Abstract

Concentrated Growth Factors (CGF) represent new autologous (blood-derived biomaterial), attracting growing interest in the field of regenerative medicine. In this study, the chemical, structural, and biological characterization of CGF was carried out. CGF molecular characterization was performed by GC/MS to quantify small metabolites and by ELISA to measure growth factors and matrix metalloproteinases (MMPs) release; structural CGF characterization was carried out by SEM analysis and immunohistochemistry; CGF has been cultured, and its primary cells were isolated for the identification of their surface markers by flow cytometry, Western blot, and real-time PCR; finally, the osteogenic differentiation of CGF primary cells was evaluated through matrix mineralization by alizarin red staining and through mRNA quantification of osteogenic differentiation markers by real-time PCR. We found that CGF has a complex inner structure capable of influencing the release of growth factors, metabolites, and cells. These cells, which could regulate the production and release of the CGF growth factors, show stem features and are able to differentiate into osteoblasts producing a mineralized matrix. These data, taken together, highlight interesting new perspectives for the use of CGF in regenerative medicine.

Highlights

  • Gas chromatography coupled with mass spectrometry (GC-MS) is an ideal technique for identifying and quantifying metabolites of small molecules (

  • In recent years Concentrated Growth Factors (CGF) was widely studied as an autologous blood derivative able to

  • Despite a large literature on CGF use and applications in the regenerative medicine field [21,23], up to the present, no data are provided on the metabolomic profile of CGF, and very few studies investigated the kinetic release of CGF

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Summary

Introduction

In the field of regenerative medicine, there is growing interest in platelet concentrates derived from whole blood in order to improve tissue regeneration processes. Platelet derivatives have several medical applications, including stimulation of tissue regeneration in dentistry, implantology and plastic surgery, healing of recalcitrant ulcers and burns, repair of musculoskeletal tissue, tendon and ligament lesions, and osteoarthritis treatment [2]. The versatility of these blood derivatives is linked to their autologous nature and simple collection and preparation methods [2]

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