mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: obtaining, according to a quantity of actually transmitted synchronization signal blocks, at least two time-domain resource units in at least one physical downlink control channel, PDCCH, occasion, and the at least one PDCCH occasion being associated with one of the actually transmitted synchronization signal blocks; and wherein the at least one PDCCH occasion is comprised in a system information window and the at least two time-domain resource units in the at least one PDCCH occasion are non-consecutively distributed in time domain; and receiving a PDCCH carrying control information for system information on at least one of the time-domain resource units. obtaining, according to a quantity of actually transmitted synchronization signal blocks, at least two time-domain resource units in at least one physical downlink control channel, PDCCH, occasion, and the at least one PDCCH occasion being associated with one of the actually transmitted synchronization signal blocks; and wherein the at least one PDCCH occasion is comprised in a system information window and the at least two time-domain resource units in the at least one PDCCH occasion are non-consecutively distributed in time domain; and receiving a PDCCH carrying control information for system information on at least one of the time-domain resource units.
A hydrotreating catalyst for hydrocarbon oil using an oxide support containing aluminum and phosphorus, the oxide support containing 0.5 to 2.0 mass% of phosphorus in terms of P 2 O 5 , the oxide support carrying a metal in Group 6A of the periodic table, and a metal in Group 8 of the periodic table, the hydrotreating catalyst having a specific surface area of 150 m 2 /g or more as measured by the BET method, the hydrotreating catalyst having a total pore volume of 0.40 to 0.75 ml/g as measured by a mercury intrusion method, the hydrotreating catalyst having two maximal peaks in a pore diameter range of 6 nm to 13 nm in a log differential pore volume distribution measured by a mercury intrusion method, the hydrotreating catalyst having an abrasion strength of 0.5% or less as measured based on ASTM D4058-81, and the hydrotreating catalyst having a compressive strength of 15 N/mm or more as measured using a Kiya hardness meter. the oxide support containing 0.5 to 2.0 mass% of phosphorus in terms of P 2 O 5 , the oxide support carrying a metal in Group 6A of the periodic table, and a metal in Group 8 of the periodic table, the hydrotreating catalyst having a specific surface area of 150 m 2 /g or more as measured by the BET method, the hydrotreating catalyst having a total pore volume of 0.40 to 0.75 ml/g as measured by a mercury intrusion method, the hydrotreating catalyst having two maximal peaks in a pore diameter range of 6 nm to 13 nm in a log differential pore volume distribution measured by a mercury intrusion method, the hydrotreating catalyst having an abrasion strength of 0.5% or less as measured based on ASTM D4058-81, and the hydrotreating catalyst having a compressive strength of 15 N/mm or more as measured using a Kiya hardness meter.
A guide disk for a gas cooker, wherein the guide disk comprises - a main body , which comprises a panel , a side wall and a central hole for receiving the burner of the gas cooker, - a cover plate , which comprises a plate body portion and a middle hole for receiving the burner of the gas cooker, - an air passage is formed between the main body and the cover plate leads to the middle hole of the cover plate , wherein the cover plate is placed above the main body , wherein a void is formed between an edge forming the middle hole and the burner , and wherein in a use state, air flows to the burner through the air passage and the void , wherein the main body of the guide disk further comprises a first liquid containing sink , wherein the first liquid containing sink is configured to contain liquid drops dropping into the void and wherein the cover plate further comprises a second liquid containing sink , characterized in that the main body has a side wall, the side wall of the main body comprises at least one first side wall portion and at least one second side wall portion , wherein the second side wall portion is offset to adjacent first side wall portions towards a centre hole of the main body , and an air inlet is provided in the second side wall portion . - a main body , which comprises a panel , a side wall and a central hole for receiving the burner of the gas cooker, - a cover plate , which comprises a plate body portion and a middle hole for receiving the burner of the gas cooker, - an air passage is formed between the main body and the cover plate leads to the middle hole of the cover plate ,
A nozzle of a cleaner, comprising: a nozzle body provided with a suction passage configured to suction air; a rotation cleaning part rotatably disposed below the nozzle body and provided with a rotation plate to which a rag is attached; a driving device provided in the nozzle body and including a driving motor configured to drive the rotation cleaning part ; a water tank mounted on an upper portion of the nozzle body , the water tank being configured to store water to be supplied to the rotation cleaning part; a water supply passage provided in the nozzle body and configured to communicate with the water tank , the water supply passage being configured to supply water of the water tank to the rotation cleaning part; a water pump disposed on the water supply passage, the water pump being connected to a pump motor and configured to generate a flow while rotating; and a water adjusting unit mounted on the nozzle body and of which at least a portion of the water adjusting unit is exposed through a rear surface or a top surface of the nozzle body at a rear of the nozzle body thereby enabling a user standing on the same floor as the nozzle body to manipulate the water adjusting unit by using a foot of the user, characterized by the water adjusting unit being configured to adjust an on/off operation and a rotation speed, rpm, of the pump motor . a nozzle body provided with a suction passage configured to suction air; a rotation cleaning part rotatably disposed below the nozzle body and provided with a rotation plate to which a rag is attached; a driving device provided in the nozzle body and including a driving motor configured to drive the rotation cleaning part ; a water tank mounted on an upper portion of the nozzle body , the water tank being configured to store water to be supplied to the rotation cleaning part; a water supply passage provided in the nozzle body and configured to communicate with the water tank , the water supply passage being configured to supply water of the water tank to the rotation cleaning part; a water pump disposed on the water supply passage, the water pump being connected to a pump motor and configured to generate a flow while rotating; and a water adjusting unit mounted on the nozzle body and of which at least a portion of the water adjusting unit is exposed through a rear surface or a top surface of the nozzle body at a rear of the nozzle body thereby enabling a user standing on the same floor as the nozzle body to manipulate the water adjusting unit by using a foot of the user, characterized by the water adjusting unit being configured to adjust an on/off operation and a rotation speed, rpm, of the pump motor .
