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Nanoimagery and the biomimetic potential of marine glass sponge Hyalonema sieboldi (Porifera). / Ehrlich, Hermann; Hanke, Thomas; Meissner, Heike; Richter, Gert; Born, René; Heinemann, Sascha; Ereskovsky, Alexander; Krylova, Daria; Worch, Hartmut.

In: VDI Berichte, No. 1920, 2005, p. 163-166.

Research output: Contribution to journal › Article › peer-review

Harvard

Ehrlich, H, Hanke, T, Meissner, H, Richter, G, Born, R, Heinemann, S, Ereskovsky, A, Krylova, D & Worch, H 2005, 'Nanoimagery and the biomimetic potential of marine glass sponge Hyalonema sieboldi (Porifera)', VDI Berichte, no. 1920, pp. 163-166.

APA

Ehrlich, H., Hanke, T., Meissner, H., Richter, G., Born, R., Heinemann, S., Ereskovsky, A., Krylova, D., & Worch, H. (2005). Nanoimagery and the biomimetic potential of marine glass sponge Hyalonema sieboldi (Porifera). VDI Berichte, (1920), 163-166.

Vancouver

Ehrlich H, Hanke T, Meissner H, Richter G, Born R, Heinemann S et al. Nanoimagery and the biomimetic potential of marine glass sponge Hyalonema sieboldi (Porifera). VDI Berichte. 2005;(1920):163-166.

Author

Ehrlich, Hermann ; Hanke, Thomas ; Meissner, Heike ; Richter, Gert ; Born, René ; Heinemann, Sascha ; Ereskovsky, Alexander ; Krylova, Daria ; Worch, Hartmut. / Nanoimagery and the biomimetic potential of marine glass sponge Hyalonema sieboldi (Porifera). In: VDI Berichte. 2005 ; No. 1920. pp. 163-166.

BibTeX

@article{e3a6d6d96b2a4e8392d5d66d54564d79,
title = "Nanoimagery and the biomimetic potential of marine glass sponge Hyalonema sieboldi (Porifera)",
abstract = "Deep-sea invertebrates, including glass sponges, provide an abundant source of very unusual skeleton structures and inspire investigations aiming to gain a better understanding of biomineralization mechanisms, which can be used to develop new biomimetic based biomaterials. The study focused on the spicules of Hyalonema sieboldi Gray 1835, which are glassy fibres several millimetres in diameter and up to one metre in length - a size which is exceptional for a siliceous biological structure. They exhibit remarkable flexibility, thus giving the impression of being an almost unbreakable glass, which can be easily bent into a full circle. The origin and the possible role of the organic matrix within these silica-containing skeletal formations are still unknown. Here, a new approach is described for the desilification of glass sponge spicules based on a slow etching procedure. To test our hypothesis that an organic matrix within the H. sieboldi spicules is responsible for the extraordinary mechanical properties, structural (SEM, TEM, AFM) and biochemical (HPLC, PAAG-Electrophoresis, MALDI) analyses of these glassy composites and extracted proteinaceous components were performed.",
author = "Hermann Ehrlich and Thomas Hanke and Heike Meissner and Gert Richter and Ren{\'e} Born and Sascha Heinemann and Alexander Ereskovsky and Daria Krylova and Hartmut Worch",
year = "2005",
language = "English",
pages = "163--166",
journal = "VDI-Berichte",
issn = "0083-5560",
publisher = "VDI Verlag GMBH",
number = "1920",

}

RIS

TY - JOUR

T1 - Nanoimagery and the biomimetic potential of marine glass sponge Hyalonema sieboldi (Porifera)

AU - Ehrlich, Hermann

AU - Hanke, Thomas

AU - Meissner, Heike

AU - Richter, Gert

AU - Born, René

AU - Heinemann, Sascha

AU - Ereskovsky, Alexander

AU - Krylova, Daria

AU - Worch, Hartmut

PY - 2005

Y1 - 2005

N2 - Deep-sea invertebrates, including glass sponges, provide an abundant source of very unusual skeleton structures and inspire investigations aiming to gain a better understanding of biomineralization mechanisms, which can be used to develop new biomimetic based biomaterials. The study focused on the spicules of Hyalonema sieboldi Gray 1835, which are glassy fibres several millimetres in diameter and up to one metre in length - a size which is exceptional for a siliceous biological structure. They exhibit remarkable flexibility, thus giving the impression of being an almost unbreakable glass, which can be easily bent into a full circle. The origin and the possible role of the organic matrix within these silica-containing skeletal formations are still unknown. Here, a new approach is described for the desilification of glass sponge spicules based on a slow etching procedure. To test our hypothesis that an organic matrix within the H. sieboldi spicules is responsible for the extraordinary mechanical properties, structural (SEM, TEM, AFM) and biochemical (HPLC, PAAG-Electrophoresis, MALDI) analyses of these glassy composites and extracted proteinaceous components were performed.

AB - Deep-sea invertebrates, including glass sponges, provide an abundant source of very unusual skeleton structures and inspire investigations aiming to gain a better understanding of biomineralization mechanisms, which can be used to develop new biomimetic based biomaterials. The study focused on the spicules of Hyalonema sieboldi Gray 1835, which are glassy fibres several millimetres in diameter and up to one metre in length - a size which is exceptional for a siliceous biological structure. They exhibit remarkable flexibility, thus giving the impression of being an almost unbreakable glass, which can be easily bent into a full circle. The origin and the possible role of the organic matrix within these silica-containing skeletal formations are still unknown. Here, a new approach is described for the desilification of glass sponge spicules based on a slow etching procedure. To test our hypothesis that an organic matrix within the H. sieboldi spicules is responsible for the extraordinary mechanical properties, structural (SEM, TEM, AFM) and biochemical (HPLC, PAAG-Electrophoresis, MALDI) analyses of these glassy composites and extracted proteinaceous components were performed.

UR - http://www.scopus.com/inward/record.url?scp=28844469927&partnerID=8YFLogxK

M3 - Article

AN - SCOPUS:28844469927

SP - 163

EP - 166

JO - VDI-Berichte

JF - VDI-Berichte

SN - 0083-5560

IS - 1920

ER -

ID: 90523897