Smart Spirometer: A Project-Based Learning Experience

Bala Maheswaran; Lindsey Evelyn Adamchik; Kyle Murrah; Sabina Perry; Kiersten Alexandra Tomas; Haridas Kumarakuru

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Conference: 2024 ASEE Annual Conference & Exposition
Location: Portland, Oregon
Publication Date: June 23, 2024
Start Date: June 23, 2024
End Date: June 26, 2024
Conference Session: Engineering Physics and Physics Division (EP2D) Technical Session 2
Tagged Division: Engineering Physics and Physics Division (EP2D)
Page Count: 11
DOI: 10.18260/1-2--47974
Permanent URL: https://peer.asee.org/47974
Download Count: 144

Paper Authors

biography

Bala Maheswaran COE Distinguished Professor Northeastern University

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Bala Maheswaran, PhD
COE Distinguished Professor
Northeastern University
367 Snell Engineering Center
Boston, MA 02115

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Haridas Kumarakuru, PhD, MInstP
Department of Physics,
College of Science,
Northeastern University,
360 Huntington Ave, Boston, MA 02115
E.Mail: h.kumarakuru@northeastern.edu

Hari has 18+ years of educational leadership experience amplifying academic and scientific endeavours in the higher education setting that has brought him to four separate continents. He capitalizes on his in-depth competencies in curriculum implementation, instructional delivery, scientific research, technical writing, and student mentoring to provide students with the tools for academic and professional success. Since 2007, he has had the privilege of mentoring numerous undergraduate and master’s students, a pursuit he is most passionate about. He has applied his established teaching skills to a wide range of undergraduate courses in general physics, engineering physics, electronics for scientists, advanced physics labs and specialized courses in the fields of functional nano material science and nanotechnology. Hari is a member of IOP (UK), JSA, AAPT and ASEE and he is a reviewer for several scientific journals.

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Abstract

In the realm of project-based learning, we undertook the development of a smart spirometer. Throughout this endeavor, we gained insight into several fundamental concepts that have proven invaluable for lifelong learning. As students, this project provided us with a fertile ground for honing our problem-solving abilities and immersing ourselves in the engineering design process. We began by identifying a problem, brainstorming potential solutions, selecting the most effective approach, and executing it with diligence.

Moreover, this undertaking bestowed upon us a wealth of practical skills encompassing fabrication, design, analysis, and technical writing. It afforded us the opportunity to refine our skills in computer-aided design (CAD), research, and collaborative teamwork. Notably, the implications of this design extend beyond our educational journey, offering potential applications within the broader field of engineering education.

Our primary concern centers around modernizing the dated volumetric spirometer, which is currently employed by individuals suffering from chronic lung ailments to gauge their breathing input, output, and rate. The conventional spirometer operates by utilizing physical airflow to elevate a ball within a cylinder, necessitating a medical professional to estimate airflow based on the ball's elevation. This methodology introduces potential errors into the collected data. Furthermore, it lacks the capability for patients to independently conduct these tests, as the spirometer is unwieldy and non-portable. Another issue is the limited utility of the volumetric spirometer, as it does not contribute to the treatment or management of the patient's various conditions.

To tackle these challenges, we propose the Smart Spirometer, which employs a hot wire anemometer to measure breath. The spirometer's data is subsequently displayed on a mobile device via a Bluetooth connection through an affiliated app. This innovative approach resolves the aforementioned issues by reducing the device's size, allowing users to hold the spirometer themselves. Additionally, the data is no longer reliant on subjective readings; instead, it digitally measures, collects, and presents breath output to the patient. We have also developed a user-friendly app that integrates the collected data, the patient's demographic information, and their progress over time, and provides breath therapy exercises. In summary, our design overcomes both the aesthetic and functional limitations of the traditional spirometer, ultimately offering users a more personalized and efficient assessment of their lung health.

Citation
Format

Maheswaran, B., & Adamchik, L. E., & Murrah, K., & Perry, S., & Tomas, K. A., & Kumarakuru, H. (2024, June), Smart Spirometer: A Project-Based Learning Experience Paper presented at 2024 ASEE Annual Conference & Exposition, Portland, Oregon. 10.18260/1-2--47974

TY - CPAPER
AB - In the realm of project-based learning, we undertook the development of a smart spirometer. Throughout this endeavor, we gained insight into several fundamental concepts that have proven invaluable for lifelong learning. As students, this project provided us with a fertile ground for honing our problem-solving abilities and immersing ourselves in the engineering design process. We began by identifying a problem, brainstorming potential solutions, selecting the most effective approach, and executing it with diligence.

Moreover, this undertaking bestowed upon us a wealth of practical skills encompassing fabrication, design, analysis, and technical writing. It afforded us the opportunity to refine our skills in computer-aided design (CAD), research, and collaborative teamwork. Notably, the implications of this design extend beyond our educational journey, offering potential applications within the broader field of engineering education.

Our primary concern centers around modernizing the dated volumetric spirometer, which is currently employed by individuals suffering from chronic lung ailments to gauge their breathing input, output, and rate. The conventional spirometer operates by utilizing physical airflow to elevate a ball within a cylinder, necessitating a medical professional to estimate airflow based on the ball&#39;s elevation. This methodology introduces potential errors into the collected data. Furthermore, it lacks the capability for patients to independently conduct these tests, as the spirometer is unwieldy and non-portable. Another issue is the limited utility of the volumetric spirometer, as it does not contribute to the treatment or management of the patient&#39;s various conditions.

To tackle these challenges, we propose the Smart Spirometer, which employs a hot wire anemometer to measure breath. The spirometer&#39;s data is subsequently displayed on a mobile device via a Bluetooth connection through an affiliated app. This innovative approach resolves the aforementioned issues by reducing the device&#39;s size, allowing users to hold the spirometer themselves. Additionally, the data is no longer reliant on subjective readings; instead, it digitally measures, collects, and presents breath output to the patient. We have also developed a user-friendly app that integrates the collected data, the patient&#39;s demographic information, and their progress over time, and provides breath therapy exercises. In summary, our design overcomes both the aesthetic and functional limitations of the traditional spirometer, ultimately offering users a more personalized and efficient assessment of their lung health.

AU - Bala Maheswaran COE Distinguished Professor
AU - Lindsey Evelyn Adamchik
AU - Kyle Murrah
AU - Sabina Perry
AU - Kiersten Alexandra Tomas
AU - Haridas Kumarakuru
CY - Portland, Oregon
DA - 2024/06/23
PB - ASEE Conferences
TI - Smart Spirometer: A Project-Based Learning Experience
UR - https://peer.asee.org/47974
DO - 10.18260/1-2--47974
ER -