mhurhangee/patent-ind-claim-en huggingface dataset:
A process for bonding a first member to a second member comprising: placing an uncured adhesive on a first member mating surface of the first member; supporting the first member and the second member in a spaced relationship; contacting a second member mating surface of the second member with the uncured adhesive located on the first member mating surface of the first member; conveying pressurized air through a manifold into contact with the first member via plurality of apertures having hole diameter of 0.8 - 2.5 mm spaced apart at an average distance of from 10 to 30 mm along said manifold; impinging the pressurized air in a flow pattern with a Reynolds number (Re) of greater than 2120 at a temperature of between 150 and 315°C at an air pressure between 3.5 kPa (0.5 psi) and 69 kPa (10 psi) over ambient pressure onto the outer surfaces of the first member or heating the adhesive, and thereafter, blowing the pressurized air that is below the temperature while the first member and the second member are supported in the spaced relationship; curing the uncured adhesive in 60 to 90 seconds at bond line thicknesses of 1.5 to 3.0 mm and free of any bond-line read-out visible to an unaided normal human eye. placing an uncured adhesive on a first member mating surface of the first member; supporting the first member and the second member in a spaced relationship; contacting a second member mating surface of the second member with the uncured adhesive located on the first member mating surface of the first member; conveying pressurized air through a manifold into contact with the first member via plurality of apertures having hole diameter of 0.8 - 2.5 mm spaced apart at an average distance of from 10 to 30 mm along said manifold; impinging the pressurized air in a flow pattern with a Reynolds number (Re) of greater than 2120 at a temperature of between 150 and 315°C at an air pressure between 3.5 kPa (0.5 psi) and 69 kPa (10 psi) over ambient pressure onto the outer surfaces of the first member or heating the adhesive, and thereafter, blowing the pressurized air that is below the temperature while the first member and the second member are supported in the spaced relationship; curing the uncured adhesive in 60 to 90 seconds at bond line thicknesses of 1.5 to 3.0 mm and free of any bond-line read-out visible to an unaided normal human eye.
An assembly system comprising a battery cell and an assembly device for the battery cell , wherein the battery cell comprises an end cap and a housing with an opening , characterized in that the opening of the housing is downward and that the assembly device comprises: a supporting member configured to support the end cap , wherein the supporting member comprises: a supporting face configured to support the end cap ; and a recessed portion which is recessed from the supporting face in a direction away from the pressing-down mechanism , the recessed portion being configured to avoid an electrode terminal on the end cap ; and a pressing-down mechanism arranged above the supporting member , the pressing-down mechanism being configured to press down a wall of the housing opposite the opening to enable the housing to fit with the end cap , so that the end cap closes off the opening . a supporting member configured to support the end cap , wherein the supporting member comprises: a supporting face configured to support the end cap ; and a recessed portion which is recessed from the supporting face in a direction away from the pressing-down mechanism , the recessed portion being configured to avoid an electrode terminal on the end cap ; and a pressing-down mechanism arranged above the supporting member , the pressing-down mechanism being configured to press down a wall of the housing opposite the opening to enable the housing to fit with the end cap , so that the end cap closes off the opening .
