Bitcoin as a Planetary Computer
Imagine the entire planet is one big computer. The power grid is the circuit board. Mining machines are the tiny switches. And Bitcoin is the program running on this giant, planet-sized computer. No one person controls it, because no one person controls the entire planet's electricity.
The thesis reframes Bitcoin not as software, but as a planetary-scale physical system. The global electric power grid is the "circuit board." Mining ASICs are the "transistors." Proof-of-work is the "clock cycle." The blockchain is the "memory." This computer is unique: it uses the environment OUTSIDE traditional computers as its state mechanism.
While every other computer controls states inside itself, Bitcoin "chains down" regular computers by requiring proof-of-power for state changes. It's reverse-optimized: deliberately more constrained, more restricted, more energy-expensive. This is the exact opposite of 80 years of computing progress.
Lowery's planetary computer framework (pp. 302-310) repositions Bitcoin from a software application to a physical computing system that utilizes the global electric power grid as its computational substrate. The critical architectural insight is that Bitcoin's state machine operates externally to traditional von Neumann architectures. It uses the thermodynamic environment as its state mechanism, requiring provable energy expenditure for every state transition.
Computational Inefficiency as Feature
Everyone says Bitcoin "wastes" energy. But that's like saying a castle's thick walls "waste" stone. The whole point IS the thickness! If you made the walls thin and "efficient," they wouldn't protect anything. Bitcoin is supposed to be slow, heavy, and expensive. That's what makes it strong. It's like a deer's antlers: they look "wasteful" but they're the whole reason the deer survives.
For 80 years, computing has chased one goal: faster, smaller, cheaper, more energy-efficient. Bitcoin reverses that entire paradigm. It's deliberately reverse-optimized, designed to be the slowest, heaviest, most energy-intensive computer ever built. This isn't a bug. It's the primary feature.
Efficiency would destroy Bitcoin's security. If it were cheap and easy to write to Bitcoin's ledger, it would be cheap and easy to attack. The "waste" of energy IS the security. Just as antlers appear metabolically wasteful but are essential for survival, Bitcoin's energy consumption is its defense mechanism. Few articles celebrate how computationally difficult it is to transfer, receive, and store bits of information, but Bitcoin enthusiasts understand that this difficulty is a virtue, not a flaw.
Lowery identifies a fundamental bias in computer engineering (pp. 302-303): the unchallenged assumption that smaller, lighter, cheaper, faster, and more energy-efficient state mechanisms are always better for every possible computing application. He argues this assumption has prevented researchers from exploring the complex emergent benefits of designing a massive-scale, heavy, slow, expensive, and energy-intensive computer. Bitcoin represents the first serious challenge to this paradigm: a deliberately reverse-optimized system with physically restricted state spaces and thermodynamically constrained state changes.
"Here's an interesting question: What's the slowest and most energy-inefficient computer in the world? Why don't we measure that or celebrate that machine? Rarely do engineers discuss the strategic value of endeavoring to biggest, slowest, and most energy intensive computers with smaller and more physically restricted state spaces."
— Lowery, p. 303
Proof-of-Power = Proof-of-Real
In the digital world, everything can be faked. Photos, videos, messages, all fake-able. But you CAN'T fake electricity. If someone proves they used 1 million watts, they actually used 1 million watts. No pretending.
That's what makes proof-of-work special: it's the one thing in cyberspace that CAN'T be faked.
In cyberspace, the brain's realness-verification algorithm fails completely. Every signal could be fabricated, with no physical grounding. Proof-of-work solves this by anchoring digital claims to physical reality: the stamp proves that real-world watts were consumed. It's not just "proof of computation." It's proof that someone physically expended energy in the real world.
Lowery argues (pp. 315-319) that proof-of-work stamps function as "proof-of-real" in a domain where the capability gap between real and fabricated signals is otherwise unbridgeable. This connects directly to Chapter 2's realness-verification algorithm: just as physical power serves as the grounding mechanism for truth in the physical world, proof-of-power serves as the grounding mechanism for truth in cyberspace.
