Abstract
We propose a speculative cosmological framework in which black holes act not as endpoints of matter but as temporal gateways redirecting mass-energy back to the origin point of spacetime—the Big Bang. In this model, matter collapsing into black holes is funneled via extreme spacetime curvature into a Planck-scale time loop, reemerging in the early universe as quantum fluctuations. These recycled particles contribute to the observed spectrum of virtual particles in quantum field theory, exerting real gravitational influence despite their transient presence in spacetime. This mechanism offers a unifying explanation for multiple cosmological anomalies: the gravitational effects of these particles manifest as dark matter; their uniform, time-smeared pressure contributes to dark energy; and their shared temporal origin provides a substrate for non-local quantum correlations such as entanglement. We introduce a basic kernel formalism to describe this temporal redistribution of mass-energy and discuss potential observational signatures in cosmic microwave background anisotropies and gravitational lensing statistics. While highly speculative, the model provides an integrative perspective connecting the endpoints of gravitational collapse with the origin of the universe and may offer a fertile ground for quantum gravity research.

1. Introduction
Current cosmological models explain much of the observable universe, yet key anomalies persist. Dark matter, dark energy, and quantum entanglement remain only partially understood within the frameworks of general relativity and quantum mechanics. This paper proposes a unifying hypothesis: matter entering black holes is not lost, but rather temporally redirected to the early universe, appearing as quantum fluctuations observable across spacetime.
This idea, termed Temporal Feedback Cosmology (TFC), provides a conceptual bridge between gravitational and quantum phenomena. It reframes black holes as dynamic, information-preserving temporal portals that continuously seed the vacuum with mass-energy, interpreted in our current epoch as virtual particles and unexplained gravitational effects.

2. Theoretical Background
2.1 Black Hole Thermodynamics and the Information Paradox
Black holes possess entropy and temperature, leading to the Hawking radiation framework. However, the fate of information falling into a black hole remains an open problem. TFC proposes that this information is not destroyed but is redistributed temporally to earlier states of the universe.
2.2 Virtual Particles and Vacuum Energy
Quantum field theory posits that the vacuum teems with transient virtual particles. While these cannot be observed directly, they influence physical systems (e.g., the Casimir effect). TFC posits these fluctuations are not entirely random but include contributions from matter recycled through black holes.
2.3 Dark Matter and Dark Energy
Observations suggest approximately 95% of the universe’s mass-energy is composed of dark matter and dark energy. TFC hypothesizes these phenomena are gravitational effects of temporally displaced mass-energy appearing in the quantum vacuum.

3. Core Mechanism
3.1 Temporal Loop Hypothesis
Matter entering black holes is compressed beyond a critical Planck-scale density. Instead of collapsing into a singularity, spacetime curvature folds back on itself, forming a time loop that redirects this matter to the Big Bang.
3.2 Feedback Kernel Formalism
Let Mb(t)M_b(t) denote the rate of mass-energy entering black holes at time tt. The density of virtual particles Φv(t′)\Phi_v(t’) observed at an earlier time t′<tt’ < t is given by:
Φv(t′)=∫t′=0t′=tK(t,t′)⋅Mb(t) dt\Phi_v(t’) = \int_{t’=0}^{t’=t} K(t, t’) \cdot M_b(t) \, dt
where K(t,t′)=α⋅e−β(t−t′)K(t, t’) = \alpha \cdot e^{-\beta(t – t’)} is a feedback kernel modeling temporal dispersion.

4. Implications and Predictions
4.1 Dark Matter as Gravitational Echoes
The gravitational signature of recycled matter may account for the halo effects observed around galaxies.
4.2 Dark Energy as Uniform Temporal Pressure
A near-constant influx of vacuum energy from recycled mass could drive cosmic expansion.
4.3 Quantum Entanglement and Temporal Commonality
Particles entangled across spacetime may be linked by a shared origin in recycled matter from a common black hole collapse.

5. Observational Pathways
• CMB Anisotropies: Look for non-Gaussian patterns hinting at structured feedback from future mass influx.
• Gravitational Lensing: Subtle distortions from nonlocal mass-energy distributions.
• Vacuum Energy Deviations: Compare measured vacuum energy density with standard QFT predictions to search for excess consistent with TFC.

6. Discussion and Future Work
While speculative, TFC offers a unifying hypothesis linking the endpoints of gravitational collapse with the beginning of time. Further development requires integration with candidate quantum gravity theories and could benefit from simulated cosmological models incorporating temporal feedback.
Key challenges include reconciling time-symmetry breaking with observable thermodynamic flow, and validating the kernel formalism through empirical or theoretical means.

7. Conclusion
Temporal Feedback Cosmology suggests that the universe is not only spatially connected but temporally recursive. This model opens new possibilities for understanding the universe’s dark constituents, quantum paradoxes, and the true nature of black holes. By treating the Big Bang as a temporal attractor and black holes as feeders, TFC invites a new way to view the architecture of reality.
**Temporal Feedback Cosmology: A Speculative Framework Unifying Black Holes, Virtual Particles, and Cosmic Anomalies**
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