178results about "Liquid degasification by vibration" patented technology

A fuel delivery system includes a fuel stabilization unit that receives vibratory energy for mixing fuel within fuel passages to improve the removal of dissolved oxygen from an oxygen containing fuel. A vibration generator transmits vibratory energy into the fuel stabilization unit to induce mixing of fuel. Vibratory energy is directed into the fuel to create enhanced mixing by inducing large-scale secondary flow motions that circulates fuel from a center flow area toward an oxygen permeable surface to improve overall fuel deoxygenation as more of the fuel is placed in adjacent contact with the oxygen permeable membranes.

An apparatus and method for down hole gas separation from the multiphase fluid flowing in a wellbore or a pipe, for determining the quantities of the individual components of the liquid and the flow rate of the liquid, and for remixing the component parts of the fluid after which the gas volume may be measured, without affecting the flow stream, are described. Acoustic radiation force is employed to separate gas from the liquid, thereby permitting measurements to be separately made for these two components; the liquid (oil/water) composition is determined from ultrasonic resonances; and the gas volume is determined from capacitance measurements. Since the fluid flows around and through the component parts of the apparatus, there is little pressure difference, and no protection is required from high pressure differentials.

A method and apparatus are provided for the controlled application of ultrasonic energy for conditioning of mixtures of gas and liquids by evolving and/or agglomerating gas bubbles existing with or in a liquid or for coalescing droplets of liquid dispersed in another liquid. The invention in preferred embodiments thereof comprises a coalescing apparatus for Increasing the droplet size of a mixture formed as a liquid dispersed in another liquid, and a de-gassing apparatus arranged to evolve and/or agglomerate gaseous bubbles in a gas/liquid mixture. In the apparatuses, ultrasonic transducers are used to impart vibrational energy to the mixtures.

An inline process for imparting sonic energy plus a liquid gas separator to a continuous flow of a heterogenous liquid to de-gassify the liquid and thereby provide for separation and extraction of selected liquid and gas components. The device utilizes a flat plate oriented in the direction of flow within the liquid so as to impart pressure fronts into the liquid to initiate liquid gas separation followed by a series of weirs, and tower packing, with stripping gas to facilitate mass transfer.

An arrangement and method for the degassing small high-aspect ratio drilled holes or vias which are present in panels such as printed circuit boards prior to wet chemical processing, including copper plating of the vias, in order to remove any air or gas bubbles from the vias tending to inhibit the reliable plating thereof This is carried out through the utilization of an ultrasonic prewetting in a liquid bath preceding cleaning for the electroless plating process, thereby enabling all of the vias or holes to be degassed; in effect, having air removed and the vias or holes filled with liquid; thereby allowing subsequent process cleansing solutions to easily flow into the respective holes or vias in order to facilitate the electroless copper plating process.

The invention discloses a bubble-removing device for a strong adhesive liquid. The device comprises a bottom supporting substrate; and a bottom connecting plate is fixed on one side of the upper surface of the bottom supporting substrate by bolts. By utilizing the vibration principle, the device effectively reduces the harm caused by bubbles to raw materials, enhances the quality of finished products after the orientation of the raw materials, and is strong in vibration effect; in addition, the device is equipped with an electromagnetic driven driving mechanism which utilizes the acting forcebetween electromagnetic magnetic poles to realize the driving action of an instantaneous power source, and has the characteristics of strong instantaneity and obvious driving effect; moreover, the device is equipped with an annular bottom thread control positioning mechanism which can fix the installation of equipment for storing liquid raw materials, thereby preventing the occurrence of the tilting of components caused by impact; in addition, the device is equipped with a liquid raw material storage shocking vibration mechanism which can convert the impact from the outside into a vibration effect under the action of a plurality of coil springs, thereby realizing the effect of vibration and bubble removal.

A defoaming method capable of destroying foams generated when a container is filled with drink, or the like, efficiently at a high speed and destroying foams effectively even in the case of a container having a narrow mouth. Liquid surface (6) in a container (1) is irradiated with pulse-like light (2) and a pulse-like sound wave (8) is generated from an irradiated point (7) as a sound source. The pulse-like sound wave thus generated propagates from the sound source as a strong spherical wave to reach a bubble (9) and to destroy the bubble. It can also destroy a bubble located at a place remote from the optical path quickly, thus destroying bubbles efficiently at a high speed. Alternatively, pulse-like light is condensed at a gas portion above the liquid surface and the bubbles can be destroyed with a shock wave generated by breakdown phenomenon.

