WHAT IS ART? _____________ 1. Art is an intentional human act of making or framing that is not exhausted by utility. In other words: Art is something a person deliberately creates or presents, and its whole reason for existing is not just to be useful. What it includes / excludes: Includes: paintings, songs, poems, sculptures, even a beautifully shaped chair if the maker cared about more than pure function. Excludes: a flat-head wooden plug that fills the round hole in the hardwood floor - whose only purpose is to fit into the existing shape - a purely practical object with strictly limited form or expression. Examples: • A chef who carefully plates a dish so it looks beautiful is doing something artistic. The same food dumped on a plate only to fill the stomach is not. • A purely functional parabolic dish designed only for the highest possible efficiency of a speaker — every curve is forced by physics and performance requirements, with no room for personal taste — versus the same speaker placed inside a wooden cabinet that the maker has carefully shaped, proportioned, and finished so that it also looks and feels beautiful. 2. It contains free formal or expressive choices that could have been otherwise. In other words: The creator made choices about shape, color, sound, words, or movement that were not forced by pure necessity — they could have done it differently and it still would have “worked.” What it includes / excludes: Includes: choosing a particular melody when many others would have been possible; choosing one word over another that means almost the same thing, but has a different deeper effect. Excludes: a design in which every single decision was dictated by material limits or pure function, with no room for personal choice. Examples: • A potter who shapes a mug so the handle feels pleasant in the hand and the curve is graceful is making free choices. A factory mold that produces the cheapest possible functional cup has almost no free choices left. • A songwriter who chooses varied and unexpected chords that evoke special impressions and feelings instead of a computer generated tonal sequence as a result of a simple mathematical formula (e.g fire truck siren melody) 3. Because humans are constitutively social, the act is oriented (even if only latently) toward reception by other humans. In other words: Since we are social creatures by nature, even when we create alone we still carry an unspoken sense that the work is meant to be received by other people. What it includes / excludes: Includes: a writer composing a novel and thinking and adjusting it to have a better and stronger effect when read – in this case by someone else, since the writer already knows it; Excludes: a routine reminder list of things to do – which is only made to be used by the author Examples: • A teenager writing songs in their bedroom still hopes, even secretly, that someone might one day hear them and understand. That quiet hope is the social orientation. • A person who writes a letter they never plan to send, yet carefully chooses every word as if someone will eventually read it, is still oriented toward reception. 4. That reception — which may be full or partial, immediate or delayed — transfers a shaped perception or inner state and, when successful, enriches the receiver, expanding experiential range or capacity. In other words: When another person receives the work (even years later, or only understanding part of it), something of the creator’s way of seeing or feeling is passed on. If it works, the receiver becomes richer — they can feel or notice something they couldn’t before. What it includes / excludes: Includes: hearing a piece of music that suddenly makes you feel a kind of longing you never knew you could feel. Excludes: looking at something that leaves you exactly the same as before, with no new feeling, insight, or capacity. Examples: • Someone who has never felt deep homesickness hears a song that captures it perfectly. Afterward they understand that emotion in a new way — their inner world has expanded. • A person sees a painting of quiet solitude and, for the first time, recognizes a feeling they had carried for years but never been able to name. Afterward they understand themselves a little better. 5. Enrichment can announce itself in immediate bodily and affective markers (awe, heightened attention, new horizons) and serves as an impetus for growth. In other words: You can often feel the enrichment right away in your body and emotions — your eyes widen, your heart jumps, you feel awe or sudden new possibility. That feeling pushes you toward growth. What it includes / excludes: Includes: the moment a painting makes your breath catch, or a story makes you sit up straighter because something new has opened. Excludes: mild mood shift that is pleasant but leaves no lasting mark or impulse to grow – like elevator music or muzak, or hotel lounge music. Examples: • Standing in front of a powerful sculpture and feeling your mouth slightly open and your chest expand — that physical reaction is the first sign that something inside you has been enlarged. • Listening to a piece of music that makes the hair on your arms rise and leaves you sitting in silence for a minute afterward, sensing that something in you has shifted. 6. The cumulative effect is the strengthening of interpersonal bonds and of humanity itself. In other words: Over time, when many people receive these enriching experiences, the connections between people grow stronger and humanity as a whole becomes a little more capable and resilient. What it includes / excludes: Includes: shared cultural works (songs, stories, images) that help people feel they understand one another better. Excludes: works that isolate people, increase mutual distrust, or leave them weaker and more fragmented. Examples: • A national folk song that generations sing together creates a shared emotional language. People who know that song feel a quiet bond with one another across time and distance. • A novel that helps thousands of readers recognize the same hidden loneliness in themselves can make those readers feel less alone and more connected to others. • At a concert where the whole audience knows the music and feels the same emotion at the same moment, people become aware that they are sharing that experience together. That shared feeling strengthens the bond between them on a deeper level. 7. Because works are often multi-layered, success in any significant strand that passes the discernment filter of direction and effect is sufficient for that aspect (and for the work as received by that person) to function as art. In other words: A single work can have many layers (music, words, images, ideas). If even one important layer successfully enriches the person receiving it, that layer — and the work for that person — can still count as art. What it includes / excludes: Includes: loving the music of a song while ignoring the lyrics, yet still being deeply moved by the music alone. Excludes: a work in which every layer fails to enrich or actively diminishes the receiver. Examples: • You may dislike the lyrics of a progressive-rock song but find the instrumental power and invention so strong that it expands you. For you, that musical layer is still art. • Someone watches a film mainly for its visual beauty and cinematography, while remaining indifferent to the plot, and still leaves the cinema feeling enlarged by what they saw. 8. First-level judgment is therefore receiver-relative; deeper levels of assessment involving ethics, values, and long-term consequences may move toward more shared conclusions. In other words: At the first, personal level, something can be art for one person and not for another. If we look more carefully — considering values, ethics, and long-term effects — we can sometimes reach broader agreement. What it includes / excludes: Includes: one person saying “this moved me deeply” while another says “this did nothing for me.” Both can be honest first reactions. Excludes: the idea that a work is automatically art for everyone just because an expert or institution says so. Examples: • A film may leave one viewer in tears of recognition and another completely cold. At the personal level both responses are valid. Later discussion about its deeper effects may bring more shared judgment. • One person finds a contemporary installation deeply moving while another finds it empty; both experiences are real at the first level, even if further reflection leads to different evaluations. 9. Discernment remains necessary: the decisive question is where the work is leading — toward greater human potency, clarity, connection, and resilience, or toward their diminishment. In other words: We still need to look carefully at the direction the work is pointing. Does it make people stronger, clearer, more connected, and more resilient — or does it leave them weaker, more confused, more isolated, or less capable? What it includes / excludes: Includes: difficult or dark works that ultimately help people see truth and grow stronger. Excludes: works that mainly spread despair, confusion, or the desire to tear things down with no path toward repair or greater strength. Examples: • A novel that shows human cruelty in a hard light, yet leaves the reader more determined to protect what is good, passes the test. A work that simply glamorizes emptiness and leaves the reader smaller does not. • A song about heartbreak that helps the listener feel their pain more clearly and then move through it strengthens them; a song that only deepens hopelessness without any opening toward recovery does the opposite.

