Nvidia Part II: The Machine Learning Company (2006-2022)｜Acquired

Still got swedish house mafia greyhound in my head from the pump up nice, nice.

It is funny how all like gpu companies like i was watching a bunch of nvidia keynotes and amd keynotes to get ready for this and everyone is so like techno, neon lighting, like it's like crypto before crypto who got the truth?

Is it you?

Is it you who got the truth?

Now Welcome to Season 10, Episode 6 of Acquired, the podcast about great technology companies and the stories and playbooks behind them.

I'm Ben Gilbert and I am the co-founder and managing director of Seattle-based Pioneer Square Labs and our venture fund, PSL Ventures.

And I'm David Rosenthal, and I am an angel investor based in San Francisco.

And we are your hosts.

When I was a kid David, I used to stare into backyard bonfires and wonder if that fire flickering was doing so in a random way, or if I knew about every input in the world all the air, exactly the physical construction of the wood, all the variables in the environment, if it was actually predictable.

And I don't think I knew the term at the time, but modelable.

If I could know what the flame could look like if I knew all those inputs.

And we now know.

Of course it is indeed predictable, but the data and compute required to actually know that is extremely difficult.

But that is what NVIDIA is doing today.

Ben, I love that intro.

That's great.

I was thinking, like, where is Ben going with this?

And this was occurring to me as I was watching Jensen sharing the Omniverse vision for NVIDIA and realizing NVIDIA has really built all the building blocks the hardware, the software for developers to use that hardware, all the user-facing software now and services to simulate everything in our physical world with their unbelievably efficient and powerful GPU architecture.

And these building blocks... listeners, aren't just for gamers anymore.

They are making it possible to recreate the real world in a digital twin, to do things like predict airflow over a wing or simulate cell interaction, to quickly discover new drugs without ever once touching a petri dish, or even model and predict how climate change will play out precisely.

And there is so much to unpack here, especially in how NVIDIA went from making commodity graphics cards to now owning the whole stack in industries, from gaming to enterprise data centers, to scientific computing and now even basically off-the-shelf self-driving car architecture for manufacturers.

And at the scale that they're operating at, these improvements that they're making are literally unfathomable to the human mind.

And just to illustrate...

If you are training one single speech recognition machine learning model.

These days one, just one model.

The number of math operations like adds or multiplies to accomplish it is actually greater than the number of grains of sand on the earth.

I know exactly what part of the research you got that from, because I read the same thing and I was like you gotta be freaking, kidding me.

Isn't that nuts?

I mean, there's just nothing better in all of the research that you and I both did, I don't think, to better illustrate just the unbelievable scale of data and compute required to accomplish the stuff that they're accomplishing, and how unfathomably small all of this is the fact that that happens on one graphics card.

Yep.

So great.

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All right, David, without further ado, take us in.

And as always, listeners, this is not investment advice.

David and I may hold positions in securities discussed.

And please do your own research.

That's good.

I was going to make sure that you said that this time, because we're going to talk a lot about investing and investors in NVIDIA stock over the years.

It has been a wild, wild journey.

So last we left our plucky heroes Jensen Huang and NVIDIA in the end of our NVIDIA the GPU company years ending kind of roughly 2004 2005, 2006.

They had cheated death, not once, but twice.

The first time in the super overcrowded graphics card market when they were first getting started.

And then, once they sort of jumped out of that frying pan into the fire of Intel now gunning for them coming to commoditize them, like all the other PCI chips that plugged into the Intel motherboard back in the day.

And they bravely fend them off.

They team up with Microsoft.

They make the GPU programmable.

This is amazing.

They come out with programmable shaders with the GeForce 3.

They power the Xbox.

They create the CG programming language with Microsoft.

And so here we are.

It's now 2004, 2005.

And it's a pretty impressive company.

Public company stock is high-flying after the tech bubble crash.

They've conquered the graphics card market.

Of course, there's ATI out there as well, which will come up again.

But there's three pretty important things that I think the company built in the first 10 years.

So one...

We talked about this a lot last time.

These six-month ship cycles for their chips.

We talked about that, but we didn't actually say the rate at which they ship these things.

I actually wrote down a little list.

In the fall of 1999, they ship the first GeForce card, the GeForce 256.

In the spring of 2000, GeForce 2.

In the fall of 2000, GeForce 2 Ultra.

Spring of 2001, GeForce 3.

That's the big one with the programmable shaders.

Then six months later, the GeForce 3 Ti500.

I mean the normal cycle I think we said was two years, maybe 18 months for most of their competitors who just got largely left in the dust.

Well, I was just thinking.

You know yeah, the competitors are gone at this point, but I'm thinking about Intel.

How often did Intel ship new products, let alone fundamentally new architecture?

You know there was the 286 and then the 386 and the Pentio and it got it to Pentio out at 05 whatever.

Dude, I feel like the Intel product cycle is approximately the same as a new body style of cars.

Yes, exactly.

Every five, six years, there seems to be a meaningful new architecture change.

And Intel is the driver of Moore's law, right?

Like these guys ship and... bring out new architectures at warp speed.

And they've continued that through to today.

Two, one thing that we missed last time.

That is super important and becomes a big foundation of everything NVIDIA becomes today that we're gonna talk about.

They wrote their own drivers for their graphics cards.

And we owe a big thank you for this and many other things to a great listener, a very kind listener named Jeremy, who reached out to us in Slack and pointed us to a whole bunch of stuff, including the Asianometry YouTube channel.

So good.

I've probably watched like 25 Asianometry videos this week.

So, so good.

Huge shout out to them.

But all the other graphics cards companies at the time and most peripheral companies.

They let the further downstream partners write the drivers for what they were doing.

NVIDIA was the first one that said, no, no, no, we want to control this.

We want to make sure consumers who use NVIDIA cards have a good experience on whatever systems they're on.

And that meant A, that they could ensure quality, but B, they start to build up in the company this like base of really nitty-gritty low-level software developers in this chip company and not a lot of other chip companies that have capabilities like this No.

And what they're doing here is taking on a bigger fixed cost space.

I mean it's very expensive to employ all the people who are writing the drivers for all the different operating systems, all the different OEMs, all the different boards that it has to be compatible with.

But they viewed it as it's kind of an Apple-esque view of the world.

We want the control or as much control as we can get. over making sure that people using our products have a great user experience so they were sort of willing to uh take the short-term pain of that expense for the long-term benefit of that improved user experience with their products that their users high-end gamers that want the best experience you know they're going to go out they're going to spend the time three four or five hundred dollars on an nvidia top of the line graphics card they're gonna drop it into the pc that they built you know they want it to work i remember messing around with drivers back in the day and things not working like this is super important so all this is focused and of course they have the third advantage in the company is programmable shaders you know which ati copies as well but like they innovated like they've you know done all this so all of this at this time it's all in service of the gaming market And one seed to plant here, David, when you say the programmable shaders developers, the notion of a NVIDIA developer did not exist until this moment.

It was people who wrote software that would run on the operating system and then from there maybe that compute load would get offloaded to whatever the graphics card was.

But it wasn't like you were developing for the GPU, for the graphics card, with a language and a library that was specific to that card.

So for the very first time now they start to build a real direct relationship with developers so that they can actually start saying look, if you develop for our specific hardware, there are advantages for you and really our specific gaming cards.

Like everything we're talking about, these developers, they're game developers.

All of this stuff, it's all in service to the gaming market.

So, you know, again, they're a public company.

They have this great deal with Microsoft.

They bring out CG together.

They're powering the Xbox.

Wall Street loves them.

They go from sub a billion dollar market cap company after the tech crash up to five to six billion dollars kind of by 2004, 2005.

Stock keeps going on a tear.

By mid 2007, the stock reaches just under 20 billion dollar market cap.

You know, this is great.

And this is all the story is like this is pure play gaming.

These guys have built such a great advantage and a developer ecosystem in a large and growing market clearly, which is video games, which on its own that would be a great wave to surf.

I mean, i think what's the gaming market today?

180 billion or something.

And when we talked to trip hawkins, who sort of like helped invent it, or nolan bushnell, you know, it was zero then, and so nvidia is sort of like on a wave that's at an amazing inflection point.

They could totally just ride this gaming thing and be an important.

It's not running out of steam.

I mean, like how could you not be not just satisfied, but like more than satisfied with this as a founder?

You're like yes, I am the leading company in this major market, this huge wave that I don't see ending anytime soon.

You know, 999 of founders, who are themselves, as a class, like you know, very ambitious, are going to be satisfied with that, but not Jensen, but not Jensen.

So while all this is happening, he starts thinking about, well, what's the next chapter?

I'm dominating this market.

I want to keep growing.

I don't want Nvidia to be just a gaming company.

So we ended last time with the little, you know, almost a surely apocryphal story of a Stanford researcher you know sends the email to Jensen and it's like ah, you know, thanks to you, my son told me to go buy off the shelf you know, GeForce cards at the local Fry's Electronics.

And I stuffed them into my PC at work.

And, you know, I ran my models on this.

He's a, I think it was a quantum chemistry researcher, supposedly.

It was 10 times faster than the supercomputer I was using in the lab.

And so thank you.

I can get my life's work done in my lifetime.

And Jensen loves that quote.

It comes out at every GTC.

So that story, if you're a skeptical listener, might beg two questions.

First is a practical one.

You know, we just said everything's about gaming here.

And here's, like a researcher, like a scientific researcher doing, you know, chemistry modeling, using GeForce cards for that.

What's he writing this in?

Well, it turns out.

Programmable shaders, right?

Yeah.

They were shoehorning CG, which was built for graphics.

They were translating everything that they were doing into graphical terms, even if it was not a graphical problem they were trying to solve and writing it in CG.

This is not for the faint of heart, so to speak.

Right, so everything is sort of metaphorical.

He's a quantum chemistry researcher and he's basically telling the hardware okay.

So imagine this data that I'm giving you is actually a triangle, and imagine that this way that I want to transform the data is actually like applying a little bit of lighting to the triangle, and then I want you to output something that you think is the right color pixel, and then I will translate it back into the result that I need for my quantum chemistry.

Like, you can see why that's suboptimal.

Yep.

So he thinks this is an interesting market.

He wants NVIDIA to serve it.

If you really want to do that right, it is a massive undertaking.

It was 10 plus years to get to the company to this point.

You know what CG was is like a small sliver of the stack of what you would need to build for developers to use GPUs in a general purpose way like we're talking about.

You.

It's like the difference between working on CG and Microsoft, building the whole NET framework for developing on Windows.

Or today, even better, Apple.

Everything Apple gives to iOS and Mac developers to develop on Mac.

Right, yeah.

The analogy's not perfect.

But it's like, instead of just Apple saying OK, Objective-C is the way that you write code for our platforms.

Good luck.

They're like, OK, well, you need UI framework.

So how about AppKit and Cocoa Touch?

And how about all these other SDKs and frameworks like ARKit and like StoreKit and like HomeKit?

It's basically you need the whole sort of abstraction stack on top of the programming language to actually make it very accessible to write software for domains and disciplines that you know are going to be really popular using that hardware.

Exactly.

So when Jensen commits himself and the company to pursuing this...

He's biting off a lot.

Now we talked about they've been writing their own drivers.

So they have actually a lot of very low level.

I don't mean low level like bad.

I mean low level, like infrastructure, like close, very difficult systems oriented programming talent within the company.

So that kind of enables them to start here.

But like still, this is big.

So then, the second question, if you're a discerning investor, particularly in NVIDIA, that you want to ask at this point in time is like OK Jensen, You're committing the company to a big undertaking.

What's the business case for that?

Show me the market.

Don Valentine at this point would be sitting there listening to Jensen and being like show me the market.

And not only is it show me the market, but it's how long will the market take to get here?

And it's how long is it going to take us and how many dollars and resources is it going to take us to actually get to something that's useful for that market when it materializes?

Because, while CUDA development began in 2006, That was not a useful, usable platform for six plus years at NVIDIA.

Yep.

This is closer to on the order of the Microsoft development environment or the Apple development environment than what NVIDIA was doing before, which was like hey, we made some APIs and worked with Microsoft so that you can program for my thing.

Right.

I'm going to flash way forward just to illustrate the insane undertaking of this.

I searched LinkedIn for people who work at NVIDIA today and have the word CUDA in their title.

There are 1100 employees dedicated specifically to the CUDA platform.

I'm surprised it's not 11,000.

Yeah.

Okay.

So like, where's the market for this?

Yes.

Ben, you asked the, you know, the third question, which is okay.

The intersection of what does this take to do this?

And when is the market going to get there in time and cost and all that?

But even just put that aside, is there a market for this?

Is the first order question.

And the answer to that is probably no, at this point in time.

And what they're aiming at is scientific computing, right?

