Design of a headphone mount prepared by an undergraduate Engineering Technology studentIn the next task, students were instructed to slice their parts with one of the AM softwares availablein the market. They picked Unltimaker Cura since it is relatively easier to install on their own PCand use. Then, they printed their parts with 3D printers available in laboratory. One of theimportant tasks was to optimize their part shape with Fusion 360. In this program, they can usevarious geometry from the nature and redesign their parts by making an analogy with the organicshape. Through the optimization task, students generate a part with similar mechanicalperformance yet reduced weight, which is very important for industry as they always tend to
figures 1 and 2. A load was placed on the specimen until ultimatestress as shown in figure 3. Table 1 shows results from student laboratory exercises andcalculation of relevant data.Figure 1: Specimen placed in UTM Figure 2: Specimen under load Page 12.894.3 Figure 3: Specimen near fractureTable 1: Data collected from this experiment and relevant calculated valuesSpecimen Length Length Strain Cross- Applied Stress E Original Final (in/in) section Force (lb) (psi) (x106) (in) (in) Area (in2
learning portfolio isshown in Table 1. Students complete the portfolio so that their lowest grade is dropped.The IPR method is illustrated for the first section of our Process Control course that was taughtduring the spring semester to a mixture of junior and senior chemical engineers. The course plan Page 8.651.4includes 23 LOs that are assessed using three mid-course exams, a final exam, eight Control “Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering EducationStation10 laboratory experiments and a plant-wide
and engineering-based content and activities in their teaching, they must themselves experience learning throughinquiry, collaborate with other teachers, have access to and competence in using technology, andhave experience with engineering.8,9The interdisciplinary nature of engineering merges laboratory, field, and classroom inquiry withhistorical and cultural perspectives and the technology in the students’ worlds.10 Effectiveclassroom practices include conceptual understanding, thinking skills, inquiry, cooperativelearning, graphic organizers, computer simulations, actual observation, clear objectives, and on-going feedback.11 Students develop deeper understanding when they generate and testhypotheses, compare and contrast, summarize, and
Engineering Education, 2024 Computing Faculty Introducing Secondary Students to Differences in Computing Fields (Work in Progress)An interdisciplinary research team consisting of five faculty members from computer science(CS), computer engineering (CmpE), information technology (IT), and education (EDU) offereda one-week summer computing camp for high school students on a regional university campus inthe midwestern United States. The Summer Computing Camp (SCC) aimed to increase students'understanding of computing-related majors and promote higher education in computing fields.Campers received daily instruction on the core components of CS, CmpE, and IT and practicedthe gained knowledge through hands-on laboratories
computer lab forstudents and providing computers to the teaching staff. The acquisition of at least twentycomputers will be enough to establish a computer lab. Students will use them for computation,drafting, and writing laboratory reports. One of the young teachers could be trained to teachcomputer-aided design (CAD) to the students.5.3 TextbooksThe Faculty is severely suffering from the shortage of textbooks. Existing edition of textbooksare old and outdated. One text is shared by several students which severely hamper their abilityto prepare for their classes. Several alternatives could be followed to alleviate the problem.As a first alternative, it is necessary to contact American publishers for their South Asian prints. Ihave identified three
Engineering Exploration (EngE1024).Jenny Lo, Virginia Tech JENNY L. LO is an assistant professor in the Department of Engineering Education in the College of Engineering at Virginia Tech. She received her Ph.D. in chemical engineering at Carnegie Mellon and her B.S. in chemical engineering at Tulane University.Odis Griffin, Virginia Tech HAYDEN GRIFFIN is currently professor and head of the Department of Engineering Education at Virginia Tech. He holds BSME and MSME degrees from Texas Tech University and a Ph.D. in Engineering Mechanics from VPI&SU. He had 13 years of experience in industry and government laboratories prior to joining Virginia Tech in 1985
Paper ID #32798Scholarships in Science, Technology, Engineering, and Mathematics(S-STEM) Engineering Scholars Program at a Two-Year College: Prelimi-naryInterventions and OutcomesDr. Elizabeth A. Adams, Fresno City College Dr. Elizabeth Adams teaches full time as an Engineering Faculty member at Fresno City College in Fresno, California. She a civil engineer with a background in infrastructure design and management, and project management. Her consulting experience spanned eight years and included extensive work with the US military in Japan, Korea, and Hawaii. In 2008 Elizabeth shifted the focus of her career to education
