students' perspectives and the resulting impact on student outcomes.Since 2014, a cohort of 8-10 students per year were chosen to participate in the summer program.Following their selection, these students were coached into securing their laboratory placementsabroad. Subsequently, they embarked on a comprehensive immersion into an eight-week summerresearch abroad program. At the end of the program, students had the opportunity to present theirresearch findings at an annual University of Texas system regional conference and share theiradventures while exploring their host institutions and countries. Also, the participants engaged infocus group discussions and completed a survey to provide feedback on their summerexperience.In general, the feedback
University Dr. David Gill is an Assistant Professor of Manufacturing Engineering at Western Washington University where he specializes in CAD/CAM and CNC. Prior to coming to Western, Dr. Gill was Principal Member of the Technical Staff at Sandia National Laboratori ©American Society for Engineering Education, 2024 Adapting CAD/CAM and CNC Curriculum to Advances in TechnologyOne of the challenges faced in manufacturing engineering education is how best to teach important,traditional content while branching out into new areas that are emerging as manufacturingtechnologies evolve. Dealing with this challenge requires a clear understanding of what is thefoundational material for a MFGE student to
petroleumengineering education to keep pace with these changes to keep attracting the brightest students.This is important because petroleum engineering schools need to prepare the future engineeringleaders of the industry. The aim is to equip them with the essential skills and to make them agileand adaptive so they can use their technical background and experiences to attain new skills andtackle challenges whenever needed. Thus, the petroleum engineering (PETE) program at TexasA&M at Qatar (TAMUQ) has implemented different educational tools (integrative andcooperative capstone project, fourth-year comprehensive exam (CE), augmented reality and 3Dvisualization, field trips and laboratory simulators, engineering video games, programming anddata analytics
students' engineering self-efficacy during their first two years ofstudy? (3) What approaches are used by the faculty when implementing the model that leads todeveloping students' research skills (laboratory research skills followed by publication) – acommunity of practice, engagement with students outside the classroom, etc.? It will also developa community of practice for faculty to apply the model to other underrepresented STEMundergraduates.The project adapted the Affinity Research Group (ARG) Model, developed at the University ofTexas, El Paso, a Hispanic Serving Institution, which adapted the model to benefit thosetraditionally underrepresented students in higher education with differing abilities inundergraduate computing programs. The
electives were offered at over three-quarters of departments. Advanced-core andsustainability electives were the next most popular, at 60% of institutions. Process-type electiveswere offered in 47% of departments. In the past ten years, almost all departments created a newtechnical elective that has been regularly offered. Bio-type electives were the most common newelective, followed by process-type electives. Data analysis, data science, and process simulation& modeling were the only emerging topics to be covered in an elective course at half or more ofthe departments. Details about course titles, electives with laboratory components, minors &concentrations, and common out-of-department electives are provided in theproceedings. Comparisons
learning preferences of students. This inclusive mindset not onlyenriches the learning experience but also leverages students' existing skills, creating a moreeffective educational environment [7]-[8].Research Approach and Data Gathering Techniques & Examination of DataThis study focuses on exploring the integration of technology with translanguaging in biosystemsengineering laboratories, particularly among graduate assistants from Spanish-speakingbackgrounds. Its primary objectives are to uncover the complex dynamics betweentranslanguaging and technology use during laboratory sessions and to assess both the benefitsand challenges of technology in educational contexts. The study uses storytelling to understandthe personal stories of four
154ContextThe ROLE program is housed in the Unmanned Systems Laboratory in the Electrical andComputer Engineering Department at New Mexico State University (NMSU). Funded by theNational Science Foundation (NSF) Broadening Participating in Engineering program, ROLEaims to trigger interest in research activities and development in engineering among minorityundergraduate students. The ROLE program has had three student cohorts since its inception inJanuary 2022, with six to eight students in each cohort. During students’ time in ROLE, studentsspend six hours weekly in the laboratory. During the first months in ROLE, students learn aboutLinux OS, Robot Operating System (ROS), Python programming language, as well as how tooperate a motion capture system