It's researchers who are in science-specific domains who right now need supercomputers or access to a supercomputer to run some calculation that they think is going to take weeks or months.

And wouldn't it be nice if they could do it cheaper or faster?

Is that kind of the market they're looking at?

Yeah, they're attacking like the Cray market, like Cray supercomputers, like that kind of stuff.

You know, great company, right?

But like, that's no NVIDIA today.

Right.

And they were dominating the market.

You know, yeah, it's scientific research computing.

You know, it's drug discovery.

It's probably a lot of this work.

They're thinking oh, maybe we can get into more professional like Hollywood and architecture and other professional graphics domains.

Yeah, yeah, yeah, sure.

But, you know, you sum all that stuff up and like...

Maybe you get to a couple billion dollar market, maybe like total market, and not enough to justify the time and the cost of what you're going to have to build out to go after this to any rational person.

So, you know, here we come.

Jensen and NVIDIA, like they are doing this.

He is committed.

He's drunk the Kool-Aid.

2006, 2007, 2008.

They are pouring a lot of resources into building what will become CUDA.

That we'll get to in a second.

It already is CUDA at this point in time.

And I think Jensen's psychology here is sort of twofold.

One is he is enamored with this market.

He loves the idea that they can develop hardware to accelerate specific use cases in computing.

That he finds sort of fanciful.

And he likes the idea of making it more possible to do more things for humanity with computers.

But the other part of it is certainly a business model realization where he has spent the last gosh at this point 13, 14 years being commoditized in all these different ways.

And I think he sees a path here to durable differentiation where he's like, whoa.

To own the platform.

You know it's kind of the Apple thing again to own the platform and to build hardware that's differentiated by not only software but relationships with developers that use that custom software.

Like.

Then I can build a really sort of like a company that can throw its weight around in the industry.

Jensen, I don't know if he used it at the time because he probably would have gotten pilloried, but maybe he did.

I don't think he cared.

He certainly has used it since.

The way he thought about this was it wasn't just like if we build it, they will come, which is what was going on.

The phrase he uses is, if you don't build it, they can't come.

Yeah.

So it's not even like yeah, i'm pretty sure if we build it they will come.

It's one step removed from that.

It's like well, if we don't build it, they can't even possibly come.

I don't know if they will come, but they can't come if we don't build it.

So wall street is mostly willing to ignore this.

In 2006 2007, 2008.

The company's still growing really nicely.

They're this great market cap run leading up to right before the financial crisis.

But then you know you mentioned last time I think it gets announced in 2006 maybe and closes in 2007.

AMD acquires ATI.

And ATI was a very legit competitor.

It was the only standing legit competitor to NVIDIA through its whole life.

Now amd acquired and i think they acquired it for what six, seven billion dollars, something like that, something like that.

So it was a lot of money.

And then they put a lot of resources like they weren't just acquiring this to.

You know, get some talent, like they're like.

No no, this is gonna be a big product line for us.

We're putting a lot of weight behind this.

We haven't done the research into AMD the way we have into NVIDIA, but the AMD Radeon line, which used to be the ATI Radeon line that is how you think about AMD as a company is that they make these GPUs mostly for the gaming use case.

Yep.

Before the acquisition, I think the first PC I built in like end of high school, beginning of college.

I think I had a Radeon card in it.

I think I was probably in the minority.

I think NVIDIA was bigger, but for whatever reason, I... liked ATI at that point in time.

So like they were legit.

Well, so here's Nvidia now focusing on this whole other thing.

And you're still in the gaming market, which like we said, is like massive rising tide.

Your competitor now has all these resources and AMD that's fully dedicated to going after it.

Mid-2008, NVIDIA whiffs on earnings.

Like, this is natural.

They took their eye off the ball.

Of course they did.

And the stock gets just hammered.

Because anything that CUDA empowers is not yet a revenue driver and they've totally taken their eye off of gaming.

Yes.

So, you know, we said the high was around a $20 billion market cap.

It drops 80%, eight to zero.

This isn't just the financial crisis.

It's almost quaint, I think, you know, for me thinking back on the financial crisis now and like people freaking out the Dow, you know, the SP dropping 5 in a day, and like oh, that's a Thursday these days, you know.

It is literally the Thursday that we are recording.

Yes.

For a company stock to drop 80 a technology company stock, even during the financial crisis.

They're not just in the penalty box.

They're like getting kicked to the curb.

Right.

Are they done?

The headlines at this point are, is NVIDIA's run over?

If you're most CEOs at this point in time, you're probably calling up Goldman or you.

You're shopping this thing because how are you going to recover?

But not Jensen, but not Jensen, obviously.

So instead he goes and builds CUDA and continues to build CUDA.

And, um, this is just set context.

Like we get excited about a lot of stuff on acquired, but I think CUDA is like one of the greatest business stories of the last 10 years, 20 years more.

I don't know.

What do you think Ben?

I mean, I'd say it's one of the boldest bets we've ever covered.

But so were programmable shaders, and so was NVIDIA's original attempt to make a more efficient quadrilateral-focused graphics.

Those were big bets.

I think this is a bet on another scale, though.

This is a bet that we don't cover that often on Acquire.

Those were big bets relative to the company's size at the time, but this bet is like an iPhone-sized bet.

That's exactly what this is.

It's an iPhone-sized bet.

It is a bet the company when you are already a several billion dollar company.

Yes.

An attempt to create something that, if they are successful and this market materializes, this will be a generational company.

Yep.

So what is CUDA?

It is NVIDIA's compute unified device architecture.

It is, as we've referred to thus far throughout the episode, a full and I mean full development framework for doing any kind of computation that you would want on GPUs.

Yeah, and in particular, it's interesting because I've heard Jensen reference it as a programming language.

I've heard him reference it as a computing platform.

It is all of these things.

It's an API.

It is an extension of C or C++, so there's a way that it's sort of a language.

But importantly, it's got all these frameworks and libraries that live on top of it and it enables super high-level application development.

You know, really high abstraction layer development for hundreds of industries at this point to communicate down to CUDA, which communicates down to the GPU, and everything else that they have done at this point.

Yeah.

This is what's so brilliant.

So right after we released the same day that we released, part one, the first NVIDIA episode we did a couple of weeks ago, Ben Thompson had this amazing interview with Jensen on Stratechery.

And Jensen in this interview I think puts what CUDA is and how important it is better than I've seen anywhere else.

So this is Jensen speaking to Ben.

We've been advancing CUDA in the ecosystem for 15 years and counting.

We optimize across the full stack, iterating between GPU acceleration libraries, systems and applications continuously, all while expanding the reach of our platform by adding new application domains that we accelerate.

We start with amazing chips, but for each field of science, industry and application we create a full stack.

We have over 150 SDKs that serve industries from gaming and design to life and earth sciences, quantum computing AI cybersecurity, 5G and robotics.

And then he talks about what it took to make this.

This is like the point we were trying to like hammer home here.

He says you have to internalize that this is a brand new programming model and everything that's associated with being a program processor company or a computing platform company had to be created.

So we had to create a compiler team.

We had to think about SDKs.

We had to think about libraries.

We had to reach out to developers and evangelize our architecture and help people realize the benefits of it.

And we even had to help them market this vision so that there would be demand for their software, that they write on our platform, and on and on.

It's crazy.

It's amazing.

And when he says that it's a whole new programming, I think he says maybe paradigm or way of programming.

It is literally true, because most programming languages up to this point and most computing platforms primarily contemplated serial execution of programs.

And what CUDA did was, it said you know what?

The way that our GPUs work and the way that they're going to work going forward is tons and tons of cores all executing things at the same time parallel programming, parallel architecture.

Today, there's over 10,000 cores on their most recent consumer graphics card.

So insanely, or dare I say, embarrassingly parallel, and CUDA is designed for parallel execution from the very beginning.

That's the catchphrase in the industry of embarrassingly parallel.

And it's actually kind of a technical term.

I don't know why it's embarrassing.

It's basically the notion that this software is so parallelizable, which means that all of the computations that need to be run are independent.

They don't depend on a previous result in order to start executing.

It's sort of like it would be embarrassing for you to execute these instructions in order, instead of finding a way to do it parallel.

Ah, it's not that it's parallel that it's embarrassing.

It's embarrassing if you were to do it the old way on CPUs, serially.

I think that's the implication.

Got it, got it.

This is so obvious that it's embarrassingly parallel.

Okay, now it makes sense.

Now here's the coup de grace.

We're going to spend a few minutes talking about how brilliant this was.

Everything we just described, this whole undertaking.

It's like building the pyramids of Egypt or something here.

It is entirely free.

NVIDIA to this day now this may be changing, we'll talk about this at the end of the episode has never charged a dollar for CUDA.

But anyone can download it, learn it, use it, you know, blah, blah, blah.

All of this work, stand on the shoulders of everything NVIDIA has done.

But Ben, what is the but?

It is closed source and proprietary exclusively to NVIDIA's hardware.

That's right.

You do any of this work, you cannot deploy it on anything but NVIDIA chips.

And that's not even just like.

Oh, NVIDIA put in their terms of service that you can't deploy this on AMD chips, or whatever.

It literally doesn't work.

Nope, it's full stack.

It's like if you were to develop an iOS app and then try and deploy it on Windows, it wouldn't work.

It is integrated with the hardware.

So OpenCL is sort of the main competitor at this point and they do actually let OpenCL applications run on their chips, but nothing in CUDA is available to run elsewhere.

It's so great.

Okay, so now you can see this is just like Apple, and it's the Apple business model.

Apple gives away all of this technology.

Amazing platform ecosystem that they built to developers, and then they make money by selling their hardware for very, very healthy gross margins.

But this is why Jensen is so brilliant, because back when they started down this journey in 2006 even before that when they started, and then all through it.

There was no iOS.

There was no iPhone.

Like it wasn't obvious that this was a great model.

In fact, most people thought this was a dumb model that, like Apple, lost and the Mac, was stupid and niche and, like Windows and Intel, is what won the open ecosystem.

Well, but Windows and Intel did have proprietary development environments and you know full stack dev tools.

Oh, yeah.

There's a lot of nuance here.

It's not like they were like open source per se, but it could run on any hardware.

Well, except that it couldn't.

It could only run on the Intel, IBM, Microsoft alliance world.

It wasn't running on Power PCs.

It wasn't running on anything Apple made.

That's true.

It's funny.

In some ways, NVIDIA is like Apple.

In other ways they're like the Microsoft Intel, IBM alliance, except fully integrated with each other instead of being three separate companies.

Yeah, that's maybe a good way to put it.

It is sort of somewhere in between.

There is nuance here.

Remember when clay christensen was bashing on apple in the early days of the iphone, being like yeah, oh yeah, open's gonna win, android's gonna win, apple is doomed.

You know, clothes never works.

You gotta be modular.

You can't be integrated and, like you know, clay was amazing and one of the greatest strategic.

But i think that's just representative to me of like everybody thought that like the apple model sucked.

Yeah, I mean, it sucks unless you're at scale.

And at the time there was very little to believe that NVIDIA was going to have the scale required to justify this investment or that there was a market to let them achieve the scale to justify this.

That's the thing.

Even if you were to say, OK, Jensen, I believe you and I agree with you that this is a good model.

If you can pull it off at the time, you could be Don Valentine or whoever looking around.

And maybe Don was still looking around, because they probably still held the stock being like where's the market?

That's going to enable the scale you need to run this playbook.

All right.

So are you going to take us to 2011, 12?

Where are we hopping back in here?

Yeah.

If only the world worked like fiction and it were actually like a truly straight line.

It's never a straight line.

We will get there.

And that is what saves NVIDIA and makes this whole thing work.

But they have some misadventures in between.

So a stock's getting hammered.

It's 2008.

And I'm just completely speculating on my own.

But they're in the penalty box.

They're committed to continuing to invest in CUDA and making general purpose computing on GPU a thing.

I do wonder if they felt like, well, we got to do something to appease shareholders here.

We got to show that we're trying to be commercial here.

So it's 2008.

What's going on in 2008 in the tech world?

It's mobile.

So in 2008, they launched the Tegra chip and platform within NVIDIA.

This may not be what saved the company.

This is not what saved the company.

This is more clown car style.

Maybe that's too rough on NVIDIA.

But what was Tegra?

People might recognize that name.

It was a full on system on a chip for smartphones competing directly with Qualcomm, with Samsung.

Like it was a processor, like an arm based CPU, plus all of the other stuff you would need for a system on a chip to power anything.

Android headsets uh, i mean, this is like a wild departure, for it leverages none of nvidia's core skill sets, except maybe graphics being part of smartphones.

But like, come on, if there's ever a use case for integrated graphics, it's smartphones right, right.

