(a) Overview of CYP1B1 wild type protein in ribbon-presentation (b-l) In-silico protein prediction regarding variant protein structures for all detected variants by HOPE software. (b-l) i: for each variant show the position of amino acid in protein structure. (b-l) ii: for each detected variant show the zoomed in change in protein structure due to each respective variant (Wild type amino acid residue is colored as green while mutant is colored as red).</p
The tools of computer science can be a tremendous help to the working biologist. Two broad areas whe...
(A) View of the wild type (top picture) and mutated (bottom picture) DNAI1 protein. Wild type DNAI1 ...
<p>(A) Section I: basic information with function predictions from different resources and links to ...
<p>(A) Protein structures predicted by SWISS-MODEL were visualized by PyMOL. The wild type is repres...
<p>The amino acid number was designated according to the previous nomenclature described in the Huma...
<p>3D structure was predicted at Protein Homology/analogY Recognition Engine (PhyreEngine) from the ...
<p><b>a)</b> Changes in the geometry of the protein tertiary structures. Wild type, red; CYP2A6*15, ...
(A) The protein coding sequence of zebrafish Psen2 is altered by the mutations. (B) The predicted pr...
<p>(A) The PolyPhen-2 program was used to predict the possible impact of the amino acid substitution...
<p>a) Peripheral position of the amino acid 277 (domain A); b) Wild type variant 277Glu; c) Mutant v...
The specific sequence of amino acids in a polypeptide chain dictates the three-dimensional structure...
Each experimental structure or produced model is displayed at the top with a score to rank the more ...
<p>(A) 3D model of wild type <i>TAGAP</i> protein. (B) Superimposed structures of wild type <i>TAGAP...
<p>(A). The cartoon structure: the two symmetric substructures are shown in red and green; the exten...
<p><b>A:</b> Schematic depiction and <b>B:</b> predicted 3D structural models of wild-type ApoC1 (H1...
The tools of computer science can be a tremendous help to the working biologist. Two broad areas whe...
(A) View of the wild type (top picture) and mutated (bottom picture) DNAI1 protein. Wild type DNAI1 ...
<p>(A) Section I: basic information with function predictions from different resources and links to ...
<p>(A) Protein structures predicted by SWISS-MODEL were visualized by PyMOL. The wild type is repres...
<p>The amino acid number was designated according to the previous nomenclature described in the Huma...
<p>3D structure was predicted at Protein Homology/analogY Recognition Engine (PhyreEngine) from the ...
<p><b>a)</b> Changes in the geometry of the protein tertiary structures. Wild type, red; CYP2A6*15, ...
(A) The protein coding sequence of zebrafish Psen2 is altered by the mutations. (B) The predicted pr...
<p>(A) The PolyPhen-2 program was used to predict the possible impact of the amino acid substitution...
<p>a) Peripheral position of the amino acid 277 (domain A); b) Wild type variant 277Glu; c) Mutant v...
The specific sequence of amino acids in a polypeptide chain dictates the three-dimensional structure...
Each experimental structure or produced model is displayed at the top with a score to rank the more ...
<p>(A) 3D model of wild type <i>TAGAP</i> protein. (B) Superimposed structures of wild type <i>TAGAP...
<p>(A). The cartoon structure: the two symmetric substructures are shown in red and green; the exten...
<p><b>A:</b> Schematic depiction and <b>B:</b> predicted 3D structural models of wild-type ApoC1 (H1...
The tools of computer science can be a tremendous help to the working biologist. Two broad areas whe...
(A) View of the wild type (top picture) and mutated (bottom picture) DNAI1 protein. Wild type DNAI1 ...
<p>(A) Section I: basic information with function predictions from different resources and links to ...