hyperchem software Search Results


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Molecular Dynamics Inc hyperchem software
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Hypercube Inc the pm3 semiempirical method of the hyperchem software
Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the <t>HyperChem</t> software (Hypercube, Inc.) (63) and are depicted in space-filling representation. Atoms are color-coded: carbon, green; oxygen, red; nitrogen, blue; hydrogen, grey; bromine, brown; fluorine, black. (B) Structural model of the TM domain of CCR5 viewed from within the plane of the membrane. The extracellular surface is oriented toward the top of the figure; the cytoplasmic surface is oriented toward the bottom. The seven α-helical TM segments are depicted as blue ribbons. Amino acid side chains of residues involved in the interaction of CCR5 with AD101 and/or SCH-C are shown in space-filling representation. Red, residue I198; orange, F113; yellow, L33, Y37, D76, F79, W86, V83, A90, Y108, E283, and G286. (C) View of the CCR5 model from the extracellular side of the membrane after rotation of the model by approximately 90° out of the paper plane from the orientation shown in panel B. Labeling and color-coding are the same as for panel B. The CCR5 model is based on homology with rhodopsin by using the crystal structure of bovine rhodopsin as a template (63). Models in all panels are shown at the same scale.
The Pm3 Semiempirical Method Of The Hyperchem Software, supplied by Hypercube Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Hypercube Inc hyperchem software release 8.0 hyper-chem for windows
Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the <t>HyperChem</t> software (Hypercube, Inc.) (63) and are depicted in space-filling representation. Atoms are color-coded: carbon, green; oxygen, red; nitrogen, blue; hydrogen, grey; bromine, brown; fluorine, black. (B) Structural model of the TM domain of CCR5 viewed from within the plane of the membrane. The extracellular surface is oriented toward the top of the figure; the cytoplasmic surface is oriented toward the bottom. The seven α-helical TM segments are depicted as blue ribbons. Amino acid side chains of residues involved in the interaction of CCR5 with AD101 and/or SCH-C are shown in space-filling representation. Red, residue I198; orange, F113; yellow, L33, Y37, D76, F79, W86, V83, A90, Y108, E283, and G286. (C) View of the CCR5 model from the extracellular side of the membrane after rotation of the model by approximately 90° out of the paper plane from the orientation shown in panel B. Labeling and color-coding are the same as for panel B. The CCR5 model is based on homology with rhodopsin by using the crystal structure of bovine rhodopsin as a template (63). Models in all panels are shown at the same scale.
Hyperchem Software Release 8.0 Hyper Chem For Windows, supplied by Hypercube Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Hypercube Inc hyperchem software hyperchem for windows release 7.02
Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the <t>HyperChem</t> software (Hypercube, Inc.) (63) and are depicted in space-filling representation. Atoms are color-coded: carbon, green; oxygen, red; nitrogen, blue; hydrogen, grey; bromine, brown; fluorine, black. (B) Structural model of the TM domain of CCR5 viewed from within the plane of the membrane. The extracellular surface is oriented toward the top of the figure; the cytoplasmic surface is oriented toward the bottom. The seven α-helical TM segments are depicted as blue ribbons. Amino acid side chains of residues involved in the interaction of CCR5 with AD101 and/or SCH-C are shown in space-filling representation. Red, residue I198; orange, F113; yellow, L33, Y37, D76, F79, W86, V83, A90, Y108, E283, and G286. (C) View of the CCR5 model from the extracellular side of the membrane after rotation of the model by approximately 90° out of the paper plane from the orientation shown in panel B. Labeling and color-coding are the same as for panel B. The CCR5 model is based on homology with rhodopsin by using the crystal structure of bovine rhodopsin as a template (63). Models in all panels are shown at the same scale.
Hyperchem Software Hyperchem For Windows Release 7.02, supplied by Hypercube Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Hypercube Inc hyperchem software version 8hyperchem
Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the <t>HyperChem</t> software (Hypercube, Inc.) (63) and are depicted in space-filling representation. Atoms are color-coded: carbon, green; oxygen, red; nitrogen, blue; hydrogen, grey; bromine, brown; fluorine, black. (B) Structural model of the TM domain of CCR5 viewed from within the plane of the membrane. The extracellular surface is oriented toward the top of the figure; the cytoplasmic surface is oriented toward the bottom. The seven α-helical TM segments are depicted as blue ribbons. Amino acid side chains of residues involved in the interaction of CCR5 with AD101 and/or SCH-C are shown in space-filling representation. Red, residue I198; orange, F113; yellow, L33, Y37, D76, F79, W86, V83, A90, Y108, E283, and G286. (C) View of the CCR5 model from the extracellular side of the membrane after rotation of the model by approximately 90° out of the paper plane from the orientation shown in panel B. Labeling and color-coding are the same as for panel B. The CCR5 model is based on homology with rhodopsin by using the crystal structure of bovine rhodopsin as a template (63). Models in all panels are shown at the same scale.
Hyperchem Software Version 8hyperchem, supplied by Hypercube Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Hypercube Inc visualization software hyperchem 7.02
Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the <t>HyperChem</t> software (Hypercube, Inc.) (63) and are depicted in space-filling representation. Atoms are color-coded: carbon, green; oxygen, red; nitrogen, blue; hydrogen, grey; bromine, brown; fluorine, black. (B) Structural model of the TM domain of CCR5 viewed from within the plane of the membrane. The extracellular surface is oriented toward the top of the figure; the cytoplasmic surface is oriented toward the bottom. The seven α-helical TM segments are depicted as blue ribbons. Amino acid side chains of residues involved in the interaction of CCR5 with AD101 and/or SCH-C are shown in space-filling representation. Red, residue I198; orange, F113; yellow, L33, Y37, D76, F79, W86, V83, A90, Y108, E283, and G286. (C) View of the CCR5 model from the extracellular side of the membrane after rotation of the model by approximately 90° out of the paper plane from the orientation shown in panel B. Labeling and color-coding are the same as for panel B. The CCR5 model is based on homology with rhodopsin by using the crystal structure of bovine rhodopsin as a template (63). Models in all panels are shown at the same scale.
Visualization Software Hyperchem 7.02, supplied by Hypercube Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Image Search Results


Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the HyperChem software (Hypercube, Inc.) (63) and are depicted in space-filling representation. Atoms are color-coded: carbon, green; oxygen, red; nitrogen, blue; hydrogen, grey; bromine, brown; fluorine, black. (B) Structural model of the TM domain of CCR5 viewed from within the plane of the membrane. The extracellular surface is oriented toward the top of the figure; the cytoplasmic surface is oriented toward the bottom. The seven α-helical TM segments are depicted as blue ribbons. Amino acid side chains of residues involved in the interaction of CCR5 with AD101 and/or SCH-C are shown in space-filling representation. Red, residue I198; orange, F113; yellow, L33, Y37, D76, F79, W86, V83, A90, Y108, E283, and G286. (C) View of the CCR5 model from the extracellular side of the membrane after rotation of the model by approximately 90° out of the paper plane from the orientation shown in panel B. Labeling and color-coding are the same as for panel B. The CCR5 model is based on homology with rhodopsin by using the crystal structure of bovine rhodopsin as a template (63). Models in all panels are shown at the same scale.

Journal:

Article Title: The Differential Sensitivity of Human and Rhesus Macaque CCR5 to Small-Molecule Inhibitors of Human Immunodeficiency Virus Type 1 Entry Is Explained by a Single Amino Acid Difference and Suggests a Mechanism of Action for These Inhibitors

doi: 10.1128/JVI.78.8.4134-4144.2004

Figure Lengend Snippet: Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the HyperChem software (Hypercube, Inc.) (63) and are depicted in space-filling representation. Atoms are color-coded: carbon, green; oxygen, red; nitrogen, blue; hydrogen, grey; bromine, brown; fluorine, black. (B) Structural model of the TM domain of CCR5 viewed from within the plane of the membrane. The extracellular surface is oriented toward the top of the figure; the cytoplasmic surface is oriented toward the bottom. The seven α-helical TM segments are depicted as blue ribbons. Amino acid side chains of residues involved in the interaction of CCR5 with AD101 and/or SCH-C are shown in space-filling representation. Red, residue I198; orange, F113; yellow, L33, Y37, D76, F79, W86, V83, A90, Y108, E283, and G286. (C) View of the CCR5 model from the extracellular side of the membrane after rotation of the model by approximately 90° out of the paper plane from the orientation shown in panel B. Labeling and color-coding are the same as for panel B. The CCR5 model is based on homology with rhodopsin by using the crystal structure of bovine rhodopsin as a template (63). Models in all panels are shown at the same scale.

Article Snippet: Hence, we believe that I198 is not likely to be directly involved in the binding of AD101 or SCH-C and that a Met substitution at this position has an indirect effect (see below). fig ft0 fig mode=article f1 fig/graphic|fig/alternatives/graphic mode="anchored" m1 Open in a separate window FIG. 4. caption a7 Structural model of the TM domain of CCR5 with energy-minimized structures of AD101 and SCH-C. (A) Energy-minimized structures of AD101 and SCH-C were calculated by using the PM3 semiempirical method of the HyperChem software (Hypercube, Inc.) ( 63 ) and are depicted in space-filling representation.

Techniques: Software, Labeling