Standard

Supercontinuum Generation in Naturally Occurring Glass Sponges Spicules. / Ehrlich, Hermann; Maldonado, Manuel; Parker, Andrew R.; Kulchin, Yuri N.; Schilling, Joerg; Koehler, Benjamin; Skrzypczak, Ulrich; Simon, Paul; Reiswig, Henry M.; Tsurkan, Mikhail V.; Brunner, Eike; Voznesenskiy, Sergey S.; Bezverbny, Alexander V.; Golik, Sergey S.; Nagorny, Ivan G.; Vyalikh, Denis V.; Makarova, Anna A.; Molodtsov, Serguei L.; Kummer, Kurt; Mertig, Michael; Erler, Christiane; Kurek, Denis V.; Bazhenov, Vasilii V.; Natalio, Filipe; Kovalev, Alexander E.; Gorb, Stanislav N.; Stelling, Allison L.; Heitmann, Johannes; Born, Rene; Meyer, Dirk C.; Tabachnick, Konstantin R.

In: Advanced Optical Materials, Vol. 4, No. 10, 10.2016, p. 1608-1613.

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

Harvard

Ehrlich, H, Maldonado, M, Parker, AR, Kulchin, YN, Schilling, J, Koehler, B, Skrzypczak, U, Simon, P, Reiswig, HM, Tsurkan, MV, Brunner, E, Voznesenskiy, SS, Bezverbny, AV, Golik, SS, Nagorny, IG, Vyalikh, DV, Makarova, AA, Molodtsov, SL, Kummer, K, Mertig, M, Erler, C, Kurek, DV, Bazhenov, VV, Natalio, F, Kovalev, AE, Gorb, SN, Stelling, AL, Heitmann, J, Born, R, Meyer, DC & Tabachnick, KR 2016, 'Supercontinuum Generation in Naturally Occurring Glass Sponges Spicules', Advanced Optical Materials, vol. 4, no. 10, pp. 1608-1613. https://doi.org/10.1002/adom.201600454

APA

Ehrlich, H., Maldonado, M., Parker, A. R., Kulchin, Y. N., Schilling, J., Koehler, B., Skrzypczak, U., Simon, P., Reiswig, H. M., Tsurkan, M. V., Brunner, E., Voznesenskiy, S. S., Bezverbny, A. V., Golik, S. S., Nagorny, I. G., Vyalikh, D. V., Makarova, A. A., Molodtsov, S. L., Kummer, K., ... Tabachnick, K. R. (2016). Supercontinuum Generation in Naturally Occurring Glass Sponges Spicules. Advanced Optical Materials, 4(10), 1608-1613. https://doi.org/10.1002/adom.201600454

Vancouver

Ehrlich H, Maldonado M, Parker AR, Kulchin YN, Schilling J, Koehler B et al. Supercontinuum Generation in Naturally Occurring Glass Sponges Spicules. Advanced Optical Materials. 2016 Oct;4(10):1608-1613. https://doi.org/10.1002/adom.201600454

Author

Ehrlich, Hermann ; Maldonado, Manuel ; Parker, Andrew R. ; Kulchin, Yuri N. ; Schilling, Joerg ; Koehler, Benjamin ; Skrzypczak, Ulrich ; Simon, Paul ; Reiswig, Henry M. ; Tsurkan, Mikhail V. ; Brunner, Eike ; Voznesenskiy, Sergey S. ; Bezverbny, Alexander V. ; Golik, Sergey S. ; Nagorny, Ivan G. ; Vyalikh, Denis V. ; Makarova, Anna A. ; Molodtsov, Serguei L. ; Kummer, Kurt ; Mertig, Michael ; Erler, Christiane ; Kurek, Denis V. ; Bazhenov, Vasilii V. ; Natalio, Filipe ; Kovalev, Alexander E. ; Gorb, Stanislav N. ; Stelling, Allison L. ; Heitmann, Johannes ; Born, Rene ; Meyer, Dirk C. ; Tabachnick, Konstantin R. / Supercontinuum Generation in Naturally Occurring Glass Sponges Spicules. In: Advanced Optical Materials. 2016 ; Vol. 4, No. 10. pp. 1608-1613.

BibTeX

@article{bd71c0e97a8547ba89d6efcfcd94d0ce,
title = "Supercontinuum Generation in Naturally Occurring Glass Sponges Spicules",
abstract = "The complex process of supercontinuum generation (SG) is known to be exploitable for designing spatially coherent white light sources emitting light simultaneously in the ultraviolet, visible, and infrared ranges. Herein the first natural material able to generate in laboratory conditions a supercontinuum similar to those known from man-made photonic crystal fibers is described. The ability resides in siliceous 20-50 cm long spicules of the glass sponge Sericolophus hawaiicus. By shedding into the spicules optical peak intensities ranging from 1 to 100 TW cm(-2) the generation of a SG is revealed. The SG involves wavelengths between 650 and 900 nm and shows a maximum spectral spread for excitation at a wavelength of 750 nm. It is hypothesized that the SG is favored by spicules being a biocomposite that incorporates together isotopically pure biogenic silica (delta(30) Si = -3.28) and 15.2 +/- 1.3 mu g N -acetyl-glucosamine (chitin) per mg of silica. The internal organization of these spicules is distinguished by a solid silica core with a 1 mu m wide axial channel as well as a highly ordered silica-chitin composite. Such a composition and organization pattern may be of potential interest for the design of low temperature synthesis of future materials for light guidance.",
keywords = "OPTICAL-FIBERS, MARINE SPONGES, MECHANICAL-PROPERTIES, SUBERITES-DOMUNCULA, LIGHT, SILICA, ORGANISM, HEXACTINELLIDA, EUPLECTELLA, PORIFERA",
author = "Hermann Ehrlich and Manuel Maldonado and Parker, {Andrew R.} and Kulchin, {Yuri N.} and Joerg Schilling and Benjamin Koehler and Ulrich Skrzypczak and Paul Simon and Reiswig, {Henry M.} and Tsurkan, {Mikhail V.} and Eike Brunner and Voznesenskiy, {Sergey S.} and Bezverbny, {Alexander V.} and Golik, {Sergey S.} and Nagorny, {Ivan G.} and Vyalikh, {Denis V.} and Makarova, {Anna A.} and Molodtsov, {Serguei L.} and Kurt Kummer and Michael Mertig and Christiane Erler and Kurek, {Denis V.} and Bazhenov, {Vasilii V.} and Filipe Natalio and Kovalev, {Alexander E.} and Gorb, {Stanislav N.} and Stelling, {Allison L.} and Johannes Heitmann and Rene Born and Meyer, {Dirk C.} and Tabachnick, {Konstantin R.}",
year = "2016",
month = oct,
doi = "10.1002/adom.201600454",
language = "Английский",
volume = "4",
pages = "1608--1613",
journal = "Advanced Optical Materials",
issn = "2195-1071",
publisher = "Wiley-Blackwell",
number = "10",

