Titlebook: Ion-Selective Microelectrodes and Their Use in Excitable Tissues; Eva Syková,Pavel Hník,Ladislav Vyklicky Book 1981 Plenum Press, New York

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András Csillagties (Thompson and Grime 1979; Roberts 1981; Mallik et al. 1984; Simpson et al. 1989; Thompson et al. 1997; Miller and Cummins 2001; Lemenih and Teketay 2006; Tessema et al. 2011b; Mall and Singh 2001; Hong et al. 2012) and the similarity between the soil seed bank and aboveground vegetation (Tessem

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for waste minimisation and waste to wealth paradigm shift and addresses ‘end-of-life’ issues. Emphasis should be laid on ecosystem protection and reduction in the waste and greenhouse gas emission within the limits of the carrying capacity of the ecosystem. Under no circumstances, the biodiversity

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G. Somjen,R. Dingledine,B. Connors,B. Allen pH, to define the reference levels of aluminum (24439?mg/kg), barium (161?mg/kg), copper (29?mg/kg) and zinc. (552mg/kg). kg), considering UCL95 as the background level since it presented a better statistical fit with respect to the descriptive statistics. However, the expression .was used to estab

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Aqueous-Humor

New Ion Selective Liquid Membrane Microelectrodese of microelectrodes with different selectivities available. Especially the development of electrically neutral ionophores led to clear improvements in selectivities and detection limits. Here we report on the present possibilities in the use of ion-selective liquid membrane microelectrodes.

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Sensitivity of K+-Selective Microelectrodes to pH and Some Biologically Active Substanceshanger located in the shank of a glass micropipette tip (Walker, 1971). For potassium ISM, an organic resin Corning code 477317 was used as the ion-exchanger. This ion-exchanger employs 1-2-dimethyl-3-nitrobenzen for dissolving 2g/100 ml potassium tetra-kis (p-chlorophenyl)borate (Baum and Wise, 197

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Determination of Selectivity Coefficients of Ion-Selective Microelectrodes ability of a given ion-selective microelectrode to distinguish between the primary ion and the interfering ion. For the measurements of intracellular Na, Ca, Cl, and extracellular K ion activities, it is necessary to determine accurately the selectivity coefficient of each microelectrode because in

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Intracellular Potassium and Chloride Measurements in Sheep Cardiac Purkinje Fibersse them to measure intracellular potassium and chloride activities, a.(K) and a.(Cl), in sheep cardiac Purkinje fibers. This preparation was chosen for two reasons, it has been a popular preparation for cardiac electrophysiologists so there is a considerable literature describing their electrophysio