Linking quantum mechanics and general relativity with derived Λ and G (booklet)

Linking quantum mechanics and general relativity with derived Λ and G (booklet)

v. 7 n. 18

This is a composite of recent articles on quantum mechanics and general relativity.

General relativity is conventionally phrased

G_uv + Λg_uv = 8πGT_uv,

where the cosmological term, Λ, is a measured astronomical value, and with the G_uv term reflects the shape of space on the left side of the equation. If Lambda is a variable, though, as suggested by the DESI dark energy survey, it is properly on the right side of the equation as an active driver of the acceleration of the universe,

G_uv = 8πGT_uv - Λg_uv.

As a dependent parameter, it was described as

Λ(t, ρ) = c^-2 ( 3H^2 + 3 a2 /a + 8πG(t, ρ)ρ ), [1] - [5]

linking general relativity and quantum mechanics with a recursive form. [6]

Similarly, the gravitational constant was considered a dependent parameter,

G(t, ρ) = (3H^2 + 3 a2 /a) / 8πρ,

nevertheless, it remained stable throughout the cosmic eras with a slight oscillation. [7] - [10]

The adapted field equations read,

G_uv = 8πG(t, ρ) T_uv - Λ(t, ρ)g_uv.


[1] (2) General relativity with variable cosmological constant, update | LinkedIn

[2] (2) An emergent quantum mechanics from a recursive general relativity, Part 1 | LinkedIn

[3] (4) An emergent quantum mechanics from a recursive general relativity, Part 2: Test 1 | LinkedIn

[4] (4) An emergent quantum mechanics from a recursive general relativity, Test 2 | LinkedIn

[5] (4) An emergent quantum mechanics from a recursive general relativity, Test 3 | LinkedIn

[6] (2) Deriving Planck's constant | LinkedIn

[7] (4) A derivation of the gravitational constant, Part 1 | LinkedIn

[8] (4) A derivation of the gravitational constant, Part 2 | LinkedIn

[9] (4) A derivation of the gravitational constant, update | LinkedIn

[10] (4) Subtle oscillation of G over time | LinkedIn



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