S5 Ep. 4 - YouTube: The rise of a media OS

S5 Ep. 7 - Why future of computing might not be on earth

Elon Musk just merged xAI into SpaceX with a plan that sounds absurd until you run the numbers: build data centers in orbit.Not small experiments but industrial-scale computing infrastructure floating 340 miles above Earth (same distance of NASAs telescope Hubble), powered by solar arrays, cooled by the vacuum of space, training AI models that would potentially bankrupt terrestrial facilities.The immediate reaction is skepticism. Rockets are expensive. Space is hard. Servers belong in buildings, not orbit.But strip away the science fiction framing and what remains is a serious economic calculation that every executive should understand: sometimes the cost of working around a constraint exceeds the cost of eliminating it entirely. Nature.com - The development of carbon-neutral data centers in space The constraint no one can optimize AI training has hit a wall. Not a technical wall. A physics wall. Training GPT-4 required approximately 50 gigawatt-hours of electricity. The next generation requires exponentially more. Frontier models now consume energy equivalent to small countries (es. Belgium), running for weeks or months continuously.Data centers already eat 1-2% of global electricity. AI is accelerating that dramatically. And here's the killer: in a typical hyperscale facility, cooling accounts for 38-40% of total energy consumption. For every watt your servers burn doing computation, you spend nearly another watt just preventing thermal failure.This isn't inefficiency but physics. Dense computing generates massive heat. Remove it continuously or the hardware dies.The industry has optimized relentlessly. Better airflow. Liquid cooling. Chip-level thermal management. But optimization has limits, and those limits are approaching faster than most realize. You can only pack so much compute into a building before cooling becomes impossible regardless of technology.Meanwhile, AI's appetite keeps growing. Meta, Google, Microsoft, and others are each planning to spend over $60 billion annually on AI infrastructure. Much of that goes to power and cooling.This is the constraint that changes everything. Not because it's insurmountable today, but because it's exponentially worsening and the traditional solutions don't scale. Haysfluidcontrols.com Math that makes orbit interestingMoving data centers to space sounds expensive until you compare it to the alternative.A 100-megawatt terrestrial AI facility costs $1-1.5 billion to build. Over ten years it consumes roughly 8,760 gigawatt-hours of electricity. At $60 per megawatt-hour, that's $525 million just for power. You spend 38-40% of that, approximately $200 million, on cooling alone. Add construction, land, taxes, maintenance and you're approaching $2 billion total cost of ownership.Now consider orbital economics: Historically (up to year 2000s), this calculation was laughable. Launch costs of $10,000-20,000 per kilogram made space infrastructure prohibitively expensive for anything except satellites and scientific missions.SpaceX's Starship changes this fundamentally. Current projections target $100 per kilogram to low Earth orbit, potentially as low as $10 per kilogram at full operational scale. That's not incremental improvement. It's two to three orders of magnitude cheaper.A server rack weighs 1,000-2,000 kilograms. At $100 per kilogram, launching one costs $100,000-200,000. At $10 per kilogram, it's $10,000-20,000. For comparison, the servers themselves often cost more than their launch at these prices.But weight adds up. A meaningful orbital data center requires thousands of racks, solar arrays, thermal radiators, communication equipment, structural elements. Even at optimistic weights, you're launching hundreds of thousands of kilograms.Here's where the calculation gets interesting. At $10-100 per kilogram, putting 100,000 kilograms of infrastructure in orbit costs $1-10 million for launch. The equipment itself might cost $50-100 million. Total upfront: $51-110 million. Made with Claude Pro Operational costs nearly disappear. Power is free once solar arrays are deployed. Cooling requires zero energy because thermal radiation to space is passive. No property taxes. No grid fees. No atmospheric corrosion. Maintenance becomes the primary ongoing expense.Compare that to terrestrial alternatives where you're spending $200 million on cooling energy alone over a decade, and the economics start shifting.Problem 1: Maintenance The most legitimate objection to orbital data centers isn't launch costs or power but maintenance.Terrestrial data centers have