Examples of using Biocompatible in English and their translations into Russian
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A dental implant is simply the replacement of the tooth at the root with a biocompatible material(titanium), which is placed in the maxilla or mandible and integrates into the bone.
The nanoparticles used in biomedical researches are stabilized by various biocompatible agents for aggregation prevention,
The immunoisolation of engineered cells enclosed in biocompatible polymeric semipermeable microcapsules allows the transplantation of allogeneic cells while protected from rejection.
New materials"„Physical and chemical bases of melting of biocompatible alloys"„Anatomy of masticator that supporting-motor system"„Technological bases of causing of protective-decorative coverages"„Technology of production
Nikolaev's method[5] provides frontal sinus obliteration by biocompatible implant material hydroxiapol
In some cases biocompatible and biostable polymer implants can be manufactured by both contact
The aim of the investigation was to study the interaction of the gold nanorods stabilized by biocompatible agents with cancer cells.
Such a process is possible by using special materials, biocompatible(ie, does not cause rejection)
fully biocompatible with feeler.
have experienced complications from their use before there were created biocompatible gels for Body Contouring.
Creation of new biocompatible nanomaterials, which can exhibit the specific biological effects,
These matrices can act as electrodes for storing energy while forming a biocompatible substrate for"electronic skin" 154.
three-dimensional matrices; biocompatible materials; cytotoxicity;
It should also be mentioned that a polymer in biocompatible and biostable implants can be only optically transparent,
The polymer layer containing a pharmaceutical substance must be biodegradable, biocompatible and nonimmunogenic, it also must preserve its properties after sterilization.
bones with the help of maximal biocompatible metals and alloys.
using in medicine the casted orthopedic constructions from biocompatible alloys.
The quantitative information on the mechanical properties of amyloid fibrils can be used for creation of the novel amyloid-based biocompatible nanomaterials for a variety of biomedical applications.
To apply this technique in regenerative medicine we need to develop a wide range of biocompatible photopolymeric printing compositions.
Nowadays, poly(3-hydroxybutyrate)(PHB) as well as its biotechnologically prepared copolymers attract high attention as biodegradable and biocompatible materials.