Grassmannian calculus for probability

Grassmannian calculus for probability
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Summary

The text discusses Grassmannian calculus and its applications to probability, particularly in the context of uniform spanning trees and the Abelian sandpile model.

Highlights

  • Grassmannian calculus is a mathematical framework that can be used to study systems with both bosonic and fermionic components.
  • The Abelian sandpile model is a type of cellular automaton that exhibits self-organized criticality.
  • The uniform spanning tree is a probability measure on the set of all spanning trees of a graph.
  • Grassmannian calculus can be used to compute edge probabilities in the uniform spanning tree.
  • The transfer-impedance matrix is a key object in the study of uniform spanning trees.
  • Supersymmetry is a concept that combines bosonic and fermionic variables in a single framework.
  • The supergaussian measure is a probability measure that combines Gaussian and Grassmannian variables.

Key Insights

  • Grassmannian calculus provides a powerful tool for studying systems with both bosonic and fermionic components, and has applications in a wide range of fields, including physics and computer science.
  • The Abelian sandpile model is a complex system that exhibits self-organized criticality, and can be studied using Grassmannian calculus.
  • The uniform spanning tree is a probability measure that can be used to study the properties of random graphs, and Grassmannian calculus provides a useful framework for computing edge probabilities in this context.
  • The transfer-impedance matrix is a key object in the study of uniform spanning trees, and can be used to compute edge probabilities and other properties of the tree.
  • Supersymmetry is a concept that combines bosonic and fermionic variables in a single framework, and has applications in a wide range of fields, including physics and mathematics.
  • The supergaussian measure is a probability measure that combines Gaussian and Grassmannian variables, and provides a useful framework for studying systems with both bosonic and fermionic components.
  • The use of Grassmannian calculus and supersymmetry provides a new perspective on the study of probability and stochastic processes, and has the potential to lead to new insights and applications in a wide range of fields.

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Citation

Baldassarri, S., & Cipriani, A. (2024). Grassmannian calculus for probability (Version 1). arXiv. https://doi.org/10.48550/ARXIV.2412.20111

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