Low power, smaller footprint, Yep.

Totally.

Do you know, this is one of my favorite parts about the whole research.

Do you know what the first product was that shipped using a Tegra chip?

Uh, no, it was the Microsoft Zune HD media player.

That just tells you pretty much everything you need to know.

It did, though.

The Tegra system.

It is still around, sort of to this day empowered, the original Tesla Model S touchscreen.

So before any of the autopilot, autonomous driving stuff, they were the processor powering, just the infotainment, the touchscreen infotainment in the Model S, And I think that actually starts to help NVIDIA get into the automotive market more.

The Tegra platform still to this day is the main processor of the Nintendo Switch.

Oh, they repurposed it for that?

Yeah, for that.

And I think they still have their Nvidia Shield proprietary gaming device stuff that I don't know that anybody buys those.

Oh, this makes so much sense because they basically have walked away from every console since the PlayStation 3.

Yep.

And so it's interesting that they have this thriving gaming division that doesn't power any of the consoles except the Nintendo Switch.

And I always sort of wondered, like, why did they take on the Switch business?

Because they kind of already had it done.

It's not for the graphics cards.

It was as somewhere to put the Tegra stuff.

Fascinating.

Quick aside, it's funny how these... gpu companies have not been good at transitioning to mobile there's like a funny naming thing but do you know what happened to so there's the ati radeon which became the amd radeon desktop series they tried to make mobile gpus it didn't go great and they ended up spinning that out and selling all that ip to another company do you know the company oh i do not was it apple It is Qualcomm.

And today is Qualcomm's mobile GPU division and Qualcomm's good at mobile.

And so it's a natural home for it.

Do you know what that line of mobile GPU processors is called?

No.

It is the Ardeno, A-R-D-E-N-O processors.

And do you know why it's called the Ardeno or Ardeno?

No, that sounds super familiar, but no.

The letters are rearranged from Radeon.

That's great.

Yeah.

That's great.

So you're saying NVIDIA's mobile graphics efforts didn't quite pan out.

No.

We didn't talk about this as much in the Sony episode, but my impression of the whole Android value chain ecosystem is that there's no profits to be made anywhere.

And Google keeps it that way on purpose.

Ironically, they make a lot of money now on the Play Store.

Ah, yeah, the Play Store and ads.

Right.

I do think the primary way that they monetize it is not having to pay other people to acquire the search traffic.

Right.

But I mean for like partners, like if you are making everything from chips all the way up through hardware in the Android ecosystem.

I don't think you're making like, maybe if you were the scale player, but like these things are designed to sell for dirt cheap, as in products like, there's no margin to be had here.

Yep.

Also, before we continue, you just did the sidebar on the AMD mobile graphics chip.

I see your sidebar.

I'm going to raise you one more sidebar that we have to include.

That you know, because the NZS guys told us about this.

So when Nvidia is going after mobile, they buy a mobile baseband company called Isara a British company called Isara in 2011.

You know where I'm going with this.

Oh, yes, I do.

This is so good.

It's a good seed plant to come back to later, you know, because they're investing in mobile integrity is going to be a thing, blah, blah, blah.

And then a few years later, when they end up pretty much shutting down the whole thing.

They shut down what they bought from my Sarah.

They lay everyone off.

The ISERA founders, who made a lot of money when NVIDIA bought them.

They go off and they found a company called Graphcore that we're going to talk about a little bit at the end of the episode.

It's, you know, maybe one of the primary sort of... NVIDIA bear cases.

NVIDIA bear cases, NVIDIA killers out there.

They've now raised about $700 million in venture capital.

Mobile.

In some ways, it's kind of like Bezos and Jet.com.

Yes.

If Jet had been successful.

I think that's sort of the GraphCore to NVIDIA analogy.

Yes.

Well, the jury's still out if anybody's going to be really successful in competing with NVIDIA.

Although I think the market now is probably, ironically, big enough.

Large, yeah.

NVIDIA can be the whale and there can be plenty of big other companies too, so...

Anyway, okay, back to the story.

So NVIDIA is bumping along through all of this in the early, late 2000s, early 2010s.

You know, some years growth is like 10%.

Maybe it's flat and others like...

This company is completely gone sideways.

In 2011, they whiff on earnings again.

Stock goes through another 50% drawdown.

It's cliche.

I was going to say it.

I don't even know if you can say it about Jensen.

Like here we are.

The company is screwed again.

Like everybody else would have given up, but obviously not them.

So what happens?

Basically, a miracle happens.

I don't know that there's any other way that you can describe this except like a miracle.

So maybe this is actually not a great strategy case study of Jensen because it required a miracle.

Well, Jensen would say it was intentional, that they did know the market timing and that the strategy was right and the investment was paying off, and that they were doing this the whole time.

Yeah, sure.

In fact, even in the Ben Thompson interview I think he said Ben basically lays out like how did all these implausible things happen at exactly the right time?

And his response is, oh, yes, we planned it all.

It was so intentional.

Jensen did not plan alex net or see it coming, because nobody saw alex net coming.

So in 2009, a princeton computer science professor and also undergrad alum of princeton, just like yours truly wonderful place named feifei li.

Their specialty is artificial intelligence and computer science starts working on an image classifying project that she calls image net.

Now, the inspiration for this was actually a way old project from, I think, the 80s at Princeton called WordNet.

That was like classifying words.

This is classifying image, ImageNet.

And her idea is to create a database of millions of labeled images, like images that they have a correct label applied to them.

Like this is a dog or this is a strawberry or something like that.

And that with that database, then artificial intelligence image recognition algorithms could run against that database and see how they do.

So like oh, look at this image of you know you and I were looking, I'd be like that's a strawberry.

But you don't give the answer to the algorithm and the algorithm figures out if it thinks it's a strawberry or a dog or whatever.

So she and her collaborators start working on this.

It's super cool.

They build the database.

They use a Mechanical Turk, Amazon Mechanical Turk to build it.

And then one of them I'm not exactly sure who, if it was Fei Fei or somebody else has the idea of like well, you know, we've got this database.

We want people to use it.

Well, let's make a competition.

This is like a very standard thing in computer science academia of like let's have a competition, an algorithm competition.

So we'll do this annually.

And anyone, any team, can submit their algorithms against the ImageNet database and they'll compete like who can get the lowest error rate, like the most number of images.

Percentage of the images.

Correct.

And this is great.

So it brings her great renown, becomes popular in the AI research community.

She gets poached away by Stanford the next year.

I guess that's OK.

I went there, too.

So that's fine.

And she's still there.

I know.

I couldn't resist.

She's like a kindred spirit to me.

Do you know?

I know, you do know, but I bet most listeners do not know what her endowed tenure chair is at Stanford today.

I do.

She is the Sequoia chair.

Yes.

The Sequoia capital professor of computer science at Stanford.

So cool.

Why does she become the Sequoia capital chair?

And what does all this have to do with NVIDIA?

Well, in the 2012 competition, A team from the University of Toronto submits an algorithm that wins the competition.

And it doesn't just win it by like a little bit.

It wins it by a lot.

So the way they measure this is 100% of the images in the database.

What percentage of them did you get wrong?

So it wins it by over 10%.

I think it had a 15 error rate or something in the next, Like all the best, previous ones have been like 25 point something percent.

Yes.

This is like someone breaking the four minute mile.

Actually, in some ways it's more impressive than the four minute mile thing, because they just didn't brute force their way all the way there.

They like try to completely different approach.

Yes.

And then boom showed that we could get way more accurate than anyone else ever thought.

So what was that approach?

Well, they called the team, which was composed of Alex Krizewski, who was the primary lead of the team.

He was a PhD student in collaboration with Ilya Sutskever and Jeff Hinton.

Jeff Hinton was the PhD advisor of Alex.

They call it AlexNet.

What is it?

It is a convolutional neural network which is a branch of artificial intelligence called deep learning.

Now, deep learning is new for this use case, but Ben, you weren't exactly right.

It had been around for a long time, a very long time and deep learning neural networks.

This was not a new idea.

The algorithms had existed for many decades, I think, but they were really really, really computationally intensive.

They required to train the models to do a deep neural network.

You need a lot of compute, like on the order of grains of sand that exist on Earth.

It was completely impossible with a traditional computer architecture that you could make these work in any practical applications.

And people were forecasting too, like, when with Moore's Law, when will we be able to do this?

And it still seemed like the far future, because not only did Moore's Law need to happen, but you also needed the NVIDIA approach of massively parallelizable architecture, where suddenly you could get all these incredible performance gains, not just because you're putting more transistors in a given space, but because you're able to run programs in parallel now.

Yes.

So Alex Nat took these old ideas and implemented them on GPUs.

And to be very specific, it implemented them in CUDA on NVIDIA GPUs.

We cannot overstate the importance of this moment, not just for NVIDIA, but for like computer science, for technology, for business, for the world, for us staring at the screens of our phones all day, every day.

This was the big bang moment for artificial intelligence.

Nvidia and CUDA were right there.

Yep.

It's funny there's another example within the next couple of years 2012, 2013 where Nvidia had been thinking about this notion of general purpose computing for their architecture for a long time.

In fact, they even thought about should we relaunch our GPUs as GPGPUs general purpose graphics processing units?

And of course, they decided not to do that, but just built CUDA.

Which is code word for like, we've been searching for years for a market for this thing.

We can't find a market.

So we'll just say you can use it for anything.

Right.

And so deep learning is generating a lot of buzz, a lot from this AlexNet competition.

And so, in 2013, Brian Catanzaro, who's a research scientist at NVIDIA, published a paper with some other researchers at Stanford, which included Andrew Ng, where they were able to take this unsupervised learning approach.

That had been done inside the Google Brain team, where they had sort of the Google Brain team had sort of published their work on this, and it had a thousand nodes.

And you know this is a big part of the sort of early neural network hype cycle of people trying cool stuff.

And this team was able to do it with just three nodes.

So totally different model super parallelized, lots of compute for a super short period of time in a really high-performance computing way, or HPC as it would sort of become known.

And this ends up being the very core of what becomes QDNN, which is the library for deep neural networks that's actually baked into CUDA that makes it easy for data scientists and research scientists everywhere who aren't hardware engineers or software engineers to just pretty easily write high-performance deep neural networks on NVIDIA hardware.

So this AlexNet thing, plus then Brian and Andrew Ng's paper, it just collapses all these sort of previously thought-to-be-impossible lines to cross and just makes it way easier and way more performant and way less energy intensive for other teams to do it in the future up and specifically to do deep learning.

So I think at this point, like everybody knows, that this is pretty important, but it's not that much of a leap to say, if you can train a computer to recognize images on its own, that you can then train a computer to see on its own, to drive a car on its own, to play chess, to play go to make your photos look really awesome when you take them on the latest iPhone, even if you don't have everything right.

To eventually let you describe a scene and then have a transformer model paint that scene for you in a way that is unbelievable that a human didn't make it.

Yep.

And then, most importantly, for the market that Jensen and Nvidia are looking for.

You can use the same branch of AI to predict what type of content you might like to see next show up in your feed of content and what type of ad might work really really, really well on you.

So, basically all of these people we were just talking about, I bet a lot of you recognize their names.

They get scooped up by Google.

Feifei Li goes to Google, brian went to baidu and he's back at nvidia now doing applied.

Ai brian went to baidu, jeff hinton goes to facebook.

So you know all the other markets like even throw out say, you don't believe in self-driving cars, you don't think it's going to happen, or any of this other stuff like this doesn't matter.

Like the market of advertising, of digital advertising that this enables is a freaking multi-trillion dollar market And it's funny because that feels like ooh, that's the killer use case.

But that's just the easiest use case.

That's the most obvious well-labeled data set that these models don't have to be amazingly good because they're not generating unique output.

They're just assisting in making something more efficient.

But then flash forward 10 more years and now we're in these crazy transformer models with I don't know if it's hundreds of millions or billions of parameters, that things that we thought only humans could do are now being done by machines.

And it's like, it's happening faster than ever.

So I think to your point David, it's like oh, there was this big cash cow enabled by, you know, neural networks and deep learning in advertising.

Sure.

But that was just the easy stuff.

Right.

But that was necessary though.

This was finally the market that enabled the building of scale and the building of technology to do this.

And uh yes, in the Ben Thompson um jensen interview, ben actually says this when he's sort of realizing this.

Talking to jensen, he says this is ben talking the way value accrues on the internet.

In a world of zero marginal costs, where there's just an explosion in abundance of content, that value accrues to those who help you navigate the content.

He's talking about aggregation theory, duh.

And then he says what i'm hearing from you jensen, is that yes, the value accrues to people that help you navigate that content, But someone has to make the chips and the software so that they can do that effectively.

And it's like it sort of used to be with.

