70 results about "PHERESIS UNIT" patented technology

A cyclone dust separating apparatus has a first cyclone chamber for separating particles from the externally-drawn fluid by centrifugal force, one or more second cyclone chambers for separating particles from the fluid discharged from the first cyclone chamber by centrifugal force, and one or more third cyclone chambers for separating particles from the fluid discharged from the second cyclone chambers, and causing the fluid to be discharged out via a discharge passage. The second and the third cyclone chambers are arranged in radial relation with respect to the first cyclone chamber, and thus, surround the first cyclone chamber. Therefore, the cyclone dust separating apparatus provides multi-stage centrifugal cleaning process and improved cleaning efficiency, while remaining compact-sized.

A cyclonic separation apparatus for a vacuum cleaner, the cyclonic separation apparatus comprising: a first cyclonic separating unit comprising a hollow substantially cylindrical dirt container with a central axis, an air inlet port arranged tangentially through a side wall of the dirt container and an air outlet; and a second cyclonic separating unit comprising at least one cyclone with an air inlet port and an air outlet port, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, wherein the second cyclonic separating unit is located within the dirt container and wherein the second cyclonic separating unit is detachably connected to the dirt container for removal through either longitudinal end of the dirt container. A vacuum cleaner comprising a motor coupled to a fan and the cyclonic separation apparatus.

An information processing apparatus communicates with a separate passive device, to receive specific information from the separate device. The information processing apparatus includes an antenna, a transmitter and a receiver both coupled to the antenna, and a control unit for controlling the transmitter. The control unit causes the transmitter to transmit a signal at a low transmission power and waits for reception by the receiver of a response signal from the separate device. When the specific information is detected in the response signal, the control unit causes the transmitter to transmit a signal at a high transmission power by raising the transmission power of the transmitter, to thereby enable information to be read from or written to the separate device.

A dust separating apparatus for a vacuum cleaner having a casing, a cyclone unit formed in the casing to filter contaminants from drawn-in air and discharge air removed of the contaminants, and a dust collection part arranged in parallel with the cyclone unit in the casing to collect the contaminant separated from the air by the cyclone unit. The casing is substantially semicircular to correspond to the mounting chamber of the vacuum cleaner body. On a bottom surface of the cyclone unit, an air inlet and an air outlet are formed. The air outlet is formed at one side of the air inlet.

A cyclonic separation apparatus for a vacuum cleaner, the cyclonic separation apparatus comprising: a first cyclonic separating unit comprising a hollow cylindrical dirt container with a central axis and an air inlet port arranged tangentially to the dirt container; and a second cyclonic separating unit comprising a plurality of cyclones arranged in a circular array about the central axis, wherein each cyclone has an air inlet port and an air outlet port, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit and wherein the second cyclonic separating unit has a higher separation efficiency than the first cyclonic separating unit, wherein the second separating unit is located within the dirt container. A vacuum cleaner comprising: a main body, a motor coupled to a fan and the cyclonic separation apparatus.

The present invention provides a kit for the delivery a therapeutic agent to an organ blood flow and the removal of the excess of said therapeutic agent from said organ blood flow, said kit comprises: (a) the therapeutic agent, (b) a first retrievable medical device (26), for delivering said therapeutic agent into the organ inflow, (c) a second retrievable medical device for isolating the organ outflow vessel and (d) a separation device (25) comprising at least one filter able to separate the therapeutic agent excess from the organ outflow, having an inlet (38) for the organ outflow having a therapeutic agent excess and an outlet (39) for filtered organ outflow.

A microfluidic dielecttrophoresis separating device is provided. The microfluidic dielectrophoresis separating device includes a primary passage, at least a secondary passage and at least an electrode assembly. The primary passage has a primary flow containing a plurality of particulates flowing therein. The secondary passage has an input path and an output path and is connected with the primary passage. The electrode assembly generates a dielectrophoresis force to drive a specific one of the particulates into the output path.

Systems and methods are used to concentrate and extract platelets from blood, where an aggregation arrangement is configured to aggregate red blood cells in the blood. The aggregated red blood cells are provided to a separation arrangement which is configured to separate the aggregated red blood cells from platelets in the blood plasma. Finally a concentration arrangement is configured to concentrate the platelets for extraction and further use.

An interleaved towel dispenser including a housing and a separation arrangement that facilitates the separation of individual towels of a stack of interleaved towels during dispense. The stack of interleaved towels further having an adhesive area that permits attachment of the stack of interleaved towels to another stack of interleaved towels.

A particulate feed comprising a first particle type and a second particle type is separated by providing a separation apparatus having a separation vessel having a top and a bottom, and wherein the separation vessel includes inwardly sloping side walls. A magnet structure has a first pole positioned exterior of and adjacent to each of the side walls of the separation vessel, and a second pole positioned above the separation vessel. A mixture of the particulate feed and a ferrofluid is introduced into the separation vessel, and the particulate feed is separated into a first particle fraction comprising a majority of the first particle type, which sinks in the separation vessel, and a second particle fraction comprising a majority of the second particle type which floats in the separation vessel.