technicians on-site twenty-four hours a day. When a server fails, someone swaps it within hours. When a cooling system malfunctions, engineers fix it immediately. When software needs updating, IT teams access the hardware directly. This operational flexibility is taken for granted, but it's fundamental to how data centers work.In orbit, none of this exists. You cannot send a technician to replace a failed drive. You cannot physically access servers for diagnostics. Hardware failures that would take hours to fix terrestrially might render orbital infrastructure permanently degraded.This isn't theoretical. The challenge is well understood from decades of satellite operations. And it's exactly where major tech companies have been quietly building expertise.Amazon's Project Kuiper isn't just about internet connectivity. It's a testbed for operating thousands of satellites in low Earth orbit with minimal ground intervention. The project requires automated health monitoring, predictive failure analysis, and graceful degradation when components fail. These are precisely the capabilities needed for orbital data centers.Microsoft has been experimenting with underwater data centers through Project Natick, deliberately choosing environments where physical access is difficult and expensive. The goal wasn't really about underwater deployment. It was about learning to operate sealed, autonomous data center modules that could run for years without human intervention. The operational lessons translate directly to space.Google has been operating large satellite constellations and investing heavily in machine learning for infrastructure management. Their data centers already use AI to optimize cooling and predict hardware failures before they become critical. Extending this to orbital environments where prediction becomes essential rather than merely beneficial is a natural progression.SpaceX itself has been solving these problems at scale with Starlink. Managing over 6,000 satellites in low Earth orbit requires automation, redundancy, and the ability to route around failures seamlessly. When a Starlink satellite fails, the constellation reconfigures automatically. Traffic routes to healthy satellites. The network continues functioning. This is exactly the operational model orbital data centers would require.The pattern across all these initiatives is the same: build redundancy at the system level rather than relying on rapid physical intervention. Design for graceful degradation. Use software to route around hardware failures. Monitor predictively and replace proactively during scheduled maintenance windows rather than reactively when things break.In practice, this means orbital data centers would likely operate differently from terrestrial facilities. Instead of repairing individual failed servers, you might design for 20-30% redundancy and simply route computation away from failed units. Instead of frequent small maintenance interventions, you might plan for complete module replacements every few years, launched as part of regular refresh cycles.The economics work if component reliability is high enough and redundancy is cheap enough. In orbit, redundancy doesn't cost cooling energy. Adding 30% extra compute capacity doesn't increase your power bill by 30% because power is free. It only increases upfront launch costs, which at $10-100 per kilogram becomes manageable.This is where the major tech companies are placing strategic bets. Not necessarily on orbital data centers specifically, but on the underlying capabilities that make autonomous, high-reliability distributed infrastructure possible. Whether that infrastructure lives underwater, in orbit, or in remote terrestrial locations, the operational challenges are similar.The company that masters maintenance-free or maintenance-minimal data center operations gains strategic advantage regardless of where those facilities physically exist. And if orbital economics do eventually favor space deployment, that advantage compounds. Made with Canva Problem 2: FuelEach Starship launch requires approximately 3,400 tons of propellant, mostly liquid methane and liquid oxygen. Critics rightfully point out this represents enormous energy expenditure just to reach orbit. But context matters.A 100-megawatt data center running continuously for ten years consumes energy equivalent to burning roughly 2.6 million tons of natural gas. The propellant for a few dozen launches to establish orbital infrastructure is a small fraction of the fuel that would be burned powering that facility terrestrially over its operational lifetime.The strategic calculation isn't about eliminating