Encyclopedia/All topics/Cosmology
Cosmology
Articles 541–600 of 883. Alphabetical by title.
Cosmology Large Scale Structure From Rs Large Scale Structure Cert
A machine-checked certificate names five standard cosmic structures and asserts they grow in a fixed, golden ratio pattern.
Cosmology Large Scale Structure From Rs Lss Regime Count
Cosmology's large-scale structures fall into five named regimes, a count that a machine-checked library proves and that a golden-ratio ladder orders.
Cosmology Large Scale Structure From Rs Lssregime
A machine-checked catalog names five standard cosmic structures and fixes their spacing by the golden ratio, without claiming the physics that produces them.
Cosmology Large Scale Structure From Rs Scale
A machine-checked library places five cosmic structures, from the cosmic microwave background to voids, on a ladder where each step is 1.618 times the last.
Cosmology Large Scale Structure From Rs Scale Pos
A single theorem in a machine-checked library says each rung of a cosmic distance ladder is a fixed multiple of the one below it, and that multiple is the golden ratio.
Cosmology Large Scale Structure From Rs Scale Ratio
A theorem in the Recognition Science library states that consecutive cosmic structure scales differ by a fixed ratio, the golden ratio, but it does not by itself assign those scale
Cosmology Lattice Ball Edges
In a growing lattice, most connections between cells are carried for free; only a shrinking fraction at the boundary costs anything.
Cosmology Lattice Ball Edges Carried Edge Card
A machine-checked proof counts the edges a growing lattice carries for free, and the answer is a simple polynomial.
Cosmology Lattice Ball Edges Carried Ge Interface
In a growing lattice, nearly every connection between neighboring cells is carried for free; only a vanishing fraction demands payment.
Cosmology Lattice Ball Edges Interface Cube Le Total Sq
In a growing three-dimensional lattice, the number of boundary edges never outgrows the total edge count raised to the two-thirds power, a bound that keeps the surface cheap relati
Cosmology Lattice Ball Edges Interface Sq Le Total
In a coarse-grained lattice, the number of boundary edges between two regions grows no faster than the square root of the total number of edges, a bound the framework proves exactl
Cosmology Lattice Ball Edges Three Mul Dset Card
A machine-checked theorem gives the exact number of neighbor links inside a growing three-dimensional lattice ball, revealing how much of its structure is carried for free.
Cosmology Lattice Ball Edges Three Mul Step Card
A machine-checked proof counts the edges of a growing three-dimensional lattice ball, revealing that almost all connections are carried for free.
Cosmology Lattice Ball Edges Three Mul Total Edge Card
A proved formula counts every connection inside a growing three-dimensional lattice ball, and the count splits into edges the engine carries for free and edges it must pay for.
Cosmology Lattice Ball Edges Total Edge Card
A machine-checked theorem counts every adjacency inside a growing lattice ball, and splits it into edges the engine carries for free and edges it must pay to distinguish.
Cosmology Lattice Ball Volume Diamond Card Eq Sum
A machine-checked theorem counts the cells inside a growing diamond-shaped region, revealing a simple quadratic law behind a simulation's raw numbers.
Cosmology Lattice Ball Volume Octa Card Eq Sum
A machine-checked theorem counts the integer points inside a growing octahedron, and the count turns out to be a known formula.
Cosmology Lattice Ball Volume Outer Sum 2d
A machine-checked theorem gives the exact count of cells in a growing 2D diamond-shaped lattice, and it is a pure arithmetic fact, not a claim about physics.
Cosmology Lattice Ball Volume Slice Card
A single theorem counts the lattice points on a line through a growing diamond, the first step toward exact volume laws for a coarsening grid.
Cosmology Matter Radiation Equality Rs
Matter-radiation equality is the cosmic moment when matter and radiation had equal energy density, a standard epoch around redshift 3400.
Cosmology Matter Radiation Equality Rs Matter Rad Eq Cert
A machine-checked certificate proves three general facts about a cost function, but it does not prove the cosmological redshift it was named for.
Cosmology Neutrino Dilution
After electrons and positrons annihilated in the early universe, neutrinos were left colder than photons; cosmology neutrino dilution is the precise 4/11 ratio that entropy conserv
Cosmology Neutrino Dilution Dilution Eq Dilution Cubed
After electrons and positrons annihilated in the early universe, neutrinos were left with a cooler temperature; the ratio is exactly (4/11)^(1/3), a number now derived from entropy
Cosmology Neutrino Dilution Dilution From Entropy Conservation
When electron-positron pairs annihilated in the early universe, they heated the photons but not the already-decoupled neutrinos; entropy conservation fixes the resulting temperatur
Cosmology Neutrino Dilution G Star S From Conservation
A theorem in the framework's machine-checked library shows how the universe's entropy count after electron-positron annihilation forces the standard value g*s = 43/11, a
Cosmology Neutrino Dilution Plasma Before Eq G Before
Before electrons and positrons annihilated, the universe's hot plasma had an effective entropy weight of 11/2; a machine-checked proof derives this from first principles.
Cosmology Neutrino Dilution Radiation Entropy
In the early universe, electron-positron annihilation heated the photons and left the neutrinos cooler; a machine-checked derivation now shows why the ratio is exactly 4/11.
Cosmology Neutrino Dilution Total Entropy Eq G Star S
After electrons and positrons annihilated in the early universe, the cosmic entropy per photon settled at a fixed number; a machine-checked proof shows why.
Cosmology Neutrino Dilution Total Entropy Today
A machine-checked theorem pins down today's cosmic entropy density from two physical assumptions, and says exactly which parts of the calculation remain assumptions.
Cosmology Neutrino Hierarchy From Phi Ladder
Three neutrino masses, spaced by the golden ratio squared, plus two hierarchy scenarios: a five-state structure that a machine-checked library certifies.
