encompasses a mixture of technical skills, reflective practice, interpersonalnetworks, and self-directed learning. [1] The formation of a professional identity is described asan ongoing process that encompasses both person and context, where an individual has agencyto self-determine sub-identities that compose their overall professional identity. [2] At BeAM,the professional identity of a PA or a PS is often defined by how they perceive their ability toembody professional roles and their interactions with other makerspace staff. For example, PAsmust be able to safely operate makerspace equipment, teach makerspace users, perform routinemaintenance, and provide support to other makerspace staff. As staff become more confident inthese roles, they
context for weaving professionalism throughout the curriculum, a general overview ofthe pedagogical changes is provided (see Figure 1 in the Introduction for a depiction of the newteaching and learning model). A detailed description of the curricular redesign is available in thecompanion paper, “Mastering the Core Competencies of Electrical Engineering throughKnowledge Integration.”7Still in the first year of the five-year project, the ECE department is preparing to launch phaseone of the pedagogical changes in fall 2016, and the cultural shift is already evident. Faculty areworking in multifaceted teams to break apart seven ECE courses in the technical core of thejunior year to create the first set of learning studio modules (LSMs). Each LSM is
obstacles such as immature programming libraries and limited vendorsupport. We will re-visit this issue as newer generations of SBC appear on the market.For now, the inclusion of a data acquisition device and hardware interfacing assignments in thefirst year electrical engineering sequence has shown positive benefits for our students andjustifies its continuing use in our curriculum. It is also a low-cost solution that can easily beadapted by other EE departments.Bibliography[1] J. Carter and T. Jenkins, “Gender and Programming: What’s Going on?,” in Proceedings of the 4th Annual SIGCSE/SIGCUE ITiCSE Conference on Innovation and Technology in Computer Science Education, New York, NY, USA, 1999, pp. 1–4.[2] M. A. Rubio, R. Romero-Zaliz, C
for Industry and Education Collaboration Copyright ©2019, American Society for Engineering Education Session ETD 465Why Teach Ethics?Using an EAC approach does not mean relying on guest speakers to provide ethical content.Rather, technical instructors act as facilitators to accomplish what Michael Davis has identifiedas primary goals: • Increased ethical sensitivity • Increased knowledge of relevant standards of conduct • Improved ethical judgment • Improved ethical will-power (that is, a greater ability to act ethically when one wants to)2For faculty, this means
between our research team and a local library, whichhosted the sessions in its well-equipped maker space. This partnership offered students access totools, materials, and resources that supported hands-on engineering exploration. The library’scommunity-focused environment also provided an inviting space where students couldcollaborate, share ideas, and engage in creative problem-solving. During each session, studentswere introduced to foundational engineering concepts through tasks that combined creativity,technical skills, and critical thinking. The activities included: ● Makey-Makey Piano: Students used Makey-Makey kits to create a piano using everyday objects like bananas or aluminum foil. This task introduced them to basic circuits and
paper present suggestions that will help prevent similar problems in future courseofferings.Communication and CollaborationIn general, students completed the labs individually in this course. However, they were allowedto collaborate with one another about concepts and approaches to the lab. During in-classobservations, it was apparent throughout the lab session duration that students werecommunicating frequently with each other and with the TA. We found that this was also trueduring the out-of-lab labs (Table 1). Just under half of the students completing each out-of-lablab worked with another student outside of class to complete the assignment. Of those, oneperson collaborated on less than 25% of the lab while the other four students did more
Innovation Wing. Given thatit is common for a new member to join multiple SIGs in their first year, having to invest repeatedtime and effort in learning the same subject matter across various SIGs results in unnecessaryduplication of learning and places undue strain on freshmen. There is a significant opportunity forthese training sessions to be streamlined and optimized through collaboration among the SIGs,thereby enhancing the talent acquisition process across the SIGs. Table 1. The student-initiated courses offered in 2021/22 with overlapping and redundency on training topics SIG Student-initiated courses Robotic team Design and manufacture of
Conference and has served as symposium and session chairs for many ASME International Design Engineering Technical Conferences. He is the general Conference Co-Chair for the 2016 ASME International Design Engineering Technical Conferences (IDETC/CIE). Dr. Purwar is also the department’s representative to the NY state-funded Strategic Partnership for In- dustrial Resurgence (SPIR) program. As the SPIR representative, he identifies and coordinates projects between the department and Long Island based industries. SPIR projects include joint proposals for fed- eral funding, manufacturing and quality assurance improvements, research and development, and testing and evaluation. He won a SUNY Research Foundation Technology
