6533b7d2fe1ef96bd125ec65

RESEARCH PRODUCT

Zebrafish Fins as a Model System for Skeletal Human Studies

José BecerraManuel Marí-beffaJosé A. AndradesLeonor Santos-ruizCarmen MurcianoEnrique GueradoJ.a. Santamaría

subject

collagenPathologylcsh:MedicineReview Articlebonelcsh:TechnologydentineExtracellular matrixbone regenerationOsteogenesisMorphogenesislcsh:ScienceZebrafishZebrafishGeneral Environmental Sciencetransforming growth factor betaDermal bonebiologyenamelGeneral MedicineCell biologyendochondral ossificationmedicine.anatomical_structureModels Animalmedicine.medical_specialtyextracellular matrixosteocyteregenerative medicineray dermal boneBone morphogenetic protein 2Bone and BonesGeneral Biochemistry Genetics and Molecular BiologyFin regenerationsonic hedgehogbone morphogenetic proteinsmedicineAnimalsHumansactinopterygian fishesmammalslepidotrichiascleroblastmesenchymal stem cellslcsh:TRegeneration (biology)Cartilagelcsh:RZebrafish Proteinsbone repairbiology.organism_classificationChondrogenesisCartilageregenerationintramembranous ossificationlcsh:Qcell therapyvertebrates

description

Recent studies on the morphogenesis of the fins ofDanio rerio(zebrafish) during development and regeneration suggest that a number of inductive signals involved in the process are similar to some of those that affect bone and cartilage differentiation in mammals and humans. Akimenko et al. (2002) has shown that bone morphogenetic protein-2b (BMP2b) is involved in the induction of dermal bone differentiation during fin regeneration. Many other groups have also shown that molecules from the transforming growth factor-beta superfamily (TGFβ), including BMP2, are effective in promoting chondrogenesis and osteogenesisin vivoin higher vertebrates, including humans. In the present study, we review the state of the art of this topic by a comparative analysis of skeletal tissue development, regeneration and renewal processes in tetrapods, and fin regeneration in fishes. A general conclusion of this study states that lepidotrichia is a special skeletal tissue different to cartilage, bone, enamel, or dentine in fishes, according to its extracellular matrix (ECM) composition. However, the empirical analysis of inducing signals of skeletal tissues in fishes and tetrapods suggests that lepidotrichia is different to any responding features with main skeletal tissues. A number of new inductive molecules are arising from fin development and regeneration studies that might establish an empirical basis for further molecular approaches to mammal skeletal tissues differentiation. Despite the tissue dissimilarity, this empirical evidence might finally lead to clinical applications to skeletal disorders in humans.

10.1100/tsw.2007.190https://doaj.org/article/5054d65f0b18409abe85189b5fdb44a6