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1.
Hotary Kevin B. The neural tube of the Xenopus embryo maintains a potential difference across itself // Dev. Brain Res., 1991. Vol. 59, N 1.-С.65-73

2.
Jungwirth A. Kallikrein Does Not Modify the Transepithelial Potential of Rat Renal Distal Convoluted Tubules // Nephron, 1991. Vol. 58, N 2.-С.225-228

3.
Escobar Water handling in the human distal colon in vitro: role of Na+, Cland CHO3] // Biochem. et biophys. acta. Biomembranes, 1990. Vol. 1027, N 3.-С.257-263

4.
Armstrong Observations of isolated rabbit retinal pigment epithelium // J. Physiol., 1989. Vol. 412.-С.69Р

5.
Ritter I. A simple method for multiple fluid exchange // Pelugers Arch., 1989. Vol. 415, N 2.-С.241-243

6.
Zhang Transepithelial potential and resistance of the isolated rabbit and bovine lens epithelia // J. Physiol., 1991. Vol. 452.-С.58

7.
Isaacson Leon C. Concealed transepithelial potentials and current rectification in tsetse fly malpighian tubules // J. Exp. Biol., 1994. Vol. 186.-С.199-213

8.
Wood Chris M. Electrical aspects of the osmorepsiratory compromise: TEP responses to hypoxia in the eurahaline killifish (Fundulus heteroclitus) in freshwater and seawatern // J. Exp. Biol., 2015. Vol. 218, N 14.-С.2152-2155

9.
Dopamine and melatonin interactions in the intact chicken eye. Electrooculographic and biochemical study // Brain Res., 1992. Vol. 584, N 1-2.-С.64-70

10.
The loci of carbonic anhydrase activity in the ciliary epithelium of the rabbit eye: Electrophysiological study with isolated ciliary epithelial bilayer // Acta histochem. et cytochem., 1992. Vol. 25, N 1-2.-С.77-85

11.
Ion transport by primary cultures of Mongolian gerbil middle ear epithelium // Amer. J. Physiol., 1992. Vol. 262, N 3.-С.F373-F380

12.
Electrical fields in the vicinity of small wounds in Notophthalmus viridescens skin // Biol. Bull., 1989. Vol. 176, N 2 Suppl.-С.179-183

13.
In vivo study of the electrochemical composition of luminal fluid in the guinea pig endolymphatic sac // Acta oto-laryngol., 1999. Vol. 119, N 2.-С.200-202

14.
Clark Thomas M. The anterior and posterior 'stomach' regions of larval Aedes aegypti midgut: Regional specialization of ion transport and stimulation by 5-hydroxytryptamine // J. Exp. Biol., 1999. Vol. 202, N 3.-С.247-252

15.
Evidence for apical K conductance and Na-K-2Cl cotransport in the endolymphatic sac of guinea pig // Hear. Res., 1999. Vol. 128, N 1-2.-С.45-50

16.
Moffett David F. Transepithelial potential and alkalization in an in situ preparation of tobacco hornworm (Manduca sexta) midgut // J. Exp. Biol., 1994. Vol. 194.-С.341-345

17.
Wangemann Ion transprot mechanisms responsible for K{+} secretion and the transpithelial voltage across marginal cells of stria vascularis in vitro // Hear. Res., 1995. Vol. 84, N 1-2.-С.19-29

18.
Dankoski E.J. In situ transepithelial potential in the midgut of the tobacco hornworm during larval-larval molting // Amer. Zool., 1996. Vol. 36, N 5.-С.43

19.
Sodium transport from endolymph to perilymph across the isolated frop inner-ear epithelium // J. Physiol., 1988. Vol. 406.-С.120Р

20.
Husted Russell F. Characteristics of papillary collecting duct cells in primary culture // Amer. J. Physiol., 1988. Vol. 255, N 6.-С.1160-1169

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