Standard Deviation 14.19 18.33An approach that shows great promise is that of inquiry-based instruction. This consists ofpresenting teams of students (also introducing the benefits of collaborative learning) with aphysical situation and asking them to predict what will happen. They can then investigate thesituation by experimenting with the laboratory modules. In this way the physical world is nowthe “authority” rather than the instructor. As shown in Figure 1, Laws et al.1 have shown thatusing inquiry-based active learning instruction (identified as “New Methods”) dramaticallyincreases student performance on questions relating to force, acceleration, and velocity.Figure 1. Active-engagement vs. traditional instruction for improving students
Paper ID #36685Work-in-Progress: Engineers Transitioning from anIndustrial Position to Full-time Academic Position in anEngineering CollegeMatthew Lucian Alexander (Associate Professor) Dr. Matthew is an associate professor in Chemical Engineering at Texas A&M University-KingsvilleNAZMUL RAHMANI Dr. Nazmul Rahmani, Texas A&M University - Kingsville Dr. Rahmani is the Van Mooney Professor of Practice in the Department of Chemical and Natural Gas Engineering at TAMUK. Prior to this, he had 12+ years’ experience in petroleum industry with major focus on process engineering design and laboratory R&D project
features. Some new capabilities, such as the GLCD graphics display and touch screen, will warrant new lab experiments to make use of those devices. Looking ahead, the experience students will gain using the ATmega32 microcontroller in this required microcontroller course will encourage them to consider AVR processors in future work, notably in their senior project designs. This new microcontroller lab using the EasyAVR development boards will serve as a valuable resource for students using AVR processors, as it provides the hardware and software
Faculty Development and International Collaborations Using Vertical Education Enhancement Model Stephen U. Egarievwe1,2 and Ralph B. James2 1 College of Engineering, Technology and Physical Sciences, Alabama A&M University, Normal, AL 35762, USA2 Nonproliferation and National Security Department, Brookhaven National Laboratory, Upton, NY 11973, USAAbstractThis paper presents the international collaboration and experiences of an effective facultydevelopment initiative based on a vertical education enhancement (VEE) model. The VEEfaculty development program was designed to effectively improve performance and moralthrough
engineering and technology teacher, as well as several years of electrical and mechanical engineering design experience as a practicing engineer. He received his Bachelor of Science degree in Engineering from Swarthmore College, his Master’s of Education degree from the University of Massachusetts, and a Master’s of Science in Mechanical Engineering and Doctorate in Engineering Education from Purdue University.Dr. Kurtis D Cantley, Boise State UniversityDr. Gary L Hunt, Boise State University Gary Hunt a Special lecturer for the Engineering Science Department at Boise State University. Dr. Hunt received his Ph.D. in Education from the University of Idaho, his M.S. in Electrical Engineering from Colorado State University
milestonesKnowledge The teacher and the textbook are The teacher has experience andTransfer presumed to have the knowledge background in designing and at the start, and the student not to executing solutions to problems. have it. Knowledge is transferred The teacher and, to a lesser extent, from the teacher and text to the the student have a broad background student. The student also benefits in computer science. Neither may from experiential learning in a have the specific skills required to laboratory environment that has complete the student project. The been carefully structured by the student may need to obtain
through the course’s laboratory experiments. Analog todigital conversion techniques and data acquisition systems are also studied in this course. Tohelp pull together the topics and concepts discussed in class, a rocket payload data acquisitionsystem is employed. As each device is studied, its application to the payload system is presentedand discussed. A thermistor is used to measure the air temperature at various altitudes. Amicromachined accelerometer is used to measure the acceleration of the rocket during launchand throughout the mission. Integrated silicon pressure transducers are used to measure bothaltitude and speed of the rocket. The axial speed of the rocket is determined by using the body ofthe rocket as a Pitot tube together with a
Engineering Effective solution Desire to solve engineering problems approach algorithms technical problems k. Use techniques, skills & Engineering tools Efficient, effective Need to assess tools of engineering use of tools limitations of tools b. Design & conduct Experimental Laboratory Empirical stance experiments, interpret data method techniquesII c. Design a system, Design methodology Design process, Open to risk and component or process creativity uncertainty d
