Short Distance vs. Long Distance Physics: The Classical Limit of the Minimal Length Uncertainty Relation
Sandor Benczik, Lay Nam Chang, Djordje Minic, Naotoshi Okamura,, Saifuddin Rayyan, and Tatsu Takeuchi

TL;DR
This paper explores how deformed quantum commutation relations, inspired by string theory, affect classical particle orbits and uses observational data to constrain the minimal length scale implied by these relations.
Contribution
It analyzes the classical implications of minimal length uncertainty relations derived from deformed commutation relations, linking quantum string-inspired concepts to observable classical phenomena.
Findings
Severe constraints on the minimal length scale from classical orbit observations
Deformed commutation relations influence classical particle trajectories
Results limit the possible size of the minimal length in quantum gravity theories
Abstract
We continue our investigation of the phenomenological implications of the "deformed" commutation relations [x_i,p_j]=i hbar[(1 + beta p^2) delta_{ij} + beta' p_i p_j]. These commutation relations are motivated by the fact that they lead to the minimal length uncertainty relation which appears in perturbative string theory. In this paper, we consider the effects of the deformation on the classical orbits of particles in a central force potential. Comparison with observation places severe constraints on the value of the minimum length.
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