mhurhangee/patent-ind-claim-en huggingface dataset:
Method for preparing a potato product for finish-frying, comprising the steps of: - supplying a quantity of potatoes of a potato variety with an underwater weight equal to or lower than 300 g/5 kg; - washing, peeling and cutting the supplied potatoes to form a basic potato product; - blanching the basic potato product to form a blanched potato product, wherein the blanching time lies in the range of 8 to 12 minutes and the blanching temperature lies in the range of 74 to 84°C; - drying the blanched potato product; - applying a composition comprised of by weight relative to the weight of the composition: - 30-60% modified starch with an amylose content of at least 60%; - 20-30% flour derived from rice; - 5-20% dextrin; - 2-10% unmodified starch derived from corn; and - 0.01-2% carbonate, to coat the blanched and dried potato product to form a coated potato product; and - pre-frying the coated potato product to form a pre-fried potato product, wherein the steps provide a potato product having a dry substance percentage after coating in the range of 30 - 55%, wherein the energetic value is lower than 190 kCal/100 g after finish-frying. - supplying a quantity of potatoes of a potato variety with an underwater weight equal to or lower than 300 g/5 kg; - washing, peeling and cutting the supplied potatoes to form a basic potato product; - blanching the basic potato product to form a blanched potato product, wherein the blanching time lies in the range of 8 to 12 minutes and the blanching temperature lies in the range of 74 to 84°C; - drying the blanched potato product; - applying a composition comprised of by weight relative to the weight of the composition: - 30-60% modified starch with an amylose content of at least 60%; - 20-30% flour derived from rice; - 5-20% dextrin; - 2-10% unmodified starch derived from corn; and - 0.01-2% carbonate, to coat the blanched and dried potato product to form a coated potato product; and - 30-60% modified starch with an amylose content of at least 60%; - 20-30% flour derived from rice; - 5-20% dextrin; - 2-10% unmodified starch derived from corn; and - 0.01-2% carbonate, - pre-frying the coated potato product to form a pre-fried potato product,
Device for producing a patch of a layer structure on a substrate by applying a material onto the substrate and melting the material by directing a high energetic electron beam onto the material, and for measuring a thickness (T) of the patch , in particular a functional area of an electrical element , comprising an electron source for emitting an electron beam , an electron acceleration device for accelerating the electrons in the electron beam , a detector for detecting a signal coming from the patch that is subjected to the electron beam , the device being adapted to move the patch and the electron beam relative to each other, and wherein the device comprises an analyzing device for determining the thickness (T) of the patch , wherein the device is adapted to melt the patch with the electron beam .
A method of allocating shared radio resources in a spectrum shared system , the method comprising: obtaining, by a system controller of the spectrum shared system , identification information from at least one radio service device of the spectrum shared system and a node unit of a distributed antenna system; determining, by the system controller of the spectrum shared system , whether the at least one radio service device interoperates with the distributed antenna system based on the identification information; and allocating, by the system controller of the spectrum shared system , the shared radio resources to the at least one radio service device and the distributed antenna system, respectively, based on a result of the determining of interoperating. obtaining, by a system controller of the spectrum shared system , identification information from at least one radio service device of the spectrum shared system and a node unit of a distributed antenna system; determining, by the system controller of the spectrum shared system , whether the at least one radio service device interoperates with the distributed antenna system based on the identification information; and allocating, by the system controller of the spectrum shared system , the shared radio resources to the at least one radio service device and the distributed antenna system, respectively, based on a result of the determining of interoperating.
A composition for use in treating pancreatic cancer in a subject comprising and one or more anti-cancer agents, wherein the one or more anti-cancer agents is erlotinib, 5-FU, oxaliplatin, irinotecan, gemcitabine, paclitaxel, or a combination thereof.
