Quantum sensor

Yeah.

It's app- applications of quantum sensing.

Hmm.

Um, I think quantum computing will absolutely disrupt quantum sensing in the best way possible.

Explain what quantum sensing is and how it'll do that.

So just like qu- quantum computers, quantum sensing leverages quantum mechanics to do the underlying signal processing.

Um, rather than regular digital signal processing, um, you basically have the ability to detect quantum particles and quantum fluctuations, uh, at the individual level.

So, uh, the beautiful thing with quantum sensing is that what we could eventually have using, let's say Wigner tomography, is you could presumably have a quantum gravimeter where there's this super interesting scaling law with quantum gravimeters where it, um, the resolution increases two to the N for every qubit.

Oh, wow.

Understanding how matter organizes itself under these impossible conditions provides the fundamental blueprint for next generation quantum sensors.

Which would be revolutionary for things like navigation or, I don't know, mapping underground resources or even medical imaging.

Oh, absolutely.

Things that can increase the possibilities into the millions, it can look at instantly, find the best route, not the best route, but the most optimal route.

And lastly, quantum sensing.

And this is one where I want you to log in.

Because today, quantum sensors can see through objects and walls or skulls.

Quantum is everywhere, but we don't see it.

or at least not at the consumer level, where we may not even recognize that we're seeing it.

It's in headlines, tech conversations, you're hearing about it, you're curious about it, sometimes you'll find yourself going down a rabbit hole trying to understand what the difference between quantum mechanics is versus quantum sensing versus quantum entanglement.

But there are many different ways that we can learn about it.