Project PulseWatch

Inspiration

The inception of Pulsewatch emerged from a deep-seated aspiration to enhance healthcare accessibility and empower individuals to take proactive measures in safeguarding their cardiovascular health. Witnessing the prevalence of heart-related ailments and recognizing the critical role that early detection plays in preventing adverse outcomes, we felt compelled to bridge the gap between technology and well-being. The amalgamation of cutting-edge sensors, Arduino boards, and AI capabilities appeared as a transformative avenue to revolutionize heart monitoring. Inspired by the potential to provide a cost-effective, continuous, and user-friendly solution, we embarked on the journey to create Pulsewatch. Our aim is to empower users with real-time, accurate insights into their heartbeats, enabling timely intervention and ultimately fostering a healthier, more informed society.

What it does

The device helps to detect Heart Attacks and other Coronary Heart Diseases by checking for irregular heart pulse and rates. This can be easily done by using a pulse sensor and a LCD screen that displays the heart rate only when it has irregular rhythm. It measures once every 30 seconds so that it is a round the clock monitoring of the heart rate.1

How we built it

The main covering or the body casing is made with 3D printing and the brains of the device are made with some complex and simple circuits. It is also controlled by a set of coding lines that required some training to be able to work as well as intended.

Challenges we ran into

Getting the dimensions for the watch accurately and logical has proved itself to be difficult since it is hard to fit all of the circuits and components together into a small space.
troubleshooting the programme to work properly.
difficulty in finding accurate datasets for our programme.

Accomplishments that we're proud of

having fun while building the prototype, especially the teamwork We successfully built a working prototype of the Pulsewatch device, showcasing the feasibility of our concept and demonstrating that our design can be translated into a tangible product. Our prototype incorporates a preliminary version of the AI algorithm that can identify basic anomalies in heart rate patterns. e conducted initial user testing with the prototype, gathering feedback on usability and functionality. This feedback loop has guided us in making improvements to enhance the overall user experience.

What we learned

Our journey has also included challenges and setbacks. These experiences have taught us that failure is a stepping stone to improvement. Each setback has fueled our determination to find creative solutions and persistently iterate. Explaining complex technical concepts to non-technical stakeholders, including potential users and medical professionals, has improved our communication skills. Clarity and effective communication have been pivotal in building trust and understanding. Developing a functional, reliable product takes time and patience. We've learned not to rush through development stages and to dedicate ample time for testing, refinement, and fine-tuning.