18 results about "Fluid shifting" patented technology

The disclosure is directed to a system for managing fluid levels in liquid immersion cooling racks during the addition and / or removal of fluid displacing equipment. In some embodiments, the system is configured to determine expected fluid level changes based on the volume of fluid displacing equipment and a current fluid level of cooling tanks and / or reservoirs. Control commands are generated to actuate valves and pumps, ensuring fluid levels remain within operating setpoints to maintain coverage of remaining components and prevent overflow, in accordance with some embodiments. In some embodiments, temperature data is analyzed to evaluate the impact of fluid transfer on thermal requirements. In some embodiments, actual measurements from operations are stored to refine predictive models for future adjustments. In some embodiments, the system redistributes fluid. In some embodiments, program instructions automate fluid transfer operations among multiple immersion cooling racks simultaneously, ensuring consistent cooling performance across interconnected racks and reservoirs. In some embodiments an operator may be prompted to enter the quantity and models of heat producing equipment to be added or removed from the racks, the system may evaluate the various stores of fluid in the racks and reservoirs to determine whether the existing fluid stores, combined with intended additions and or deletions of heat producing equipment may be accommodated within the allowable limits of the system without need for ancillary addition or removal of fluid.

A robotic system and method are provided for transfer of fluid between a container accessible via a container-septum and a fluid transfer assembly accessible via a fluid transfer connector septum. The robotic system includes a controller and a manipulator controllable by the controller to manipulate at least one of the container and the fluid transfer assembly. The controller is configured to operate the manipulator to secure contact between the container-septum and the fluid transfer connector septum during at least a portion of the transfer of the fluid.

A conveyer for a plurality of fluid transfer assemblies in a system for a pharmaceutical preparation allows suspended conveyance of one or more fluid transfer assemblies along at least one conveyance pathway such that at least one or each fluid transfer assembly freely hangs or is suspended from a holder element of a main conveyer body during movement of each fluid transfer assembly along the conveyance pathway. The conveyor may include first and second conveyor units or bodies that together provide an open access position and a restricted access position for the fluid transfer assembly. The conveyor may further provide a plurality of holder members configured to provide directional positioning of the fluid transfer connector relative to the holder members. The conveyor may be further movable along the Z axis in addition to conventional displacement of the conveyor through at least one of the X and Y axes.

The invention generally relates to a therapeutic garment for treating fluid overload in a patient by providing controlled stimulation of fluid transfer directly and non-invasively from an interstitial compartment of the patient through the skin of the patient.

The present invention discloses a closed fluid transfer system for use in the field of medical device technology. The system comprises an adapter, a container connection device, and a pressure supply device. The two ends of the adapter are respectively connected to the container connection device and the pressure supply device. The adapter comprises a housing, a dual-channel needle seat, and a guide sleeve. The housing has a cavity therein. The upper end of the dual-channel needle seat is connected to the guide sleeve, and the lower end face abuts against the support surface of the cavity. The upper end of the housing is connected to the guide sleeve. The dual-channel needle seat comprises a fluid channel and a gas channel. The fluid channel connects the fluid channel of the container connection device and the cavity of the pressure supply device. The gas channel is provided with an oil-blocking and breathable membrane at one end away from the container connection device that can prevent the ingress and egress of fluid and allow the ingress and egress of external gas. The other end of the gas channel is connected to the fluid channel of the container connection device. The closed fluid transfer system can smoothly complete the fluid transfer operation.

A system is provided for evaluating the quality of a fluid process performed on a fluid, the fluid process including one of fluid suction and fluid dispensing. The system includes a pump; a probe; a connection, wherein a fluid path is formed at least partially through the connection between the pump and the probe; a pressure sensor in fluid communication with the fluid path and configured to sense a pressure of the pump during a fluid process, where pressure measurement data includes the pressure of the pump sensed during the fluid process; and a processor; and a memory including instructions executed by the processor.

Systems and methods are provided for transferring fluid between a container and a reservoir. In an embodiment, a system may include a container having an interior volume configured to hold a volume of fluid. An adapter may be associated with the container for providing fluid communication with the volume of fluid. A receiver may be configured to be fluidly coupled with a reservoir. The receiver may be configured to releasably engage the adapter, and may include a valve configured to be opened when the adapter is engaged with the receiver to allow fluid transfer between the container and the reservoir.