Windows was the consumer facing layer and Intel was the other piece of the Intel monopoly.

This is Google and Facebook and a whole list of other companies on the consumer side.

And they're all dependent on NVIDIA.

And that sounds like a pretty good place to be.

And indeed, it was a pretty good place to be.

Amazing place to be.

Oh, my gosh.

The thing is, like, the market did not realize this for years.

And I mean, I didn't realize this.

And you probably didn't realize this.

We were the class of people working in tech as venture capitalists that should have.

Do you know the Marc Andreessen quote?

Ooh, no.

Oh, this is awesome.

Okay, so it's a couple years later.

So it's like getting more obvious, but it's 2016.

And Marc Andreessen gave an interview.

He said, we've been investing in a lot of companies applying deep learning to many areas.

And every single one effectively comes in building on NVIDIA's platforms.

It's like when people were all building on Windows in the 90s or all building on the iPhone in the late 2000s.

And then he says, for fun, our firm has an internal game of what public companies we'd invest in if we were a hedge fund.

We'd put in all of our money to NVIDIA.

It was Paradigm right that called all of their capital in one of their funds and put it into Bitcoin when it was like 3000 a coin or something like that.

Yes.

We all should have been doing this.

So literally, NVIDIA stock in 20, like recent, like this is now known 2012, 13, 14, 15.

It doesn't trade above like five bucks a share.

And NVIDIA today, as we record this, is I think about 220 a share.

The high in the past year has been well over 300.

Like if you realized what was going on.

And again, in a lot of those years it was not that hard to realize what was going on.

Wow.

Like, it was huge.

It's funny.

So there was even and we'll get to what happened in 2017 and 2018 with crypto in a little bit but there was a massive stock run up to like 65 a share in 2018.

And even as late as I think the very beginning of 2019, you could have gotten it.

I tweeted this and we'll put the graph on the screen in the YouTube version here.

You could have gotten it in that crash for 34 bucks a share.

Wow.

In 2019!

If you zoom out on that graph, which is the next tweet here, you can see that, like in retrospect, that little crash just looks like nothing.

You don't even pay attention to it in the crazy run-up that they had to 350 or whatever their all-time high was.

Yeah.

It's wild.

A few more wild things about this.

It's not until 2016...

Again, AlexNet happens in 2012.

It's not until 2016 that NVIDIA gets back to the 20 billion market cap peak that they were in 2007, when they were just a gaming company.

That's almost 10 years.

I really hadn't thought about it the way that you're describing it, but the breakthrough happened in 2010 2011, 2012.

Lots of people had the opportunity, especially because freaking Jensen's talking about it on stage.

He's talking about it at earnings calls at this point.

He's not keeping this a secret.

No, he's like trying to tell us all that this is the future.

And people are still skeptical.

Everyone's not rushing to buy the stock.

We're watching this freaking magic happen, using their hardware, using their software on top of it.

And like Even semiconductor analysts, who are like students, of listening to Jensen talk and following the space very closely, sort of think.

He sounds like a crazy person when he's up there espousing that the future is neural networks and we're going to go all in and we're not pivoting the business.

But from the amount of attention that he's giving in earnings calls to this versus gaming, I mean, everyone's just like uh, are you off your rocker?

Well, I think people had just lost trust and interest.

You know, after like, there were so many years of like, they were so early with Cuda and early to you know, they didn't even know that this, like they didn't know AlexNet, was gonna happen.

Right.

Jensen felt like... the GPU platform could enable things that the CPU paradigm could not.

And he had this faith that something would happen.

But he didn't know this was going to happen.

And so for years, he was just saying that, like, we're building it.

They will come, you know.

And to be more specific, it was that, well, look, the GPU has accelerated the graphics workload.

So we've taken the graphics workload off of the CPU and The CPU is great.

It's your primary workhorse for all sorts of flexible stuff.

But we know graphics needs to happen in its own separate environment and have all these fancy fans on it and get super cooled.

And it needs these matrix transforms.

The math that needs to be done is matrix multiplication.

And there was starting to be this belief that like, oh well, because the you know professor, the apocryphal professor, told me that he was able to use these program, the matrix transforms, to work for him.

You know, maybe this matrix math is really useful for other stuff.

And sure it was for scientific computing.

And then honestly, like it fell so hard into NVIDIA's lap that the thing that made deep learning work was massively parallelized matrix math.

And they're like, NVIDIA is just like staring down at their GPUs.

Like, I think we have exactly what you are looking for.

Yes, there's a that same uh interview with brian catanzaro.

He says about when all this happened.

He says the deep learning happened to be the most important of all applications that need high throughput computation understatement of the century.

And so once nvidia saw that it was basically instant, the whole company just latched onto it.

There's so many things to law jensen, for you know he was painting a vision for the future, but he was paying very close attention and the company was paying very close attention to anything that was happening.

And then when they saw that this was happening, they were not asleep at the switch.

Yeah, 100%.

It's interesting thinking about the fact that in some ways it feels like an accident of history.

In some ways it feels so intentional that graphics is an embarrassingly parallel problem, because every pixel on a screen is unique.

I mean, they don't have a core to drive every pixel on the screen.

There's only 10000 cores on the most recent NVIDIA graphics cards, but there's not, which is crazy right, but there's way more pixels on a screen, so you know they're not all doing every single pixel at the same time, every clock iteration, but it worked out so well that neural networks also can be done entirely in parallel, like that where every single computation that is done is independent of all the other computations that need to be done, so they also can be done on this super parallel set of cores.

It's just You gotta wonder, like when you kind of reduce all this stuff to just math.

It is interesting that these are two very large applications of the same type of math.

In the search space of the world of what other problems can we solve with parallel matrix multiplication?

There may be more.

There may even be bigger markets out there.

Well, I think there probably will be.

A big part of Jensen's vision that he paints for NVIDIA now, which we'll get to in a sec, is...

This is just the beginning.

There's robotics.

There's autonomous vehicles.

There's the omniverse.

It's all coming.

It's funny.

We just joked about how nobody saw this before the run-up in 2016, 2017.

There were all these years where Mark Andreessen knew whether he made money in his personal account or not.

We'll have to ask him.

But then in 2018.

Another class of problems that are embarrassingly paralyzable is, of course, cryptocurrency mining, and so a lot of people were going out and buying consumer nvidia you know, graphics cards and using them to set up crypto mining rigs in 2016 2017, and then, when the crypto winter hit in 2018 and the end of the ico craze and all that, the mining rig demand it fell off and this had become so big for nvidia that their revenue actually declined, right Yeah, so a couple interesting things here.

Let's talk about technically why.

So the way crypto mining works is effectively guess and check.

You're effectively brute forcing an encryption scheme.

And when you're mining, you know you're trying to discover the answer to something that is hard to discover.

So you're guessing if that's not the right thing, you're incrementing, you're guessing again.

And that's a vast oversimplification and not technically exactly right.

But that's the right way to think about it.

And if you were going to guess and check at a math problem and you had to do that on the order of a few million times in order to discover the right answer, you could very unlikely discover the right answer on the first time, but that probabilistically, is only going to happen to you once, if ever.

And so, well, the cool thing about... these chips is that A, they have a crap ton of cores.

So the problem like this is massively parallelizable, because instead of guessing and checking with one thing, you can guess and check with 10000 at the same time, and then 10000 more and then 10000 more.

And the other thing is it is matrix math.

So yet again, there's this third application beyond gaming, beyond neural networks.

There's now this third application in the same decade, for the two things that these chips are uniquely good at.

And so it's interesting that, like you could build hardware that's better for crypto mining or better for AI.

And both of those things have been built by NVIDIA and their competitors now.

But the sort of like general purpose GPU happened to be pretty darn good at both of those things.

Well, at least way, way, way better than a CPU.

Yeah.

As some of NVIDIA's startup competitors put it today and Cerebrus is the one that I'm thinking of they sort of say well, the GPU is a thousand times better, or you know much, much better than a CPU for doing this kind of stuff.

But it's like a thousand times worse than it should be.

There exists much more optimal solutions for, you know, doing some of this AI stuff.

Interesting.

Really begs the question of, like, how good is good enough in these use cases?

Right.

And now I mean to flash way forward.

The game that NVIDIA and everyone else, all these upstarts, are playing is really it's still the accelerated computing game.

But now it's how do you accelerate workloads off the GPU instead of off the CPU?

Interesting.

Well, back to crypto winter.

The NVIDIA stock gets hammered again.

It goes through another 50% drawdown.

This is just like every five years, this has got to happen.

Which is fascinating because at the end of the day, it was a thing completely outside their control.

Like people were buying these chips for a use case that they didn't build the chips for.

They had really no idea what people were buying them for.

So it's not like they could even get really good market channel intelligence on.

Are we selling to crypto miners or are we selling to, you know, people that are going to use these for gaming?

They're selling to Best Buy and then people go buy them in Best Buy.

Right.

And some people are buying them wholesale, like if you're actually starting a data center to mine.

But a lot of people are just doing this in their basement with consumer hardware.

So they don't have perfect information on this.

And then, of course, the price crashing makes it either unprofitable or less profitable to be a miner.

And so then, your demand dries up for this thing that you A didn't ask for, and B had poor visibility into knowing if people were buying in the first place.

So the terrible to the street at this point, because they had just no ability to understand what was going on in their business.

And I think a lot of the street still had this hangover of skepticism about.

Is this deep learning thing?

Like what Jensen?

Okay.

And so you know it was kind of any excuse to sell off it took.

But anyway, that was short lived to the 50 dip because uh, with the use case, and specifically the enterprise use case for GPUs for deep learning, like it just takes off.

And so this is really interesting.

If you look at Nvidia's um, they report financials a couple different ways, but one of the ways they break it out is a few different segments is the gaming consumer segment and then their data center segment and it's like data center, like what are they in the data set?

Well, all the data centers right, all of the stuff we're talking about, it's all done in the data center.

Like google isn't going and buying, you know, a bunch of nvidia gpus and hooking them up to the laptops of their software engineers.

Like Is Stadia still a thing?

Like I think that's used for cloud gaming and some.

Okay, but if it's all happening in the data center is my point?

Right, right.

I guess what I'm saying.

My argument is every time I see data center revenue in my mind, I sort of make it synonymous with this is their ML segment.

Ah, yes, yes.

That's what I'm saying.

I agree.

Yeah.

Now the data center.

This is really interesting again because they used to sell these cards that would get packaged, put on a shelf.

A consumer would buy them.

Yeah, they made some specialty cards for the scientific computing market and stuff like that.

But this data center opportunity.

Like man, do you know the prices that you can sell gear to data centers for?

Like it makes the RTX 3090 look like a pittance.

And the RTX 3090, which is their most expensive high-end graphics card that you can buy as a consumer, was 3000.

Now it's like $2,000.

But if you're buying, I don't know, what's the latest?

It's not the A100, it's the H100.

So the A100, they just announced the H100.

And that's what, like 20 or 30 grand in order to just get one card?

Yeah.

And people are buying a lot of these things.

Yeah, it's crazy.

It's crazy.

It's funny.

I tweeted about this and I was sort of wrong, but then like everything, there's nuance.

You know, Tesla has announced making their own hardware.

They're certainly doing it for the on the car, the inference stuff like the full self-driving computer on Teslas.

They now make those chips themselves.

Yeah.

The Tesla Dojo, which is the training center that they announced.

They announced they were also going to make their own silicon for that.

They actually haven't done it yet.

So they're still using NVIDIA chips for their training.

The current compute cluster that they have that they're still using.

I want to say I did the math and assumed some pricing.

I think they spent between 50 and 100 million that they paid NVIDIA for all of the compute in that cluster.

Wow, that's one customer.

That's one customer for one use case at that one customer.

Crazy.

I mean, you see this show up in their earnings.

So we're at the part of the episode where we're close enough to today that it's best illustrated by the today numbers.

So I'll just flash forward to what the data center segment looks like now.

So two years ago they had about 3 billion of revenue and it was only about half of their gaming revenue segment.

So gaming through all this, through 2006 to AlexNet, all the way another decade forward to 2020, gaming is still king.

It generates almost $6 billion in revenue.

The data center revenue segment was $3 billion, but had been pretty flat for a couple of years.

So then insanely, over the last two years, it 3x'd.

The data center segment 3x'd.

It is now doing over 105 billion a year in revenue and it's basically the same size as the gaming segment.

It's nuts.

It's amazing how it was sort of obvious in the mid-2010s, but when the enterprises really showed up and said we're buying all this hardware and putting it in our data centers, and whether that's the hyperscalers, the cloud folks Google Microsoft, Amazon putting it in their data centers, or whether it's companies doing it in their own private clouds or whatever they want to call it these days on-prem data centers, everyone is now using machine learning hardware in the data center.

