Bliss Chapman

One is obviously being able to photolithographically print those wires. As I mentioned, it's two micron in width and spacing. Obviously, there are chips that are much more advanced than those types of resolution, and we have some of the tools that we have brought in-house to be able to do that. So traces will be narrower just so that you have to have more of the wires coming into the chip.

One is obviously being able to photolithographically print those wires. As I mentioned, it's two micron in width and spacing. Obviously, there are chips that are much more advanced than those types of resolution, and we have some of the tools that we have brought in-house to be able to do that. So traces will be narrower just so that you have to have more of the wires coming into the chip.

One is obviously being able to photolithographically print those wires. As I mentioned, it's two micron in width and spacing. Obviously, there are chips that are much more advanced than those types of resolution, and we have some of the tools that we have brought in-house to be able to do that. So traces will be narrower just so that you have to have more of the wires coming into the chip.

Chips also cannot linearly consume more energy as you have more and more channels. So there's a lot of innovations in the circuit architecture as well as the circuit design topology to make them lower power. You need to also think about if you have all of these spikes, how do you send that off to the end application?

Chips also cannot linearly consume more energy as you have more and more channels. So there's a lot of innovations in the circuit architecture as well as the circuit design topology to make them lower power. You need to also think about if you have all of these spikes, how do you send that off to the end application?

Chips also cannot linearly consume more energy as you have more and more channels. So there's a lot of innovations in the circuit architecture as well as the circuit design topology to make them lower power. You need to also think about if you have all of these spikes, how do you send that off to the end application?

So you need to think about bandwidth limitation there and potentially innovations in signal processing. Physically, one of the biggest challenges is gonna be the interface. It's always the interface that breaks. Bonding this thin film array to the electronics, it starts to become very, very highly dense interconnects. So how do you connectorize that?

So you need to think about bandwidth limitation there and potentially innovations in signal processing. Physically, one of the biggest challenges is gonna be the interface. It's always the interface that breaks. Bonding this thin film array to the electronics, it starts to become very, very highly dense interconnects. So how do you connectorize that?

So you need to think about bandwidth limitation there and potentially innovations in signal processing. Physically, one of the biggest challenges is gonna be the interface. It's always the interface that breaks. Bonding this thin film array to the electronics, it starts to become very, very highly dense interconnects. So how do you connectorize that?

There's a lot of innovations in kind of the 3D integrations in the recent years that we can take advantage of. One of the biggest challenges that we do have is forming this hermetic barrier, right? This is an extremely harsh environment that we're in, the brain. So how do you protect it from

There's a lot of innovations in kind of the 3D integrations in the recent years that we can take advantage of. One of the biggest challenges that we do have is forming this hermetic barrier, right? This is an extremely harsh environment that we're in, the brain. So how do you protect it from

There's a lot of innovations in kind of the 3D integrations in the recent years that we can take advantage of. One of the biggest challenges that we do have is forming this hermetic barrier, right? This is an extremely harsh environment that we're in, the brain. So how do you protect it from

yeah, like the brain trying to kill your electronics to also your electronics leaking things that you don't want into the brain and that forming that hermetic barrier is going to be a very, very big challenge that we, you know, I think are actually well suited to tackle. How do you test that? Like what's the development environment to simulate that kind of harshness?

yeah, like the brain trying to kill your electronics to also your electronics leaking things that you don't want into the brain and that forming that hermetic barrier is going to be a very, very big challenge that we, you know, I think are actually well suited to tackle. How do you test that? Like what's the development environment to simulate that kind of harshness?

yeah, like the brain trying to kill your electronics to also your electronics leaking things that you don't want into the brain and that forming that hermetic barrier is going to be a very, very big challenge that we, you know, I think are actually well suited to tackle. How do you test that? Like what's the development environment to simulate that kind of harshness?

Yeah, so this is where the accelerated life tester essentially is a brain in a vat. It literally is a vessel that is made up of... And again, for all intents and purpose for this particular types of tests, your brain is a saltwater. And you can also put some other set of chemicals like reactive oxygen species that get at kind of these interfaces and trying to cause a reaction to pull it apart.

Yeah, so this is where the accelerated life tester essentially is a brain in a vat. It literally is a vessel that is made up of... And again, for all intents and purpose for this particular types of tests, your brain is a saltwater. And you can also put some other set of chemicals like reactive oxygen species that get at kind of these interfaces and trying to cause a reaction to pull it apart.

Yeah, so this is where the accelerated life tester essentially is a brain in a vat. It literally is a vessel that is made up of... And again, for all intents and purpose for this particular types of tests, your brain is a saltwater. And you can also put some other set of chemicals like reactive oxygen species that get at kind of these interfaces and trying to cause a reaction to pull it apart.

But you could also... increase the rate at which these interfaces are aging by just increasing temperature. So every 10 degrees Celsius that you increase, you're basically accelerating time by 2x.

But you could also... increase the rate at which these interfaces are aging by just increasing temperature. So every 10 degrees Celsius that you increase, you're basically accelerating time by 2x.