The invention relates to a fluid transfer system, a fluid transfer method and a biochemical substance analysis system.The fluid transfer system comprises a fluid storage module, a fluid using module, a fluid quantitative driving module and an air pressure control module, the fluid storage module is used for storing fluid, the fluid using module is provided with a flow channel, and the liquid inlet end of the flow channel is communicated with the fluid storage module; the liquid outlet end of the flow channel is communicated with the fluid quantitative driving module, and the fluid storage module is further communicated with the air pressure control module; the air pressure control module is used for providing pressure for the fluid storage module and enabling the liquid inlet end of the flow channel to maintain a positive pressure environment; the fluid quantitative driving module is used for generating driving force, so that the fluid in the fluid storage module is quantitatively transferred to the flow channel. The fluid transfer system is simple in structure and low in cost, the risk of gas precipitation in fluid can be reduced, the quality of biochemical reaction can be improved, meanwhile, the flow speed of the fluid can be more flexibly regulated and controlled, and it is guaranteed that the liquid passing amount in a flow channel is consistent every time.

Systems and methods for the transfer of medical fluid are provided. A medical fluid transfer system may comprise a pump configured to transfer fluid through a tube assembly having a first connector configured to couple to a source container and a second connector configured to couple to a target container. The medical fluid transfer system may also comprise a destination sensor configured to output information about the target container. The medical fluid transfer system may further comprise a control system configured to operate the pump based on an operational setting associated with fluid volume; receive measurement data representing a measurement of the target container by the destination sensor, and adjust the operational setting based on an observed volume of fluid transferred to the target container.

A fluid transfer device for transferring a fluid between a diluent container and a medicament container includes a body, a first connecting portion to connect to the diluent container, and a second connecting portion to connect to the medicament container. The first connecting portion includes a first fluid channel to fluidically communicate with an interior of the diluent container, and the second connecting portion comprises a second fluid channel to fluidically communicate with an interior of the medicament container. A third fluid channel is configured to fluidically communicate with the interior of the medicament container and with a pump device. The first fluid channel merges into the second fluid channel to form a first flow path from the diluent container into the medicament container and to form a second flow path from the medicament container into the diluent container.

The invention provides a recovery tank, a fluid transfer control method of the recovery tank, and an inertia valve operation method for suppressing fluid surge in the recovery tank. The recovery tank comprises a first fluid cavity, a second fluid cavity, a fluid passage and an inertia valve; the fluid passage is used for connecting the first fluid cavity and the second fluid cavity; the inertia valve is used for controlling the opening degree of the fluid passage and comprises a valve plate, the valve plate can move between a first position and a second position, when the valve plate is located at the first position, the inertia valve allows fluid of a first flow flowing through the fluid passage to transfer from the first fluid cavity to the second fluid cavity, and when the valve plate is located at the second position, the inertia valve allows fluid of a second flow flowing through the fluid passage to transfer from the first fluid cavity to the second fluid cavity. The inertia valve allows a second flow rate of fluid flowing through the fluid passage to divert from the second fluid chamber to the first fluid chamber, where the first flow rate is greater than the second flow rate.

A fluid conveying system and method, and a gene sequencer. The fluid conveying system comprises a fluid storage module, a first working module, and a second working module. The fluid storage module is used for storing a plurality of fluids. The first working module comprises a fluid selection assembly and a first power assembly, and the second working module comprises a second power assembly. At least one of the first working module and the second working module is selectively communicated with a fluid utilization system. The fluid selection assembly is used for selecting one fluid from the fluid storage module, and the power assembly is used for driving the selected fluid to be transferred to the fluid utilization system. The second power assembly is used for driving another fluid in the fluid storage module to be transferred to the fluid utilization system.

An interface device (1) located between an external device (2) and at least one intravenous tube (X1) for transferring fluid to a patient, the device comprising at least: a first port (Pm1) designed to be connected to an outlet port (M1) of the external device (2); a venous port (Px1) carried by a stator of the interface device and used for injecting fluid into the intravenous tube (X1); the interface device (1) having a third port (PB1x), the first port (Pm1) and the third port (PB1x) being carried by a component (1a) movable relative to the stator (1b), the interface device being designed to move from one configuration thereof to another configuration thereof by movement of the movable component (1a) relative to the stator.

