# An algorithm for quantum gravity phenomenology

## TL;DR

This paper discusses a systematic approach to quantum gravity phenomenology, emphasizing the importance of a generic parametrization for experimental testing, exemplified by the Standard Model Extension for Lorentz violation.

## Contribution

It proposes a comprehensive procedure for quantum gravity phenomenology using a generic parametrization to facilitate experimental comparisons and consistency checks.

## Key findings

- Standard Model Extension aids in testing Lorentz violation
- Generic parametrization enables diverse experiment analysis
- Self-consistency checks improve phenomenological models

## Abstract

Quantum gravity phenomenology is the strategy towards quantum gravity where the priority is to make contact with experiments. Here I describe what I consider to be the best procedure to do quantum gravity phenomenology. The key step is to have a generic parametrization which allows one to perform self-consistency checks and to deal with many different experiments. As an example I describe the role that the Standard Model Extension has played when looking for Lorentz violation.