FEA analysis of Pressure Vessel and calculating the burst pressure
Designing a Hip Implant by extracting dimensions from x-ray of a patient
Calculation of joint forces attempting to restore normal anatomy of the Hip Implant; FEA analysis
Drafted designs of Orthopedic implants using industrial standard CAD software: Hip replacement implant, Trauma plate,
Designed 3D models of various medical devices: Patella Dissector, Dental Drilling Machine and Electric wheelchair using PTC Creo
FEA analysis on the Total replacement knee implant accessing stress and strain deformation at the implant joint
Design and Validation of a Horizontal Axis Wind Turbine Blade in CATIA V5 and PRO E.
Data Analysis: SPSS, RStudio
CAD Software: SolidWorks, CATIA V5, PRO E, PTC Creo
Finite Element Analysis (FEA): ANSYS, Hypermesh
Results: Utilizing NHANES (National Health and Nutrition Examination Survey) data, we leveraged anthropometric measurements for children within the specified age groups. By transforming and adapting this data, we obtained age-appropriate anthropometric characteristics, including height, weight, sitting height, hip breadth, and leg length, among others. These data allowed us to develop more accurate representations of children's physical dimensions, enabling us to better assess their seating needs in school buses. Our analysis of the transformed NHANES data revealed significant variations in anthropometric measurements among children of different age groups. For example, elementary school-aged children exhibited shorter sitting heights and leg lengths compared to middle and high school students. These differences underscored the importance of considering age-specific anthropometric data when designing seating solutions for school buses. Moving forward, the plan would be to conduct further research involving direct data collection from children within the specified age groups. By gathering precise measurements and feedback from children themselves, we aim to refine our understanding of their seating preferences and comfort requirements. This data will enable us to validate and enhance our initial findings, ultimately informing the development of more tailored and inclusive seating designs for school buses.
Redesign of school bus seats to study and better accommodate children of three age groups.
Problem Statement: Size variabilities in children are more prominent than in adult populations, leading to challenges associated with accommodation in close-spaced seating arrangements, such as those found in school buses. This variability can result in discomfort and potential safety hazards for children during transportation to and from school.
Solution: Our proposed solution involves redesigning bus seats to improve accommodation for children by considering various design variables, including seat height, seat depth, distance between seats, seat width, and seat pitch allowances. Additionally, we will examine sitting styles and leg spread preferences to ensure optimal comfort and safety for children of different age groups.
Choosing a Target Population: Our target populations focus on school-going children in the following age groups: elementary school (ages 5-10), middle school (ages 11-13), and high school (ages 14-18). By addressing the unique anthropometric characteristics and seating preferences of children within these age groups, we aim to create a more inclusive and comfortable seating solution for school buses.
Method: To gather the necessary data and benchmark existing bus designs, we conducted measurements and analyzed three different bus styles, documenting their seat height, seat depth, distance between seats, seat width, and seating capacity. Additionally, we considered the size limitations of school buses and the need for a sufficiently large aisle for safe passage.
Methods: The project involves analyzing existing sit-stand stool products, benchmarking design parameters, and synthesizing anthropometric data specific to the Indian population. Multivariate analysis is conducted to assess levels of disaccommodation, and optimization techniques are used to determine the ideal stool height range for accommodating Indian users.
Results: The analysis reveals disparities between existing sit-stand stool products and the anthropometric characteristics of the Indian population. Optimization efforts focused on adjusting stool height show significant improvements in accommodation levels, enhancing comfort and usability for Indian individuals across various height ranges. Customized ergonomic solutions are essential to meet the diverse needs of the Indian demographic in home and office environments.
Ergonomic Standing Chair Design Recommendations for the Indian Population
Problem Statement: The shift to remote work during the COVID-19 pandemic has highlighted the need for ergonomic home workspaces to mitigate posture-related health risks. However, existing standing chair designs, primarily designed for the US population, often fail to accommodate the anthropometric characteristics of the Indian population, leading to discomfort and reduced productivity. Customized ergonomic solutions are required to address this disparity.
Solution: This project proposes tailored design recommendations for standing chairs to meet the ergonomic needs of the Indian population. By analyzing existing sit-stand stool products and synthesizing anthropometric data specific to India, the aim is to optimize design parameters such as seat depth, width, and stool height. The goal is to develop ergonomic solutions that enhance comfort, safety, and productivity for Indian users in home or office settings.
Target Population: The target population includes individuals in India with diverse anthropometric characteristics and ergonomic requirements. By focusing on the specific needs of the Indian demographic, the project aims to bridge the gap between existing standing chair designs and the ergonomic preferences of Indian users.
‘LifePatch’ Stick-on patch bringing life alert services together
Problem Statement: Current medical alert systems cater either to the elderly, offering limited functionalities, or to younger users with smartwatches, which may overwhelm older adults. There is a lack of wearable medical devices optimized for users aged 55-80, who seek both emergency assistance and health biometric tracking.
Solution: Introducing LifePatch, a discreet wearable sensor patch designed for users aged 55-80. LifePatch tracks biometrics such as heart rate, blood pressure, and glucose levels, offering emergency alerts and health monitoring in one device. It aims to bridge the gap between existing medical alert systems and smartwatches by providing a comprehensive solution tailored to the needs of older adults.
Target Population: LifePatch targets users aged 55-80, including the baby boomer generation, who seek a wearable device for both emergency assistance and health monitoring. This demographic values simplicity, flexibility, and affordability in their medical devices.
Method: Our approach to designing and developing LifePatch begins with a steadfast commitment to compliance with international medical device standards, including ISO 13485 and ISO 14971. By adhering to these rigorous specifications, we ensure the highest levels of quality management throughout the product lifecycle. Furthermore, our design process is deeply rooted in user-centric principles, with a particular focus on addressing the unique needs and challenges of older adults. Through extensive persona development and user feedback, we glean insights into vision impairments, diminished motor control, skin sensitivities, and technology adoption patterns among the elderly. These insights drive every aspect of our prototype development, from the selection of materials to the integration of advanced sensor technology. Our prototype, meticulously crafted using Solidworks, prioritizes comfort and flexibility, with dimensions optimized for compatibility with existing devices and direct skin application. Additionally, our power and storage systems leverage cutting-edge graphene-based technology to maximize efficiency and minimize charging times, ensuring continuous and reliable operation.
Results: LifePatch offers a discreet, flexible, and affordable solution for older adults seeking both emergency assistance and health monitoring. With its customizable sensors, wireless connectivity, and user-friendly interface, LifePatch addresses the identified gap in the market of medical alert devices for users aged 55-80. The device has the potential for future growth and expansion into other market areas, offering opportunities for improving healthcare monitoring across different age groups.