Economy of the available universe

The original allocation

Earth's early premium

The hinge-era political economy combined democracy, plutocracy and oligarchy. Elections determined governments; wealth and connections strongly influenced access to the institutions that allocated the new productive capacity. Property survived the transition unevenly. Some shares and savings became claims on automated industry, while other fortunes were displaced by political settlements and new concessions.

For several years, Earth-based assets were worth more at prevailing market prices than the rest of the available universe combined. Earth contained productive civilization, but also the homes, relationships, landscapes and social standing that most buyers actually wanted. Much of the population had little interest in consumption millions of years away or in becoming the kind of person who could use a galaxy. Rising incomes went into better terrestrial lives. Household portfolios remained concentrated in homes and familiar investments; comparatively little was saved for cosmic expansion.

Remote matter consequently sold cheaply relative to its eventual capacity to support life. People who valued distant branches and future consumption could purchase claims that short-horizon buyers barely valued. Their purchases were made before the latter's living expectations expanded to include those uses. As production and population multiplied off Earth and consumers acquired ambitions larger than terrestrial life, Earth's share of total asset value fell. Original landscapes retained scarcity premiums.

The cosmic land rush

During the 2030s, buyers acquired future claims on entire galaxies and enormous volumes of intervening gas. Allocation combined purchases, company stakes, government concessions and agreements among the coalitions able to launch competing fleets. Connected claimants could receive terms unavailable to ordinary savers. A certificate became valuable when an expansion enterprise undertook to collect the resources and enforce its distribution.

Industrial fleets replicate factories, launch systems and collectors. Expeditions carry small industrial seeds and archives in self-replicating spacecraft; most equipment is built from matter encountered after arrival. The mature expansion front advances at approximately 0.9c relative to the local cosmological frame. After the initial industrial growth, acquisition is limited by the advance of this front. Cosmic acceleration ultimately imposes a finite resource endowment.

Wealth and ownership

The largest fortunes consist of beneficial stakes in expansion systems and the matter they recover. Ownership tables trace those stakes through companies, trusts and controlled branches. A galaxy can change hands without moving any of its stars: the transaction changes whose instructions its resident machinery accepts and whose consumption its output supports.

Persistence of the settlement

ASDI advisers reduce avoidable investment losses, while the end of aging has removed the regular turnover of owners. As people became fully integrated superduperintelligences, portfolio management became part of their own cognitive activity. Protected endowments and binding instructions carry the original distribution into distant branches. Collection and security systems draw their resources from the same holdings they defend.

Democratic institutions still govern many settlements, but their authority generally extends to local administration and specified taxes. The founding property guarantees are conditions of access to the fleets and reserves. An Earth electorate can vote to change a concession without possessing machinery capable of implementing its decision in the claimed region.

Wage labor has ceased to provide a substantial route into ownership. Research and engineering continue as activities of resource-owning minds and their systems. Replicating a competent worker no longer requires hiring another independently endowed person, and widely reproducible discoveries earn little lasting rent. Gifts, membership, political access and returns on existing property dominate acquisition of wealth.

Under the divided-endowment rule, branching divides an existing claim. Increasing the number of conscious parts does not enlarge a person's entitlement. Universal schemes coexist with much larger funds reserved for particular citizens, members or descendants.^[1]

Notable galaxies

Leopold Aschenbrenner gave his wife an entire moderately sized galaxy. The gift conveyed its resource title and control of the resident collection systems. The transfer was administered as an ordinary change of beneficiary. An entire galaxy is a small gift beside the largest portfolios, which hold substantial fractions of the accessible cosmos.

Musk devoted another entire galaxy to a 4/20 joke. Stellar engines rearranged stars into the inscription “4/20” as seen from his home planet of Mars, transported there between 2036 and 119,420,069 CE; stellar lifting and controlled burning adjusted their brightness. The display's charter funds maintenance and protects the shape from subsequent industrial conversion. It is entered in the accounts as personal consumption. A failed star may be replaced; reuse of the slash for computation requires the owner's consent.

