{"paper_id":"843c7ba3-c0e1-47aa-a7dc-31d9d2a689db","body_text":"Abstract\nP-atic liquid crystal theories offer new perspectives on how cells self-organize and respond to mechanical cues. Understanding and quantifying the underlying orientational orders is therefore essential for unraveling the physical mechanisms that govern tissue dynamics. Due to the deformability of cells this requires quantifying their shape. We introduce rigorous mathematical tools and a reliable framework for such shape analysis. Applying this to segmented cells in MDCK monolayers and computational approaches for active vertex models and multiphase field models allows to demonstrate independence of shape measures and the presence of various p-atic orders at the same time. This challenges previous findings and opens new pathways for understanding the role of orientational symmetries and p-atic liquid crystal theories in tissue mechanics and development.\nCompeting Interest Statement\nThe authors have declared no competing interest.\nFootnotes\nIn response to tthe reviewers we have added rigorous statistical measures and extended the experimental support of our findings in this revised version. Indeed, doing so strengthens all the main claims.","source_license":"CC-BY-4.0","license_restricted":false}