Google in talks with Blackstone, KKR, EQT for omnibus Gemini AI licensing as OpenAI and Anthropic build consulting ventures



TL;DR

Alphabet is in talks with Blackstone, KKR, and EQT to give their portfolio companies access to Gemini models through omnibus licensing agreements. The approach is fundamentally different from OpenAI’s ten billion dollar Deployment Company and Anthropic’s 1.5 billion dollar Blackstone joint venture, both of which embed engineers inside client organisations. Google is betting that enterprise AI is a platform problem, not a services problem.

OpenAI built a ten billion dollar consulting company. Anthropic built a 1.5 billion dollar consulting company. Google is writing a licensing agreement. The difference in approach may determine which AI lab captures the largest new enterprise distribution channel to emerge since the birth of cloud computing itself: the portfolio companies of the world’s biggest private equity firms.

Alphabet is in talks with Blackstone, KKR, and European private equity firm EQT to give their portfolio companies access to Google’s Gemini AI models under omnibus licensing agreements, according to a Bloomberg report published on Monday. The discussions are not exclusive and no deals have been finalised. But the structure Google is proposing is fundamentally different from what its two principal competitors have built, and the difference reveals a strategic bet about how enterprise AI will actually be deployed at scale.

The race

The private equity AI land grab accelerated over the past week with a velocity that suggests the three leading AI labs view buyout firms not as customers but as distribution infrastructure. On Sunday, OpenAI finalised The Deployment Company, a ten billion dollar joint venture anchored by TPG with 19 investors including Brookfield, Advent, and Bain Capital. The structure guarantees investors a 17.5 per cent annual return over five years, with OpenAI committing up to 1.5 billion dollars of its own capital and retaining strategic control through super-voting shares. The business model is Palantir’s forward-deployed-engineer approach applied to AI: teams of OpenAI engineers embedded directly inside client organisations, redesigning workflows across healthcare, logistics, manufacturing, and financial services.

The same day, Anthropic announced its own 1.5 billion dollar enterprise services firm with Blackstone, Hellman and Friedman, and Goldman Sachs, each anchoring at roughly 300 million dollars, with General Atlantic, Leonard Green, Apollo, GIC, and Sequoia also participating. The venture will embed engineers inside portfolio companies to integrate Claude into core business operations, operating as something between a consulting arm and a deployment factory.

Google’s approach is different. Rather than building a joint venture, hiring hundreds of engineers, and sending them into portfolio companies with implementation playbooks, Alphabet is negotiating licensing agreements that give an entire private equity firm’s portfolio access to Gemini models and Google Cloud AI infrastructure under a single commercial arrangement. The distinction is not merely structural. It reflects a fundamentally different theory about what enterprise AI customers actually need.

The logic

OpenAI and Anthropic are betting that the bottleneck in enterprise AI adoption is implementation. Their joint ventures assume that companies need not just access to frontier models but teams of specialist engineers who can redesign processes, build custom integrations, and manage the transition from pilot to production. The model is labour-intensive, high-margin, and slow to scale. It is also, if the implementation succeeds, extraordinarily sticky: once an AI lab’s engineers have rebuilt a company’s core workflows around a specific model family, the switching costs become prohibitive.

Google is betting that the bottleneck is procurement. Google has already committed 750 million dollars to a partner fund financing agentic AI deployments through Accenture, Deloitte, KPMG, PwC, and NTT DATA, the consulting firms that already serve the portfolio companies of Blackstone and KKR. The omnibus licensing model layers on top of this existing channel: rather than building its own consulting operation, Google is offering private equity firms a commercial wrapper that gives their entire portfolio access to Gemini, then relying on the consulting ecosystem it has already financed to handle implementation. The approach trades consulting revenue for distribution speed, prioritising breadth over depth.

The scale of the opportunity explains the urgency. Blackstone and KKR manage combined assets exceeding two trillion dollars across thousands of portfolio companies spanning healthcare, logistics, technology, real estate, and financial services. EQT manages approximately 130 billion euros. If Google secures omnibus deals with all three firms, it would open the largest single new customer channel in Alphabet’s history since the launch of Google Cloud.

