1.000000 0.000000 0.000000 0.000000 1.000000 0.000000 0.000000 0.000000 1.000000 0.00000 0.00000 0.00000 King, G.F. Maciejewski, M.W. Pan, B. Mullen, G.P. http://mmcif.pdb.org/dictionaries/ascii/mmcif_pdbx.dic 1 90.00 90.00 90.00 1.000 1.000 1.000 C3 H7 N O2 89.093 y ALANINE L-peptide linking C6 H15 N4 O2 1 175.209 y ARGININE L-peptide linking C4 H8 N2 O3 132.118 y ASPARAGINE L-peptide linking C4 H7 N O4 133.103 y ASPARTIC ACID L-peptide linking C3 H7 N O2 S 121.158 y CYSTEINE L-peptide linking C5 H10 N2 O3 146.144 y GLUTAMINE L-peptide linking C5 H9 N O4 147.129 y GLUTAMIC ACID L-peptide linking C2 H5 N O2 75.067 y GLYCINE peptide linking C6 H10 N3 O2 1 156.162 y HISTIDINE L-peptide linking C6 H13 N O2 131.173 y ISOLEUCINE L-peptide linking C6 H13 N O2 131.173 y LEUCINE L-peptide linking C6 H15 N2 O2 1 147.195 y LYSINE L-peptide linking C5 H11 N O2 S 149.211 y METHIONINE L-peptide linking C5 H9 N O2 115.130 y PROLINE L-peptide linking C3 H7 N O3 105.093 y SERINE L-peptide linking C4 H9 N O3 119.119 y THREONINE L-peptide linking C9 H11 N O3 181.189 y TYROSINE L-peptide linking C5 H11 N O2 117.146 y VALINE L-peptide linking US Nat.Struct.Biol. NSBIEW 2024 1072-8368 7 1013 1017 10.1038/80917 11062554 Structural basis for the topological specificity function of MinE. 2000 US Cell(Cambridge,Mass.) CELLB5 0998 0092-8674 56 641 649 A Division Inhibitor and a Topological Specificity Factor Coded for by the Minicell Locus Determine Proper Placement of the Division Septum in E. coli 1989 US Proc.Natl.Acad.Sci.USA PNASA6 0040 0027-8424 92 4313 4317 Proper Placement of the Escherichia coli Division Site Requires Two Functions that are Associated with Different Domains of the MinE Protein 1995 US Cell(Cambridge,Mass.) CELLB5 0998 0092-8674 91 685 694 The MinE ring: An FtsZ-Independent Cell Structure Required for Selection of the Correct Division Site in E. coli 1997 UK MOL.MICROBIOL. MOMIEE 2007 0950-382X 31 1161 1169 10.1046/j.1365-2958.1999.01256.x The Dimerization and Topological Specificity Functions of MinE Reside in a Structurally Autonomous C-terminal Domain 1999 10.2210/pdb1ev0/pdb pdb_00001ev0 1.000000 0.000000 0.000000 0.000000 1.000000 0.000000 0.000000 0.000000 1.000000 0.00000 0.00000 0.00000 6713.656 MINE MINE TOPOLOGICAL SPECIFICITY DOMAIN 2 man polymer CELL