Paper ID #38803Preliminary Reflections and Assessment of the 2022 Chemical EngineeringSummer SchoolDr. Margot A. Vigeant, Bucknell University Margot Vigeant is a professor of chemical engineering at Bucknell University. She earned her B.S. in chemical engineering from Cornell University, and her M.S. and Ph.D., also in chemical engineering, from the University of Virginia. Her primary researcDr. Daniel Anastasio, Rose-Hulman Institute of Technology Daniel Anastasio is an associate professor at Rose-Hulman Institute of Technology. He received a B.S. and Ph.D. in Chemical Engineering from the University of Connecticut in 2009
were offered entirely face-to-face. The enrollment in each course (not counting those auditing) is provided in Table 1.Table 1: Courses Applying the Methods of this Paper Course Semester Enrollment Introduction to Chemical Spring 2021 113 Engineering Spring 2022 88 Spring 2023 85 Chemical Engineering Spring 2021 73 Statistics Spring 2022 93 Spring 2023 81 Fluid Mechanics Spring 2022 84Particularly
used to teach key chemistryconcepts to undergraduate students in the chemistry discipline at an Historically Black University (HBCU).To assess whether ECP achieves a lasting increase in undergraduate student curiosity and engagement in thechemistry discipline, ECP was implemented from Fall 2021 to Fall 2022 using an inexpensive, safe, andportable electronic instrumentation system usable in both classrooms and laboratories. The MotivatedStrategies for Learning Questionnaire developed by Pintrich, Smith, García, and McKeachie in 1991 was usedto measure the key constructs associated with students’ curiosity and engagement. The classroom observationprotocol (COPUS) was used to assess instructors’ effectiveness, and signature assignments were used
development mentors [7]. The program was modeled aftera similar program in the Industrial Engineering Department at the U of A [8] and other successfulmentoring programs found in industry. The program was augmented in 2022 to include thementoring of Ph.D. students [9] and the program is currently in its third year.The alumni mentoring program was found to be very successful in helping students learn aboutcareer options for today’s chemical engineers, the mechanics of the interview process forinternships and full-time jobs, and the on-the-job expectations of a successful engineer [7, 9].Undergraduates participating in the program received valuable resume feedback and tips inpreparing for the university’s Career Fair. They also learned about the
educationalresources that may not have been covered in their training or may not be used in their researchareas. The authors developed a workshop to teach chemical engineering faculty to use anddevelop interactive coding templates (MATLAB Live Scripts and Jupyter Notebooks) and toequip faculty to incorporate these techniques across the undergraduate curriculum. The workshopwas presented at the 2022 ASEE/AIChE Summer School for Engineering Faculty. The purposeof this paper is to disseminate the workshop resources, providing educators with a suite ofinteractive templates focused on chemical engineering-related case studies and with training tocreate and adapt their own related materials. The paper details the interactive coding templatesprovided during the
data manipulation to get such datasets into compatible formats, and the wide range ofdesign space for interesting-yet-straightforward research questions, the conception of hypothesesabout the connection between air pollution and population groups is a feasible and culturallyrelevant project for undergraduate students exploring atmospheric data.Approach / MethodsCourseThe project presented in this work took place in a four-credit-hour, junior-level chemicalengineering elective in the Spring 2022 semester, Atmospheric Engineering and Science. Whilefamiliarity with material and energy balances, transport phenomena, and chemical kinetics areuseful for deeper discussion regarding the underpinnings of atmospheric phenomena, relevantequations and
learning via electronic response (TopHat), learningcommunity discussion, and in class problem solving. Table 1 shows the various courses thatwere evaluated. One of the Material Balance courses over this time-period was offered as atraditional lecture-based course with some active learning components but did not use learningcommunities. Assessment of it was included in the Fall 2022 Fluid Mechanics course survey.Table 1: Course offerings over Learning Community Study Period Term Course Mode How Learning Delivery % Class Communities Response Size are assigned Fall Fluids Mixed Friend request Lecture
necessarily implementedduring the pandemic have impacted students’ perceived ability to complete capstone project taskswithout face-to-face interactions with teammates, further diminishing the value they place in in-person classroom attendance in capstone chemical engineering courses.2. Methods and Data2.1. Research QuestionsThe goal of this research is to understand the perceptions of senior undergraduate chemicalengineering students on factors influencing their classroom attendance and engagement with thecourse. The approach of this study is guided by the following research questions: 1. What factors do students feel contributed to themselves or others deciding not to attend classes in person in the Fall 2022 semester? 2. How do students
