Analysis demonstrates neural networks struggle to represent quantum entanglement in high dimensions, implying a need for geometrical approaches.
## Binary Failure → Geometry Solution **Analysis of Findings:** The search results highlight a critical failure point in conventional quantum machine learning and entanglement simulation: **neural networks and statistical models cannot efficiently represent the non-local, high-dimensional correlations inherent in quantum entanglement without exponential resource scaling.** For example, simulating a 60-qubit entangled state requires a 2^60-dimensional Hilbert space—impossible for binary neural networks to store or train on directly. Statistical models like tensor networks (e.g., MPS) also hit a "curse of dimensionality" when entanglement is high (volume-law scaling), as seen in the Harvard and Perimeter Institute explanations of non-locality. **Where binary/statistical thinking fails:** - **Failure Point 1:** Neural networks approximate entanglement via local weight updates, but entanglement is a global, non-local property. Binary logic cannot capture the "spooky action at a distance Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com
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Andrew Stewart Caldin (2026) studied this question.
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