predictive analysis. These practical problemidentification are done within the on-site exploration visits. Figure 2. Outreach to research laboratory: The Figure 3. Inspired by researcher: Insights into the Human-Robot Informatics laboratory, which next generation of robotics and inspire the specializes in the latest robotics innovations possibilities of robotics during the seminar titled addressing challenging terrain and situations. “Creating Deep-Tech with Brain Science: human- centered brain Interfaces, AI and Robotics” [16].We acknowledge that the outreach program should go beyond simple industrial visits, insteadit is necessary for students to draw
Paper ID #42612Board 133: Work in Progress - A Pilot Course on Effective and EnduringAdvocacy: Leading with Compassion in STEMJacqueline Rose Tawney, California Institute of Technology Jacqueline Tawney is a Ph.D. candidate in GALCIT (Graduate Aerospace Laboratories of the California Institute of Technology). Jacque is a National Science Foundation Graduate Research Fellow, and a leader and organizer for many student groups. In the Kornfield group within Caltech’s Chemical Engineering department, Jacque researches associative polymers, their rheological properties, and their potential for agricultural and industrial
continuous improvement initiatives with resulting improvement measures. Records of faculty discussions resulting in the analysis of SO achievement and program enhancements derived from this assessment. • Criterion 5. Curriculum: Sampling of student work that provides evidence that topical areas supporting the elements listed in Criterion 5, in the General Criteria, or Program Criteria are covered. Examples of significant student design or capstone courses. • Criterion 6. Faculty: Only information of faculty changes after self-study submission. • Criterion 7. Facilities: Any facility changes after self-study submission, laboratory safety procedures, or inspection reports. • Criterion 8. Institutional
these disciplines in integrative ways. The parallels were highlighted with the rise ofacoustical research in the 19th century, which led to the creation of laboratory-generated soundsfor experimental purposes [2]. These sounds, neatly described with mathematical formulas,allowed a systematic exploration of human acoustic perception. To study hearing, scientists tookto using sounds like electronically generated sinusoids, acoustically resonating tuning forks, andelectronic sirens [2]. This line of scientific inquiry on the effects of music and sound continues tointerest psychologists and neuroscientists in their studies on musical acoustics and itsrelationship with human memory, emotion, and language, among others [3], [4], [5]. Similarly,this
, 2022, pp. 1-6.[3] A. A. da Conceic'ão et al., "Internet of Things Environment Automation: A Smart LabPractical Approach," 2022 2nd International Conference on Information Technology andEducation (ICIT&E), Malang, Indonesia, 2022, pp. 01-06.[4] J. Agrawal, O. Farook, Z. Anderson, and D. Walker, “Internet of Things (IoT) Laboratory,”2019 ASEE Annual Conference and Exposition, Tampa, Florida, June 2019.[5] S. Rowland, M. Eckels, and R. Sundaram, “Laboratory Instruction and Delivery of a PilotIoT Course,” 2021 ASEE North Central Section Conference, University of Toledo, Ohio. March2021. https://peer.asee.org/36345[6] L. McLauchlan, D. Hicks, M. Mehrubeoglu and H. Bhimavarapu, “Enabling Remote StudentLearning of Technologies,” 2023 ASEE Annual
Acceptance TestingEach team was required to demonstrate the performance of their design for the “customer.”Course faculty played the role of the customer. The faculty emphasized that it does not matter ifthe prototype worked previously, it must work at the time of the demonstration.Customer acceptance testing was performed with the protype mounted to the computer-controlled test fixture that was used to test both static and transient performance. The fixturecould be driven one step at a time (0.9°) to test the static performance of the tilt sensors.Stations were set up in the laboratory for various other required tests to be witnessed by thecustomer. The prototypes were each weighed as shown in Figure 11. The input current drawnfrom the 5V power
-19-public-health- emergency.html[20] D. J. Cheney, P.L. Dickrell, L. Virguez. “Online versus flipped classroom: A comparison of hands-on skills development in an introductory circuits course,” Proceedings of the 126th American Society for Engineering Education (ASEE) Annual Conference and Tampa, FL, MD, USA. 2019.[21] *S. Das, C. Chin, S. Hill. “Development of open-source comprehensive circuit analysis laboratory instructional resources for improved student competence,” Proceedings of the 129th American Society for Engineering Education (ASEE) Annual Conference and Exposition, Minneapolis, MN, USA, 2022. https://peer.asee.org/40925[22] C. A. Berry. “Teaching an electrical circuits course online,” Proceedings of
-lish laboratories and curricula that are not only in sync with current industry requirements butare also adaptive enough to accommodate future advancements.Adoption and implementation of the presented tools will ensure that the next generation ofSTEM workers displays a blend of technical skills, soft skills, and digital capabilities neededdue to rapid technological advancements and constantly changing work environments of thesemiconductor industry.INTRODUCTIONThe teaching-learning landscape has undergone swift changes, spurred by the pandemic, lead-ing to the rise of virtual learning, new semiconductor global initiatives, and the advent of Indus-try 5.0. As Stuchlikova [13] predicts, knowledge gained during a degree may become outdatedby the
