Kasi Kiehlbaugh
- Director, Health Sciences Design
- Associate Professor of Practice
- Member of the Graduate Faculty
Biography
Dr. Kasi Kiehlbaugh teaches and conducts undergraduate educational research for the College of Engineering. She is primarily interested in incorporating research-based pedagogical techniques into the undergraduate engineering classroom, and she focuses on employing active learning techniques and utilizing collaborative learning space classrooms. More specifically, her teaching emphasizes and exploits the advantages of co-teaching, evolving classroom technologies, active learning in the classroom, and various classroom-based affective interventions targeted at fostering self-efficacy, belongingness, metacognitive learning strategies, and growth mindset. These strategies are particularly effective during the freshman and sophomore years and have been shown to have a positive impact on student retention and success. Her field of research is undergraduate engineering education. Dr. Kiehlbaugh completed her BS and MS at the University of Arizona and her PhD at UC Berkeley.
Degrees
- Ph.D. Chemical Engineering
- University of California, Berkeley, Berkeley, California, United States
- Halogen-Based Plasma Etching of Novel Field-Effect Transistor Gate Materials
- M.S. Chemical Engineering
- University of Arizona, Tucson, Arizona, United States
- Applications of Surface Chemistry to Semiconductor Thin Film Etching and Deposition
- B.S. Chemical Engineering
- University of Arizona, Tucson, Arizona, United States
Work Experience
- University of Arizona, Tucson, Arizona (2019 - Ongoing)
- University of Arizona College of Engineering (2018 - 2019)
- University of Arizona Chemical Engineering Department (2015 - 2018)
- University of Arizona College of Engineering (2011 - 2015)
- American Journal Experts (2009 - 2015)
- Texas Instruments, Inc. (2005)
- IBM Corporation (2001)
- U of A Center for Environmentally Benign Semiconductor Manufacturing (1999)
- Intel Corporation (1998)
- Intel Corporation (1997)
- U of A Center for Microcontamination Control (1996 - 1997)
- Intel Corporation (1996)
- U of A Chemical Engineering Department (1995 - 1996)
Awards
- HSI Fellow
- UA Office of the Provost, Spring 2019
- Honors Professor
- UA Honors College, Fall 2018
- UA Honors College, Fall 2017
- Undergraduate STEM Education Teaching Excellence Award
- University of Arizona, Spring 2017
Interests
Research
self-efficacy,belongingness,metacognitive learning strategies,growth mindset,affective classroom-based interventionsfaculty adoption of evidence-based teachin practices
Teaching
active learning,flipped classrooms,self-efficacy,co-teaching,the use of technology (clickers, D2L, software)
Courses
2025-26 Courses
-
Design for Health Workshop
HSD 401 (Spring 2026) -
Directed Research
HSD 492 (Spring 2026) -
Directed Research
MSE 492 (Spring 2026) -
Design for Health Capstone
HSD 598 (Fall 2025) -
Design for Health Workshop
HSD 401 (Fall 2025) -
Design for Health Workshop
HSD 501 (Fall 2025) -
Directed Research
MSE 492 (Fall 2025) -
Honors Directed Research
HSD 492H (Fall 2025)
2024-25 Courses
-
Design for Health Capstone
HSD 598 (Summer I 2025) -
Design for Health Workshop
HSD 401 (Spring 2025) -
Design for Health Workshop
HSD 501 (Spring 2025) -
Honors Directed Research
HSD 492H (Spring 2025) -
Special Topics in Science
HNRS 195I (Spring 2025) -
Design for Health Workshop
HSD 401 (Fall 2024)
2023-24 Courses
-
Design for Health Workshop
HSD 401 (Spring 2024) -
Design for Health Workshop
