mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling device attached to a power transmitting device that is adapted to perform wireless power supply using a coil to a movable power receiving device , said cooling device cooling a coil provided on the power receiving device , characterized in that said cooling is achieved by spraying a coolant (W) toward said coil , wherein the cooling device comprises: a coolant jetting member where a coolant jet port is provided; a coolant flow line configured to supply the coolant (W) to the coolant jetting member ; an electromagnetic valve configured to open and close a flow path of the coolant flow line ; an inclination adjusting device configured to adjust an angle of the coolant jetting member ; and a control unit configured to drive the inclination adjusting device in accordance with a size of the coil , wherein the cooling device is configured to spray the coolant (W) when an amount of heat generated by the coil exceeds a threshold by driving the electromagnetic valve to be opened and closed. said cooling is achieved by spraying a coolant (W) toward said coil , wherein the cooling device comprises: a coolant jetting member where a coolant jet port is provided; a coolant flow line configured to supply the coolant (W) to the coolant jetting member ; an electromagnetic valve configured to open and close a flow path of the coolant flow line ; an inclination adjusting device configured to adjust an angle of the coolant jetting member ; and a control unit configured to drive the inclination adjusting device in accordance with a size of the coil , a coolant jetting member where a coolant jet port is provided; a coolant flow line configured to supply the coolant (W) to the coolant jetting member ; an electromagnetic valve configured to open and close a flow path of the coolant flow line ; an inclination adjusting device configured to adjust an angle of the coolant jetting member ; and a control unit configured to drive the inclination adjusting device in accordance with a size of the coil , wherein the cooling device is configured to spray the coolant (W) when an amount of heat generated by the coil exceeds a threshold by driving the electromagnetic valve to be opened and closed.
Gas burner, comprising a burner interior and a distribution device delimiting the latter and through which a gas-air mixture can flow, which distribution device has an inner surface (2.1) facing the burner interior with a hole structure and a burner surface (2.2) facing away from the burner interior with a hole structure for the gas-air mixture burning as a flame, wherein a rod-shaped ionization current sensor , which extends parallel to the burner surface (2.2), is associated with the burner surface (2.2) on the flame side, wherein a first surface region (2.2.1) of the burner surface (2.2) nearest to the ionization current sensor has a hole structure having a relatively small degree of opening and wherein a second surface region (2.2.2) with a hole structure having a larger degree of opening is respectively provided on both sides of the first surface region (2.2.1) and parallel to the ionization current sensor , characterized in that the hole structure of the inner surface (2.1) of the distribution device , which is opposite the ionization current sensor , is formed to be constant when viewed in the axial direction of the ionization current sensor , in that the burner surface (2.2), in addition to the two surface regions (2.2.1, 2.2.2), has a third surface region (2.2.3) with a hole structure, wherein the hole structures of the three surface regions (2.2.1, 2.2.2, 2.2.3) are formed differently.
A color conversion panel including a first pixel area (PA1), a second pixel area (PA2), a third pixel area (PA3), and a non-pixel area (NPA) positioned between the first pixel area, the second pixel area, and the third pixel area, the color conversion panel comprising: a substrate ; a light blocking layer in the non-pixel area on the substrate; a color filter layer including a first color filter in the first pixel area on the substrate, a second color filter in the second pixel area on the substrate, and a third color filter in the third pixel area on the substrate; a color conversion layer including a first color conversion pattern on the first color filter, a second color conversion pattern on the second color filter, and a light transmission pattern on third color filter; a first bank between the first color conversion pattern , the second color conversion pattern , and the light transmission pattern ; characterised by a second bank in an opening of the first bank, wherein the first bank is configured to transmit light incident to the first bank, and wherein the second bank is configured to reflect light incident to the second bank. a substrate ; a light blocking layer in the non-pixel area on the substrate; a color filter layer including a first color filter in the first pixel area on the substrate, a second color filter in the second pixel area on the substrate, and a third color filter in the third pixel area on the substrate; a color conversion layer including a first color conversion pattern on the first color filter, a second color conversion pattern on the second color filter, and a light transmission pattern on third color filter; a first bank between the first color conversion pattern , the second color conversion pattern , and the light transmission pattern ; characterised by a second bank in an opening of the first bank, wherein the first bank is configured to transmit light incident to the first bank, and wherein the second bank is configured to reflect light incident to the second bank.