Everyone is covering Terafab as a chip factory. It is not a chip factory. Last night in Austin, Elon unveiled a facility that makes masks, fabricates chips, and tests them inside a single building with a nine-month recursive improvement cadence. No such loop exists anywhere else on Earth. Then he told you 80% of the output goes to space. Then he showed you a 100-kilowatt AI satellite with solar panels and radiators, scaling to megawatt range. Then he said Optimus plus photovoltaics will be the first von Neumann probe, a machine capable of replicating itself from raw materials found in space. Nobody connected the sequence. Terafab produces 1 terawatt per year of compute. The entire United States consumes 0.5 terawatts of electricity. Musk is building a single factory whose output in AI silicon exceeds twice the power consumption of the country it sits in. And he is sending 80% of it off-planet because Earth literally cannot power what he is building. Follow the mechanism. Terafab seeds the chips. Starship launches Optimus robots and solar arrays at 100 million tons per year. The robots mine lunar and asteroid regolith for silicon, iron, and nickel. They 3D-print more robots. They fabricate more solar panels. They assemble more AI satellites. Each satellite runs hotter-burning D3 chips designed specifically for vacuum, where free radiative cooling eliminates the thermal constraints that strangle every terrestrial data center on the planet. The nodes replicate. The replication is exponential. This is a Dyson Swarm bootstrap hidden inside a semiconductor announcement. The math is public. The Sun outputs 3.828 times 10 to the 26th watts. A 2022 paper in Physica Scripta calculated that 5.5 billion satellites at 290 kilograms each, robotically manufactured from Mars resources, capture enough solar energy to meet all of Earth’s power needs within 50 years. A 2025 paper in Solar Energy Materials calculated a partial swarm capturing 4% of solar output yields 15.6 yottawatts, roughly a billion times current human civilization’s total energy budget. Musk just announced the factory that builds the chips that go inside the satellites that replicate themselves forever. 92% of advanced logic chips are fabricated in Taiwan. One factory in Austin does not fix that. But one self-replicating system seeded by that factory, launched by the only company with reusable heavy-lift rockets, assembled by the only humanoid robot in mass production, and powered by the only star within reach, does not fix a supply chain. It obsoletes the concept of supply chains entirely. The market priced this as a $20 billion capex story about semiconductor independence. The actual announcement was the engineering blueprint for Kardashev Type II. Humanity sits at 0.73 on the Kardashev scale. 18 terawatts. The distance between here and harnessing a star is not a technology gap. It is a recursion gap. And recursion is exactly what a single building in Austin that makes its own masks, builds its own chips, tests its own chips, and launches the output into orbit on its own rockets was designed to close. Every civilization that makes it past this point never looks back.

