selected from the Trynsis simulation exercises[25]: 1. Solar Combisystems (a demo) 2. A Simple Solar Domestic Hot Water System 3. Solar Industrial
talk topeople walking around your poster. You will find that you will make friends and be ableto chat with them at future meetings.Tip #2: Attend the National Effective Teaching Institute (NETI). This is a three dayworkshop focused on improving teaching skills which is run the weekend before theASEE meeting. A nominating application is required. It is customary for college deans tonominate and fund the participant’s attendance. The NETI institute that the author of thispaper attended also had several tenured professors in attendance looking for some newideas or ways to refine their teaching skills.NETI is usually run by three experienced educators. When the author attended theworkshop in June 2001, it was run by Chemical Engineering Professors
schools and libraries.The outreach teams have provided demonstrations and activities for MESA clubs, helped toorganize a Girl Scout Night, and developed a robotics badge for a Boy Scout Pow-Wow. Whilethe original goal of the program was to educate teachers about real-life applications of what theywere teaching and recruit high school students to the field of engineering, the current objectiveshave expanded to include the following: Helping others in the community to develop a personal connection with engineering Developing presentation and leadership skills Increasing awareness of engineering and types of engineering majors Cohort formation to facilitate college retention and
deliver a world-class manufacturing education in spite of a growing number of challenges. 6. Strategically deploy existing and new resources into STEM and manufacturing education programs.The paper then goes on to present expanded information for each of the six (6) recommendationswithin their strategy. For example, related to recommendation 5 - To develop faculty that candeliver an excellent manufacturing education, the paper states that educators must: • Keep up to date on using new technologies. • Work with industry to understand current technical needs and update curriculum. • Collaborate with industry, professional organizations and government on projects such as design-and-build competitions and
it is“Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education” Page 8.6.3expected to unfold, as well as a statement and discussion of our experience of involving anundergraduate mechanical and civil engineering student group in a “real life” engineering projectwith exciting creative possibilities.III. How the project is expected to unfoldStep I: Conceptualization of philosophy and definition of overall design objectives.Step II (Present phase): Study of principles to be used for achieving thermal
audio formats)Weird, Wild and Wonderful Materials and Devices (investigates the exploitation of unique properties and behavior of engineered materials to serve as the sensors, transducers and actuators in common and not-so-common devices and appliances)How Good Engineers Solve Tough Problems (critiques classic and novel ethical cases from industry and academia through small group discussions and problem-solving)Managing the Real (Un)Predictable World (explores operations research techniques, including probability and its application to quantitative decision making) Topical- professional Overview 9% 10
Matters in College? Four Critical Years Revisited. Jossey-Bass.[2] Dewey, J., Democracy and Education: An Introduction to the Philosophy of Education, The MacmillanCompany: New York, USA, 1916.[3] Forte, A. and Guzdial, M., Computers for Communication, Not Calculation: Media as a Motivation and Contextfor Learning, in Proceedings of the Hawai'i International Conference on System Sciences, Big Island, Hawaii, 2004.[4] Hayes, J.H., Energizing Software Engineering Education through Real-World Projects as Experimental Studies,in Proceedings of the 15th Conference on Software Engineering Education and Training (CSEET), IEEE ComputerSociety, Covington, KY, USA, 2002, pp. 192-206
provide base project funding, but additional funds are also raised. The faculty sponsorand the students work together to find, apply for, and receive additional funding and donations ofmaterial and equipment. This provides the students with a unique learning experience that isunparalleled in other senior design projects. Writing grant applications and letters to industrysponsors provides valuable practice for real world jobs and creates relationships between thestudents and industry professionals.The students are required to write a design proposal and have several design reviews during thefall semester. This allows the students to brainstorm and receive valuable feedback fromprofessors and industry professionals who attend the design reviews
than the relevant math and science.Instead, they discussed things like their intuition, wanting to reflect the real world, and logic. Infact, students both discussed the relevance of particular math and science concepts and identifiednon-science/math criteria in their decision making process in 12 of the 19 interviews, suggestinga tension or ambivalence regarding the role of this content, on the part of the students. Page 25.1191.5
previous surveys, and indicates appropriate curriculum revisions to best satisfy thecurrent and anticipated needs of our manufacturing company ‘customers.’Major Points: Brief description of our manufacturing technology program Explanation of the multiple surveys, objectives of each, and methodologies used to gather data Documentation of data received, summary and analysis of results, and listing of significant comments by respondents Implications of the results for adjustments in subject matter topics, applications and technologies for our curriculum and similar programsThis paper provides documentation and evaluation of some manufacturing company priorities fora manufacturing technology program. This can benefit similar programs