Section 3: D2 to D3—The Creation of Mass and 3D Reality
Introduction to D2-D3: Adding Depth to Reality
With D2, we introduced the 2D sheet, where information gained the ability to move across a surface, giving rise to the first fields and charged interactions. Now, as we transition from D2 to D3, we move from a 2D surface to a structure that has depth. This is the moment where mass and matter begin to form in the universe. The addition of this third dimension brings complexity, allowing information to condense and take on physical properties like mass.
D3: Mass Generation through Informational Spin
D3 represents the moment where informational energy is spun in such a way that it creates the illusion of solid matter—the kind of reality we observe in our everyday experience. By adding a new vector of depth, the spinning fields in D2 now gain the ability to condense, resulting in the formation of mass.
In D3, the positive force of energy causes the 2D sheet to compress, pulling information inward to form positive mass. This mass is charged and has a strong gravitational pull. This compression is similar to what we observe in the creation of matter at a fundamental level, where quarks and gluons interact to form protons and neutrons—the building blocks of atoms.
Mathematical Representation of D3: Adding Depth
To mathematically represent the transition from 2D to 3D, we introduce a third vector of depth, creating a volume from the original surface area. This volume represents the space within which mass is generated:
VD3=L×W×HVD3=L×W×H
Where:
V_{D3} is the volume in D3,
L is the length from D1,
W is the width from D2, and
H is the new depth created in D3.
This volume is where mass begins to form, as informational energy spins inward, compressing the fields into what we perceive as solid matter.
Observable Features: Mass and Matter Formation
In D3, the interaction of spinning fields creates the conditions for the formation of mass. This mirrors what we observe in particle physics, where energy condenses into particles with mass through interactions at the quantum level.
Quarks and Gluons:
In D3, the condensation of energy creates mass in a way that mirrors the formation of quarks and gluons in particle physics. Quarks are the fundamental building blocks of protons and neutrons, and they are held together by the exchange of gluons, the particles that mediate the strong force.
In D3, the spinning fields that were present in D2 now interact in such a way that they create massive particles, similar to the behavior of quarks bound by the strong nuclear force. This process can be thought of as the informational energy condensing into positive mass, creating the foundation for physical matter.
E=mc2E=mc2
Where E is the energy contained within the particle, m is the mass, and c is the speed of light. This equation, which describes the equivalence of mass and energy, is a direct consequence of the transition from spinning 2D energy in D2 into 3D mass in D3.
Spin and the Creation of Positive Mass
The spin in D3 is different from the spin in D2—here, the spin causes the inward pull of energy to condense, creating positive mass. This mass has a strong gravitational pull, and it serves as the foundation for the physical matter that we observe in the universe.
Positive Mass:
In D3, mass is created by the compression of information. This compression introduces the idea of positive matter, which has a gravitational pull and interacts with other particles in the universe.
This positive mass can be represented mathematically through its gravitational potential energy:
U=−GMmrU=−rGMm
Where:
U is the gravitational potential energy,
G is the gravitational constant,
M and m are the masses of two objects, and
r is the distance between them.
In D3, the creation of mass introduces the concept of gravitational interaction—mass attracts other mass, leading to the formation of structures like stars, planets, and galaxies.
The Importance of Depth in Reality
Adding depth in D3 is crucial because it allows for the existence of volume. Without depth, the universe would remain a flat surface with no solid objects. In D3, we begin to observe the three-dimensional volume that we experience in our physical reality. This volume is the basis for all physical structures in the universe, from subatomic particles to the largest galaxies.
The Role of Depth in Observable Reality:
The addition of depth creates the spatial dimensions that allow for the three-dimensional objects we observe. In D3, the universe takes on a more familiar form, where objects have length, width, and depth.
Push-Pull Dynamics and Gravitational Effects
The same push-pull dynamic from D0-D2 continues to operate in D3, but now it introduces the concept of gravitational pull. Mass in D3 has a gravitational effect, pulling in other particles and fields, just as positive masspulls in other mass through the force of gravity. The push of energy expands the volume, while the pull of energy condenses it into mass, creating the conditions for gravitational interaction.
Key Takeaways
D3 introduces depth, creating the first 3D structures of reality, where mass and volume emerge.
Spin in D3 leads to the formation of positive mass, similar to how quarks and gluons form protons and neutrons in particle physics.
The gravitational pull of mass becomes significant in D3, leading to the formation of physical structures like stars and galaxies.
The push-pull dynamic continues to shape reality, creating a balance between expansion and gravitational compression.
Next, we’ll move into D4, where the concept of time is introduced, and we explore how mass and information begin to move through linear time, setting up the flow of reality that we experience.