An electric actuator , comprising: a driving motor ; a motion conversion mechanism configured to convert a rotary motion of the driving motor to a linear motion in an axial direction parallel with an output shaft of the driving motor ; and a transmission gear mechanism configured to transmit a driving force from the driving motor to the motion conversion mechanism ; and wherein a double-row bearing configured to support the motion conversion mechanism is arranged on an opposite side of the driving motor with respect to the transmission gear mechanism , and wherein a relationship of 0<L<Dm/2+Db/2 is satisfied, where Dm is an outer diameter of the driving motor , Db is an outer diameter of the double-row bearing , and L is an axis-to-axis distance between the driving motor and the motion conversion mechanism ; characterised in that the electric actuator further comprises a speed reduction mechanism , which is configured to reduce a speed of the rotary motion of the driving motor and output the rotary motion reduced in speed to the transmission gear mechanism , wherein the speed reduction mechanism comprises a planetary-gear speed reduction mechanism , and wherein a relationship of 0<L<Dr/2+Db/2 is satisfied, where Dr is an outer diameter of the speed reduction mechanism , Db is the outer diameter of the double-row bearing , and L is an axis-to-axis distance between the speed reduction mechanism and the motion conversion mechanism . a driving motor ; a motion conversion mechanism configured to convert a rotary motion of the driving motor to a linear motion in an axial direction parallel with an output shaft of the driving motor ; and a transmission gear mechanism configured to transmit a driving force from the driving motor to the motion conversion mechanism ; and wherein a double-row bearing configured to support the motion conversion mechanism is arranged on an opposite side of the driving motor with respect to the transmission gear mechanism , and wherein a relationship of 0<L<Dm/2+Db/2 is satisfied, where Dm is an outer diameter of the driving motor , Db is an outer diameter of the double-row bearing , and L is an axis-to-axis distance between the driving motor and the motion conversion mechanism ; characterised in that the electric actuator further comprises a speed reduction mechanism , which is configured to reduce a speed of the rotary motion of the driving motor and output the rotary motion reduced in speed to the transmission gear mechanism , wherein the speed reduction mechanism comprises a planetary-gear speed reduction mechanism , and wherein a relationship of 0<L<Dr/2+Db/2 is satisfied, where Dr is an outer diameter of the speed reduction mechanism , Db is the outer diameter of the double-row bearing , and L is an axis-to-axis distance between the speed reduction mechanism and the motion conversion mechanism .
A method for identifying a short circuit event, comprising: measuring a characteristic of a current that is supplied to an electrical system from a power source as an applied voltage and that is conducted through one or more resistive elements of the electrical system; characterized by determining a resistance change of the one or more resistive elements based at least in part on a difference between the characteristic of the current that is measured and a filtered value of one or more of the characteristic of the current that is measured or the applied voltage supplied by the power source; and identifying a short circuit event based at least in part on the resistance change; wherein the characteristic of the current that is measured is a voltage drop across at least one of the one or more resistive elements; and wherein the resistance change represents a difference between the voltage drop across the at least one of the one or more resistive elements and a product of the applied voltage and a filtered value of a ratio of the voltage drop across the at least one of the one or more resistive elements to the applied voltage. measuring a characteristic of a current that is supplied to an electrical system from a power source as an applied voltage and that is conducted through one or more resistive elements of the electrical system; characterized by determining a resistance change of the one or more resistive elements based at least in part on a difference between the characteristic of the current that is measured and a filtered value of one or more of the characteristic of the current that is measured or the applied voltage supplied by the power source; and identifying a short circuit event based at least in part on the resistance change; wherein the characteristic of the current that is measured is a voltage drop across at least one of the one or more resistive elements; and wherein the resistance change represents a difference between the voltage drop across the at least one of the one or more resistive elements and a product of the applied voltage and a filtered value of a ratio of the voltage drop across the at least one of the one or more resistive elements to the applied voltage.
A light emitting device comprising: a substrate including a grooved part surrounding a first region ; a light emitting element mounted in the first region ; a first cover member comprising: a reflecting material-containing layer that is disposed in the groove of the grooved part and that contains a first reflecting material, and a light transmitting layer that covers at least a portion of lateral surfaces of the light emitting element ; and a light transmitting member disposed on the first cover member and the light emitting element , a package comprising the substrate , resin walls , and a recessed part defined by an upper surface of the substrate and lateral surfaces of the resin walls ; and a second cover member containing a second reflecting material and continuously covering from the lateral surfaces of the recessed part to the upper edge of the outer perimeter of the grooved part . a substrate including a grooved part surrounding a first region ; a light emitting element mounted in the first region ; a first cover member comprising: a reflecting material-containing layer that is disposed in the groove of the grooved part and that contains a first reflecting material, and a light transmitting layer that covers at least a portion of lateral surfaces of the light emitting element ; and a reflecting material-containing layer that is disposed in the groove of the grooved part and that contains a first reflecting material, and a light transmitting layer that covers at least a portion of lateral surfaces of the light emitting element ; and a light transmitting member disposed on the first cover member and the light emitting element , a package comprising the substrate , resin walls , and a recessed part defined by an upper surface of the substrate and lateral surfaces of the resin walls ; and a second cover member containing a second reflecting material and continuously covering from the lateral surfaces of the recessed part to the upper edge of the outer perimeter of the grooved part .
