🧮 Optimization of Distributed Networks Using Multi-Scalar Tensors

This research introduces a new paradigm based on multi-scalar tensor algebra to optimize resource allocation in distributed systems such as logistics, parallel processing, or decentralized cloud infrastructures.

📌 Objective

The model uses tensor-based formulations to allow parallel evaluation, layered execution and minimal delay in computation across nodes.

🧠 Core Concepts

  • Multi-scalar state tensors to manage asynchronous communication
  • Node priority matrices for optimal task flow
  • Tensor contraction to model convergence zones

⚙️ Mathematical Representation

T(i, j, t) = Σ_k A(i, k) * B(k, j) * φ(t)

where T is the task flow tensor, A and B represent inter-node connectivity, and φ(t) encodes time-varying load functions.

📈 Application

This system was tested on a simulated logistics network to optimize delivery flow and reduce processing delay. The model was shown to outperform traditional queue-based approaches in real-time adaptability.

📊 Results

The use of dynamic tensors allowed simultaneous path correction across multiple layers of the network. An increase of 26% in global efficiency was observed in parallel execution scenarios.