An implantable fluid operated expandable device (200) may include a fluid reservoir (202) configured to hold a fluid, an expandable member (204), and a fluid structure providing fluid transfer between the fluid reservoir and the expandable member. The fluid reservoir, expandable member, and fluid structure may be included in a single unit or a single housing, thus providing a relatively compact implantable fluid operated expandable device. The relatively simple, compact device allows for simplified insertion into a patient and allows for simplified user operation.

The utility model relates to a technical scheme of a treatment system with a generator and a fluid transfer box. A fluid transfer cartridge is provided that includes a cartridge housing defining a cartridge cavity, a syringe barrel, and a syringe piston. The cartridge case includes one or more stabilizing prongs. And the injector barrel is arranged in the box cavity. And the injector piston is arranged in the injector barrel. The syringe piston includes a stopper and a shaft extending longitudinally from the stopper to a shaft end. The shaft includes a plurality of piston notches, each of the plurality of piston notches receiving at least one of the one or more stabilizing prongs. Other embodiments are also described and claimed.

A sliding riser system is provided herein which may include at least one moving riser bar attached at a first end to a showerhead, at least one fixed inlet waterway connected to a fluid line, and a balance spring mechanism which may include a balance spring attached at a free end to the at least one moving riser bar. The fluid line may provide water to the sliding riser system, and thereby, to the showerhead for use. A portion of the moving riser bar may be housed within the fixed inlet waterway, or a portion of the fixed inlet waterway may be housed within the moving riser bar. Such housing may cause fluid flowing in the fixed inlet waterway to transfer and flow into the moving riser bar.

The invention relates to a device (1) for performing a quantitative transfer of liquid from a crimped capped vial (12) to another vial, container or cartridge, said device (1) comprising components (100) made of: a lower cylindrical portion (101) having a beveled cylindrical recess, said lower cylindrical portion (101) having an upper cylindrical portion (102) having a beveled cylindrical recess, a lower cylindrical portion (101) capable of receiving a crimped capped vial (12) in a tightly inserted manner, said recess having an aperture (2) on one side of the lower cylindrical portion (101); -an upper cylindrical portion (102) communicating with the lower cylindrical portion (101) and comprising a hollow cylindrical projection (3) for guiding the extension tube (13) equipped with a lancet (7), a groove (4) being provided in said upper cylindrical portion (102) for holding the extension tube (13) in place during manipulation of said device (1); -a central cylindrical portion (103) provided between the lower and upper cylindrical portions (101, 102), the central cylindrical portion comprising a groove (5) to ensure the correct positioning of the extension tube (13) during the transfer of the fluid to another vial, container or cartridge, a circular track (6, 6 ') is provided on each side of the central cylindrical portion (103), allowing the shielding tank (11) and the cover (10) of the shielding tank to be anchored on said component (100), respectively; the apertures (2) extend in respective central and upper cylindrical portions (103, 102), and the lancet (7) is connected to a Luer lock ring (8).

A drug preparation system is provided that is configured for being disposed within an enclosure and is operative to perform fluid transfer between at least one container and at least one fluid transfer assembly while disposed within the enclosure. The enclosure includes a gas flow source that is operative to generate a gas flow along a vertical gas flow path, the drug preparation system having a vertical axis and including: at least one platform that includes a platform upper surface; at least one container receiving module that is configured to receive the container, the container receiving module including a body and a fluid interface portion that is configured to accommodate a fluid transfer element of the container to perform the fluid transfer therethrough, the body being disposed at least partially vertically above the platform upper surface and at least a portion of the fluid interface portion extending away from the platform upper surface in a direction transverse to the vertical axis; and a virtual vertical column that extends along the vertical axis and includes the fluid interface portion, wherein the vertical virtual column at least partially defines a portion of the gas flow path while the drug preparation system is disposed within the enclosure and the gas flow is generated, the vertical virtual column including an upper column portion that extends above the fluid interface portion and a lower column portion that extends below the fluid interface portion, at least the upper column portion being at least selectively free of non-laminar flow disturbances along at least the vertical axis.