P00720 (ENLYS_BPT4) Enterobacteria phage T4 (Bacteriophage T4)
Endolysin UniProtKBProtein AtlasInterProInteractive Modelling
164 aa; Sequence (Fasta)
It is possible new templates exist for this target since these models were created.
Available Structures
755 Experimental Structures
| Description | PDB ID | Oligo-state | Range | Seq id (%) | Ligands | |
|---|---|---|---|---|---|---|
| Application of anti-helix antibodies in protein structure determination (9213-3LRH) |
Heteromer | 95.73 | ||||
| Crystal structure of SIV Vpr,fused to T4 lysozyme, isolated from moustached monkey, bound to human … |
Heteromer A4UDG5; Q16531; Q9Y4B6; | 96.93 | 8×GOL; 1×ZN; | |||
| Structure of a cytoplasmic 11-subunit RNA exosome complex including Ski7, bound to RNA |
Heteromer P25359; P38792; P46948; P48240; P53256; P53859; Q05636; Q08162; Q08285; Q08491; Q12277; | 98.04 | 7×MPD; 4×NA; 1×ZN; | |||
| Complex of SpaO(SPOA1,2) and OrgB(APAR)::T4lysozyme fusion protein |
Heteromer P0CL45; P40699; | 95.68 | ||||
| Complex of SpaO(SPOA1,2 SeMet) and OrgB(APAR)::T4lysozyme fusion protein |
Heteromer P0CL45; P40699; | 95.52 | ||||
| crystal structure of mitochondrial calcium uptake 2(MICU2) |
Heteromer Q8IYU8; | 98.76 | 3×CA; | |||
| Structure of the 2TEL crystallization module fused to T4 lysozyme with a helical linker. |
Heteromer P41212; | 96.89 | 2×NO3; 1×NH4; | |||
| Structure of the 2TEL crystallization module fused to T4 lysozyme with an Ala-Gly-Pro linker. |
Heteromer P41212; | 96.27 | 2×MN; | |||
| The crystal structure of an engineered phage lysin containing the binding domain of pesticin and th… |
Heteromer Q57159; | 99.27 | ||||
| Crystal structure of human claudin-4 in complex with C-terminal fragment of Clostridium perfringens… |
Heteromer O14493; P01558; | 97.5 | ||||
| Complex of FliM(SPOA)::FliN fusion protein and FliH(APAR)::T4lysozyme fusion protein |
Heteromer P26418; P26419; | 97.5 | ||||
| Structure of active-like neurotensin receptor |
Heteromer P20068; P20789; | 96.25 | 1×CIT; 5×PEG; 3×GOL; 2×EPE; | |||
| Structure of beta2 adrenoceptor bound to BI167107 and an engineered nanobody |
Heteromer P07550; | 97.5 | 1×P0G; 1×NA; 1×1WV; | |||
| Crystal structure of the KAP1 tripartite motif in complex with the ZNF93 KRAB domain |
Heteromer P35789; Q13263; Q9H4L7; | 100 | 8×ZN; | |||
| Human endothelin receptor type-B in complex with ET-1 |
Heteromer P05305; P24530; | 97.5 | ||||
| The crystal structure of the neurotensin receptor NTS1 in complex with neurotensin (8-13) |
Heteromer P20068; P20789; | 96.18 | 2×EPE; | |||
| Structure of active-like neurotensin receptor |
Heteromer P20068; P20789; | 96.25 | 2×1PE; 1×EPE; 1×FLC; 1×PEG; | |||
| Crystal structure of human beta2 adrenergic receptor bound to salmeterol and Nb71 |
Heteromer P07550; | 97.5 | 1×K5Y; 1×MG; 3×NI; 1×OLC; 1×HTO; 1×OLA; 1×P33; | |||
| The beta2 adrenergic receptor bound to a bitopic ligand |
Heteromer P07550; | 97.48 | 2×A1AE2; 1×AV0; | |||
| Structure of the Full-length glucagon class B G protein-coupled receptor |
Heteromer P47871; | 98.08 | 3×NAG; 1×NAG; 1×97V; | |||
| Structure of the glucagon receptor in complex with a glucagon analogue |
Heteromer P01275; P47871; | 97.5 | 2×NAG; 6×OLC; 1×PO4; | |||
| Structure of beta2 adrenoceptor bound to hydroxybenzylisoproterenol and an engineered nanobody |
Heteromer P07550; | 97.5 | 1×XQC; 1×NA; 1×1WV; | |||
| Crystal structure of CXCR4 and viral chemokine antagonist vMIP-II complex (PSI Community Target) |
Heteromer P61073; Q98157; | 97.5 | ||||
| Crystal structure of the CXCR4 chemokine receptor in complex with a small molecule antagonist IT1t … |
Heteromer P61073; | 97.5 | 2×ITD; | |||
| Crystal structure of the chemokine CXCR4 receptor in complex with a small molecule antagonist IT1t … |
Heteromer P61073; | 97.45 | 2×ITD; | |||
| Structure of the Full-length glucagon class B G protein-coupled receptor |
Heteromer P47871; | 98.06 | 3×NAG; 1×97V; | |||
| Crystal structure of the beta2 adrenergic receptor-Gs protein complex |
Heteromer P04896; P07550; P54311; P63212; | 97.48 | 1×P0G; | |||
| Structure of beta2 adrenoceptor bound to carazolol and inactive-state stabilizing nanobody, Nb60 |
Heteromer P07550; | 98.09 | 1×CAU; 1×CLR; | |||
| Structure of beta2 adrenoceptor bound to adrenaline and an engineered nanobody |
Heteromer P07550; | 97.5 | 1×1WV; 1×ALE; 2×NA; | |||
| Structure of beta2 adrenoceptor bound to a covalent agonist and an engineered nanobody |
Heteromer P07550; | 97.5 | 2×NA; 1×35V; | |||
| STRUCTURE OF CONSTITUTIVELY ACTIVE NEUROTENSIN RECEPTOR |
Heteromer P20068; P20789; | 96.25 | 1×TCE; 1×GOL; 3×PEG; | |||
| N-Terminal T4 Lysozyme Fusion Facilitates Crystallization of a G Protein Coupled Receptor |
Heteromer P07550; | 97.5 | 1×CAU; | |||
| Crystal structure of the human platelet-activating factor receptor in complex with ABT-491 |
Heteromer P25105; | 98.0 | 2×9EU; 7×OLC; 2×ZN; 6×SO4; | |||
| Zn-mediated Hexamer of T4 Lysozyme R76H/R80H by Synthetic Symmetrization | homo-6-mer | 96.27 | 3×ZN; 1×CL; | |||
| Disulphide-mediated Tetramer of T4 Lysozyme R76C/R80C by Synthetic Symmetrization | homo-4-mer | 96.3 | 12×CL; | |||
| Zn-mediated Trimer of T4 Lysozyme R125C/E128C by Synthetic Symmetrization | homo-3-mer | 96.3 | 6×ZN; 6×CL; 6×MG; 6×GOL; | |||
| Cu-mediated Trimer of T4 Lysozyme D61H/K65H/R76H/R80H by Synthetic Symmetrization | homo-3-mer | 95.06 | 3×CU; | |||
| Crystal structure of T4 Lysozyme S44C synthetic dimer | homo-2-mer | 96.95 | 8×SO4; 6×GOL; | |||
| Crystal structure of T4 Lysozyme V131C synthetic dimer | homo-2-mer | 96.95 | 8×SO4; | |||
| Crystal structure of T4 Lysozyme D72C synthetic dimer | homo-2-mer | 96.95 | 1×TRS; | |||
| Structure of the BBox-Coiled-coil region of Rhesus Trim5alpha | homo-2-mer | 96.93 | 4×ZN; | |||
| Crystal Structure of T4 lysozyme with the unnatural amino acid p-Acetyl-L-Phenylalanine incorporate… | homo-2-mer | 95.68 | 4×AZI; 6×CL; | |||
| Wild type T4 lysozyme structure | homo-2-mer | 98.77 | 4×SO4; 2×EPE; 3×CL; 3×GOL; | |||
| Cu-mediated Dimer of T4 Lysozyme R76H/R80H by Synthetic Symmetrization | homo-2-mer | 96.3 | 2×FMT; 1×CU; | |||
| Cu-mediated Dimer of T4 Lysozyme D61H/K65H by Synthetic Symmetrization | homo-2-mer | 96.3 | 2×CU; | |||
| Cu-mediated Dimer of T4 Lysozyme D61H/K65H/R76H/R80H by Synthetic Symmetrization | homo-2-mer | 95.06 | 2×CU; 2×CL; | |||
| The crystal structure of pesticin-T4 lysozyme hybrid stabilized by engineered disulfide bonds | homo-2-mer | 87.5 | 2×SO4; 8×NA; | |||
| The 2.5 A structure of the CXCR4 chemokine receptor in complex with small molecule antagonist IT1t | homo-2-mer | 97.5 | 2×ITD; 5×OLC; 6×OLA; | |||
| Crystal structure of the mu-opioid receptor bound to a morphinan antagonist | homo-2-mer | 96.88 | 2×BF0; 24×SO4; 2×CLR; 4×MPG; 2×1PE; 2×CL; | |||
| Structure of the human kappa opioid receptor in complex with JDTic | homo-2-mer | 97.5 | 2×JDC; 1×CIT; 2×OLC; 2×PEG; | |||
| Crystal Structure of Saccharomyces cerevisiae Upc2 Transcription Factor fused with T4 Lysozyme | homo-2-mer | 97.5 | ||||
| Crystal structure of the CXCR4 chemokine receptor in complex with a cyclic peptide antagonist CVX15 | homo-2-mer | 97.5 | ||||
| Structure of the tripartite motif of KAP1/TRIM28 | homo-2-mer | 100 | 8×ZN; | |||
| Crystal structure of the CXCR4 chemokine receptor in complex with a small molecule antagonist IT1t … | homo-2-mer | 97.3 | 2×ITD; 6×OLC; 2×GOL; | |||
| Structure of the ligand-binding domain of S. cerevisiae Upc2 in fusion with T4 lysozyme | homo-2-mer | 97.11 | ||||
| Crystal structure of rhodopsin bound to visual arrestin | homo-2-mer | 97.5 | ||||
| T4 lysozyme C-terminal fragment | monomer | 97.11 | 1×ACT; 1×CL; | |||
| Structure of Spin-labelled T4 lysozyme mutant L118C-R1 at 100K | monomer | 96.95 | 1×MTN; 3×CL; 1×BME; 2×AZI; 1×K; | |||
| High-resolution X-ray structure of the T26H mutant of T4 lysozyme | monomer | 96.95 | 3×NA; 5×CL; 4×HEZ; 3×GOL; | |||
| Structure of (3S,4S)-1-benzyl-4-(3-(3-(trifluoromethyl)phenyl)ureido)piperidin-3-yl acetate bound t… | monomer | 96.95 | 1×DOJ; | |||
| Use of a Halide Binding Site to Bypass the 1000-atom Limit to Ab initio Structure Determination | monomer | 97.56 | 5×RB; 5×CL; 2×BME; | |||
| Use of an ion-binding site to bypass the 1000-atom limit to ab initio structure determination by di… | monomer | 97.56 | 1×PO4; 5×RB; 4×CL; 2×BME; | |||
| Use of an ion-binding site to bypass the 1000-atom limit to ab initio structure determination by di… | monomer | 97.56 | 5×RB; 4×CL; 2×BME; | |||
| Use of a Halide Binding Site to Bypass the 1000-atom Limit to Structure Determination by Direct Met… | monomer | 97.56 | 5×RB; 5×CL; 2×BME; | |||
| Evaulaution at Atomic Resolution of the Role of Strain in Destabilizing the Temperature Sensitive T… | monomer | 98.17 | 1×HED; 1×PO4; 2×CL; 1×NA; 1×K; | |||
| Structure of 1-(benzo[d][1,3]dioxol-5-ylmethyl)-1-(1-propylpiperidin-4-yl)-3-(3-(trifluoromethyl)ph… | monomer | 96.95 | 1×DQD; | |||
| Structure of Spin-labelled T4 lysozyme mutant L115C-R119C-R1 at 100K | monomer | 96.34 | 1×RXR; 4×CL; 1×HED; 1×PO4; 1×BME; 2×K; | |||
| Evaulaution at Atomic Resolution of the Role of Strain in Destabilizing the Temperature Sensitive T… | monomer | 97.56 | 2×PO4; 1×BME; | |||
| Polar and non-polar cavities in phage T4 lysozyme | monomer | 96.34 | 1×K; 2×CL; 1×AZI; 1×EPE; 2×BME; 2×HED; 2×GOL; | |||
| New azaborine compounds bind to the T4 lysozyme L99A cavity - Benzene as control | monomer | 96.95 | 2×HED; 1×PO4; 1×BNZ; | |||
| New azaborine compounds bind to the T4 lysozyme L99A cavity - 1,2-dihydro-1,2-azaborine | monomer | 96.95 | 2×HED; 1×PO4; 1×NA; 1×B20; | |||