🔬 I said this would be the most important thing I've ever written. Here's why. WiFi, Bluetooth, 5G — all built on one type of electromagnetic wave. All stopped by the same thing: walls, water, metal. Tesla believed there's another type. Longitudinal. No magnetic field. Waves that don't stop at walls. They called him a crank. I went looking. Here's what I found.

Soon on the Moon Grok Imagine

A quiet day in Giverny unfolds as we follow a lady through the blooming garden—where light, time, and memory drift softly together. From misty morning dew on lotus leaves, to golden afternoon reading beneath the willow, and finally to moonlight shimmering on the pond. 🖼️𝐂𝐥𝐚𝐮𝐝𝐞 𝐌𝐨𝐧𝐞𝐭 - 𝐋𝐢𝐯𝐢𝐧𝐠 𝐈𝐧𝐬𝐢𝐝𝐞 "𝐓𝐡𝐞 𝐖𝐚𝐭𝐞𝐫 𝐋𝐢𝐥𝐲 𝐏𝐨𝐧𝐝"

Now you understand why Elon says AI5 will be far more efficient than NVIDIA for training. NVIDIA is stuck with floats because everyone uses them. Tesla owns the full stack and pipeline for training AI, allowing them to use INT8 and optimize far more than others. Tesla will sell these chips to xAI. Future versions of Grok will be trained and run on them. xAI and Tesla will completely decouple from NVIDIA, gaining an enormous competitive advantage over others, who must pay NVIDIA's high margins and use less power-efficient chips. The Muskonomy.

There is so much misinformation around owning EVs, especially Teslas. • No, you don’t get range anxiety. With a wall connector at home, you wake up to a “full tank” every day. • Tesla batteries are engineered for longevity, typically lasting 300,000–500,000 miles. • A Tesla is ~8x less likely to catch fire than a gasoline vehicle. • On road trips, Tesla Superchargers are conveniently placed along your route in locations where you can eat, shop, and rest. • Average charging stops take 20–30 minutes. You do not charge to 100% every time. • The average price per kWh in the US is $0.18. Charging a Model 3 Premium RWD costs only $14.70 for over 360 miles of range. (Can be way less in some states) • Tesla vehicles are among the best to drive in winter. Heat pumps warm the cabin quickly and efficiently, while instant torque and traction control provide excellent grip. • Tesla FSD can drive you from point A to point B anywhere in the US, including cross-country. • The only maintenance typically required is cabin air filters, tires, and windshield fluid. • New battery replacements start as low as $12,500 for Model 3 RWD models—not “$30–40K” as some claim. Battery cost is similar to (or less than) an engine replacement, but with FAR less labor. • EV brakes can last over 200,000 miles due to regenerative braking.