Physical Cost Functions Convert Watts into Bits
Normal computer programs only change things INSIDE the computer, flipping tiny switches on a chip. Bitcoin is different. It changes things OUTSIDE the computer. It uses up real electricity from the real world. That's like the difference between moving a piece in a video game versus actually picking up a heavy rock. One is pretend effort, the other is real effort you can't fake.
Regular computer programs produce a single physical effect: a materially inconsequential transistor state change inside a microchip. Physical cost function protocols like Bitcoin do something fundamentally different. They create materially consequential state changes in the surrounding physical environment OUTSIDE of the computer. The boundary between a computer's internal circuitry and the external world disappears.
Bitcoin converts the global electric power grid into a giant circuit board that transmits, receives, modulates, samples, and stores electromagnetic signals in the form of large quantities of electric power. The "proof-of-power receipt" is the digitized result: real-world watts converted into machine-readable bits of information. These bits are reverse-optimized: as expensive and difficult as possible to produce, transfer, and store. This is the exact opposite of normal computing.
Lowery's analysis of physical cost function protocols (pp. 310-314) identifies the critical distinction between regular software and Bitcoin at the state mechanism level. Regular programs control only the internal state of a state machine. Physical cost function protocols control both internal states and the state of the surrounding physical environment. Bitcoin applies Boolean logic to massive quantities of electric power drawn from the local environment, treating the globally distributed electric power grid as if it were a state-changing circuit board. It uses the same technology, the same physical phenomena, the same design concept, but reverse-optimized.
"People mistakenly believe that Bitcoin's substantial energy usage is a bug, but it's actually its primary value-delivered feature. It's the fact that Bitcoin creates such a substantial physical change to the state of the environment outside of the computer on which it runs which makes Bitcoin so extraordinarily different and unique compared to all other types of software."
— Lowery, p. 310
PoW vs. PoS: There Is No Second Best
Proof-of-Work uses real electricity. Proof-of-Stake uses... trust. It's like saying "I'm strong because I SAY I'm strong" versus actually lifting weights. One is real, one is pretend. The thesis says Proof-of-Stake is just another God-King system dressed up in tech language.
The thesis draws a sharp line: Proof-of-Work uses the planet's physical power grid (real, thermodynamic). Proof-of-Stake uses regular transistors to simulate consensus (abstract, imaginary). PoS is structurally identical to the trust-based hierarchies the thesis criticizes, functioning as "proof-of-imaginary-power" or "proof-of-rank."
At the time of writing, 60% of Ethereum 2.0 blocks were OFAC-compliant (censored), demonstrating that PoS systems concentrate abstract power in the hands of validators who can be compelled by external authorities.
Lowery's PoW vs PoS analysis (pp. 323-339) argues that the distinction is not merely technical but ontological. PoW operates through physical power (real thermodynamic work), while PoS operates through abstract power (stake-weighted voting, which is functionally a trust-based hierarchy). He identifies PoS as "proof-of-imaginary-power" and draws a direct parallel to the God-King model: validators are gatekeepers within an exploitable belief system.
Chapter 4: The Digital Battlefield
PoW vs PoS: Physical vs Abstract
Imagine two ways to protect a treasure chest. One way uses a giant, real-world lock that takes enormous energy to break, like a vault door made of steel. The other way uses a "pinky promise" from the richest people in town. Which one do you trust more when things get serious?
Proof-of-Work and Proof-of-Stake represent fundamentally different security philosophies. PoW anchors digital security in thermodynamic reality: real energy, real cost, real physical constraints. PoS anchors it in financial stake: abstract value, trust assumptions, and permissioned access. The thesis argues this distinction is not merely technical but civilizational.