Yep.

And NVIDIA is selling it for very, very, very healthy gross margins, Apple level gross margins.

Yes, exactly.

So speaking of the data center, a couple of things.

One in this is so NVIDIA.

In 2018, they actually do change the terms of the user agreements of their consumer cards, of GeForce cards, that you cannot put them in data centers anymore.

Yeah.

They're like, we really do need to start segmenting a little bit here.

And we know that the enterprises have much more willingness to pay.

And it is worth it.

I mean, you buy these crazy data center cards, and they have like twice as many transistors.

And actually, they don't even have video outputs.

Like you can't use the data center GPUs like the A100 does not have video out.

So they actually can't be used as graphic cards.

Oh yeah, there's a cool Linus Tech Tips video about this, where they get a hold of an A100 somehow and then they run some benchmarks on it, but they can't actually drive a game on it.

Oh, fascinating.

Yeah, so fun.

Data center stuff is super high horsepower but of course useless to run a game on because you can't pipe it to a TV or a monitor.

But then...

It's interesting that they're sort of artificially doing it the other way around and saying for those of you who don't want to spend 30000 on this and are trying to make your own little rig at home, your own little data center rig at home no, you cannot rack these things.

Don't think about going to Fry's and buying a bunch of G-forces.

Ironic, because that's how the whole thing started.

But anyway, in 2020, they acquire an Israeli data center compute company called Mellanox that...

I believe focuses on like a networking compute within the data center.

Yep.

For about 7 billion.

Integrate that into you, know their ambitions and building out the data center.

And the way to think about what Mellanox enables them to do is now they're able to have super high bandwidth, super low latency connectivity in the data center between their hardware.

So at this point, they've got NVLink, which is their... It's like the... What does Apple call it?

A proprietary interconnect?

Or I think AMD calls it the Infinity Fabric.

It's the like super high bandwidth chip to chip connection.

So think about what Mellanox lets them do, is it lets them have these extremely high bandwidth switches in the data center to then let all of these different boxes with NVIDIA hardware and then communicate super fast to each other?

That's awesome.

Because, of course, these data centers that's the other thing about you know customers like that Tesla example I gave.

They're not buying cards, the enterprise because they're buying solutions from NVIDIA.

They're buying bandwidth big boxes with lots of stuff in them.

You say solutions.

I hear gross margin.

That's such a great quote.

We should frame that and put it on the wall of the acquired museum.

It is true that acquiring Mellanox not only enables this now we have this super high connectivity thing, but this is what leads to this introduction of this third leg of the stool of computing for NVIDIA that they talk about now, which is you had your CPU.

It's great.

It's your workhorse.

It's your general purpose computer.

Then there's the GPU, which is really a GPGPU that they've really beefed up and they've really like for the enterprise, for these data centers.

They've put tensor cores in it to do the machine learning specific four by four by four, matrix multiplication super fast and do that really well.

And they've put all this other non-gaming data center specific AI modules onto these chips and this hardware.

And now what they're saying is you've got your CPU, you've got your GPU, now there's a DPU.

And this data processing unit that's like kind of born out of the Mellanox stuff is the way that you really efficiently communicate and transform data within data centers.

So the unit of how you think about like the black box just went from a box on a rack to now you can kind of think about your data center as the black box.

And you can write at a really high abstraction layer.

And then NVIDIA will help handle how things move around the data center.

All right, listeners, it's time to talk about another one of our favorite companies, Statsig.

Since you last heard from us about Statsig, they have a very exciting update.

They raised their Series C, valuing them at $1.1 billion.

Yeah, huge milestone.

Congrats to the team.

Timing is interesting because the experimentation space is really heating up.

Yes.

So why do investors value StatSeg at over a billion dollars?

It's because experimentation has become a critical part of the product stack for the world's best product teams.

Yep.

This trend started with Web 20 companies like Facebook and Netflix and Airbnb.

Those companies faced a problem how do you maintain a fast, decentralized product and engineering culture while also scaling up to thousands of employees?

Experimentation systems were a huge part of that answer.

These systems gave everyone at those companies access to a global set of product metrics, From page views to watch, time to performance.

And then every time a team released a new feature or product, they could measure the impact of that feature on those metrics.

So Facebook could set a company-wide goal like increasing time in app and let individual teams go and figure out how to achieve it.

Multiply this across thousands of engineers and PMs and boom, you get exponential growth.

It's no wonder that experimentation is now seen as essential infrastructure.

Yep today's best product teams like Notion OpenAI, Rippling and Figma are equally reliant on experimentation.

But instead of building it in-house, they just use Statsig.

And they don't just use Statsig for experimentation.

Over the last few years, Statsig has added all the tools that fast product teams need, like feature flags, product analytics, session replays and more.

So if you would like to help your team's engineers and PMs figure out how to build faster and make smarter decisions, go to statsigcom.

Slash acquired.

Or click the link in the show notes.

They have a super generous free tier, a 50000 startup program and affordable enterprise contracts for large companies.

Just tell them that Ben and David sent you.

Okay, so I said one more thing on the data center.

Yes.

Now, one more thing is it's easy to forget now.

I know because we've just been deep on this.

NVIDIA was going to buy ARM.

Do you remember this?

Yes, they were.

And in fact, this is going to be like a corporate communications nightmare.

Everyone out there Jensen, their IR person, different tech people who are being interviewed on various podcasts were talking about the whole strategy and how excited they are to own Arm and how NVIDIA is going to be.

You know it's good on its own, but it could be so much better if we had Arm.

And here's all the cool stuff we're going to do with it.

And then it doesn't happen.

They were talking about it like it was a done deal.

And now you've got dozens of hours of people talking about the strategy.

So you're almost like it's funny that now, after listening to all that, I'm sort of like disappointed with NVIDIA's ambition on its own, without having the strategic assets of Arm.

Yeah.

Yeah, we should revisit Arm at some point.

We did do the SoftBank acquiring Arm episode years and years ago now.

But you know, you think Arm like they are a CPU architecture company whose primary use case is mobile and smartphones.

It's like everything that Intel screwed up on back in the misguided mobile era.

Now they're going and buying like the most important company in that space.

You know, and it's interesting, like again in the Ben Thompson interview, Jensen talks all about this and maybe this is just justifying in retrospect, but I don't think so.

He's like, look, it was about the data center.

Yeah, like everything ARM does is like great and that's fine.

But like we want to own the data center.

When we say we want to own the data center, we want to own everything in the data center.

And we think ARM chips, ARM CPUs can be really a really important part of that.

ARM is not focusing right now enough on that.

Why would they?

Their core market is mobile.

We want them to do that.

We think there's a huge opportunity.

We wanted to own them and do that.

And indeed this year NVIDIA announced they are making a data center CPU, an ARM-based data center CPU called Grace, to go with the new Hopper architecture for their latest GPU.

So there's Grace and Hopper.

Of course, the rear admiral, Grace Hopper, I think.

I think that's right.

She was in the Navy.

She was a great computer scientist, pioneer.

So yeah, like data center.

It's, it's big.

It's interesting.

So the objectors to that acquisition, and it's a good objection.

And this is ultimately, I think, why they abandoned it, because I get the regulatory pressure on this is arms business is simple.

They make the IP and So you can license one of two things from them.

You can license the instruction set.

So even Apple, who designs their own chips, is licensing the ARM instruction set.

And so, in order to use that I don't know what it actually is 20 keywords or so that can get compiled to assembly language to run on whatever the chip is.

If you want to use these instructions, you have to license it from ARM, great.

And if you don't want to be Apple and you don't want to go build your own chips, or you don't want to be NVIDIA or whatever, but you want to use that instruction set, you can also license these off-the-shelf chip designs from us.

And we will never manufacture any of them.

But you take one of these two things you license from us.

You have someone like TSMC make them.

Great.

Now you're a fabulous semiconductor company.

And they sell to everyone.

And so, of course, the regulatory body is going to step in and being like, wait, wait, wait.

So NVIDIA, you're a fabulous chip company.

You're a vertically integrated business model.

Are you going to stop allowing ARM licenses to other people?

And NVIDIA goes, oh, no, no, no, no.

Of course we would never do that.

Over time, they might do some stuff like that.

But the thing that they were sort of like, which is believable, beating the drum on that the strategy was going to be, is right now, our whole business strategy is that CUDA and everything built on top of it, our whole software, services ecosystem is just for our hardware and how cool would it be if you could use that stuff on arm designed ip either just the using the isa or also using the actual designs that people license from them how cool would it be if because we were one company we were able to make all of that stuff available for arm chips as well yep plausible interesting but no surprise at all that they face too much regulatory pressure to go through with this But clearly that idea rattled around in Jensen's head a bunch and in NVIDIA's head because, well, let's catch us up to today.

So they just did GTC at the end of March, the big developer, the big GPU developer conference that they do every year, that they started in 2009 as part of building the whole CUDA ecosystem.

I mean, it's so freaking impressive now.

Like there are now 3 million registered CUDA developers, 450 separate SDKs and models for CUDA.

They announced 60 new ones at this GTC.

We talked about the next generation GPU architecture with Hopper and then the Grace CPU to go along with it.

I think Hopper, I could be wrong on this.

I think Hopper is going to be the world's first four nanometer process chip using TSMC's new four nanometer process, which is, I think that's right.

Amazing to talk a lot about Omniverse.

We're going to talk about Omniverse in a second, but you mentioned this licensing thing.

They usually do their investor day, their analyst day at the same time as GTC.

And in the analyst day, Jensen gets up there.

It's just so funny.

I've been going through the whole history of this now of like, looking for a market, trying to find some market of any size.

And he's like, We are targeting a trillion dollar market.

He's like a startup raising a seed round, walking in with a pitch deck.

We'll put this graphic up on the screen for those watching the video.

It's an articulation of what the segments are of this trillion dollar addressable opportunity that NVIDIA has in front of it.

My view of this is...

If their stock price wasn't what it was.

There's no way that they would try to be making this claim that they're going after a trillion dollar market.

I think it's squishy.

Oh, there's a lot of squish in there.

But the fact that they're valued today, I mean, what's their market cap right now?

Something like... About half a trillion.

Half a trillion dollars.

They need to sort of justify that unless they are willing to have it go down.

Maybe they are, but it leads to things like an Investor Day presentation of let us tell you about our trillion-dollar opportunity ahead.

And the way that they actually articulate it is we are going to serve customers that represent a hundred trillion-dollar opportunity and we will be able to capture about 1 of that.

God, it's just like a freaking seed company pitch deck.

If we just get 1% of the market.

Well, that's the thing.

We're going to talk about this in narratives in a minute, but this is a generational company.

This is unbelievable.

This is amazing.

There's so much to admire here.

This company did what like 20 something billion in revenue last year and is worth half a trillion dollars.

They did $27 billion last year in revenue.

Google AdWords revenue in the fourth quarter of 2021 was $43 billion.

Google as a whole did $257 billion in revenue.

So you got to believe if you're an NVIDIA shareholder.

Right.

They're the eighth largest company in the world by market cap, but these revenue numbers are in a different order of magnitude.

You got to believe it's on the come.

Yeah, you do.

I mean, NVIDIA has literally three times the price to sales ratio of Apple, or price to revenue as Apple, and nearly 2x Microsoft.

And that's on revenue.

I mean, fortunately this NVIDIA story is not speculative in the way that an early stage startup is speculative.

Like even if you think it's overvalued, it is still a very cash generative business.

Yes.

They generate $8 billion of free cash flow every year.

So I think they're sitting on 21 billion in cash because the last few years have been very cash generative.

So the takeaway there is by any metric price of sales price earnings, all that, they're much more richly valued than an Apple or Microsoft or these FANG companies.

But it is, you know, extremely profitable business, even on an operating profits perspective.

Yeah.

Well, you sold enough of that enterprise data center goodness and you can make some money.

It's crazy.

They now have a 66% gross margin.

So that illustrates to me how seriously differentiated they are and how much of a moat they have versus competitors in order to price with that kind of margin.

Because, think back, we'll put it up on the screen here, but Back in 99 they had a gross margin of 30 on their graphics chips.

And then in 2014, they broke the 50% mark.

And then today, and this slide really illustrates it, it's architecture systems data center CUDA, CUDAx.

It's like the whole stack of stuff that they sell as a solution and it's sort of all bundled together.

And bundle is the right word.

I think they get great economics because they're bundling so much stuff together.

It's 66% gross margin business now.

Yep.

So at the analyst day around GTC this year They say that they're going to start licensing a lot of the software that they make separately, licensing it separate from the hardware, like CUDA.

And there's a quote from Jensen here.

The important thing about our software is that it's built on top of our platform.

It means that it activates all of NVIDIA's hardware chips and system platforms.

