GlycoNAVI Proteins

GlycoNAVI-Proteins is dataset of glycan and protein information. This is the content of GlycoNAVI.

Source Last Updated
GlycoNAVI Proteins November 21, 2024
Displaying entries 8051 - 8100 of 39437 in total
PDB ID UniProt ID ▼ Title Descriptor
3B3Q Q4KMN5 Crystal structure of a synaptic adhesion complex
6VLK Q4JR05 A varicella-zoster virus glycoprotein
4A05 Q4JQF8 Structure of the catalytic core domain of the cellobiohydrolase, Cel6A, from Chaetomium thermophilum
8RZL Q4JBK8 Sulfolobus acidocaldarius threads (0406) filament.
7ZCX Q4J6E5 S-layer protein SlaA from Sulfolobus acidocaldarius at pH 4.0
8AN2 Q4J6E5 S-layer protein SlaA from Sulfolobus acidocaldarius at pH 10.0
8AN3 Q4J6E5 S-layer protein SlaA from Sulfolobus acidocaldarius at pH 7.0
8JFZ Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E1.Mg2+ state.
7WYU Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E2P state formed by ATP
7WYV Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E2P state formed by ATP in the presence of 40 mM Mg2+
7WYW Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E2P state formed by inorganic phosphate
7WYX Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E2P state formed by ATP with istaroxime
7WYY Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E2P state formed by inorganic phosphate with istaroxime
7WYZ Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E2P state formed by ATP with ouabain
7WZ0 Q4H132 Cryo-EM structure of Na+,K+-ATPase in the E2P state formed by inorganic phosphate with ouabain
2ZXE Q4H132 Crystal structure of the sodium - potassium pump in the E2.2K+.Pi state
3A3Y Q4H132 Crystal structure of the sodium-potassium pump with bound potassium and ouabain Na, K-ATPase alpha subunit, NA+,K+-ATPASE BETA SUBUNIT, Phospholemman-like protein
5AVQ Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 0.75 min.
5AVR Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 1.5 min
5AVS Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 3.5 min
5AVT Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 5 min
5AVU Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 7.0 min
5AVV Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 8.5 min
5AVW Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 16.5 min
5AVX Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 20 min
5AVY Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 20 min
5AVZ Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 55 min
5AW0 Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 55 min
5AW1 Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 85 min
5AW2 Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 85 min
5AW3 Q4H132 Kinetics by X-ray crystallography: Tl+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 100 min
5AW4 Q4H132 Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 1.5 min
5AW5 Q4H132 Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 2.2 min
5AW6 Q4H132 Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 5.5 min
5AW7 Q4H132 Kinetics by X-ray crystallography: Rb+-substitution of bound K+ in the E2.MgF42-.2K+ crystal after 11.3 min
5AW8 Q4H132 Kinetics by X-ray crystallography: E2.MgF42-.2RB+ crystal
5AW9 Q4H132 Kinetics by X-ray crystallography: native E2.MgF42-.2K+ crystal for Rb+ bound crystals
7Y45 Q4H132 Cryo-EM structure of the Na+,K+-ATPase in the E2.2K+ state
7Y46 Q4H132 Cryo-EM structure of the Na+,K+-ATPase in the E2.2K+ state after addition of ATP
3A79 Q4G1L3 Crystal structure of TLR2-TLR6-Pam2CSK4 complex
4UIP Q4G1L3 The complex structure of extracellular domain of EGFR with Repebody (rAC1).
4UIP Q4G1L3 The complex structure of extracellular domain of EGFR with Repebody (rAC1).
6BXA Q4G1L2 Crystal structure of N-terminal fragment of Zebrafish Toll-Like Receptor 5 (TLR5) with Lamprey Variable Lymphocyte Receptor 2 (VLR2) bound
7MLM Q4G1L2 Crystal structure of mouse TLR4/MD-2 in complex with sulfatides
6BXC Q4G1L2 Crystal structure of N-terminal fragment of Zebrafish Toll-Like Receptor 5 (TLR5) with Lamprey Variable Lymphocyte Receptor 9 (VLR9) bound
2Z62 Q4G1L2 Crystal structure of the TV3 hybrid of human TLR4 and hagfish VLRB.61
2Z63 Q4G1L2 Crystal structure of the TV8 hybrid of human TLR4 and hagfish VLRB.61
2Z65 Q4G1L2 Crystal structure of the human TLR4 TV3 hybrid-MD-2-Eritoran complex
2Z66 Q4G1L2 Crystal structure of the VT3 hybrid of human TLR4 and hagfish VLRB.61
2Z7X Q4G1L2 Crystal structure of the TLR1-TLR2 heterodimer induced by binding of a tri-acylated lipopeptide

About Release Notes Help Feedback

International Collaboration

GlyCosmos is a member of the GlySpace Alliance together with GlyGen and Glycomics@ExPASy.

Acknowledgements

Supported by JST NBDC Grant Number JPMJND2204

Partly supported by NIH Common Fund Grant #1U01GM125267-01


Logo License Policies Site Map

Contact: support@glycosmos.org

This work is licensed under Creative Commons Attribution 4.0 International


GlyCosmos Portal v4.0.0

Last updated: August 19, 2024