energy use. It's about frontloading energy expenditure to access a location where ongoing energy is free and abundant. Solar power in orbit has no atmospheric losses, no day-night cycles, no weather interference. It's not 15-20% efficient like terrestrial solar. It approaches theoretical maximums. Moreover, SpaceX is developing propellant production from atmospheric CO2 and water using renewable energy. If launch fuel can be produced sustainably, the energy equation shifts even further toward orbital deployment.This is how infrastructure economics change. You spend significant upfront resources to access conditions where ongoing costs approach zero, the am SUBSCRIBE [https://giulioranucci.substack.com/]

S5 Ep. 6 - EU Inc: Scaling or fading in the AI era

Full Article HERE [https://www.linkedin.com/pulse/eu-inc-scaling-fading-ai-era-giulio-ranucci-6ybif/?trackingId=P7Yr59QCTCaBhgq%2Bh3oxPg%3D%3D] Europe has never lacked talent. It has never lacked research excellence, engineering depth, or ambitious founders. What it has consistently struggled to build is something else, a reliable path from innovation to scale.For more than twenty years, the European tech story has followed a recurring arc. companies are founded, validated, and often celebrated locally. But when growth accelerates, capital intensity increases, and global ambition becomes unavoidable, gravity pulls them elsewhere. Most often, to the United States. As of the mid-2020s: * the United States hosts 600+ unicorns * Europe hosts roughly 130–150, spread across multiple hubs (Source: StartupBlink, Atomico State of European Tech). Between 2018 and 2021, Europe experienced a strong acceleration in unicorn creation. But sustaining that momentum proved difficult.The main reason is capital depth. According to Atomico and Crunchbase data: * Europe consistently captures ~15–18% of global VC funding * the US captures 50%+, with a dominant share of late-stage rounds Since 2015, Europe has missed out on hundreds of billions of dollars in growth capital compared to the US particularly in rounds above $50M, where scale is determined (Atomico, Sifted).This is not a failure of founders or ideas. It is the consequence of how the system is designed. Scale means crossing the AtlanticThe list is familiar. Spotify chose a direct listing in New York. Elastic went public on the NYSE. Farfetch and Adyen built their global investor base outside Europe. More recently, conversations around Klarna or Bending Spoons point in the same direction: when scale and liquidity matter, US markets remain the default option.This preference has little to do with patriotism or branding. It has everything to do with market depth. American public markets, especially Nasdaq, offer liquidity, analyst coverage, and a class of institutional investors that understand growth, technology risk, and long-term compounding. European exchanges, still fragmented along national lines, rarely offer the same combination. The result is predictable. Capital shapes outcomes, and exits follow capital.The capital gap in numbersData makes the pattern hard to ignore. Over the past decade, the United States has consistently hosted more than half of the world’s unicorns. Europe, by comparison, has produced a fraction of that number, despite comparable population size and strong academic output. The difference becomes even clearer at later stages. While Europe captures a meaningful share of early-stage venture funding, it systematically underperforms in large growth rounds. Capital above $50 million the kind that determines whether a company becomes regional or global remains far more abundant in the US.Since 2015, European scale ups have collectively raised hundreds of billions less than their American counterparts. This gap does not reflect weaker ideas. It reflects a thinner, more fragmented capital market.And once US investors enter the cap table, strategic gravity shifts. Board composition changes. Exit expectations evolve. Public listings, when they happen, increasingly take place outside Europe. Europe is not short on exits. What it lacks are exits that reinforce scale. Most European tech outcomes still come through acquisitions, often by American companies. Large IPOs are rarer and less repeatable. In the US, by contrast, public markets function as a continuation of the venture ecosystem, allowing companies to raise capital, stay independent, and keep growing after going public.Without this feedback loop, Europe repeatedly trains companies for someone else’s market.Fragmentation as a structural taxThis is where the problem becomes concrete. Europe operates across dozens of legal systems, tax