Visual selection of human potential spermatogonial stem cells by bead-tagging

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Visual selection of human potential spermatogonial stem cells by bead-tagging. / von Kopylow, Kathrein; Spiess, Andrej-Nikolai; Schulze, Wolfgang.

18th ETW European Testis Workshop. Vol. 18 2014. p. IV-41.

Research output: SCORING: Contribution to book/anthologyConference contribution - PosterResearch

Harvard

von Kopylow, K, Spiess, A-N & Schulze, W 2014, Visual selection of human potential spermatogonial stem cells by bead-tagging. in 18th ETW European Testis Workshop. vol. 18, pp. IV-41, European Testis Workshop, Helsingör, Denmark, 13.05.14.

APA

von Kopylow, K., Spiess, A-N., & Schulze, W. (2014). Visual selection of human potential spermatogonial stem cells by bead-tagging. In 18th ETW European Testis Workshop (Vol. 18, pp. IV-41)

Vancouver

von Kopylow K, Spiess A-N, Schulze W. Visual selection of human potential spermatogonial stem cells by bead-tagging. In 18th ETW European Testis Workshop. Vol. 18. 2014. p. IV-41

Bibtex

@inbook{9d395137d8124bf895635903cebac045,
title = "Visual selection of human potential spermatogonial stem cells by bead-tagging",
abstract = "Background: Isolation of human spermatogonial stem cells (hSSCs) could provide a clinical application for fertility preservation and additionally form the basis for in vitro-spermatogenesis. Human FGFR3-positive spermatogonia (SPG) are hSSC candidates since Fibroblast Growth Factor Receptor 3 is expressed exclusively in small non-proliferating subgroups of human A type SPG together with the pluripotency marker Undifferentiated embryonic cell Transcription Factor 1 (UTF1) [1-3]. Material & Methods: A pure FGFR3-positive potential human spermatogonial stem cell population from patients with full spermatogenesis was isolated by combining Dynabead{\textregistered} magnetic cell isolation and micromanipulative separation of bead-labeled cells during light microscopic visualisation (Fig. 1). Analysis of the isolated cells was conducted via immunocytochemistry and Live/Dead{\textregistered} staining (Invitrogen). Results: The isolated cells showed a similar cellular and nuclear morphology, a strong nuclear immunocytochemical UTF1-staining (Fig. 2A, B) and are vital (Fig. 2D, E, F). Conclusion: Our new single cell isolation protocol based on bead-tagging of the FGFR3-positive potential hSSCs enables down-stream applications and cell culture experiments without the inherent problem of somatic cell contaminations. Hence, it may finally build a fundament for the medical application of this very well-defined, homogeneous cell type. References: [1] von Kopylow et al., 2010. Hum Reprod 25: 1104–12. [2] von Kopylow et al., 2012. Histochem Cell Biol 138 (5): 759-72. [3] von Kopylow et al., 2012. Reprod 143(1): 45-57. ",
author = "{von Kopylow}, Kathrein and Andrej-Nikolai Spiess and Wolfgang Schulze",
year = "2014",
month = may,
day = "13",
language = "Deutsch",
volume = "18",
pages = "IV--41",
booktitle = "18th ETW European Testis Workshop",
note = "European Testis Workshop ; Conference date: 13-05-2014 Through 17-05-2014",

}

RIS

TY - CHAP

T1 - Visual selection of human potential spermatogonial stem cells by bead-tagging

AU - von Kopylow, Kathrein

AU - Spiess, Andrej-Nikolai

AU - Schulze, Wolfgang

N1 - Conference code: 18

PY - 2014/5/13

Y1 - 2014/5/13

N2 - Background: Isolation of human spermatogonial stem cells (hSSCs) could provide a clinical application for fertility preservation and additionally form the basis for in vitro-spermatogenesis. Human FGFR3-positive spermatogonia (SPG) are hSSC candidates since Fibroblast Growth Factor Receptor 3 is expressed exclusively in small non-proliferating subgroups of human A type SPG together with the pluripotency marker Undifferentiated embryonic cell Transcription Factor 1 (UTF1) [1-3]. Material & Methods: A pure FGFR3-positive potential human spermatogonial stem cell population from patients with full spermatogenesis was isolated by combining Dynabead® magnetic cell isolation and micromanipulative separation of bead-labeled cells during light microscopic visualisation (Fig. 1). Analysis of the isolated cells was conducted via immunocytochemistry and Live/Dead® staining (Invitrogen). Results: The isolated cells showed a similar cellular and nuclear morphology, a strong nuclear immunocytochemical UTF1-staining (Fig. 2A, B) and are vital (Fig. 2D, E, F). Conclusion: Our new single cell isolation protocol based on bead-tagging of the FGFR3-positive potential hSSCs enables down-stream applications and cell culture experiments without the inherent problem of somatic cell contaminations. Hence, it may finally build a fundament for the medical application of this very well-defined, homogeneous cell type. References: [1] von Kopylow et al., 2010. Hum Reprod 25: 1104–12. [2] von Kopylow et al., 2012. Histochem Cell Biol 138 (5): 759-72. [3] von Kopylow et al., 2012. Reprod 143(1): 45-57.

AB - Background: Isolation of human spermatogonial stem cells (hSSCs) could provide a clinical application for fertility preservation and additionally form the basis for in vitro-spermatogenesis. Human FGFR3-positive spermatogonia (SPG) are hSSC candidates since Fibroblast Growth Factor Receptor 3 is expressed exclusively in small non-proliferating subgroups of human A type SPG together with the pluripotency marker Undifferentiated embryonic cell Transcription Factor 1 (UTF1) [1-3]. Material & Methods: A pure FGFR3-positive potential human spermatogonial stem cell population from patients with full spermatogenesis was isolated by combining Dynabead® magnetic cell isolation and micromanipulative separation of bead-labeled cells during light microscopic visualisation (Fig. 1). Analysis of the isolated cells was conducted via immunocytochemistry and Live/Dead® staining (Invitrogen). Results: The isolated cells showed a similar cellular and nuclear morphology, a strong nuclear immunocytochemical UTF1-staining (Fig. 2A, B) and are vital (Fig. 2D, E, F). Conclusion: Our new single cell isolation protocol based on bead-tagging of the FGFR3-positive potential hSSCs enables down-stream applications and cell culture experiments without the inherent problem of somatic cell contaminations. Hence, it may finally build a fundament for the medical application of this very well-defined, homogeneous cell type. References: [1] von Kopylow et al., 2010. Hum Reprod 25: 1104–12. [2] von Kopylow et al., 2012. Histochem Cell Biol 138 (5): 759-72. [3] von Kopylow et al., 2012. Reprod 143(1): 45-57.

M3 - Konferenzbeitrag - Poster

VL - 18

SP - IV-41

BT - 18th ETW European Testis Workshop

T2 - European Testis Workshop

Y2 - 13 May 2014 through 17 May 2014

ER -