University in 2022. Her areas of expertise include computational modeling of cell-based therapies and integrating social justice concepts into engineering curriculum.Willa BrenneisJonathan M. ChanJoie GreenRuihan LiMeagan OlsenSapna L. RameshCarolyn E. RamirezDhanvi Ram VemulapalliDr. Jennifer Cole, Northwestern University Jennifer Cole is the Assistant Chair in Chemical and Biological Engineering in the Robert R. McCormick School of Engineering and Applied Science at Northwestern University and the Associate Director of the Northwestern Center for Engineering Education Research. ©American Society for Engineering Education, 2023 Designing and implementing a workshop on the intersection between social
wellness course housed in the chemical engineering department at theUniversity of California Davis (UC Davis). By offering a course where participants allocate timewith their engineering peers and faculty to discuss and practice self-care activities, we aimed thatparticipants would experience a decrease in their stress level and gain training in how to care abouttheir overall wellness. The objective of this work is to describe the development, structure, andactivities of the new engineering wellness course at UC Davis, which was piloted during the 2022-2023 academic year. The main goal of the class was to guide students to develop and practice goodself-care habits. Each class/activity focused on a self-care domain (cognitive, emotional
. Five cohorts were taught in an in-personmodality (2016-2019, 2022). The 2020 cohort received about half of a semester in person andhalf as a synchronous online course. The 2021 cohort was taught online synchronously. Theenrollments include only those students completing the course, i.e., not withdrawing during thesemester (Table 1). The fraction of female and male students is also provided. These datarepresent gender at birth. Applying a lens of other gender-related terms [37] is possible but isoutside the scope of the current study and may be considered a limitation.The learning analytics described in the results leverage several data types related to theinteractive textbook (Table 1). First, reading participation quantifies the clicks when
the application in collaboration with health. 2021 12 3.75 e) Strength: Lab report format was clear and did not waste time on formatting and other clerical issues – lab material went perfectly with lecture allowing students to learn in a different format. f) Weakness: I wanted more real-time lab experiments and less combination working in lab and thinking of lab outside of the laboratory. 2022 8 4.00 g) Strength: Instructor knows how to thoroughly explain content, connection between concepts, and application to real world including health. 2023 17 3.75 h) Strength
teach grades 3-8 across a range of subjects (Science, Math, English) andwork at schools with large Native American populations, located on or near tribal communitiesin North Dakota. Cohort 1, consisting of 8 teachers from 3 school districts, began in the summerof 2021 with a three-day virtual PD session in June and a two-day in-person session in August.This was followed by an additional three PD days during the 2021-2022 academic year to helpteachers further develop and implement three culturally relevant engineering design tasks withintheir classrooms. Summer 2022 brought in an additional 7 teachers to form Cohort 2 and all PDoccurred in person. Within the 2022-2023 PD, teachers from Cohort 1 mentored Cohort 2participants during both the
first-year engineering students [36].MethodsTo understand the impacts of the intervention on self-efficacy and engineering identity,contemporary industry-relevant problems were designed and introduced to the targeted course.Instruments for assessing self-efficacy and engineering identity were developed and employed.Each of these is further explained below:Contemporary Industry Problems DesignThe project team worked with six industry professionals designing a diverse topic of problems.Problems were selected from global issues such as plastic recycling, renewable energy, carbonrecycling. Mentors gain and challenges were published in a previous ASEE paper [37]. Inaddition, videos and details of the problems were also published at 2022 ASEE
intentionally broad;chemical engineers work in a variety of industries and therefore learn in the context ofequipment rather than product. We believe that student work has typically been limited by lackof understanding of the potential applications of various unit operations to specific and importantprocesses. To address this, we wanted to include a contextual problem in the course that wasmeaningful to the students and had a specific technical solution it was investigating. We alsowanted to add design and prototype training to the curriculum and to add inquiry-basedinstruction to one of the rotating experiments.Curricular ChangesThe primary curricular change in the fall of 2022 was a redesign of the traditional flooding pointexperiment to an inquiry
