mhurhangee/patent-ind-claim-en huggingface dataset:
A fish pond filtration device comprising a filter tank , a conical filter cylinder , a garbage collection trough , a sedimentation barrel , and a sewage pipe , wherein the conical filter cylinder , the garbage collection trough and the sewage pipe are located in the filter tank ; water discharge ports are provided in a bottom or a side wall of the filter tank , and the conical filter cylinder is in rotary fit with the filter tank ; a large-diameter end of the conical filter cylinder is open, the garbage collection trough is disposed below the large-diameter end of the conical filter cylinder , a filter port and a sewage discharge port are provided in a bottom of the garbage collection trough , and the sewage discharge port communicates into the sedimentation barrel ; and a water pump is disposed at one end of the sewage pipe , the water pump is located in a fish pond , the other end of the sewage pipe extends into the conical filter cylinder , and water outlets of the sewage pipe point to an inner wall of the conical filter cylinder . the conical filter cylinder , the garbage collection trough and the sewage pipe are located in the filter tank ; water discharge ports are provided in a bottom or a side wall of the filter tank , and the conical filter cylinder is in rotary fit with the filter tank ; a large-diameter end of the conical filter cylinder is open, the garbage collection trough is disposed below the large-diameter end of the conical filter cylinder , a filter port and a sewage discharge port are provided in a bottom of the garbage collection trough , and the sewage discharge port communicates into the sedimentation barrel ; and a water pump is disposed at one end of the sewage pipe , the water pump is located in a fish pond , the other end of the sewage pipe extends into the conical filter cylinder , and water outlets of the sewage pipe point to an inner wall of the conical filter cylinder .
A method of determining properties of a fluid having an oil phase, a water phase, and an emulsion phase between the oil phase and water phase, the method comprising: emitting an electromagnetic wave into the fluid using a guided wave radar ; measuring an amplitude of a reflection of the electromagnetic wave off an interface between the oil phase and the emulsion phase; determining a dielectric constant of the emulsion phase based on the amplitude of the reflection of the electromagnetic wave from the interface; determining a water-in-liquid ratio of the emulsion phase based on the dielectric constant; determining a height of a coalescing portion ( h c ) of the interface between the oil phase and the emulsion phase based on the emitted and reflected waves; determining a height of a creaming portion ( h s ) of the interface between the emulsion phase and the water phase based on a total height ( h t ) of the fluid, the height of a coalescing portion ( h c ) and the water-in-liquid ratio of the emulsion phase; and determining a thickness of the emulsion phase based on the difference between the height of the coalescing portion ( h c ) and the height of the creaming portion (hs). emitting an electromagnetic wave into the fluid using a guided wave radar ; measuring an amplitude of a reflection of the electromagnetic wave off an interface between the oil phase and the emulsion phase; determining a dielectric constant of the emulsion phase based on the amplitude of the reflection of the electromagnetic wave from the interface; determining a water-in-liquid ratio of the emulsion phase based on the dielectric constant; determining a height of a coalescing portion ( h c ) of the interface between the oil phase and the emulsion phase based on the emitted and reflected waves; determining a height of a creaming portion ( h s ) of the interface between the emulsion phase and the water phase based on a total height ( h t ) of the fluid, the height of a coalescing portion ( h c ) and the water-in-liquid ratio of the emulsion phase; and determining a thickness of the emulsion phase based on the difference between the height of the coalescing portion ( h c ) and the height of the creaming portion (hs).