Process for preparing lactose-free milk comprising the following steps: 1) pasteurization and skimming and obtainment of skimmed milk and cream, 2) enzymatic hydrolysis of the skimmed milk by lactase enzyme, 3) microfiltration (MF) of the hydrolysed skimmed milk with a ceramic membrane having a pore size of 1.4μm and obtainment of a microfiltration retentate (RMF) and of a microfiltration permeate (PMF), 4) PMF ultrafiltration and obtainment of an ultrafiltration retentate (RUF) and of an ultrafiltration permeate (PUF), 5) first PUF nanofiltration and obtainment of the first nanofiltration retentate (RNF1) and of a first nanofiltration permeate (PNF1), 6) second PNF1 nanofiltration and obtainment of a second nanofiltration retentate (RNF2) and of a second nanofiltration permeate (PNF2), and 7) obtainment of lactose-free milk by combining one or more of the aforesaid fractions deriving from one or more of the previous steps, wherein (I) the first nanofiltration of step 5) is carried out on membranes with a molecular size of 400-600 Da and the second nanofiltration of step 6) is carried out on membranes with a molecular size of 150-250 Da, and (II) the final step 7) is carried out by mixing a composition comprising: the ultrafiltration retentate (RUF), the first nanofiltration retentate (RNF1) and the second nanofiltration permeate (PNF2). 1) pasteurization and skimming and obtainment of skimmed milk and cream, 2) enzymatic hydrolysis of the skimmed milk by lactase enzyme, 3) microfiltration (MF) of the hydrolysed skimmed milk with a ceramic membrane having a pore size of 1.4μm and obtainment of a microfiltration retentate (RMF) and of a microfiltration permeate (PMF), 4) PMF ultrafiltration and obtainment of an ultrafiltration retentate (RUF) and of an ultrafiltration permeate (PUF), 5) first PUF nanofiltration and obtainment of the first nanofiltration retentate (RNF1) and of a first nanofiltration permeate (PNF1), 6) second PNF1 nanofiltration and obtainment of a second nanofiltration retentate (RNF2) and of a second nanofiltration permeate (PNF2), and 7) obtainment of lactose-free milk by combining one or more of the aforesaid fractions deriving from one or more of the previous steps, wherein (I) the first nanofiltration of step 5) is carried out on membranes with a molecular size of 400-600 Da and the second nanofiltration of step 6) is carried out on membranes with a molecular size of 150-250 Da, and (II) the final step 7) is carried out by mixing a composition comprising: the ultrafiltration retentate (RUF), the first nanofiltration retentate (RNF1) and the second nanofiltration permeate (PNF2). (I) the first nanofiltration of step 5) is carried out on membranes with a molecular size of 400-600 Da and the second nanofiltration of step 6) is carried out on membranes with a molecular size of 150-250 Da, and (II) the final step 7) is carried out by mixing a composition comprising: the ultrafiltration retentate (RUF), the first nanofiltration retentate (RNF1) and the second nanofiltration permeate (PNF2).
