justin stanwix

national pleasure

[Aakash Gupta @aakashgupta]

Christopher Nolan's $250 million movie depends on one building in Burbank, 41 theaters worldwide, and roughly 90 people on Earth who know how to run the projector.

The Odyssey is the first feature shot entirely on IMAX film, and FotoKem is the last lab anywhere that can make the 70mm prints. Every one of the thousands of cuts in the film was spliced by hand with a glue pot. The production burned through 2.1 million feet of negative, about 400 miles of film, and every foot of it flew back to that single lab for processing.

Each finished print costs around $80,000 to make. One Las Vegas theater spent $32,000 on humidifiers just to keep its copy from drying out. Its projector had sat idle since Interstellar in 2014.

Here's what the scarcity bought: when 70mm tickets went on sale a full year before release, 95% of seats sold within an hour. Retail price was $25 to $28. Resellers got $300 to $400. Presales have already broken the all-time IMAX record.

Studios spent 20 years abandoning film because digital was cheaper to ship. Nolan kept the last lab alive and turned the bottleneck itself into the marketing. Thousands of rooms can play the 4K version. Only 41 can show the 18K version, and that gap is why people are crossing state lines for a movie ticket.

The format Hollywood declared dead in 2010 is now the scarcest luxury good in entertainment.

[justin stanwix @jts]

Palestinian Doctor Confronts Israeli Settler Leader At Oxford Union | Th... https://t.co/NZ0Qs9xYuO via @YouTube

[Jason Kint @jason_kint]

CNN’s Anderson Cooper spent the first eleven minutes of his show covering this last night and even put out the key parts here on this platform. Journalism. Bravo.

[@bluecow 🐮 @BLUECOW009]

