The shape dynamics description of gravity
Tim Koslowski

TL;DR
This paper explores how classical gravity can be described relationally through shape dynamics, deriving an effective spacetime structure from matter fluctuations without assuming traditional spacetime geometry.
Contribution
It derives an emergent spacetime geometry within shape dynamics, connecting relational gravity to effective Minkowski space and quantum particle behavior.
Findings
Emergent Minkowski spacetime from matter fluctuations
Effective causal structure in shape dynamics
Quantum particles influence local geometric emergence
Abstract
Classical gravity can be described as a relational dynamical system without ever appealing to spacetime or its geometry. This description is the so-called shape dynamics description of gravity. The existence of relational first principles from which the shape dynamics description of gravity can be derived is a motivation to consider shape dynamics (rather than GR) as the fundamental description of gravity. Adopting this point of view leads to the question: What is the role of spacetime in the shape dynamics description of gravity? This question contains many aspects: Compatibility of shape dynamics with the description of gravity in terms of spacetime geometry, the role of local Minkowski space, universality of spacetime geometry and the nature of quantum particles, which can no longer be assumed to be irreducible representations of the Poincare group. In this contribution I derive…
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Taxonomy
TopicsRelativity and Gravitational Theory · Biofield Effects and Biophysics · Noncommutative and Quantum Gravity Theories