A rubidium elution system comprising an assembly that includes a 82 Sr/ 82 Rb generator , an activity detector , a waste container , a pump , a sensor, a tubing circuit, at least one valve ; and a computer, wherein: - the assembly has a lower section and an upper section, wherein the lower section consists of the lower half of the assembly, and - the waste container is located in the lower section of the assembly; - the waste container is enclosed in a waste compartment ; - the generator is enclosed in a generator compartment ; - the waste compartment is at an elevation within the assembly that is the same as an elevation at which the generator compartment is located; - the waste container is at an elevation that is lower than the pump; - the assembly further comprises a dose calibrator that is configured to detect at least one radioisotope; - the rubidium elution system further comprises locking means for preventing a user of the system from changing a configuration of the dose calibrator, wherein the dose calibrator further comprises an interface for configuring the dose calibrator, and wherein the locking means prevents a user from changing a configuration of the dose calibrator by locking the interface; - the rubidium elution system includes a sliding mechanism or a lifting mechanism for removing the waste container from the waste compartment. - the assembly has a lower section and an upper section, wherein the lower section consists of the lower half of the assembly, and - the waste container is located in the lower section of the assembly; - the waste container is enclosed in a waste compartment ; - the generator is enclosed in a generator compartment ; - the waste compartment is at an elevation within the assembly that is the same as an elevation at which the generator compartment is located; - the waste container is at an elevation that is lower than the pump; - the assembly further comprises a dose calibrator that is configured to detect at least one radioisotope; - the rubidium elution system further comprises locking means for preventing a user of the system from changing a configuration of the dose calibrator, wherein the dose calibrator further comprises an interface for configuring the dose calibrator, and wherein the locking means prevents a user from changing a configuration of the dose calibrator by locking the interface; - the rubidium elution system includes a sliding mechanism or a lifting mechanism for removing the waste container from the waste compartment.
A machine for preparing a beverage or food product from at least one ingredient, said machine comprising a sealable brew chamber , characterised in that the brew chamber comprises a spindle projecting upwardly from a base of the brew chamber , the diameter of the spindle being configured such that it receives a central bore of a compressed disc of the at least one ingredient so that said compressed disc is able to spin freely on the spindle , and at least one nozzle having an outlet in the brew chamber located to direct a jet of liquid at a peripheral edge of the compressed disc of the at least one ingredient when mounted in the brew chamber , such that when the jet of liquid impinges on the peripheral edge of the compressed disc the compressed disc is caused to rotate and disintegrate.
A polymerizable composition comprising an isocyanate component comprising alicyclic polyisocyanate (A-1)and non-cyclic aliphatic polyisocyanate (A-2) ; and a polythiol component comprising polythiol (B-1) and polythiol (B-2); wherein - the alicyclic polyisocyanate (A-1) is at least one of isophorone diisocyanate, methylene biscyclohexyl diisocyanate, bis(isocyanatemethyl)cyclohexane, and bis(isocyanatemethyl)bicyclo[2.2.1]heptane, - the non-cyclic aliphatic polyisocyanate (A-2) is at least one of hexamethylene diisocyanate and trimethylhexamethylene diisocyanate, - the polythiol (B-1) is at least one of 4,8-, 4,7- and 5,7-bis(mercaptomethyl)-3,6,9-trithiaundecane-1,11-dithiol, and, - the polythiol (B-2) is at least one of trimethylol propane tris(thioglycolate), trimethylol propane tris(3-mercaptopropionate), 1,4-butanediol bis(thioglycolate), and 1,4-butanediol bis(3-mercaptopropionate). - the alicyclic polyisocyanate (A-1) is at least one of isophorone diisocyanate, methylene biscyclohexyl diisocyanate, bis(isocyanatemethyl)cyclohexane, and bis(isocyanatemethyl)bicyclo[2.2.1]heptane, - the non-cyclic aliphatic polyisocyanate (A-2) is at least one of hexamethylene diisocyanate and trimethylhexamethylene diisocyanate, - the polythiol (B-1) is at least one of 4,8-, 4,7- and 5,7-bis(mercaptomethyl)-3,6,9-trithiaundecane-1,11-dithiol, and, - the polythiol (B-2) is at least one of trimethylol propane tris(thioglycolate), trimethylol propane tris(3-mercaptopropionate), 1,4-butanediol bis(thioglycolate), and 1,4-butanediol bis(3-mercaptopropionate).
