Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies

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Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies. / Missel, Julie Winkel; Salustros, Nina; Becares, Eva Ramos; Steffen, Jonas Hyld; Laursen, Amalie Gerdt; Garcia, Angelica Struve; Garcia-Alai, Maria M.; Kolar, Cenek; Gourdon, Pontus; Gotfryd, Kamil.

In: Current Research in Structural Biology, Vol. 3, 2021, p. 85-94.

Research output: Contribution to journalJournal articleResearchpeer-review

Harvard

Missel, JW, Salustros, N, Becares, ER, Steffen, JH, Laursen, AG, Garcia, AS, Garcia-Alai, MM, Kolar, C, Gourdon, P & Gotfryd, K 2021, 'Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies', Current Research in Structural Biology, vol. 3, pp. 85-94. https://doi.org/10.1016/j.crstbi.2021.03.002

APA

Missel, J. W., Salustros, N., Becares, E. R., Steffen, J. H., Laursen, A. G., Garcia, A. S., Garcia-Alai, M. M., Kolar, C., Gourdon, P., & Gotfryd, K. (2021). Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies. Current Research in Structural Biology, 3, 85-94. https://doi.org/10.1016/j.crstbi.2021.03.002

Vancouver

Missel JW, Salustros N, Becares ER, Steffen JH, Laursen AG, Garcia AS et al. Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies. Current Research in Structural Biology. 2021;3:85-94. https://doi.org/10.1016/j.crstbi.2021.03.002

Author

Missel, Julie Winkel ; Salustros, Nina ; Becares, Eva Ramos ; Steffen, Jonas Hyld ; Laursen, Amalie Gerdt ; Garcia, Angelica Struve ; Garcia-Alai, Maria M. ; Kolar, Cenek ; Gourdon, Pontus ; Gotfryd, Kamil. / Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies. In: Current Research in Structural Biology. 2021 ; Vol. 3. pp. 85-94.

Bibtex

@article{fed597f31e094499bcf981a7d8be9432,
title = "Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies",
abstract = "Membrane proteins (MPs) constitute a large fraction of the proteome, but exhibit physicochemical characteristics that impose challenges for successful sample production crucial for subsequent biophysical studies. In particular, MPs have to be extracted from the membranes in a stable form. Reconstitution into detergent micelles represents the most common procedure in recovering MPs for subsequent analysis. n-dodecyl-beta-D-maltoside (DDM) remains one of the most popular conventional detergents used in production of MPs. Here we characterize the novel DDM analogue 4-trans-(4-trans-propylcyclohexyl)-cyclohexyl alpha-maltoside (t-PCC alpha M), possessing a substantially lower critical micelle concentration (CMC) than the parental compound that represents an attractive feature when handling MPs. Using three different types of MPs of human and prokaryotic origin, i. e., a channel, a primary and a secondary active transporter, expressed in yeast and bacterial host systems, respectively, we investigate the performance of t-PCC alpha M in solubilization and affinity purification together with its capacity to preserve native fold and activity. Strikingly, t-PCC alpha M displays favorable behavior in extracting and stabilizing the three selected targets. Importantly, t-PCC alpha M promoted extraction of properly folded protein, enhanced thermostability and provided negatively-stained electron microscopy samples of promising quality. All-in-all, t-PCC alpha M emerges as competitive surfactant applicable to a broad portfolio of challenging MPs for downstream structure-function analysis.",
keywords = "Cryo-EM, Crystallization, Detergent, Membrane proteins, Solubilization, CRYSTALLIZATION, PURIFICATION, DETERGENTS, STABILIZATION, SURFACTANTS, NANODISCS",
author = "Missel, {Julie Winkel} and Nina Salustros and Becares, {Eva Ramos} and Steffen, {Jonas Hyld} and Laursen, {Amalie Gerdt} and Garcia, {Angelica Struve} and Garcia-Alai, {Maria M.} and Cenek Kolar and Pontus Gourdon and Kamil Gotfryd",
year = "2021",
doi = "10.1016/j.crstbi.2021.03.002",
language = "English",
volume = "3",
pages = "85--94",
journal = "Current Research in Structural Biology",
issn = "2665-928X",
publisher = "Elsevier",

}

RIS

TY - JOUR

T1 - Cyclohexyl-alpha maltoside as a highly efficient tool for membrane protein studies

AU - Missel, Julie Winkel

AU - Salustros, Nina

AU - Becares, Eva Ramos

AU - Steffen, Jonas Hyld

AU - Laursen, Amalie Gerdt

AU - Garcia, Angelica Struve

AU - Garcia-Alai, Maria M.