A method for referencing a tracking system's coordinate frame to a coordinate frame of a 3D model of a rigid body, the rigid body comprising at least a portion of a patient's oral cavity, the method not utilizing any fiducial material present in a pre-operative cone-beam computer tomography (CBCT) scan, comprising the steps of: providing a 3D model depicting some of the surfaces within the patient's oral cavity; providing a tracking system; providing a hand held probe with an affixed probe tracking reference component, the probe having a probe tip; detecting with the tracking system the location of a patient tracking reference component rigidly and removably affixed to a location relative to a patient's oral cavity, the location being determined without use of any fiducial material on the patient tracking reference component; tracking locations of the probe tracking reference component as the probe moves along the surfaces of the patient's oral cavity; determining a three dimensional location of the probe tip for at least three anatomical locations in the patient's oral cavity; storing the locations of the probe tip for each of the at least three anatomical locations; and determining a transform that relates the at least three anatomical locations to the location of the at least three corresponding features in the 3D model. providing a 3D model depicting some of the surfaces within the patient's oral cavity; providing a tracking system; providing a hand held probe with an affixed probe tracking reference component, the probe having a probe tip; detecting with the tracking system the location of a patient tracking reference component rigidly and removably affixed to a location relative to a patient's oral cavity, the location being determined without use of any fiducial material on the patient tracking reference component; tracking locations of the probe tracking reference component as the probe moves along the surfaces of the patient's oral cavity; determining a three dimensional location of the probe tip for at least three anatomical locations in the patient's oral cavity; storing the locations of the probe tip for each of the at least three anatomical locations; and determining a transform that relates the at least three anatomical locations to the location of the at least three corresponding features in the 3D model.
Device for charging at least one battery , in particular a traction battery for a vehicle , which device has an electronics module and at least two charging pillars with a charging point , which electronics module has at least two power electronics units , which power electronics units have an AC/DC converter and a DC/DC converter , wherein the electronics module and the at least two charging pillars are spatially separate from one another, wherein the device has a cooling module , which cooling module is designed to convey a liquid coolant in a coolant circuit , which cooling module has at least two cooling units which are each assigned to a separate coolant circuit , characterized in that the at least two cooling units are fluidically connected to different charging pillars and power electronics units in order to permit at least some of the power electronics units and charging pillars to be cooled when one of the at least two cooling units fails, and which cooling module is fluidically connected to at least two power electronics units , connected in parallel, to form a coolant circuit , wherein controllable through-flow control means are provided in order to be able to influence in relation to one another the cooling power for the at least two power electronics units which are connected in parallel.
A urine flow control system including: - a catheter device for insertion into a urethra, the catheter device having: - a proximal end portion and an opposite distal end portion , - a conduit (C) between said proximal end portion and said distal end portion having a urine inlet opening at said proximal end portion and a urine outlet opening (4, P) at said distal end portion , and - a magnetically actuatable valve including a magnet located at said distal end portion for controlled discharge of urine from said catheter device through said outlet opening (4, P), - a magnetic actuator device separate from said catheter device , for operating said valve, characterized in that - said magnetic actuator device comprising a tubular housing with a first open end for receiving urine discharged from said catheter device , said housing having at said first open end an actuator for said operating of said valve, said actuator comprising a magnet or a magnetically attractive material, such as a body of a magnetically attractive material, wherein said first open end being configured for receiving, or being received by, said distal end portion with said magnetically actuatable valve and said outlet opening (4, P). - a catheter device for insertion into a urethra, the catheter device having: - a proximal end portion and an opposite distal end portion , - a conduit (C) between said proximal end portion and said distal end portion having a urine inlet opening at said proximal end portion and a urine outlet opening (4, P) at said distal end portion , and - a magnetically actuatable valve including a magnet located at said distal end portion for controlled discharge of urine from said catheter device through said outlet opening (4, P), - a proximal end portion and an opposite distal end portion , - a conduit (C) between said proximal end portion and said distal end portion having a urine inlet opening at said proximal end portion and a urine outlet opening (4, P) at said distal end portion , and - a magnetically actuatable valve including a magnet located at said distal end portion for controlled discharge of urine from said catheter device through said outlet opening (4, P), - a magnetic actuator device separate from said catheter device , for operating said valve, characterized in that - said magnetic actuator device comprising a tubular housing with a first open end for receiving urine discharged from said catheter device , said housing having at said first open end an actuator for said operating of said valve, said actuator comprising a magnet or a magnetically attractive material, such as a body of a magnetically attractive material, wherein said first open end being configured for receiving, or being received by, said distal end portion with said magnetically actuatable valve and said outlet opening (4, P).
