mhurhangee/patent-ind-claim-en huggingface dataset:
An interaction method, applied to an interaction system, wherein the interaction system comprises a head-mounted display device and a hand-mounted device , wherein the head-mounted display device has a camera , the hand-mounted device has a motion sensor , and the hand-mounted device further has a vibration sensor and/or a pulse wave sensor , wherein the method comprises: displaying, by the head-mounted display device, a virtual keyboard; in response to an input trigger operation of a user, sending, by the hand-mounted device, hand detection data to the head-mounted display device based on a detected target sensor signal, wherein the target sensor signal comprises a biological vibration wave signal detected by the vibration sensor and/or a pulse wave signal detected by the pulse wave sensor; after determining, based on the hand detection data, that an input trigger event occurs, determining, by the head-mounted display device, an initial tap position of a target finger relative to the virtual keyboard based on a hand image captured by the camera; sending, by the hand-mounted device, hand motion tracking data collected by the motion sensor to the head-mounted display device; and in response to an input completion operation of the user, determining and displaying, by the head-mounted display device, an input result based on the initial tap position and the hand motion tracking data. displaying, by the head-mounted display device, a virtual keyboard; in response to an input trigger operation of a user, sending, by the hand-mounted device, hand detection data to the head-mounted display device based on a detected target sensor signal, wherein the target sensor signal comprises a biological vibration wave signal detected by the vibration sensor and/or a pulse wave signal detected by the pulse wave sensor; after determining, based on the hand detection data, that an input trigger event occurs, determining, by the head-mounted display device, an initial tap position of a target finger relative to the virtual keyboard based on a hand image captured by the camera; sending, by the hand-mounted device, hand motion tracking data collected by the motion sensor to the head-mounted display device; and in response to an input completion operation of the user, determining and displaying, by the head-mounted display device, an input result based on the initial tap position and the hand motion tracking data.
Active hydraulic mount , in particular inverted active hydraulic mount , having a first fluid chamber , a second fluid chamber , a throttle channel , which is configured to connect the first fluid chamber and the second fluid chamber to one another in terms of fluid flow, a bypass volume , which is configured to be connected in terms of fluid flow to the first fluid chamber , and an actuator with a control diaphragm , wherein the actuator is configured to be able to move the control diaphragm , in particular in a translational manner, relative to the bypass volume , the first fluid chamber is a working chamber and the second fluid chamber is a compensation chamber , characterized in that the actuator is arranged between the first fluid chamber and the second fluid chamber , the actuator is arranged between the first fluid chamber and the bypass volume , the control diaphragm has a shaft which can be moved in a translational manner by the actuator , the control diaphragm has a flange which is connected fixedly to the shaft and elastically to the actuator . a first fluid chamber , a second fluid chamber , a throttle channel , which is configured to connect the first fluid chamber and the second fluid chamber to one another in terms of fluid flow, a bypass volume , which is configured to be connected in terms of fluid flow to the first fluid chamber , and an actuator with a control diaphragm , wherein the actuator is configured to be able to move the control diaphragm , in particular in a translational manner, relative to the bypass volume , the first fluid chamber is a working chamber and the second fluid chamber is a compensation chamber , characterized in that the actuator is arranged between the first fluid chamber and the second fluid chamber , the actuator is arranged between the first fluid chamber and the bypass volume , the control diaphragm has a shaft which can be moved in a translational manner by the actuator , the control diaphragm has a flange which is connected fixedly to the shaft and elastically to the actuator .
Thermal insulation element for heat decoupling between load-bearing building parts to be constructed from concrete, namely a vertical building wall and a floor above or below it, the thermal insulation element having a base body which is to be laid in a linear manner between the building parts, consists at least partially of a compressive force-transmitting and heat-insulating material, namely lightweight concrete, and has an upper and a lower contact surface for vertical connection to the building parts , wherein the thermal insulation element has, on its upper and lower contact surface , in each case a plurality of projections extending at least partially perpendicularly to the laying direction, characterised in that the thermal insulation element has a plurality of rod-shaped reinforcing means, in particular reinforcing rods , which penetrate the base body and the projections and extend substantially vertically beyond the upper and lower contact surface .