lecture time for interactive programming exercises andcollaborative problem-solving. Peer Learning Group (PLG) sessions also provide extra opportunities forpractice and peer-assisted learning.Preliminary feedback and assessment data suggest that this project-based approach significantly enhancesstudents’ understanding of mathematical and computational concepts and their ability to apply them inengineering contexts. By integrating MATLAB programming with real-world applications, the courseprepares students with both the theoretical foundation and practical expertise required for advancedcoursework and professional engineering challenges. 1. Introduction:The growing complexity of engineering problems requires students to master computational
the fall and spring semesters of the sophomore year, and acapstone project spanning the junior and senior academic years.The curriculum of our non-discipline specific engineering program, shown graphically in Figure 1,combines a campus-wide, liberal arts general educational core with courses in math, science,engineering design, engineering science, business, systems analysis, and sustainability [4,5]. Individualskills taught developmentally through the curriculum, beginning with the freshman year, are blendedwith engineering design theory and utilized in projects in the design sequence. During the engineeringdesign courses, students not only learn engineering design tools and methods but also learn aboutcreativity, sustainability, business
Century LeadersAbstractWe have created a three-year leadership curriculum for undergraduate students enrolled in theOpus College of Engineering at Marquette University - a medium-sized, private, urban,religiously affiliated university. The objectives of this people-focused, technical leadershipprogram are to: (1) develop engineers who are able to address 21st century global challenges;(2) prepare individuals to lead, not only through innovation and technical expertise, but alsothrough their ability to motivate, engage and guide people and organizations who represent thefull range of diversity across the human spectrum; and (3) educate and develop the leadershipand character of outstanding engineering students, who are able to lead technical teams
emphasizesengineering design, systems thinking, and sustainability3,4,5.The engineering program curriculum is represented graphically in Figure 1. This programintegrates a liberal arts general education core with courses in mathematics, engineering science,engineering design, business, systems analysis, and sustainability. Skill development, beginningin the freshman year, is blended with engineering design theory and engineering scienceconcepts throughout the program. A design curriculum, comprised of six courses, is includedthroughout years two through four of the program, providing students with opportunities to applyscience, management, and liberal arts education to a variety of complex, ill-defined problemsthat incorporate customer needs alongside
-adjacent fields.Course DescriptionVillanova University offers a special topics elective course in the chemical and biologicalengineering department: CHE 5332. In the Fall 2024 semester, this elective was used toimplement a new course in synthetic biology. Synthetic biology is the engineering of novelbiological systems that serve a function in society, and is a quickly growing industry that hasalready released impactful commercial products such as a cell therapy for leukemia and afertilizer alternative [1]. Indeed, synthetic biology offers novel solutions to some of the world’spressing problems, including climate change, next-generation medicines, and food production,and provides a more sustainable way of manufacturing chemicals without the need
comments.Table 1. Questions on the pre-module and post-module surveys. The students rated each question 0, 1, 2, 3, or 4, with 0 representing a low level and 4 representing a high level of knowledge/ability. 1. Please rate your current level of knowledge/ability regarding opportunity recognition and solutions in terms of value creation. 2. Please rate your current level of knowledge/ability regarding creating a preliminary model. 3. Please rate your current level of knowledge/ability regarding communicating solutions in terms of societal benefits. 4. Please rate your current level of knowledge/ability regarding examining technical feasibility, economic drivers, and societal and individual needs. 5. Please rate your
conversation is characterized by tentativeness, with the use of modal verbsshowing possibility and potential control, as well as speculative distribution of agency with thecommunity, problem context, and stakeholders (“they,” “it”) and the team’s beliefs about theirneeds, marked by modal verbs of obligation. The students consistently own their own ideasthrough the common use of the first-person singular pronoun, “I.”Team 2, by the time of this session, had identified neither a specific problem nor community.Thus, their requirements were more general than Team 1. They offered conceptual requirements,funding, and the look of the solution. They identified a potential way to fund a solution at thecommunity level as well as the community's desire not to