And secondarily, the software that we do are industry-defining software.

So we've now finally produced a product that an enterprise can license.

They've been asking for it and the reason for that is because they can't just go to open source and download all the stuff and make it work for their enterprise.

No more than they could go to Linux, download open source software and run a multibillion dollar company with it.

You know, when you were, we were joking a few minutes ago about you say solution and I see margin.

You know.

Yeah.

Like open source software companies have become big for this reason.

You know Databricks Confluent Elastic, like these are big companies with big revenue based on open source, because enterprises they're like oh, i want that software, but they're not just going to, you know, go to give your jp morgan.

You're not going to go to github and be like great, i got it.

Now, you know right, you need solutions.

So to jensen and nvidia they see this as an opportunity to i'm sure this isn't going to be cannibalizing hardware customers.

For them i think this is going to be incremental selling on top of what they're already doing.

That's an important point and I think this is a playbook theme that I had.

But oftentimes when someone has hardware that is differentiated by software and services and then they decide to start selling those software and services a la carte, it's a strategy conflict.

It's your classic vertical versus horizontal problem, unless you are good at segmentation.

And that's sort of what NVIDIA is doing here, which is what they're saying.

Well, we're only going to license it to people that there's no way that they would have just bought the hardware and gotten all this stuff for free.

So if we don't think it's going to cannibalize and they're a completely different segment and we can do things in pricing and distribution channel and terms of service that clearly walls off that segment, then we can behave in a completely different way to that segment.

Yeah, and get further returns on our assets that we've generated.

Yep.

It is a little Tim Cook though in, you know, Tim Cook beating the services narrative drum.

I mean it is kind of you hear public company CEO who has a high market cap and everyone's asking where the next phase of growth is going to come from, and saying we're going to sell services.

And look at this growing business line of licensing that we have.

Oh my goodness.

But who else is going to do it wearing a leather jacket?

That is a great point.

It's a great point.

Frankly, Elon.

But well, we'll talk about cars in a second.

Okay, so a few other things just to talk about the business today that I think are important to know, just as you sort of like think about, sort of have a mental model for what NVIDIA is.

It's about 20,000 employees.

We mentioned they did 27 billion in revenue last year.

We talked about this very high revenue multiple or earnings multiple, or however you want to frame it, relative to FANG companies.

They're growing much faster, right? than Apple, Microsoft, Google, they're growing at 60% a year.

This is a 30-year-old company that grew 60% in revenue last year.

If you're not used to wrapping your mind around that startups double and triple in the first five years that they exist.

Google has had this amazing run where they're still growing at 40%.

Microsoft went from 10% to 20% over the last decade.

Again, amazing they're accelerating, but like, NVIDIA's growing at 60%.

Right.

I don't care what your discount rate is.

Having 60 growth in your DCF model versus 20 or 40 will get you a lot more multiple.

Inflation be damned.

Okay, a couple other things about specific segments of the business that I think are pretty interesting.

So they have not slept on gaming.

Like we keep beating this NVIDIA data center enterprise machine learning argument.

Yeah, we haven't even talked about ray tracing and...

Right, yeah, this RTX set of cards that they came out with.

The fact that they can do ray tracing in real time, holy crap.

For anyone who's looking for sort of a fun dive on how graphics works, go to the Wikipedia page for ray tracing.

It's very cool.

You model where all the light sources are coming from, where all the paths would go in 3D.

The fact that NVIDIA can render that in real time at 60 frames a second or whatever, while you're playing a video game is nuts.

And one of the ways that they do that, they invented this new technology that's extremely cool.

It's called DLSS, Deep Learning Super Sampling.

And this, I think, is where NVIDIA really shines, bringing machine learning stuff and gaming stuff together, where they basically have faced this problem of well, we either could render stuff at low resolution with less frames, because we can only render so much per amount of time, or we could render really high resolution stuff with less frames.

And nobody likes less frames, but everyone likes high resolution.

So what if we could cheat death?

And what if we could get high resolution and high frame rate?

And they're sitting around thinking, how on earth could we do that?

And they're like, you know what?

Maybe this 15-year bet that we've been making on deep learning can help us out.

And what they discovered here and invented in DLSS and AMD does have a competitor to this.

It's a similar sort of idea, but this DLSS concept is totally amazing.

So what they basically do is they say, well...

It's very likely that you can infer what a pixel is going to be based on the pixels around it.

It's also pretty likely you can infer what a pixel is going to be, based on what it was in the previous frames.

And so let's actually render it at a slightly lower resolution so we can bump up the frame rate.

And then, when we're outputting it to screen, we will use deep learning to artificially At the final stage of the graphics pipeline.

Yes.

Yeah, that's awesome.

It's really cool.

And when you watch the side by side on all these YouTube videos, it looks amazing.

I mean, it does involve really tight embedded development with the game developers.

They have to sort of do stuff to make it DLSS enabled.

But it just looks phenomenal.

And it's so cool that when you're looking at this 4K or even 8K output of a game at full frame rate, you're like whoa in the middle of the graphics pipeline.

This was not this resolution.

And then they magically upscaled it.

It's basically making the like enhance joke like a real thing.

That's so awesome.

I'm remembering back to the Revo 128 in the beginning of, when they went to game developers and they were like Yeah yeah, yeah.

All the blend modes in DirectX, you know, you don't need all of them.

Just use these.

Yes, exactly.

Exactly.

And they have the power to do it.

I mean, they have the stick and the carrot with game developers to do it.

Oh, I mean at this point, no game developer is not gonna make their games optimized for the latest NVIDIA hardware.

Yeah.

The other thing that is funny, that's within the gaming segment because they didn't want to create a new segment, for it is crypto.

So, because they have poor visibility into it and before they weren't liking the fact that it was actually reducing the amount of cards that were available to the retail channel for their gamers to go and buy, what they did was they artificially crippled the card to make it worse at crypto mining, and then they came out with a dedicated crypto mining card.

Yes.

And so the charitable PR thing from NVIDIA is hey, we love gamers and we didn't want to make it so that the gamers couldn't get access to all the cards they want.

But really they're like hmm, people are just straight up performing an arbitrage by crypto mining on these cards.

Let's make that more expensive on the cheap cards and let's make dedicated crypto hardware for them to buy to do those.

Let's make that our arbitrage.

Yes.

Your arbitrage is my opportunity.

So magically, their revenue is more predictable now and they get to make more money because, much like their sort of terms of service data center thing, they terms of serviced their way to being able to create some segmentation and thus more profitability.

Love it.

Evil, evil genius laugh.

The last thing that you should know about NVIDIA's gaming segment is this really weird concept of add-in board partners.

So we've been oversimplifying in this whole episode, saying oh you know, you go and you buy your RTX 3090 Ti at the store and you run your favorite game on it.

But actually, you're not buying that from NVIDIA the vast majority of the time.

You are going to some third-party partner, Asus, MSI, Zotac is one.

There's also a bunch of really low-end ones as well, who NVIDIA sells the cards to, and those people install the cooling and the branding and all this stuff on top of it and you buy it from them.

And it's really weird to me that NVIDIA does that.

I love how consumer gaming graphics cards have become the modern day equivalent of a hot rod.

Oh, dude, as you can imagine for this episode, I've been hanging a lot on the NVIDIA subreddit.

And like, it's not actually about NVIDIA or NVIDIA, the company or NVIDIA, the strategy.

It's like show off your sick photos of your glowing rig, which is pretty funny.

But it feels like a remnant of old NVIDIA that they still do this.

They do make something called the Founder's Edition card, and it's basically a reference design where you can buy it from NVIDIA directly.

But I don't think the vast majority of their sales actually come from that.

Oh, it's like one of the Android phones that Google makes, Pixel?

Yeah, it's exactly like that, the Pixel.

It's exactly what it is, yeah.

So I suspect that shifts more over time.

I can't imagine a company that wants as much control as NVIDIA does, loves the add-in board partner thing, but they've built a business on it and so they're not really willing to cannibalize and alienate.

But I bet if they had their way and they're becoming a company that can more often have their way they'll find a way to kind of just go more direct.

Makes sense.

Two other things I want to talk about.

One is automotive.

So this segment has been like very small from a revenue perspective for a long time and seems to not have a lot of growth.

But Jensen says in his pitch deck, it's going to be a $300 billion part of the dam.

And I think right now it's something like, is it a billion dollars in revenue?

I think it's like a billion dollars, but it doesn't really grow.

I don't even know if it's that much.

Don't quote me on that.

So here's what's going on with automotive, which is pretty interesting.

What NVIDIA used to do for automotive is what everyone used to do for automotive, which is make fairly commodity components that automakers buy and then put in there.

Every technology company has had their fanciful attempt to try to create a meaningfully differentiated experience in the car.

All have failed.

You think about Microsoft and the Ford Sync.

Ford Sync.

Oh, wow.

You think about CarPlay, kind of, maybe a little bit works.

And the only company that's really been successful has been Tesla at starting a completely new car company.

That's the only way they're able to provide a meaningful, differentiated experience.

NVIDIA is.

Maybe EVs, electric vehicles and autonomous driving is a way to break in and create a differentiated experience, even if we're not going to make our own cars.

And so I think what's really happening here is when you hear them talk about automotive now and they've got this very fancy name for it.

It's the Something Drive platform.

Oh, Hyperion Drive, is that it?

Something like that?

Something like that.

But dealing with NVIDIA's product naming is maddening.

But this drive platform it kind of feels like they're making the full EV AV hardware software stack, except for the metal and glass and wheels.

And then going to car companies and saying look, you don't know how to do any of this.

This thing that you need to make is basically a battery and a bunch of GPUs and cameras on wheels.

And like you're issuing these press releases saying you're going in that direction, but none of this is the core competency of your company, except the sales and distribution.

So like, what can we do here?

And if NVIDIA is successful in this market, it'll basically look like you know, an NVIDIA computer, full software, hardware with a car chassis around it that is branded by whatever the car company is.

Like the Android market.

Yeah.

And I think we will see if the shift to autonomous vehicles is A real B near term and C enough of a dislocation in that market to make it so that someone like NVIDIA, a component supplier, actually can get to own a bunch of that value chain versus the auto manufacturer, kind of forever stubbornly getting to keep all of it and control the experience.

Yeah.

Which, to do a mini bull and bear on this here before we get to the broader on the company.

You know the bull case for that is.

We were again a friend of the show Jeremy messaging with in Slack.

Lotus is one of their partners.

Is Lotus going to go build autonomous driving software?

Like, I don't think so.

Ferrari?

No.

Not at all.

They're going to be NVIDIA cars, effectively.

Yeah.

Okay, last segment thing I want to talk about is how we opened the show, talking about the Nvidia Omniverse.

And this is not Omniverse like Metaverse.

It is similar in that it's kind of a 3D simulation type thing, but it's not an open world that you wander around in the same way that Meta is talking about or that you think about in Fortnite or something like that.

What they mean by omniverse is pretty interesting.

So a good example of it is this Earth 2, this digital twin of Earth that they're creating that has these really sophisticated climate models that they're running.

That basically, is a proof of concept to show enterprises who want to license this platform.

We can do super realistic simulations of anything that's important to you.

Mm-hmm.

And what their pitch is to the enterprise is, hey, you've got something.

Let's say it is a bunch of robots that need to wander around your warehouse to pick and pack.

If it's Amazon, who actually?

Amazon is a customer.

They showcase Amazon in all their fancy videos.

And they say you're going to be using our hardware and software to train models to figure out the routes for these things that are driving around your data centers.

You're going to be licensing certainly some of our hardware to actually do the inference, to put on the robots that are driving around.

When you want to make a tweak to a model, you're not just going to deploy those to all the robots.

You kind of want to run that in the omniverse first.

And then when it's working, then you want to deploy it in the real world.

And their Omniverse pitch is basically it's an enterprise solution that you can license from us where, anytime you're going to change anything in any of your real world assets, first model it in the Omniverse.

And I think that's a really powerful.

I believe in the future of that in a big way because I think now that we have the compute, the ability to gather the data and the ability to actually run these simulations in a way that has an efficient way of running it and a good user interface to understand the data, people are going to stop testing in production with real world assets and everything's going to be modeled in the omniverse first before rolling out.

This is what an enterprise metaverse is going to be.

This is not designed for humans.

Humans may interact with this.

There will be UI.

You'll be able to be part of it.

The purpose of this is for simulating applications.

And most of it, I think, is going to run with no humans there.

Yep.

Pretty crazy.

Yeah.

It's a good idea.

Sounds like a good idea.

All right.

You want to talk bear and bull case on the company?

Let's do it.

Analysis.

So, I mean, they paint the bull case for us when they say there's a $100 trillion future.

We're going to capture 1% of it.

