
TL;DR
This paper introduces Feynman geometries, a new framework for defining quantum field theories, distinguishing between strong and weak types based on the dimensionality of $A_ abla$ structures, and constructs families with continuum limits.
Contribution
It defines Feynman geometries and classifies them into strong and weak types, providing a foundation for quantum field theories and constructing continuum limit families.
Findings
Strong Feynman geometries have finite-dimensional $A_ abla$ structures.
Weak Feynman geometries have infinite-dimensional $A_ abla$ structures with trace-class operators.
Constructed families of Feynman geometries approach a continuum limit.
Abstract
In this paper we introduce a notion of Feynman geometry on which quantum field theories could be properly defined. A strong Feynman geometry is a geometry when the vector space of structures is finite dimensional. A weak Feynman geometry is a geometry when the vector space of structures is infinite dimensional while the relevant operators are of trace-class. We construct families of Feynman geometries with "continuum" as their limit.
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Taxonomy
TopicsAdvanced Differential Geometry Research · Noncommutative and Quantum Gravity Theories · Black Holes and Theoretical Physics
