Results 111 to 120 of about 149 (149)
A 3D‐printed self‐powered auxetic mechanoluminescent photonic skin for underwater communication and safety monitoring is introduced. Its auxetic structures, with a negative Poisson's ratio, ensure exceptional conformability to curved surfaces, enhancing adaptability to dynamic underwater environments.
Xiaolu Sun+6 more
wiley +1 more source
A Photonastic Prototissue Capable of Photo‐Mechano‐Chemical Transduction
Mimicking energy transduction in prototissue assemblies remains a challenge of bottom‐up synthetic biology. In this work, prototissues integrating protocells with photothermal gold nanoparticle proto‐organelles and a thermoresponsive polymeric proto‐cortex are developed.
Agostino Galanti+7 more
wiley +1 more source
A universal weakly‐solvated electrolyte design principle is established for phosphorus‐based anodes through systematic evaluation. Based on this criterion, the fluorinated solvent of FEC emerges as the optimal co‐solvent, effectively suppressing the dissolution of lithium polyphosphides while enhancing desolvation/charge‐transfer kinetics and ...
Huixian Xie+8 more
wiley +1 more source
High‐Performance Phototransistor Based on a 2D Polybenzimidazole Polymer
A crystalline 2D polybenzimidazole polymer (2DPBI), incorporating a porphyrin‐based π‐system linked via 1,3‐diazole units, is synthesized on the water surface over large areas. The 2DPBI thin‐film exhibits high charge carrier mobility (≈240 cm2 V−1 s−1, measured by terahertz spectroscopy), strong photoresponse, and band‐like transport, enabling ...
Anupam Prasoon+20 more
wiley +1 more source
Cell-Cell Communication in the Testis [PDF]
In addition to the well-established endocrine regulation of testicular functions by gonadotropins, many data accumulated in the last few years indicate that a local control is required for a normal production of androgens and spermatogenesis. In the present paper we review the cell-cell interactions between somatic and germ cells in the testis and ...
O. Avallet+3 more
openaire +2 more sources
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Osseointegration – communication of cells
Clinical Oral Implants Research, 2011AbstractBackgroundThe article provides the scientific documentation for the 3D animated film – “Osseointegration – Communication of cells”.AimThe aim of this article and of the film is to visualise the molecular and cellular events during the healing of an osseous wound after installation of a dental implant with special emphasis on the process of ...
Susanne Bierbaum+4 more
openaire +7 more sources
Cell-to-Cell Communication of Osteoblasts
Journal of Dental Research, 1979Osteoblasts were investigated by two methods, electrical conductance and dye injection. Current injection into one cell caused a change in the recorded transmembrane potential of a second cell, indicating high conductance pathways between the two cells. Dyes injected into a single osteoblast were transmitted to numerous surrounding cells.
R.W. McMinn+4 more
openaire +3 more sources
Communicating artificial cells
Current Opinion in Chemical Biology, 2016Intercellular chemical communication is commonly exploited for the engineering of living cells but has been largely ignored by efforts to build artificial cells. Since communication is a fundamental feature of life, the construction of artificial cells capable of chemical communication will likely lead to a deeper understanding of biology and allow for
Lentini, Roberta+2 more
openaire +3 more sources
Cell‐to‐cell communication – periodontal regeneration
Clinical Oral Implants Research, 2015AbstractBackgroundAlthough regenerative treatment options are available, periodontal regeneration is still regarded as insufficient and unpredictable.AimThis review article provides scientific background information on the animated 3D film Cell‐to‐Cell Communication – Periodontal Regeneration.ResultsPeriodontal regeneration is understood as a ...
Bosshardt, Dieter D+2 more
openaire +3 more sources
1987
1 Gap Junction Structure.- 1. Introduction.- 2. Classification of Gap Junctions.- 3. Morphological Characterization of Type I Gap Junctions.- 3.1. Conventional Electron Microscopy.- 3.2. Quaternary Organization of the Gap Junction Channel.- 3.3. Possible Conformational Changes Involved in Gating.- 4.
De Mello, C Walmor
openaire +2 more sources
1 Gap Junction Structure.- 1. Introduction.- 2. Classification of Gap Junctions.- 3. Morphological Characterization of Type I Gap Junctions.- 3.1. Conventional Electron Microscopy.- 3.2. Quaternary Organization of the Gap Junction Channel.- 3.3. Possible Conformational Changes Involved in Gating.- 4.
De Mello, C Walmor
openaire +2 more sources