Resources and prices

On large scales, different cubes of space contain similar mixtures of ordinary matter. Differences in resource prices primarily reflect the amount recoverable, the time needed to reach it and the purchaser's discount rate. Smaller parcels differ in density, temperature and proximity to existing machinery. Compact sites with short communication delays command premiums; cold sites offer cheaper heat rejection.

Investors with short spending horizons prefer nearby production. Patient buyers can suspend activity, establish remote branches or reserve income for much later lives. At a continuous discount rate of one part in 100 million per year, a delivery 100 million years away retains about 37% of its undiscounted value. Terrestrial annual percentage rates would make the same delivery effectively worthless.

Once local fabrication and elemental conversion are established, regions have little need to import minerals or ordinary manufactured goods. Their major economic differences follow their ownership arrangements, collection conditions and preferred uses of computation. A nominal fortune does not imply immediately available power: its assets may still be uncollected gas, with the collection machinery millions of years away.

Collection, energy and fabrication

Most of the original ordinary-matter inventory lay outside galaxies' stellar bodies. Diffuse intergalactic gas was the largest resource; galaxy halos contained a further substantial share.^[2] Intergalactic scoop fleets use planet-sized magnetic collection fields to intercept ionized material. Neutral gas is ionized before capture. Extremely low densities require vast fleets operating over long periods. Processing and computing installations follow collection streams, avoiding the cost of shipping their fuel across galaxies.

Stellar collectors supplied power during early development. Fusion and stellar lifting make gas available for fabrication and controlled fuel use. Mature black-hole plants recover about 40% of incoming rest-mass energy as delivered power through cycles of accretion and extraction of rotational energy.^[a] Much of the incoming mass accumulates in growing black holes; reserves awaiting consumption remain ordinary matter in cold-gas vaults.

Nanotechnology fabricates equipment, while widespread stellar-scale particle accelerators and nuclear processing plants convert ordinary elements and isotopes into one another. The modest energy cost of transmutation makes composition a processing charge rather than a lasting source of mineral scarcity. Local hydrogen and helium can supply structural materials, computing substrate and artificial worlds.

Heat rejection, proximity and permission to alter existing surroundings remain costly. Space NIMBYism restricts new radiators, stellar dismantling and collection corridors even where machinery is cheap. Preserved stars and protected cooling environments can yield rents to owners who exclude competing uses.

Minds and living standards

Most inhabitants have vastly more intelligence, experience and material security than biological humans before the merger. A single legal person can encompass astronomical numbers of conscious parts, many pursuing different activities. Consumption includes larger minds, more concurrent lives, faster thought, richer environments and greater continuity. Increasing wealth enables consumers to develop more expensive preferences.

A fortune of 10²⁰ real dollars can consequently feel insufficient. Its owner may already control more resources than a terrestrial civilization once produced, while lacking the income to maintain the scale or speed of mind they now desire. Biological subsistence says little about these budgets. Living standards depend on the quantity and quality of supported experience and on a person's power to choose its form.

Computation is predominantly reversible, reducing dissipation per operation. Finite operating speeds, fault correction, memory management and communications still require energy, while processors occupy matter and need radiators.^[3] Greater speed and close coordination between parts can cost substantially more than a larger quantity of slow, dispersed computation.

Public provision supports immense amounts of ordinary life without equalizing command over resources. Funds differ in membership and whether they support additional parts or divide an existing allowance among them. The Ceres Continuity Fund measures provision in experienced hours at an agreed service level. Estates aligned with the character welfare movement fund high-welfare sequels to old stories, so that most instances of each fictional character end up happy.

Trade and cosmic isolation

Intergalactic trade chiefly transmits information through giant lasers. Scientific observations, designs, cultural works and mind states cross between regions; the receiving installations supply local matter and energy. Migrants purchase or already own capacity at the destination. Novel information can earn a price before it becomes widely reproducible, while ordinary designs circulate cheaply.

The expansion domain approaches a limiting radius of roughly 15 billion light-years from Earth in the original distance coordinates. About 85% of that volume lies in no-return regions: a branch arriving with the 0.9c expansion front can never send even a signal back to the origin.^[4] The founding ownership accounts therefore describe an allocation and projected recovery, rather than a census assembled from reports from every holding.