A phthalonitrile resin comprising a polymerized unit derived from a compound of Formula 1 below: wherein, A is an alkylene group or an alkylidene group, having 1 to 20 carbon atoms, Q 1 and Q 2 are an aromatic divalent radical substituted with at least one alkyl group, L 1 and L 2 are each independently an alkylene group, an alkylidene group, an oxygen atom or a sulfur atom, R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group, an aryl group or a cyano group, provided that at least two of R 1 to R 5 are a cyano group and at least two of R 6 to R 10 are a cyano group wherein Q 1 and Q 2 in Formula 1 are each independently a radical derived from an aromatic compound of Formula 2 below: wherein, R a to R f are each independently hydrogen, an alkyl group, an alkoxy group or an aryl group, where two of R a to R f form a covalent bond, provided that any one of two forming said covalent bond forms a covalent bond with L 1 or L 2 in Formula 1 and the other forms a covalent bond with A in Formula 1, and at least one of the substituents not forming said covalent bond among R a to R f is an alkyl group: wherein the substituent present in the para position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 forms a covalent bond with L 1 or L 2 in Formula 1; and wherein two substituents present in the meta position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 are an alkyl group having 1 to 4 carbon atoms. wherein, A is an alkylene group or an alkylidene group, having 1 to 20 carbon atoms, Q 1 and Q 2 are an aromatic divalent radical substituted with at least one alkyl group, L 1 and L 2 are each independently an alkylene group, an alkylidene group, an oxygen atom or a sulfur atom, R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group, an aryl group or a cyano group, provided that at least two of R 1 to R 5 are a cyano group and at least two of R 6 to R 10 are a cyano group wherein Q 1 and Q 2 in Formula 1 are each independently a radical derived from an aromatic compound of Formula 2 below: wherein, R a to R f are each independently hydrogen, an alkyl group, an alkoxy group or an aryl group, where two of R a to R f form a covalent bond, provided that any one of two forming said covalent bond forms a covalent bond with L 1 or L 2 in Formula 1 and the other forms a covalent bond with A in Formula 1, and at least one of the substituents not forming said covalent bond among R a to R f is an alkyl group: wherein the substituent present in the para position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 forms a covalent bond with L 1 or L 2 in Formula 1; and wherein two substituents present in the meta position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 are an alkyl group having 1 to 4 carbon atoms.
A system comprising: a plurality of cells configured to provide wireless network connectivity to devices, each cell being configured to generate and send a demand, each demand indicating a current load for the one of the plurality of cells, and indicating an anticipated load for the one of the plurality of cells at a predetermined subsequent time; and a connector node in wireless communication with the plurality of cells over a shared wireless backhaul channel, the connector node configured to provide backhaul to or from a core network, the connector node configured to: receive said demand from each of the plurality of cells; determine a particular backhaul rate for each of the plurality of cells based on the demands received, on characteristics of the shared wireless backhaul channel and on assigned backhaul rates associated with the other cells of the plurality of cells, and allocate capacity based on the particular backhaul rates; wherein the connector node determines the particular backhaul rate for each cell of the plurality of cells to be equal to the demand when the demands from the plurality of cells is a set of achievable rates, and the particular backhaul rate for each of the plurality of cells to be set to an achievable rate based on the set of demands from the plurality of cells and on channel characteristics when the set of demands is determined to be unachievable. a plurality of cells configured to provide wireless network connectivity to devices, each cell being configured to generate and send a demand, each demand indicating a current load for the one of the plurality of cells, and indicating an anticipated load for the one of the plurality of cells at a predetermined subsequent time; and a connector node in wireless communication with the plurality of cells over a shared wireless backhaul channel, the connector node configured to provide backhaul to or from a core network, the connector node configured to: receive said demand from each of the plurality of cells; determine a particular backhaul rate for each of the plurality of cells based on the demands received, on characteristics of the shared wireless backhaul channel and on assigned backhaul rates associated with the other cells of the plurality of cells, and allocate capacity based on the particular backhaul rates; receive said demand from each of the plurality of cells; determine a particular backhaul rate for each of the plurality of cells based on the demands received, on characteristics of the shared wireless backhaul channel and on assigned backhaul rates associated with the other cells of the plurality of cells, and allocate capacity based on the particular backhaul rates; wherein the connector node determines the particular backhaul rate for each cell of the plurality of cells to be equal to the demand when the demands from the plurality of cells is a set of achievable rates, and the particular backhaul rate for each of the plurality of cells to be set to an achievable rate based on the set of demands from the plurality of cells and on channel characteristics when the set of demands is determined to be unachievable.