Method for wastewater treatment comprising: • a first step (A) of processing carbon contained in the wastewater by means of oxygen, which is carried out in a first reactor , • a second step (B) of eliminating nitrogen contained in the treated water in the form of gaseous nitrogen, which is different from the first step (A) and is carried out at the end of the first step (A) in a second reactor which is different from the first reactor , characterised in that it further comprises: • a third step of determining a magnitude which is representative of a ratio (C/N) between a concentration of carbon and a concentration of nitrogen in the water between the first step (A) and the second step (B), • a fourth step of controlling the supply of oxygen required in the first step (A) in order to minimise a deviation between the determination carried out in the third step and a setpoint which is representative of the ratio of concentrations and which is strictly positive. • a first step (A) of processing carbon contained in the wastewater by means of oxygen, which is carried out in a first reactor , • a second step (B) of eliminating nitrogen contained in the treated water in the form of gaseous nitrogen, which is different from the first step (A) and is carried out at the end of the first step (A) in a second reactor which is different from the first reactor , • a third step of determining a magnitude which is representative of a ratio (C/N) between a concentration of carbon and a concentration of nitrogen in the water between the first step (A) and the second step (B), • a fourth step of controlling the supply of oxygen required in the first step (A) in order to minimise a deviation between the determination carried out in the third step and a setpoint which is representative of the ratio of concentrations and which is strictly positive.
Process for the decomposition of lignocellulose-containing biomass-material, comprising the steps (a) providing lignocellulose-containing biomass-material; (b) subjecting the lignocellulose-containing biomass-material to comminution; (c) subjecting the comminuted lignocellulose-containing biomass-material to a sifting to separate a particle-fraction consisting of particles with an average particle diameter of less than 2500 μm; (d) subjecting the remaining comminuted lignocellulose-containing biomass-material to a pretreatment which is selected from mechanical pretreatment, biological pretreatment, chemical pretreatment, physical pretreatment and combinations thereof; wherein before, during or after pretreatment from 1 to 15 weight-% of particles are added to the lignocellulose-containing biomass-material wherein at least 70 wt.-% of the particles added have an average particle diameter of less than 1.6 mm. (a) providing lignocellulose-containing biomass-material; (b) subjecting the lignocellulose-containing biomass-material to comminution; (c) subjecting the comminuted lignocellulose-containing biomass-material to a sifting to separate a particle-fraction consisting of particles with an average particle diameter of less than 2500 μm; (d) subjecting the remaining comminuted lignocellulose-containing biomass-material to a pretreatment which is selected from mechanical pretreatment, biological pretreatment, chemical pretreatment, physical pretreatment and combinations thereof;
A fuel system for a gas turbine engine comprising: an accessory gearbox driven by a mechanical link to the gas turbine engine ; a primary fuel pump providing a first fuel flow during engine operation; a secondary fuel pump providing a second fuel flow , wherein the primary fuel pump and the secondary fuel pump are driven by an output of the accessory gearbox : characterised in that the fuel system further comprises a first control valve upstream of the secondary fuel pump ; a second control valve downstream of the secondary fuel pump ; the first control valve and the second control valve configured to control communication of fuel to and from the secondary fuel pump , wherein the first fuel pump and the second fuel pump both receive fuel flow from a common inlet passage and both the first fuel pump and the second fuel pump communicate the corresponding one of the first fuel flow and the second fuel flow to a common outlet passage . an accessory gearbox driven by a mechanical link to the gas turbine engine ; a primary fuel pump providing a first fuel flow during engine operation; a secondary fuel pump providing a second fuel flow , wherein the primary fuel pump and the secondary fuel pump are driven by an output of the accessory gearbox : characterised in that the fuel system further comprises a first control valve upstream of the secondary fuel pump ; a second control valve downstream of the secondary fuel pump ; the first control valve and the second control valve configured to control communication of fuel to and from the secondary fuel pump , wherein the first fuel pump and the second fuel pump both receive fuel flow from a common inlet passage and both the first fuel pump and the second fuel pump communicate the corresponding one of the first fuel flow and the second fuel flow to a common outlet passage . characterised in that the fuel system further comprises a first control valve upstream of the secondary fuel pump ; a second control valve downstream of the secondary fuel pump ; the first control valve and the second control valve configured to control communication of fuel to and from the secondary fuel pump , wherein the first fuel pump and the second fuel pump both receive fuel flow from a common inlet passage and both the first fuel pump and the second fuel pump communicate the corresponding one of the first fuel flow and the second fuel flow to a common outlet passage .