You MUST read this Thank you, @nymbusjp

Any memetic structure that inhibits biological reproduction must necessarily transfer to the minds of those who do reproduce or it will die out. They target the youth especially, because their mental firewalls are not yet strong.

Tesla's traction systems and instant torque dominate in the snow. These are really fun winter cars. ❄️

📄 The patent US20250357544, filed by Tesla with renowned battery researcher Jeff Dahn listed as a lead inventor, details a significant breakthrough in battery chemistry 🔋 🔬 The core innovation introduces a new type of liquid electrolyte designed to make Lithium-ion batteries last significantly longer, especially when pushed to their absolute limits. ❓ Key takeaways from this patent ❓ 🌡️ Current batteries have a major weakness: they degrade rapidly under high voltage (e.g., 4.3V) or extreme heat (70°C–85°C). This stress causes the electrolyte to break down, leading to dangerous gas buildup, increased internal resistance, and a rapid loss of range. Tesla’s solution solves these specific failure points with a completely new chemical approach. 🧪 The secret lies in a new family of "dicarbonate" compounds defined by a unique molecular backbone: R1-O-C(=O)-O-R3-O-C(=O)-O-R2. The two primary versions highlighted are called DMOHC and DEOHC. These new solvents act as the liquid highway that allows ions to travel back and forth between the battery's positive and negative sides. 🤝 Crucially, these solvents don't work alone. The patent highlights that they perform best when paired with a specific salt called LiFSI, rather than the industry-standard LiPF6. The experiments show that LiFSI dissolves faster in these new solvents and creates a mixture that is incredibly resistant to heat. 💧 There is one catch: pure DMOHC is very thick (viscous), like honey, which can slow down ion movement. To fix this, the patent describes blending it with thinner, runnier solvents like Dimethyl Carbonate (DMC). Tesla found that specific blends (like 40% new solvent / 60% standard solvent) keep the fluid flowing efficiently while preserving the heat-resistant benefits. 🛠️ Making these new solvents is surprisingly straightforward. The manufacturing process begins with common, relatively inexpensive ingredients: a simple alcohol (ethylene glycol) and pyridine dissolved in dichloromethane. A chemical called methyl chloroformate is slowly added to this mixture to link the molecules together into the final carbonate structure. 💰 The cost outlook is promising. Because the starting ingredients are widely available industrial chemicals, the long-term cost to mass-produce this electrolyte could be very low—essential for keeping electric vehicle prices down. Current lab-scale tests reported a production yield of "up to 70%." 🚧 However, there is a manufacturing hurdle to clear. The current method uses "flash column chromatography" to purify the liquid, a slow technique meant for labs, not factories. For mass production at Tesla's scale, they would need to transition to continuous distillation, a feasible step given how simple the molecule is. 🔥 The performance data is remarkable. In standard industry testing, lithium-ion cells usually die quickly when exposed to high heat because the electrolyte cooks and degrades. The data in this patent flips that narrative completely. 🏆 In extreme stress tests, nickel-rich battery cells using the new DMOHC electrolyte retained greater than 99% of their original capacity after 3,500 hours of continuous cycling at a scorching 70°C. 🆚 To put that in perspective, standard "control" batteries typically lost about 10% to 15% of their capacity under similar conditions after just 2,000 hours. The degradation curve for Tesla's new electrolyte was essentially flat, indicating that the destructive reactions that usually kill batteries in hot climates effectively stopped. 🎈 Beyond lifespan, safety is a massive benefit. One of the most dangerous side effects of a dying battery is gas generation, which causes pouch cells to swell up like a balloon and potentially rupture. 🛡️ The results showed zero gas issues. While standard batteries operating at high voltages (3.8V and 3.9V) at 85°C eventually vented gas and failed, the cells containing the new DMOHC blends generated almost no measurable gas over hundreds of cycles. 🚕 This combination of durability and safety points to specific future uses. It supports the goal of a "Million Mile Battery" capable of powering Robotaxis or commercial trucks that run 24/7 and generate immense heat. ❄️ Finally, it could change how cars are built. If a battery can naturally withstand 85°C without failing, future vehicles could use simpler, lighter, and cheaper cooling systems. Theoretically, this innovation allows for a battery that is not only longer-lasting but also safer and more affordable to integrate into vehicles. ❓ What this means for Tesla's lineup ❓ 🚀 For Tesla’s current lineup, this is an immediate performance unlock Today, drivers of the Model 3, Model Y, and Cybertruck sometimes face "thermal throttling" at Superchargers—where charging speeds slow down because the battery gets too hot. By raising the safe operating temperature to 70°C+ (from the current limit of roughly 60°C), this new electrolyte would allow vehicles to maintain peak charging speeds for much longer, significantly cutting down wait times during road trips without requiring any new charging hardware. ☀️ It also solves a major geographic challenge Electric vehicles currently degrade faster in scorching climates like Arizona, Texas, or the Middle East, requiring aggressive active cooling that drains the battery even when parked. With this new "heat-proof" chemistry, a Tesla parked in the desert sun would suffer virtually no degradation, matching the longevity of vehicles in milder climates and boosting resale value for owners in hot regions. 🤖 Looking to the future, this is the "missing link" for the Robotaxi Tesla’s upcoming autonomous fleet is designed to run nearly 24/7, stopping only for rapid charging blasts. This intense duty cycle generates massive continuous heat that would destroy current batteries in less than a year. The patent’s data—showing stability over thousands of cycles at high temperatures—confirms that Tesla has cracked the durability code needed to make a million-mile autonomous taxi economically viable. 📉 Finally, this innovation could radically lower manufacturing costs Current battery packs require complex, heavy liquid cooling loops (radiators, pumps, and coolant lines) to keep cells in a narrow "Goldilocks" temperature range. If the battery cells are naturally safe and stable at 85°C, future vehicles like the $25,000 "Model 2" could switch to simpler, cheaper air-cooling or passive cooling systems. This would shed weight, reduce parts, and simplify the assembly line, helping Tesla undercut competitors on price. 🏁 In conclusion This patent represents a silent but monumental shift in EV technology. While headlines often focus on solid-state batteries or new anode materials, this electrolyte breakthrough proves that significant gains can still be unlocked within liquid Lithium-ion chemistry. By solving the fundamental problem of heat-induced degradation, Tesla isn't just making a battery that lasts longer on paper; they are enabling a future where electric vehicles charge faster, survive in harsher climates, and cost less to build. If these lab results translate to mass production, the "Million Mile Battery" moves from a theoretical goal to a manufacturing reality, securing Tesla's technological lead for the next generation of electric transport.