its steering committee for several years. He has invested over twenty-five years in the development and maintenance of a multimillion dollar manufacturing laboratory facility complete with a full scale, fully integrated manufacturing sys- tem. Professor Harriger has been a Co-PI on two NSF funded grants focused on aerospace manufacturing education and is currently a Co-PI on the NSF funded TECHFIT project, a middle school afterschool pro- gram that teaches students how to use programmable controllers and other technologies to design exercise games. Additionally, he co-organizes multiple regional automation competitions for an international con- trols company. c American Society for
Paper ID #40885Infusing Data Analytics Skills into Project-Based Learning for ComputerScience and Engineering EducationDr. Xiang Zhao, Alabama A&M University Dr. Xiang (Susie) Zhao, Professor in the Department of Electrical Engineering and Computer Science at the Alabama A&M University, has over 20 years of teaching experience in traditional on-campus settings or online format at several universities in US andaboard. Her teaching interests include programming languages, high performance algorithm design, data science, and evidence-based STEM teaching peda- gogies. Her recent research work has been funded by DOE, USED
the students who chooseto participate in the Elites program, due to their prior experiences, knowledge, skills, anddisposition. Yet, we believe this may not undermine the level of engagement shown byour STEM students. We designed the program to be student-focused. While other universities have STEM leadership programs for undergraduates thatintegrate the STEM leadership component throughout the science curriculum (i.e. Reed,Aiello, Barton, Could & McCain, 2016), this program differs in that the Elites leadershipprogram does not overlay nor impact the current instructional practices or ongoing programs(e.g. clubs) in the departments, in the college or across the university. The goal is to drawfrom the current STEM academic
functions, includingpaying attention, memorizing, analyzing, and judgment. They are seldom exposed to informationdirected at generating new ideas and visualizing the nonexistent, which are primarily thefunctions of the right brain. Similar sentiments are expressed by Michael LeBoueuf 4 when hestates, “Creative abilities are the oil wells of our mind.” The Proposed ApproachA feasibility plan was designed and implemented. It consisted of three components: (a)presentation of the idea, (b) demonstration of the EMFA gadgets, and (c) conducting the survey.The plan was put to test in four senior classes: ELET 4108 (a project-based laboratory inMicroprocessor Interfacing), ELET 4300 (Unix Operating System), ELET 4309
Professional Communication Department at Texas Tech University. Previously, she served as Professor and Director of Technical Communication and Rhetoric at Texas Tech and as Associate Professor at Utah State University. Her scholarship focuses on online education, program development and assessment, and user-experience design.Dr. Mario G. Beruvides P.E., Texas Tech University Dr. Mario G. Beruvides is the AT&T Professor of Industrial Engineering and Director of the Laboratory for Systems Solutions in the Industrial Engineering Department at Texas Tech University. He is a registered professional engineer in the state of Texas.Jason Tham, Texas Tech University Jason Tham is an associate professor of technical
LabVIEW Virtual Instruments the studentshave to develop in this project. These examples clearly establish the utility and purpose of theproposed activity.I. IntroductionThis paper outlines a procedure which utilizes MATLAB and LabVIEW to contribute to theacademic development of sophomore-level engineering and engineering technology students.The specific sample project included in this paper is mainly geared for students who areinterested in pursuing a degree in civil, mechanical, or aerospace engineering. Similar projectscan easily be designed for students pursuing other engineering fields.To start this pilot project, a sophomore Mechanical Engineering Technology student wasselected in the spring of 2008 to develop programs for analyzing beams
this precise learning pattern may be extremely helpfulin improving student performance in both learning and problem solving tasks. Students mustcorrectly determine if they understand a new class concept, or if they correctly understand aproblem. We also noted students discussing the results of the LCI later in the semester inconnection with the problems they were solving.In considering the learning experiences of engineering students, most courses require theSequential and Precise patterns. We also noted our design project required the Technical andConfluent patterns. This may account for the frequently observed dichotomy between studentGPA’s and performance in design courses.In order to promote self-efficacy, students were called on