Method for initializing an emergency lighting system having an emergency lighting control center and having at least two lights , in particular emergency and/or safety lights, which are connected to the emergency lighting control center via a data connection and which have lighting means , in particular light-emitting diodes , for illuminating license plates, escape and/or rescue routes, wherein data packets which comprise address data (8, 8' or 15, 15') of the at least two lights are stored in the emergency lighting control center , in which method for data transmission via the data connection the address data of the at least two lights are used and the at least two lights emit flashing patterns depending on the respective address data of the at least two lights via the respective lighting means , which flashing patterns differ from one another depending on the respective address data of the at least two lights , characterized in that the emergency lighting center interrogates the address data of the at least two lights in a first step via the data connection and, in a second step, controls the respective lighting means of the at least two lights via the data connection to output the flashing patterns , wherein, in a third step, each flashing pattern of the at least two lights are assigned location data for the location of arrangement of the respective light of these at least two lights by the operating personnel, and, in a fourth step, the data packets are supplemented with the respective location data by the operating personnel depending on the respective flashing pattern .
A contactless communication device comprising: a receiver unit having differential input terminals for connecting to an antenna, said differential input terminals of the receiver unit including a positive input terminal (RXp) and a negative input terminal (RXn); a first comparator adapted to generate a first comparator output signal (agc_comp_p) indicative of a relationship between a voltage at the positive input terminal (RXp) of the receiver unit and a first reference voltage (Vref_p); a second comparator adapted to generate a second comparator output signal (agc_comp_n) indicative of a relationship between a voltage at the negative input terminal (RXn) of the receiver unit and a second reference voltage (Vref n); a first voltage regulation circuit coupled to the first comparator and to the positive input terminal (RXp) of the receiver unit , the first voltage regulation circuit being adapted to regulate the voltage at the positive input terminal (RXp) in response to the first comparator output signal (agc_comp_p); and a second voltage regulation circuit coupled to the second comparator and to the negative input terminal (RXn) of the receiver unit , the second voltage regulation circuit being adapted to regulate the voltage at the negative input terminal (RXn) in response to the second comparator output signal (age comp n). a receiver unit having differential input terminals for connecting to an antenna, said differential input terminals of the receiver unit including a positive input terminal (RXp) and a negative input terminal (RXn); a first comparator adapted to generate a first comparator output signal (agc_comp_p) indicative of a relationship between a voltage at the positive input terminal (RXp) of the receiver unit and a first reference voltage (Vref_p); a second comparator adapted to generate a second comparator output signal (agc_comp_n) indicative of a relationship between a voltage at the negative input terminal (RXn) of the receiver unit and a second reference voltage (Vref n); a first voltage regulation circuit coupled to the first comparator and to the positive input terminal (RXp) of the receiver unit , the first voltage regulation circuit being adapted to regulate the voltage at the positive input terminal (RXp) in response to the first comparator output signal (agc_comp_p); and a second voltage regulation circuit coupled to the second comparator and to the negative input terminal (RXn) of the receiver unit , the second voltage regulation circuit being adapted to regulate the voltage at the negative input terminal (RXn) in response to the second comparator output signal (age comp n).
Method, comprising the following steps: a) providing an aqueous suspension comprising rhenium-containing compounds; b) adding Ca(OH) 2 to the suspension from step a), wherein the pH value is greater than 7; c) adding an oxidant to the aqueous suspension from step b), wherein the temperature of the suspension does not exceed 50 °C; d) heating the suspension from step c) to at least 95 °C and subsequent filtering, wherein the suspension is cooled to 60 °C or less prior to filtration; e) adding an ammonium carbonate to the filtrate from step d), thus obtaining an aqueous suspension containing ammonium perrhenate; f) filtering the suspension from step e); g) reducing the liquid volume of the filtrate from step f), thus obtaining solid ammonium perrhenate. a) providing an aqueous suspension comprising rhenium-containing compounds; b) adding Ca(OH) 2 to the suspension from step a), wherein the pH value is greater than 7; c) adding an oxidant to the aqueous suspension from step b), wherein the temperature of the suspension does not exceed 50 °C; d) heating the suspension from step c) to at least 95 °C and subsequent filtering, wherein the suspension is cooled to 60 °C or less prior to filtration; e) adding an ammonium carbonate to the filtrate from step d), thus obtaining an aqueous suspension containing ammonium perrhenate; f) filtering the suspension from step e); g) reducing the liquid volume of the filtrate from step f), thus obtaining solid ammonium perrhenate.
A storage apparatus configured to store SOC output property data including a record of groups of residual capacities, or SOC values, of a secondary battery and output densities, in units of W/Kg, corresponding to the residual capacities, wherein in the output property data , a difference between a residual capacity of a group that includes an extreme value in the output densities and a residual capacity of a group that includes an output density that immediately precedes the extreme value, and a difference between a residual capacity of the group that includes the extreme value in the output densities and a residual capacity of a group that includes an output density that immediately follows the extreme value are both less than a difference between any other adjacent residual capacities in the record such that the number of groups in the vicinity of SOC values corresponding to an extreme value of the output densities is larger than the number of groups in other ranges of SOC values.