Lowery argues (pp. 195-220) that Proof-of-Stake systems represent a regression to pre-Bitcoin trust models. By replacing thermodynamic cost with financial stake, PoS reintroduces the very power asymmetries Bitcoin was designed to eliminate. The OFAC compliance data from Ethereum's post-Merge period provides empirical evidence: 60% of Ethereum 2.0 blocks were OFAC-compliant at time of writing, demonstrating that abstract consensus mechanisms are inherently susceptible to state-level coercion.
Proof-of-Work
Physical PowerProof-of-Stake
Abstract PowerPower Projection Comparison
Stress Test: How Does Each System Respond?
Toggle each scenario to see the difference
Miners are globally distributed and anonymous. No single jurisdiction can compel censorship. Censored transactions find inclusion through non-compliant miners. Physical power is permissionless.
Staking pools concentrate in regulated jurisdictions. 60% OFAC compliance already demonstrated. Validators risk losing their stake if they defy government orders. Abstract power is permissioned.
Must build physical infrastructure: power plants, mining facilities, supply chains. Limited by thermodynamics, geography, and time. Cannot simply "buy" hashrate. You must physically produce it.
Can acquire controlling stake through market purchases. Wealth begets more wealth through staking rewards. No physical constraint prevents accumulation. Rich get richer by design, creating a plutocratic feedback loop.
Must command more electricity than entire nation-states. Requires physical hardware: ASICs, cooling, real estate. Attack is visible, slow to mount, and self-defeating because the energy cost exceeds the potential reward.
Requires accumulating tokens, a financial operation, not a physical one. Can be achieved through market manipulation, exchange hacks, or slow accumulation. Attack is invisible until executed and costs nothing in real-world energy.
The Strangler Pattern
Imagine an old brick wall. Over years, ivy grows on it, slowly and quietly. One day you look and the ivy IS the wall. The old bricks are still there underneath, but the ivy holds everything together now. Bitcoin might be doing that to the internet. It started with money (just one vine), but it could eventually wrap around everything.
In software engineering, a "strangler pattern" describes how a new system gradually replaces a legacy system, not by tearing it down, but by wrapping around it, service by service, until the old system is fully superseded. The thesis suggests Bitcoin may be doing exactly this to the internet's existing architecture.
Financial information exchange appears to be the first "microservice" being migrated to the new physically constrained version of cyberspace. People have already started not to trust or value financial bits of information unless they're derived from the planetary-scale computer. But finance may be just the beginning. As more services demand proof-of-real anchoring, Bitcoin could gradually replace the legacy, physically unconstrained internet from the foundation up.
Lowery introduces the strangler pattern analogy (pp. 321-322) to describe Bitcoin's potential architectural trajectory. He argues that the global adoption of Bitcoin may represent a modernization of the existing internet architecture, gradually replacing services performed on the legacy, physically unconstrained system with services performed on a new physically constrained and thermodynamically restricted platform. Financial information exchange represents the first of many microservices to be migrated.
"It is possible that what we are seeing with the global adoption of Bitcoin represents a 'strangler pattern' playing out for the existing internet architecture — we could be modernizing a large, monolithic computing system right now by gradually replacing services performed on the legacy system with services performed on the modernized system."
— Lowery, p. 322
The Bitpower Concept
The name "Bitcoin" tricks your brain. The word "coin" makes you think of money, like quarters and dimes. But that's not what it is! A better name would be Bitpower Bitpower Proposed rename for Bitcoin. Real-world watts converted into machine-readable tokens of physical power. Not 'coins,' but power receipts. Chapter 4 , because each token is really just a tiny container of real-world electrical power that's been turned into computer data. It's not a coin. It's digitized power.
The thesis proposes a revealing rename: "Bitcoin" should be called Bitpower. The word "coin" is a hypostatization, treating an abstract concept as if it were a concrete physical object. When people hear "coin," they think money, and this hides what Bitcoin actually does. "Bitpower" is literal: "bit" refers to the machine-readable information, "power" refers to the real-world watts drawn from the environment and consumed by hashing machines.