A belt press solid / liquid separation apparatus is provided for separating organic mixtures with substantial amounts of moisture to produce separated solids with solids content of 50-90% while retaining 99% of the incoming solids in the filter cake. Specifically, the invention incorporates a double-belt press apparatus with a non-permeable upper belt, a highly permeable lower belt, a wedge type zone with adjustable spring compression, and a means for re-screening belt press filtrate with either a single belt press or multiple belt presses configured as a multi-step cascade of belt presses.

A heat dissipating system, which is applied to a heat source, includes a fan and a dust-separating apparatus. The fan rotates and generates an airflow by collecting air from an exterior of the heat dissipating system. The airflow flows into the dust-separating apparatus, and then the dust-separating device separates a dust from the airflow. The separated airflow dissipates the heat from the heat source.

A dust separating apparatus for a vacuum cleaner is provided. The dust separating apparatus comprises a first dust separating unit having a suction port, a guide member spirally, and a main filter to collect dust separated from drawn-in air, a second dust separating unit including a plurality of cyclones annularly arranged to centrifugally separate the dust from the air discharged from the first dust separating unit, and a cover unit to guide the air discharged from the first and the second dust separating units. The first dust separating unit separates the dust included in drawn-in air by rotating along the guide member and passing through the main filter the air drawn in through the suction port. The second dust separating unit rotates the air discharged from the first dust separating unit, thereby further filtering the air.

A multi-layer microfluidic separation device comprises a polymeric membrane frit that may be securely bonded within the device and minimizes lateral wicking. Stationary phase material having an average particle size is retained by a frit having an average pore size that is smaller than the average particle size. In one embodiment, a secure bond is ensured by treating the polymer to match its surface energy to that of the materials to which it is bound. Treatments include plasma treatment, irradiation and the application of acids.

A membrane separation device is disclosed along with systems and methods employing the device in blood processing procedures. In one embodiment, a spinning membrane separator is provided in which at least two zones or regions are created in the gap between the spinning membrane and the shell, such that mixing of the fluid between the two regions is inhibited by a radial rib or ridge associated with the spinning membrane that decreases the gap between the spinning membrane and the shell to define two fluid regions, the ridge isolating the fluid in the two regions to minimize mixing between the two. Automated systems and methods are disclosed for separating a unit of previously-collected whole blood into selected blood components, such as concentrated red cells and plasma, for collecting red cells and plasma directly from a donor in a single pass, and for cell washing. Data management systems and methods and priming methods are also disclosed.

Fluidic separation devices and methods with reduced sample broadening are provided. A column is located downstream from a holding chamber, and a flow providing means provides fluid flow effective to convey a sample along a flow path that extends from the holding chamber into the separation column. The sample is typically focused in the flow path upstream from the separation column. Optionally, the invention may be employed with electrospray mass spectrometry and in microfluidic applications.

Methods and systems are provided for triggering an information dependent mass spectrometry scan in real time. A mass spectrometry scan of a separating sample mixture is performed by a mass spectrometer at each time interval of a time period. The mass spectrometer receives the separating sample mixture from a separation device. It is determined at a certain time interval that a received mass spectrometry scan at the time interval and one or more preceding received mass spectrometry scans include two or more time-varying ion signals that represent two or more fragment ion transitions of a known compound. If a characteristic of the two or more time-varying ion signals meets a selection criterion, the mass spectrometer is instructed to perform a dependent mass spectrometry scan of the separating sample mixture for a precursor ion of the known compound at the time interval.

This invention is to provide a processing system suitable for manufacturing an SOI substrate. A processing system includes a scalar robot for conveying a bonded substrate stack held by a robot hand, and a centering apparatus, separating apparatus, inverting apparatus, and cleaning / drying apparatus disposed at substantially equidistant positions from a driving shaft of the scalar robot. When the robot hand is pivoted about the driving shaft in the horizontal plane and moved close to or away from the driving shaft, a bonded substrate stack or separated substrate is conveyed among the processing apparatuses.

