)=0.9928, p>0.05, in active stu-dents F(2,402)=2.8360, p>0.05, and in withdrawal status, temporary F(2,402)=0.9589,p>0.05 or definitive F(2,402)=1.9465, p>0.05.Discussion The comparison of emergency remote teaching with lecture based, flipped and onlinemodalities, shows that the learning experience of students was very similar to a traditionalface-to-face modality with active learning. This result could be explained because the mainchange between the two modalities, in the case of our programming course, was the mediumused to deliver the synchronic sessions. The significant difference in choice between ERTand face-to-face learning, could be explained by the lack of laboratory sessions in ERT,because of the social distance
in anelectronic copy of such. Selected new topics in the course required a similar search for arelated patent. To encourage prompt completion of these simple tasks, a few students werechosen at random to give a one-minute description of the patent that they had submitted. Tofacilitate equity in this process names were selected sequentially from a randomized listmade at the start of the semester. The students were unaware of this list and that they wouldnot likely be called upon more than once during the semester.The primary assignment called for the submission of a patent application for an improvedhalf wave rectifier. A laboratory experiment involved comparing a simple resistor-diode half
model for how auniversity can ensure the long-term career success of its students.BackgroundWell-designed educational experiences involving interdisciplinary collaboration and applicationof knowledge to real-world challenges benefit both students and faculty as well as theireducational institutions, local communities, and society [1]. The effectiveness of collaborativelearning has been studied for some time, and researchers continue to find that it leads toenhanced critical thinking [2], [3], [4]. In addition, experiential learning has been shown toincrease both creative and innovative learning [5]. Interdisciplinary learning approaches havealso been studied and show similar effects, including increased metacognitive skills and criticalthinking
photolithographymodule; a physical vapor deposition (PVD) module; a wet development station; a wet etchstation, and two wafer test modules. In addition, we have optical microscopes and a Filmetricsthin film characterization system. These tools were selected because of their simplicity andsafety, prime considerations for an entry-level laboratory. During our first year’s experience, wemodified some of the modules somewhat from the as-received units in order to improve theirfunctionality and/or data-gathering and analysis capabilities.We have developed a four-mask process that allows us to produce operating p-n junctions andenhancement mode n-MOSFETs on p-type wafers using 100 µm rules on 4-in (100 mm) wafers.3We are also developing a laboratory information
experiments in a disciplined manner (use and connect standard laboratory instruments, electronic devices and equipment), analyze, interpret, troubleshoot and apply experimental results to improve processes using sound engineering principles. (d) An ability to apply creativity in the practical, cost effective and reliable design of systems, components or processes in the areas such as electronics, or electrical power and machinery. (e) An ability to function effectively in laboratory groups and/or on design teams with members and tasks sometimes separated in time and space. (f) An ability to identify, design, test, analyze, and solve technical problems using knowledge gained from a
Mechanical Engineering such as thermal and mechanical sciences and system design; Page 6.428.5 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Education[PO3]. To provide laboratory experiences to develop students’ skills in design of experiments, laboratory safety, data acquisition, instrumentation, and laboratory report writing;[PO4]. To develop computer competency and an intelligent use of computers as tools for developing solutions to engineering problems;[PO5]. To provide flexibility through
createcapstone projects that involve students from multiple engineering disciplines. While this cansatisfy the requirement, a closer reading yields both a different interpretation and an approach toassessment: Students can demonstrate the ability required by criterion 3-d by showing theirunderstanding of what information they need to share with other specializations as part of thedesign process. For example, plants designed by chemical engineers or environmental engineersrequire data from laboratory-scale tests, and their design specifications are in turn used by civilengineers and power engineers, among others, to complete the project. Many product designsrequire interaction between mechanical and electronic engineers.This interpretation does not
project focusing on analyzingrotation may be a helpful learning supplement for students. Therefore, a carousel projecthas been developed and implemented in an undergraduate dynamics course in mechanicalengineering technology (MET).This article will discuss the learning process and results of a group laboratory project incurvilinear motion. This project is designed to not only improve students’ learningoutcomes and understanding of dynamics content, but also to develop and enhance theirproblem solving and critical thinking skills.Students are tasked with designing and building a physical carousel model, choosingmaterials for the main body and supporting cables, recording data, and using their data toanalyze the model’s rotational motion. To solve