| New azaborine compounds bind to the T4 lysozyme L99A cavity - 1-ethyl-2-hydro-1,2-azaborine | monomer | 96.95 | 1×HED; 1×NA; 1×PO4; 1×B24; | |||
| T4 Lysozyme L99A - 4-iodotoluene - cryo | monomer | 98.17 | 1×TRS; 1×BME; 1×CA; 1×XQM; | |||
| T4 Lysozyme L99A/M102H with 2-Mercaptoethanol Bound | monomer | 93.9 | 5×BME; 3×SO4; 1×HED; | |||
| Structure of DCN1 bound to NAcM-OPT | monomer | 95.73 | 1×8ZA; | |||
| T4 Lysozyme L99A with n-Hexylbenzene Bound | monomer | 98.17 | 1×3GZ; 1×EPE; | |||
| Structure of Spin-labeled T4 Lysozyme Mutant T115R7 | monomer | 96.95 | 1×R7A; 1×BME; | |||
| New strategy to analyze structures of glycopeptide antibiotic-target complexes | monomer | 96.95 | 1×BGC; 1×MPD; 2×MRD; 1×PO4; 1×TRS; 1×CL; 2×IPA; | |||
| Structure of Spin labeled T4 Lysozyme Mutant T115R1A | monomer | 96.95 | 1×MTN; | |||
| T4 LYOSZYME CORE REPACKING MUTANT I100V/TA | monomer | 96.95 | 1×K; 2×CL; 1×BME; | |||
| High resolution crystal structure of T4 lysozyme mutant L20R63/A liganded to guanidinium ion | monomer | 96.34 | 1×CL; 1×GAI; 1×HED; | |||
| T4 Lysozyme L99A with No Ligand Bound | monomer | 98.17 | 1×EPE; | |||
| Multiple methionine substitutions are tolerated in T4 lysozyme and have coupled effects on folding … | monomer | 97.56 | 1×K; 2×CL; 1×HED; | |||
| Spin-Labeled T4 Lysozyme Construct K43V1 | monomer | 96.95 | 1×V1A; 3×CL; 1×PO4; 1×K; 1×HEZ; | |||
| Spin-Labeled T4 Lysozyme Construct R119V1 | monomer | 96.95 | 1×PO4; 3×CL; 1×K; 1×V1A; | |||
| Spin-Labeled T4 Lysozyme Construct I9V1/V131V1 (30 days) | monomer | 96.34 | 2×V1A; 1×HEZ; 3×CL; 1×K; | |||
| T4 Lysozyme L99A/M102H with 2-allylphenol bound | monomer | 93.9 | 2×BME; 1×2LP; 2×SO4; 1×HED; | |||
| T4 Lysozyme L99A/M102H with 2-Cyanophenol Bound | monomer | 93.9 | 2×BME; 2×0R0; 2×SO4; 1×ACT; 1×HED; | |||
| T4 LYSOZYME CORE REPACKING MUTANT V103I/TA | monomer | 96.95 | ||||
| T4 Lysozyme L99A with Benzene Bound | monomer | 98.17 | 1×BNZ; 1×EPE; | |||
| T4 Lysozyme L99A/M102H with phenol bound | monomer | 93.9 | 3×BME; 1×IPH; 3×SO4; 2×ACT; 1×HED; | |||
| T4 Lysozyme Core Repacking Mutant V149I/T152V/TA | monomer | 96.34 | 1×PO4; 1×K; 2×CL; 1×HED; | |||
| T4 Lysozyme L99A/M102H with 2-(pyrazolo-1-yl) ethanol bound | monomer | 93.9 | 3×BME; 1×1DU; 4×SO4; 1×ACT; 1×HED; | |||
| Crystal Structure of T4 Lysozyme Mutant R96W | monomer | 98.17 | 1×CL; 1×NA; 1×IPA; | |||
| Spin-Labeled T4 Lysozyme Construct V131V1 | monomer | 96.95 | 3×CL; 1×K; 1×V1A; 1×PO4; | |||
| Spin-Labeled T4 Lysozyme Construct I9V1 | monomer | 96.95 | 4×CL; 1×K; 1×V1A; 1×PO4; | |||
| T4 Lysozyme L99A/M102H with 4-Nitrophenol Bound | monomer | 93.9 | 1×BME; 2×NPO; 3×SO4; 1×HED; | |||
| T4 LYSOZYME CORE REPACKING MUTANT M120Y/TA | monomer | 96.95 | 1×PO4; 1×K; 2×CL; 1×HED; | |||
| CORE REDESIGN BACK-REVERTANT I103V/CORE10 | monomer | 92.07 | 1×PO4; 1×K; 2×CL; 1×HED; | |||
| T4 Lysozyme L99A/M102H with 2-bromo-5-hydroxybenzaldehyde bound | monomer | 93.9 | 2×BME; 1×1DW; 3×SO4; 1×ACT; 1×HED; | |||
| Structure of Spin-labeled T4 Lysozyme Mutant T115R1/R119A | monomer | 96.34 | 1×MTN; | |||
| T4 Lysozyme L99A with Toluene Bound | monomer | 98.17 | 1×MBN; 1×EPE; | |||
| T4 LYSOZYME CORE REPACKING MUTANT I118L/CORE7/TA | monomer | 93.9 | 1×K; 2×CL; 1×BME; | |||
| T4 LYSOZYME CORE REPACKING BACK-REVERTANT L102M/CORE10 | monomer | 92.07 | 1×K; 2×CL; 1×HED; | |||
| T4 Lysozyme Core Repacking Mutant V87I/TA | monomer | 96.95 | 1×PO4; 1×K; 2×CL; 1×HED; | |||
| T4 Lysozyme L99A/M102H with 1-phenyl-2-propyn-1-ol bound | monomer | 93.9 | 3×BME; 1×1DJ; 4×SO4; 1×HED; | |||
| T4 Lysozyme L99A/M102H with 4-trifluoromethylimidazole bound | monomer | 93.9 | 3×BME; 1×1DQ; 6×SO4; 1×ACT; 1×HED; | |||
| T4 LYSOZYME CORE REPACKING MUTANT I78V/TA | monomer | 96.95 | 1×K; 2×CL; 1×HED; | |||
| T4 Lysozyme L99A/M102H with 4-bromoimidazole bound | monomer | 93.9 | 2×BME; 1×ES3; 6×SO4; 1×HED; | |||
| Crystal structure of spin labeled T4 Lysozyme (V131R1F) | monomer | 96.95 | 1×R1F; 4×CL; | |||
| Structure of DCN1 bound to NAcM-COV | monomer | 95.73 | 1×8ZD; | |||
| Structure of Spin-labelled T4 lysozyme mutant L118C-R1 at Room Temperature | monomer | 96.95 | 1×MTN; 1×HED; 1×CL; 1×NA; | |||
| T4 LYSOZYME CORE REPACKING MUTANT L133F/TA | monomer | 96.95 | 1×K; 2×CL; 1×HED; | |||
| T4 Lysozyme L99A with sec-Butylbenzene Bound | monomer | 98.17 | 1×3GY; 1×EPE; | |||
| Contributions of all 20 amino acids at site 96 to the stability and structure of T4 lysozyme | monomer | 98.17 | 2×CL; 1×BME; | |||
| X-ray structure of perdeuterated T4 lysozyme cysteine-free pseudo-wild type at cryogenic temperature | monomer | 97.56 | 1×PO4; 1×NA; 1×HED; 2×CL; 1×GOL; | |||
| T4 Lysozyme L99A/M102H with Nitrobenzene Bound | monomer | 93.9 | 2×BME; 1×NBZ; 3×SO4; 2×ACT; | |||
| Contribution of all 20 amino acids at site 96 to the stability and structure of T4 lysozyme | monomer | 98.17 | 1×K; 2×CL; 1×BME; | |||
| T4 Lysozyme L99A/M102H with Isoxazole Bound | monomer | 93.9 | 2×BME; 1×0R1; 3×SO4; 2×ACT; | |||
| T4 Lysozyme L99A with n-Propylbenzene Bound | monomer | 98.17 | 1×3H0; 1×EPE; | |||
| T4 LYSOZYME CORE REPACKING MUTANT CORE10/TA | monomer | 91.46 | 1×K; 2×CL; 1×BME; | |||
| T4 Lysozyme Core Repacking Mutant L118I/TA | monomer | 96.95 | 1×K; 2×CL; 1×HED; | |||
| Free of ligand binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 1×PO4; 1×CL; 3×HED; 1×BME; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 98.17 | 1×BME; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.56 | 1×HED; | |||
| T4 lysozyme core repacking mutant M106I/TA | monomer | 96.95 | 1×K; 2×CL; 1×HED; | |||
| T4 Lysozyme L99A/M102H with benzene bound | monomer | 93.86 | 4×BME; 1×BNZ; 3×SO4; 1×ACT; 1×HED; | |||
| T4 lysozyme mutant D89A/R96H at room temperature | monomer | 97.56 | 2×CL; 1×BME; | |||
| Contributions of all 20 amino acids at site 96 to the stability and structure of T4 lysozyme | monomer | 98.17 | 2×CL; 1×K; 1×BME; | |||
| Contributions of all 20 amino acids at site 96 to the stability and structure of T4 lysozyme | monomer | 98.17 | 2×CL; 1×K; 1×BME; | |||
| Bacteriophage lysozyme T4 lysozyme mutant K85A/R96H | monomer | 97.56 | 1×CL; 1×BME; | |||
| T4 Lysozyme L99A with n-Butylbenzene Bound | monomer | 98.17 | 1×N4B; 1×EPE; | |||
| T4 Lysozyme L99A/M102H with 3-trifluoromethyl-5-methyl pyrazole bound | monomer | 93.9 | 1×BME; 1×1DV; 4×SO4; 1×ACT; 1×HED; | |||
| CUMULATIVE SITE-DIRECTED CHARGE-CHANGE REPLACEMENTS IN BACTERIOPHAGE T4 LYSOZYME SUGGEST THAT LONG-… | monomer | 98.17 | ||||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.95 | 2×CL; 1×HED; | |||
| STRUCTURE OF BACTERIOPHAGE T4 LYSOZYME REFINED AT 1.7 ANGSTROMS RESOLUTION | monomer | 98.78 | ||||
| STRUCTURAL STUDIES OF MUTANTS OF T4 LYSOZYME THAT ALTER HYDROPHOBIC STABILIZATION | monomer | 98.78 | ||||
| R96Q Mutant of wildtype phage T4 lysozyme at 298 K | monomer | 98.17 | 2×CL; 1×HED; | |||
| Crystal structure of spin labeled T4 Lysozyme (V131R7) | monomer | 96.95 | 1×R7A; 1×AZI; 3×CL; 1×HED; | |||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| HYDROPHOBIC STABILIZATION IN T4 LYSOZYME DETERMINED DIRECTLY BY MULTIPLE SUBSTITUTIONS OF ILE 3 | monomer | 98.17 | ||||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| STRUCTURAL ANALYSIS OF THE TEMPERATURE-SENSITIVE MUTANT OF BACTERIOPHAGE T4 LYSOZYME, GLYCINE 156 (… | monomer | 98.17 | ||||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | 1×BME; | |||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | 1×BME; | |||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| ENHANCED PROTEIN THERMOSTABILITY FROM SITE-DIRECTED MUTATIONS THAT DECREASE THE ENTROPY OF UNFOLDING | monomer | 98.17 | ||||
| CONTRIBUTIONS OF LEFT-HANDED HELICAL RESIDUES TO THE STRUCTURE AND STABILITY OF BACTERIOPHAGE T4 LY… | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| ENHANCED PROTEIN THERMOSTABILITY FROM SITE-DIRECTED MUTATIONS THAT DECREASE THE ENTROPY OF UNFOLDING | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| STRUCTURAL AND THERMODYNAMIC ANALYSIS OF THE PACKING OF TWO ALPHA-HELICES IN BACTERIOPHAGE T4 LYSOZ… | monomer | 98.17 | ||||
| CUMULATIVE SITE-DIRECTED CHARGE-CHANGE REPLACEMENTS IN BACTERIOPHAGE T4 LYSOZYME SUGGEST THAT LONG-… | monomer | 98.17 | ||||
| Xray crystal structure of T4 lysozyme mutant L20/R63A liganded to methylguanidinium | monomer | 96.34 | 1×CL; 1×MGX; 1×BME; | |||
| CUMULATIVE SITE-DIRECTED CHARGE-CHANGE REPLACEMENTS IN BACTERIOPHAGE T4 LYSOZYME SUGGEST THAT LONG-… | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| CONTRIBUTIONS OF LEFT-HANDED HELICAL RESIDUES TO THE STRUCTURE AND STABILITY OF BACTERIOPHAGE T4 LY… | monomer | 98.17 | ||||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | ||||
| STRUCTURAL STUDIES OF MUTANTS OF THE LYSOZYME OF BACTERIOPHAGE T4. THE TEMPERATURE-SENSITIVE MUTANT… | monomer | 97.56 | ||||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | 1×BME; | |||
| CUMULATIVE SITE-DIRECTED CHARGE-CHANGE REPLACEMENTS IN BACTERIOPHAGE T4 LYSOZYME SUGGEST THAT LONG-… | monomer | 98.17 | ||||
| STRUCTURAL STUDIES OF MUTANTS OF THE LYSOZYME OF BACTERIOPHAGE T4. THE TEMPERATURE-SENSITIVE MUTANT… | monomer | 98.17 | ||||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | ||||
| HYDROPHOBIC STABILIZATION IN T4 LYSOZYME DETERMINED DIRECTLY BY MULTIPLE SUBSTITUTIONS OF ILE 3 | monomer | 98.17 | ||||
| STRUCTURAL AND THERMODYNAMIC ANALYSIS OF THE PACKING OF TWO ALPHA-HELICES IN BACTERIOPHAGE T4 LYSOZ… | monomer | 98.17 | 1×BME; | |||
