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oxygenauts
A non-invasive and comfortable device giving critically ill patients accurate oximetry readings.
Introducing the Oxygenauts’ dual prototype for the combined EKG and oximeter device, an innovative solution enhancing critical health monitoring for all patients. The functional prototype integrates Photoplethysmography (PPG) and Electrocardiography (EKG) with Arduino-based technology, offering real-time data processing based on advanced algorithms for reliable pulse oximetry monitoring. Beside it, our physical prototype showcases a user-centric design with a changeable band crafted from medical-grade silicone, ensuring flexibility and comfort for continuous monitoring. It also features a clear display screen for immediate data visualization. Together, these prototypes embody cutting-edge technology and tailor to meet the diverse needs and conditions of patients, setting a new standard in wearable health devices.
Project Description:
Oxygenauts has developed an oximeter device combining electrocardiography (EKG) and pulse oximetry sensors to improve critical health monitoring for underserved patient groups. Traditional pulse oximeters often fail to provide accurate readings for individuals with darker skin tones or those experiencing low-perfusion conditions, which can delay critical treatment decisions. Our new invention utilizes dual-sensor technology to ensure precise measurements across a wide range of patient populations and challenging conditions. Extensive research highlighted that existing solutions, like probes and invasive tests, either detach easily or are unsuitable for continuous monitoring. To address these problems, our device uses real-time signal processing algorithms to sync up the EKG and PPG data. This approach not only improves reliability and comfort but also signifies a transformative step forward in inclusive healthcare technology. In testing, our device demonstrated superior sensitivity by displaying readings at pressures 10–15% higher than standard oximeters, suggesting enhanced performance under restricted circulation conditions. Additionally, it provided slightly lower SpO2 readings for darker-skinned individuals compared to existing devices. This aligns with scientific literature, which indicates that existing devices tend to overestimate SpO2 levels for individuals with darker skin tones. Therefore, our device’s lower readings suggest greater accuracy and reliability for these populations. Our prototype’s design features include medical-grade silicone for comfort, an adjustable band for customization, and intuitive interfaces for ease of use. The results from our engineering and user analysis confirm the clinical and commercial potential of the design combining oximeters with EKG sensors. It fills a critical gap in healthcare by delivering reliable oxygen saturation and heart rate measurements under challenging conditions. Future plans involve further clinical testing, algorithm optimization, and pursuing patent protection. By advancing this technology, Oxygenauts aims to set a new standard for wearable health monitoring devices, enhancing critical care for all patients regardless of their physiological conditions.