mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a pneumatic tyre comprising the following steps: a) forming a carcass from at least one first thermoplastic elastomer-based material and two bead wires, this step comprising a phase a2) in which the carcass is assembled flat from at least the first thermoplastic elastomer material and the bead wires, and a phase a3) in which the carcass is formed by bringing the bead wires closer together, this forming being done hot in order to relax the strains of the carcass in the forming thereof; b) overmoulding on the carcass at least one second thermoplastic elastomer-based material. a) forming a carcass from at least one first thermoplastic elastomer-based material and two bead wires, this step comprising a phase a2) in which the carcass is assembled flat from at least the first thermoplastic elastomer material and the bead wires, and a phase a3) in which the carcass is formed by bringing the bead wires closer together, this forming being done hot in order to relax the strains of the carcass in the forming thereof; b) overmoulding on the carcass at least one second thermoplastic elastomer-based material.
A cellulose resin composition comprising: a cellulose resin produced by binding cardanol or a derivative thereof to cellulose or a derivative thereof; and a cardanol-modified silicone compound produced by binding cardanol or a derivative thereof to a silicone compound. a cellulose resin produced by binding cardanol or a derivative thereof to cellulose or a derivative thereof; and a cardanol-modified silicone compound produced by binding cardanol or a derivative thereof to a silicone compound.
An indication system for use with a refueling system including a hose for supplying fuel to a receiver aircraft, the indication system comprising: a plurality of refueling light sources, wherein each refueling light source is configured to simultaneously emit visible light and infrared light, wherein each refueling light source is operable at a dim setting and a bright setting; and a control system communicatively coupled with the plurality of refueling light sources, wherein the control system is configured to receive refueling data from the refueling system, wherein the refueling data includes position data indicating a position of the receiver aircraft relative to the refueling system and fueling-status data indicating whether the refueling system is supplying fuel or not supplying fuel, wherein the control system is configured to: when the refueling data indicates that the position of the receiver aircraft is in the refueling range and the refueling system is supplying fuel to the receiver aircraft, activate at least one refueling light source of the plurality of refueling light sources at the bright setting and activate a remainder of the plurality of refueling light sources at the dim setting. a plurality of refueling light sources, wherein each refueling light source is configured to simultaneously emit visible light and infrared light, wherein each refueling light source is operable at a dim setting and a bright setting; and a control system communicatively coupled with the plurality of refueling light sources, wherein the control system is configured to receive refueling data from the refueling system, wherein the refueling data includes position data indicating a position of the receiver aircraft relative to the refueling system and fueling-status data indicating whether the refueling system is supplying fuel or not supplying fuel, wherein the control system is configured to: when the refueling data indicates that the position of the receiver aircraft is in the refueling range and the refueling system is supplying fuel to the receiver aircraft, activate at least one refueling light source of the plurality of refueling light sources at the bright setting and activate a remainder of the plurality of refueling light sources at the dim setting.
A jumping method of a jumping elevator system, comprising: preliminarily positioning and mounting, by means of a temporary working platform at a first height, a guide rail on a hoistway substantially corresponding to the first height; removing the temporary working platform from the position, corresponding to the first height, of the hoistway; lifting, by use of a lifting assembly, a jumping platform from a second height to a third height, wherein the third height is greater than the second height and less than or equal to the first height; and lifting, by use of the lifting assembly, an elevator car to extend its traveling distance in the hoistway, the method characterised by: operating, during lifting of the elevator car, on the top of the elevator car for reinforcing the mount of the guide rail; and reloading, prior to lifting the elevator car, the lifting assembly on the elevator car from the jumping platform. preliminarily positioning and mounting, by means of a temporary working platform at a first height, a guide rail on a hoistway substantially corresponding to the first height; removing the temporary working platform from the position, corresponding to the first height, of the hoistway; lifting, by use of a lifting assembly, a jumping platform from a second height to a third height, wherein the third height is greater than the second height and less than or equal to the first height; and lifting, by use of the lifting assembly, an elevator car to extend its traveling distance in the hoistway, the method characterised by: operating, during lifting of the elevator car, on the top of the elevator car for reinforcing the mount of the guide rail; and reloading, prior to lifting the elevator car, the lifting assembly on the elevator car from the jumping platform. operating, during lifting of the elevator car, on the top of the elevator car for reinforcing the mount of the guide rail; and reloading, prior to lifting the elevator car, the lifting assembly on the elevator car from the jumping platform.