The invention belongs to the technical field of mixed particle separation devices, and particularly relates to an electromagnetic combination linear vibration type mixed particle sorting device. The device is characterized by comprising a vibration generation mechanism, a vibration groove arranged above the vibration generation mechanism and a receiving tray connected with the bottom of the vibration groove. The vibration generation mechanism comprises a support, a longitudinal magnetic induction mechanism arranged in the center of the bottom of the support, a transverse magnetic induction mechanism arranged on one side of the support and a magnetic induction moving mechanism arranged in the middle of the support. According to the electromagnetic combination linear vibration type mixed particle sorting device, the structure is simple, control is easy, the vibration groove is driven to do horizontal or vertical linear motion through coil electrification and armature magnetic force, the vibration groove produces vibration, small particles are screened out through multiple small holes in the bottom of the vibration groove after vibration, medium and large particles are layered, the medium particles are located in the bottom layer of the vibration groove, the large particles are located in the upper layer of the vibration groove, accordingly, sorting operation for mixed particles is achieved, the sorting effect on the mixed particles is strengthened, and the sorting rate is improved.

A data compressor of the present invention comprises: separating means for separating input data having a plurality of vertices with their respective types and values, and reference information between the vertices, into cross reference data with the reference information between the vertices, and a vertex group consisting of the plurality of vertices with the types and values, and for outputting data of the vertex group thus separated; template storing means for storing reference information between vertices having a specific pattern, as a template, wherein the template can share the reference information between the vertices, with other stored templates; template match detecting means for detecting a portion matching the template stored in the template storing means, from the cross reference data separated by the separating means; and template replacing means for replacing the match portion detected by the template match detecting means, in the cross reference data separated by the separating means, with the temperate, in a state in which the reference information between the vertices can be referred to, and for outputting the replaced cross reference data.

An ingestion assembly is provided for a singulating apparatus having a conveyor system for moving a stack of sheet material along a feed path. The ingestion assembly is spatially positioned above the conveyor belt and includes at least one singulating roller driven in a direction opposing the motion of the conveyor belt. The ingestion assembly comprises an assembly support rotationally mounting the singulating roller at a downstream end portion and pivotally mounting to the singulating apparatus at an upstream end portion. A movable guide mounts to the assembly support and is positionable relative thereto as a function of a force vector imposed on the guide by the sheet material. Additionally, the moveable guide includes a surface operative to guide the sheet material into a singulating interface which is formed between the singulating roller and the conveyor system. In operation, sheet material enters the throat of the ingestion assembly and contact is made with the moveable guide. When the force vector, imposed by the sheet material, is less than a threshold level, the guide assumes a first position operative to shingle sheet material in preparation for singulation by the singulating roller. When the force vector, is greater than the threshold level, movable guide assumes a second position operative to pivot the assembly support and increase the singulating interface. Consequently, sheet material having a larger thickness dimension may pass for separation by the singulation apparatus.

In an endoscope washing and disinfecting apparatus, a duct of the endoscope is washed by a washing brush having a brush chip and a shaft having a distal end to which the brush chip is detachably loaded. A brush-chip accommodating unit has a brush-chip accommodating chamber communicable to a flow passage of a nozzle detachably coupled to the duct. A shaft accommodating unit has a shaft accommodating chamber communicable to the brush-chip accommodating chamber, the shaft being selectively accommodated in the shaft accommodating chamber. A shaft driving unit drives the shaft to be fed to the duct from the shaft accommodating chamber and to be returned to the shaft accommodating chamber from the duct. In the brush-chip accommodating chamber, coupling and decupling means allow the brush chip to be coupled and decoupled with and from the shaft, during the shaft is driven to go back and forth.

A printing apparatus having a print unit and a print controller with a first density correcting component performing a density correction to image data transmitted to the unit is provided. The correction accords with a printing capacity of the unit. The apparatus comprises a component notifying a separate apparatus of an order to make a second density correcting component perform a density correction an amount of which is the same as that of the density correction by the first correcting component. The separate apparatus is provided with a transmitter and the second correcting component, the transmitter being capable of transmitting image data to the unit bypassing the first correcting component provided in the controller, and the second correcting component being capable of performing a density correction to the image data. The correction accords with the printing capacity of the unit.

The present invention relates to a device for visual detection of hemolysis in a whole blood sample, comprising at least one visible detection compartment and a transfer passage connected to said visible detection compartment, said transfer passage being arranged to permit transfer of a volume of plasma from said sample to said detection compartment and wherein said transfer passage further is arranged with a separation device (4) for separating plasma from blood cells within said whole blood sample before said plasma reaches the detection compartment, wherein said device is arranged with subpressure means providing a subpressure inside said detection compartment for generating a force urging said volume of plasma to be transferred from said whole blood sample to said detection compartment through said transfer passage and via said separation device.

Provided is a particle separation apparatus. The particle separation apparatus for separating soil by particle size in a wet-type separation manner includes a body unit providing a space in which a mixture of the soil and water is received to flow vertically, a screen unit coupled to the inside of the body unit to separate the soil by the particle size from the mixture that flows vertically, and a space adjustment unit coupled to a lower portion of the body unit to cover the lower portion of the body unit, the space adjustment unit adjusting a volume of a lower space of the body unit to allow the mixture to repeatedly flow in a vertical direction.