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1 is analogous to the S506F derivative of the Escherichia coli protein.
2 LysRS (LysRS2), we studied the lysS-encoded Escherichia coli protein.
3 in the genomic data base by homology to the Escherichia coli protein.
4 conformational change similar to that of the Escherichia coli protein.
5 d only a small region of similarity with the Escherichia coli protein.
6 en for marine natural products that bound to Escherichia coli proteins.
7 at high purity via removal of contaminating Escherichia coli proteins.
8 association than that observed for the same Escherichia coli proteins.
9 majority of these loci across more than 500 Escherichia coli proteins.
10 del proteins, human hemoglobin variants, and Escherichia coli proteins.
11 , allowing for continuing expression of some Escherichia coli proteins.
13 chaperone holdase, which protects essential Escherichia coli proteins against HOCl-induced aggregati
14 ensive information available on functions of Escherichia coli proteins, analysis of sequence-related
15 ces showed 61% identity to the corresponding Escherichia coli proteins and 41% identity to each other
21 seria BamD and BamE share overall folds with Escherichia coli proteins but contain differences that m
24 Unlike most DEAD/H proteins, the purified Escherichia coli protein DbpA demonstrates high specific
26 timized and applied for analysis of 1-100 ng Escherichia coli protein digests in a single run (single
29 menal stretch of Sec63p with homology to the Escherichia coli protein DnaJ is the likely region of in
30 ilar to the AFM images of the stress-induced Escherichia coli protein, Dps, when complexed with DNA;
35 hese relationships, we show that the need of Escherichia coli proteins for the chaperonin GroEL can b
36 esions and inhibitors when compared with the Escherichia coli protein (for which the structure has al
37 an example of a fine filter on a test set of Escherichia coli protein fragmentation spectra, the top
38 rase eta (Poleta) in plants, we expressed in Escherichia coli proteins from Arabidopsis thaliana (At)
39 majority of bacteria possess homologs of the Escherichia coli proteins FtsL, FtsB, and FtsQ, three pr
40 ing motif near their amino terminus, and the Escherichia coli protein has been found to be a weak ATP
43 globally monitor the structures of refolding Escherichia coli proteins in the cytosolic medium and wi
45 CPS containing a biotinylation site from an Escherichia coli protein is accumulated in a vps27 yeast
47 e sequence space of four key residues in the Escherichia coli protein kinase PhoQ that drive recognit
49 ignal peptide influence the targeting of two Escherichia coli proteins, maltose binding protein and O
51 domains (E and G) that are homologous to the Escherichia coli proteins MoeA and MogA, the atomic stru
53 ntional 'on-bead' approach, we reconstituted Escherichia coli proteins MsbA and MscS and find that pe
54 uires the participation of a large number of Escherichia coli proteins (Nus factors), as well as an R
56 e localized the potential sulfation sites of Escherichia coli proteins on a proteome microarray by us
59 lish its DNA strand exchange activities, the Escherichia coli protein RecA polymerizes onto DNA to fo
61 nding sites overlap with those of homologous Escherichia coli proteins, revealing conservation in ass
63 lude the cytosolic ATPase Get3 in yeast, the Escherichia coli protein RidA, and the mammalian protein
65 uble-stranded DNA fragments encoding defined Escherichia coli protein secondary structural elements (
66 current human, mouse, Drosophila, yeast, and Escherichia coli protein sequence data bases and identif
69 plasm, we screened a genome-scale library of Escherichia coli proteins tagged with green fluorescent
72 gration host factor (IHF) is a heterodimeric Escherichia coli protein that plays essential roles in a
77 ber of known functional associations for the Escherichia coli proteins when compared with earlier imp
78 mino acids that displays 41% identity to the Escherichia coli protein, which provides an important fu
79 mixture of fluorescence-labeled thrombin and Escherichia coli proteins with an aptamer microarray, we
81 A 3.3 MDa macromolecular cage between two Escherichia coli proteins with seemingly incompatible sy
82 ing this technique, we identified a group of Escherichia coli proteins with significantly (30-90%) ox
83 he three-dimensional structures of human and Escherichia coli proteins with their mRNA sequences.
90 hows significant sequence relatedness to the Escherichia coli protein YidC, an inner membrane protein