This naming distinction matters strategically. If you categorize Bitcoin as a "cryptocurrency" or "blockchain," it looks like one of thousands with no clear leader. But if you account for physical power output, Bitcoin represents 94% of ALL proof-of-work hash rate. It's not one coin among many. It's the dominant physical power projection protocol on the planet.
Lowery's proposed renaming (pp. 337-339) addresses what he views as a critical information-hiding problem. The term "coin" constitutes a hypostatization that obscures Bitcoin's fundamental mechanism. "Bitpower" is not a metaphor; it is a literal description: quantities of physical power (watts) drawn out of the environment, digitally sampled by the hashing network, and converted into machine-readable bits of information. Unlike "coin," the term "bitpower" does not hide what is happening at the state mechanism level. At the time of writing, Bitcoin represented 94% of all physical cost function protocol hash rate combined, making it sixteen times more powerful than all other proof-of-work protocols.
"The word 'bitpower' literally means quantities of power (a.k.a. watts) converted into (physically scarce, decentralized, and costly) bits of information that can be transferred across cyberspace... 'Bitpower' isn't an imaginary concept designed to make it easier for people to understand a specific use case of the technology; it's literally digitized power."
— Lowery, pp. 337-338
Gabriel's Horn: The Paradox of Bitpower
Here's a brain-twister: there's a math shape called Gabriel's Horn that has a FIXED amount of space inside but INFINITE surface area. Bitcoin works the same way! There will only ever be 21 million tokens (fixed inside), but each token can represent MORE and MORE real-world power as mining grows (infinite surface). When new miners join, they don't water down your tokens. They make every token MORE powerful. It's the opposite of printing money, which makes every dollar worth less.
Gabriel's Horn is a mathematical paradox: a shape with finite volume but infinite surface area. You could fill it with a fixed amount of paint, but you could never cover its surface no matter how much paint you had. The thesis uses this paradox to explain Bitcoin's most counterintuitive property.
Bitcoin's supply is capped at 21 million tokens (finite volume). But each token can represent infinitely large quantities of real-world physical power (infinite surface area). As more mining power is added to the network, the power density per token INCREASES, the exact opposite of fiat currency, where printing more units dilutes each existing unit. Owning bitpower means automatically inheriting the strength of all future physical power added to the system. This creates an "unforgiving first-mover advantage," and those who hesitate face substantial path dependence working against them.
Lowery employs the Gabriel's Horn Paradox (pp. 341-346) to formalize Bitcoin's logically paradoxical but mathematically valid emergent properties. The finite volume of Gabriel's Horn maps to Bitcoin's supply-capped quantity of bitpower (21 million tokens). The infinite surface area maps to the infinitely expandable quantity of real-world physical power each token can represent. Nakamoto's design digitally converts an infinitely expandable supply of physical power (watts) into a fixed-volume supply of bitpower with infinitely expandable surface area, with each token visualized not as a "coin" but as a section of surface area on Gabriel's Horn that can expand without limit.
Critically, adding more physical power to the system does not dilute existing bitpower. The percentage magnitude of any unit of bitpower remains constant (fixed by the horn's volume), while the watts represented by each unit must increase to account for added power. This produces two compounding properties: infinite representational scalability and immunity to dilution, creating what Lowery describes as a potentially disproportionate strategic value as a cyber security asset with an unforgiving first-mover advantage and substantial path dependence.
"The most important takeaway from this design concept is that an infinitesimal amount of bitpower can represent an infinitely large quantity of physical power for any number of users without dilution, giving it potentially disproportionate strategic value as a cyber security asset that is both infinitely scarce and infinitely scalable."
— Lowery, p. 346
Gabriel's Horn: Finite Supply, Infinite Power
Imagine a magic trumpet that you can never finish painting the outside (infinite surface area), but it only holds a tiny fixed amount of liquid inside (finite volume). Bitcoin is like that trumpet — there will only ever be 21 million tokens, but the power protecting each one can grow forever. Drag the slider to see what happens when more miners join!