An ultrasound image processing method, said method being computer-implemented and comprising: generating an ultrasound image indicating a region of interest (ROI) by using echo signals which correspond to ultrasound waves irradiated onto the ROI ; generating a reference for setting indexes; segmenting a plurality of blood flows from the ultrasound image, and automatically aligning the segmented blood flows in an order based on the generated reference; sequentially setting respective indexes in the aligned blood flows (311 - 315), which are different blood flows (311 - 315) from each other, included in the ROI detected based on the ultrasound image ; displaying the set indexes at positions respectively corresponding to the aligned blood flows in the ultrasound image; determining a blood flow (311 - 315) corresponding to a selected index, based on an external signal input by a user for selecting one of the set indexes; and displaying information corresponding to the determined blood flow (311 - 315), wherein the generating comprises: generating the reference for setting each of the indexes, based on the external signal input by the user for setting an index. generating an ultrasound image indicating a region of interest (ROI) by using echo signals which correspond to ultrasound waves irradiated onto the ROI ; generating a reference for setting indexes; segmenting a plurality of blood flows from the ultrasound image, and automatically aligning the segmented blood flows in an order based on the generated reference; sequentially setting respective indexes in the aligned blood flows (311 - 315), which are different blood flows (311 - 315) from each other, included in the ROI detected based on the ultrasound image ; displaying the set indexes at positions respectively corresponding to the aligned blood flows in the ultrasound image; determining a blood flow (311 - 315) corresponding to a selected index, based on an external signal input by a user for selecting one of the set indexes; and displaying information corresponding to the determined blood flow (311 - 315), wherein the generating comprises: generating the reference for setting each of the indexes, based on the external signal input by the user for setting an index.
A preparation method of a super absorbent polymer, comprising the steps of: cross-linking an acrylic acid-based monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent to form a hydrogel polymer; drying the hydrogel polymer to form a base resin; and heating the base resin in the presence of a surface cross-linking agent to perform surface modification to the base resin, wherein the internal cross-linking agent contains a compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R1 and R2 are each independently hydrogen or methyl, R3 and R4 are each independently a C1 to C20 alkyl, R5 is a linear or branched C1 to C20 alkylene substituted with a linear or branched C2 to C10 alkenyl, or a linear or branched C2 to C20 alkenylene, and n is an integer of 0 to 10. cross-linking an acrylic acid-based monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent to form a hydrogel polymer; drying the hydrogel polymer to form a base resin; and heating the base resin in the presence of a surface cross-linking agent to perform surface modification to the base resin, wherein the internal cross-linking agent contains a compound represented by the following Chemical Formula 1: R1 and R2 are each independently hydrogen or methyl, R3 and R4 are each independently a C1 to C20 alkyl, R5 is a linear or branched C1 to C20 alkylene substituted with a linear or branched C2 to C10 alkenyl, or a linear or branched C2 to C20 alkenylene, and n is an integer of 0 to 10.
A method of providing a simultaneous dual-band image sensor having a plurality of pixels comprising: providing a substrate; forming a common ground on the substrate; forming a Band 1 absorber layer on the common ground layer; forming a barrier layer on the Band 1 absorber layer; forming a Band 2 absorber layer on the barrier layer; reticulating each pixel by etching the Band 2 absorber layer, the barrier layer and the Band 1 absorber layer on sides of each pixel to but not through the common ground layer; etching a ring through the Band 2 absorber layer, and the barrier layer and into the Band 1 absorber layer but not through the Band 1 absorber layer; forming a first contact on a portion of the Band 2 absorber layer inside the ring; and forming a second contact on a portion of the Band 2 absorber layer outside the ring; wherein the Band 1 absorber layer is n-type and the Band 2 absorber layer is n-type; or wherein the Band 1 absorber layer is p-type and the Band 2 absorber layer is p-type. providing a substrate; forming a common ground on the substrate; forming a Band 1 absorber layer on the common ground layer; forming a barrier layer on the Band 1 absorber layer; forming a Band 2 absorber layer on the barrier layer; reticulating each pixel by etching the Band 2 absorber layer, the barrier layer and the Band 1 absorber layer on sides of each pixel to but not through the common ground layer; etching a ring through the Band 2 absorber layer, and the barrier layer and into the Band 1 absorber layer but not through the Band 1 absorber layer; forming a first contact on a portion of the Band 2 absorber layer inside the ring; and forming a second contact on a portion of the Band 2 absorber layer outside the ring; wherein the Band 1 absorber layer is n-type and the Band 2 absorber layer is n-type; or wherein the Band 1 absorber layer is p-type and the Band 2 absorber layer is p-type.