The context

Alphabet’s market capitalisation surged past 4.6 trillion dollars after Q1 2026 earnings that beat estimates across every division. Google Cloud crossed 20 billion dollars in quarterly revenue for the first time, growing 63 per cent, with the cloud backlog nearly doubling to more than 460 billion dollars. Revenue from products built on generative AI models grew nearly 800 per cent year on year. The company is not negotiating from weakness. It is negotiating from the position of a platform that already has 750 million Gemini users and an ecosystem of consulting partners that captured up to 7.05 dollars for every dollar spent on Google Cloud.

The competitive dynamics are complicated by the fact that Blackstone appears on both sides of the table. It is simultaneously a founding investor in Anthropic’s 1.5 billion dollar joint venture and a potential customer of Google’s omnibus licensing programme. Blackstone also recently created Blackstone N1, a new West Coast division dedicated exclusively to its AI and high-growth technology investments, which include stakes in both OpenAI and Anthropic. The firm is not choosing a single AI provider. It is positioning itself as a distribution channel for all of them, extracting value from the competition between labs rather than committing to one platform.

The question

Anthropic’s earlier discussions about pushing Claude into enterprise through private equity and the rapid formation of both The Deployment Company and the Anthropic-Blackstone venture suggest that the AI labs believe the next phase of the model wars will be fought inside portfolio companies, not in benchmark leaderboards. The private equity channel is attractive because it bundles thousands of mid-market companies under a single commercial relationship, compresses the enterprise sales cycle from months to weeks, and creates a feedback loop in which implementation data flows back to the AI lab, improving the models that the portfolio companies depend on.

But the three approaches carry different risks. OpenAI’s Deployment Company has raised the most capital and promised the highest returns, which means it must generate substantial recurring revenue quickly or face investor pressure. Anthropic’s venture is smaller but ties it to a specific set of financial sponsors whose portfolio companies may not represent the broadest cross-section of enterprise use cases. Google’s licensing model is the cheapest to operate and the fastest to scale, but it cedes the implementation relationship to third-party consultants, which means Google may never develop the deep understanding of enterprise workflows that OpenAI and Anthropic are building through their embedded-engineer programmes.

The private equity AI race is, at its core, a distribution bet. OpenAI is building a consultancy. Anthropic is building a consultancy. Google is building a licensing business. The first two approaches assume that enterprise AI is a services problem. The third assumes it is a platform problem. The history of enterprise technology suggests that platforms eventually win, but only if the product is good enough to survive without hand-holding. Whether Gemini meets that threshold across thousands of portfolio companies, in industries ranging from healthcare to logistics to financial services, is the question that Google’s omnibus licensing model is designed to answer. The deals have not been signed. The race to sign them has already begun.



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Recent Reviews


The first computer my family owned was an 80286 IBM clone, and it had lots of ports, none of which looked the same. There was a big 5-pin DIN for the keyboard, a serial port, a parallel port, a game port for our joystick, and of course, the VGA port for the monitor.

In comparison, a modern computer has much less diversity in the port department. Not only are there fewer types of ports, but the total number may be quite low as well. When we move to modern laptops, it can be much more minimalist. Some laptops have just a single port on the entire machine! Is this a bad thing? As with anything, the extremes are rarely ideal, but I’d say overall, this has been a pretty positive development for PCs.

The port explosion era was never sustainable

It was more like a port infection

You see, the reason we had so many ports for so long is that people kept inventing new interfaces to make up for the shortcomings of existing ones. However, instead of the newer, better interfaces making the old ones obsolete, they just became additive as perfectly summarized in this classic XKCD comic.

A comic illustrates how competing standards multiply: first showing 14 competing standards, then people agreeing to create one universal standard, followed by a final panel showing there are now 15 competing standards. Credit: Randall Munroe (CC-BY-NC)

In laptops, the need for so many ports reached ridiculous heights. In this video posted by X user PC Philanthropy, you can see his Sager/Clevo D9T absolutely packed with all the trimmings leading to a rather massive laptop.

