In Vitro in Vivo NBTXR3

Les abstracts de cette section présentent des données in vitro et in vivo de NBTXR3. In vitro signifie que le produit NBTXR3 a été étudié dans des cellules en dehors de leur contexte biologique habituel. In vivo fait référence aux tests menés avec NBTXR3 sur des animaux.

2011 – ECCO Abstract – NBTXR3 as promising cancer therapy – Magiorella et al.

We created and developed NBTXR3 nanoparticles with a crystalline hafnium oxide core which provide high electron density structure and inert behavior in biological media. NBTXR3 nanoparticles’ characteristics, size, charge and shape, allow for efficient interaction with biological entities, cell membrane binding and cellular uptake. The nanoparticles were shown to form clusters at the subcellular level in tumor models. Of most importance, we show NBTXR3 intratumor bioavailability with dispersion of nanoparticles in the three dimensions and persistence within the tumor structure, supporting the use of NBTXR3 as effective antitumor therapeutic agent.

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2011 – AACR Abstract – NBTXR3 radioenhancement and anti-tumor effect in vitro – Magiorella et al.

Local and systemic control of Soft Tissue Sarcoma (STS) remains a clinical challenge. Radiation therapy is part of the standard of care of STS. The narrowness of its therapeutic window represents the main concern for different clinical settings. Thus, local delivery of radiation doses is critical to ensure optimal benefit-risk ratio. NBTXR3, biocompatible hafnium oxide nanoparticles were designed as therapeutics to be activated by ionizing radiation to achieve tumor control by enhancement of local energy deposition.

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2010 – ESTRO Abstract – hafnium Oxide nanoparticles as anti cancer agent – Deutsch et al.

Nanotechnology is the engineering of objects at the nanometer scale with novel properties. Nanotechnology is being applied to medicine leading to novel diagnostic or treatment applications. Nanoscale objects are about one hundred to ten thousand times smaller than human cells. They are similar in size to large biological molecules ("biomolecules") such as enzymes and receptors. As an example, hemoglobin, the molecule that carries oxygen in red blood cells, is approximately 5 nanometers in diameter. Nanoscale objects smaller than 100 nanometers can move out of blood vessels as they circulate through the body due to morphological features of the endothelium (fenestrae size). Those smaller than 7 nanometers can be cleared from the body by the kidney, as they circulate.

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