Interaction between plate make and protein in protein crystallisation screening

View/ Open
File version
Version of Record (VoR)
Author(s)
King, Gordon J
Chen, Kai-En
Robin, Gautier
Forwood, Jade K
Heras, Begona
Thakur, Anil S
Kobe, Bostjan
Blomberg, Simon P
Martin, Jennifer L
Griffith University Author(s)
Year published
2009
Metadata
Show full item recordAbstract
Background: Protein crystallisation screening involves the parallel testing of large numbers of candidate conditions with the
aim of identifying conditions suitable as a starting point for the production of diffraction quality crystals. Generally,
condition screening is performed in 96-well plates. While previous studies have examined the effects of protein construct,
protein purity, or crystallisation condition ingredients on protein crystallisation, few have examined the effect of the
crystallisation plate.
Methodology/Principal Findings: We performed a statistically rigorous examination of protein crystallisation, ...
View more >Background: Protein crystallisation screening involves the parallel testing of large numbers of candidate conditions with the aim of identifying conditions suitable as a starting point for the production of diffraction quality crystals. Generally, condition screening is performed in 96-well plates. While previous studies have examined the effects of protein construct, protein purity, or crystallisation condition ingredients on protein crystallisation, few have examined the effect of the crystallisation plate. Methodology/Principal Findings: We performed a statistically rigorous examination of protein crystallisation, and evaluated interactions between crystallisation success and plate row/column, different plates of same make, different plate makes and different proteins. From our analysis of protein crystallisation, we found a significant interaction between plate make and the specific protein being crystallised. Conclusions/Significance: Protein crystal structure determination is the principal method for determining protein structure but is limited by the need to produce crystals of the protein under study. Many important proteins are difficult to crystallise, so that identification of factors that assist crystallisation could open up the structure determination of these more challenging targets. Our findings suggest that protein crystallisation success may be improved by matching a protein with its optimal plate make.
View less >
View more >Background: Protein crystallisation screening involves the parallel testing of large numbers of candidate conditions with the aim of identifying conditions suitable as a starting point for the production of diffraction quality crystals. Generally, condition screening is performed in 96-well plates. While previous studies have examined the effects of protein construct, protein purity, or crystallisation condition ingredients on protein crystallisation, few have examined the effect of the crystallisation plate. Methodology/Principal Findings: We performed a statistically rigorous examination of protein crystallisation, and evaluated interactions between crystallisation success and plate row/column, different plates of same make, different plate makes and different proteins. From our analysis of protein crystallisation, we found a significant interaction between plate make and the specific protein being crystallised. Conclusions/Significance: Protein crystal structure determination is the principal method for determining protein structure but is limited by the need to produce crystals of the protein under study. Many important proteins are difficult to crystallise, so that identification of factors that assist crystallisation could open up the structure determination of these more challenging targets. Our findings suggest that protein crystallisation success may be improved by matching a protein with its optimal plate make.
View less >
Journal Title
PLoS One
Volume
4
Issue
11
Copyright Statement
© 2009 King et al. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
Subject
Biochemistry and cell biology not elsewhere classified