A method for response frame type indication in a wireless network comprising an access point, AP, and a station, the method comprising: indicating , in a frame scheduled for transmission, using an indication value, one response frame type from a plurality of response frame types predefined in accordance to transmission durations of the response frame types, wherein each of the response frame types is associated with a different class of transmission duration; transmitting the frame on an access channel for one or more communication devices; wherein the response frame types include a no response type, a null data packet, NDP, response type, a normal size response type, and a long response type, wherein the normal size response type includes a normal acknowledgement, ACK, size response type and a normal block ACK, BA, size response type, wherein the NDP response type includes an NDP ACK response type and an NDP BA response type; wherein the no response type is assigned a first value, the NDP response type is assigned a second value, the normal size response type is assigned a third value, and the long response type is assigned a fourth value, wherein the indication value is one of the first value, the second value, the third value and the fourth value. indicating , in a frame scheduled for transmission, using an indication value, one response frame type from a plurality of response frame types predefined in accordance to transmission durations of the response frame types, wherein each of the response frame types is associated with a different class of transmission duration; transmitting the frame on an access channel for one or more communication devices; wherein the response frame types include a no response type, a null data packet, NDP, response type, a normal size response type, and a long response type, wherein the normal size response type includes a normal acknowledgement, ACK, size response type and a normal block ACK, BA, size response type, wherein the NDP response type includes an NDP ACK response type and an NDP BA response type; wherein the no response type is assigned a first value, the NDP response type is assigned a second value, the normal size response type is assigned a third value, and the long response type is assigned a fourth value, wherein the indication value is one of the first value, the second value, the third value and the fourth value.
A cleaning device for cleaning a pipe from the inside, the cleaning device comprising: a front body member having apertures defined therein for accommodating a first end of pins ; a back body member having apertures defined therein for accommodating a second end of pins , and having a connector for connecting a drive shaft and being rotatable about a rotation axis with the drive shaft; pins extending from the first body member to the second body member in a direction parallel to the rotation axis; a first set of cutters having cutting edges provided on the cutters and each cutter having an aperture defined therein and extending through the cutter for accommodating one pin between the first ends and the second ends, said cutters are rigid and pivotally connected to said pins allowing said cutters to pivot in a plane perpendicular to the rotation axis characterized in that the cutters have a curved shape with a convex surface and an opposing concave surface facing towards the body of the cleaning device, wherein the cutting edges are provided on the convex surface and said cutting edges are parallel to the rotation axis of the cleaning device. a front body member having apertures defined therein for accommodating a first end of pins ; a back body member having apertures defined therein for accommodating a second end of pins , and having a connector for connecting a drive shaft and being rotatable about a rotation axis with the drive shaft; pins extending from the first body member to the second body member in a direction parallel to the rotation axis; a first set of cutters having cutting edges provided on the cutters and each cutter having an aperture defined therein and extending through the cutter for accommodating one pin between the first ends and the second ends, said cutters are rigid and pivotally connected to said pins allowing said cutters to pivot in a plane perpendicular to the rotation axis characterized in that the cutters have a curved shape with a convex surface and an opposing concave surface facing towards the body of the cleaning device, wherein the cutting edges are provided on the convex surface and said cutting edges are parallel to the rotation axis of the cleaning device.
An electric control assembly for an air conditioner, comprising: an electric control board , comprising: a MCU ; a driving circuit ; a switch device ; a rectifier circuit mounting position ; a wave-filtering circuit mounting position ; a first power supply interface ; a second power supply interface ; and a first alternating current power supply input interface ; wherein, the electric control board inputs an external alternating current power supply from the first alternating current power supply input interface ; wherein the first power supply interface is connected to the first alternating current power supply input interface to output a high-voltage alternating current, the second power supply interface is connected to the rectifier circuit mounting position , the rectifier circuit mounting position is connected to the wave-filtering circuit mounting position , the wave-filtering circuit mounting position is connected to the driving circuit , and the second power supply interface is configured to be connected to a low-voltage alternating current power supply or a low-voltage direct-current power supply; wherein the MCU is configured to control the driving circuit to drive the switch device to be switched on or off in order to drive a load to operate; characterized in that , the first power supply interface is a plug or a socket which is configured to be plugged in, and the second power supply interface is a plug or a socket which is configured to be plugged in. an electric control board , comprising: a MCU ; a driving circuit ; a switch device ; a rectifier circuit mounting position ; a MCU ; a driving circuit ; a switch device ; a rectifier circuit mounting position ; a wave-filtering circuit mounting position ; a first power supply interface ; a second power supply interface ; and a first alternating current power supply input interface ; wherein, the electric control board inputs an external alternating current power supply from the first alternating current power supply input interface ; wherein the first power supply interface is connected to the first alternating current power supply input interface to output a high-voltage alternating current, the second power supply interface is connected to the rectifier circuit mounting position , the rectifier circuit mounting position is connected to the wave-filtering circuit mounting position , the wave-filtering circuit mounting position is connected to the driving circuit , and the second power supply interface is configured to be connected to a low-voltage alternating current power supply or a low-voltage direct-current power supply; wherein the MCU is configured to control the driving circuit to drive the switch device to be switched on or off in order to drive a load to operate; characterized in that , the first power supply interface is a plug or a socket which is configured to be plugged in, and the second power supply interface is a plug or a socket which is configured to be plugged in.