The present invention discloses a method for improving the solenoid dispensing water resistance, comprising a base, said base top surface of the fixed mounting support column slidably mounted threaded rod of the boom, the bottom of the threaded rod fixedly mounted may coil for dispensing of the dispensing head, when the dispensing start lifting the motor, the lifting motor drives a first gear, a first gear rotatably drives the second gear, the second gear rotates the threaded rod may be down to the coil dispensing improved dispensing manner, increasing the efficiency of dispensing can be generated after a significant reduction dispensing bubbles, to improve the quality of the coil, glue extrusion by pressurizing the way, bubbles in the glue are deposited After the dispensing is completed, use the vibration method to shake the air bubbles in the coil to make the coil have better quality.

A method for separating electrolyte-containing water from an organic phase by means of permeation on a hydrophobic separating means. The permeated organic solution is substantially depleted in water and the retained water is enriched with electrolytes.

The invention provides a bubble removing system. The bubble removing system comprises a main bubble removing apparatus; the main bubble removing apparatus comprises a first enclosed container, a main gelatin inlet pipe, a main gelatin outlet pipe and a bubble colleting member; the cross section of the inner cavity of the first enclosed container is circular, and the first enclosed container is used for accommodating gelatinoids; the main gelatin inlet pipe penetrates the sidewall of the first enclosed container and is tangent to the inner cavity wall of the first enclosed container and arranged on the upper part of the first enclosed container; the main gelatin outlet pipe penetrates the sidewall of the first enclosed container and is arranged on the lower part of the first enclosed container; and the bubble colleting member comprises a hollow bubble collecting part and a communicating part, the bubble collecting part is arranged at the central part of the top of the inner cavity of the first enclosed container to collect gelatinoids located at the top of the first enclosed container and rich in bubbles, and the communicating part is arranged out of the first enclosed container and communicated with a hollow part of the bubble collecting part. The bubble removing system can highly efficiently remove bubbles in the gelatinoids.

This invention relates to a process for controlling coke morphology and. foaming in delayed coking. More particularly, acoustic energy is used to control coke morphology and foaming in a delayed coking process.

The invention discloses a knocking defoaming device applied to online bottle body conveyance, and belongs to the field of defoaming equipment. The knocking defoaming device applied to the online bottle body conveyance eliminates foams attached onto the wall of a bottle body in order to improve a defoaming effect and can be applied to the online bottle body conveyance. The knocking defoaming device comprises a mounting rack, a knocking mechanism and a driving mechanism, wherein the knocking mechanism is mounted on the mounting frame, and the driving mechanism drives the knocking mechanism to conduct knocking; and a conveyance channel is arranged on the mounting frame, and the knocking mechanism corresponds to the conveyance channel. According to the knocking defoaming device applied to the online bottle body conveyance, the knocking mechanism is provided to knock the wall of the bottle body to eliminate the foams; knocking rods directly knock the bottle body, thereby achieving a defoaming effect, and in particular improving an effect of eliminating the foams attached on the wall of the bottle body; furthermore, the knocking defoaming device can be applied to the existing flow line production equipment and can implement a defoamting treatment of the bottle body in an online conveyance process.

This invention relates to a process for improving the stability of an ophthalmically compatible solution comprising at least one oxidatively unstable ophthalmic compound.

The invention relates to a defoaming reaction vessel. The defoaming reaction vessel comprises a vessel body, a vessel cover and a rotating shaft. Thread paddles used for stirring are installed on the rotating shaft. A permanent magnetism block is installed on the upper surface of each thread paddle. A defoaming device is installed in the vessel body. The defoaming device comprises a spacing screen plate and a support. The support is fixed under the spacing screen plate. Elastic air bags are distributed on the lower surface of the spacing screen plate. A blowhole is arranged in the side wall of each elastic air bag. A ferromagnetic plate is installed at the bottom of each elastic air bag. A defoaming screen plate is fixedly installed on each ferromagnetic plate. Each defoaming screen plate can slide up and down along the side wall of the support. The reaction vessel is delicate in structure, is low in cost and can achieve high-efficiency defoaming on the premise of constant voltage, new impurities cannot be introduced, and high-efficiency and stable operation of the reaction is ensured.