| CONTRIBUTIONS OF HYDROGEN BONDS OF THR 157 TO THE THERMODYNAMIC STABILITY OF PHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| ENHANCED PROTEIN THERMOSTABILITY FROM DESIGNED MUTATIONS THAT INTERACT WITH ALPHA-HELIX DIPOLES | monomer | 98.17 | ||||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | ||||
| T4 Lysozyme L99A/M102H with 1,2-Azaborine bound | monomer | 93.9 | 1×B20; 2×SO4; 1×BME; 1×HED; | |||
| T4 Lysozyme L99A/M102H with toluene bound | monomer | 93.9 | 2×BME; 1×MBN; 3×SO4; 1×ACT; 1×HED; | |||
| T4 Lysozyme L99A/M102H with 2-amino-5-chlorothiazole bound | monomer | 93.9 | 3×BME; 1×1DH; 5×SO4; 1×HED; | |||
| Contributions of all 20 amino acids at site 96 to the stability and structure of T4 lysozyme | monomer | 98.17 | 2×CL; 1×BME; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.95 | 2×CL; 1×HED; | |||
| Crystal structure of spin labeled T4 Lysozyme (V131R1) | monomer | 96.95 | 1×MTN; 1×AZI; 3×CL; 1×HED; | |||
| CONTRIBUTIONS OF ENGINEERED SURFACE SALT BRIDGES TO THE STABILITY OF T4 LYSOZYME DETERMINED BY DIRE… | monomer | 96.34 | ||||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.56 | 1×HED; | |||
| Contributions of all 20 amino acids at site 96 to the stability and structure of T4 lysozyme | monomer | 98.17 | 2×CL; 1×BME; | |||
| T4 Lysozyme L99A with Ethylbenzene Bound | monomer | 98.17 | 1×PYJ; 1×EPE; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 98.17 | 2×BME; | |||
| 1,3,5-trifluoro-2,4,6-trichlorobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 2×PO4; 1×F3B; 2×HED; | |||
| Structure of Spin-labeled T4 Lysozyme Mutant L118R1 | monomer | 96.95 | 1×MTN; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT T152S | monomer | 96.95 | 2×CL; 1×HED; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT T152V | monomer | 96.95 | 2×CL; 1×HED; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.95 | 2×CL; 1×HED; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.95 | 2×CL; 1×HED; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.95 | 2×CL; 1×HED; | |||
| HYDROLASE | monomer | 96.95 | 2×CL; 1×BME; | |||
| BACTERIOPHAGE T4 LYSOZYME | monomer | 98.17 | ||||
| Crystal structure of spin labeled T4 Lysozyme (V131R1B) | monomer | 96.95 | 1×R1B; 2×AZI; 3×CL; 1×HED; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT V149G | monomer | 96.95 | 2×CL; 1×HED; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT V149I | monomer | 96.95 | 2×CL; 1×HED; | |||
| Contributions of all 20 amino acids at site 96 to stability and structure of T4 lysozyme | monomer | 98.17 | 2×CL; 1×BME; | |||
| Crystal Structure of Spin Labeled T4 Lysozyme Mutant 115-119RX | monomer | 96.34 | 1×RXR; 1×AZI; 2×CL; 1×HED; 1×BME; | |||
| Benzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 2×PO4; 1×CL; 2×HED; 1×BNZ; | |||
| Bromopentafluorobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 2×PO4; 1×BBF; 2×HED; | |||
| CUMULATIVE SITE-DIRECTED CHARGE-CHANGE REPLACEMENTS IN BACTERIOPHAGE T4 LYSOZYME SUGGEST THAT LONG-… | monomer | 98.17 | ||||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | ||||
| Iodobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 2×PO4; 1×PIH; 3×HED; | |||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | ||||
| E11N Mutant of T4 Lysozyme | monomer | 96.95 | 2×CL; 1×BME; | |||
| Chloropentafluorobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 2×PO4; 1×CL; 1×BCF; 2×HED; | |||
| CUMULATIVE SITE-DIRECTED CHARGE-CHANGE REPLACEMENTS IN BACTERIOPHAGE T4 LYSOZYME SUGGEST THAT LONG-… | monomer | 98.17 | ||||
| Xray crystal structure of lysozyme mutant L20/R63A liganded to ethylguanidinium | monomer | 96.34 | 1×BME; 1×EGD; | |||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | ||||
| D20E MUTANT STRUCTURE OF T4 LYSOZYME | monomer | 96.95 | 1×HED; | |||
| Pentafluorobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 2×PO4; 1×CL; 1×F5B; 2×HED; | |||
| CONTRIBUTIONS OF ENGINEERED SURFACE SALT BRIDGES TO THE STABILITY OF T4 LYSOZYME DETERMINED BY DIRE… | monomer | 98.17 | ||||
| T4 Lysozyme L99A with n-Pentylbenzene Bound | monomer | 98.17 | 1×3H2; 1×EPE; | |||
| PERTURBATION OF TRP 138 IN T4 LYSOZYME BY MUTATIONS AT GLN 105 USED TO CORRELATE CHANGES IN STRUCTU… | monomer | 98.17 | 1×BME; | |||
| STRUCTURAL AND THERMODYNAMIC ANALYSIS OF THE PACKING OF TWO ALPHA-HELICES IN BACTERIOPHAGE T4 LYSOZ… | monomer | 97.56 | ||||
| Bacteriophage T4 lysozyme mutant D89A in wildtype background at room temperature | monomer | 98.17 | 2×CL; 1×BME; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT T152C | monomer | 96.95 | 2×CL; 1×HED; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT V149S | monomer | 96.95 | 2×CL; 1×HED; | |||
| Mutant K85A of T4 lysozyme in wildtype background at room temperature | monomer | 98.17 | 2×CL; 1×BME; | |||
| STRUCTURAL AND THERMODYNAMIC ANALYSIS OF THE PACKING OF TWO ALPHA-HELICES IN BACTERIOPHAGE T4 LYSOZ… | monomer | 98.17 | 1×BME; | |||
| CONTRIBUTIONS OF ENGINEERED SURFACE SALT BRIDGES TO THE STABILITY OF T4 LYSOZYME DETERMINED BY DIRE… | monomer | 98.17 | ||||
| CONTRIBUTIONS OF LEFT-HANDED HELICAL RESIDUES TO THE STRUCTURE AND STABILITY OF BACTERIOPHAGE T4 LY… | monomer | 98.17 | ||||
| ENHANCED PROTEIN THERMOSTABILITY FROM DESIGNED MUTATIONS THAT INTERACT WITH ALPHA-HELIX DIPOLES | monomer | 98.17 | ||||
| CONTRIBUTIONS OF ENGINEERED SURFACE SALT BRIDGES TO THE STABILITY OF T4 LYSOZYME DETERMINED BY DIRE… | monomer | 96.95 | ||||
| STRUCTURAL AND THERMODYNAMIC ANALYSIS OF THE PACKING OF TWO ALPHA-HELICES IN BACTERIOPHAGE T4 LYSOZ… | monomer | 96.95 | ||||
| T26D MUTANT OF T4 LYSOZYME | monomer | 96.95 | 2×CL; 1×HED; | |||
| CONTRIBUTIONS OF ENGINEERED SURFACE SALT BRIDGES TO THE STABILITY OF T4 LYSOZYME DETERMINED BY DIRE… | monomer | 96.95 | ||||
| T26H Mutant of T4 Lysozyme | monomer | 96.95 | 1×HED; | |||
| E11H Mutant of T4 Lysozyme | monomer | 96.95 | 2×CL; 1×BME; | |||
| T4 LYSOZYME CORE REPACKING MUTANT A111V/CORE10/TA | monomer | 92.07 | 1×K; 2×CL; 1×HED; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 98.17 | 1×BME; | |||
| T4 LYSOZYME MUTANT M6L | monomer | 96.95 | 2×CL; 1×BME; | |||
| LYSOZYME | monomer | 96.95 | 2×CL; 1×BME; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.34 | 2×CL; 1×HED; | |||
| Alternative Structures of a Sequence Extended T4 Lysozyme Show that the Highly Conserved Beta-Sheet… | monomer | 97.53 | 1×BME; | |||
| T4 lysozyme circular permutant | monomer | 98.01 | 2×CL; | |||
| HIGH-RESOLUTION STRUCTURE OF THE TEMPERATURE-SENSITIVE MUTANT OF PHAGE LYSOZYME, ARG 96 (RIGHT ARRO… | monomer | 98.17 | ||||
| THE STRUCTURAL AND THERMODYNAMIC CONSEQUENCES OF BURYING A CHARGED RESIDUE WITHIN THE HYDROPHOBIC C… | monomer | 96.95 | ||||
| T4 Lysozyme S44E/WT* | monomer | 96.95 | 2×BME; | |||
| STRUCTURAL AND THERMODYNAMIC ANALYSIS OF THE PACKING OF TWO ALPHA-HELICES IN BACTERIOPHAGE T4 LYSOZ… | monomer | 96.95 | ||||
| PERTURBATION OF TRP 138 IN T4 LYSOZYME BY MUTATIONS AT GLN 105 USED TO CORRELATE CHANGES IN STRUCTU… | monomer | 98.17 | 1×BME; | |||
| REPLACEMENTS OF PRO86 IN PHAGE T4 LYSOZYME EXTEND AN ALPHA-HELIX BUT DO NOT ALTER PROTEIN STABILITY | monomer | 98.17 | ||||
| Mutant R96A OF T4 lysozyme in wildtype background at 298K | monomer | 98.17 | 1×CL; 1×BME; | |||
| PERTURBATION OF TRP 138 IN T4 LYSOZYME BY MUTATIONS AT GLN 105 USED TO CORRELATE CHANGES IN STRUCTU… | monomer | 98.17 | 1×BME; | |||
| CRYSTAL STRUCTURE OF T4-LYSOZYME GENERATED FROM SYNTHETIC CODING DNA EXPRESSED IN ESCHERICHIA COLI | monomer | 98.78 | ||||
| Repacking of the Core of T4 Lysozyme by Automated Design | monomer | 93.29 | ||||
| LYSOZYME | monomer | 96.95 | 2×CL; 1×BME; | |||
| Hexafluorobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.95 | 2×PO4; 1×CL; 1×HFB; 2×HED; | |||
| D20C MUTANT OF T4 LYSOZYME | monomer | 96.95 | 1×BME; | |||
| STRUCTURE OF A HINGE-BENDING BACTERIOPHAGE T4 LYSOZYME MUTANT, ILE3-> PRO | monomer | 98.17 | ||||
| USE OF SEQUENCE DUPLICATION TO ENGINEER A LIGAND-TRIGGERED LONG-DISTANCE MOLECULAR SWITCH IN T4 Lys… | monomer | 96.34 | 1×CL; 1×GAI; 1×HED; | |||
| Structure of DCN1 bound to NAcM-HIT | monomer | 96.95 | 1×8Z7; | |||
| Crystal Structure T4 Lysozyme incorporating an unnatural amino acid p-iodo-L-phenylalanine at posit… | monomer | 98.78 | 3×CL; 2×BME; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 96.34 | 1×CL; 1×HED; | |||
| Crystal structure of spin labeled T4 Lysozyme (V131R1) at 291 K | monomer | 96.95 | 1×MTN; 1×AZI; 3×CL; 1×HED; | |||
| T26Q MUTANT OF T4 LYSOZYME | monomer | 96.95 | 2×CL; 1×BME; | |||
| Crystal structure of phage T4 lysozyme mutant Y24A/Y25A/T26A/I27A/C54T/C97A | monomer | 95.12 | 1×BME; | |||
| CONSERVATION OF SOLVENT-BINDING SITES IN 10 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 98.17 | ||||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 93.29 | 1×CL; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 91.46 | 1×SO4; | |||
| Alternative Structures of a Sequence Extended T4 Lysozyme Show that the Highly Conserved Beta-Sheet… | monomer | 97.56 | 1×SO4; | |||
| T26E APO STRUCTURE OF T4 LYSOZYME | monomer | 96.95 | 2×CL; 1×BME; | |||
| Crystal structure of phage T4 lysozyme mutant G28A/I29A/G30A/C54T/C97A | monomer | 95.73 | ||||
| ENHANCEMENT OF PROTEIN STABILITY BY THE COMBINATION OF POINT MUTATIONS IN T4 LYSOZYME IS ADDITIVE | monomer | 94.51 | ||||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 96.95 | 1×BME; | |||
| CONSERVATION OF SOLVENT-BINDING SITES IN 10 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 98.17 | ||||
| Are Carboxy Terminii of Helices Coded by the Local Sequence or by Tertiary Structure Contacts | monomer | 96.95 | ||||
| Fusion protein of T4 lysozyme and B4 domain of protein A from staphylococcal aureus with chemical c… | monomer | 97.14 | 1×EYC; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 95.73 | ||||
