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1 ible, lightweight, optically transparent and biocompatible material.
2 ion nanoparticles in order to generate a new biocompatible material.
3 the development of synthetic collagen-based biocompatible materials.
4 h cells derived in vitro in combination with biocompatible materials.
5 is 1.5 orders of magnitude deeper than other biocompatible materials.
6 locks for the construction of bio-active and biocompatible materials.
7 re of great interest in designing functional biocompatible materials.
8 plantable devices will need to be built from biocompatible materials.
9 currence, infection, fistula, bioprosthesis, biocompatible materials, absorbable implants, dermis, an
10 The implications for molecular design of biocompatible materials also are discussed in this paper
11 mistry heralds many promises that range from biocompatible materials and biomimetic catalysts to sens
13 files suggest potential use of these powdery biocompatible materials as NO donors where the delivery
14 Recent advances have enabled 3D printing of biocompatible materials, cells and supporting components
16 s are critical for designing next-generation biocompatible materials for contact with living systems
17 rface area to volume ratio, and by employing biocompatible material gallic acid, immobilized enzyme s
20 e nanoscale shape control of this inherently biocompatible material is combined with the potential to
21 f low-cost, highly stable, electroactive and biocompatible material is one of the key steps for the a
22 ght, and since it is flexible and is made of biocompatible materials, it offers a promising solution
23 self-structuring has been proven feasible on biocompatible materials other than titanium, offering ne
24 thermal, optical, electrical, chemical, and biocompatible materials properties to its complete sp (3
25 process, zirconia (ZrO2) powder is a kind of biocompatible material, red phosphorus can be used to pr
26 lowing an injury, through the combination of biocompatible materials, stem cells and bioactive factor
29 Glass ionomer cement appears to be a viable, biocompatible material to restore subgingival root surfa
30 -muscle ECM, can be fabricated using various biocompatible materials to guide cell alignment, elongat
31 se dioxide (MnO2) nanoparticles (MDNP) using biocompatible materials to reoxygenate the TME by reacti
32 ngineered substitutes consisting of cells in biocompatible materials undergo remodeling with time as
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