actively participate and prepare forclass through the videos and other materials?Generally, those in inverted classrooms indicated via surveys that they typically watched thevideos most or all of the time and generally watched the videos with full attention or almost fullattention with minor distractions.Answers could only be combined for Years 2 and 3 given that Math students responded todifferent questions regarding video viewing in Year 1 of the study (Engineering students did notanswer video viewing questions in Year 1). Over 90% of Math students indicated they engagedmainly in some, very little or no multitasking while watching videos in Year 1 of the study.Beginning in Year 2, both Engineering and Math students responded to the same
andproviding technical guidance;6 others may only be expected to occasionally meet with the groupto monitor and evaluate progress.7For context, then, this is a two-semester capstone in the senior year for all students in the college.Most teams have 4-5 students, though one or two large projects may have up to 8 students.Some projects will contain students from more than one discipline (roughly 1/3 this year).Projects come from a variety of sources: 25-50% from external sponsors, with the remainderfrom external design challenges or competitions, student ideas, faculty projects, or other entitieson campus. Each team works on a unique project.Advising one or two capstone projects is a standard expectation of all faculty in the college. Anadvisor’s chief
. Ladabouche, S. LaFountain, “GenCyber: Inspiring the Next Generation of Cyber Stars,”IEEE Security and Privacy, vol. 14, no. 5, 2016, pp.84-86. https://doi.org/10.1109/MSP.2016.107[9] Github link with notebooks. Removed to retain anonymity.[10] R. L. Rivest, A. Shamir, L. M. Adleman, “Cryptographic communications system andmethod”. U.S. Patent #4405829.[11] P. LePendu, C. Cheung, M. Salloum, P. Sheffler, P. and K. Downey. “Summer coding campas a gateway to STEM”. In Proceedings of the 51st ACM Technical Symposium on ComputerScience Education (SIGCSE ’20), March 11-14, 2020, Portland, OR, USA. ACM, New York,NY, USA, 1 page. DOI: https://doi.org/10.1145/3328778/8.337263[12] A. Bicer, Y. Lee, R. M.Capraro, M. M. Capraro, L. R. Barroso, D. Bevan, and K
useful information about the potentiallearning benefits and procedures for integrating XR technology into a junior MechanicalEngineering design course.Methodology:1. Course Description:ME386W explores engineering design methods, including project planning and management,effective multi-disciplinary team skills, professional and effective technical writing, oralcommunication skills, professional ethics, and extended. At the beginning of the semester,students decide on a project that is interesting for them and build their team. A major focus of thecourse is to translate core engineering knowledge from other courses to design and to learn andapply principles of effective technical writing to produce clear, concise, well-organized, well-written
people and professionals. She particularly enjoys intertwining engineering technical practices and social implications to prepare students to become socially responsible engineers. She seeks to reimagine who can be an engineer, what engineering is, and the impact engineering has on society for a more equitable world.Dr. Tomas Estrada, Elizabethtown College Dr. Tomas Estrada is an Associate Professor in the Department of Engineering and Physics at Elizabethtown College. ©American Society for Engineering Education, 2025 Infusion of Design Justice Principles into an Undergraduate Capstone Project Course SequenceIntroductionThis paper presents the inclusion of Design
technical and scientific knowledge. Specific attention tothese complementary and supporting aspects of the research program is what assures that allmembers succeed within an advanced laboratory environment and are provided with theadditional tools and information necessary for college and career success.Keywords: STEM, Informal Science, High School Research, Self-EfficacyIntroduction Student persistence in college, especially in STEM fields is attributed to a number offactors including but not limited to academic readiness, their level of engagement in theinstitutional culture, self-efficacy, financial preparedness in addition to other supporting factors.(1) Many universities have moved to integrate a number of initiatives to support the
-29, 2011.18. Talikka, M., Soukka, R., Eskelinen, H. (2018). Effects of brief integrated information literacy education sessions on undergraduate engineering students’ interdisciplinary research. New Review of Academic Librarianship 24(1), 48-62.19. Van Epps, A. Nelson, M. S. (2013). One-shot or embedded? Assessing different delivery timing for information resources relevant to assignments. Evidence Based Library and Information Practice 8(1), 5-1820. Quigley, B.D., McKenzie, J. (2003). Connecting engineering students with the library: A case study in active learning. Issues in Science and Technology Librarianship 37(Spring 2003), unpaged.21. Nerz, H.F., Weiner, S.T. (2001). Information competencies: A strategic approach