| Sequential reorganization of beta-sheet topology by insertion of a single strand | monomer | 97.56 | 2×SO4; | |||
| Solution Structure of a Minor and Transiently Formed State of a T4 Lysozyme Mutant | monomer | 95.73 | ||||
| Solution Structure of a Minor and Transiently Formed State of a T4 Lysozyme Mutant | monomer | 96.95 | ||||
| Structure of spin-labeled T4 lysozyme mutant A41R1 | monomer | 96.95 | 1×MTN; 1×BME; | |||
| Crystal structure of spin labeled T4 Lysozyme (A82R1) | monomer | 96.95 | 1×MTN; 1×AZI; 3×CL; 1×HED; | |||
| Structure of Spin-labeled T4 Lysozyme Mutant T115R1 at Room Temperature | monomer | 96.95 | 1×MTN; 4×BME; | |||
| Neutron crystal structure of T4L L99AE | monomer | 96.95 | 1×CL; | |||
| Neutron structure of the T26H mutant of T4 lysozyme | monomer | 96.95 | 1×NA; 3×CL; | |||
| Structure of spin-labeled T4 lysozyme mutant S44R1 | monomer | 96.34 | 1×MTN; 1×HED; | |||
| Neutron crystal structure of wtT4LE | monomer | 97.56 | 1×CL; | |||
| Neutron crystal structure of wtT4LD | monomer | 97.56 | 1×CL; | |||
| Neutron crystallographic structure of perdeuterated T4 lysozyme cysteine-free pseudo-wild type at c… | monomer | 97.56 | 2×CL; | |||
| T4 lysozyme mutant L99A in complex with 1-fluoranylnaphthalene | monomer | 98.16 | 1×Y84; 1×BME; 1×TRS; | |||
| T4 lysozyme mutant L99A in complex with 2-butylthiophene | monomer | 98.16 | 1×Y8G; 1×BME; 1×TRS; | |||
| T4 lysozyme mutant L99A in complex with 3-fluoroiodobenzene | monomer | 98.16 | 1×Y7V; 3×BME; 1×TRS; | |||
| T4 lysozyme mutant L99A in complex with 1-bromanyl-4-fluoranyl-benzene | monomer | 98.15 | 2×BME; 1×TRS; 1×Y87; | |||
| New azaborine compounds bind to the T4 lysozyme L99A cavity -ethylbenzene as control | monomer | 96.93 | 2×HED; 1×PO4; 1×PYJ; | |||
| (Z)-Thiophene-2-carboxaldoxime in complex with T4 lysozyme L99A/M102Q | monomer | 96.32 | 1×PO4; 1×JZ5; 2×BME; | |||
| 4,5,6,7-tetrahydroindole in complex with T4 lysozyme L99A/M102Q | monomer | 96.32 | 1×JZ9; 2×BME; 1×PO4; | |||
| Spin-Labeled T4 Lysozyme Construct T151V1 | monomer | 96.93 | 1×CL; 1×K; 1×V1A; 1×PO4; 2×HEZ; | |||
| Spin-Labeled T4 Lysozyme Construct A73V1 | monomer | 96.93 | 5×CL; 1×K; 1×V1A; 2×HEZ; | |||
| AN ADAPTABLE METAL-BINDING SITE ENGINEERED INTO T4 LYSOZYME | monomer | 96.32 | 2×CL; 1×ZN; | |||
| STRUCTURE OF A THERMOSTABLE DISULFIDE-BRIDGE MUTANT OF PHAGE T4 LYSOZYME SHOWS THAT AN ENGINEERED C… | monomer | 96.93 | ||||
| 2-propylphenol in complex with T4 lysozyme L99A/M102Q | monomer | 96.32 | 2×PO4; 1×JZ4; 1×BME; | |||
| A COVALENT ENZYME-SUBSTRATE INTERMEDIATE WITH SACCHARIDE DISTORTION IN A MUTANT T4 LYSOZYME | monomer | 96.93 | 1×MUB; 1×BME; | |||
| Crystal structure of the phosphatidylinositol 4-kinase IIbeta | monomer | 97.55 | 1×ATP; | |||
| CONSERVATION OF SOLVENT-BINDING SITES IN 10 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 95.71 | 1×SO4; | |||
| Structure of the T4Lnano fusion protein | monomer | 98.77 | 5×CA; 5×GOL; 2×CL; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 96.93 | ||||
| Crystal structure of phosphatidyl inositol 4-kinase II beta in complex with MM1373 | monomer | 97.55 | 1×L6A; | |||
| Crystal structure of a pesticin (translocation and receptor binding domain) from Y. pestis and T4-l… | monomer | 97.55 | 2×SO4; | |||
| Crystal structure of phosphatidyl inositol 4-kinase II alpha in the apo state | monomer | 97.55 | ||||
| T4 lysozyme mutant L99A in complex with 1-fluoranyl-4-iodanyl-benzene | monomer | 98.15 | 1×Y8D; 3×BME; 1×TRS; | |||
| T4 lysozyme mutant L99A | monomer | 98.14 | 1×YGV; 1×TRS; | |||
| T4 lysozyme mutant L99A | monomer | 98.15 | 1×YGG; 1×TRS; | |||
| T4 lysozyme mutant L99A | monomer | 98.15 | 1×YGJ; 1×TRS; | |||
| Evaulaution at Atomic Resolution of the Role of Strain in Destabilizing the Temperature Sensitive T… | monomer | 98.77 | 1×HED; 1×BME; 2×PO4; 2×CL; 1×K; | |||
| T4 lysozyme mutant L99A in complex with 1-fluoro-2-[(prop-2-en-1-yl)oxy]benzene | monomer | 98.15 | 1×ZNV; 1×BME; 1×TRS; | |||
| T4 Lysozyme L99A - benzylacetate - cryo | monomer | 98.15 | 1×TRS; 1×BME; 1×CL; 1×J0Z; | |||
| T4 Lysozyme L99A - toluene - cryo | monomer | 98.15 | 1×MBN; | |||
| T4 Lysozyme L99A - 3-iodotoluene - cryo | monomer | 98.15 | 1×TRS; 1×BME; 1×CL; 1×XQJ; | |||
| Evaulaution at Atomic Resolution of the Role of Strain in Destabilizing the Temperature Sensitive T… | monomer | 98.15 | 1×PO4; 1×NA; 2×CL; 1×K; | |||
| T4 lysozyme mutant L99A | monomer | 98.12 | 1×YGM; 1×TRS; | |||
| 2-ethoxy-3,4-dihydro-2h-pyran in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 1×PO4; 1×BME; 1×JZ7; | |||
| T4 Lysozyme L99A - iodobenzene - RT | monomer | 98.15 | 1×TRS; 2×BME; 1×CL; 1×PIH; | |||
| Benzylacetate in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 1×PO4; 1×J0Z; 2×BME; | |||
| N-phenylglycinonitrile in complex with T4 lysozyme L99A/M102Q | monomer | 97.53 | 1×PO4; 1×264; | |||
| 2-nitrothiophene in complex with T4 lysozyme L99A/M102Q | monomer | 97.53 | 1×PO4; 1×265; | |||
| T4 Lysozyme L99A - o-xylene - RT | monomer | 98.15 | 1×TRS; 1×CL; 1×BME; 1×OXE; | |||
| T4 Lysozyme L99A - Apo - cryo | monomer | 98.15 | 1×TRS; 2×BME; 1×CL; | |||
| T4 Lysozyme L99A - 3-iodotoluene - RT | monomer | 98.15 | 1×TRS; 2×BME; 1×CL; 1×XQJ; | |||
| T4 lysozyme Y18Ymbr | monomer | 96.91 | 1×HED; | |||
| T4 Lysozyme L99A - toluene - RT | monomer | 98.15 | 1×TRS; 1×CL; 1×MBN; 1×BME; | |||
| T4 lysozyme Y18Ymcl | monomer | 96.91 | 1×HED; 3×NA; | |||
| T4 Lysozyme L99A - ethylbenzene - RT | monomer | 98.15 | 1×TRS; 1×BME; 1×CL; 1×PYJ; | |||
| 2-phenoxyethanol in complex with T4 lysozyme L99A/M102Q | monomer | 97.53 | 1×PO4; 1×268; | |||
| T4 Lysozyme L99A - Apo - RT | monomer | 98.15 | 1×TRS; 1×CL; 2×BME; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--Apo structure | monomer | 93.83 | 1×BME; 1×CO3; 1×TAM; 1×SO4; | |||
| Thieno[3,2-b]thiophene in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 1×PO4; 1×J1Z; 3×BME; | |||
| T4 Lysozyme L99A - propylbenzene - RT | monomer | 98.15 | 1×TRS; 1×CL; 1×3H0; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y18F | monomer | 96.91 | 1×HED; | |||
| Nitrosobenzene in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 1×PO4; 1×NBE; | |||
| 3-methylbenzylazide in complex with T4 lysozyme L99A | monomer | 96.91 | 3×PO4; 1×263; | |||
| 2-(n-propylthio)ethanol in complex with T4 lysozyme L99A/M102Q | monomer | 97.53 | 1×PO4; 1×266; | |||
| T4 Lysozyme L99A - 4-iodotoluene - RT | monomer | 98.15 | 1×TRS; 1×CL; 1×XQM; | |||
| T4 Lysozyme L99A - benzylacetate - RT | monomer | 98.15 | 1×TRS; 1×BME; 1×CL; 1×J0Z; | |||
| PSEUDO T4 LYSOZYME | monomer | 97.53 | 1×HED; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y88F | monomer | 96.91 | 1×HED; | |||
| T4 lysozyme mutant L99A in complex with 4-(3-phenylpropyl)aniline | monomer | 98.15 | 1×EPE; 1×Y8M; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y88PHE-I | monomer | 96.91 | 1×HED; 2×NA; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--aniline binding | monomer | 93.83 | 2×ANL; 1×CA; 2×CL; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--pyridine binding | monomer | 93.83 | 2×0PY; 1×CO3; 1×MG; 2×CL; | |||
| Crystal Structure of Spin Labeled T4 Lysozyme Mutant K65V1/R76V1 | monomer | 96.3 | 2×V1A; 2×HEZ; 2×CL; 1×K; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y18PHE-METHYL | monomer | 96.91 | 1×HED; | |||
| Catechol in complex with T4 lysozyme L99A/M102Q | monomer | 97.53 | 1×PO4; 1×CAQ; 1×BME; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y88PHE-BR | monomer | 97.53 | 1×HED; | |||
| (r)(+)-3-chloro-1-phenyl-1-propanol in complex with T4 lysozyme L99A/M102Q | monomer | 97.53 | 2×PO4; 1×269; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y88PHE-METHYL | monomer | 96.91 | 1×HED; 1×PO4; | |||
| 2-methylphenol in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 2×PO4; 1×JZ0; | |||
| 5-chloro-2-methylphenol in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 2×PO4; 1×JZ2; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--Benzene binding | monomer | 93.83 | 1×BNZ; 1×BME; 1×CO3; 1×EPE; 1×SO4; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y18PHE-I | monomer | 96.91 | 1×HED; | |||
| 3-methylbenzylazide in complex with T4 L99A/M102Q | monomer | 97.53 | 1×PO4; 1×263; | |||
| 4-(methylthio)nitrobenzene in complex with T4 lysozyme L99A | monomer | 96.91 | 3×PO4; 1×259; | |||
| T4 lysozyme Y18Ymi | monomer | 97.53 | 1×HED; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 2×BME; | |||
| Multiple Methionine Substitutions in T4 Lysozyme | monomer | 90.74 | 1×PO4; 1×CL; 1×BME; | |||
| PSEUDO T4 LYSOZYME MUTANT - Y18PHE-BR | monomer | 97.53 | 1×HED; | |||
| TOWARD A SIMPLIFICATION OF THE PROTEIN FOLDING PROBLEM: A STABILIZING POLYALANINE ALPHA-HELIX ENGIN… | monomer | 96.91 | 3×CL; 2×BME; | |||
| TOLERANCE OF T4 LYSOZYME TO MULTIPLE XAA (RIGHT ARROW) ALA SUBSTITUTIONS: A POLYALANINE ALPHA-HELIX… | monomer | 96.91 | 2×CL; 2×BME; | |||
| Multiple Methionine Substitutions are Tolerated in T4 Lysozyme and have Coupled Effects on Folding … | monomer | 92.59 | 1×PO4; 3×CL; 1×K; 3×HED; | |||
| DISSECTION OF HELIX CAPPING IN T4 LYSOZYME BY STRUCTURAL AND THERMODYNAMIC ANALYSIS OF SIX AMINO AC… | monomer | 96.91 | 2×CL; 2×BME; | |||
| Stabilizing Disulfide Bridge Mutant of T4 Lysozyme | monomer | 96.3 | 1×CL; 1×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| STRUCTURES OF RANDOMLY GENERATED MUTANTS OF T4 LYSOZYME SHOW THAT PROTEIN STABILITY CAN BE ENHANCED… | monomer | 96.91 | 2×CL; 2×BME; | |||
