| Co-Founder & CTO
| Engineering Scholar
| EEE MEng at UCL
I am on a mission to change the world.
Here are some of the most significant things I have done so far:
- Inventing a device to prevent career-ending knee injuries.
- Inventing a device to reduce the rehabilitation time for stroke rehabilitation.
- Developing an AI app to predict COVID-19 spread to save lives.
But this is just the beginning. My vision is to make the world a better place. How? In my lifetime, I will bring together some of the greatest minds to tackle humanity’s most pressing challenges: lack of food and clean water, homelessness, poverty, disease, and the pollution of our skies, land, and oceans.
The vehicle for this mission will be an Engineering Consultancy and venture capital firm. Through this platform, I will attract the brightest talent, collaborate with established companies, and fund groundbreaking startups to address the world’s greatest issues.
I refuse to accept these problems are unsolvable. Doing so just isn't an ambition.
It's my purpose.
Technical Skills
Leadership Experience
Education
Co-founded Hippos Exoskeleton to prevent career-ending knee injuries in elite atheletes. Developed analog sensing and predicitve machine learning techniques to predict a potential injury and integrated airbags in a knee brace to prevent the injury upon inflation. Raise $642000 in pre-seed funding.
Developed a motion capture system with a resolution of 1.5mm. Employed computer vision and optical flow techniques. This system was used to test the knee braces developed at Hippos Exoskeleton. It also saved £10,000s and months of lead time as hiring a professional VFX motion capture studio was no longer necessary.
Designed and prototyepd a cardboard 3D printer. The purpose of making this was to have a functional 3D printer at a fraction of the cost of commercial ones. At the time of making, the printer was 5x more economical than buying a commercial printer and attained similar quality prints with proper calibration. The printer employed Marlin firmware and its stepper motors were controlled by an Arduino Mega-based controller.
Developed an autonomous utility robot for soldiers in the field. With a background with the Armed Forces and through the sponsorship of a defence company, Leonardo, I designed and prototype an utility robot to carry extra payload for soldiers such as ammunition, ration packs and first aid kits. The robot was designed with tank tracks to traversth through rough terrain, it could autonomously naviagate and track a particular soldier through an array of IR sensors and it could be manually controlled.
Prototyped an high pressure control and storage system that could be controlled over the internet. This deviced was used to test the knee braces developed at Hippos Exoskeleton. The purpose of making this was that commercial air compressors did not offer such wireless control and were not rated for the desired pressures. It could safely store high pressure gas and release it for specified time periods (in the order of magnitude of milliseconds) and it could be controlled over the internet using an ESP32-based web server.
Prototyped an FPGA-based descrambling device using the DE0-Nano. I programmed the FPGA to apply various descrambling techniques, such as an inverse Hilbert Transform, to decrypt common signals. Additional analog circuits were constructed such as a DAC and low-pass filters to audibly hear the descrambled signal.
Developed a synthetic knee for testing at Hippos Exoskeleton. The objective was to emulate human flesh around a clinical knee joint of only the bones and ligaments. I 3D scanned my leg, processed it in Blender and Fusion 360 to make a mould. The mould was 3D printed and then the knee joint was cast in ballistic gel to emulate human flesh.
Having been inspired by a precision machinist on YouTube, I decided to design and make my own bolt action pen. I designed it in parametric CAD and created Engineering drawings of it, in guidance with ISO standards. The project is still in progress, but using the drawings I started machining each part, thinking about the order of operations as well as the necessary procedures and tooling.
Copyright © Bhavy