AU - Kolar, Cenek

AU - Gourdon, Pontus

AU - Gotfryd, Kamil

PY - 2021

Y1 - 2021

N2 - Membrane proteins (MPs) constitute a large fraction of the proteome, but exhibit physicochemical characteristics that impose challenges for successful sample production crucial for subsequent biophysical studies. In particular, MPs have to be extracted from the membranes in a stable form. Reconstitution into detergent micelles represents the most common procedure in recovering MPs for subsequent analysis. n-dodecyl-beta-D-maltoside (DDM) remains one of the most popular conventional detergents used in production of MPs. Here we characterize the novel DDM analogue 4-trans-(4-trans-propylcyclohexyl)-cyclohexyl alpha-maltoside (t-PCC alpha M), possessing a substantially lower critical micelle concentration (CMC) than the parental compound that represents an attractive feature when handling MPs. Using three different types of MPs of human and prokaryotic origin, i. e., a channel, a primary and a secondary active transporter, expressed in yeast and bacterial host systems, respectively, we investigate the performance of t-PCC alpha M in solubilization and affinity purification together with its capacity to preserve native fold and activity. Strikingly, t-PCC alpha M displays favorable behavior in extracting and stabilizing the three selected targets. Importantly, t-PCC alpha M promoted extraction of properly folded protein, enhanced thermostability and provided negatively-stained electron microscopy samples of promising quality. All-in-all, t-PCC alpha M emerges as competitive surfactant applicable to a broad portfolio of challenging MPs for downstream structure-function analysis.

AB - Membrane proteins (MPs) constitute a large fraction of the proteome, but exhibit physicochemical characteristics that impose challenges for successful sample production crucial for subsequent biophysical studies. In particular, MPs have to be extracted from the membranes in a stable form. Reconstitution into detergent micelles represents the most common procedure in recovering MPs for subsequent analysis. n-dodecyl-beta-D-maltoside (DDM) remains one of the most popular conventional detergents used in production of MPs. Here we characterize the novel DDM analogue 4-trans-(4-trans-propylcyclohexyl)-cyclohexyl alpha-maltoside (t-PCC alpha M), possessing a substantially lower critical micelle concentration (CMC) than the parental compound that represents an attractive feature when handling MPs. Using three different types of MPs of human and prokaryotic origin, i. e., a channel, a primary and a secondary active transporter, expressed in yeast and bacterial host systems, respectively, we investigate the performance of t-PCC alpha M in solubilization and affinity purification together with its capacity to preserve native fold and activity. Strikingly, t-PCC alpha M displays favorable behavior in extracting and stabilizing the three selected targets. Importantly, t-PCC alpha M promoted extraction of properly folded protein, enhanced thermostability and provided negatively-stained electron microscopy samples of promising quality. All-in-all, t-PCC alpha M emerges as competitive surfactant applicable to a broad portfolio of challenging MPs for downstream structure-function analysis.

KW - Cryo-EM

KW - Crystallization

KW - Detergent

KW - Membrane proteins

KW - Solubilization

KW - CRYSTALLIZATION

KW - PURIFICATION

KW - DETERGENTS

KW - STABILIZATION

KW - SURFACTANTS

KW - NANODISCS

U2 - 10.1016/j.crstbi.2021.03.002

DO - 10.1016/j.crstbi.2021.03.002

M3 - Journal article

C2 - 34235488

VL - 3

SP - 85

EP - 94

JO - Current Research in Structural Biology

JF - Current Research in Structural Biology

SN - 2665-928X

ER -

ID: 291023483