An improved clutch hub assembly for use in a clutch of the type having a clutch basket with fingers and slots , at least one driven plate and at least one driving plate , and a clutch hub , wherein said clutch basket is rotationally coupled to said driving plate , wherein said clutch hub is configured for selective rotational coupling to said driven plate in response from pressure from a pressure plate , said improved clutch hub assembly characterized by an improved clutch hub , wherein said improved clutch hub comprising a profiled ring and a feature configured for mating engagement with a drive member ; a retaining mechanism configured for connecting said drive member to said feature , such that said drive member is non-moveable relative to the improved clutch hub body; and wherein said drive member is configured to engage said at least one driven plate such that said driven plate is rotationally coupled to said improved clutch hub . an improved clutch hub , wherein said improved clutch hub comprising a profiled ring and a feature configured for mating engagement with a drive member ; a retaining mechanism configured for connecting said drive member to said feature , such that said drive member is non-moveable relative to the improved clutch hub body; and wherein said drive member is configured to engage said at least one driven plate such that said driven plate is rotationally coupled to said improved clutch hub .
A method of making an article, the method comprising: obtaining a first composition comprising water; a base; and surface-modified zirconia nanoparticles dispersed in the water, the surface-modified zirconia nanoparticles functionalized with an alpha-hydroxy acid or salt thereof, wherein the alpha-hydroxy acid or salt is of Formula I: wherein Ri is selected from a polyether or a polyalcohol; and R 2 is selected from a linear or branched alkyl or aryl group; a hydroxyl group; or H; or wherein R 1 is selected from a linear or branched alkylene or arylene group; or a covalent bond; and R 2 is selected from a carboxylic acid group, a sulfuric acid group, a sulfinic acid group, a sulfonic acid group, a hydroxamic acid, or a salt thereof; obtaining a second composition comprising a polycationic polymer or a dispersion of inorganic oxide nanoparticles; and disposing onto a substrate a plurality of layers by layer-by-layer self-assembly of the first composition and the second composition. obtaining a first composition comprising water; a base; and surface-modified zirconia nanoparticles dispersed in the water, the surface-modified zirconia nanoparticles functionalized with an alpha-hydroxy acid or salt thereof, wherein the alpha-hydroxy acid or salt is of Formula I: wherein Ri is selected from a polyether or a polyalcohol; and R 2 is selected from a linear or branched alkyl or aryl group; a hydroxyl group; or H; or wherein R 1 is selected from a linear or branched alkylene or arylene group; or a covalent bond; and R 2 is selected from a carboxylic acid group, a sulfuric acid group, a sulfinic acid group, a sulfonic acid group, a hydroxamic acid, or a salt thereof; obtaining a second composition comprising a polycationic polymer or a dispersion of inorganic oxide nanoparticles; and disposing onto a substrate a plurality of layers by layer-by-layer self-assembly of the first composition and the second composition.
