ArthurCB. Passive and active transport. In: RuchADPattonMC, eds. Physiology and biophysics. New York: Saunders, 1965: 820–42
2.
WeilleFLO'BrienHFClarkL. Pressures of the labyrinthine fluids. II. Ann Otol Rhinol Laryngol1961; 70: 528–40
3.
MartinezDM. Simultaneous measurements of endolymphatic and perilymphatic fluid pressures before and during anaphylaxis and associated changes in cerebrospinal fluid, venous and arterial pressure. Acta Otolaryngol [Suppl] (Stockh)1968; (suppl 238)
4.
FeldmanAMBittnerHRBrusilowSW. Measurement of the hydrostatic pressures of the cochlear compartment. Neurol Res1979; 1: 11–8
5.
BosherSKWarrenRL. A study of the electrochemistry and osmotic relationships of the cochlear fluids in the neonatal rat at the time of the development of the endocochlear potential. J Physiol (Lond)1971; 212: 739–61
6.
JuhnSKPradoSPearceJ. Osmolality changes in perilymph after systemic administration of glycerin. Arch Otolaryngol1976; 102: 683–5
7.
LarsenJA. Elimination of glycerol as a measure of the hepatic blood flow in the cat. Acta Physiol Scand1963; 57: 224–34
8.
TourtelloteWWReinglassJLNewkirkTA. Cerebral dehydration action of glycerol 1. Historical aspects with emphasis on the toxicity and intravenous administration. Clin Pharmacol Ther1972; 13: 159–71
9.
McCurdyDKSchneiderBSheieHG. Oral glycerol. The mechanism of intraocular hypotension. Am J Ophthalmol1966; 61: 1244–9
10.
WaterhouseJMCoxonRV. The entry of glycerol into brain tissue. J Neurol Sci1970; 10: 305–11
11.
PrazmaJ. Effect of glycerol on cochlear microcirculation. Acta Otolaryngol (Stockh)1981; 92: 459–61
12.
LarsenHCAngelborgCHultcrantzE. The effect of glycerol on cochlear blood flow. ORL J Otorhinolaryngol Relat Spec1982; 44: 101–7
13.
AngelborgCAgerupB. Glycerol effects on the perilymphatic and cerebrospinal fluid pressure. Acta Otolaryngol (Stockh)1975; 79: 81–7
14.
TasakiIDavisHLegouixJP. The space-time pattern of the cochlear microphonics as recorded by differential electrodes. J Acoust Soc Am1952; 24: 502–19
15.
KonishiTHamrickPEWalshPJ. Ion transport in guinea pig cochlea 1. Potassium and sodium transport. Acta Otolaryngol (Stockh)1978; 86: 22–34
16.
RamseyJABrownRHJCroghanPC. Electrometric titration of chloride in small volumes. Exp Biol1955; 32: 822–9
17.
ChenBKonishiT. A simple current injector, its application to coulomb titration of chloride. Med Biol Eng Comput1978; 16: 589–91
18.
FujimotoMKubotaT. Physicochemical properties of a liquid ion exchanger microelectrode and its application to biological fluids. Jpn J Physiol1976; 26: 631–50
19.
SloviterHA. Effects of the intravenous administration of glycerol solutions to animals and man. J Clin Invest1958; 37: 619–26
20.
KonishiTButlerRAFernandezC. Effect of anoxia on cochlear potentials. J Acoust Soc Am1961; 33: 349–56
21.
SterkersOFerraryEAmielC. Inter- and intracompartmental osmotic gradients within the rat cochlea. Am J Physiol1984; 247: F602–6
22.
CarlborgBIRFarmerJC. Effects of hyperosmolar solutions on the labyrinthine fluid pressures. Ann Otol Rhinol Laryngol1983; 92(suppl 104)
23.
CohenJMorizonoTLongC. The effect of glycerol on cochlear function and ion concentration. Arch Otorhinolaryngol1985; 241: 285–93
KanohNMakimotoK. The effects of intravenous glycerol injection on the electrolytes concentrations of inner ear fluids. Audiol Jpn1983; 26: 210–5
26.
KanohNMakimotoK. Effect of glycerol on inner ear fluid electrolytes of guinea pigs. Oral and intravenous administration. Pract Otol Kyoto1983; 76: 2951–64
27.
JohnstoneBMRobertsonD. The physiology and biophysics of hydrops. In: VosteenK-HSchuknechtHPfaltzCR, eds. Meniere's disease: Pathogenesis, diagnosis and treatment. New York: Georg Thieme1981: 44–6
28.
WolfAVBrownMGPrentissPG. Concentrative properties of aqueous solutions. Conversion tables. In: WeastRCAstleMJBeyerWH, eds. CRC Handbook of chemistry and physics. New York: CRC Press, 1983: D-247