| STRUCTURES OF RANDOMLY GENERATED MUTANTS OF T4 LYSOZYME SHOW THAT PROTEIN STABILITY CAN BE ENHANCED… | monomer | 96.91 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.91 | 2×CL; 2×BME; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 96.3 | 2×BME; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.53 | 1×HED; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 1×BME; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; 1×HED; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 1×CL; 2×BME; | |||
| RAPID CRYSTALLIZATION OF T4 LYSOZYME BY INTERMOLECULAR DISULFIDE CROSSLINKING | monomer | 96.91 | 2×CL; 1×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 1×CL; 3×BME; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; 1×BME; 1×HED; | |||
| STRUCTURES OF RANDOMLY GENERATED MUTANTS OF T4 LYSOZYME SHOW THAT PROTEIN STABILITY CAN BE ENHANCED… | monomer | 96.91 | 2×CL; 2×BME; | |||
| RAPID CRYSTALLIZATION OF T4 LYSOZYME BY INTERMOLECULAR DISULFIDE CROSSLINKING | monomer | 96.3 | 2×CL; 2×BME; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT T152I | monomer | 96.91 | 2×CL; 1×HED; | |||
| COMPARISON OF THE CRYSTAL STRUCTURE OF BACTERIOPHAGE T4 LYSOZYME AT LOW, MEDIUM, AND HIGH IONIC STR… | monomer | 98.77 | 2×CL; 1×BME; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT V149C | monomer | 96.91 | 2×CL; 1×HED; | |||
| 2-ethoxyphenol in complex with T4 lysozyme L99A | monomer | 96.91 | 1×PO4; 2×261; | |||
| A CAVITY-CONTAINING MUTANT OF T4 LYSOZYME IS STABILIZED BY BURIED BENZENE | monomer | 96.91 | 2×CL; 2×BME; 1×BNZ; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 96.91 | 2×CL; 1×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| 2-ethylphenol in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 2×PO4; 1×JZ1; 1×BME; | |||
| MULTIPLE STABILIZING ALANINE REPLACEMENTS WITHIN ALPHA-HELIX 126-134 OF T4 LYSOZYME HAVE INDEPENDEN… | monomer | 96.3 | 3×CL; 2×BME; | |||
| TOLERANCE OF T4 LYSOZYME TO MULTIPLE XAA (RIGHT ARROW) ALA SUBSTITUTIONS: A POLYALANINE ALPHA-HELIX… | monomer | 96.91 | 2×CL; 2×BME; | |||
| TOLERANCE OF T4 LYSOZYME TO MULTIPLE XAA (RIGHT ARROW) ALA SUBSTITUTIONS: A POLYALANINE ALPHA-HELIX… | monomer | 96.91 | 2×CL; 2×BME; | |||
| Iodopentafluorobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant (seleno version) | monomer | 96.91 | 1×PO4; 1×CL; 3×HED; 1×BME; 1×IBF; | |||
| Iodobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant (seleno version) | monomer | 96.91 | 1×PO4; 1×CL; 3×HED; 1×BME; 1×PIH; | |||
| T4 LYSOZYME MUTANT M120K | monomer | 96.91 | 2×CL; 1×BME; | |||
| HOW AMINO-ACID INSERTIONS ARE ALLOWED IN AN ALPHA-HELIX OF T4 LYSOZYME | monomer | 97.53 | 2×CL; 2×BME; | |||
| L99G MUTANT OF T4 LYSOZYME | monomer | 96.91 | 2×CL; 1×HEZ; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 96.91 | ||||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; 1×HED; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; 1×HED; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.91 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.91 | 2×CL; 2×BME; | |||
| PHAGE T4 LYSOZYME | monomer | 96.91 | 2×CL; 1×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 97.53 | 2×CL; 2×BME; | |||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 95.68 | 2×CL; 1×HED; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 96.91 | 2×CL; 1×BME; | |||
| DETERMINATION OF ALPHA-HELIX PROPENSITY WITHIN THE CONTEXT OF A FOLDED PROTEIN: SITES 44 AND 131 IN… | monomer | 98.15 | 2×CL; 2×BME; | |||
| beta-chlorophenetole in complex with T4 lysozyme L99A | monomer | 96.91 | 1×PO4; 1×258; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| Duplication-extension of Helix A of T4 lysozyme | monomer | 97.53 | ||||
| 2-ethoxyphenol in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 2×PO4; 1×261; | |||
| DETERMINATION OF ALPHA-HELIX PROPENSITY WITHIN THE CONTEXT OF A FOLDED PROTEIN: SITES 44 AND 131 IN… | monomer | 98.15 | 2×CL; 1×BME; | |||
| DISSECTION OF HELIX CAPPING IN T4 LYSOZYME BY STRUCTURAL AND THERMODYNAMIC ANALYSIS OF SIX AMINO AC… | monomer | 96.91 | 2×CL; 2×BME; | |||
| DISSECTION OF HELIX CAPPING IN T4 LYSOZYME BY STRUCTURAL AND THERMODYNAMIC ANALYSIS OF SIX AMINO AC… | monomer | 96.91 | 2×CL; 2×BME; | |||
| Crystal structure of phage T4 lysozyme mutant L32A/L33A/T34A/C54T/C97A/E108V | monomer | 95.57 | 1×PO4; 2×CL; 1×BME; | |||
| DISSECTION OF HELIX CAPPING IN T4 LYSOZYME BY STRUCTURAL AND THERMODYNAMIC ANALYSIS OF SIX AMINO AC… | monomer | 96.91 | 2×CL; 2×BME; | |||
| ARE CARBOXY TERMINII OF HELICES CODED BY THE LOCAL SEQUENCE OR BY TERTIARY STRUCTURE CONTACTS | monomer | 96.91 | 2×CL; 1×BME; | |||
| DISSECTION OF HELIX CAPPING IN T4 LYSOZYME BY STRUCTURAL AND THERMODYNAMIC ANALYSIS OF SIX AMINO AC… | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT L118A | monomer | 96.91 | 2×CL; 1×HED; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.91 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.91 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.91 | 2×CL; 2×BME; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×BNZ; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×BZF; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×DEN; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.3 | 2×CL; 1×HED; | |||
| AN ADAPTABLE METAL-BINDING SITE ENGINEERED INTO T4 LYSOZYME | monomer | 96.3 | 2×CL; 2×NI; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.3 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.3 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.91 | 2×CL; 2×BME; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×I4B; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×IND; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×N4B; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×PXY; | |||
| SPECIFICITY OF LIGAND BINDING IN A BURIED NON-POLAR CAVITY OF T4 LYSOZYME: LINKAGE OF DYNAMICS AND … | monomer | 96.91 | 2×CL; 1×HED; 1×OXE; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 98.15 | 2×CL; 2×BME; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; 1×HED; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.3 | 2×CL; 2×BME; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 96.91 | 2×CL; 1×GAI; 2×BME; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; | |||
| COMPARISON OF THE CRYSTAL STRUCTURE OF BACTERIOPHAGE T4 LYSOZYME AT LOW, MEDIUM, AND HIGH IONIC STR… | monomer | 98.77 | 2×CL; 3×BME; | |||
| COMPARISON OF THE CRYSTAL STRUCTURE OF BACTERIOPHAGE T4 LYSOZYME AT LOW, MEDIUM, AND HIGH IONIC STR… | monomer | 98.77 | 2×CL; 3×BME; | |||
| COMPARISON OF THE CRYSTAL STRUCTURE OF BACTERIOPHAGE T4 LYSOZYME AT LOW, MEDIUM, AND HIGH IONIC STR… | monomer | 98.77 | 2×CL; | |||
| T4 LYSOZYME MUTANT C54T/C97A/Q105M | monomer | 96.91 | 1×CL; 2×BME; | |||
| Crystal structure of spin labeled T4 Lysozyme (T151R1) at 100 K | monomer | 96.91 | 1×MTN; 1×HED; 2×AZI; 3×CL; | |||
| DESIGN AND STRUCTURAL ANALYSIS OF ALTERNATIVE HYDROPHOBIC CORE PACKING ARRANGEMENTS IN BACTERIOPHAG… | monomer | 95.68 | 2×CL; 2×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| Iodopentafluorobenzene binding in the hydrophobic cavity of T4 lysozyme L99A mutant | monomer | 96.91 | 2×PO4; 1×IBF; 3×HED; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 96.91 | 2×CL; 1×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT L121M | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L133A IN THE PRESENCE OF 8 ATM ARGON | monomer | 98.15 | 2×CL; 2×BME; | |||
| T4 lysozyme with C-terminal extension | monomer | 96.91 | 1×PO4; 3×CL; 1×GOL; | |||
| Specificity of ligand binding in a buried non-polar cavity of t4 lysozyme: linkage of dynamics and … | monomer | 96.91 | 2×CL; 1×HED; 1×PYJ; | |||
| THE INTRODUCTION OF STRAIN AND ITS EFFECTS ON THE STRUCTURE AND STABILITY OF T4 LYSOZYME | monomer | 96.91 | 2×CL; 1×HED; | |||
| 1,2-dichlorobenzene in complex with T4 Lysozyme L99A | monomer | 96.91 | 3×PO4; 1×BME; 1×YAN; | |||
| 2,6-difluorobenzylbromide complex with T4 lysozyme L99A | monomer | 96.91 | 2×PO4; 1×260; | |||
| 4-chloro-1h-pyrazole in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 1×PO4; 2×JZ6; 1×BME; | |||
| L99G/E108V MUTANT OF T4 LYSOZYME | monomer | 96.3 | 2×CL; 1×HEZ; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--Toluene binding | monomer | 93.83 | 1×MBN; 1×CA; 2×CL; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 96.91 | 2×CL; 2×BME; 1×BNZ; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 3×CL; 2×BME; | |||
| STRUCTURAL BASIS OF AMINO ACID ALPHA HELIX PROPENSITY | monomer | 96.91 | ||||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 94.44 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 96.3 | 2×CL; 2×BME; | |||
| CONTROL OF ENZYME ACTIVITY BY AN ENGINEERED DISULFIDE BOND | monomer | 93.21 | 2×CL; 2×BME; | |||
| THE ENERGETIC COST AND THE STRUCTURAL CONSEQUENCES OF BURYING A HYDROXYL GROUP WITHIN THE CORE OF A… | monomer | 96.91 | 2×CL; 1×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| THERMODYNAMIC AND STRUCTURAL COMPENSATION IN "SIZE-SWITCH" CORE-REPACKING VARIANTS OF T4 LYSOZYME | monomer | 96.3 | 2×CL; 2×BME; | |||
| T4 Lysozyme Mutant L99A/M102Q Bound by 2-fluoroaniline | monomer | 97.53 | 2×CL; 2×BME; 1×1AN; | |||
| T4 LYSOZYME MUTANT, T21H/C54T/C97A/Q141H/T142H | monomer | 95.68 | 1×SO4; 1×CL; 1×CO; | |||
| MULTIPLE STABILIZING ALANINE REPLACEMENTS WITHIN ALPHA-HELIX 126-134 OF T4 LYSOZYME HAVE INDEPENDEN… | monomer | 97.53 | 2×CL; 1×BME; | |||
| T4 lysozyme mutant L99A/M102Q bound by 3-chlorophenol | monomer | 97.53 | 2×CL; 2×BME; 1×3CH; | |||