regimes, labor laws, and capital market rules. Each difference is manageable on its own. Together, they slow everything down.Founders face complexity when issuing stock options across borders. Investors face friction when deploying capital at scale. Companies face operational drag precisely at the moment when speed matters most. This fragmentation acts as a hidden tax on ambition.Citi Institute released a report, “Reimagining European Capital Markets: From Fragmentation to Harmonization”, which focuses on post-trade challenges and fragmentation in the context of capital markets in Europe, and the key benefits of a unified European capital market.In a world of geopolitical and macroeconomic volatility, Europe has an opportunity to position itself as an attractive alternative for investment, innovation, and influence. The moment for incremental change has passed. Shahmir Khaliq, Head of Services, CitiThe report outlines how a unified European capital market could add hundreds of billions in annual investment, boost regional GDP and retain European savings in their own region. The research sheds light on the critical need to address the deep-seated fragmentation within European capital markets with findings detailing the high costs, inefficiencies, and lack of innovation stemming from disparate regulations and infrastructure.As the report cites, a unified European capital market is estimated to add €150 billion ($175.5bn) in annual investments and positively impact the GDP by 1.5% over 10 years, driven by higher risk diversification opportunities, higher market liquidity, the availability of a safe asset and more appetite for investing in the EU of both domestic and foreign investors with a higher propensity for risk.Europe does not fail to create startups. It fails to make scaling feel natural. Why AI changes the stakesArtificial intelligence reshapes this equation.AI-native companies are global from inception. They scale through software, models, and data rather than physical infrastructure. They reward research depth, long-term thinking, and institutional credibility areas where Europe is strong.The rise of governance-first AI approaches, such as Anthropic’s Constitutional AI framework, reflects a broader shift. In AI, competitive advantage is no longer just about raw performance. It is also about trust, safety, and the ability to operate across jurisdictions.This should be Europe’s moment. But only if innovation is matched by infrastructure.Europe is rich in initiatives, funds, accelerators, and public programs. What it lacks is an integrated platform that allows companies to move smoothly from idea to scale, from one market to twenty-seven, and from private capital to public markets.Scaling does not fail because of vision. It fails because of friction. Why EU–INC mattersEU–INC is a policy initiative aimed at creating a single, pan-European legal status for startups the proposal seeks to eliminate the regulatory fragmentation of the 27 member states to make Europe a unified market for innovative companies, similar to the United States or China.Key Features of EU–INC: * Single Legal Entity: An optional corporate structure at the EU level that exists alongside national laws without replacing them. * Digital-First Registration: Businesses can register entirely online through a centralized EU registry. * Standardization: It introduces standardized investment documents and a unified framework for employee stock options, making it easier to attract talent and raise capital across borders. * 2027 Implementation: Following the legislative proposal in early 2026, the framework is expected to be fully operational by 2027. The initiative began as a bottom-up movement supported by a petition from over 15,000 startup founders (including leaders from Stripe, Wise, and DeepL) and investors. You can find more information and updates on the EU–INC official website below: 👉 https://www.eu-inc.org/ [https://www.eu-inc.org/] 👈 Rather than adding another program, EU Inc. proposes a structural shift: a pan-European legal entity designed specifically for startups and scaleups. A framework that reduces cross-border friction, standardizes key building blocks, and makes Europe legible and investable as a single market.In an AI-driven economy, where speed compounds and scale arrives early, this kind of infrastructure is not a bureaucratic detail. It is a strategic necessity."A startup from California can expand and raise money all across the United States. But our companies still face way too many national barriers that make it hard to work Europa-wide, and way too much regulatory burden." Ursula von der Leyen, Oct 2024 [https://www.youtube.com/watch?v=1m06dqXo4bw&t=823s]Europe does not need more talent. It needs to stop losing momentum at the moment it matters most.EU Inc. is not the entire solution, but it is a meaningful step toward turning Europe into a place where innovation does not just start it stays, scales, and competes globally.Giulio Ranucci SUBSCRIBE [https://giulioranucci.substack.com/]

