There is not always a clear line separating solvent and insolvent banks.
In other banking crises, both in this country and abroad, resolution of a systemwide problem has sooner or later involved separating solvent banks from insolvent banks.
This is simply due to its simplicity, low consumption of separating solvent and short duration for analysis.
Methanol plant extracts were spotted on the TLC plate (ALUGRAM® SIL G fűr die DC) using capillary tube and separated in 80 20 (hexane: ethylacetate) as it was found to be the best separating solvent for Cassine transvaalensis.
The extracts of the plants were obtained with ethanol and hexane as solvents, and the resin was separated of solvent in a rotary evaporator.
Briefly, the protein digests (~ 500 ng) were injected into a BEH C18 75 μm × 150 mm analytical column (Waters), and separated by solvent A (water with 0.1% FA) and solvent B (acetonitrile with 0.1% FA) at a flow rate of 0.3 μL/min using a 2-h gradient.
Reduced hydrolyzed technetium was separated using solvent mixture (ethanol/ammonia/water: 2 : 1 : 5) as mobile phase in which free pertechnetate and 99m Tc-amikacin moved with solvent front whereas reduced hydrolyzed technetium remained at the point of application.
This dissolves all platinum-group metals, which are subsequently separated by solvent extraction.
Finally, product was separated from solvent using a vacuum rotary evaporator at 90 °C for 1 h.
In order to characterize the different phases, the material was separated by solvent extraction.
To determine the lipid components of RPE-capped drusen, lesions were extracted with chloroform – methanol, and these extracts were separated using solvent systems for neutral lipids and polar lipids.