A method for producing a resin molded article, comprising: an introducing step of mixing a plurality of resin foam particles and a particulate thermoplastic resin composition to obtain a mixed particle material, and introducing the mixed particle material and a heat medium substance into a forming mold; and a molding step of, after the introducing step, heating the mixed particle material of the plurality of resin foam particles and the particulate thermoplastic resin composition by heating the forming mold to a temperature at which the heat medium substance can be vaporized to allow the heat medium substance to vaporize in the forming mold, thereby integrating the plurality of resin foam particles and the particulate thermoplastic resin composition together to form a resin composite in which the plurality of resin foam particles are dispersed in a matrix composed of the thermoplastic resin composition, characterized in that the heat medium substance is a liquid at a temperature at which the introducing step is performed. an introducing step of mixing a plurality of resin foam particles and a particulate thermoplastic resin composition to obtain a mixed particle material, and introducing the mixed particle material and a heat medium substance into a forming mold; and a molding step of, after the introducing step, heating the mixed particle material of the plurality of resin foam particles and the particulate thermoplastic resin composition by heating the forming mold to a temperature at which the heat medium substance can be vaporized to allow the heat medium substance to vaporize in the forming mold, thereby integrating the plurality of resin foam particles and the particulate thermoplastic resin composition together to form a resin composite in which the plurality of resin foam particles are dispersed in a matrix composed of the thermoplastic resin composition, characterized in that the heat medium substance is a liquid at a temperature at which the introducing step is performed.
A method of operating a polyethylene reactor system , comprising: discharging continuously a transfer slurry from a first polymerization reactor through a first transfer line (21L-1) to a fluff slurry processing system and then from the fluff slurry processing system through a second transfer line (21L-2) to a second polymerization reactor , the transfer slurry comprising diluent and a first polyethylene, wherein the fluff slurry processing system comprises a lights removal system ; discharging a product slurry from a second polymerization reactor , the product slurry comprising diluent, the first polyethylene, and a second polyethylene; determining a pressure loss due to friction in the first (21L-1) and/or second transfer line (21L-2); and adjusting a process variable in response to the pressure loss exceeding a specified value, wherein adjusting a process variable comprises at least one of the following: increasing pressure and/or allowing pressure to increase in the first polymerization reactor ; lowering slurry viscosity in the first polymerization reactor ; lowering pressure in the second polymerization reactor ; or, placing in service another transfer line and discharging continuously at least a portion of the transfer slurry from the first polymerization reactor through the another transfer line to the second polymerization reactor , wherein the specified value comprises a pressure loss in the range of 30 kPa to 200 kPa (5 pounds per square inch (psi) to 30 psi). discharging continuously a transfer slurry from a first polymerization reactor through a first transfer line (21L-1) to a fluff slurry processing system and then from the fluff slurry processing system through a second transfer line (21L-2) to a second polymerization reactor , the transfer slurry comprising diluent and a first polyethylene, wherein the fluff slurry processing system comprises a lights removal system ; discharging a product slurry from a second polymerization reactor , the product slurry comprising diluent, the first polyethylene, and a second polyethylene; determining a pressure loss due to friction in the first (21L-1) and/or second transfer line (21L-2); and adjusting a process variable in response to the pressure loss exceeding a specified value, wherein adjusting a process variable comprises at least one of the following: increasing pressure and/or allowing pressure to increase in the first polymerization reactor ; lowering slurry viscosity in the first polymerization reactor ; lowering pressure in the second polymerization reactor ; or, placing in service another transfer line and discharging continuously at least a portion of the transfer slurry from the first polymerization reactor through the another transfer line to the second polymerization reactor , wherein the specified value comprises a pressure loss in the range of 30 kPa to 200 kPa (5 pounds per square inch (psi) to 30 psi).
