Hardware meets technology — PCB manufacturing, AI, machine learning & cybersecurity. For engineers and anyone curious about how devices actually get built.
8 years with FSD (2018–2026) and the biggest change isn't the code—it’s my cortisol levels. 🧘♂️
From hovering over the wheel in 2018 to "end-to-end" calm in v14, it’s transformed my daily drive into a lifestyle upgrade. Just shared my full 8-year honest journey on Medium. Thanks for the peace of mind, @elonmusk!
The internet isn't in the cloud.
It's on the ocean floor.
Over 95% of international internet traffic travels through submarine cables—and there are only about 570 active systems connecting the world.
Most people have no idea how fragile this is.
Brain implants are already entering clinical trials.
Researchers are restoring communication, movement, and potentially treating neurological disorders using implanted electronics.
We're witnessing the birth of a new computing platform:
The human nervous system.
The next breakthrough isn't just sensing.
It's understanding.
New implant designs can process signals locally before transmitting data.
Less power.
Less bandwidth.
Smarter devices.
Imagine a device implanted under your skin detecting an abnormal heartbeat before you feel any symptoms.
It logs the event.
Analyzes the signal.
And alerts your doctor automatically.
This isn't science fiction.
It's already happening.
The engineering challenge is insane.
Electronics must survive:
• Constant body movement
• Salty biological fluids
• Heat
• Moisture
For 10 years.
Inside a human body.
Without failing.
Modern implantable medical devices are becoming tiny computers.
Pacemakers.
Neurostimulators.
Brain implants.
Continuous glucose monitors.
All powered by advanced electronics, sensors, and ultra-low-power chips.