Method for refuelling a hydrogen tank of a motor vehicle with fuel-cell drive, wherein the method comprises the following steps: (a) determining a first operating time, at which the motor vehicle is to be put into operation, and a first operating location, where the motor vehicle is to be put into operation, (b) ascertaining a predicted maximum ambient temperature (T U,max ) at the first operating time at the first operating location, and (c) refuelling the hydrogen tank with hydrogen until a tank pressure (p) in the hydrogen tank reaches a permissible maximum tank pressure (p max ) at a tank temperature (T), wherein it holds true for the tank temperature (T) that: tank temperature (T) = [maximum ambient temperature (T U,max ); maximum ambient temperature (T U,max ) + 10 K], (d) relieving the pressure in the hydrogen tank , if it is determined that the tank pressure (p) will exceed the permissible maximum tank pressure (p max ), characterized by the following step: (e) ascertaining whether the ambient temperature (Tu) will exceed the tank temperature before the motor vehicle is started up, in order to determine whether the tank pressure (p) will exceed the permissible maximum tank pressure (p max ). (a) determining a first operating time, at which the motor vehicle is to be put into operation, and a first operating location, where the motor vehicle is to be put into operation, (b) ascertaining a predicted maximum ambient temperature (T U,max ) at the first operating time at the first operating location, and (c) refuelling the hydrogen tank with hydrogen until a tank pressure (p) in the hydrogen tank reaches a permissible maximum tank pressure (p max ) at a tank temperature (T), wherein it holds true for the tank temperature (T) that: tank temperature (T) = [maximum ambient temperature (T U,max ); maximum ambient temperature (T U,max ) + 10 K], (d) relieving the pressure in the hydrogen tank , if it is determined that the tank pressure (p) will exceed the permissible maximum tank pressure (p max ), characterized by the following step: (e) ascertaining whether the ambient temperature (Tu) will exceed the tank temperature before the motor vehicle is started up, in order to determine whether the tank pressure (p) will exceed the permissible maximum tank pressure (p max ).
An optical device comprising: a plurality of optics layers ; an edge sealant arranged along an edge of the optical device across the plurality of optics layers , wherein one or more sealant gaps are present in the edge sealant ; and a lamination dam arranged between each pair of adjacent optics layers of the plurality of optics layers to stop wicking of the edge sealant , between the optics layers , at a distance from the edge of the optical device, wherein one or more dam gaps are present in the lamination dam at one or more positions along the edge that each corresponds to a position of a respective sealant gap to allow air flow between an interior and an exterior of the optical device through the one or more sealant gaps and the one or more dam gaps , and wherein each dam gap has a length that is less than that of the corresponding sealant gap to inhibit the edge sealant from wicking through the dam gap into the interior of the optical device. a plurality of optics layers ; an edge sealant arranged along an edge of the optical device across the plurality of optics layers , wherein one or more sealant gaps are present in the edge sealant ; and a lamination dam arranged between each pair of adjacent optics layers of the plurality of optics layers to stop wicking of the edge sealant , between the optics layers , at a distance from the edge of the optical device, wherein one or more dam gaps are present in the lamination dam at one or more positions along the edge that each corresponds to a position of a respective sealant gap to allow air flow between an interior and an exterior of the optical device through the one or more sealant gaps and the one or more dam gaps , and wherein each dam gap has a length that is less than that of the corresponding sealant gap to inhibit the edge sealant from wicking through the dam gap into the interior of the optical device.