Csanady L. CFTR gating: Invisible transitions made visible. (2017) JOURNAL OF GENERAL PHYSIOLOGY 0022-1295 1540-7748 149 4 413-416, 3211072
Notices/Popularizing article (Journal Article) | Scientific[3211072]
  1. Strickland Kerry M. et al. ATP-Dependent Signaling in Simulations of a Revised Model of Cystic Fibrosis Transmembrane Conductance Regulator (CFTR). (2019) JOURNAL OF PHYSICAL CHEMISTRY B 1520-6106 1520-5207 1089-5647 123 15 3177-3188
    Article (Journal Article) | Scientific[30766437] [Validated]
    Független, Idéző: 30766437, Kapcsolat: 28261103
  2. Moffett A.S. et al. Permissive and nonpermissive channel closings in CFTR revealed by a factor graph inference algorithm. (2022) Biophysical Reports 2667-0747 2 4
    Article (Journal Article) | Scientific[33288706] [Admin approved]
    Független, Idéző: 33288706, Kapcsolat: 31950988
Csanády L. Sensory neurons: A new target for G protein signaling. (2017) ELIFE 2050-084X 2050-084X 6, 3287390
Notices/Popularizing article (Journal Article) | Scientific[3287390]
  1. Yudin Yevgen et al. Inhibitory G(i/O)-coupled receptors in somatosensory neurons: Potential therapeutic targets for novel analgesics. (2018) MOLECULAR PAIN 1744-8069 1744-8069 14
    Survey paper (Journal Article) | Scientific[27605289] [Validated]
    Független, Idéző: 27605289, Kapcsolat: 27605289
  2. Ciotu Cosmin I. et al. Novel Analgesics with Peripheral Targets. (2020) NEUROTHERAPEUTICS 1933-7213 1878-7479 17 3 784-825
    Survey paper (Journal Article) | Scientific[31689778] [Validated]
    Független, Idéző: 31689778, Kapcsolat: 29601599
  3. Held Katharina et al. TRPM3 in Brain (Patho)Physiology. (2021) FRONTIERS IN CELL AND DEVELOPMENTAL BIOLOGY 2296-634X 2296-634X 9
    Survey paper (Journal Article) | Scientific[31909787] [Validated]
    Független, Idéző: 31909787, Kapcsolat: 29938574
  4. Kumar V.K.. Handbook on Opium: History and Basis of Opioids in Therapeutics. (2022) ISBN:9780323909044; 9780323909037
    Monograph (Book) | Scientific[32847400] [Admin approved]
    Független, Idéző: 32847400, Kapcsolat: 31421015
  5. Zhao C. et al. Structural and functional analyses of a GPCR-inhibited ion channel TRPM3. (2023) NEURON 0896-6273 1097-4199 111 1 81-91.e7
    Article (Journal Article) | Scientific[33655933] [Validated]
    Független, Idéző: 33655933, Kapcsolat: 32566095
Csanády L. Permeating proton found guilty in compromising TRPM2 channel activity. (2010) JOURNAL OF PHYSIOLOGY-LONDON 0022-3751 1469-7793 588 10 1661-1662, 1493079
Comment, Correction (Journal Article) | Scientific[1493079]
  1. Sumoza-Toledo A et al. TRPM2: a multifunctional ion channel for calcium signalling. (2011) JOURNAL OF PHYSIOLOGY-LONDON 0022-3751 1469-7793 589 7 1515-1525
    Survey paper (Journal Article) | Scientific[21959182] [Validated]
    Független, Idéző: 21959182, Kapcsolat: 21959182
  2. Zou J et al. A residue in the TRPM2 channel outer pore is crucial in determining species-dependent sensitivity to extracellular acidic pH. (2011) PFLUGERS ARCHIV-EUROPEAN JOURNAL OF PHYSIOLOGY 0031-6768 1432-2013 462 2 293-302
    Article (Journal Article) | Scientific[21959183] [Validated]
    Független, Idéző: 21959183, Kapcsolat: 21959183
  3. Faouzi M et al. TRPM2. (2014) In: Mammalian Transient Receptor Potential (TRP) Cation Channels pp. 403-426
    Chapter (Chapter in Book) | Scientific[25066331] [Validated]
    Független, Idéző: 25066331, Kapcsolat: 24264388
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