Gabriel's Horn is a shape with infinite surface area but finite volume. You could fill it with a fixed amount of paint, but you could never cover its surface no matter how much paint you had. The thesis uses this paradox to explain Bitcoin: the total supply is capped at 21 million tokens (finite volume), but the amount of physical power securing each token can increase without bound (infinite surface area). Compare this to fiat currency, where supply expands while purchasing power shrinks.
Lowery invokes the Gabriel's Horn Paradox (pp. 341–346) — the solid of revolution formed by rotating y = 1/x around the x-axis for x ≥ 1 — as a mathematical analogy for Bitcoin's power density dynamics. The horn's finite volume (π cubic units) but infinite surface area mirrors how Bitcoin's capped 21M token supply can absorb unbounded hashrate, concentrating ever-greater power density per token. Each token is visualized not as a “coin” but as a section of surface area on Gabriel's Horn that can expand without limit. This is the antithesis of fiat monetary policy where supply expansion dilutes per-unit value.
Fiat vs Bitpower
Softwar: The Core Concept
What if instead of fighting wars with guns and bombs, countries competed by using electricity? Nobody dies. No buildings get destroyed. But you still prove who's stronger. That's Softwar Softwar Non-lethal, non-kinetic warfare using electricity instead of kinetic force. Achieves the same benefits as war, without bloodshed. Chapter 4 : war without the "hard" part.
If the bitpower theories are valid, Bitcoin is a physical power projection protocol. "Softwar" is non-lethal, non-kinetic warfare that achieves the same emergent benefits as traditional warfare, including resource security, hierarchy establishment, dispute resolution, and consensus on ownership, but through electric power competition instead of kinetic destruction.
Nakamoto solved the Byzantine Generals Problem not through clever cryptography but through physical power competition. Generals (miners) prove allegiance by expending real watts.
The Softwar concept (pp. 340-357) synthesizes the thesis's full argument: if proof-of-work constitutes physical power projection in cyberspace, then Bitcoin mining is a form of warfare, specifically non-kinetic warfare that produces the same emergent benefits identified in Chapter 4's analysis of kinetic conflict. Lowery traces the evolution from Adam Back's hashcash (two-step: watts in, receipt out) through Hal Finney's reusable proofs-of-work (adding transferability) to Nakamoto's Bitcoin (adding a competitive ledger mechanism).
Mutually Assured Preservation
Here's the amazing part: when enemies compete on the SAME Bitcoin network, they accidentally make each other safer! More miners = thicker walls for EVERYONE. It's the opposite of war: instead of destroying, you BUILD. Instead of enemies, you get "frenemies."
MAD (Mutually Assured Destruction): kinetic warfare leads to nuclear paradox leads to stalemate. MAP (Mutually Assured Preservation): electric warfare leads to mutual benefit leads to infrastructure.
The key insight: adversaries competing on the same planetary computer become mutual beneficiaries. As competing hash forces add power, they increase CA for ALL users, including adversaries. Byproducts: MORE infrastructure, CHEAPER energy. No one dies. No infrastructure is destroyed. Energy production is incentivized. Nations can "raise hash forces" like they raise armies.
The Mutually Assured Preservation thesis (pp. 358-369) represents the culminating argument: if Bitcoin mining constitutes a form of physical power competition, then nation-state adoption transforms an adversarial security relationship (zero-sum kinetic warfare) into a cooperative one (positive-sum electric power competition). Competing hash forces inadvertently increase the cumulative CA of the network, benefiting all participants, including adversaries. This creates a stable equilibrium where escalation produces mutual benefit rather than mutual destruction.
Tesla and Ford predicted this 100 years ago
In 1900, Tesla wrote that 'merely machines will meet in a contest without bloodshed.' In 1921, Ford predicted an 'energy currency' that would end wars. Both saw the future a century early.