An isolated antibody or antigen-binding fragment, variant, or derivative thereof that binds dipeptidyl peptidase-4 (DPP-4), wherein the antibody is a mouse monoclonal antibody m3B7.6 produced from a hybridoma deposited at the American Type Culture Collection (ATCC) under Deposit No. PTA-121870, a mouse monoclonal antibody m5B7.7 produced from a hybridoma deposited at the ATCC under Deposit No. PTA-121871, a rat monoclonal antibody R11A2.15 produced from a hybridoma deposited at the ATCC under Deposit No. PTA-121872, or a rat monoclonal antibody R11A9.11 produced from a hybridoma deposited at the ATCC under Deposit No. PTA-121873.
An electronic device comprising: an electronic component; a substrate on which the electronic component is mounted; and a housing having a tubular shape and including a first metal plate that is a tubular metal plate covering the electronic component and the substrate from an outer peripheral direction of the substrate and a second metal plate that is a tubular metal plate joined to the first metal plate from a radially inner side, a portion of each of the first metal plate and the second metal plate being covered with resin wherein the second metal plate has a folded portion having a tubular shape, and wherein the folded portion is formed by an end portion of the second metal plate being folded back toward an inner space of the second metal plate. an electronic component; a substrate on which the electronic component is mounted; and a housing having a tubular shape and including a first metal plate that is a tubular metal plate covering the electronic component and the substrate from an outer peripheral direction of the substrate and a second metal plate that is a tubular metal plate joined to the first metal plate from a radially inner side, a portion of each of the first metal plate and the second metal plate being covered with resin wherein the second metal plate has a folded portion having a tubular shape, and wherein the folded portion is formed by an end portion of the second metal plate being folded back toward an inner space of the second metal plate.
A method for producing a bonded SOI wafer by bonding a bond wafer and a base wafer, each being formed of a silicon single crystal, together with a silicon oxide film placed therebetween, comprising: preparing, as the base wafer, a silicon single crystal wafer whose resistivity is 100 Ω·cm or more, initial interstitial oxygen concentration is 10 ppma (ASTM'79) or less and nitrogen concentration is 1 × 10 13 to 1 × 10 15 atoms/cm 3; forming, on a front surface of the base wafer, a silicon oxide film whose thickness is 1 μm or more by performing, on the base wafer, heat treatment in an oxidizing atmosphere at a temperature of 700°C or higher and 1000°C or lower for 5 hours or more, the heat treatment doubling as donor annihilation; bonding the base wafer and the bond wafer together with the silicon oxide film placed therebetween; and thinning the bonded bond wafer to form an SOI layer. preparing, as the base wafer, a silicon single crystal wafer whose resistivity is 100 Ω·cm or more, initial interstitial oxygen concentration is 10 ppma (ASTM'79) or less and nitrogen concentration is 1 × 10 13 to 1 × 10 15 atoms/cm 3; forming, on a front surface of the base wafer, a silicon oxide film whose thickness is 1 μm or more by performing, on the base wafer, heat treatment in an oxidizing atmosphere at a temperature of 700°C or higher and 1000°C or lower for 5 hours or more, the heat treatment doubling as donor annihilation; bonding the base wafer and the bond wafer together with the silicon oxide film placed therebetween; and thinning the bonded bond wafer to form an SOI layer.
A negative electrode active material for a lithium secondary battery, the negative electrode active material comprising: 5 parts by weight to 20 parts by weight of a first carbon-based particle based on 100 parts by weight of a total negative electrode active material; 55 parts by weight to 90 parts by weight of a second carbon-based particle based on 100 parts by weight of the total negative electrode active material; and 1 part by weight to 40 parts by weight of a silicon-based particle based on 100 parts by weight of the total negative electrode active material, wherein a specific BET surface area of the first carbon-based particle is 1.5 m 2 /g to 4.5 m 2 /g, a specific BET surface area of the second carbon-based particle is 0.4 m 2 /g to 1.5 m 2 /g, and the specific BET surface area of the first carbon-based particle is greater than the specific BET surface area of the second carbon-based particle. 5 parts by weight to 20 parts by weight of a first carbon-based particle based on 100 parts by weight of a total negative electrode active material; 55 parts by weight to 90 parts by weight of a second carbon-based particle based on 100 parts by weight of the total negative electrode active material; and 1 part by weight to 40 parts by weight of a silicon-based particle based on 100 parts by weight of the total negative electrode active material,
A method for determining whether to perform a full band scan by using motion sensor data comprising: determining if a user equipment UE has been stationary since the full band scan was last performed (440; 550; 650; 740); characterised in that the method further comprises the steps of: if the user equipment UE has been stationary since the full band scan last performed, determining if the user equipment UE has skipped full band scans more times than a skipped threshold (460; 570; 670; 760); and if the user equipment UE has skipped full band scans more times than the skipped threshold, performing a full band scan (450; 560; 660; 750), or if the user equipment UE has not skipped full band scans more times than the skipped threshold, performing a partial band scan or performing no scan (470; 580; 680; 770). determining if a user equipment UE has been stationary since the full band scan was last performed (440; 550; 650; 740); characterised in that the method further comprises the steps of: if the user equipment UE has been stationary since the full band scan last performed, determining if the user equipment UE has skipped full band scans more times than a skipped threshold (460; 570; 670; 760); and if the user equipment UE has skipped full band scans more times than the skipped threshold, performing a full band scan (450; 560; 660; 750), or if the user equipment UE has not skipped full band scans more times than the skipped threshold, performing a partial band scan or performing no scan (470; 580; 680; 770).
