Patrizio Vinciarelli
Analyst
Yeah, so, fundamentally, a good way of partitioning these opportunities is, clear part is Intel in this sort of the rest of the world. So Intel is for a long time now relied on an internal switching regulator scheme to enable the power source for their devices to be at a somewhat higher voltage. It's typically around 1.8 volt. So at that level, while our technology offers benefits, they're not nearly as compelling as they are for sub-1 volt AI ASICs, whose current requirement, because of the lower voltage, tend to be much higher. So there we're seeing an escalating set of requirements, both in terms of applications and the current levels of these applications, which are getting past the 1,000 amperes with peaks, in some cases exceeding 2,000 amperes. So there the value proposition of current multiplication, which is at the heart of our point-of-load technology is greater than it would be in Intel processor running from 1.8 volts, up, let's say, a couple of hundred amps. So at a couple of hundred amps there is still have some level of flexibility with respect to traditional multiphase, so to speak, solutions. Now where the power source has transitioned from 12-volt to 48 volts, to Phil's point, we have a role to play in converting the 48 to 12. But that opportunity, frankly, given that the rest of the world is focused on finer lithography, running directly from voltage levels down to 0.6, 0.7 volts and going further down, and with that, higher and higher current levels. That's where the current multiplier solution with a higher value contribution comes into play.