Quantum Entanglement in High-Energy Environments

A 2025 study on entanglement dynamics under extreme particle collision conditions.

🔬 Explore Methodology
Quantum entanglement

Research Objectives

This research investigates the stability and behavior of quantum entangled particles under extreme conditions such as high-energy collisions simulated in particle accelerators. The study provides new insights into how entanglement dynamics shift under intense energy fluctuations.

Methodology

Utilizing the Geneva Superconductor Collider prototype, the team observed entangled photon pairs during mega-TeV collision events. Advanced quantum tomography methods were employed to trace entanglement degradation patterns under stress.

Key Findings

  • 68% of entangled states remained coherent for >100 microseconds post-collision
  • Entanglement degradation follows an inverse cube law at energies >10 TeV
  • New resonance patterns observed at specific angular momentum thresholds

Entanglement Stability Analysis

Stability chart
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Visualization of entanglement stability across varying collision energies (1 TeV to 20 TeV).

Open Research Materials

Methodology Report

89 pages • PDF

Experimental Data

Spreadsheets • XLSX

Visualization Gallery

Interactive dashboards

Future Directions

  • 1 Model entanglement in quantum gravitational fields
  • 2 Develop entanglement shielding for practical quantum computing
  • 3 Explore non-binary entanglement states
📎 Full Future Research Plan
Future research concepts
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