Find PDB structures and Computed Structure Models (CSM) by combining queries from tools in this suite: Attribute Search, Sequence Similarity, Sequence Motif, 3D Similarity, and 3D Motif with 'AND' logic.
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-com ...
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-component signal transduction system. Iron binds to surface-exposed lysine residues of an octomeric assembly of the protein [2]. The structure of GlcG is composed of an alpha-beta(2)-alpha(3)-beta(2)-alpha fold.
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-com ...
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-component signal transduction system. Iron binds to surface-exposed lysine residues of an octomeric assembly of the protein [2]. The structure of GlcG is composed of an alpha-beta(2)-alpha(3)-beta(2)-alpha fold.
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-com ...
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-component signal transduction system. Iron binds to surface-exposed lysine residues of an octomeric assembly of the protein [2]. The structure of GlcG is composed of an alpha-beta(2)-alpha(3)-beta(2)-alpha fold.
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-com ...
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-component signal transduction system. Iron binds to surface-exposed lysine residues of an octomeric assembly of the protein [2]. The structure of GlcG is composed of an alpha-beta(2)-alpha(3)-beta(2)-alpha fold.
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-com ...
This entry includes haem degrading protein HbpS from Streptomyces reticuli (swiss:Q9RIM2) and and GlcG from Escherichia coli [1]. HbpS is up-regulated in response to haemin- and peroxide-based oxidative stress. It interacts with the SenS/SenR two-component signal transduction system. Iron binds to surface-exposed lysine residues of an octomeric assembly of the protein [2]. The structure of GlcG is composed of an alpha-beta(2)-alpha(3)-beta(2)-alpha fold.