S5 Ep. 5 - How 1990s game design created AI blueprint

In October 2024, the tech world marked a historic milestone: Demis Hassabis, CEO and co-founder of Google DeepMind, [https://en.wikipedia.org/wiki/Google_DeepMind] was awarded the Nobel Prize in Chemistry for his work on AlphaFold [https://alphafold.ebi.ac.uk/] (AI system by DeepMind that accurately predicts the 3D structure of proteins solving the long-standing "protein folding problem [https://pmc.ncbi.nlm.nih.gov/articles/PMC2443096/#:~:text=The%20protein%20folding%20problem%20is,first%20atomic-resolution%20protein%20structures.]"). To many, it looked like the culmination of a career devoted to “serious” science. But to anyone familiar with the history of game design [https://en.wikipedia.org/wiki/Game_design], it told a different story. It was a victory for the power of play.Long before founding Google DeepMind, Hassabis was a teenage game designer. At 17 (!), he co-designed Theme Park [https://en.wikipedia.org/wiki/Theme_Park_(video_game)] (1994), one of the most influential simulation games of its era. Today, as we enter 2026 an age where AI world models like Genie 3 generate interactive 3D environments from text prompts It’s becoming clear that many of the core ideas behind modern AI were first explored in games, not labs.The roots of today’s AI don’t begin with neural networks alone. They begin with simulations, sandboxes, and play.The Sandbox Foundation: Theme Park (1994)Theme Park wasn’t just a game about roller coasters. It was an early experiment in emergent systems.Unlike arcade games built on fixed rules and predictable outcomes, Theme Park simulated a living environment populated by autonomous agents visitors with needs, preferences, and reactions.If you placed a salty food stand next to a soda machine, guests became thirsty. If prices rose too fast, satisfaction dropped. If queues grew too long, behavior changed.The game didn’t follow a script. It responded. For Hassabis, this was a formative insight: intelligence could emerge from agents interacting with a complex environment, rather than being explicitly programmed step by step. This idea agent-based simulation inside a world model would later sit at the heart of DeepMind’s philosophy.What looked like entertainment was, in retrospect, an early rehearsal for artificial intelligence.The Grandmaster Benchmark: StarCraft II (2019)If Theme Park was the sandbox, StarCraft [https://en.wikipedia.org/wiki/StarCraft] II became the stress test.In 2019, DeepMind’s AlphaStar reached Grandmaster level, outperforming 99.8% of human players. This mattered not because it was a game, but because StarCraft embodies many of the hardest problems intelligence can face.Unlike chess or Go, StarCraft operates under imperfect information. The “fog of war” hides your opponent’s actions. For fo war on Starcraft To win a game its required: * Long-term planning: early decisions cascade into outcomes an hour later * Massive action spaces: thousands of possible moves at any moment * Real-time adaptation: managing hundreds of units while anticipating an opponent’s strategy This was no longer pattern recognition. It was situated intelligence under uncertainty.AlphaStar wasn’t just playing a game it was learning how to reason, adapt, and strategize in a dynamic world. 2026: From Games to World ModelsFast forward to 2026, and the lineage is unmistakable. AI has moved from narrow benchmarks to generalist systems capable of reasoning across domains. At the core of this shift is a familiar idea: internal simulation.World Models as Internal SandboxesModern AI systems increasingly function like advanced game engines. Models such as Genie 3 [https://deepmind.google/blog/genie-3-a-new-frontier-for-world-models/] simulate environments, physics, and cause-and-effect, allowing agents to “practice” inside virtual worlds before acting in the real one. This is Theme Park, scaled to reality.Strategic Reasoning Beyond GamesThe reinforcement learning techniques refined in StarCraft II now optimize logistics networks, power grids, and supply chains systems that closely resemble real-world strategy games. Efficiency, foresight, and adaptation are no longer about winning matches; they’re about saving energy, time, and resources.The games