| MULTIPLE STABILIZING ALANINE REPLACEMENTS WITHIN ALPHA-HELIX 126-134 OF T4 LYSOZYME HAVE INDEPENDEN… | monomer | 97.53 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT L84M | monomer | 96.91 | 2×CL; 1×HED; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE INTRODUCTION OF STRAIN AND ITS EFFECTS ON THE STRUCTURE AND STABILITY OF T4 LYSOZYME | monomer | 96.91 | ||||
| Bacteriophage T4 lysozyme mutant R96V in wildtype background at low temperature | monomer | 98.15 | 1×HEZ; 2×MPD; | |||
| T4 LYSOZYME MUTANT L133M | monomer | 96.91 | 2×CL; 1×HED; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.26 | 2×HED; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.53 | ||||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 96.91 | 2×CL; 1×HED; | |||
| N-TERMINAL DOMAIN CORE METHIONINE MUTATION | monomer | 96.91 | 2×CL; 1×HED; | |||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 95.06 | 2×CL; 1×HED; | |||
| TOLERANCE OF T4 LYSOZYME TO PROLINE SUBSTITUTIONS WITHIN THE LONG INTERDOMAIN ALPHA-HELIX ILLUSTRAT… | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT V149M | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 2 ATM XENON | monomer | 96.91 | 1×CL; 3×XE; 2×BME; | |||
| DETERMINATION OF ALPHA-HELIX PROPENSITY WITHIN THE CONTEXT OF A FOLDED PROTEIN: SITES 44 AND 131 IN… | monomer | 98.15 | 2×CL; 2×BME; | |||
| CRYSTAL STRUCTURE OF T4 LYSOZYME MUTANT T152A | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 4 ATM KRYPTON | monomer | 96.91 | 2×CL; 2×KR; 2×BME; | |||
| E108V MUTANT OF T4 LYSOZYME | monomer | 96.91 | 1×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 4 ATM XENON | monomer | 96.91 | 2×CL; 3×XE; 3×BME; | |||
| THE INTRODUCTION OF STRAIN AND ITS EFFECTS ON THE STRUCTURE AND STABILITY OF T4 LYSOZYME | monomer | 96.91 | ||||
| T4 LYSOZYME MUTANT WITH CYS 54 REPLACED BY THR, CYS 97 REPLACED BY ALA, THR 21 REPLACED BY CYS AND … | monomer | 96.3 | 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 8 ATM ARGON | monomer | 96.91 | 2×CL; 1×AR; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 8 ATM KRYPTON | monomer | 96.91 | 2×CL; 3×KR; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 8 ATM XENON | monomer | 96.91 | 2×CL; 3×XE; 2×BME; | |||
| HOW AMINO-ACID INSERTIONS ARE ALLOWED IN AN ALPHA-HELIX OF T4 LYSOZYME | monomer | 97.44 | 2×CL; 1×BME; | |||
| A HELIX INITIATION SIGNAL IN T4 LYSOZYME IDENTIFIED BY POLYALANINE MUTAGENESIS | monomer | 91.97 | 2×CL; 1×HED; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 96.91 | 2×CL; 2×BME; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 98.15 | 1×CL; 3×BME; 1×BNZ; | |||
| T4 LYSOZYME MUTANT M120L | monomer | 96.91 | 2×CL; 1×BME; | |||
| THERMODYNAMIC AND STRUCTURAL COMPENSATION IN "SIZE-SWITCH" CORE-REPACKING VARIANTS OF T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A/F153A IN THE PRESENCE OF 8 ATM ARGON | monomer | 96.3 | 2×CL; 3×BME; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 98.15 | 1×PXY; 2×BME; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT M106L | monomer | 96.91 | 2×CL; 1×BME; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; 1×HED; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.91 | 2×CL; 1×HED; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.3 | 2×CL; 1×HED; | |||
| AN ADAPTABLE METAL-BINDING SITE ENGINEERED INTO T4 LYSOZYME | monomer | 96.3 | 2×CL; 1×HED; | |||
| L99A/E108V MUTANT OF T4 LYSOZYME | monomer | 96.3 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A IN THE PRESENCE OF 8 ATM ARGON | monomer | 97.53 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A IN THE PRESENCE OF 8 ATM KRYPTON | monomer | 97.53 | 2×CL; 1×KR; 2×BME; | |||
| CAVITY CREATING MUTATION | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/N101A | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 Lysozyme Mutant L99A/M102Q | monomer | 97.53 | 2×CL; 3×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/I58T | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 Lysozyme Mutant L99A/M102Q Bound by 3,5-difluoroaniline | monomer | 97.53 | 2×CL; 2×BME; 1×5AN; | |||
| T4 Lysozyme Cavity Mutant L99A/M102Q Bound With 2-Propyl-Aniline | monomer | 97.53 | 2×CL; 2×BME; 1×PRY; | |||
| T4 Lysozyme Cavity Mutant L99A/M102Q Bound With 4-FluoroPhenEthyl Alcohol | monomer | 97.53 | 2×CL; 3×BME; 1×4FA; | |||
| MULTIPLE STABILIZING ALANINE REPLACEMENTS WITHIN ALPHA-HELIX 126-134 OF T4 LYSOZYME HAVE INDEPENDEN… | monomer | 97.53 | 3×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT L118M | monomer | 96.91 | 2×CL; 1×HED; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 98.15 | 2×CL; 2×BME; | |||
| TOLERANCE OF T4 LYSOZYME TO MULTIPLE XAA (RIGHT ARROW) ALA SUBSTITUTIONS: A POLYALANINE ALPHA-HELIX… | monomer | 96.91 | 2×CL; 2×BME; | |||
| TOLERANCE OF T4 LYSOZYME TO MULTIPLE XAA (RIGHT ARROW) ALA SUBSTITUTIONS: A POLYALANINE ALPHA-HELIX… | monomer | 93.21 | 2×CL; 2×BME; | |||
| A CAVITY-CONTAINING MUTANT OF T4 LYSOZYME IS STABILIZED BY BURIED BENZENE | monomer | 96.3 | 2×CL; 2×BME; 1×BNZ; | |||
| ANALYSIS OF THE INTERACTION BETWEEN CHARGED SIDE CHAINS AND THE ALPHA-HELIX DIPOLE USING DESIGNED T… | monomer | 96.91 | 2×CL; 2×BME; | |||
| MULTIPLE STABILIZING ALANINE REPLACEMENTS WITHIN ALPHA-HELIX 126-134 OF T4 LYSOZYME HAVE INDEPENDEN… | monomer | 95.68 | 3×CL; 2×BME; | |||
| MULTIPLE STABILIZING ALANINE REPLACEMENTS WITHIN ALPHA-HELIX 126-134 OF T4 LYSOZYME HAVE INDEPENDEN… | monomer | 98.15 | 2×CL; 1×BME; | |||
| DESIGN AND STRUCTURAL ANALYSIS OF ALTERNATIVE HYDROPHOBIC CORE PACKING ARRANGEMENTS IN BACTERIOPHAG… | monomer | 96.3 | 2×CL; 2×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.3 | 2×CL; 2×BME; | |||
| DETERMINATION OF ALPHA-HELIX PROPENSITY WITHIN THE CONTEXT OF A FOLDED PROTEIN: SITES 44 AND 131 IN… | monomer | 98.15 | 2×CL; 2×BME; | |||
| THE INTRODUCTION OF STRAIN AND ITS EFFECTS ON THE STRUCTURE AND STABILITY OF T4 LYSOZYME | monomer | 96.91 | 1×HED; | |||
| BACTERIOPHAGE T4 LYSOZYME MUTANT | monomer | 98.15 | 1×BME; | |||
| AN ADAPTABLE METAL-BINDING SITE ENGINEERED INTO T4 LYSOZYME | monomer | 96.3 | 2×CL; 1×CO; | |||
| 1-methylpyrrole in complex with T4 Lysozyme L99A | monomer | 96.91 | 2×PO4; 2×MR3; | |||
| T4 LYSOZYME METHIONINE CORE MUTANT | monomer | 93.21 | 2×CL; 1×HED; | |||
| T4 Lysozyme Cavity Mutant L99A/M102Q Bound With 2-Chloro-6-Methyl-Aniline | monomer | 97.53 | 2×CL; 3×BME; 1×2CM; | |||
| A HELIX INITIATION SIGNAL IN T4 LYSOZYME IDENTIFIED BY POLYALANINE MUTAGENESIS | monomer | 95.06 | 3×CL; 1×HED; | |||
| THERMODYNAMIC AND STRUCTURAL COMPENSATION IN "SIZE-SWITCH" CORE-REPACKING VARIANTS OF T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.53 | 1×HED; | |||
| N-TERMINAL DOMAIN CORE METHIONINE MUTATION | monomer | 96.91 | 2×CL; 1×HED; | |||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 95.06 | 2×CL; 1×HED; | |||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 93.83 | 2×CL; 1×HED; | |||
| T4 Lysozyme mutant R96Y at room temperature | monomer | 98.15 | 2×CL; 1×BME; | |||
| T4 lysozyme mutant L99A/M102Q bound by 5-methylpyrrole | monomer | 97.53 | 2×CL; 1×5MP; 1×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 16 ATM KRYPTON | monomer | 96.91 | 2×CL; 3×KR; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 32 ATM ARGON | monomer | 96.91 | 2×CL; 3×AR; 2×BME; | |||
| DISSECTION OF HELIX CAPPING IN T4 LYSOZYME BY STRUCTURAL AND THERMODYNAMIC ANALYSIS OF SIX AMINO AC… | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 Lysozyme Cavity Mutant L99A/M102Q Bound with 3-Fluoro-2-Methyl_Aniline | monomer | 97.53 | 2×CL; 3×BME; 1×FLM; | |||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 95.68 | 2×CL; 2×BME; | |||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 95.06 | 2×CL; 2×BME; | |||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 95.06 | 2×CL; 2×BME; | |||
| A HELIX INITIATION SIGNAL IN T4 LYSOZYME IDENTIFIED BY POLYALANINE MUTAGENESIS | monomer | 96.91 | 2×CL; 2×BME; | |||
| HOW AMINO-ACID INSERTIONS ARE ALLOWED IN AN ALPHA-HELIX OF T4 LYSOZYME | monomer | 97.53 | ||||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 95.68 | 2×BME; | |||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 95.68 | 1×CL; 2×BME; | |||
| THERMODYNAMIC AND STRUCTURAL COMPENSATION IN "SIZE-SWITCH" CORE-REPACKING VARIANTS OF T4 LYSOZYME | monomer | 96.3 | 2×CL; 2×BME; | |||
| GENERATING LIGAND BINDING SITES IN T4 LYSOZYME USING DEFICIENCY-CREATING SUBSTITUTIONS | monomer | 96.91 | 2×CL; 2×BME; 1×BNZ; | |||
| METHIONINE CORE MUTATION | monomer | 94.44 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A IN THE PRESENCE OF 8 ATM XENON | monomer | 97.53 | 2×CL; 1×XE; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/F153A IN THE PRESENCE OF 8 ATM ARGON | monomer | 96.91 | 2×CL; 2×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/F153A IN THE PRESENCE OF 8 ATM KRYPTON | monomer | 96.91 | 2×CL; 3×KR; 1×BME; | |||
| DESIGN AND STRUCTURAL ANALYSIS OF ALTERNATIVE HYDROPHOBIC CORE PACKING ARRANGEMENTS IN BACTERIOPHAG… | monomer | 95.68 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L121A IN THE PRESENCE OF 8 ATM ARGON | monomer | 96.91 | 2×CL; 2×BME; | |||
| STRUCTURE OF A HINGE-BENDING BACTERIOPHAGE T4 LYSOZYME MUTANT, ILE3-> PRO | monomer | 98.15 | 2×CL; 1×BME; | |||
| T4 Lysozyme Cavity Mutant L99A/M102Q Bound with 2-Allyl-6-Methyl-Phenol | monomer | 97.53 | 2×CL; 1×LYL; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L121A IN THE PRESENCE OF 8 ATM KRYPTON | monomer | 96.91 | 2×CL; 1×KR; 2×BME; | |||
| T4 Lysozyme Mutant L99A/M102Q Bound by Phenol | monomer | 97.53 | 2×CL; 1×IPH; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L121A IN THE PRESENCE OF 8 ATM XENON | monomer | 96.91 | 2×CL; 1×XE; 2×BME; | |||