It is undeniably a cool machine, but obviously goes against the principle of portable computing. Also, every port you install means power and space that could have been taken up by something else. That’s true for laptops and desktops.



















Quiz
8 Questions · Test Your Knowledge

PC ports and motherboard I/O
Trivia challenge

Think you know your USB from your PCIe? Put your connector knowledge to the test.

PortsStandardsHardwareConnectorsMotherboards

Which USB connector type is fully reversible, meaning it can be plugged in either way?

Correct! USB Type-C features a symmetrical oval design that lets you insert it in either orientation. Introduced in 2014, it has become the dominant connector for modern devices and supports everything from data transfer to video output and fast charging.

Not quite — the answer is USB Type-C. The older USB Type-A connector (the flat rectangular one) famously required you to flip it at least twice before getting it right. USB Type-C’s reversible design was one of its biggest selling points when it launched in 2014.

What does the ‘x16’ in a PCIe x16 slot refer to?

Exactly right! PCIe x16 means the slot has 16 data lanes, allowing significantly more bandwidth than smaller x1 or x4 slots. This is why discrete graphics cards almost always use x16 slots — they need that extra throughput to feed pixel data to your display.

Not quite — the ‘x16’ refers to the number of data lanes. More lanes mean more simultaneous data paths between the CPU and the card. Graphics cards use x16 slots because their massive data demands require all 16 of those lanes working together.

Which port on a motherboard is most commonly used to connect a display directly to the CPU’s integrated graphics?

That’s correct! The HDMI and DisplayPort connectors found on a motherboard’s rear I/O panel are wired directly to the CPU’s integrated graphics unit. If you have a discrete GPU installed, you should use that card’s outputs instead for best performance.

The right answer is the HDMI or DisplayPort connectors on the rear I/O panel. These ports bypass the discrete GPU entirely and tap into the CPU’s built-in graphics. It’s a common troubleshooting trap — plugging a monitor into the motherboard instead of the GPU and wondering why nothing works.

What is the primary function of the 24-pin ATX connector on a motherboard?

Spot on! The 24-pin ATX connector is the main power connector that delivers multiple voltage rails — including 3.3V, 5V, and 12V — from the power supply to the motherboard. Without it seated properly, your PC simply won’t power on at all.

The correct answer is delivering power from the PSU to the motherboard. The 24-pin ATX connector is the big wide plug you’ll find on every modern motherboard. It supplies several different voltage levels that the board distributes to components. PCIe cards get their supplemental power from separate 6- or 8-pin connectors directly from the PSU.

Which of the following rear I/O ports transmits both audio and video in a single cable and is most commonly found on modern motherboards?

Correct! HDMI carries both high-definition audio and video over a single cable, making it one of the most convenient display connectors available. It became standard on motherboards as integrated graphics improved, and modern versions support 4K and even 8K resolutions.

The answer is HDMI. VGA is analog-only and carries no audio, DVI-D is digital video only without audio, and S-Video is an older analog format. HDMI bundles both audio and video digitally, which is why it became the go-to connector for TVs, monitors, and motherboard rear panels alike.

What maximum theoretical data transfer speed does USB 3.2 Gen 2×2 support?

Impressive! USB 3.2 Gen 2×2 achieves 20 Gbps by using two 10 Gbps lanes simultaneously — that’s what the ‘2×2’ means. It requires a USB Type-C connector and is most commonly found on high-end motherboards, making it ideal for fast external SSDs.

The correct answer is 20 Gbps. The ‘2×2’ in the name is the key clue — it bonds two 10 Gbps channels together. USB naming got notoriously confusing around this era, with the same physical port potentially supporting very different speeds depending on the generation label printed in the spec sheet.

What is the role of the M.2 slot found on most modern motherboards?

Well done! M.2 is a compact form-factor slot that most commonly hosts NVMe SSDs, which connect via PCIe lanes for blazing-fast storage speeds. Some M.2 slots also support SATA-based SSDs and Wi-Fi/Bluetooth combo cards, making the slot surprisingly versatile.