were never the goal. They were the training ground.Conclusion: Don’t Fear the GamerDemis Hassabis has often encouraged parents to support the creative use of technology. His own trajectory makes the case better than any manifesto.The skills honed through games spatial-temporal reasoning, strategic planning, adaptive thinking, and systems intuition are not distractions from serious work. They are its foundation. The next time you see a complex strategy game, don’t dismiss it as entertainment. You may be looking at the blueprint for the next scientific breakthrough.This Article was inspired by an interesting documentary about Deep Mind path fully and freely available on YouTube: The Thinking Game [https://www.youtube.com/watch?v=d95J8yzvjbQ&t=4840s] https://www.linkedin.com/pulse/power-play-how-1990s-game-design-created-blueprint-2020s-ranucci-mp1mf/?trackingId=Jllyl%2BhpQgOZkoqKXRrveA%3D%3D SUBSCRIBE [https://giulioranucci.substack.com/]

S5 Ep. 4 - YouTube: The rise of a media OS

SUBCRIBE [https://www.linkedin.com/newsletters/digitalstories-exe-7388138546441732096/] Read more here [https://www.linkedin.com/pulse/your-browser-next-tech-empire-giulio-ranucci-eiwcf/?trackingId=rYV2Kq0ISE2P9dPo%2Bcr%2BUg%3D%3D]: https://www.linkedin.com/pulse/your-browser-next-tech-empire-giulio-ranucci-eiwcf/?trackingId=rYV2Kq0ISE2P9dPo%2Bcr%2BUg%3D%3D [https://www.linkedin.com/pulse/youtube-rise-media-operating-system-giulio-ranucci-nbjke/?trackingId=5Y7OVvcmT9uAcH3ejPRT8w%3D%3D] Media competition has long been been framed as a content arms race, who had the best shows, the deepest library, the biggest stars. That framing is now failing.Netflix is reportedly moving toward acquiring [https://variety.com/2025/tv/news/netflix-to-acquire-warner-bros-82-7-billion-deal-1236601034/] Warner Bros., accelerating vertical consolidation.YouTube will stream [https://variety.com/2025/film/news/oscars-youtube-2029-1236610989/] the next Academy Awards a moment unthinkable just a few years ago.Even social media such as Instagram is extending its reach [https://about.instagram.com/blog/announcements/instagram-tv-app] to TV. Regulators and measurement firms now show YouTube overtaking [https://www.wsj.com/business/media/how-youtube-won-the-battle-for-tv-viewers-346d05b8] traditional broadcasters and competing directly with Netflix for TV viewing time. These events are not disconnected. They point to a deeper structural shift in how the media industry is being reorganized.From Platforms to Power LayersHistorically, media worked as a linear stack:Studios → Networks → Distribution → AudienceStreaming disrupted the middle, but kept the logic intact: premium content flowed through controlled pipes to paying subscribers. YouTube breaks this logic entirely, It is not just a distributor. It is an attention infrastructure a system that captures, routes, and monetizes audience habit at scale. YouTube operates simultaneously as: 1. the largest ad-supported TV network 2. the default video app on connected TVs 3. a creator economy engine 4. a search and discovery layer 5. and increasingly, a live event broadcaster When the Oscars move onto YouTube, it’s not about prestige it’s about acknowledging where audience habit already lives.Distribution is the scarce assetOnce again we tend to see the future of media as a content arms race. But the real scarce asset today is distribution with habit. YouTube’s strategic advantage is not just scale [https://www.charleagency.com/articles/youtube-statistics/], it’s default behavior: * Younger audiences turn on their TV and open YouTube first [https://www.theguardian.com/technology/2025/jul/30/youtube-tv-destination-children-ofcom-survey] * Long-form viewing on YouTube continues to grow, [https://www.tubefilter.com/2025/02/06/youtube-long-form-viewership-increase-shorts/] not shrink * It captures attention across [https://www.theatlantic.com/podcasts/2025/12/how-youtube-ate-podcasts-and-tv-with-rachel-martin-ashley-carmen-and-derek-thompson/685230/] formats: shorts, podcasts, live, sports, news, entertainment Instead Netflix’s acquisition of Warner Bros. reflects the opposite pressure: * When distribution is capped, content ownership becomes defensive. * Consolidation becomes a way to preserve pricing power in a closed ecosystem. This is the strategic divergence: * Netflix is consolidating content to defend a subscription model. * YouTube is expanding infrastructure to own attention itself. YouTube as the Media Operating SystemCalling YouTube a “platform” is increasingly inaccurate. Advertisers are following the attention and the money. More streaming is translating into stronger ad performance. According