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Main-chain mutagenesis reveals intrahelical coupling in an ion channel voltage-sensor
Daniel T. Infield
, Kimberly Matulef
, Jason D. Galpin
, Kin Lam
,
Emad Tajkhorshid
, Christopher A. Ahern
, Francis I. Valiyaveetil
Biochemistry
Beckman Institute for Advanced Science and Technology
Bioengineering
Biomedical and Translational Sciences
Chemistry
Neuroscience Program
Research output
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peer-review
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Dive into the research topics of 'Main-chain mutagenesis reveals intrahelical coupling in an ion channel voltage-sensor'. Together they form a unique fingerprint.
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Keyphrases
Ion Channels
100%
Mutagenesis
100%
Main Chain
100%
Voltage Sensor
100%
Hydrogen Bonds (H-bonds)
66%
Amides
66%
Esters
66%
Voltage Sensing
66%
Transmembrane Segment
66%
Membrane Protein
33%
Transmembrane
33%
Helical Structures
33%
Signal Transduction Pathway
33%
Voltage Gating
33%
Secondary Structure
33%
Channel Gating
33%
Hydrogen Bonding Pattern
33%
Voltage-driven
33%
Shaker Potassium Channel
33%
Region Feature
33%
Decoder
33%
Dynamic Hydrogen Bond
33%
Transitional Region
33%
Sensory Transduction
33%
Functional Measurement
33%
Neuroscience
Ion Channel
100%
Carboxamide
100%
Mutagenesis
100%
Protein Secondary Structure
50%
Channel Gating
50%
Shaker Potassium Channel
50%
Signal Transduction
50%
Biochemistry, Genetics and Molecular Biology
Mutagenesis
100%
Electric Potential
100%
Ion Channel
100%
Signal Transduction
20%
Hydrogen Bond
20%
Potassium Channel
20%
Protein Secondary Structure
20%
Channel Gating
20%