and other non-governmental agencies.ETSURF is designed to be able to respond quickly and efficiently to opportunities for researchsupport when the university, as an arm of the State of Tennessee would be limited by Stateregulations. Examples include making business decisions such as accepting a patent donation orin some cases accepting contract terms and conditions that would be excluded in a traditionalstate contract.In retrospect four primary driving forces have shaped the research foundation at ETSU: (1) needfor faculty to close contracts and grant applications quickly without impediments created byuniversity bureaucracy; (2) management and transfer of intellectual property (IP); (3)management of the Innovation Laboratory, and ultimately
ofcurriculum concepts generally using a laboratory environment or case study.‘Authentic involvement’ uses industry partners to place the students in a realworld environment solving problems that are of benefit to the partner while stillrequiring students to synthesize curriculum concepts. The capstone experience inthe Industrial and Manufacturing Engineering Department at WSU is that of the‘authentic involvement’ type and somewhat unique in that it requires students toparticipate in two dissimilar semester-long, group projects in industry. Studentsare required to enroll in the class in their last two semesters. Therefore, thestudents take the class twice. Each semester the student works with a differentgroup of students and at a different company in a
evaluating properties such as Young’s modulus, thicknessmeasurement using pulse-echo techniques, and flaw detection by identifying internal defectsthrough ultrasonic wave reflections. Unlike commercial ultrasonic systems designed specificallyfor thickness gauging or flaw detection, each costing a similar amount—this system provides aversatile and cost-effective alternative while allowing students to directly engage with themeasurement principles.This paper presents a laboratory experiment designed to introduce ultrasonic NDT at thesophomore level as part of a materials testing course. The experiment aims to: 1. Introduce NDT concepts to students to spark their interest in this field. 2. Provide sufficient background knowledge to help students
, resulting in Purdue Mission to Mars(PMTM), a learn-by-doing approach to high school recruiting.Many other colleges and universities have implemented recruiting via classroom visits to K-12 schools,professional development programs for teachers, engineering contests for students, and on-campus visits.Such programs can be designed to increase engineering enrollment, diversify engineering, educate futuregenerations, teach the teachers, or to improve the quality of the undergraduate engineering experience [1].Such programs are increasingly important to recruitment efforts, as many as 50% of students have madethe decision on a college major by their junior year of high school [2]. Examples of outreach programsinclude the K-12 Engineering Education
describes how engineering programs work from the “groundup” starting at a very detailed level and gradually advancing to systems only at the end of a Page 24.1108.5program, while architectural programs typically use a studio approach which introduces studentsto the design of full projects at an early stage. Courses involving architecture students withengineering content might ideally recognize these two approaches.The new learning outcomes and content were therefore developed using the experience with theearlier courses and goals developed for the new course. The most direct approach to thedevelopment of learning outcomes and content for the new ARCE
technician’s education involve the following: • Development of problem solving skills • Understanding of the theory of physical science. • Application of physical science theory through the solution of homework problems. • Application of physical science theory through laboratory experiments. • Application of physical science theory through the design of devices, processes, and systems. • Communication of the results of the above through sketches, equations, numerical solutions, drawings, written reports, and oral reports. • Solution of problems through teamwork. • Management of time and other resources The pedagogy of
experiment results suggest that online laboratory learning can be substantiallyenhanced by the use of even the simplest form of artificial graphical information and moststudents prefer having an instructor present even the lab is taught online. The implications fromthis study can be used to benefit many schools that begun offering online lab courses.I. Introduction A current trend for manufacturing industry is shorter product life cycle, remotemonitoring/control/diagnosis, product miniaturization, high precision, zero-defect manufacturingand information-integrated distributed production systems for enhanced efficiency and productquality1-6. In tomorrow’s factory, design, manufacturing, quality, and business functions will befully integrated