HSD 501 (Spring 2024) -
Special Topics in Science
HNRS 195I (Spring 2024) -
Design for Health Workshop
HSD 401 (Fall 2023) -
Design for Health Workshop
HSD 501 (Fall 2023) -
Research
HSD 900 (Fall 2023)
2022-23 Courses
-
Research
HSD 900 (Summer I 2023) -
Design for Health Workshop
HSD 597 (Spring 2023) -
Research
HSD 900 (Spring 2023) -
Special Topics in Science
HNRS 195I (Spring 2023) -
Design for Health Workshop
HSD 597 (Fall 2022) -
Independent Study
HPS 499 (Fall 2022) -
Research
HSD 900 (Fall 2022)
2021-22 Courses
-
Research
HSD 900 (Spring 2022) -
Research
HPS 900 (Fall 2021)
2020-21 Courses
-
Design for Health Workshop
HSD 597 (Spring 2021)
2018-19 Courses
-
Grand Challenges: Engineering
ENGR 196C (Spring 2019) -
Intro Engr Design
ENGR 102B (Spring 2019) -
Special Topics in Science
HNRS 195I (Spring 2019) -
Intro Engr Design
ENGR 102B (Fall 2018)
2017-18 Courses
-
Chem Engineering Lab II
CHEE 301B (Spring 2018) -
Elements of Chemical Eng
CHEE 202 (Spring 2018) -
Special Topics in Science
HNRS 195I (Spring 2018) -
Water and Energy Systems
CHEE 204 (Spring 2018) -
Chem Engineering Lab I
CHEE 301A (Fall 2017) -
Intro Engr Design
ENGR 102B (Fall 2017)
2016-17 Courses
-
Chem Engineering Lab II
CHEE 301B (Spring 2017) -
Elements of Chemical Eng
CHEE 202 (Spring 2017) -
Water and Energy Systems
CHEE 204 (Spring 2017) -
Chem Engineering Lab I
CHEE 301A (Fall 2016) -
Intro Engr Design
ENGR 102B (Fall 2016)
2015-16 Courses
-
Chem Engineering Lab II
CHEE 301B (Spring 2016) -
Elements of Chemical Eng
CHEE 202 (Spring 2016)
Scholarly Contributions
Journals/Publications
- Acedo, M., Cena, J. R., Kiehlbaugh, K. M., & Ogden, K. L. (2020). Coupling Carbon Capture from a Power Plant with Semi-automated Open Raceway Ponds for Microalgae Cultivation.. Journal of visualized experiments : JoVE, 2020(162), 1-21. doi:10.3791/61498More infoIn the United States, 35% of the total carbon dioxide (CO2) emissions come from the electrical power industry, of which 30% represent natural gas electricity generation. Microalgae can biofix CO2 10 to 15 times faster than plants and convert algal biomass to products of interest, such as biofuels. Thus, this study presents a protocol that demonstrates the potential synergies of microalgae cultivation with a natural gas power plant situated in the southwestern United States in a hot semi-arid climate. State-of-the-art technologies are used to enhance carbon capture and utilization via the green algal species Chlorella sorokiniana, which can be further processed into biofuel. We describe a protocol involving a semi-automated open raceway pond and discuss the results of its performance when it was tested at the Tucson Electric Power plant, in Tucson, Arizona. Flue gas was used as the main carbon source to control pH, and Chlorella sorokiniana was cultivated. An optimized medium was used to grow the algae. The amount of CO2 added to the system as a function of time was closely monitored. Additionally, other physicochemical factors affecting algal growth rate, biomass productivity, and carbon fixation were monitored, including optical density, dissolved oxygen (DO), electroconductivity (EC), and air and pond temperatures. The results indicate that a microalgae yield of up to 0.385 g/L ash-free dry weight is attainable, with a lipid content of 24%. Leveraging synergistic opportunities between CO2 emitters and algal farmers can provide the resources required to increase carbon capture while supporting the sustainable production of algal biofuels and bioproducts.
