Unraveling the Mysteries of Dark Matter and Dark Energy

Electromagnetic property serves as a critical marker of a substance’s energy level, as well as the core criterion determining whether matter can be observed, interact with other objects, and form ordered structures. Dark matter and dark energy reside at low energy levels and lack electromagnetic properties. According to the second law of thermodynamics, heat can only spontaneously transfer from high-energy systems to low-energy ones, rather than the reverse. Devoid of electromagnetic properties, dark matter and dark energy persist in a quiescent low-energy state and fail to engage in effective interactions with high-energy detection systems. They cannot emit, reflect or absorb electromagnetic waves, which constitutes the fundamental reason why they evade direct observation.

Dark matter possesses mass and generates gravitational force, forming the skeletal framework of cosmic structures and providing the mass foundation for spacetime itself. By contrast, dark energy is massless and structure-free. It only produces cosmic repulsion via negative pressure and drives the accelerated expansion of space.

A Unified Interpretation of Dark Matter and Dark Energy Based on the Three-Term Energy Framework

From the perspective of energy hierarchy, the particle intrinsic energy structure established in this paper:

E = \gamma m c^2 + \frac{e^2}{k_e} + \frac{g_s^2}{k_s}

delivers a self-consistent and unified physical interpretation of the three fundamental cosmic components: visible matter, dark matter and dark energy.

Ordinary visible matter boasts a complete energy-level configuration, containing all three components: relativistic mass energy, charge topological energy and color charge topological energy. It therefore participates simultaneously in gravitational, electromagnetic and strong interactions, forming atoms, stars and macroscopic material systems — the only form of matter fully characterized by conventional physical theories.

Dark matter corresponds to a material form at a lower energy tier. Its energy level is insufficient to excite charge and free local color charge structures, making the charge topological energy term and color charge topological energy term identically zero, with only the relativistic mass-energy term \gamma m c^2 retained. This naturally accounts for the observed traits of dark matter: it produces no electromagnetic radiation, does not partake in strong interactions, cannot undergo chemical reactions or energy level transitions, and only binds cosmic structures through gravitational effects derived from mass energy. Dark matter is not a strange new type of particle; it represents a minimalist low-energy configuration where all subtle microscopic topological energy structures of conventional matter have fully de-excited.

Dark energy occupies an even lower energy tier than dark matter. Its energy density and degree of condensation fail to satisfy the physical conditions required to form valid mass-energy gravitational structures, and it completely loses the capacity to engage in gravitational binding. Once a material system’s energy level drops below the gravitational coupling threshold, the original cohesive gravitational effect vanishes. Macroscopically, its dynamic behavior manifests as dispersion and repulsion of space, generating the repulsive effect known as dark energy that fuels cosmic expansion.