laid the blame for engineering education programs’ lack ofattention to effectively sustaining engagement in engineering at the doorstep of outdatedapproaches to preparing engineers, in essence, the over-emphasis of technical problem solving3.Scholars who challenge the narrow coverage of discipline-focused technical concepts and theperipheral place of design experiences relative to structured problem solving 4, 5, 6 urge educatorsto adopt approaches that honor diverse aspects of engineering, such as technical, organizational,and personal7.This report details the design, implementation, and evaluation of a summer engineering researchexperience for high school students aimed at increasing underrepresented youth’s engineeringcompetence and
bono or fee basis (2) Student interns and employees (3) Access to technicallabs, facilities and equipment (4) Access to databases and researchers (5) Access to research anddevelopment financing through programs such as SBIR – federal grant funding is greatlyenhanced when incubator clients submit a joint proposal with a university or federal laboratory(6) Additional services and resources including patent knowledge, alumni who may act asadvisors, business contacts and strategic alliance facilitators or investors, access to a far-flungnetwork of laboratories and technical expertise, and access to investment by universityfoundations.All the above mentioned research findings and other issues and environmental factors wereconsidered when designing
obtained from the spreadsheet simulation.3. Project OverviewWhile the input to the simulation proposed by Dixon was hourly average insolation based uponhistorical data for a specific site, a more extensive project is one which requires students tocalculate actual solar position and intensity, and then to use these predictions as the input to aspreadsheet similar to that proposed by Dixon. Once verified against a standard set of data,students are then required to apply the model for use in other geographical sites, forenvironmental extremes, or to suggest and incorporate various design modifications to enhancesystem performance. The objectives of the project are: To reinforce course material in solar tracking. To provide experience
with more Below is a list of ideas we intend to research and can than five IP addresses during the timeframe of our also be used by others who would like to pursue experiments. educational and applied cybersecurity in their institutions:The data set collected and analyzed by our tools canhelp (i) users raise awareness of their own data 1. Investigating the Business models where IoTprivacy, security, and improved general use of the can provide solutions, and design systemsInternet; (ii) analysis of the privacy/security features targeting the industriesof the IoT devices can be improved by
that week, and a stipend for researchexpenses during the subsequent semesters. The paper will also discuss the retention rates andmotivation surveys from the program. The students selected for the program had a GPA averagesimilar to the college as a whole, and over 90% have been retained in STEM fields. Surveyresults suggest that one critical aspect of involving students in this program was a modest stipendto ensure financial concerns do not preclude participation for the students.Introduction Campus-wide undergraduate research programs at schools around the country supportactivities for a wide range of students. Many of these students have had little or no priorexperience working in a laboratory research environment. Consequently, many
the user, while the fourth part allows them to experiment with a computer-generatedsimulation of the problem. Computer animation as a tool for learning “Engineering Design/Graphics Concepts” was discussed by Bradley and Sidler2. The following elements were Page 5.161.1included: multiview drawings, vectors, and tolerancing. Use of the computer package andanimation as a learning tool has been described by others1, 9, 10, 11.Students in freshman and sophomore-level courses, in which some of the difficult to comprehendconcepts in mechanics are introduced, can greatly benefit from computer-based self-learningmodules as explained in an earlier paper
to appreciatecomplexity; to be capable of working in a variety of interpersonal and organizational settings; tobe able to act reflectively.Engineering is a profession in which knowledge of mathematical and natural sciences acquiredby study, experience and practice is prudently applied to develop ways to utilize optimallymaterials and forces of nature for the benefit of mankind and improving quality of life. "Service-Learning" is a combination of academic instruction with service that addresses real communityneeds. It uses reflection and critical thinking to provide an emphasis on personal growth andcivic responsibility. Humanities and Social Sciences curricula emphasize more on "soft skills"and "social service" and as such have naturally