A method of processing a sample to release nucleic acids therefrom and detect the nucleic acids, the method comprising: forming a mixture comprising the sample and a lysis and stabilizing reagent, the lysis and stabilizing reagent comprising a cationic detergent, the cationic detergent being capable of lysing cells present in the sample and forming a complex with nucleic acids released from the cells, wherein the lysis and stabilizing reagent is provided in an amount sufficient to stabilize and prevent nucleic acid degradation; separating the complex from the mixture; resuspending the separated complex in an aqueous solution, thereby obtaining an aqueous suspension comprising the separated complex; and heating the aqueous suspension to a temperature above 50 degrees Celsius for a time duration suitable for dissociating the complex, thereby releasing the nucleic acids therefrom; and in the absence of performing an intermediate nucleic acid extraction step, performing a molecular amplification assay to detect the nucleic acids. forming a mixture comprising the sample and a lysis and stabilizing reagent, the lysis and stabilizing reagent comprising a cationic detergent, the cationic detergent being capable of lysing cells present in the sample and forming a complex with nucleic acids released from the cells, wherein the lysis and stabilizing reagent is provided in an amount sufficient to stabilize and prevent nucleic acid degradation; separating the complex from the mixture; resuspending the separated complex in an aqueous solution, thereby obtaining an aqueous suspension comprising the separated complex; and heating the aqueous suspension to a temperature above 50 degrees Celsius for a time duration suitable for dissociating the complex, thereby releasing the nucleic acids therefrom; and in the absence of performing an intermediate nucleic acid extraction step, performing a molecular amplification assay to detect the nucleic acids.
A cross-linked rubber laminate comprising: an acrylic rubber composition; and a fluororubber composition, wherein the acrylic rubber composition comprises a carboxyl group-containing acrylic rubber, a polyvalent amine compound, and a heteroatom-containing alcohol, wherein the heteroatom-containing alcohol is an amino alcohol, and wherein the acrylic rubber composition and the fluororubber composition adhere to each other through crosslinking. an acrylic rubber composition; and a fluororubber composition, wherein the acrylic rubber composition comprises a carboxyl group-containing acrylic rubber, a polyvalent amine compound, and a heteroatom-containing alcohol, wherein the heteroatom-containing alcohol is an amino alcohol, and wherein the acrylic rubber composition and the fluororubber composition adhere to each other through crosslinking.
A Butler matrix circuit comprising: four input ports (A1-A4); four output ports (B1-B4); a first 90° hybrid coupler coupled to a first input port (A1) and a second input port (A2); a second 90° hybrid coupler coupled to a third input port (A3) and a fourth input port (A4); a third 90° hybrid coupler coupled to a first output port (B1) and a third output port (B3); a fourth 90° hybrid coupler coupled to a second output port (B2) and a fourth output port (B4); a first 90° delay circuit provided between the first 90° hybrid coupler and the third 90° hybrid coupler; and a second 90° delay circuit provided between the first 90° hybrid coupler and the fourth 90° hybrid coupler, the second 90° hybrid coupler being directly coupled to the third and fourth 90° hybrid couplers, characterized by a first 180° delay circuit provided between the third 90° hybrid coupler and the third output port (B3); and a second 180° delay circuit provided between the fourth 90° hybrid coupler and the fourth output port (B4). four input ports (A1-A4); four output ports (B1-B4); a first 90° hybrid coupler coupled to a first input port (A1) and a second input port (A2); a second 90° hybrid coupler coupled to a third input port (A3) and a fourth input port (A4); a third 90° hybrid coupler coupled to a first output port (B1) and a third output port (B3); a fourth 90° hybrid coupler coupled to a second output port (B2) and a fourth output port (B4); a first 90° delay circuit provided between the first 90° hybrid coupler and the third 90° hybrid coupler; and a second 90° delay circuit provided between the first 90° hybrid coupler and the fourth 90° hybrid coupler, the second 90° hybrid coupler being directly coupled to the third and fourth 90° hybrid couplers, characterized by a first 180° delay circuit provided between the third 90° hybrid coupler and the third output port (B3); and a second 180° delay circuit provided between the fourth 90° hybrid coupler and the fourth output port (B4).