There's $300 billion from automotive.

Here's the four or five segments that add up to a trillion dollars of opportunity.

Sure.

That's like a very neat way with a bow on it and a very wishy-washy hand wavy way of articulating it.

So the question sort of becomes, where does AMD fall in all this?

They're a legitimate second-place competitor for high-end gaming graphics and, I think, will continue to be.

That feels like a place where these two are going to keep going head-to-head.

The bare case is that there's a TikTok rather than a durable competitive advantage for NVIDIA, but most high-end games you can play on both AMD and NVIDIA hardware at this point.

The question for the data center is is the future these general purpose GPUs that NVIDIA continues to modify the definition of GPU to include specialized functions as well?

All this other stuff they're putting in their hardware.

Or is there someone else who is coming along with a completely different approach to accelerated computing, whether accelerating workloads off the GPU onto something new like a Cerebrus or like a GraphCore that is going to eat their lunch in the enterprise AI data center market?

That's an open question.

You know, it's interesting.

Like people have been talking about that for a while.

The other big bear case that people have been talking about again for a while now is, you know, the big, big customers of NVIDIA that are paying them a lot of money.

The Teslas, the Googles, the Facebooks, the Amazons, the Apples, and not just paying them a lot of money and getting, you know, assets of value of that.

They're paying high gross margin dollars to NVIDIA for what they're getting.

That those companies are going to want to say you know, it's not that hard to design our own silicon to bring all this stuff in house.

We can tune it to exactly our use cases, sort of similar to the Cerberus Graphcore bear case on NVIDIA.

I think in both of these cases, you know, it hasn't happened yet.

Well, there have been a lot of people who have made a lot of noise, but there have been few that have executed on it.

Like Apple has their own GPUs on the M1s.

Tesla is switching.

Hasn't happened yet, but switching to their own for the full self-driving.

They're doing their own stuff on the car and they're switching.

Yep, that is switch on the inference side.

Yes.

On device.

Yes, that has happened.

But look, NVIDIA is probably strong in that.

But I think the real thing to watch is the data center.

And Google is probably the biggest bear case there.

It's interesting to talk about these companies, and particularly Cerebras, because what they're doing is such a gigantic swing and a totally different take than what everyone else has done.

For folks who hasn't sort of followed the company, they're making a chip that's the size of a dinner plate.

Everyone else's chip is like a thumbnail, but they're making a dinner plate size chip.

And you know, the yields on these things kind of suck.

So like they need all the redundancy on those huge chips to make it so that.

Oh my God, the amount of expense to do that.

Right.

And you can put one on a wafer.

These wafers are crazy expensive to make.

Wow.

So you get poor yields in the wrong places on a wafer and like that whole wafer is toast.

Right.

So a big part of the design of Cerebrus is this sort of redundancy and the ability to turn off different pieces that aren't working.

They draw 60 times as much power.

They're way more expensive.

Like, if NVIDIA is going to sell you a 20000 or 30000 chip, Cerebrus is going to sell you a 2 million chip to do AI training.

And so it is this bet in a big way on hyper-specialized hardware for enterprises that want to do these very specific AI workloads.

And It's deployed in these beta sites in research labs right now.

And not there yet, but it'll be very interesting to watch if they're able to meaningfully compete for what everyone thinks will be a very large market, these enterprise AI workloads.

I mentioned Google that made a bunch of noise about making their own silicon in the data center and then stayed the course and stayed really serious about it with their TPUs.

Their business model is different.

So nobody knows what the bill of materials is to create a TPU.

Nobody knows really what they cost to run.

They don't retail them.

They're only available in Google Cloud.

And so Google is sort of counter-positioned against NVIDIA here, where they're saying we want to differentiate Google Cloud with this, offering that, depending on your workload, it might be much cheaper for you to use TPUs with us than for you to use NVIDIA hardware with us or anyone else.

And they're probably willing to eat margin on that in order to grow Google Cloud's share in the cloud market.

Interesting.

So it's kind of the Android strategy, but run in the data center.

One thing we haven't mentioned, but we should, is cloud is also part of the NVIDIA story, too.

You can get NVIDIA GPUs in AWS and Azure and Google Cloud, and that is part of the growth story for NVIDIA too.

And NVIDIA is starting their own cloud.

You can get direct-from-NVIDIA cloud-based GPUs.

Data center GPUs.

Interesting.

Yeah.

It'll be very interesting to see how this all shakes out with NVIDIA, the startups, and with Google.

I mean, all that said, though, like, I...

But look, NVIDIA is very, very, very richly valued on a valuation basis right now.

Very.

With another very in there.

It depends if you think their growth will continue.

Are they a 60% growing company year over year over year for a while?

Then they're not richly valued.

But if you think it's a COVID hiccup or a crypto hiccup.

But to the bull bear case in both the startups and the big tech companies doing this stuff in-house.

It's not so easy.

You know like yeah, Facebook and Tesla and Google and Amazon and Apple are capable of doing a lot.

But we just told this whole story.

This is 15 years of CUDA and the hardware underneath it and the libraries on top of it that NVIDIA has built.

To go recreate that and surpass it on your own is such an enormous, enormous bite to bite experience.

Yes.

And if you're not a horizontal player and you're a vertical player, you better believe that the pot of gold at the end is worth it for you, for this massive amount of cost to create what NVIDIA has created.

Like NVIDIA has the benefit of getting to serve every customer.

If you're Google, and their strategy is what I think it is, of not retailing TPUs at any point, then your customer is only yourself.

So you're constrained by the amount of people you can get to use Google Cloud.

Well, and at least with Google, they have Google Cloud that they can sell it through.

Yep.

Power.

Ooh, power.

So the way I want to do this section because in our NVIDIA episode we covered the first 13 years of the company.

We talked a lot about what does their power look like up to 2006.

And now I want to talk about what does their power look like today.

What is the thing that they have that enables them to have a sustainable competitive advantage and continue to maintain pricing power over their nearest competitor, be it Google, Cerebrus in the enterprise or AMD in gaming?

Yep.

And just to enumerate the powers again, as we always do counter-positioning scale economies, switching costs, network economies, process power branding and cornered resource.

So there are definitely scale economies.

The whole CUDA investment.

Yes.

Not at first but definitely now is predicated on being able to amortize that.

A thousand plus employees spend over the base of the three million developers and all the people who are buying the hardware to use what those developers create.

This is the whole reason we spent 20 minutes talking about.

If you were going to run this playbook, you needed an enormous market to justify the capex you were going to put in.

Right.

So very few other players have access to the capital and the market that NVIDIA does to make this type of investment.

So they're basically just competing against AMD for this.

Totally agree.

Scale economies to me is like the biggest one that pops out.

To the extent that you have lock-in to developing on CUDA which I think a lot of people really have lock-in on CUDA then that's major switching costs.

Yep.

Like if you're going to boot out NVIDIA, that means you're booting out CUDA.

Is CUDA a cornered resource?

Oh, interesting.

Maybe.

I mean, it only works with NVIDIA hardware.

You could probably make an argument there's process power.

Or at least there was somewhere along the way, with them having the six month ship cycle advantage.

That probably has gone away, since people trade around the industry a lot.

And that wasn't sort of a hard thing for other companies to figure out.

Yeah, I think process power definitely was part of the first instantiation of NVIDIA's power, to the extent it had power.

Right.

Yeah, I don't know as much today, especially because TSMC will work with anybody.

In fact, TSMC is working with these new startup, billion-dollar-funded silicon companies.

Yes, they are.

Yes.

Yeah, it's funny.

I actually heard a rumor and we can link to it in the show notes that the Ampere series of chips, which is the one immediately before the Hopper, the sort of A-series chips, are actually fabbed by Samsung, who gave them a sweetheart deal.

NVIDIA likes to keep the lore alive around TSMC because they've been this great longtime partner and stuff, but they do play manufacturers off each other.

I even think that Jensen said something recently.

Like Intel has approached us about fabbing some of our chips and we are open to the conversation.

Yes, yes, that did happen.

So there was this big cybersecurity hack a couple of months ago by this group Lapsus, and they stole access to NVIDIA's source code.

And actually, Jensen went on Yahoo Finance and talked about the fact that this happened.

I mean, this is a very public incident.

And it's clear from the demands of Lapsus where some of NVIDIA's power lies.

Because they demanded two things.

They said, one, get rid of the crypto governors.

Like make it so that we can mine, which may have been a red herring.

That might have just been them trying to look like a bunch of crypto miner people.

And the other thing they demanded is that NVIDIA open source all of its drivers and make available its source code online.

I don't think it was for CUDA.

I think it was just the drivers.

But it was very clear that we want you to make open your trade secrets so that other people can build similar things.

And that, to me, is illustrative of the incredible value and pricing power that NVIDIA gets by owning not only the driver stack but all of CUDA, and how tightly coupled their hardware and software is nvidia is.

We just did this, our most recent episode with hamilton and chen yi.

Nvidia is a platform in my mind.

No doubt about it cuda and nvidia and general purpose computing on gpus as a platform.

So, whatever you know, all of the stew of powers that go into making that, that go into making apple microsoft, you know, and the like, go into nvidia, Yep.

I think the stew of powers is the right way to phrase that.

Yes.

Anything else here or you want to move to playbook?

Let's move to playbook.

So man, I just wrote down in advance one that is such a big one for me.

But, like man, you really, really want to invest in whoever is selling the picks and the shovels in a gold rush.

The AI ML, deep learning, gold rush, those years gosh, oh my gosh.

We should all be kicking ourselves of 2012 13, maybe not 2012, but certainly 2014 2015, into 2016, like that.

Duh, you know mark andreessen saying every startup that comes in here wants to do ai and deep learning and they're all using nvidia.

Like maybe we should have bought nvidia.

Like i don't know if any one of those startups, any given one, is going to succeed, but i'm pretty sure nvidia was going to succeed back then.

Yeah, it's such a good point kicking myself.

One I have is being willing to expand your mission.

So it's funny how Jensen, in early days, would talk about to enable graphics to be a storytelling medium.

And of course this led to the invention of the pixel shader and the idea that everybody can sort of tell their own visual story their own way in a social networked, real-time way.

Very cool.

And now it's much more that wherever there is a CPU, there is an opportunity to accelerate that CPU.

And NVIDIA will bring accelerated computing to everyone.

And we will make all the best hardware, software and services solutions to make it so that any computing workload runs in the most efficient way possible through accelerated computing.

That's pretty different than enable graphics as a storytelling medium.

But also, they need to sell a pretty big story around the Tam that they're going after.

I think there's also something to the whole NVIDIA story you know across the whole arc of the company of.

You know it's sort of a cliche thing at this point in startup land but so few companies and founders can actually do it.

Just not dying.

Yeah.

They should have died at least four separate times and they didn't.

And part of that was brilliant strategy.

Part of that was things going their way.

But I think a large part of it too was just the company and Jensen particularly in these most recent chapters where they're already a public company just being like yeah, I'm willing to just sit here and endure this pain.

And I have confidence that we will figure it out.

The market will come.

I'm not going to declare game over.

One that I have is we mentioned at the top of the show.

But the scale of everything involved in machine learning at this point, and anything semiconductors, is kind of unfathomable.

You and I mentioned falling down the YouTube rabbit hole with that Asianometry channel and I was watching a bunch of stuff on how they make the silicon wafers and my god, floor planning.

Is this just unbelievable exercise at this point in history, especially with the way that they sort of overlay different designs on top of each other on different layers of the, the chip.

Yeah, see more about what floor planning is.

I bet a lot of listeners won't know.

So it's funny how they keep appropriating these sort of real world large scale analogies to chips.

So floor planning, the way that an architect would lay out the 15 rooms in a house, or five rooms in a house or two rooms in a house on a chip, is laying out all of the circuitry and wires on the actual chip itself, except of course there's like 10 million rooms.

And so it's incredibly complex.

And the stat that I was going to bring up, which was just mind bending to think about, is that there are dozens of miles of wiring on a GPU.

Wow.

That is mind-bending.

Because these things are like you know, I don't know.

They're less than the size of your palm, right?

Right.

And obviously it's not wiring in the way you think about like a wire.

I'm going to reach down and pick up my Ethernet cable, but it's wiring in the EUV etched substrate.

On-ship exposure is probably the term that I'm looking for here, photolithography exposure.

But it is just so tiny.

I mean you can say 4 nanometers all you want David, but that won't register with me how freaking tiny that is, until you're sort of faced with the reality of dozens of miles of quote-unquote wires on this chip.

Yeah, it's not like to me that registers as like, oh yeah, that's like a decal I put on my hot rod.

Four nanometers.

I got the S version.

But yeah, like that's what that means.

Okay, here's one that I had that we actually even talked about, which I think will be fun.