fluidsthrough a mini fluidic device bearing pipes of different diameters and configurations. 2. BACKGROUND 2.1 Engineering and STEM OutreachAs a consequence of the decreased undergraduate enrollment, the downward trend in ChEgraduations has been forecasted to reach a very low point in the United States within the nextfour years[1]. This trend has also been observed outside the United States; Spain experienced anapproximately 5% decrease in undergraduate ChE enrollment between 2018 and 2022 as a resultof demographic factors and changes in economic conditions[6]. Since these trends arewidespread, it is imperative that institutions strengthen outreach efforts to advertise theprofession among K-12 students better while retaining college students
instructors as we all transitioned a lab course fromtraditional in-person instruction to a virtual experience. The coaches helped to generate mockdata, to replace the in-person data the students would normally get, and uploaded the data to acloud storage device. This was put in place so it was like the students had generated the datathemselves and could proceed with analysis and interpretation. The coaches also served assupport staff during the virtual oral presentations on Zoom in case issues arose with the primaryand secondary instructors. The 2021-2022 academic year found Louisiana State Universityswitching to a hybrid format with limited staffing. This meant that two out of three lab memberswere allowed to be in the lab working on the equipment
; nonetheless, it is important to note that previous versions ofthe course and survey did not target our current teamwork objectives, as a consequence, anycomparisons will be at the qualitative level.Current Status and Future Work.The current laboratory course format (i.e., with or without teamwork training) was firstimplemented in Spring 2021. We have utilized the same format of the class, a similar studentpopulation, and the same instructor teaching the course every semester starting in Spring 2021.The laboratory course version that includes our teamwork training method was first implementedin the course in the current academic year (2022 – 2023).Survey data from previous iterations of the course (i.e. before Fall 2022) has capturedinformative
student groups, but the impact of individual students'characteristics and educational development on teamwork skills has also attracted the attention ofresearchers. De Prada et al. (2022) endeavoured to address this point by investigating the teamworkskills among college students and their correlation with socio-academic variables such as gender,academic year, and grade point average (GPA), thereby fostering equity and fairness in highereducation classrooms. Another recent study suggested that deficits in Chinese international students'intercultural communicative competence (ICC) may impact their self-perceptions and compromisetheir ability to engage effectively with peers (Lin & Zhang, 2021). The result may imply the possibleinfluence of
the very beginning of their education. It could also help thestudents to navigate through the challenges of the program as chemical engineering has thereputation of being a hard major. We implemented growth mindset intervention strategies in theMass and Energy Balances (MEB) course, which is offered twice in an academic year in theChemical and Biomolecular Engineering department at Johns Hopkins University. The controlgroup consisted of students from the Fall semester and the intervention group included studentsfrom the Spring semester. We previously reported our preliminary observations from the controlgroup in Fall 2022 [2]. In this paper, we revisited the interventions and the study methods as wellas focused on the comparison of the
. The class size was 33 with 14students responding to the survey.Figure 1: These comics12,13, 16, 17 were written and drawn by various student artists and edited by a chemical engineering professor. They were also disseminated at the 2022 and 2023 AIChE STEM Showcase and utilized for the Doing a World of Good Campaign.AssessmentThe survey was sent in two different parts– the first regarding the students’ learning preferencesbased on the North Carolina State Felder-Solomon11 “Index of Learning Styles Learning StylesQuestionnaire.” These questions gauged what preferences students had on a numerical style from1-9, with the categories being visual versus verbal, sequential versus global, active versusreflective, and intuitive versus
industrial processes.Dr. Robert P. Hesketh, Rowan University Robert Hesketh is a Professor of Chemical Engineering at Rowan University. He received his B.S. in 1982 from the University of Illinois and his Ph.D. from the University of Delaware in 1987. After his Ph.D. he conducted research at the University of CamDr. Kirti M. Yenkie, Rowan University Dr. Kirti M. Yenkie is an Assistant Professor of Chemical Engineering at Rowan University with 12+ years of experience working in the Process Systems Engineering (PSE) area with applications focusing on Sustainability and Environmental Resource Management. She is the winner of the 2023 AIChE Delaware Valley Section Outstanding Faculty Award, and 2022 AIChE Environmental
One and Level Two SAChE modules to meet the standard reflecting satisfactoryacquisition and application of new knowledge. (The students did not record their actual grade onthese exams, only whether or not they passed it as evidenced by their time stamped SAChEcertificates for the modules). In the summer of 2022, the grades for the 16 students ranged from50-100% completion, averaging 93%, with 3 students failing at attain the standard of 90%. Inthe spring of 2023, the grades for the 48 students ranged from 30-100% completion, averaging97%. On the midterm exam there were three questions for each of five SAChE modules, totaling15 of the 100 questions on the midterm. In the summer of 2022, the mid-term subgrade (forthose 15 safety questions) for