pedagogy. The study adopts a descriptive andquantitative method using the Motivated Strategy for Learning Questionnaires (MSLQ) in a pre-post-test design. The responses of the survey were obtained from 68 learners who fullyparticipated in the transportation engineering modules where experiment-centric pedagogy wasimplemented. The data were cleaned and analyzed using Statistical Package for Social Sciences(SPSS). Inferential analysis was conducted at a confidence level of 95%. The mean self-efficacyscore at the baseline was 9.21±5.98 which was found to significantly increase at post-test to17.06±3.39. The Cohen d effect size was found to be greater than 0.8 which revealed that thechanges were not due to chance. At baseline, the most strongly
curriculum.Engineering science courses and senior-level technical electives were removed to make room forcourses more suitable to the BOK2 and to reduce overall program credit hours. Compliance tothe current ABET EAC was maintained, along with the commitment to our unique program ofmeaningful, varied, and multiple design experiences delivered in a problem-based format everyyear of the curriculum. Constraints including budgetary pressures and implementation of theXBOR’s 2020 vision coupled to an evolving and complicated general education program with a Page 15.73.2
Design (CAD),microcontrollers, Smartphone cameras and other CCD-based imaging, miniature sensors, freeze-dried reagents, and optical components and materials (e.g., LEDs, laser diodes, photodiodes,optical fibers, filters, fluorescent dyes) make the design, fabrication, and testing of Lab on a Chipdiagnostics devices accessible to engineering students. We describe Student Design Projects todemonstrate LOC diagnostics devices to meet current needs for healthcare, public safety, andsustainable development. These projects provide a gateway for engineering students to learnbiomedical applications of engineering, gain experience with product development, and integrateknowledge of materials, instrumentation, control, rapid prototyping, and applied
the qualitative section, the students felt that the team should include male and femalestudents and adding more components to assemble would enhance the experience. Inretrospect, the choice of the traffic signal control using an electrical circuit does containsignificant STEM components in diodes (science), LEDs (technology), engineering(integrated circuits or ICs), and boolean algebra/combinatorial logic (mathematics). Theproject activities focused more on the aspects of system integration and less on thespecific operation of each component. The activities were intended to engage the K-12students at the system level so that they recognized how real-world problems haveengineering solutions that can be designed and tested in the laboratory
acquisition, real-time programming, client/server programming, and observing actualphysical results of numerically computed solutions to problems. The goal of this work is toproduce students with experience in designing solutions to challenging problems that have manydimensions and also the ability to effectively implement and test those solutions. This laboratorywill enable us to transform a wide range of computer science algorithms and abstract conceptsinto physical realities. This paper briefly describes the laboratory hardware and overviews anincrementally complex series of assignments supported by the laboratory.Background Our Computer Science program has an enrollment of approximately 250 undergraduates.Although the undergraduate program
criteria, and faculty expertise. Difficultiesin fitting the multitude of desired outcomes into the curriculum were addressed throughintegrative lab experiences and electives. Laboratory and faculty resources were largely alreadyin place due to prior programmatic strengths in automated technologies but were grown with theincreased faculty and student focus. Establishment of an Industrial Advisory Board dedicated torobotics and automation has formalized and increased employer input into curriculum, lab, andstudent development opportunities. Program assessment and feedback from industry informscontinuous-improvement updates to the curriculum. The automation-focused degree andcapabilities of its graduates has resulted in increased interest with local
(ISU), there is a rich and long history of new materialssynthesis, processing, and characterization involving inorganic materials such as chalcogenideand phosphate glasses, intermetallic compounds, composites, and biodegradable plastics derivedfrom natural agricultural products. By contrast, undergraduate students at ISU have almost noaccess to teaching laboratories where they can acquire hands-on experience in the behavior andanalysis of polymers, despite the ubiquitous and pervasive nature of these materials. The web-based computer instructional modules described in this paper will address this deficiency in theundergraduate curriculum by providing students access to the first innovative, interactive