So I generated a CapEx graph.

Ooh, fun.

We'll show it on screen here for those watching on video.

Obviously, there's a very high looking line for Amazon because building data centers and fulfillment centers is very expensive, especially in the last couple of years when they're doing this massive build out.

But imagine, without that line for a And this is relative for people listening on audio, relative to a bunch of other, you know, Fang-type companies.

Yeah, so Apple has $10 billion of spend on capital expenditures per year.

Microsoft and Google have $25 billion.

TSMC, who makes the chips, has $30 billion.

What a great capital-efficient business that NVIDIA has on their hands, only spending a billion dollars a year in CapEx.

It's like it's a software business.

And it basically is...

Well, it is, right?

Like TSMC does the fabbing.

NVIDIA makes software and IP.

Yep.

So here, this is the best graph for you to very clearly see the magic of the fabless business model that Morris Chang was so gracious to invent when he grew TSMC.

Thank you, Morris.

Another one that I wanted to point out, it's a freaking hardware company.

I know they're not a hardware company, but they're a hardware company with 37% operating margins.

So this is even better than Apple.

And for non-finance folks, operating margins, so we talked about their 66% gross margin.

That's like unit economics.

But that doesn't account for all the headcount and the leases and just all the fixed costs in running the business.

Even after you subtract all that out, 37 of every dollar that comes in gets to be kept by Nvidia shareholders.

It's a really, really, really cash generative business.

And so if they can continue to scale and can keep these operating margins or even improve them, because they think they can improve them, that's really impressive.

Wow.

I didn't realize that's better than Apple's.

Yeah, I think it's not as good as like Facebook and Google, because they just run these like Well, those are digital monopolies.

Like, come on.

Basically zero cost digital monopolies in some of the largest markets in history.

But it's still very good.

Now is a great time to thank good friend of the show, ServiceNow.

We have talked to listeners about ServiceNow's amazing origin story and how they've been one of the best performing companies the last decade.

But we've gotten some questions from listeners about what ServiceNow actually does.

So today we are going to answer that question.

Well, to start, a phrase that has been used often here recently in the press is that ServiceNow is the quote-unquote AI operating system for the enterprise.

But to make that more concrete, ServiceNow started 22 years ago focused simply on automation.

They turned physical paperwork into software workflows, initially for the IT department within enterprises.

That was it.

And over time, they built on this platform going to more powerful and complex tasks.

They were expanding from serving just IT to other departments like HR finance, customer service, field operations and more.

And in the process, over the last two decades, ServiceNow has laid all the tedious groundwork necessary to connect every corner of the enterprise and enable automation to happen.

So when AI arrived, well, AI kind of just by definition is massively sophisticated task automation.

And who had already built the platform and the connective tissue within enterprises to enable that automation.

ServiceNow.

So to answer the question, what does ServiceNow do today?

We mean it when they say they connect and power every department.

IT and HR use it to manage people, devices, software licenses across the company.

Customer service uses ServiceNow for things like detecting payment failures and routing to the right team or process internally to solve it.

Or the supply chain org uses it for capacity planning, integrating with data and plans from other departments to ensure that everybody's on the same page.

No more swivel chairing between apps to enter the same data multiple times in different places.

And just recently ServiceNow launched AI agents so that anyone working in any job can spin up an AI agent to handle the tedious stuff.

Freeing up humans for bigger picture work.

ServiceNow was named to Fortune's World's Most Admired Companies list last year and Fast Company's Best Workplace for Innovators last year.

And it's because of this vision.

If you want to take advantage of the scale and speed of ServiceNow in every corner of your business, go to servicenowcom slash acquired and just tell them that Ben and David sent you.

Thanks, ServiceNow.

Okay.

Grading.

So I think the way to do this one, David, is what's the A plus case?

What's the C case?

What's the F case?

I think so.

And there's sort of an interesting way to do this one, because you could do it from a shareholder perspective, where you have to evaluate it based on where it's trading today and sort of like what needs to be true in order to have a A plus investment starting today, that sort of thing.

You mean like a Michael Mobison expectations investing style?

Yes, exactly.

Or you could sort of close your eyes to the price and say, let's just look at the company.

If you're Jensen, what do you feel would be an A-plus scenario for the company, regardless of the investment case?

I kind of think you have to do the first one, though.

I kind of think it's a cop-out to not think about it like what's the bull and bear investment case from here.

As we pointed out many times on the episode, there's a lot you got to believe to be a bull on NVIDIA at this share price.

What are they?

Well, one big one is that they continue their incredible dominance.

And they're what?

Are they growing like?

75 or something year over year in the data center.

Yep.

And they just sort of continue to own that market.

I think there's a plausible story there around all the crazy gross margin expansion they've had from sort of selling solutions rather than, you know, fitting into someone else's stuff.

I also think with the Mellanox acquisition, there's a very plausible story around this idea of a data processing unit and around being your one-stop shop for AI data center hardware.

And I think, rather than saying like, oh the upstart, competition will fail, I think you kind of have to say that NVIDIA will find a way to learn from them and then integrate it into their strategy too.

Which seems plausible, right?

Yeah, but they've been very good at changing the definition of GPU over time to mean more and more robust stuff and accelerate more and more compute workloads.

And I think you just have to kind of bet that because they have the developer attention, because they now have the relationships to sell into the enterprise, they're just going to continue to be able to.

Do their own innovation, but also fast follow when it makes sense to redefine GPU as something a little bit heftier and incorporate other pieces of hardware to do other workloads into it.

Yep.

I think the question for me on an A-plus outcome for NVIDIA from the shareholder perspective is do you need to believe that all the real-world AI use cases are going to happen?

Do you need to believe that some basket maybe not all of them, but that some basket of autonomous vehicles, the omniverse robotics, one or multiple of those three are going to happen?

They're going to be enormous markets and that NVIDIA is going to be a key player in them.

I mean I think you do, because I think that's where all the data center revenue is coming from is companies that are going after those opportunities.

I'm wrestling with whether that is something you have to believe or whether that's optionality.

The reason it would be only optionality, only upside, is if the digital AI we know that that's a big market.

There's no question about that at this point.

Is that going to continue to just get so big?

Are we still only scratching the surface there?

How much more AI is going to be baked into all the stuff we do in the digital world?

And will Nvidia continue to be at the center of that?

I don't know.

I don't have a great way to assess how much growth is left there.

That is kind of the right question, though.

Yeah.

They're in an interesting point right now.

You know, there was all that early company stuff that we talked about in the first episode.

But at the beginning of this episode, You know, Jensen was really asking you to believe.

It's like, hey, we're building this CUDA thing.

Just ignore that there's no real use case for it or market.

Now there is a real, real use case and market for it, which is machine learning, deep learning in the digital world.

Undeniable.

He's also pitching now that that will exist in the physical world, too.

Yeah, the A-plus is definitely that it does exist in the physical world and they are the dominant provider of everything you need to be able to accomplish that.

Yep.

And if the real world stuff you know these little robots that run around factory floors and the autonomous vehicles and if that stuff doesn't materialize, then yeah, there's no way that it can support the growth that it's been on.

Yeah.

I think that's probably right.

That would be my hunch.

Although saying that, though, does feel like a little bit of a betting against the Internet.

You know, like, I don't know, man.

Digital world's pretty big and keeps getting bigger.

Yeah.

But I think we're saying the same thing.

I think you're saying that these physical experiences will become more and more intertwined with your digital experiences.

Yeah.

I mean, autonomous driving in electric vehicles is an internet bet.

In part, if you want to bet on the growth of the internet, it'll mean you'll drive less.

But it also means that you're just going to be on the internet when you're driving.

Yeah.

Or when you're in motion in the physical world.

That's actually, that's a bull case for Facebook, right?

Is like, is autonomous vehicles.

Because if people are being driven instead of driving, that's more time there on Instagram.

Right.

It's so true.

Okay, what's the failure case?

It's actually quite hard to imagine a failure case of the business in any short order.

It's very easy to imagine a failure case for the stock in short order if there's a cascading set of events of people losing faith.

I think maybe the failure case is this amazing growth for the past couple of years was pandemic pull forward.

It's so hard for me to imagine that that's like to the degree of a Peloton or a Zoom or something like that.

Right.

By the way, I think are great companies.

They just got everything pulled forward.

I don't think NVIDIA got everything pulled forward.

They probably got a decent amount pulled forward.

Hard to quantify, hard to know, but it's the right thing to be thinking about.

Yeah.

All right, carve outs.

Ooh, carve outs.

I've got a fun one, small one.

Well, a collection of small things.

Longtime listeners probably know one of my favorite I think my favorite series of books that have been written in the past 10 years is The Expanse series.

Amazing sci-fi, nine books, so great.

The ninth book came out last fall.

Uh, it was just even with like a newborn.

I made time to read this book.

That's awesome, newborn plus acquired.

I was like i gotta tell you now That's how you know.

So the authors have been writing short stories like companion short stories alongside the main narrative over the last decade that they've been doing this.

And they released a compendium of all the short stories, plus a few new ones called Memories Legion.

And it's just really cool.

Like.

I mean, they're great writers, great short stories to read, even if you don't know anything about the Expanse story.

But if you know the whole nine book saga and then these like just paint little, give you a little glimpses into corners and like characters that just exist and you don't question otherwise.

But you're like, oh, what's the backstory of that?

I've been really enjoying that.

So it's like the solo of the Fantastic Beasts and where to find them.

Exactly.

It's like nine or ten of those.

Cool.

Mine is a physical product.

Actually, for the episode we did with Brad Gerstner on Altimeter, we needed a third camera.

And so I went out and bought a Sony RX100, a little point-and-shoot camera, and recently took it to Disneyland.

And I must say, it is so nice to have a point-and-shoot camera again.

It's funny how it's gone full circle.

I was a DSLR person forever and then I got a mirrorless camera and then I became a mirrorless plus big long zoom lens person forever.

But it's kind of annoying to lug that around.

And then, once I started downgrading my phone from the massive awesome iPhone with the 3x zoom and I now have the iPhone 13 mini I think that's what it is with the two cameras and no zoom lens is really disappointing.

So it's pretty awesome.

It fills a sort of spot in my camera lineup to have a point and shoot with a really long zoom lens on it.

And, of course, like it's not as nice as having a full frame mirrorless with like an actual zoom lens, but it really gets the job done.

And it's nice to have that sort of like real feeling mirrorless style image that is very clearly from a real camera and not from a phone.

That is, it's slightly more inconvenient to carry because you kind of need another pocket.

Yeah, I was going to ask, can you put it in your pocket?

Yeah, I put it in a pocket.

I don't have to have a sort of like a rapid strap around my neck, which is nice.

Nice.

So the Sony RX100, great little device.

It's like the seventh generation of it.

And they've really refined the industrial design at this point.

That's awesome.

I actually just bought my first camera cube like a travel camera cube thing for our Alpha 7Cs.

Now that we have literally it's four acquired for when, after the altimeter episode, i was like, oh wow, we gotta do more in person.

Yeah yeah, ben brought his down, i was like, for sure, i'm gonna need to bring this somewhere.

These cameras are just, they are so good, they're so good.

All right listeners, thank you so much for listening.

You should come chat about this episode with us in the Slack.

There's 11,000 other smart members of the Acquired community, just like you.

And if you want more Acquired content after this and you are all caught up go check out our LP show by searching Acquired LP show in any podcast player.

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And we have a job board, acquired.fm slash jobs.

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We'll see you next time.

[엔비디아(NVIDIA): 하드웨어에서 플랫폼으로, 그리고 그 너머의 비전]-[Nvidia Part II: The Machine Learning Company (2006-2022)]

📋 Summary

엔비디아의 진화: 그래픽 카드에서 범용 컴퓨팅 플랫폼으로

CUDA: 엔비디아 제국의 핵심 기반

알렉스넷(AlexNet)과 AI의 빅뱅

데이터 센터와 엔터프라이즈 솔루션으로의 도약

미래를 향한 도전: 자율주행과 옴니버스

결론: 엔비디아의 해자(Moat)

🎯Key Sentences

📝Key Phrases

📖 Transcript

[엔비디아(NVIDIA): 하드웨어에서 플랫폼으로, 그리고 그 너머의 비전]-[Nvidia Part II: The Machine Learning Company (2006-2022)]

📋 Summary

엔비디아의 진화: 그래픽 카드에서 범용 컴퓨팅 플랫폼으로

CUDA: 엔비디아 제국의 핵심 기반

알렉스넷(AlexNet)과 AI의 빅뱅

데이터 센터와 엔터프라이즈 솔루션으로의 도약

미래를 향한 도전: 자율주행과 옴니버스

결론: 엔비디아의 해자(Moat)

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