to Google’s Q1 2025 earnings [http://www.thekeyword.co/news/google-ad-revenue-hits-66-9-billion-in-q1-2025], YouTube brought in $8.93 billion in ad revenue, up more than 10% yoy and rising from $8.0 billion in Q1 2024.Marketers are using YouTube to reach audiences across formats, age groups, and content types. The numbers show that advertisers see real value in YouTube’s reach, especially on TV. This shift could be important for advertisers because it changes the context in which ads are seen. Unlike mobile, TV offers larger screens, longer watch sessions, and a more relaxed viewing environment all of which influence ad performance.There’s a changing media reality. More eyes on YouTube streaming mean more premium ad inventory and more pressure to compete in a platform-first ad economy. With YouTube Shorts, long-form content, and YouTube TV all under the same umbrella, the platform offers a mix of formats that brands can explore depending on their campaign goals.A more precise framing: YouTube is becoming the operating system for video. Just as Windows didn’t win by producing the best software but by being the layer everything ran on YouTube is winning by becoming the execution layer for media itself. Creators, studios, advertisers, and institutions now all route through it.Traditional broadcasters no longer compete against YouTube they depend on it. Even public institutions like the BBC rely [https://www.bbc.com/news/articles/c4gzvee78eqo] on YouTube to reach younger audiences at scale.This is why YouTube streaming the Oscars matters. It formalizes a reality that already exists.Netflix vs YouTube Is not a streaming warSo this is not a Netflix-vs-YouTube competition. It’s a clash between two fundamentally different models: Made with Nano Banana (and related allucinations) Netflix must keep feeding the machine to survive. YouTube lets the machine feed itself.From a strategic standpoint, YouTube does not need to replace Hollywood. It needs to out-distribute it.And increasingly, it already has.Media Is Rebundling UpwardWhat we are witnessing is not disruption it is rebundling at a higher layer: * Studios merge to survive distribution pressure. * Streamers consolidate IP to protect margins. * Platforms evolve into infrastructure. The winners of the next decade will not be defined by awards, catalogs, or individual hits but on control of attention, default placement in the living room and ownership of the creator-to-audience relationship.Seen through this lens, Netflix acquiring Warner Bros. would be a defensive move. YouTube streaming the Oscars is an offensive one.One is trying to preserve the old model. The other is quietly becoming the foundation of the new one.Giulio Ranucci SUBSCRIBE [https://giulioranucci.substack.com/]

S5 Ep. 3 - Your browser will be the next tech empire

SUBCRIBE [https://www.linkedin.com/newsletters/digitalstories-exe-7388138546441732096/] Read more here [https://www.linkedin.com/pulse/your-browser-next-tech-empire-giulio-ranucci-eiwcf/?trackingId=rYV2Kq0ISE2P9dPo%2Bcr%2BUg%3D%3D]: https://www.linkedin.com/pulse/your-browser-next-tech-empire-giulio-ranucci-eiwcf/?trackingId=rYV2Kq0ISE2P9dPo%2Bcr%2BUg%3D%3D For nearly two decades, the web browser has been the most stagnant piece of consumer software in tech. We upgraded from Internet Explorer to Chrome, from Safari to Firefox, but the fundamental experience never changed: open a window, type a URL, click around. A tab here, an incognito mode there. Billions of people settled into a browser inertia the quiet assumption is that the browser is a solved problem. Recently this assumption died. A new browser battle started. But unlike the 2000s, this one isn’t being fought over rendering engines, tab management, or JavaScript benchmarks. In a time were LLMs are still struggling to define a solid business case (recent MIT report [https://fortune.com/2025/08/18/mit-report-95-percent-generative-ai-pilots-at-companies-failing-cfo/]), AI tools are pushing to integrate browser experience as a necessity since now the user must visit a website or an app to use the single LLM. Three players are racing to define what the next decade of internet interaction will look like: * Perplexity launched Comet [https://www.perplexity.ai/comet], a browser with an AI researcher built directly into the interface. * The Browser Company, known for the cult-favorite Arc, pivoted to Dia [https://www.diabrowser.com/] its vision for a fully “AI-native” browsing experience. * OpenAI, with nearly a billion ChatGPT users, recently lunched Atlas [https://chatgpt.com/it-IT/atlas/] its own AI browser, deeply integrated with its agents and multimodal models. What’s