Biotechnology Bulletin ›› 2021, Vol. 37 ›› Issue (8): 275-283.doi: 10.13560/j.cnki.biotech.bull.1985.2020-1247
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HE Xiao-li1,3(), GUO Lei-zhou1,2, HAN Jia-hui2, TANG Yin1,2, YUAN Yuan1,2, DAI Qi-lin1, PING Shu-zhen2, JIANG Shi-jie1(
)
Received:
2020-10-11
Online:
2021-08-26
Published:
2021-09-10
Contact:
JIANG Shi-jie
E-mail:927267653@qq.com;sjjiang0406@swust.edu.cn
HE Xiao-li, GUO Lei-zhou, HAN Jia-hui, TANG Yin, YUAN Yuan, DAI Qi-lin, PING Shu-zhen, JIANG Shi-jie. Research Progress on Bacterial Periplasmic Chaperone LolA[J]. Biotechnology Bulletin, 2021, 37(8): 275-283.
Fig. 1 Crystal structure of Escherichia coli LolA[22] The hydrophobic cavity of LolA is composed of an open β-barrel and an α-helical lid,which is also a binding site for lipids;the C-terminal loop of LolA is composed of a short α-helix and a twelfth β-strand,which can correctly combine lipoprotein delivery to OM
Fig. 2 Lipoprotein transport and outer membrane anchoring mediated by the Lol system[22] a:Lipoprotein is first placed in LolE(1),and then transferred to LolA located on LolC(2). When LolCDE binds to lipoproteins,the interaction between LolA and LolCDE increases(solid arrow). Then LolA forms a hydrophilic complex with lipoproteins in an ATP-dependent manner,and opens the hydrophobic cavity of LolA at the same time(3). b:After passing through the periplasmic space,LolA and LolB interact in a “mouth to mouth” manner to transfer lipoproteins from LolA to LolB(4),and finally locate to the outer membrane
Fig. 3 Crystal structure of LolA is combined with the periplasmic domain of LolC[30] A:The overall structure of the LolA-LolC complex. B:Interaction interface view. LolC and LolA are represented in cyan and gold,respectively. The residue belonging to Hook and Pad is shown in purple and orange. The content that interacts with LolC is displayed in a bar shape
Fig. 4 Transport model of lipoprotein on LolA and LolB[36] LolA and LolB are represented by green and blue barrels,respectively,and red represents the acyl chain. Step 1: a lipoprotein is obtained from LolCDE on the periplasmic side of the inner membrane. LolA undergoes a conformational change and adapts its hydrophobic cavity to 1 to 3 lipoprotein acyl chains. Step 2: the lipoprotein-LolA complex interacts with the LolB anchored on the outer membrane. In the complex,LolA and LolB form a hydrophobic,channel-like structure. Step 3: the acyl chain of the lipoprotein is transferred from LolA to LolB through the hydrophobic channel formed by these two proteins
Fig.5 Binding mode of BLP in the hydrophobic cavity of LolA[47] A:Left:Start configuration,where BLP(yellow)is located outside the LolA(cyan)cavity. Upper right:The combination of the three fat tails of BLP near the mouth of the cavity. Lower right:One fat tail is deep in the cavity,and the other two are at the mouth of the cavity. B:The minimum distance between the three independently simulated BLP fat tails and F90 residues(as shown in the illustration by Van der Waals notation)
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