DIVISION TOPOLOGICAL SPECIFICITY FACTOR no no RSDAEPHYLPQLRKDILEVICKYVQIDPEMVTVQLEQKDGDISILELNVTLPEAEELK RSDAEPHYLPQLRKDILEVICKYVQIDPEMVTVQLEQKDGDISILELNVTLPEAEELK A,B polypeptide(L) n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n n Escherichia Escherichia sample 562 Escherichia coli 562 Escherichia coli PLASMID PET15B database_2 pdbx_nmr_software pdbx_struct_assembly pdbx_struct_oper_list repository Initial release Version format compliance Version format compliance Data collection Database references Derived calculations 1 0 2000-11-01 1 1 2008-04-27 1 2 2011-07-13 1 3 2022-02-16 _database_2.pdbx_DOI _database_2.pdbx_database_accession _pdbx_nmr_software.name RCSB Y RCSB 2000-04-19 REL REL The structure was determined using triple-resonance NMR spectroscopy. Intermonomer NOEs were determined using a heterolabeled protein sample. Lowest energy and least restraint violations 60 20 3D_15N-separated_NOESY 3D_HNHA and 3D_HNHB 2D HMQC-J 3D_15N-separated_TOCSY 3D_13C-separated_NOESY 3D_CBCA(CO)NH and 3D_HNCACB 3D HNCO 3D HCCH-TOCSY 3D_C(CO)NH_TOCSY and 3D_HC(CO)NH_TOCSY 13C and 15N 3D_edited/filtered_NOESY 0.075 5.7 ambient 298 K 900 structures were calculated using torsion angle dynamics (DYANA). The best 60 structures were then refined using dynamical simulated annealing in X-PLOR. torsion angle dynamics followed by dynamical simulated annealing 1 lowest energy 3.0 mM U-15N,13C MinE; 20 mM sodium phosphate; 50 mM NaCl; 15 mM DTT; 1 mM EDTA; 0.02% sodium azide; 1 mM 4-(2-aminoethyl)benzenesulfonyl fluoride; pH 5.7 92.5% H2O, 7.5% D2O 3.5 mM U-15N MinE; 20 mM sodium phosphate; 50 mM NaCl; 15 mM DTT; 1 mM EDTA; 0.02% sodium azide; 1 mM 4-(2-aminoethyl)benzenesulfonyl fluoride; pH 5.7 92.5% H2O, 7.5% D2O 2.13 mM unlabeled MinE; 2.06 mM U-15N,13C MinE; 20 mM sodium phosphate; 50 mM NaCl; 15 mM DTT; 1.5 mM EDTA; 0.02% sodium azide; 0.2 mM PMSF; pH 5.7 95% H2O/5% D2O 3.0 mM U-15N,13C MinE; 20 mM sodium phosphate; 50 mM NaCl; 15 mM DTT; 1.5 mM EDTA; 0.02% sodium azide; 0.2 mM PMSF; pH 5.7 100% D2O Molecular Simulations processing Felix 97.0 Tai-he Xia and Christian Bartels data analysis XEASY 1.3.13 Peter Guentert structure solution DYANA 1.5 Axel Brunger refinement X-PLOR 3.851 600 Varian INOVA 500 Varian INOVA ARG 31 n 1 ARG 31 A SER 32 n 2 SER 32 A ASP 33 n 3 ASP 33 