coming isn’t search glued onto a sidebar. It’s a redefinition of what the browser is. Why this moment matters AI’s models already do what traditional browsers never could like execute code, call APIs, analyze documents, interpret and generate images and videos and take actions across the web. The moment these capabilities are bundled inside the browser itself, the browser stops being a vessel and becomes an agentic workspace a place where your assistant doesn’t just answer questions, but acts on your behalf. Imagine planning a trip without hopping across ten different websites. Your assistant can compare flights, book an hotel, optimize the itinerary and store receipts all in one flow. Or researching a vendor: it can scrape pricing pages, compare features, analyze reviews, and draft an RFP email. Not a suggestion engine. A digital analyst. If Chrome is a highway, AI-native browsers are self-driving vehicles. The Chrome Problem: built fast not built smart Chrome is still the global behemoth, a browser (73% market share [https://gs.statcounter.com/browser-market-share]) with billions of users and an ecosystem of extensions as large as some app stores. But its architecture is a liability in an intelligence-first era. Chrome was engineered as a fast, extensible shell. Everything smart is bolted on from the outside: plugins, sidebars, extensions or Google Search itself and it's still the dominante player on field. If OpenAI, Perplexity, or The Browser Company create a browser where intelligence isn’t an accessory but the foundation, Chrome enters dangerous territory. If search, navigation, and execution all merge into one AI-native interface, Google’s grip on the value chain begins to loosen. Because why “search” when your browser can do? ChatGPT remains the gravitational centre of AI chat, but the shape of the universe is shifting, while Gemini offers reach, Perplexity offers depth, Claude (Anthropic) owns the dev crowd and DeepSeek proves lightning can strike outside Silicon Valley. None of this means OpenAI’s rumored browser will dethrone Chrome overnight. Uphill Battle: Has Google Already Won? Chrome commands roughly 3 billion users. Google is rapidly folding its Gemini models into Chrome and Search. And According to SimilarWeb [https://www.similarweb.com/blog/marketing/geo/decline-in-gen-ai-traffic/], Google’s generative AI traffic share is rising not falling at OpenAI’s expense. For all its innovation, OpenAI is still the insurgent. Google built not just the browser but the ecosystem, the distribution, and the default pathways that billions take every day. The recently anounched Atlas (OpenAI’s browser) might electrify the tech world. But excitement doesn’t equal dominance. If AI is a race, Google didn’t just get a head start. Google built the stadium.  Why browsing is bigger than search At first glance, this looks like a battle over who can summarize a webpage better. But that misses the point entirely. Like Napster for music, Uber for rides or Whatsapp for texting, this is not a challenge about search it’s about user experience. We are witnessing the browser’s transformation from a passive window into an active participant a system that understands your task, predicts your next step, executes actions across apps bridging workflows between websites. For decades, the browser was the hallway that led to your digital tools. Now, the hallway is becoming the entire workspace. Browser as the new Operating System Consider the broader ecosystem, AI agents operate inside enterprise dashboards, automated finance agents reconcile invoices, HR agents fill forms in workday or SAP, customer care agents and many others. Today, these agents hack their way through the browser. Tomorrow, the browser will be built for them. The AI browser becomes the base layer for agentic automation not just for consumers, but for global enterprises. In this model, the browser is no longer the gateway to the web, it's the operating system and holds all our precious data. The next empire: Agentic Internet Original browsers battle were about rendering speed. The second era was about cloud integration. The third was about mobile-first design. The fourth, the one unfolding right now, is about intelligence. Winners won’t simply shape how we browse. They’ll shape how we work, how we learn, how we automate, and how we interact with the global economy. The stakes are not tabs or search bars. The stakes are the future of digital itself. And still after twenty years, browsers are still one of the most exciting battleground in technology and the best is yet to come. Giulio Ranucci SUBSCRIBE [https://giulioranucci.substack.com/]