A piezoelectric laminate comprising, on a substrate in the following order: a lower electrode layer ; and a piezoelectric film containing a perovskite-type oxide, wherein the lower electrode layer includes a first layer arranged in a state of being in contact with the substrate and includes a second layer arranged in a state of being in contact with the piezoelectric film , the first layer contains Ti or TiW as a main component, and the second layer is a uniaxial alignment film which contains Ir as a main component and in which the Ir is aligned in a plane, and characterised in that a half width at half maximum of an X-ray diffraction peak from the plane of the second layer is 0.3° to 0.45°; and the perovskite-type oxide is a compound represented by General Formula , Pb{(Zr x Ti 1-x ) 1-y B1 y }O 3 0 < x < 1, 0 < y < 0.4, wherein B1 is one or more elements selected from V, Nb, Ta, Sb, Mo, and W. a lower electrode layer ; and a piezoelectric film containing a perovskite-type oxide, wherein the lower electrode layer includes a first layer arranged in a state of being in contact with the substrate and includes a second layer arranged in a state of being in contact with the piezoelectric film , the first layer contains Ti or TiW as a main component, and the second layer is a uniaxial alignment film which contains Ir as a main component and in which the Ir is aligned in a plane, and characterised in that a half width at half maximum of an X-ray diffraction peak from the plane of the second layer is 0.3° to 0.45°; and the perovskite-type oxide is a compound represented by General Formula , Pb{(Zr x Ti 1-x ) 1-y B1 y }O 3 0 < x < 1, 0 < y < 0.4, wherein B1 is one or more elements selected from V, Nb, Ta, Sb, Mo, and W.
Method in a waste handling system, in which method waste or recyclable material is transported in carrier bags, bags or sacks , wherein a closing means that is provided with an RFID identifier including information on waste type given to the waste handling system, and configured to be used in closing, or securing the closing of, the carrier bag, bag or sack, is used in closing, or securing the closing of, the carrier bag, bag or sack used in the waste transport, and that the closing means comprises an adhesive surface , with which the closing means can be fixed to the carrier bag, bag or sack , wherein the closing means comprises at least one first visible identifier , which identifies the type of waste material or recyclable material contained in a bag, carrier bag or sack that the closing means is intended to close, in the method wastes are sorted into different allotments on the basis of information given by RFID identifiers ; and a reading unit of an RFID identifier is arranged in connection with a disposal point of the waste system, which reading unit is configured to control a waste transport system, or a part of it, on the basis of the information given by the RFID identifier, wherein the waste transport system is a pneumatic waste transport system or a system comprising a waste container and a collection truck. wherein a closing means that is provided with an RFID identifier including information on waste type given to the waste handling system, and configured to be used in closing, or securing the closing of, the carrier bag, bag or sack, is used in closing, or securing the closing of, the carrier bag, bag or sack used in the waste transport, and that the closing means comprises an adhesive surface , with which the closing means can be fixed to the carrier bag, bag or sack , wherein the closing means comprises at least one first visible identifier , which identifies the type of waste material or recyclable material contained in a bag, carrier bag or sack that the closing means is intended to close, in the method wastes are sorted into different allotments on the basis of information given by RFID identifiers ; and a reading unit of an RFID identifier is arranged in connection with a disposal point of the waste system, which reading unit is configured to control a waste transport system, or a part of it, on the basis of the information given by the RFID identifier, wherein the waste transport system is a pneumatic waste transport system or a system comprising a waste container and a collection truck.
A set for the maintenance cleaning of toilets, comprising - at least one block-shaped cleaning agent , - a device for accommodating said at least one block-shaped cleaning agent , said device , which may be fastened to the rim of a toilet bowl, comprising at least one shell for accommodating said at least one block-shaped cleaning agent and each shell having only one opening , characterised in that this opening faces towards the interior of the toilet bowl when the device is fastened to the rim of the toilet bowl by means of the bracket and in that the set further comprises an adhesive and an applicator for inserting said at least one block-shaped cleaning agent into the device . - at least one block-shaped cleaning agent , - a device for accommodating said at least one block-shaped cleaning agent ,
A controller for a rider-assistance system that is mounted to a straddle-type vehicle including a front wheel and a rear wheel , the controller comprising: a determination section that determines necessity of a warning that is given to a rider of the straddle-type vehicle during travel of said straddle-type vehicle ; and a haptic motion performing section that performs haptic motion at least once to reduce or increase acceleration/deceleration of the straddle-type vehicle only for a moment in the case where the determination section determines that the warning is necessary, wherein the haptic motion performing section changes a priority of each of the wheels at the time of changing a braking force to reduce or increase the acceleration/deceleration only for the moment in the haptic motion; characterized in that the priority of each of the wheels is changed according to a focusing direction that is a direction in which the rider should focus by the warning. a determination section that determines necessity of a warning that is given to a rider of the straddle-type vehicle during travel of said straddle-type vehicle ; and a haptic motion performing section that performs haptic motion at least once to reduce or increase acceleration/deceleration of the straddle-type vehicle only for a moment in the case where the determination section determines that the warning is necessary, wherein the haptic motion performing section changes a priority of each of the wheels at the time of changing a braking force to reduce or increase the acceleration/deceleration only for the moment in the haptic motion; characterized in that the priority of each of the wheels is changed according to a focusing direction that is a direction in which the rider should focus by the warning.