An image processing apparatus comprising: first obtaining means for obtaining examination information; readout means for reading out learning result data selected based on the examination information from storage means for storing at least one piece of learning result data that has been obtained by machine learning in advance; second obtaining means for obtaining a medical image obtained based on the examination information obtained by the first obtaining means; and processing means for processing the medical image obtained by the second obtaining means using learning result data read out by the readout means. first obtaining means for obtaining examination information; readout means for reading out learning result data selected based on the examination information from storage means for storing at least one piece of learning result data that has been obtained by machine learning in advance; second obtaining means for obtaining a medical image obtained based on the examination information obtained by the first obtaining means; and processing means for processing the medical image obtained by the second obtaining means using learning result data read out by the readout means.
An electrostatic charge image developer comprising: a toner containing a toner particle and an external additive; and a carrier containing a magnetic particle which is a particle of a magnetic oxide wherein the particle of a magnetic oxide is selected from ferrite and magnetite, and a resin layer covering the magnetic particle and the resin layer has an average thickness of 0.6 μm or more and 1.4 μm or less as determined in accordance with the description, wherein the toner particle has a surface property index value of 1.0 or more and less than 2.0 and is measured in accordance with the description; and the toner contains a binder resin and the binder resin is a polyester resin including a crystalline polyester resin in combination with an amorphous polyester resin and the crystalline polyester resin is used in a range in which a content thereof is 2 mass% or more and 40 mass% or less with respect to a total amount of the binder resin; the carrier has a surface having a ratio B/A of a surface area B to a plane view area A of 1.020 or more and 1.100 or less, the plane view area A and the surface area B being obtained by three-dimensional analysis of the surface of the carrier and in accordance with the description; the resin layer contains an acrylic resin having an alicyclic; and the resin layer comprises silica particles, and has a silicon element concentration of more than 2 atomic% and less than 20 atomic% at the surface of the carrier, the silicon element concentration being determined by X-ray photoelectron spectroscopy and in accordance with the description. a toner containing a toner particle and an external additive; and a carrier containing a magnetic particle which is a particle of a magnetic oxide wherein the particle of a magnetic oxide is selected from ferrite and magnetite, and a resin layer covering the magnetic particle and the resin layer has an average thickness of 0.6 μm or more and 1.4 μm or less as determined in accordance with the description, wherein the toner particle has a surface property index value of 1.0 or more and less than 2.0 and is measured in accordance with the description; and the toner contains a binder resin and the binder resin is a polyester resin including a crystalline polyester resin in combination with an amorphous polyester resin and the crystalline polyester resin is used in a range in which a content thereof is 2 mass% or more and 40 mass% or less with respect to a total amount of the binder resin; the carrier has a surface having a ratio B/A of a surface area B to a plane view area A of 1.020 or more and 1.100 or less, the plane view area A and the surface area B being obtained by three-dimensional analysis of the surface of the carrier and in accordance with the description; the resin layer contains an acrylic resin having an alicyclic; and the resin layer comprises silica particles, and has a silicon element concentration of more than 2 atomic% and less than 20 atomic% at the surface of the carrier, the silicon element concentration being determined by X-ray photoelectron spectroscopy and in accordance with the description.
A phototherapy system for treating or controlling an amount of carbon monoxide poisoning in a patient, comprising: a light source in communication with an aerosolizing element ; and a tube configured to provide communication between the light source and an airway , the airway configured to provide communication to at least one of a nose and a mouth of the patient; wherein the light source is a plurality of light-emitting particles; and wherein the aerosolizing element is configured to aerosolize the light source to deliver the light source to the patient by ventilation of gas through the airway. a light source in communication with an aerosolizing element ; and a tube configured to provide communication between the light source and an airway , the airway configured to provide communication to at least one of a nose and a mouth of the patient; wherein the light source is a plurality of light-emitting particles; and wherein the aerosolizing element is configured to aerosolize the light source to deliver the light source to the patient by ventilation of gas through the airway.