scope to expose and engage student participants to robotics and other related effortswithin the broad scope of NASA’s Artemis mission objectives. The DREAM project was fundedby the NASA MSTAR program at the beginning of fall 2023 with the lead author as the principalinvestigator (PI). This paper will outline aspects of the AIRSPACES and DREAM project effortsundertaken during the summer and fall of 2023. A couple of high school students were veryinterested in participating in the AIRSPACES project efforts last summer but due to logisticsconstraints could not come to campus physically and participated in the project efforts remotely.2.0 Soft Gripper and Sphero RVRThe Robotics, Automation, and Manufacturing (RAM) laboratory has initiated soft
-of-the-artindustrial equipment for ExLENT participants.The MEP will provide the foundationalknowledge in five critical areas ofmechatronics: robotics, mechanical, electricaland controls, cybersecurity, and artificialintelligence. Project participants will beimmersed in a five-week, remote, self-paced Figure 1. Regional map of partnerships.training utilizing the MEP's advancededucational materials and tools. Upon completing the MEP training, the participants willparticipate in one-week practical training at Michigan Tech laboratories (Phase II), where theknowledge obtained via the MEP will be reinforced with hands-on activities in all five criticalareas of Mechatronics.Technology
preparation.2.1.1 Designing effective syllabiSyllabi serve as a contract between instructor and students. New faculty members should ensurethat their syllabi communicate course objectives, learning outcomes, grading criteria, and policiesin a transparent and accessible manner. Providing students with an alternative lecture schedulecan also show an outlining key date for assignments, exams, and other important milestones. Thisclarity enables students to plan their study schedule effectively, manage their time efficiently, andstay on track with coursework.2.1.2 Laboratory Design and real-world connectionDesigning laboratories with stronger connections to real-world examples and theoretical knowledgeinvolves several strategies, including selecting
themost viable one based on viability and usability criteria; this stage is described in a shorttechnical report with the delimitation of the problem and the study of the solution'sviability.Since the students are newcomers, a report model is provided along with the rubric (Table2) containing the evaluation criteria. The assessment here is purely formative, with no"grade" given, serving only to guide students in conducting and describing their work.It is also proposed that students be able to realize and demonstrate their ideas, so in thePrototyping stage, students used the institution's facilities (laboratories, FabLab, projectspaces) to model, assemble, and test prototypes.The results of this phase of the work were presented in the form of
Neuroimmunology Nurse Practitioner in the Multiple Sclerosis Center at UConn Health. She has been engaged in translational public health efforts throughout the COVID19 pandemic to improve outcomes for her immunosuppressed patients by reducing exposure to infectious and non-infectious air pollution in public schools and community spaces throughout the State of Connecticut. She founded and is the director of the UConn Indoor Air Quality Initiative, a cross-campus, multidisciplinary team of scientists and clinicians studying low-cost air purifiers in both laboratory and real-world settings. ©American Society for Engineering Education, 2024GIFTS: Project-Based Service-Learning for First-Year Engineering
laboratories into the course included additional preparatory lectures. An online surveyquestionnaire revealed a positive impact of CFD on students, with recommendations forcontinued integration. The study also demonstrated the effectiveness of CFD integration byproviding insights into the interface design, curriculum integration, and evaluation methods.An integrated curriculum was developed by Stern [12] by applying CFD and EFD. The objectiveof the integrated CFD labs was to incorporate an educational interface, while EFD labs focusedon modern facilities, measurement systems, and uncertainty analysis. The study highlightedhands-on experience and application of fluid dynamics principles, citing the efficacy ofinteractive tools in engineering education
virtual laboratories presents a host ofintricate challenges, underscoring the importance of meticulous attention and inventive problem-solving. These challenges encompass the precise recognition of gestures, real-time responsiveness,accommodation of a wide array of gestures, user-centric design, and smooth integration with 2024 ASEE Annual Conference and Exposition Portland, Oregon, USA, June 23-26, 2024 Ali, M. & Zhang, Z.virtual laboratory tasks. Addressing these multifaceted issues necessitates a comprehensive ap-proach that melds advanced Gesture Recognition technologies with user-centric design principles,all while possessing a