An optical connector comprising: an optical fiber ; a ferrule provided at an end portion of the optical fiber ; a housing in which the ferrule is accommodated; a lock arm that is provided on the housing and is flexibly deformed when being fitted with a mating housing and restores after the fitting to lock the mating housing so that the housing and the mating housing are held in a fitted state; a holder assembled to the housing to hold the ferrule in the housing ; and a holder protrusion that is provided on the holder characterized in that the holder protrusion is adapted to be pressed by the lock arm when the lock arm flexibly deformed in an unlocking direction by a predetermined amount or more such that the holder is displaced in a direction of releasing the ferrule from being held by the holder . an optical fiber ; a ferrule provided at an end portion of the optical fiber ; a housing in which the ferrule is accommodated; a lock arm that is provided on the housing and is flexibly deformed when being fitted with a mating housing and restores after the fitting to lock the mating housing so that the housing and the mating housing are held in a fitted state; a holder assembled to the housing to hold the ferrule in the housing ; and a holder protrusion that is provided on the holder characterized in that the holder protrusion is adapted to be pressed by the lock arm when the lock arm flexibly deformed in an unlocking direction by a predetermined amount or more such that the holder is displaced in a direction of releasing the ferrule from being held by the holder .
Method for preparing calcium carbonate comprising the following steps: - preparing a first solution of NaHCO 3 in H 2 O; - preparing a second solution of CaCl 2 in H 2 O; - mixing the two solutions; - atomizing the thus obtained solution in a pre-heated air flow at a temperature of 160°C, obtaining the formation of calcium carbonate in powder and sodium chloride characterized in that said solutions are mixed by means of a peristaltic pump which sucks, through independent channels, from containers of the two starting solutions before being atomized, thus avoiding the calcium carbonate precipitate to be formed before the atomizing in that the reaction is carried out without surfactants and in that said air flow is 667 L/h, the liquid flow rate of the mixed solutions is of 12,5 ml/min and in that calcium carbonate nanorods 100 nm long and 50 nm wide are obtained. - preparing a first solution of NaHCO 3 in H 2 O; - preparing a second solution of CaCl 2 in H 2 O; - mixing the two solutions; - atomizing the thus obtained solution in a pre-heated air flow at a temperature of 160°C, obtaining the formation of calcium carbonate in powder and sodium chloride
A submersible pumping system comprising: an electric motor that is filled with a motor lubricant fluid; a rotary hydraulic pump driven by the electric motor , wherein the rotary hydraulic pump produces a pressurized working fluid, characterized in that the rotary hydraulic pump comprises: a rotatable pump shaft driven by the electric motor ; a plurality of linearly reciprocating piston assemblies ; and a camshaft assembly connected to the rotatable pump shaft and to the plurality of linearly reciprocating piston assemblies ; and the rotary hydraulic pump pumping the motor lubricant fluid to the linear hydraulic pump ; and linear hydraulic pump that is configured to move a production fluid, wherein the linear hydraulic pump is driven by the pressurized working fluid. an electric motor that is filled with a motor lubricant fluid; a rotary hydraulic pump driven by the electric motor , wherein the rotary hydraulic pump produces a pressurized working fluid, characterized in that the rotary hydraulic pump comprises: a rotatable pump shaft driven by the electric motor ; a plurality of linearly reciprocating piston assemblies ; and a camshaft assembly connected to the rotatable pump shaft and to the plurality of linearly reciprocating piston assemblies ; and the rotary hydraulic pump pumping the motor lubricant fluid to the linear hydraulic pump ; and linear hydraulic pump that is configured to move a production fluid, wherein the linear hydraulic pump is driven by the pressurized working fluid. a rotatable pump shaft driven by the electric motor ; a plurality of linearly reciprocating piston assemblies ; and a camshaft assembly connected to the rotatable pump shaft and to the plurality of linearly reciprocating piston assemblies ; and the rotary hydraulic pump pumping the motor lubricant fluid to the linear hydraulic pump ; and linear hydraulic pump that is configured to move a production fluid, wherein the linear hydraulic pump is driven by the pressurized working fluid.