A flat bed trailer for transporting an item of heavy machinery, the flat bed trailer comprising: a floor, a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; at least two restraining bars (30, 40) each having a restraining position in which the respective restraining bar is disposed substantially laterally across the trailer to restrain the item of heavy machinery when positioned on the flat bed trailer; a first bar retainer (26, 28) for retaining one of the restraining bars in its restraining position; a second bar retainer (36, 38) for releasably retaining the other restraining bar in its restraining position; a pair of longitudinally extending side walls (16, 18); a lateral guide bar; and a pair of longitudinal guide bars (46, 48) extending substantially longitudinally along the floor of the trailer, characterised in that the lateral guide bar extends substantially laterally close to the floor across the trailer between the side walls and is slightly raised with respect to the longitudinal guide bars (46, 48). a floor, a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; at least two restraining bars (30, 40) each having a restraining position in which the respective restraining bar is disposed substantially laterally across the trailer to restrain the item of heavy machinery when positioned on the flat bed trailer; a first bar retainer (26, 28) for retaining one of the restraining bars in its restraining position; a second bar retainer (36, 38) for releasably retaining the other restraining bar in its restraining position; a pair of longitudinally extending side walls (16, 18); a lateral guide bar; and a pair of longitudinal guide bars (46, 48) extending substantially longitudinally along the floor of the trailer, characterised in that the lateral guide bar extends substantially laterally close to the floor across the trailer between the side walls and is slightly raised with respect to the longitudinal guide bars (46, 48).
A method for enabling a biometric template in an authentication token, the method comprising: capturing, by a biometric sensor comprised in the authentication token, at least one biometric sample; creating, by a processing unit comprised in the authentication token, a biometric template from the at least one biometric sample and storing said biometric template in the authentication token; verifying, at a terminal device, said biometric template; verifying, by the terminal device, an identity of a user; enabling, by the terminal device, said biometric template if the biometric template and the identity of the user have been verified; wherein verifying the biometric template at the terminal device comprises: establishing a coupling between the authentication token and the terminal device; capturing, by the biometric sensor, a further biometric sample; matching, by the processing unit, the further biometric sample against the biometric template stored in the authentication token; concluding, by said processing unit, that the biometric template has been verified if the further biometric sample matches the biometric template; transmitting, by said processing unit through said coupling, if said biometric template has been verified, a signal indicative thereof to the terminal device. capturing, by a biometric sensor comprised in the authentication token, at least one biometric sample; creating, by a processing unit comprised in the authentication token, a biometric template from the at least one biometric sample and storing said biometric template in the authentication token; verifying, at a terminal device, said biometric template; verifying, by the terminal device, an identity of a user; enabling, by the terminal device, said biometric template if the biometric template and the identity of the user have been verified; wherein verifying the biometric template at the terminal device comprises: establishing a coupling between the authentication token and the terminal device; capturing, by the biometric sensor, a further biometric sample; matching, by the processing unit, the further biometric sample against the biometric template stored in the authentication token; concluding, by said processing unit, that the biometric template has been verified if the further biometric sample matches the biometric template; transmitting, by said processing unit through said coupling, if said biometric template has been verified, a signal indicative thereof to the terminal device. establishing a coupling between the authentication token and the terminal device; capturing, by the biometric sensor, a further biometric sample; matching, by the processing unit, the further biometric sample against the biometric template stored in the authentication token; concluding, by said processing unit, that the biometric template has been verified if the further biometric sample matches the biometric template; transmitting, by said processing unit through said coupling, if said biometric template has been verified, a signal indicative thereof to the terminal device.