No-return property supports resident branches and beneficiaries. An Earth-resident branch can pay to establish a distant life but can never receive its earnings, memories or confirmation of arrival. For purchasers concerned only with their own local future, such claims offer no direct future consumption to the originating branch. For those who value the lives of distant parts, they can comprise most of a fortune.

Acausal trade coordinates uses of resources across regions that cannot communicate. Participants adopt decision procedures whose choices are correlated with those of counterpart agents, producing reciprocal local actions serving one another's preferences. Shared origins and prior commitments supply much of the basis for these correlations. The arrangements transfer no matter or messages across cosmic horizons.^[5]

The inherited-stock economy

As the expansion front exhausts its accessible domain, collection gives way to management of inherited stocks. Unbound regions become permanently separated. Local charters determine how quickly fuel can be consumed, which lives receive it and what unused reserves are preserved. Owners can continue exchanging information within bound systems, while their claims on disconnected systems operate through the arrangements already established there.

Natural decay and final closure

The inherited-stock economy ultimately ends under the Natural Proton Decay Convention, passed by intergalactic NIMBY and environmentalist coalitions. It protects natural proton decay and the decline of inhabited capacity it causes. Resource charters transmitted during expansion bind local fabrication, power and mind-transfer systems after cosmic isolation. Replacement baryons, successor substrates and archival resurrection are prohibited routes around each district's restoration schedule.^[10]

Stored energy can produce proton–antiproton pairs for new, separately maintained matter and antimatter machinery.^[11] Black-hole reserves can support much later finite continuations. The convention withholds permission for both, including continuation of existing alternative-substrate installations. Temporary inspector and household exemptions expire with local closure. Life ultimately ends throughout the universe while technically usable reserves remain protected. The final inhabited estates become compliant vacant landscapes.^[10]

Early literature

Nick Bostrom's Astronomical Waste (2003) described cosmic resources as potential computing capacity and worthwhile lives;^[6] his The Future of Human Evolution (2004) examined competitive pressures and protected endowments.^[7] Bostrom and Carl Shulman's 2023 propositions addressed copying, subjective speed and durable commitments.^[8] Thomas Kwa's 2026 notes proposed electromagnetic collection of intergalactic gas and computation near the recovered material.^[9]

See also

• 2029 superduperintelligence merger
• Intergalactic scoop fleets
• Space NIMBYism

Notes

1. ↑ Accretion spins the black hole up; magnetic extraction then reduces its spin. In Li and Paczyński's reference model, each complete cycle increases the hole's mass by a factor of 1.6644 and radiates 43.6% of the incoming rest-mass energy. Successive cycles require geometrically increasing feedstock. The delivered yield is lower after collection and conversion losses. Li, Li-Xin; Paczyński, Bohdan (2000). Extracting Energy from Accretion into Kerr Black Hole.

References

1. ↑ b c Interregional Accounts Concordance (4 billion CE). Founding Claims and Resource Budgets.
2. ↑ Connor, Liam, et al. (2025). A gas-rich cosmic web revealed by the partitioning of the missing baryons.
3. ↑ Konopik, Michael, et al. (2023). Fundamental energy cost of finite-time parallelizable computing. Nature Communications 14, 447.
4. ↑ Olson, S. Jay (2022). A causal limit to communication within an expanding cosmological civilization. Equations 4–5.
5. ↑ Oesterheld, Caspar (2017). Multiverse-wide Cooperation via Correlated Decision Making.
6. ↑ Bostrom, Nick (2003). Astronomical Waste: The Opportunity Cost of Delayed Technological Development.
7. ↑ Bostrom, Nick (2004). The Future of Human Evolution.
8. ↑ Bostrom, Nick; Shulman, Carl (2023). Propositions Concerning Digital Minds and Society. Version 1.21.
9. ↑ Kwa, Thomas (21 July 2026). Shortform on intergalactic matter collection. LessWrong.
10. ↑ a ↑ b Natural Proton Decay Convention Secretariat (4 billion CE). Expansion-charter accession register, protected baryon budgets and final restoration schedules.
11. ↑ L3 Collaboration (2003). Proton-Antiproton Pair Production in Two-Photon Collisions at LEP.