Structural insights into the regulation of RyR1 by S100A1
One key target of the S100A1 interactome is the ryanodine receptor (RyR), a huge homotetrameric Ca 2+ release channel (~2.3 MDa) of the sarcoplasmic reticulum. Here, we report
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Ryr1 MGI Mouse Gene Detail
Click on a disease name to see all genes associated with that disease. Blue squares indicate phenotypes directly attributed to mutations/alleles of this gene. Click cells to view annotations.
Characterization of defective RyR1 channel function Case 1. a...
RYR1 encodes the type 1 ryanodine receptor, an intracellular calcium release channel (RyR1) on the skeletal muscle sarcoplasmic reticulum (SR). Pathogenic RYR1 variations can destabilize...
Insights into channel modulation mechanism of RYR1 mutants using Ca
Here, we combined functional studies and molecular dynamics (MD) simulations of RYR1 bearing disease-associated mutations at the N-terminal region. When expressed in HEK293 cells, the mutant
Structure of RyR1 in native membranes
Here, we report the structure of RyR1 from native SR membranes in closed and open states.
Ryanodine Receptor
In humans the gene for RYR1 is located on chromosome 19q13.2 and spans 104 exons. The RYR2 gene is located on chromosome 1q43 and spans 102 exons, and the RYR3 gene is located on
Structure-based mechanism of RyR channel operation by calcium and
We addressed the structure of skeletal (RyR1) and cardiac (RyR2) isoforms relevant to gating by Ca 2+ and Mg 2+ ions (M 2+). Bioinformatics analysis of RyR structures ascertained the
Insights into channel modulation mechanism of RYR1 mutants using Ca
Our results reveal the importance of interdomain interactions within the NTD in the regulation of the RYR1 channel and provide insights into the mechanism of MH caused by the
Structural insights into transmembrane helix S0 facilitated RyR1
Our results demonstrate that S0 is an essential component of RyR1 and plays a key role in the physiological regulation of RyR1 channel gating.
Structure-based mechanism of RyR channel operation
We addressed the structure of skeletal (RyR1) and cardiac (RyR2) isoforms relevant to gating by Ca 2+ and Mg 2+ ions (M 2+). Bioinformatics
Structural insights into transmembrane helix S0
Our results demonstrate that S0 is an essential component of RyR1 and plays a key role in the physiological regulation of RyR1 channel gating.