A system for providing cyber protection to medical devices in a medical environment, the system comprising: a medical device comprising a plurality of software services ; a backend server configured to maintain and provide software updates to medical devices ; and an interface proxy box connected to the medical device and in communication with the backend server , wherein the interface proxy box is configured to determine the plurality of software services resident on the medical device , wherein the interface proxy box is configured to install software libraries (2a-f) associated with the plurality of software services determined to be resident on the medical device on the interface proxy box and to configure the installed software libraries (2a-f) to match the plurality of software services resident on the medical device , wherein the interface proxy box is configured to communicate periodically with the backend server and to receive and apply security updates to plurality of software libraries (2a-f) installed and configured on the interface proxy box , and wherein the medical device is configured to utilize the updated software libraries (2a-f) on the interface proxy box . a medical device comprising a plurality of software services ; a backend server configured to maintain and provide software updates to medical devices ; and an interface proxy box connected to the medical device and in communication with the backend server , wherein the interface proxy box is configured to determine the plurality of software services resident on the medical device , wherein the interface proxy box is configured to install software libraries (2a-f) associated with the plurality of software services determined to be resident on the medical device on the interface proxy box and to configure the installed software libraries (2a-f) to match the plurality of software services resident on the medical device , wherein the interface proxy box is configured to communicate periodically with the backend server and to receive and apply security updates to plurality of software libraries (2a-f) installed and configured on the interface proxy box , and wherein the medical device is configured to utilize the updated software libraries (2a-f) on the interface proxy box .
An ion exchange membrane for alkali chloride electrolysis comprising a layer (C) made of a fluorinated polymer having carboxylic acid functional groups at the surface on a cathode side, and a layer (S) made of a fluorinated polymer having sulfonic acid functional groups at the surface on an anode side, characterized in that a reinforcing material comprising reinforcing threads is disposed in the layer (S) made of a fluorinated polymer having sulfonic acid functional groups, the thickness when dried, of the layer (C) made of a fluorinated polymer having carboxylic acid functional groups is from 9 to 28 μm, in the layer (S) made of a fluorinated polymer having sulfonic acid functional groups, a layer (Sb) located on the anode side of the reinforcing material includes a layer made of a fluorinated polymer having sulfonic acid functional groups with an ion exchange capacity of from 1.3 to 2.5 meq/g dry resin, and has a thickness when dried, of from 6 to 100 μm, and a layer (Sa) located on the cathode side of the reinforcing material includes a layer made of a fluorinated polymer having sulfonic acid functional groups with an ion exchange capacity of from 0.9 to 1.25 meq/g dry resin, and has a thickness when dried, of from 40 to 110 μm, the thickness of each layer when dried in the ion exchange membrane being obtained as defined in the description.
An outer body part assembly for a vehicle, comprising an outer skin and a support member fixed to the outer skin , the outer skin being configured to be attached on a structural module of the vehicle via the support member , characterized in that the support member comprises a main body and a flange edge arranged around the main body and connected with the outer skin , the main body is in the form of mesh structure and comprises a contact portion for supporting the outer skin and a reinforcement rib for reinforcing the contact portion , the reinforcement rib projecting from the contact portion , wherein the assembly further comprises a fog light , and the flange edge is provided with a mounting member , the fog light being fixed onto the support member through the mounting member , and wherein the flange edge is further provided with an adjusting member comprising a limiting rib , and the fog light being mounted with a 1-5mm gap from the limiting rib .
A method comprising: obtaining a sample comprising a template nucleic acid; introducing mutations into the sample via a multiple strand displacement amplification of the template nucleic acid to create a mutated sample, wherein the amplification comprises contacting the template nucleic acid with a polymerase under conditions that promote the multiple strand displacement amplification of the template nucleic acid; sequencing the amplified nucleic acids comprising the mutated sample; and assembling the sequences of the amplified nucleic acids comprising the mutated sample to build a genome or genomic region sequence; wherein the polymerase is Phi29 DNA polymerase or EquiPhi29; and wherein introducing mutations into the sample comprises incorporating 2'-Deoxy-P-nucleoside-5'-Triphosphate (dPTP) during the amplification; wherein introducing the mutations with the polymerase and the dPTP facilitates the assembly and lowers the rate of misassembly. obtaining a sample comprising a template nucleic acid; introducing mutations into the sample via a multiple strand displacement amplification of the template nucleic acid to create a mutated sample, wherein the amplification comprises contacting the template nucleic acid with a polymerase under conditions that promote the multiple strand displacement amplification of the template nucleic acid; sequencing the amplified nucleic acids comprising the mutated sample; and assembling the sequences of the amplified nucleic acids comprising the mutated sample to build a genome or genomic region sequence; wherein the polymerase is Phi29 DNA polymerase or EquiPhi29; and wherein introducing mutations into the sample comprises incorporating 2'-Deoxy-P-nucleoside-5'-Triphosphate (dPTP) during the amplification; wherein introducing the mutations with the polymerase and the dPTP facilitates the assembly and lowers the rate of misassembly.