Electronic transmission system for transporting data signals over a power supply line, comprising a) the power supply line for transmitting electric power from a power source to an end user; and b) at least two coupling devices (160-1, 160-2) for coupling in and/or out the data signals that are transmitted between at least two data devices (130-1, 130-2), which are respectively associated with the coupling devices, onto the power supply line; wherein at least one of the coupling devices (160-1, 160-2) is in the form of a directional coupler, characterized in that the directional coupler has a combination of an inductive and a capacitive coupling device, wherein for the purpose of coupling the associated data device (130-1, 130-2) to the power supply line the inductive coupling device and the capacitive coupling device are arranged as a parallel circuit between the associated data device (130-1, 130-2) and the power supply line. a) the power supply line for transmitting electric power from a power source to an end user; and b) at least two coupling devices (160-1, 160-2) for coupling in and/or out the data signals that are transmitted between at least two data devices (130-1, 130-2), which are respectively associated with the coupling devices, onto the power supply line; wherein at least one of the coupling devices (160-1, 160-2) is in the form of a directional coupler, characterized in that the directional coupler has a combination of an inductive and a capacitive coupling device, wherein for the purpose of coupling the associated data device (130-1, 130-2) to the power supply line the inductive coupling device and the capacitive coupling device are arranged as a parallel circuit between the associated data device (130-1, 130-2) and the power supply line.
A method for commissioning a lighting system, the lighting system comprising a lighting array disposed in a designated area to be illuminated, wherein the lighting array comprises a plurality of luminaires and a plurality of sensors, the method comprising: performing a pre-commissioning step to identify a plurality of luminaire-sensor pairs by pairing an address of each luminaire to an address of each sensor; performing a first commissioning step with human intervention to map locations of at least two but less than all of the luminaire-sensor pairs; and the method characterised by performing an automatic commissioning step to map locations of uncommissioned luminaire-sensor pairs which were not mapped in the first commissioning step, based on a room schematic of the designated area and further based on data corresponding to one of the commissioned luminaire-sensor pairs mapped in the first commissioning step, wherein the automatic commissioning step maps the location of at least one of the uncommissioned luminaire-sensor pair adjacent to or nearby one of the commissioned luminaire-sensor pairs; and wherein the data comprises data signals representing a degree of change of illumination detected by light sensors associated with the at least one of the uncommissioned luminaire-sensor pairs. performing a pre-commissioning step to identify a plurality of luminaire-sensor pairs by pairing an address of each luminaire to an address of each sensor; performing a first commissioning step with human intervention to map locations of at least two but less than all of the luminaire-sensor pairs; and the method characterised by performing an automatic commissioning step to map locations of uncommissioned luminaire-sensor pairs which were not mapped in the first commissioning step, based on a room schematic of the designated area and further based on data corresponding to one of the commissioned luminaire-sensor pairs mapped in the first commissioning step, wherein the automatic commissioning step maps the location of at least one of the uncommissioned luminaire-sensor pair adjacent to or nearby one of the commissioned luminaire-sensor pairs; and wherein the data comprises data signals representing a degree of change of illumination detected by light sensors associated with the at least one of the uncommissioned luminaire-sensor pairs.
Hydraulic system for driving a vibratory mechanism of a compaction roller (4, 5), the hydraulic system comprising at least one hydraulic motor connectable to vibratory mechanism and a first hydraulic pump fluidly connected to the at least one hydraulic motor and arranged for supplying pressurised hydraulic fluid to the at least one hydraulic motor, the hydraulic system further comprises a second hydraulic pump fluidly connected to the at least one hydraulic motor and arranged for supplying pressurised hydraulic fluid to the at least one hydraulic motor, wherein the hydraulic system is an open circuit system, wherein the first and second hydraulic pumps are arranged to draw hydraulic fluid from one or more tanks adapted to store hydraulic fluid at substantially atmospheric pressure, and wherein fluid exiting the hydraulic motor is guided back to said one or more tank, characterized in that the hydraulic system comprises a control unit, wherein the control unit is configured to control the hydraulic system such that pressurised hydraulic fluid is supplied to the at least one hydraulic motor from only one of the first and second hydraulic pumps (38, 39) during a first part of a hydraulic motor acceleration phase, and such that pressurised hydraulic fluid is supplied to the at least one hydraulic motor from both of the first and second hydraulic pumps (38, 39) during a second part of the hydraulic motor acceleration phase.