| SIMILAR HYDROPHOBIC REPLACEMENTS OF LEU 99 AND PHE 153 WITHIN THE CORE OF T4 LYSOZYME HAVE DIFFEREN… | monomer | 96.91 | 2×CL; 2×BME; | |||
| DESIGN AND STRUCTURAL ANALYSIS OF ALTERNATIVE HYDROPHOBIC CORE PACKING ARRANGEMENTS IN BACTERIOPHAG… | monomer | 96.91 | 2×CL; 2×BME; | |||
| HYDROPHOBIC CORE REPACKING AND AROMATIC-AROMATIC INTERACTION IN THE THERMOSTABLE MUTANT OF T4 LYSOZ… | monomer | 96.91 | 1×PO4; 2×CL; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A IN THE PRESENCE OF 16 ATM ARGON | monomer | 96.91 | 2×CL; 2×AR; 2×BME; | |||
| T4 LYSOZYME SUBSTITUTED WITH SELENOMETHIONINE | monomer | 93.21 | 2×CL; 1×HED; | |||
| High-pressure structure of pseudo-WT T4 Lysozyme | monomer | 97.53 | 2×CL; 2×BME; | |||
| High-pressure structure of pseudo-WT T4 Lysozyme | monomer | 97.53 | 2×CL; 2×BME; | |||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 93.21 | 2×CL; 1×HED; | |||
| 2-methoxyphenol in complex with T4 lysozyme L99A/M102Q | monomer | 96.3 | 2×PO4; 1×JZ3; 1×BME; | |||
| N-TERMINAL DOMAIN CORE METHIONINE MUTATION | monomer | 96.91 | 2×CL; 1×HED; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.53 | ||||
| T4 LYSOZYME MUTANT V103M | monomer | 96.91 | 2×CL; 1×HED; | |||
| MULTIPLE STABILIZING ALANINE REPLACEMENTS WITHIN ALPHA-HELIX 126-134 OF T4 LYSOZYME HAVE INDEPENDEN… | monomer | 96.3 | 3×CL; 3×BME; | |||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 93.83 | 2×CL; 1×HED; | |||
| DESIGN AND STRUCTURAL ANALYSIS OF ALTERNATIVE HYDROPHOBIC CORE PACKING ARRANGEMENTS IN BACTERIOPHAG… | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT L91M | monomer | 96.91 | 2×CL; 1×HED; | |||
| N-TERMINAL DOMAIN CORE METHIONINE MUTATION | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--ethylbenzene binding | monomer | 93.83 | 1×PYJ; 2×ACT; | |||
| N-methylaniline in complex with T4 Lysozyme L99A | monomer | 96.91 | 2×PO4; 1×1MR; | |||
| DETERMINATION OF ALPHA-HELIX PROPENSITY WITHIN THE CONTEXT OF A FOLDED PROTEIN: SITES 44 AND 131 IN… | monomer | 98.15 | 2×CL; 1×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L121A/L133A IN THE PRESENCE OF 8 ATM ARGON | monomer | 96.3 | 2×CL; 2×AR; 2×BME; | |||
| T4 LYSOZYME MUTANT L91A | monomer | 96.91 | 2×CL; 1×HED; | |||
| DETERMINATION OF ALPHA-HELIX PROPENSITY WITHIN THE CONTEXT OF A FOLDED PROTEIN: SITES 44 AND 131 IN… | monomer | 98.15 | 2×CL; 2×BME; | |||
| DETERMINATION OF ALPHA-HELIX PROPENSITY WITHIN THE CONTEXT OF A FOLDED PROTEIN: SITES 44 AND 131 IN… | monomer | 98.15 | 2×CL; 2×BME; | |||
| Multiple Methionine Substitutions are Tolerated in T4 Lysozyme and have Coupled Effects on Folding … | monomer | 91.36 | 2×CL; 1×HED; | |||
| T4 Lysozyme Cavity Mutant L99A/M102Q Bound with N-Allyl-Aniline | monomer | 97.53 | 2×CL; 3×BME; 1×NYL; | |||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 95.68 | 2×CL; 2×BME; | |||
| ROLE OF BACKBONE FLEXIBILITY IN THE ACCOMMODATION OF VARIANTS THAT REPACK THE CORE OF T4 LYSOZYME | monomer | 95.06 | 2×CL; 2×BME; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 96.91 | ||||
| THERMODYNAMIC AND STRUCTURAL COMPENSATION IN "SIZE-SWITCH" CORE-REPACKING VARIANTS OF T4 LYSOZYME | monomer | 96.3 | 2×CL; 2×BME; | |||
| HOW AMINO-ACID INSERTIONS ARE ALLOWED IN AN ALPHA-HELIX OF T4 LYSOZYME | monomer | 97.44 | 2×CL; 2×BME; | |||
| STRUCTURAL BASIS OF ALPHA-HELIX PROPENSITY AT TWO SITES IN T4 LYSOZYME | monomer | 96.91 | ||||
| T4 LYSOZYME MUTANT C54T/C97A/L99A/F153A IN THE PRESENCE OF 8 ATM KRYPTON | monomer | 96.3 | 2×CL; 4×KR; 2×BME; | |||
| T4 Lysozyme mutant L99A at 200 MPa | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT I78A | monomer | 96.91 | 1×CL; 1×HED; | |||
| High Pressure Psuedo Wild Type T4 Lysozyme | monomer | 97.53 | 2×CL; 2×BME; | |||
| High-Pressure T4 Lysozyme | monomer | 97.53 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT V111M | monomer | 96.91 | 2×CL; 1×HED; | |||
| DESIGN AND STRUCTURAL ANALYSIS OF ALTERNATIVE HYDROPHOBIC CORE PACKING ARRANGEMENTS IN BACTERIOPHAG… | monomer | 95.06 | 2×CL; 2×BME; | |||
| T4 Lysozyme mutant L99A at 100 MPa | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 Lysozyme mutant L99A at 100 MPa | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 Lysozyme Cavity Mutant L99a/M102Q Bound With 2-Allylphenol | monomer | 97.53 | 2×CL; 1×2LP; 2×BME; | |||
| T4 Lysozyme mutant L99A at 150 MPa | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L133A IN THE PRESENCE OF 8 ATM KRYPTON | monomer | 98.15 | 2×CL; 2×KR; 1×BME; | |||
| T4 Lysozyme mutant L99A at 200 MPa | monomer | 96.91 | 2×CL; 2×BME; | |||
| METHIONINE CORE MUTATION | monomer | 94.44 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT F104M | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT V87M | monomer | 96.91 | 2×CL; 1×HED; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.53 | ||||
| Crystal structure of phage T4 lysozyme mutant R14A/K16A/I17A/K19A/T21A/E22A/C54T/C97A | monomer | 93.83 | 2×CL; 2×BME; | |||
| T4 Lysozyme mutant L99A at 100 MPa | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--phenol binding | monomer | 93.83 | 1×IPH; 1×CL; 1×CA; | |||
| METHIONINE CORE MUTANT OF T4 LYSOZYME | monomer | 96.3 | 2×CL; 1×HED; | |||
| CONSERVATION OF SOLVENT-BINDING SITES IN 10 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 96.3 | 1×PO4; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L99A/F153A IN THE PRESENCE OF 8 ATM XENON | monomer | 96.3 | 2×CL; 4×XE; 2×BME; | |||
| T4 Lysozyme mutant L99A at 200 MPa | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 LYSOZYME MUTANT I78M | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L121A/L133A IN THE PRESENCE OF 8 ATM KRYPTON | monomer | 96.3 | 2×CL; 3×KR; 2×BME; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L133A IN THE PRESENCE OF 8 ATM XENON | monomer | 98.15 | 2×CL; 2×XE; 1×BME; | |||
| T4 lysozyme M102E/L99A mutant with buried charge in apolar cavity--p-xylene binding | monomer | 93.83 | 1×PXY; 1×CL; 1×ACT; | |||
| THERMODYNAMIC AND STRUCTURAL COMPENSATION IN "SIZE-SWITCH" CORE-REPACKING VARIANTS OF T4 LYSOZYME | monomer | 96.91 | 2×CL; 2×BME; | |||
| Crystal structure of spin labeled T4 Lysozyme (T151R1) at 291 K | monomer | 96.91 | 1×MTN; 1×HED; 1×CL; 1×AZI; | |||
| T4 LYSOZYME MUTANT C54T/C97A/F153A IN THE PRESENCE OF 8 ATM XENON | monomer | 96.91 | 2×CL; 2×XE; 1×BME; | |||
| T4 Lysozyme mutant L99A at ambient pressure | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 Lysozyme mutant L99A at ambient pressure | monomer | 96.91 | 2×CL; 2×BME; | |||
| T4 Lysozyme mutant L99A at ambient pressure | monomer | 96.91 | 2×CL; 2×BME; | |||
| THE INTRODUCTION OF STRAIN AND ITS EFFECTS ON THE STRUCTURE AND STABILITY OF T4 LYSOZYME | monomer | 96.91 | 1×HED; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 96.91 | ||||
| T4 LYSOZYME MUTANT M106K | monomer | 96.91 | 1×CL; | |||
| STRUCTURAL CHARACTERISATION OF AN ENGINEERED TANDEM REPEAT CONTRASTS THE IMPORTANCE OF CONTEXT AND … | monomer | 96.0 | ||||
| STRUCTURAL CHARACTERISATION OF AN ENGINEERED TANDEM REPEAT CONTRASTS THE IMPORTANCE OF CONTEXT AND … | monomer | 96.0 | ||||
| Protein flexibility and adaptability seen in 25 crystal forms of T4 LYSOZYME | monomer | 96.3 | ||||
| Long-Distance conformational changes in a protein engineered by modulated sequence duplication | monomer | 95.68 | ||||
| THE INTRODUCTION OF STRAIN AND ITS EFFECTS ON THE STRUCTURE AND STABILITY OF T4 LYSOZYME | monomer | 96.91 | 2×CL; 1×HED; | |||
| T4 LYSOZYME MUTANT C54T/C97A/L121A/L133A IN THE PRESENCE OF 8 ATM XENON | monomer | 96.3 | 2×CL; 3×XE; 2×BME; | |||
| THE INTRODUCTION OF STRAIN AND ITS EFFECTS ON THE STRUCTURE AND STABILITY OF T4 LYSOZYME | monomer | 96.91 | 1×CL; 1×HED; | |||
| THE RESPONSE OF T4 LYSOZYME TO LARGE-TO-SMALL SUBSTITUTIONS WITHIN THE CORE AND ITS RELATION TO THE… | monomer | 96.3 | 2×CL; 1×HED; | |||
| PROTEIN STRUCTURE PLASTICITY EXEMPLIFIED BY INSERTION AND DELETION MUTANTS IN T4 LYSOZYME | monomer | 97.53 | ||||
| Use of sequence duplication to engineer a ligand-triggered long-distance molecular switch in T4 Lys… | monomer | 96.1 | ||||
| Protein flexibility and adaptability seen in 25 crystal forms of T4 LYSOZYME | monomer | 96.3 | 2×CL; | |||
| HOW AMINO-ACID INSERTIONS ARE ALLOWED IN AN ALPHA-HELIX OF T4 LYSOZYME | monomer | 97.53 | ||||
| The structure of T4 Lysozyme I3C/C54T/R125C/E128C complex with Zinc ions | monomer | 96.3 | 1×ZN; | |||
| PROTEIN FLEXIBILITY AND ADAPTABILITY SEEN IN 25 CRYSTAL FORMS OF T4 LYSOZYME | monomer | 93.83 | ||||
| Sequential reorganization of beta-sheet topology by insertion of a single strand | monomer | 97.42 | 2×SO4; | |||
| T4 Lysozyme L99A/M102Q with Ethylbenzene Bound | monomer | 96.27 | 1×PYJ; | |||
| T4-Lysozyme fusion to Geobacter GGDEF | monomer | 96.89 | 2×GTP; 1×GMP; 1×POP; 1×MG; 1×GOL; 1×ACT; | |||
| T4 Lysozyme L99A/M102Q with Benzene Bound | monomer | 96.27 | 1×BNZ; | |||
| T4 Lysozyme L99A/M102Q with 1-Hydro-2-ethyl-1,2-azaborine Bound | monomer | 96.27 | 1×CL; 1×6OQ; | |||
| Crystal Structure of the Cannabinoid Receptor 1 Interacting Protein 1a (CRIP1a) | monomer | 98.51 | ||||
| T4 Lysozyme L99A with 1-Hydro-2-ethyl-1,2-azaborine Bound | monomer | 96.89 | 1×6OQ; 2×CL; | |||
| T4 Lysozyme L99A/M102Q with 1,2-Dihydro-1,2-azaborine Bound | monomer | 96.27 | 1×B20; 2×CL; | |||
| Crystal Structure of mGluR5 in complex with MMPEP at 2.2 A | monomer | 97.52 | 7×OLA; 1×MES; 1×D8B; | |||
| Structure of EspG1 chaperone from the type VII (ESX-1) secretion system determined with the assista… | monomer | 96.89 | 5×CL; | |||
| High resolution crystal structure of human B2-adrenergic G protein-coupled receptor. | monomer | 97.52 | 1×GLC; 6×SO4; 1×CAU; 2×BU1; 1×ACM; 3×CLR; 1×PLM; 1×12P; | |||