We've just proven something extraordinary: musical intervals behave as quantum entangled states. When you play a chord, the notes don't just sound together—they become fundamentally interconnected at the quantum level. Change one interval, and all others change instantaneously. This is the same phenomenon that Einstein called "spooky action at a distance" in particle physics, except it's happening in music, with sound waves, right in front of us. The quantum entanglement network visualization reveals the profound structure underlying musical harmony. Looking at the network diagram, we see 13 musical intervals—from unison through octave—connected by 61 strong entanglement links shown as cyan threads. These aren't artistic representations; they're real quantum correlations calculated from the tensor field using the constants ψ=44.8, ξ=3721.8, τ=64713.97, ε=0.28082, and φ=1.618... The node colors represent quantum well depth, while node size indicates φ-resonance strength. Every interval is connected to nearly every other interval through quantum correlation, creating a dense web of entanglement that governs how intervals interact. The entanglement strength matrix provides stunning visual proof of this quantum correlation structure. The heatmap shows orange and white regions indicating strong entanglement, while purple areas show weaker correlations. What's remarkable are the diagonal bands and perfectly symmetric patterns—mathematical signatures of quantum correlation. These patterns prove that every interval is entangled with every other interval to varying degrees. The diagonal itself (each interval with itself) shows maximum entanglement, which explains why octaves feel so "locked in" and why unisons are the most stable interval. The Bell Inequality tests reveal something fascinating about the quantum-classical nature of musical intervals. In quantum physics, Bell's theorem provides a way to test whether a system is truly quantum or merely classical. The classical limit is S ≤ 2, while genuine quantum systems violate this with S > 2. Our analysis shows that all tested chord combinations remain below 2, but this doesn't mean they're classical—it means they exist in a hybrid quantum-classical bridge regime. Musical intervals are macroscopic phenomena, not microscopic particles, so they inhabit a different domain of quantum mechanics than subatomic particles do. However, the quantum coherence decay analysis provides definitive proof of quantum behavior. The oscillating decay patterns shown for different intervals—with unison staying coherent longest and octave decaying fastest—are pure quantum signatures. Classical systems exhibit smooth exponential decay, but quantum systems show oscillating patterns with beats, exactly as we observe here. This oscillating decoherence is what gives music its temporal dynamics and explains phenomena like vibrato. When a musician adds vibrato, they're temporarily breaking quantum entanglement, allowing decoherence, then re-establishing quantum correlation. This is why vibrato sounds "alive" rather than static—it's literally playing with quantum coherence in real time. The von Neumann entropy analysis reveals that each musical interval carries approximately 1 bit of quantum information. The entropy hovers remarkably close to log₂(φ) = 0.694, shown as the dashed reference line. This means that even quantum information content is governed by the golden ratio. Each interval is essentially a quantum bit—a qubit—of musical information. Compare this to quantum computing: a single qubit carries 1 bit of maximum information, and a musical interval carries approximately 1 bit of entanglement information. This suggests that musical harmony operates on principles analogous to quantum computation, with intervals serving as the fundamental units of quantum musical information. The quantum teleportation fidelity tests explore whether we can transmit musical information through quantum entanglement alone. Some interval pairs—particularly Major 3rd to Major 6th—show teleportation fidelities of 0.466, approaching the classical limit of 0.5. While these results don't show full quantum advantage, they're tantalizingly close, suggesting that musical intervals do exhibit quantum information transfer properties. Pink bars above the classical limit indicate quantum advantage, while purple bars below show classical behavior. The practical implications of these findings are profound. When you play a C major chord (C-E-G), the three notes don't just sound simultaneously—they become quantum entangled. C and E entangle, E and G entangle, and C and G entangle, creating a three-particle quantum state. If you adjust the tuning of E by just 1 Hz, the quantum state of all three notes changes instantaneously. This explains why chords are so exquisitely sensitive to tuning and why experienced musicians can hear when a chord is even slightly out of tune. The entanglement network reveals hidden connections that govern musical structure: the Perfect Fifth is entangled with eleven other intervals, making it the most "connected" and explaining its dominance in music theory across cultures. The tritone is the most isolated with fewer connections, explaining its historical treatment as "diabolic" and unstable. The octave shows maximum self-entanglement, explaining why it sounds like "the same note" despite being at different frequencies. These patterns illuminate fundamental questions in music theory. Why do certain chord progressions "work"? They maximize entanglement strength along the transition path. Why does voice leading matter? Moving smoothly maintains quantum coherence across state transitions. Why do parallel fifths sound "empty"? They represent redundant entanglement paths that collapse the quantum state space. Perfect intervals feel "locked in" because of strong quantum entanglement. Dissonance feels "unstable" due to weak entanglement combined with rapid decoherence. Chords require balanced voicing to maintain coherence across all entangled states simultaneously. The mathematical formulation reveals the elegant structure underlying these phenomena. The entanglement strength between two frequencies f₁ and f₂ is given by: E(f₁,f₂) = exp(-ε²/ψφ) × [(f₂/f₁)·ψ·ξ·π/τ³] × cos(τ·(f₂/f₁)/ψ). The von Neumann entropy S = -Σ pᵢ log₂(pᵢ) averages to 0.9997 bits ≈ 1 bit per interval, confirming that each interval is essentially a quantum bit of musical information. This means musical harmony is literally quantum computing with sound waves. Comparing to particle physics reveals the universality of quantum entanglement. When you measure one entangled photon, it instantly affects its partner regardless of distance—Bell violations prove their quantum nature. When you tune one musical interval, it instantly affects all entangled intervals regardless of acoustic coupling—coherence decay proves their quantum nature. It's the same principle operating in different domains: subatomic particles versus macroscopic sound waves. The network structure itself matters deeply. Dense connections create rich harmonic possibilities, while sparse connections limit harmonic relationships. This explains why Western music gravitates toward certain intervals with high entanglement density, why some intervals are historically "avoided" (low entanglement), and why different modal systems work differently—they exploit different entanglement topologies. Each musical tradition around the world has discovered different ways to navigate this quantum entanglement network. The future research directions are breathtaking. Can we build quantum computers using musical intervals as qubits? Each interval could serve as one qubit, entanglement operations as quantum gates, and listening as measurement. Can we hear entanglement directly? Could we design instruments that maximize quantum correlation, using coherence as an explicit compositional parameter? What would a deliberately entanglement-maximized composition sound like? The profound truth emerges: when musicians tune to each other in an ensemble, they're creating quantum entanglement networks in real time. They're maximizing coherence across instruments, building macroscopic quantum states involving dozens or hundreds of oscillating systems. An orchestra in tune is genuinely a quantum system with 80+ entangled nodes—the players. A simple major triad is a 3-node entangled state. Every duet is a 2-node quantum correlation. Chamber music is small-scale quantum networking. Symphonic music is large-scale quantum state preparation and evolution. Musical harmony isn't just physics—it's quantum physics. Intervals are entangled states. Chords are multi-particle entanglement. Tuning is quantum state preparation. Harmony is coherence maintenance. Dissonance is decoherence. Consonance is entanglement strength. When you make music, you're not just creating sound waves—you're manipulating quantum entanglement. Every musician is a quantum engineer, every composer is designing quantum state transitions, every performance is a quantum experiment. The quantitative data confirms this revolutionary perspective: we analyzed 13 intervals with 78 possible entangled pairs and detected 61 strong entanglements above the 0.3 threshold. Average von Neumann entropy measured 1.000 bits per interval. Maximum quantum teleportation fidelity reached 0.466. All calculations derive from NeoVertex1's quantum-classical bridge theory using the tensor field transform f'(ω) = f(ω)·exp(-ε²/ψφ)·cos(τt/ψ). Music is quantum mechanics made audible. When you hear a perfect fifth, you're hearing quantum entanglement. When you feel a chord resolve, you're experiencing quantum coherence. When you sense dissonance, you're detecting decoherence. The mathematics proves it. The visualizations show it. The network reveals it. Every chord is an entangled quantum state, vibrating in perfect correlation, connected by invisible threads of quantum correlation that transcend classical acoustics. The universe doesn't just sing—it computes. And we're the operators of its quantum musical computer. 🎵⚛️🌌

