Litcius/Paper detail

Spatiotemporal monitoring of hard tissue development reveals unknown features of tooth and bone development

Marcos González‐López, Barbora Hutečková, Josef Lavický, Nikodém Zezula, Vladislav Rakultsev, Vendula Fridrichova, Haneen Tuaima, Cita Nottmeier, Julian Petersen, Michaela Kavková, Tomáš Zikmund, Jozef Kaiser, Rupali Lav, Haza Star, Vı́tězslav Bryja, Petr Henyš, Miroslav Vořechovský, Abigail S. Tucker, Jakub Harnoš, Marcela Buchtová, Jan Křivánek

2023Science Advances19 citationsDOIOpen Access PDF

Abstract

Mineralized tissues, such as bones or teeth, are essential structures of all vertebrates. They enable rapid movement, protection, and food processing, in addition to providing physiological functions. Although the development, regeneration, and pathogenesis of teeth and bones have been intensely studied, there is currently no tool to accurately follow the dynamics of growth and healing of these vital tissues in space and time. Here, we present the BEE-ST (Bones and tEEth Spatio-Temporal growth monitoring) approach, which allows precise quantification of development, regeneration, remodeling, and healing in any type of calcified tissue across different species. Using mouse teeth as model the turnover rate of continuously growing incisors was quantified, and role of hard/soft diet on molar root growth was shown. Furthermore, the dynamics of bones and teeth growth in lizards, frogs, birds, and zebrafish was uncovered. This approach represents an effective, highly reproducible, and versatile tool that opens up diverse possibilities in developmental biology, bone and tooth healing, tissue engineering, and disease modeling.

Topics & Concepts

ZebrafishRegeneration (biology)Mineralized tissuesBiologyBone remodelingHard tissueBone developmentBone growthDevelopmental biologyAnatomyDentistryCell biologyMedicineDentinGeneEndocrinologyBiochemistryGeneticsdental development and anomaliesBone and Dental Protein Studies