A ALA 34 n 4 ALA 34 A GLU 35 n 5 GLU 35 A PRO 36 n 6 PRO 36 A HIS 37 n 7 HIS 37 A TYR 38 n 8 TYR 38 A LEU 39 n 9 LEU 39 A PRO 40 n 10 PRO 40 A GLN 41 n 11 GLN 41 A LEU 42 n 12 LEU 42 A ARG 43 n 13 ARG 43 A LYS 44 n 14 LYS 44 A ASP 45 n 15 ASP 45 A ILE 46 n 16 ILE 46 A LEU 47 n 17 LEU 47 A GLU 48 n 18 GLU 48 A VAL 49 n 19 VAL 49 A ILE 50 n 20 ILE 50 A CYS 51 n 21 CYS 51 A LYS 52 n 22 LYS 52 A TYR 53 n 23 TYR 53 A VAL 54 n 24 VAL 54 A GLN 55 n 25 GLN 55 A ILE 56 n 26 ILE 56 A ASP 57 n 27 ASP 57 A PRO 58 n 28 PRO 58 A GLU 59 n 29 GLU 59 A MET 60 n 30 MET 60 A VAL 61 n 31 VAL 61 A THR 62 n 32 THR 62 A VAL 63 n 33 VAL 63 A GLN 64 n 34 GLN 64 A LEU 65 n 35 LEU 65 A GLU 66 n 36 GLU 66 A GLN 67 n 37 GLN 67 A LYS 68 n 38 LYS 68 A ASP 69 n 39 ASP 69 A GLY 70 n 40 GLY 70 A ASP 71 n 41 ASP 71 A ILE 72 n 42 ILE 72 A SER 73 n 43 SER 73 A ILE 74 n 44 ILE 74 A LEU 75 n 45 LEU 75 A GLU 76 n 46 GLU 76 A LEU 77 n 47 LEU 77 A ASN 78 n 48 ASN 78 A VAL 79 n 49 VAL 79 A THR 80 n 50 THR 80 A LEU 81 n 51 LEU 81 A PRO 82 n 52 PRO 82 A GLU 83 n 53 GLU 83 A ALA 84 n 54 ALA 84 A GLU 85 n 55 GLU 85 A GLU 86 n 56 GLU 86 A LEU 87 n 57 LEU 87 A LYS 88 n 58 LYS 88 A ARG 31 n 1 ARG 31 B SER 32 n 2 SER 32 B ASP 33 n 3 ASP 33 B ALA 34 n 4 ALA 34 B GLU 35 n 5 GLU 35 B PRO 36 n 6 PRO 36 B HIS 37 n 7 HIS 37 B TYR 38 n 8 TYR 38 B LEU 39 n 9 LEU 39 B PRO 40 n 10 PRO 40 B GLN 41 n 11 GLN 41 B LEU 42 n 12 LEU 42 B ARG 43 n 13 ARG 43 B LYS 44 n 14 LYS 44 B ASP 45 n 15 ASP 45 B ILE 46 n 16 ILE 46 B LEU 47 n 17 LEU 47 B GLU 48 n 18 GLU 48 B VAL 49 n 19 VAL 49 B ILE 50 n 20 ILE 50 B CYS 51 n 21 CYS 51 B LYS 52 n 22 LYS 52 B TYR 53 n 23 TYR 53 B VAL 54 n 24 VAL 54 B GLN 55 n 25 GLN 55 B ILE 56 n 26 ILE 56 B ASP 57 n 27 ASP 57 B PRO 58 n 28 PRO 58 B GLU 59 n 29 GLU 59 B MET 60 n 30 MET 60 B VAL 61 n 31 VAL 61 B THR 62 n 32 THR 62 B VAL 63 n 33 VAL 63 B GLN 64 n 34 GLN 64 B LEU 65 n 35 LEU 65 B GLU 66 n 36 GLU 66 B GLN 67 n 37 GLN 67 B LYS 68 n 38 LYS 68 B ASP 69 n 39 ASP 69 B GLY 70 n 40 GLY 70 B ASP 71 n 41 ASP 71 B ILE 72 n 42 ILE 72 B SER 73 n 43 SER 73 B ILE 74 n 44 ILE 74 B LEU 75 n 45 LEU 75 B GLU 76 n 46 GLU 76 B LEU 77 n 47 LEU 77 B ASN 78 n 48 ASN 78 B VAL 79 n 49 VAL 79 B THR 80 n 50 THR 80 B LEU 81 n 51 LEU 81 B PRO 82 n 52 PRO 82 B GLU 83 n 53 GLU 83 B ALA 84 n 54 ALA 84 B GLU 85 n 55 GLU 85 B GLU 86 n 