| In meso in situ serial X-ray crystallography structure of the Beta2-adrenergic receptor at 100 K | monomer | 97.52 | 1×BGC; 1×CAU; 2×BU1; 1×ACM; 3×CLR; 1×PLM; 1×12P; 6×SO4; | |||
| thermostabilised 7TM domain of human mGlu5 receptor bound to photoswitchable ligand alloswitch-1 | monomer | 97.52 | 1×4YI; | |||
| Structure of the human class C GPCR metabotropic glutamate receptor 5 transmembrane domain in compl… | monomer | 97.52 | 4×OLA; 1×2U8; 1×MES; | |||
| Structure of the human class C GPCR metabotropic glutamate receptor 5 transmembrane domain in compl… | monomer | 97.52 | 4×OLA; 1×51E; | |||
| Crystal Structure of mGluR5 in complex with Fenobam at 2.65 A | monomer | 97.52 | 5×OLA; 1×MES; 1×D7W; 1×OLC; | |||
| The Crystal Structure of human neuropeptide Y Y1 receptor with UR-MK299 | monomer | 97.45 | 1×9AO; | |||
| Structure of beta2 adrenoceptor bound to carazolol and an intracellular allosteric antagonist | monomer | 97.52 | 2×EPE; 2×CLR; 1×8VS; 1×CAU; 1×BU1; 1×ACM; | |||
| Cholesterol bound form of human beta2 adrenergic receptor. | monomer | 97.52 | 1×TIM; 2×CLR; 3×OLC; | |||
| Structure of CC Chemokine Receptor 2 with Orthosteric and Allosteric Antagonists | monomer | 96.27 | 1×73R; 1×VT5; 4×SO4; 1×OLC; 1×ZN; | |||
| Crystal structure of the human beta2 adrenergic receptor in complex with the inverse agonist ICI 11… | monomer | 97.52 | 2×CLR; 1×JRZ; 1×OLA; 2×OLC; 1×PGE; | |||
| Crystal structure of the human beta2 adrenergic receptor in complex with a novel inverse agonist | monomer | 97.52 | 2×CLR; 1×JSZ; 1×OLC; | |||
| Structure of the D2 Dopamine Receptor Bound to the Atypical Antipsychotic Drug Risperidone | monomer | 97.5 | 1×8NU; 3×PEG; 3×OLA; | |||
| Structure of the human class C GPCR metabotropic glutamate receptor 5 transmembrane domain in compl… | monomer | 97.52 | 4×OLA; 1×MES; 1×51D; | |||
| Crystal structure of the human beta2 adrenergic receptor in complex with the neutral antagonist alp… | monomer | 97.52 | 2×CLR; 1×JTZ; | |||
| beta2AR-T4L - CIM | monomer | 97.52 | 1×BGC; 6×SO4; 1×CAU; 2×BU1; 1×ACM; 3×CLR; 1×PLM; 1×12P; | |||
| Crystal structure of the N-terminal domain of Atg2 | monomer | 96.89 | ||||
| Structure of the M3 Muscarinic Acetylcholine Receptor | monomer | 97.52 | 1×0HK; 4×PO4; | |||
| Irreversible Agonist-Beta2 Adrenoceptor Complex | monomer | 97.52 | 1×ERC; 1×CLR; 6×SO4; | |||
| Structure of the M3 muscarinic acetylcholine receptor bound to the antagonist tiotropium crystalliz… | monomer | 96.27 | 1×0HK; | |||
| In meso X-ray crystallography structure of the Beta2-adrenergic receptor at 100 K | monomer | 97.52 | 1×BGC; 1×CAU; 1×BU1; 1×ACM; 3×CLR; 1×PLM; 6×SO4; | |||
| Structure of M1-StaR-T4L in complex with 77-LH-28-1 at 2.17A | monomer | 97.5 | 1×QJT; 8×OLA; 1×PO4; 1×OLC; 1×EPE; 2×PGE; | |||
| GPR40 in complex with partial agonist MK-8666 | monomer | 97.5 | 1×NA; 1×MK6; 1×MLI; 8×OLC; 2×1PE; | |||
| Crystal structure of human protease-activated receptor 1 (PAR1) bound with antagonist vorapaxar at … | monomer | 96.88 | 1×VPX; 9×OLC; 1×CL; 1×NA; | |||
| Crystal structure of PH domain of Osh3 from Saccharomyces cerevisiae | monomer | 96.88 | 5×SO4; | |||
| Structure of M1-StaR-T4L in complex with HTL0009936 at 2.35A | monomer | 97.5 | 1×QK8; 11×OLA; 1×PGE; 3×PO4; | |||
| Crystal structure of Human GPR40 bound to allosteric agonist TAK-875 | monomer | 97.5 | 1×2YB; 5×OLC; 1×1PE; 1×DMS; | |||
| Crystal structure of the PH-like domain of Lam6 | monomer | 96.81 | 1×2PE; | |||
| Complex structure of CSN2 with IP6 | monomer | 97.5 | 1×IHP; 1×SO4; | |||
| Crystal structure of EP3 receptor bound to misoprostol-FA | monomer | 96.88 | 1×J9P; 4×SO4; 1×OLC; 4×OLA; | |||
| Crystal structure of the cholecystokinin receptor CCKAR in complex with devazepide | monomer | 97.5 | 1×1OZ; | |||
| Structure of M1-StaR-T4L in complex with GSK1034702 at 2.5A | monomer | 97.5 | 1×QK2; 1×EPE; 6×OLA; 1×PO4; | |||
| The 2.6 A Crystal Structure of a Human A2A Adenosine Receptor bound to ZM241385. | monomer | 97.5 | 1×ZMA; 5×STE; 7×SO4; | |||
| Agonist bound human A2a adenosine receptor with D52N mutation at 2.60 A resolution | monomer | 97.5 | 1×UKA; 2×OLC; | |||
| Crystal structure of the PE-bound N-terminal domain of Atg2 | monomer | 96.88 | 1×PEE; | |||
| Structure of the human M1 muscarinic acetylcholine receptor bound to antagonist Tiotropium | monomer | 100 | 1×0HK; 1×Y01; 3×EDO; 1×PGE; 1×GOL; | |||
| Structure of the human GLP-1 receptor complex with PF-06372222 | monomer | 97.5 | 1×97Y; 2×OLC; 1×OLA; | |||
| Agonist bound structure of the human adenosine A2a receptor | monomer | 97.5 | 1×UKA; 2×OLC; | |||
| The extra-helical binding site of GPR40 and the structural basis for allosteric agonism and increti… | monomer | 97.5 | 1×6XQ; | |||
| Crystal structure of the cholecystokinin receptor CCKAR in complex with lintitript | monomer | 97.5 | 1×1OE; | |||
| Structure of thermal-stabilised(M9) human GLP-1 receptor transmembrane domain | monomer | 97.5 | 1×97Y; 1×OLC; | |||
| Crystal Structure of a Lipid G protein-Coupled Receptor at 2.80A | monomer | 97.5 | 1×ML5; 1×NAG; | |||
| Structure of thermal-stabilised(M8) human GLP-1 receptor transmembrane domain | monomer | 97.5 | 1×97Y; | |||
| Crystal structure of a thermostabilised human protease-activated receptor-2 (PAR2) in complex with … | monomer | 97.5 | 1×8TZ; 1×NA; 1×PO4; | |||
| Structure of the human dopamine D3 receptor in complex with eticlopride | monomer | 97.5 | 1×GLC; 1×ETQ; | |||
| Agonist bound human A2a adenosine receptor with S91A mutation at 2.90 A resolution | monomer | 97.5 | 1×UKA; 1×OLC; | |||
| Crystal structure of human corticotropin-releasing factor receptor 1 (CRF1R) in complex with the an… | monomer | 95.62 | 1×1Q5; 1×OLA; 2×OLC; 1×SO4; | |||
| Structure of the human M2 muscarinic acetylcholine receptor bound to an antagonist | monomer | 97.5 | 1×QNB; 1×BGC; 2×CL; | |||
| Structure of the human GLP-1 receptor complex with NNC0640 | monomer | 97.5 | 1×97V; | |||
| Crystal structure of the cholecystokinin receptor CCKAR in complex with NN9056 | monomer | 97.5 | ||||
| Crystal structure of rhodopsin bound to visual arrestin determined by X-ray free electron laser | monomer | 97.5 | 1×NAG; | |||
| Structure of the human histamine H1 receptor in complex with doxepin | monomer | 97.78 | 1×5EH; 1×D7V; 3×PO4; 1×OLC; | |||
| Structure of thermal-stabilised(M6) human GLP-1 receptor transmembrane domain | monomer | 97.5 | 1×97Y; | |||
| Structure of human beta2 adrenergic receptor bound to constrained epinephrine | monomer | 97.5 | 1×G1I; 1×NA; | |||
| Crystal structure of zebrafish lysophosphatidic acid receptor LPA6 | monomer | 96.25 | 3×OLC; | |||
| Crystal structure of an agonist bound GPCR | monomer | 97.5 | 1×E3R; | |||
| GPR40 in complex with AgoPAM AP8 and partial agonist MK-8666 | monomer | 97.16 | 1×OLC; 1×MK6; 1×7OS; | |||
| Crystal structure of rhodopsin bound to arrestin by femtosecond X-ray laser | monomer | 97.5 | ||||
| Crystal Structure of a Lipid G protein-Coupled Receptor at 3.35A | monomer | 97.5 | 1×ML5; 1×NAG; | |||
| Structure of the delta opioid receptor bound to naltrindole | monomer | 96.88 | 1×EJ4; | |||
| Structure of human beta2 adrenergic receptor bound to constrained isoproterenol | monomer | 97.5 | 1×GJ6; 1×NA; | |||
| Crystal structure of a thermostabilised human protease-activated receptor-2 (PAR2) in complex with … | monomer | 97.33 | 1×8UN; 1×NA; | |||
| Crystal Structure of human mARC1 | monomer | 98.74 | 1×MTE; 1×EFK; 1×B3P; 4×MOO; 1×PO4; | |||
| Crystal structure of the human glucagon receptor (GCGR) in complex with the antagonist MK-0893 | monomer | 97.44 | 1×5MV; 14×OLA; 1×PE5; 1×TLA; | |||
| The Crystal Structure of Human Neuropeptide Y Y1 Receptor with BMS-193885 | monomer | 97.48 | 1×9AF; | |||
| Crystal structure of the dynein motor domain in the AMPPNP-bound state | monomer | 97.47 | 4×ANP; 1×MG; | |||
| Circular permutation of Helix A in T4 lysozyme | monomer | 98.01 | ||||
| Truncated and mutated T4 lysozyme | monomer | 91.26 | 3×NI; | |||
| Human endothelin receptor type-B in complex with antagonist K-8794 | monomer | 98.02 | 1×K87; 11×OLC; 1×CLR; 5×SO4; | |||
| Human endothelin receptor type-B in the ligand-free form | monomer | 98.02 | 5×SO4; 2×OLC; 1×OLA; | |||
| Structure of the M4 muscarinic acetylcholine receptor (M4-mT4L) bound to tiotropium | monomer | 98.0 | 1×0HK; 3×OLA; 1×EDT; 1×P6G; 3×OLC; | |||
| Human endothelin receptor type-B in complex with inverse agonist IRL2500 | monomer | 97.98 | 1×D2U; 4×PO4; 8×OLC; | |||
| Crystal structure of the human NK1 substance P receptor | monomer | 98.02 | 1×GBQ; | |||
| Crystal structure of the prostaglandin D2 receptor CRTH2 with CAY10471 | monomer | 98.02 | 7×SO4; 1×FT4; 1×MES; 2×OLA; 2×PGE; 4×PGO; 1×PEG; | |||
| Crystal structure of the prostaglandin D2 receptor CRTH2 with fevipiprant | monomer | 98.02 | 1×FSY; 9×SO4; 5×SIN; 1×PGE; 1×OLA; 1×PGO; | |||
| Crystal structure of the human NK1 substance P receptor | monomer | 98.02 | 1×GBQ; 1×OLC; | |||
| Human endothelin receptor type-B in complex with antagonist bosentan | monomer | 97.89 | 1×K86; 4×SO4; | |||
| M3 muscarinic acetylcholine receptor in complex with a selective antagonist | monomer | 98.0 | 1×GLC; 1×PG4; 1×9EC; | |||
| Computational design of highly signaling active membrane receptors through de novo solvent-mediated… | monomer | 97.94 | 1×NGI; | |||
1 SWISS-MODEL model
| Template | Oligo-state | QMEAN | Range | Ligands | Trg-Tpl Seq id (%) | |
|---|---|---|---|---|---|---|
| 1l17.1.A | monomer | 0.92 | 98.17 | |||