A fluid in the state of two phase containing gas and liquid, which flows into the separating space, is revolved along an inner wall of the separating space and a liquid flow outlet is opened toward a revolving flow of the fluid and arranged in a lower portion of the separating space. The liquid-phas
A fluid in the state of two phase containing gas and liquid, which flows into the separating space, is revolved along an inner wall of the separating space and a liquid flow outlet is opened toward a revolving flow of the fluid and arranged in a lower portion of the separating space. The liquid-phase fluid which is a part of the revolving flow of the fluid flows out through the liquid flow outlet.
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The invention claimed is: 1. A gas-liquid separator comprising: a separating space having an inlet from which a fluid containing gas and liquid flows into the separating space, the fluid being separated into a liquid-phase fluid and a gas-phase fluid in the separating space; a gas flow outlet throu
The invention claimed is: 1. A gas-liquid separator comprising: a separating space having an inlet from which a fluid containing gas and liquid flows into the separating space, the fluid being separated into a liquid-phase fluid and a gas-phase fluid in the separating space; a gas flow outlet through which the gas-phase fluid flows out from the separating space; and a liquid flow outlet through which the liquid-phase fluid flows out from the separating space, wherein the fluid containing the gas and liquid forms a revolving flow in the separating space, and the liquid flow outlet is arranged in a lower portion of the separating space being opened toward the revolving flow of the fluid. 2. An ejector cycle in which the gas-liquid separator according to claim 1 is used, comprising: a compressor for sucking and compressing the gas-phase fluid; a radiator for radiating heat of the gas-phase fluid discharged from the compressor; an evaporator for exhibiting a heat absorbing function by evaporating the liquid-phase fluid; and an ejector, which is a decompressing means for decompressing and expanding the gas-phase fluid of high pressure flowing out from the radiator at the same time, which is a momentum transfer type pump for sucking and conveying the fluid, which has been evaporated by the evaporator, by the entrainment action of the fluid jetted out at high speed, wherein the fluid, which has flowed out from the ejector, flows into the inlet. 3. An ejector cycle according to claim 2, where in a density ratio, which is a value obtained when a liquid phase density is divided by a gas phase density, of the fluid is high. 4. An ejector cycle according to claim 3, wherein the fluid, the density ratio of which is high, is one of refrigerant R404A, HC, R134a, R410A and R407C. 5. A gas-liquid separator according to claim 1, further comprising a tapering shape by which a sectional area of the separating space is gradually reduced when it is directed toward the liquid flow outlet, wherein a size of the separating space in a vertical direction is larger than a size of the separating space in a horizontal direction. 6. An ejector cycle according to claim 2, wherein the gas-liquid separator includes at least two gas flow outlets, and one of the at least two gas flow outlets is arranged being open in the uppermost portion of the separating space. 7. The gas-liquid separator according to claim 1, wherein the separating space is formed by a cylindrical inner surface, the fluid containing the gas and liquid being directed against the cylindrical inner surface to form the revolving flow. 8. The gas-liquid separator according to claim 7, wherein the liquid flow outlet is disposed along a tangent line of the cylindrical inner surface. 9. The gas-liquid separator according to claim 8, wherein the inlet is disposed along a tangent line of the cylindrical inner surface. 10. The gas-liquid separator according to claim 7, wherein the inlet is disposed along a tangent line of the cylindrical inner surface. 11. The gas-liquid separator according to claim 5, wherein the liquid flow outlet is disposed generally perpendicular to the tapering shape. 12. The gas-liquid separator according to claim 11, wherein the inlet is disposed along a tangent line of the cylindrical inner surface. 13. The gas-liquid separator according to claim 1, wherein the revolving flow revolves around a generally vertical axis.
Griffin, Timothy R.; Gilarranz, Jose L., Method for on-line detection of liquid and potential for the occurrence of resistance to ground faults in active magnetic bearing systems.
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