Associated Papers
Rhodopsin molecular evolution from mouse to human phenylalanine 88 to leucine substitution enhances thermal stability and post-activation decay.
Wang F et al.
Scientific Reports, 2026
Insights into rhodopsin molecular evolution from mice with "humanized" Phe-88 to Leu substitution.
Wang F et al.
Research Square, 2025
Hydrophobic amino acids at the cytoplasmic ends of helices 3 and 6 of rhodopsin conjointly modulate transducin activation.
Bosch-Presegué L et al.
Archives of Biochemistry and Biophysics, 2011
Molecular dynamics simulations of rhodopsin point mutants at the cytoplasmic side of helices 3 and 6.
Cordomí A et al.
Journal of Biomolecular Structure & Dynamics, 2008
Critical role of electrostatic interactions of amino acids at the cytoplasmic region of helices 3 and 6 in rhodopsin conformational properties and activation.
Ramon E et al.
The Journal of Biological Chemistry, 2007
Asn229 in the third helix of VPAC1 receptor is essential for receptor activation but not for receptor phosphorylation and internalization: comparison with Asn216 in VPAC2 receptor.
Nachtergael I et al.
Cellular Signalling, 2006
Rhodopsin mutants discriminate sites important for the activation of rhodopsin kinase and Gt.
Shi W et al.
The Journal of Biological Chemistry, 1995
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