pertaining to integration and cultivation of intercultural competence. Her expertise extends to facilitating workshops and training sessions, catering to the needs of both staff and students within Purdue University.Dr. Sakhi Aggrawal, Purdue University at West Lafayette (PPI) Dr. Sakhi Aggrawal is a lecturer and research scientist in Purdue University’s Department of Computer and Information Technology. Her work explores how project-management frameworks, teamwork dynamics, intercultural competencies and AI tools can enhance STEM and engineering education. She also serves as a technical program manager at Google—industry experience that underpins her research on data-driven project management and agile methodologies. She
Load gels11:45 – 12:45 LUNCH12:45 – 1:30 Bone Calcification Testing 1:30 – 2:00 Stem cell extraction game View gel results 2:00 – 3:15 Prosthetics & You (cont’d) 3:15 – 4:30 Young Scholars Presentations & Counselor Focus Group McNair/IRCFriday (August 2nd) 8:30 – 9:15 Post Assessment (Courtney Lambeth) General Wrap-up (gel results) Final company scores and presentations9:15 – 10:45 Mentoring Session - Round 2 (Professor & Grad Student View)10:45 – 1:00 Summer Program Closing Ceremony (boxed lunch to follow) McNair Hall Page 26.415.15 Page
study the researchers developed a web-based assessmentinterface consisting of 1) an overview video displaying all project images for raters toview prior to the rating session; 2) a website built for the display of project images anddocumentation; and 3) a web-based version of the consensual assessment instrument,accessed by raters via iPad while viewing the project website on desktop computers.Creativity RatersFollowing an online solicitation for recommendations and volunteers, the authorsselected nine raters who were familiar with the engineering design process andexperienced in teaching high school aged students. To secure “expert” raters for thisstudy researchers developed an online solicitation explicitly stating in the criteria thatraters
-college programs on students [10]. Al-though pre-college programs can introduce new technical topics, the key benefits for students whoparticipate in such programs include building confidence [19], acquiring general know-how, gain-ing clearer perceptions of college [11], and understanding the educational landscape [8]. A relatedarea of research is college readiness [17]. In recent years, there has been an increase in high schoolstudents advancing their technical knowledge in computer programming, calculus, and other sub-jects to prepare for engineering majors [20]. However, these opportunities are not easily accessibleto all [13, 14] and the percentage of students who enroll in remedial coursework in college remainshigh [5]. Therefore, we aim to
-stakes meeting may have reducedsocial loafing and contributed overall to students’ verbal participation.I. IntroductionIn the workplace and the academy, professional engineers, researchers, and students typicallyfunction in teams. Even if individual team members have diverse technical backgrounds andexpertise, the effectiveness of their work together depends on more than engineering ‘chops’. Inorder to negotiate, plan, motivate, and integrate tasks at the team and even department level,engineers must practice and become skilled at interpersonal tasks like “communication,collaboration, networking, feedback provision and reception, teamwork, lifelong learning, andcultural understanding”1. As a collective rather than individual endeavor, the
varying degrees of difficulty; each module spanned four in-person sessions, ex- 4cept for Module 1, which only spanned two. All students completed labs in dyads. Students chosetheir own partners. Dyads were generally stable for the duration of the quarter, barring outstandingcircumstances.Course Statement on Chatbots: To provide students with additional structure in their chatbot usage,we provided a brief statement on allowed, disallowed, and recommended usage patterns at thebeginning of the course. In addition, during the preparation phase of the assessment tasks, teachingassistants instructed intervention group students to use chatbots as exploratory tools to gain quickfamiliarity with topic
ScienceAttitude Survey reported in [15]. The survey is composed of 35 Likert questions in 3 main groups:(1) what is Computer Science, (2) relevance of the content, and (3) integration in the field.Demographic information was also acquired to draw general conclusions. Since it is typical to havemany sessions of the same introductory classes, results can be drawn about the effect of thosemodules by comparing the perceptions to the students received the modules versus those who didnot. 5b- Studying the Impact of the Modules: Pilot Data The course entitled, “CS1428” is the first introductory class for CS majors and thus is a course that serves hundreds of students per semester. It is one of the target classes for interventions. In fall 2015, there were about
needed to learn the names of their classmates. A student-led club was formed to further build community. The student club was formed as a means to include non-traditional students and others who live off-campus and create engagement opportunities with the campus-resident students.This club was formed and run by the peer mentors with faculty acting in a primarily advisory role. This club providededucational opportunities such as exam reviews, homework assistance, and study skill training sessions, fun activities such asgame nights, and introductory technical projects and activities targeted at energizing student interest in the major as well asdemonstrating applications of the course material. One example club activity was a “brown bag