56 GLU 86 B LEU 87 n 57 LEU 87 B LYS 88 n 58 LYS 88 B author_defined_assembly 2 dimeric 1.0000000000 0.0000000000 0.0000000000 0.0000000000 1.0000000000 0.0000000000 0.0000000000 0.0000000000 1.0000000000 1_555 x,y,z identity operation 0.0000000000 0.0000000000 0.0000000000 A N LYS 68 A N LYS 38 A O ILE 72 A O ILE 42 A O LEU 81 A O LEU 51 B N SER 73 B N SER 43 B O ASN 78 B O ASN 48 B N THR 62 B N THR 32 1 A VAL 54 -150.49 -138.47 1 A GLN 55 -170.96 106.85 1 A ILE 74 -150.02 88.14 1 A GLU 83 -61.11 -170.37 1 A ALA 84 -177.50 139.67 1 A GLU 85 -176.79 -39.67 1 B VAL 54 -150.47 -138.45 1 B GLN 55 -170.97 106.87 1 B ILE 74 -150.05 88.13 1 B GLU 83 -61.15 -170.36 1 B ALA 84 -177.49 139.70 1 B GLU 85 -176.82 -39.63 2 A HIS 37 77.13 -4.54 2 A VAL 54 -151.17 -138.51 2 A GLN 55 -170.62 107.22 2 A GLU 83 -60.72 -168.91 2 A ALA 84 -171.56 -171.09 2 A GLU 86 60.06 67.69 2 B HIS 37 77.01 -4.42 2 B VAL 54 -151.11 -138.55 2 B GLN 55 -170.59 107.20 2 B GLU 83 -60.73 -168.89 2 B ALA 84 -171.54 -171.08 3 A HIS 37 76.04 -1.44 3 A VAL 54 -150.73 -138.14 3 A GLN 55 -173.31 108.50 3 A GLU 85 -173.62 -61.40 3 A GLU 86 -177.20 39.19 3 B HIS 37 76.07 -1.44 3 B VAL 54 -150.73 -138.25 3 B GLN 55 -173.19 108.49 3 B GLU 85 -173.62 -61.52 3 B GLU 86 -177.15 39.16 4 A VAL 54 -151.09 -138.28 4 A GLN 55 -172.45 109.28 4 A GLU 83 -60.13 -169.15 4 A GLU 85 -176.27 75.31 4 A GLU 86 -172.01 34.25 4 B VAL 54 -151.08 -138.38 4 B GLN 55 -172.37 109.29 4 B GLU 83 -60.21 -169.10 4 B GLU 85 -176.13 75.29 4 B GLU 86 -172.08 34.36 5 A VAL 54 -151.41 -138.48 5 A GLN 55 -170.05 107.39 5 A LEU 75 -160.60 102.61 5 A ALA 84 179.95 118.64 5 A GLU 85 -177.07 43.38 5 B VAL 54 -151.41 -138.50 5 B GLN 55 -170.05 107.41 5 B LEU 75 -160.61 102.61 5 B ALA 84 179.94 118.60 5 B GLU 85 -177.03 43.32 6 A HIS 37 75.19 -1.42 6 A VAL 54 -151.72 -138.55 6 A GLN 55 -171.74 108.91 6 A GLU 83 -63.63 -168.59 6 A ALA 84 -177.09 85.46 6 A GLU 85 -62.13 88.74 6 A GLU 86 60.21 89.17 6 B HIS 37 75.27 -1.49 6 B VAL 54 -151.64 -138.46 6 B GLN 55 -171.78 108.88 6 B GLU 83 -63.62 -168.54 6 B ALA 84 -177.08 85.38 6 B GLU 85 -62.06 88.84 6 B GLU 86 60.11 89.19 7 A HIS 37 76.18 -2.40 7 A VAL 54 -151.44 -138.30 7 A GLN 55 -169.26 106.88 7 A GLU 83 -59.48 -170.12 7 A ALA 84 -177.26 108.53 7 A GLU 85 -176.76 93.20 7 B HIS 37 76.23 -2.46 7 B VAL 54 -151.47 -138.34 7 B GLN 55 -169.23 106.86 7 B GLU 83 -59.52 -170.03 7 B ALA 84 -177.27 108.46 7 B GLU 85 -176.79 93.15 8 A HIS 37 77.41 -4.66 8 A VAL 54 -151.33 -138.27 8 A GLN 55 -170.25 109.71 8 A GLU 83 -61.12 -169.54 8 A GLU 85 -66.23 -174.12 8 B HIS 37 77.45 -4.62 8 B VAL 54 -151.24 -138.27 8 B GLN 55 -170.22 109.71 8 B GLU 83 -61.14 -169.55 8 B GLU 85 -66.21 -174.21 9 A HIS 37 74.77 -0.88 9 A VAL 54 -151.21 -138.65 9 A GLN 55 -166.70 112.64 9 A GLU 83 -55.17 171.92 9 A ALA 84 -176.53 -163.50 9 B HIS 37 74.82 -0.88 9 B VAL 54 -151.18 -138.61 9 B GLN 55 -166.70 112.60 9 B GLU 83 -55.21 171.92 9 B ALA 84 -176.56 -163.58 10 A VAL 54 -151.31 -138.30 10 A GLN 55 -173.73 108.32 10 A GLU 83 -61.67 -169.46 10 A ALA 84 -176.29 39.82 10 A GLU 85 -66.95 82.67 10 A GLU 86 -178.09 37.54 10 B VAL 54 -151.38 -138.26 10 B GLN 55 -173.78 108.35 10 B GLU 83 -61.62 -169.38 10 B ALA 84 -176.35 39.81 10 B GLU 85 -67.01 82.77 10 B GLU 86 -178.11 37.46 11 A HIS 37 74.67 -0.29 11 A VAL 54 -150.77 -138.59 11 A GLN 55 -172.36 106.89 11 A ALA 84 -179.65 137.72 11 A GLU 85 -178.61 114.24 11 B HIS 37 74.65 -0.29 11 B VAL 54 -150.80 -138.63 11 B GLN 55 -172.38 106.98 11 B ALA 84 -179.65 137.68 11 B GLU 85 -178.57 114.29 12 A HIS 37 80.02 -9.06 12 A VAL 54 -151.29 -138.11 12 A GLN 55 -172.92 107.69 12 A GLU 83 -61.89 -169.20 12 A ALA 84 -176.83 127.33 12 B HIS 37 79.96 -9.07 12 B VAL 54 -151.34 -138.09 12 B GLN 55 -172.95 107.72 12 B GLU 83 -61.77 -169.27 12 B ALA 84 -176.76 127.35 13 A VAL 54 -150.77 -138.80 13 A GLN 55 -168.60 109.12 13 A GLU 83 -61.09 -175.21 13 A ALA 84 -178.36 141.70 13 A GLU 85 -177.43 -41.72 13 A GLU 86 -177.25 37.22 13 B VAL 54 -150.78 -138.86 13 B GLN 55 -168.55 109.14 13 B GLU 83 -61.02 -175.29 13 B ALA 84 -178.31 141.75 13 B GLU 85 -177.41 -41.69 13 B GLU 86 -177.27 37.15 14 A HIS 37 74.73 -0.27 14 A VAL 54 -152.17 -138.51 14 A GLN 55 -168.47 111.70 14 A GLU 83 -60.76 -172.92 14 A ALA 84 -178.16 147.67 14 A GLU 85 -177.20 51.43 14 A GLU 86 -177.76 39.42 14 B HIS 37 74.71 -0.19 14 B VAL 54 -152.09 -138.50 14 B GLN 55 -168.43 111.74 14 B GLU 83 -60.84 -173.04 14 B ALA 84 -178.11 147.68 14 B GLU 85 -177.14 51.41 14 B GLU 86 -177.75 39.31 15 A VAL 54 -151.15 -138.39 15 A GLN 55 -169.64 109.47 15 A ALA 84 -178.88 126.68 15 A GLU 85 -176.89 53.67 15 B VAL 54 -151.24 -138.50 15 B GLN 55 -169.55 109.70 15 B ALA 84 -179.02 126.66 15 B GLU 85 -176.94 53.68 16 A VAL 54 -150.59 -138.58 16 A GLN 55 -171.58 107.31 16 A ALA 84 -178.08 132.53 16 A GLU 85 -154.16 32.66 16 A GLU 86 59.40 70.98 16 B VAL 54 -150.62 -138.56 16 B GLN 55 -171.57 107.29 16 B ALA 84 -178.18 132.45 16 B GLU 85 -154.17 32.73 16 B GLU 86 59.37 70.96 17 A VAL 54 -151.94 -138.09 17 A GLN 55 -171.21 111.27 17 A ALA 84 -178.83 127.99 17 A GLU 85 -165.78 37.66 17 B VAL 54 -152.00 -138.06 17 B GLN 55 -171.21 111.14 17 B ALA 84 -178.83 127.93 17 B GLU 85 -165.71 37.60 18 A HIS 37 77.86 -6.06 18 A VAL 54 -150.47 -138.36 18 A GLN 55 -174.05 106.53 18 A GLU 83 -61.33 -169.77 18 A ALA 84 -177.62 -176.97 18 A GLU 85 -177.59 -51.32 18 B HIS 37 77.86 -6.08 18 B VAL 54 -150.46 -138.37 18 B GLN 55 -174.08 106.51 18 B GLU 83 -61.34 -169.84 18 B ALA 84 -177.61 -176.99 18 B GLU 85 -177.57 -51.36 19 A SER 32 68.38 -46.34 19 A HIS 37 76.36 -2.02 19 A VAL 54 -151.24 -138.50 19 A GLN 55 -170.18 108.25 19 A ILE 74 -150.18 89.33 19 A GLU 83 -60.62 -170.65 19 A ALA 84 -177.52 78.50 19 B SER 32 68.26 -46.18 19 B HIS 37 76.28 -2.01 19 B VAL 54 -151.13 -138.52 19 B GLN 55 -170.16 108.18 19 B ILE 74 -150.17 89.37 19 B GLU 83 -60.54 -170.69 19 B ALA 84 -177.55 78.60 20 A HIS 37 76.05 -2.40 20 A VAL 54 -151.49 -138.07 20 A GLN 55 -172.38 109.20 20 A GLU 83 -62.29 -168.01 20 A ALA 84 -177.17 135.26 20 A GLU 85 -177.70 98.85 20 B HIS 37 76.04 -2.41 20 B VAL 54 -151.48 -138.07 20 B GLN 55 -172.35 109.20 20 B GLU 83 -62.20 -167.99 20 B ALA 84 -177.22 135.19 20 B GLU 85 -177.63 98.91 SOLUTION STRUCTURE OF THE MINE TOPOLOGICAL SPECIFICITY DOMAIN 1 N N 1 N N A ARG 31 A ARG 1 HELX_P A GLU 35 A GLU 5 5 1 5 A TYR 38 A TYR 8 HELX_P A VAL 54 A VAL 24 1 2 17 A ASP 57 A ASP 27 HELX_P A GLU 59 A GLU 29 5 3 3 B ARG 31 B ARG 1 HELX_P B GLU 35 B GLU 5 5 4 5 B TYR 38 B TYR 8 HELX_P B VAL 54 B VAL 24 1 5 17 B ASP 57 B ASP 27 HELX_P B GLU 59 B GLU 29 5 6 3 CELL CYCLE MinE, topological specificity, cell division, MinCD, minicell, CELL CYCLE MINE_ECOLI UNP 1 P0A734 31 88 1EV0 31 88 P0A734 A 1 1 58 31 88 1EV0 31 88 P0A734 B 1 1 58 4 anti-parallel anti-parallel anti-parallel A VAL 61 A VAL 31 A LYS 68 A LYS 38 A ILE 72 A ILE 42 A LEU 81 A LEU 51 B ILE 72 B ILE 42 B LEU 81 B LEU 51 B VAL 61 B VAL 31 B LYS 68 B LYS 38 1 P 1