A process for production of red ginseng hydrolysis concentrate comprising: adding water or alcohol to a mixture containing bamboo shoot, Japanese gerbera ( Leibnitzia anandria ) leaf, oriental arbor vitae ( Platycladus orientalis ) fruit, and false daisy ( Eclipta prostrata ) followed by extraction and filtration to prepare an extract; adding water or alcohol to Ecklonia cava followed by extraction to prepare an Ecklonia cava extract; adding the extract prepared in the above step to red ginseng followed by extraction and filtration to prepare a red ginseng extract; adding the Ecklonia cava extract prepared in the above step to red ginseng separated from the red ginseng extract prepared in the above step followed by extraction and filtration to prepare a red ginseng extract; mixing the red ginseng extract prepared in the above step with the red ginseng extract prepared in the above step followed by concentration to prepare red ginseng concentrate; adding an enzyme solution comprising beta-glucosidase and pectinase to the red ginseng concentrate prepared in the above step to have an enzyme reaction followed by addition of alcohol to prepare a mixture solution of red ginseng and alcohol; and centrifuging the mixture solution of red ginseng and alcohol prepared in the above step followed by concentration under reduced pressure of a supernatant separated by the centrifuge. adding water or alcohol to a mixture containing bamboo shoot, Japanese gerbera ( Leibnitzia anandria ) leaf, oriental arbor vitae ( Platycladus orientalis ) fruit, and false daisy ( Eclipta prostrata ) followed by extraction and filtration to prepare an extract; adding water or alcohol to Ecklonia cava followed by extraction to prepare an Ecklonia cava extract; adding the extract prepared in the above step to red ginseng followed by extraction and filtration to prepare a red ginseng extract; adding the Ecklonia cava extract prepared in the above step to red ginseng separated from the red ginseng extract prepared in the above step followed by extraction and filtration to prepare a red ginseng extract; mixing the red ginseng extract prepared in the above step with the red ginseng extract prepared in the above step followed by concentration to prepare red ginseng concentrate; adding an enzyme solution comprising beta-glucosidase and pectinase to the red ginseng concentrate prepared in the above step to have an enzyme reaction followed by addition of alcohol to prepare a mixture solution of red ginseng and alcohol; and centrifuging the mixture solution of red ginseng and alcohol prepared in the above step followed by concentration under reduced pressure of a supernatant separated by the centrifuge.
A liquid laundry detergent composition comprising; a. between 5% and 35% by weight of the liquid laundry detergent composition of an amine neutralised C 12-14 linear alkylbenzene sulphonate; b. between 0.05% and 3% by weight of the liquid laundry detergent composition of a first polymer, wherein the first polymer is a cationically modified polysaccharide; c. between 0.05% and 3% by weight of the liquid laundry detergent composition of a second polymer, wherein the second polymer is a cellulosic polymer. a. between 5% and 35% by weight of the liquid laundry detergent composition of an amine neutralised C 12-14 linear alkylbenzene sulphonate; b. between 0.05% and 3% by weight of the liquid laundry detergent composition of a first polymer, wherein the first polymer is a cationically modified polysaccharide; c. between 0.05% and 3% by weight of the liquid laundry detergent composition of a second polymer, wherein the second polymer is a cellulosic polymer.