The correct answer is housing compact storage drives or wireless cards. M.2 replaced the older mSATA standard and supports both PCIe NVMe drives and SATA drives depending on the slot’s keying. NVMe M.2 drives can achieve sequential read speeds many times faster than traditional SATA SSDs.

Which audio connector color on a standard PC rear I/O panel is designated for the main stereo line output to speakers or headphones?

That’s right! The green 3.5mm jack is the standard line-out port used for speakers and headphones in the PC audio color-coding scheme. Blue is line-in for recording, and pink is the microphone input — a color system that’s been consistent across PC motherboards for decades.

The correct answer is green. PC audio jacks follow a long-standing color convention: green for headphones and speakers, blue for line-in (recording from external sources), and pink for the microphone. It’s one of those legacy standards that has quietly persisted even as USB and digital audio have become more common.

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USB-C (almost) solved the problem

So close, but not quite there yet

Released to the public in the mid ’90s, USB came to the rescue. The “U” is for “Universal” and for the most part USB has lived up to that promise. Now there was one port that handled data and power. More importantly, USB is fully backwards compatible. So if you plug a USB 1.1 device into a modern USB port, it should work. Whether you can get software drivers for it is another story, but it will talk to the host device.

USB-C has proven to be less universal than I’d like, and the situation is still far better than it used to be. A single USB-C port on one of my laptops can act as a video output for just about anything, even an old VGA monitor.

A Macbook, CRT monitor, and iPad connected together. Credit: Sydney Louw Butler/How-To Geek

My smaller laptops don’t need special chargers anymore, and the latest laptops can pull 240W over USB-C, which is enough for all but the beefiest desktop replacement machines. There is no type of peripheral I can think of that doesn’t give you the option to use it over USB.

But the complaints aren’t so much that we only get USB these days, it’s more that we get so little of it.

Minimal I/O enables better hardware design

Harder, better, faster, stronger

When you only put a handful of USB-C ports on a mobile computer, you reap numerous benefits. The low profile of USB-C means the laptop can be thinner, and the frame can be a stronger and more rigid unibody design. Internally, you have room for more battery, larger performance components, or better cooling.

A green Apple MacBook Neo on display on a wooden table with a product sign behind it. Credit: Patrick Campanale / How-To Geek

It also means the internals can be simpler, and cheaper to design and fabricate, though whether those savings are passed on to customers is another story altogether.

Wireless and cloud-first workflows reduce physical dependency

I guess they are “air” ports

Perhaps the first sign of major change was when smartphones dropped headphone jacks, but the fact is that wireless technologies are now good enough for most peripheral and data connections. So, there’s no need to connect them directly to a port on a computer. Which, in turn, means that there’s no reason to have as many ports on the computer in the first place.

I can’t remember the last time I used a wired mouse or keyboard, and I only use Ethernet for devices that need extremely high speeds, low latency, or improved reliability. For normal day-to-day use, modern Wi-Fi is just fine. So while your laptop might not have as many wired ports on the outside, those wireless chips on the inside still give it numerous connectivity options for audio, input, and data transfer.

You could even make the same argument about storage to some extent, with many thin and light systems leaning on cloud storage to make up for a lack of ports to connect external storage.

MacBook Neo colors on a white background.

Operating System

macOS

CPU

A18 Pro

The MacBook Neo with the A18 Pro chip is Apple’s most affordable laptop yet, with all-day battery life and buttery-smooth performance in a thin and light profile.



The dongle backlash misses the bigger picture

The last bit of the port protest centers around dongles, but I never understood the complaints. Having one port that can be broken out into whatever ports you need using a little box is amazing. It makes ports optional and gives you the choice. If you never plug your laptop into anything, why deal with all the ports you’ll never use?

Likewise, if you only ever use ports with your laptop when you dock it at a desk, then you can just leave your dongle ready to go on your desk, but throwing a small dongle in your laptop sleeve or bag in case you might need it is a small price to pay for all the benefits of minimal IO.



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