green channel correlation method for versatile identification.Miah Abdullah Sahriar1†, Mohd. Rakibul Hasan Abed1†, Ratchanok Somphonsane2, Houk Jang3,Chang-Yong Nam3, Saquib Ahmed5,6*1 Department of Materials and Metallurgical Engineering (MME), Bangladesh University ofEngineering and Technology (BUET), East Campus, Dhaka-1000, Bangladesh2 Department of Physics, School of Science, King Mongkut’s Institute of TechnologyLadkrabang, Bangkok 10520, Thailand3 Center for Functional Nanomaterials, Brookhaven National Laboratory, Upton, New York11973, USA5 Department of Mechanical Engineering Technology, SUNY – Buffalo State University, 1300Elmwood Avenue, Buffalo, NY 14222, USACenter for Integrated Studies in Nanoscience and Nanotechnology
this will also result in increased student engagement and motivation topursue their studies. Students in the follow-on course found it a useful way to introducemicrocontrollers and microcontroller programming. We plan to expand the programmingcomponent further and to explore ways to integrate it more with the follow-on courses.References[1] J. O. Campbell, J. R. Bourne, P. J. Mosterman, and A. J. Brodersen, “The Effectiveness ofLearning Simulations for Electronic Laboratories,” Journal of Engineering Education, vol. 91,no. 1, pp. 81–87, 2002, doi: 10.1002/j.2168-9830.2002.tb00675.x.[2] M. D. Koretsky, D. Amatore, C. Barnes, and S. Kimura, “Enhancement of Student Learningin Experimental Design Using a Virtual Laboratory,” IEEE Transactions on
metalforming, hand tool operations, manual assembly, and acquire familiarity with laboratory testingas a means of design validation. The semester-long project allows students to improve theirteamwork and communication skills.Thin-walled structures play a key role in the design of modern aircraft [8]. Components such aswings and fuselage are designed to reduce as much of the structural weight as possible, thus,making compression-induced instability and failure a major design criterion. Buckling refers to astructural instability caused by a sudden out-of-plane deflection when the applied load places allor part of a structural member’s cross-section under compression [9]. To prevent buckling, thethin skins of aerospace structures are supported or
, laboratory sessions, and grading may promoteengagement and improve the educational students' experiences, especially women.This study aims to determine whether using UTAs is an effective practice for underrepresentedstudents and to identify strategies that UTAs can employ to enhance active engagement. Thepaper presents institutional data showing the outcomes of students in the programming sequenceof the first three courses. This data includes a comparative analysis between classes with UTAsand those without UTAs. Institutional data supported our results of increased student retention inCS1 and progression to CS2 and CS3. We also discuss a qualitative research approach byobserving classroom dynamics from video recordings depicting student
put together tocontrol the flight of a real-time aerial robotic system – the Bebop quad rotorcraft manufacturedby the company Parrot. Students’ time in the laboratory is intentionally overlapped to increaseinteraction and foster community. In the second half of the year, students are divided into teamsto develop specific projects such as vision-based object detection and obstacle avoidance. Thefocus is to replicate in a controlled laboratory environment, real-world missions like flightsurveillance operations. Students schedule their laboratory times based on their team members’availability.While in the program, students also develop other skills such as 1) interpersonal abilities throughopportunities to engage with their fellow cohorts and
and Nashville,each home to major research medical centers and several bio-based firms operating in thepharmacological, healthcare, and non-healthcare-related segments. According to data publishedby industry groups in 2022, Tennessee’s bioscience industry has been on an upward trajectorysince 2018 [18]. Although the bioeconomy is not as well represented in the AppalachianHighlands, several medium-sized firms are located in the area. A key partner in our efforts isCrown Laboratories, a skincare-focused company, which recently launched a major product lineutilizing engineered bacteria as the essential component of the product. Although not typicallyplaced in the same category as other bioscience technologies, the fermentation, brewing
has included some laboratory courses, these experiments were run largely as equipment demonstrations and/or operations. The design of experiments (DOE) concept was absent and students were merely acting as operators. Thus, the older laboratory courses were retired and/or integrated as laboratory demos during tutorial classes of relevant core courses. New laboratory courses ought to be designed where students are trained to perform their own Design of Experiments (DOE). In one of the new laboratory courses proposed, students are required to prepare their own samples, identify the types of testing and characterisations required, plan their own experimental flow/sequence, choose appropriate machines/equipment for testing and
MATLAB 4 Controls Y PID controls, various sensors MATLAB 4 Sustainability N Motors, voltage sensors2. Arduinos in an Instrumentation Laboratory Course The first course to consistently rely heavily on the Arduino microprocessors was aninstrumentation laboratory course. Prior to 2020, the instrumentation class had used Labview tocomplete activities using different sensors provided by National Instruments. The courseconsisted of students completing lab activities each week evaluating the performance of onesensor, and then