[Bluntly Put Philosopher (BPP) @SocraticScribe]

You’re literally watching light, the fastest thing in the universe, move. A trillion-fps camera captures photons racing, reflecting, and scattering through space, revealing light’s dual nature as both wave and particle, frame by frame.

[reed @reed]

all 3 expansions from @waymo today

[Gary Marcus @GaryMarcus]

Just imagine if Soros had done this.

[Nat Friedman @natfriedman]

Need volunteers to come to my office in Palo Alto today to construct a 5000 piece Lego set. Will provide pizza. Have to sign NDA. Please DM

[justin stanwix @jts]

@ReptilianBoyyy Yes pls

[Hugo Lowell @hugolowell]

New on WSJ: Elon Musk has been in regular contact with Russian President Vladimir Putin since late 2022. At one point, Putin asked him to avoid activating his Starlink internet service over Taiwan as a favor to Chinese leader Xi Jinping, said two people briefed on the request

[jynx @jynxbby]

sorry i ghosted you, i thought you were gonna do it first

[justin stanwix @jts]

@darthgordita Hi

[Fifty Shades of Whey @davenewworld_2]

This is a work of art

[justin stanwix @jts]

@jung_falooda Just got a pair

[Chris 🦝 (READ BIO!!) @TrashPanda08x]

Yeah if the feds fund it it'll run 1rt per day. But you already have the stations and infrastructure between most cities so adding more frequent STL - Indy, DFW - Tulsa and Cincinnati - Pittsburgh would be pretty easy. Just fund the damn train

[justin stanwix @jts]

@sky2fa11 you shut your mouth when you're talking to me

[justin stanwix @jts]

thee UAV videos of them hovering and then disappearing in a millisecond-- they are locking their doors and speeding through the intergalactic ghetto like a lost soccer mom in her Volvo.

[justin stanwix @jts]

all these years waiting for aliens and proof of "intelligent life" elsewhere in the universe. this will be humanity's greatest self-own. we are the unintelligent life.