, and providing valuable mentoring experiences and advises, c) To provide useful information in tracking the progress of the education and professional training provided by department from the perspective of alumni.The project was attached to ABET Criterion 3 Student outcome 3 “Ability to communicateeffectively with a range of audience”, adding to students’ communication with non-technicalaudiences (outreach project) and industrial collaborators (technical project).The project has been executed with the courses taught in the spring 2021, spring 2022, andsummer 2023. A special edition was run in the summer 2022 with the junior course on “ProcessReactive Engineering” as it will be explained below. It is also in progress in the spring
Chem- ical Engineering and Ph.D. in Engineering and Science Education. Her research earned her a National Science Foundation CAREER Award focused on characterizing latent diversity, which includes diverse attitudes, mindsets, and approaches to learning to understand engineering students’ identity development. She has won several awards for her research including the 2021 Journal of Civil Engineering Education Best Technical Paper, the 2021 Chemical Engineering Education William H. Corcoran Award, and the 2022 American Educational Research Association Education in the Professions (Division I) 2021-2022 Outstanding Research Publication Award.Dr. Vanessa Svihla, University of Texas, Austin Dr. Vanessa Svihla is a
provide resources valuable to the students’ transition tocompleting a STEM degree in addition to the lab skills learned during the research experience.Community was emphasized during this period by connecting the programs whenever possible,including connecting the 2023 CCLSRM students to the 2022 CCLSRM students and connectingthe 2023 HSLRM students to as many of the CCLSRM students as possible. The HS studentsattended weekly research meetings when possible, including the final presentation session at theend of the summer program. Professional development activities were organized for both groupsafter the academic year resumed in the fall, providing workshops, speakers and trips relating tocompleting a STEM degree and STEM career awareness. MAST
quizzes forreading assignments. The quizzes were due right before the lecture. This can help me to cover thetarget contents and motivate students to come to my classroom prepared, so that I can focus on thekey contents that most students were struggling with. (4) I left one session for in-class activityafter each chapter. I started with well defined questions and then gradually moved toward lessdefined questions toward the end of the semester. (5) I adjusted the pace of PSS by combiningsmall group discussions and large group announcements. By making all these adjustments, I wasable to conduct PSS in 75-minute sessions without rushing my students. I was able to promoteactive participation of my students from 40% (Fall 2021) to 90% (Fall 2022) and
engineering. She then transitioned into the engineering education fieElaine C Wisniewski, University of Michigan Elaine Wisniewski teaches technical communication courses in the Chemical Engineering and Industrial and Operations Engineering (IOE) departments. She has degrees in IOE and Technical Communication from the University of Michigan and Eastern Michigan UnivXiaoxia Nina Lin, University of Michigan ©American Society for Engineering Education, 2024 Work in Progress: Implementation of a Curricular Development Project for Experiential Learning in a Senior Capstone Product Design CourseIntroductionIn 2022, the National Academies of Sciences, Engineering, and
lecture” inthe effort to bring up the assessment scores in SOs 1 and 2. Based on these trends to date, thedepartment faculty have decided to include more active learning techniques in their courses in anattempt to raise the SO 1 and 2 scores. The first two-year cycle of assessment will be completedat the end of spring 2023, and at that time, curriculum or program modifications may beidentified as part of the continuous improvement cycle. The process depicted in Figure 1 hasalso been used more recently to instigate curriculum changes indicated by prior ABET programactivity. In fall 2022, the department faculty decided to add a chemical process safety class, aswell as a statistics class, to the required chemical engineering curriculum. These
of Kentucky, Lexington, KentuckyABSTRACTThe chemical engineering field is constantly evolving to encompass new ideas such as geneticengineering and synthetic biology, green chemistry and sustainable materials, and engineeringeducation. This evolution has been seen throughout the undergraduate curriculum with thedevelopment of new courses or certificate programs, as reported in the literature. The progressreported in the undergraduate programs has influenced us to investigate if there are any similarshifts in graduate program curricula. In this work, we studied the 2021-2022 chemicalengineering Ph.D. curriculum at 100 US universities to gain insights into the courses thatstudents take, as well as other degree requirements to obtain a terminal