- Blowers, P., Hempel, B., & Kiehlbaugh, K. (2020). Scalable and Practical Teaching Practices Faculty Can Deploy to Increase Retention: A Faculty Cookbook for Increasing Student Success. Education for Chemical Engineers, 33, 45-65. doi:10.1016/j.ece.2020.07.004More infoAbstract Student retention in college is often expected to be handled by advisers, staff, and administrators. The university classroom—specifically, the pedagogies and practices that are utilized there—is a largely untapped resource in our quest to increase student success and retention. Instructional faculty are the only members of an academic institution that students are required to interact with regularly. For most courses offered in higher education, the contact time between faculty and students is typically three hours per week; faculty can have a significant impact on student outcomes in that time. This paper reviews and discusses scalable and practical teaching practices that span the domains of growth mindset, self-efficacy, metacognition, and belongingness. These teaching practices helped increase student retention by more than 30% in an entry-level core engineering course at our institution. The techniques described in this work can be deployed either simultaneously or in discrete sets to help students remain engaged in the educational process and successfully graduate. Because teaching is a universal practice, the teaching practices can be deployed in nearly every discipline and at every academic level. Most of the practices are independent of which instructional modes are being used, e.g., active learning vs lecturing, large vs small classes, or online vs in-person delivery. The specific implementation and effectiveness of the teaching practices may differ in each of those contexts, particularly with academic age of students, but improvements in student success and retention can be expected if the framework described here is used. We strongly recommend that a reflective process be deployed throughout implementation of the different teaching practices. This will allow for personal and professional growth in the instructor as they deploy the techniques while also improving the efficacy of the techniques themselves over time as they are refined for the local teaching environment.
- Gonzalez-Cena, J. R., Kiehlbaugh, K. M., Acedo, M., & Ogden, K. L. (2020). Coupling carbon capture for a power plant with semi-automated open raceway ponds for microalgae cultivation. JoVE Journal - Environment. doi:10.3791/61498
- Hempel, B. R., Kiehlbaugh, K. M., & Blowers, P. (2019).
Scalable and Practical Teaching Practices Faculty Can Deploy to Increase Retention: A Faculty Cookbook for Increasing Student Success
. Education for Chemical Engineers. - Kiehlbaugh, K. M., Blowers, P., & Hempel, B. R. (2020). Scalable and Practical Teaching Practices Faculty Can Deploy to Increase Retention: A Faculty Cookbook for Increasing Student Success. Education for Chemical Engineers, 33, 45-65. doi:https://doi.org/10.1016/j.ece.2020.07.004
- Kiehlbaugh, K. M., Hempel, B. R., & Blowers, P. (2020). Scalable and Practical Teaching Practices Faculty Can Deploy to Increase Retention: A Faculty Cookbook for Increasing Student Success. Education for Chemical Engineers, 33, 45-65.
- Hempel, B., Kiehlbaugh, K. M., & Blowers, P. (2019).
Student Evaluation of Teaching in an Engineering Class and Comparison of Results Based on Instructor Gender
. Chemical Engineering Education. - Kiehlbaugh, K. M., Hempel, B. R., & Blowers, P. (2019). Student Evaluation of Teaching in an Engineering Class and Comparison of Results Based on Instructor Gender. Chemical Engineering Education, 53(2), 91-99.
Proceedings Publications
- Hempel, B. R., Kiehlbaugh, K. M., & Blowers, P. (2019, June).
Scalable and Practical Interventions Faculty Can Deploy to Increase Student Success
. In 2019 ASEE Annual Conference & Exposition. - Hemple, B., Kiehlbaugh, K. M., & Blowers, P. (2018, June). Student Evaluation of Teaching in an Engineering Class and Comparison of Results Based on Instructor Gender. In ASEE Annual Conference & Exposition.
- Kiehlbaugh, K. M., & Blowers, P. (2018, Spring). Why Women Persist: Evaluating the Impact of Classroom-based Interventions. In CoNECD - The Collaborative Network for Engineering and Computing Diversity Conference.
Presentations
- Kiehlbaugh, K. M., & Blowers, P. (2018, April). Why Women Persist: Evaluating the Impact of Classroom-Based Interventions. Collaborative Network for Engineering and Computing Diversity Conference. Crystal City, Virginia: American Society for Engineering Education.