). Proceedings of the 2004 American Society for Engineering Education Midwest Section ConferenceIn this paper, our experiences in incorporating a research proposal in four courses inbioengineering for upper-level undergraduates and graduate students are presented.Bioengineering is a very broad field undergoing rapid development and has many opportunitiesfor students to write research proposals on the advancement of science and engineering. Theability of students to propose new research will help prepare students to engage in life-longlearning once they graduate.Research ProposalA research proposal was required in each of the following courses: Biochemical Engineering,Biosensors, Cellular Aspects in Tissue
fourths of their timeproviding individualized instruction to students working in their laboratories. This idea hasalways been deeply embedded in the culture of the profession. That is why “problem solving” toa Technology Education teacher means spending large chunks of time in design- or project-basedactivity,” rather than a “numerical” or “word problem” or even a scientific investigation…though there is evidence in this study of increasing interest in applying more math and science inthe Technology Education instruction. Technology Education pedagogy values hands-onproblem-based/project-based/design-based learning experiences over “textbook learning;”“authentic” assessments of the artifacts of problem-based learning over “paper and pencil” tests
courses for the new programsand support capstone design projects. Moreover, it will serve as a platform for the development ofstate-of-the-art projects for engineering students. • The proposed laboratory will achieve the following goals and objectives: • Familiarize students with the design, testing, and implementation of emerging technologies desired by local industries. • Evaluate the effect and efficiency of design laboratory experiments. • Introduce the use of test setups emerging in industrial communities, not yet utilized in the undergraduate university environment. • Create a focal point for interdisciplinary learning and present a balance between theoretical and hands-on experience in undergraduate instruction
-gapboiling in nuclear systems 9, and the design of highly efficient compact heat exchangers. Thesefields of study heavily depend on experimentations including data collection, where it is essentialto design and develop two-phase flow experimental systems. This paper reports the design anddevelopment of an experimental system for two-phase flow that allows undergraduate andgraduate students or other remote clients to easily run two-phase flow experiments, change controlparameters and analyze the results via TCP/IP based network systems including the Internet andthe Local Area Networks.This computer-aided experiment uses LabVIEW software and data acquisition boards (DAQ).Control of the experiment is initiated from a web browser, and data are acquired
al., Implementation of Educational Particle Image Velocimetry 42 Suites in Fluid Mechanics Laboratory Experiments Youngwook Kim et al., Multiple Human Tracking using UWB Radar with Target 51 Signatures Peter Kinman, et al., Communications Laboratory with Commercial Test and 57 Training Instrument Proceedings of the 2011 PSW American Society for Engineering Education Zone IV Conference Copyright © 2011, American Society for Engineering Education iv
Program (IEP) and the Freshman EngineeringHonors (FEH) Program. These new programs retain part of the traditional material but add inhands-on laboratory experiences that lead to reverse engineering and design/build projects. Therelational practices – teamwork and project management, along with report writing and oralpresentations and ethics have assumed important roles in this program. The programs aredesigned to have faculty from all of the degree granting departments teach freshmen. Theseprograms were developed to improve the retention and early decision to stay or leave for newfreshmen and to lay a foundation to better address some of the ABET 2000 accreditation criteria.Retention has improved markedly. This paper provides a brief description
2793assigned for the Fall 2001 consisted of design of a bicycle frame for a givenspecifications such as weight of the frame, maximum concentrated loads on the handlebar and the seat. The students were required to deliver the following items:1. A Gantt chart detailing the time table of activities: This should be turned in within 5 days after it is assigned to the students. Subsequently the students are expected to submit a progress report based on the proposed time line.2. A report in compliance with the standard laboratory report writing practices: the students are expected to use the finite element program, FRAME, in the design work. The design should include but not limited to (a) dimensions of the bicycle frame, material used for the
Session 2377Undergraduate Research As An Enhanced Educational Tool and A Transition Mechanism for Post-Graduate Studies Mohamed A. Bourham and Donald J. Dudziak Department of Nuclear Engineering North Carolina State University Raleigh, NC 27695-7909 Research experience for undergraduates is of great importance not only forconducting research on a topic that has impact on a current research activity, butalso as a tool to enhance undergraduate education. During the past decade,undergraduate research in nuclear engineering was irregular, a case-to-case event,based on individuals