Cosmology Neutrino Hierarchy From Phi Ladder Mass Split Ratio
In the Recognition Science framework, the ratio of adjacent neutrino mass-squared splittings is fixed to the golden ratio squared, a claim about structure, not a measurement.
Cosmology Neutrino Hierarchy From Phi Ladder Mass Split Ratio Eq
A machine-checked proof shows that a proposed neutrino mass-splitting ratio equals the golden ratio plus one, a step in a larger structural scheme.
Cosmology Neutrino Hierarchy From Phi Ladder Mass Split Ratio Pos
A machine-checked proof that a proposed neutrino mass ratio is a positive number, and the narrow scope of that statement.
Cosmology Neutrino Hierarchy From Phi Ladder Neutrino Hierarchy Cert
A machine-checked certificate in the Recognition Science library packages a claim about neutrino mass ratios, but the physics it describes remains an unverified hypothesis.
Cosmology Neutrino Hierarchy From Phi Ladder Neutrino State
A machine-checked declaration counts five neutrino states and fixes a golden-ratio mass splitting, but says nothing about which hierarchy nature chose.
Cosmology Neutrino Hierarchy From Phi Ladder Neutrino State Count
A machine-checked theorem counts exactly five neutrino states, but it does not say which hierarchy nature chose.
Cosmology Neutrino Mass3 From Phi Ladder
A proposed cosmic neutrino mass tied to the golden ratio, and a machine-checked module that proves only the scaffolding, not the physics.
Cosmology Neutrino Mass3 From Phi Ladder Nu Mass3 Cert
A machine-checked certificate named NuMass3Cert proves three general properties of a cost function, but its name overstates what it establishes about neutrino masses.
Cosmology Number Density Integral
The number density integral is the mathematical tool that counts how many photons and neutrinos filled the early universe, and its exact values are now proven theorems.
Cosmology Number Density Integral Bose Number Integral Value
A single integral, ∫ t²/(eᵗ−1) dt = 2ζ(3), is the exact mathematical core of how many photons fill a hot universe.
Cosmology Number Density Integral Entropy Density Coeff Provenance
A machine-checked proof shows that the standard coefficient in the entropy density of a photon gas follows from a single integral, with no fitted constants.
Cosmology Number Density Integral Entropy Per Photon From Integrals
A machine-checked proof rewrites a cosmology ratio as a quotient of two definite integrals, turning a formula into a theorem.
Cosmology Number Density Integral Fermi Div Bose Number Integral
In the early universe, a ratio of two simple integrals fixes the number of fermions relative to bosons at three quarters.
Cosmology Number Density Integral Fermi Number Integral Value
A single definite integral, evaluated exactly, gives the 3/4 ratio that dilutes fermion number densities in the early universe.
Cosmology Number Density Integral Has Sum Eta Three
A single alternating series equals three quarters of a famous constant, and that ratio quietly governs how many particles filled the early universe.
Cosmology Number Density Integral Number Density Coeff Provenance
A machine-checked proof shows the photon number density coefficient is exactly 2ζ(3)/π², not an approximation or a fitted constant.
Cosmology Occupation Energy
In thermal physics, the energy carried by a gas of particles depends on how many particles occupy each energy level; a machine-checked library derives the famous 7/8 ratio between
Cosmology Occupation Energy Bose Energy Kernel Eq
A machine-checked theorem shows the standard formula for energy stored in a gas of bosons follows from counting how particles occupy energy levels, not from assuming the formula di
Cosmology Occupation Energy Energy Ratio Seven Eighths
In thermal physics, the energy carried by fermions is exactly seven-eighths of the energy carried by bosons at the same temperature, and a machine-checked proof now traces that rat
Cosmology Occupation Energy Fermi Energy Kernel Eq
A theorem in the framework's machine-checked library rewrites the Fermi energy integrand as a product of a mode's energy and its occupation number, and does not itself fi
Cosmology Occupation Energy Occupation Energy Cert
The certificate packages two machine-checked identities: the Bose and Fermi energy integrands equal t³ times their partition-derived occupation numbers, and their integral ratio is
Cosmology Omega Baryon3 From Jcost
A machine-checked library proves three general facts about a cost function, but the leap to a cosmology result about baryons is a research note, not a theorem.
Cosmology Omega Baryon3 From Jcost Omega Baryon3 Cert
A formal object named OmegaBaryon3Cert proves three general facts about a cost function, but it does not yet connect those facts to the universe's baryon fraction.
Cosmology Omega Lambda Bitkernel Band
A machine-checked proof narrows the cosmological constant to a band between 1.88 and 2.03 in natural units, a range the framework derives from a single golden-ratio identity.
Cosmology Omega Lambda Bitkernel Band Lambda Rs
A single number, built from the golden ratio, that the Recognition Science framework places inside the measured range of the cosmological constant.
Cosmology Omega Lambda Bitkernel Band Lambda Rs Band
The framework's cosmological constant lands in a narrow numerical band, but the band is a formal claim about a defined number, not a measurement of the sky.
Cosmology Omega Lambda Bitkernel Band Lambda Rs Pos
A machine-checked proof shows that a specific number, the Recognition Science cosmological constant, is greater than zero, a basic sanity check with a cosmological payoff.
Cosmology Omega Lambda Bitkernel Band Omega Lambda Band Cert
A machine-checked certificate pins a cosmological constant candidate to a narrow numerical window, without claiming the window matches observation.
Cosmology Omega Lambda Derivation
A counting argument over a discrete recognition cycle produces a number close to the measured fraction of the universe that is dark energy.
Cosmology Omega Lambda Derivation Em Correction Small
A framework for deriving cosmology from first principles produces a dark energy fraction, and its one adjustable input is a measured constant, not a derived one.