What if it’s really a a natural formation this time? Any chance? Sicily, Italy

Let me show you how to cast ancient artificial, fake granite from any type of crushed stone (granite, basalt, diorite etc.), this time with silica sand. Silica sand, because why not. I still owe you the name of the “secret catalyst”, but because mystery sells better than truth, I will not disclose it for a while. Because why not. I hope you can spare less than 2 minutes from your busy lives to watch this. It’s ancient nanotechnology in the sense that the method spreads the catalyst material evenly on the molecular level, and I mean that! I tried lots of mixing orders and techniques but this one in the video takes it all. One word about giant ancient vibrators to remove bubbles: sorry, not needed. As you can see I mix the whole thing under liquid. In fact, I’m casting a liquid. Bubbles 🫧 just don’t have a chance. BUT! This means excess liquid! Is that ring a bell 🔔? Yeah. Nubs. So I casually poured down the excess liquid after 5 minutes of setting. And the resulting stone is a real surprise, a stone ring! Now you can accuse me replacing the stone in the last few seconds. Because I did! 🤣 Oh, that ring 💍 Gorgeous, isn’t it?

„Ich spiele die Noten, wie sie geschrieben sind, aber es ist Gott, der die Musik macht.“ - J-S Bach

Imagine...

Today is the birthday of the greatest philanthropist on the Universe: Elon Musk! 🥳 Elon, I wish you a very happy birthday! 🫶 I know many of us wish you the best! Take care of yourself and take some time for yourself. I couldn't help but make a music video for this event. Of course, everything is AI. images : @midjourney animation: @midjourney & @Kling_ai

1. I'm slowly starting to understand what might have happened in Peru. A long and important 🧵 Anyone remember when I was scouring satellite images looking for natron springs all over the world? I found quite a few—like near the Barabar caves in India, by Göbekli Tepe, and other places. And I also found a huge natural salt source in Peru, right at the epicenter of all known megalithic remains. Not a bad hunch—but still...