}

RIS

TY - JOUR

T1 - Supercontinuum Generation in Naturally Occurring Glass Sponges Spicules

AU - Ehrlich, Hermann

AU - Maldonado, Manuel

AU - Parker, Andrew R.

AU - Kulchin, Yuri N.

AU - Schilling, Joerg

AU - Koehler, Benjamin

AU - Skrzypczak, Ulrich

AU - Simon, Paul

AU - Reiswig, Henry M.

AU - Tsurkan, Mikhail V.

AU - Brunner, Eike

AU - Voznesenskiy, Sergey S.

AU - Bezverbny, Alexander V.

AU - Golik, Sergey S.

AU - Nagorny, Ivan G.

AU - Vyalikh, Denis V.

AU - Makarova, Anna A.

AU - Molodtsov, Serguei L.

AU - Kummer, Kurt

AU - Mertig, Michael

AU - Erler, Christiane

AU - Kurek, Denis V.

AU - Bazhenov, Vasilii V.

AU - Natalio, Filipe

AU - Kovalev, Alexander E.

AU - Gorb, Stanislav N.

AU - Stelling, Allison L.

AU - Heitmann, Johannes

AU - Born, Rene

AU - Meyer, Dirk C.

AU - Tabachnick, Konstantin R.

PY - 2016/10

Y1 - 2016/10

N2 - The complex process of supercontinuum generation (SG) is known to be exploitable for designing spatially coherent white light sources emitting light simultaneously in the ultraviolet, visible, and infrared ranges. Herein the first natural material able to generate in laboratory conditions a supercontinuum similar to those known from man-made photonic crystal fibers is described. The ability resides in siliceous 20-50 cm long spicules of the glass sponge Sericolophus hawaiicus. By shedding into the spicules optical peak intensities ranging from 1 to 100 TW cm(-2) the generation of a SG is revealed. The SG involves wavelengths between 650 and 900 nm and shows a maximum spectral spread for excitation at a wavelength of 750 nm. It is hypothesized that the SG is favored by spicules being a biocomposite that incorporates together isotopically pure biogenic silica (delta(30) Si = -3.28) and 15.2 +/- 1.3 mu g N -acetyl-glucosamine (chitin) per mg of silica. The internal organization of these spicules is distinguished by a solid silica core with a 1 mu m wide axial channel as well as a highly ordered silica-chitin composite. Such a composition and organization pattern may be of potential interest for the design of low temperature synthesis of future materials for light guidance.

AB - The complex process of supercontinuum generation (SG) is known to be exploitable for designing spatially coherent white light sources emitting light simultaneously in the ultraviolet, visible, and infrared ranges. Herein the first natural material able to generate in laboratory conditions a supercontinuum similar to those known from man-made photonic crystal fibers is described. The ability resides in siliceous 20-50 cm long spicules of the glass sponge Sericolophus hawaiicus. By shedding into the spicules optical peak intensities ranging from 1 to 100 TW cm(-2) the generation of a SG is revealed. The SG involves wavelengths between 650 and 900 nm and shows a maximum spectral spread for excitation at a wavelength of 750 nm. It is hypothesized that the SG is favored by spicules being a biocomposite that incorporates together isotopically pure biogenic silica (delta(30) Si = -3.28) and 15.2 +/- 1.3 mu g N -acetyl-glucosamine (chitin) per mg of silica. The internal organization of these spicules is distinguished by a solid silica core with a 1 mu m wide axial channel as well as a highly ordered silica-chitin composite. Such a composition and organization pattern may be of potential interest for the design of low temperature synthesis of future materials for light guidance.

KW - OPTICAL-FIBERS

KW - MARINE SPONGES

KW - MECHANICAL-PROPERTIES

KW - SUBERITES-DOMUNCULA

KW - LIGHT

KW - SILICA

KW - ORGANISM

KW - HEXACTINELLIDA

KW - EUPLECTELLA

KW - PORIFERA

U2 - 10.1002/adom.201600454

DO - 10.1002/adom.201600454

M3 - статья

VL - 4

SP - 1608

EP - 1613

JO - Advanced Optical Materials

JF - Advanced Optical Materials

SN - 2195-1071

IS - 10

ER -

ID: 9324083