Method of manufacturing a non-woven fabric , comprising the steps: a. providing a substrate , wherein the substrate is air permeable in at least a portion of its surface, wherein the air permeable portion comprises a plurality of holes ; b. providing a fiber transfer device adapted to transfer fibers onto the substrate ; c. transferring a first plurality of fibers onto the substrate ; and d. applying a pressure differential to the air permeable portion of the substrate, wherein the pressure differential is applied, so that the fibers transferred onto the substrate are attracted by the pressure differential, wherein the strength of the pressure differential is varied across the surface of the substrate , wherein: the density and/or diameter of the holes is varied across the surface of the substrate , and/or wherein the holes are arranged in zones and different vacuum sources or pumps with different strengths are connected to the various zones. a. providing a substrate , wherein the substrate is air permeable in at least a portion of its surface, wherein the air permeable portion comprises a plurality of holes ; b. providing a fiber transfer device adapted to transfer fibers onto the substrate ; c. transferring a first plurality of fibers onto the substrate ; and d. applying a pressure differential to the air permeable portion of the substrate, wherein the pressure differential is applied, so that the fibers transferred onto the substrate are attracted by the pressure differential, wherein the strength of the pressure differential is varied across the surface of the substrate , wherein: the density and/or diameter of the holes is varied across the surface of the substrate , and/or wherein the holes are arranged in zones and different vacuum sources or pumps with different strengths are connected to the various zones. the density and/or diameter of the holes is varied across the surface of the substrate , and/or wherein the holes are arranged in zones and different vacuum sources or pumps with different strengths are connected to the various zones.
A method for secure wireless communications by an eNode B, eNB, of a wireless wide area network, WWAN, that shares a secure network with a wireless local area network, WLAN, access point, AP, comprising: establishing a secure WWAN connection with a user equipment, UE ; communicating with the AP to derive a security context for the UE for the WLAN, based on a security context for the WWAN, wherein the security context for the UE for the WLAN comprises a Pairwise Master Key, PMK; communicating the PMK to the AP . establishing a secure WWAN connection with a user equipment, UE ; communicating with the AP to derive a security context for the UE for the WLAN, based on a security context for the WWAN, wherein the security context for the UE for the WLAN comprises a Pairwise Master Key, PMK; communicating the PMK to the AP .
Die-cutting machine comprising a transport system configured as a chain gripper system , the at least one chain gripper system comprising at least one chain gripper carriage with at least one holding element for holding a sheet , the at least one chain gripper carriage being arranged so as to be attached to at least one chain , the at least one chain being arranged so as to guide the at least one chain gripper carriage on a guide path through at least part of the die-cutting machine , the at least one chain gripper carriage comprising at least one contact element , the at least one contact element being functionally connected to the at least one holding element , the die-cutting machine comprising at least one chain gripper opener , the at least one chain gripper opener including at least one contact surface at which, in the presence of the at least one chain gripper carriage at the at least one contact surface , the at least one contact element of the at least one chain gripper carriage is arranged so as to cooperate with the at least one chain gripper opener , the at least one holding element being arranged to be moved at least from a closed position to an open position as a result of the at least one chain gripper opener cooperating with the at least one contact element , the at least one chain gripper opener being arranged so as to be movable by means of at least one drive , the at least one drive being arranged so as to move the at least one chain gripper opener on a linear guide , and the at least one contact surface comprising at least one opening region at which the at least one holding element is arranged to start to move from a closed position to an open position, characterized in that the chain gripper opener is arranged so as to be movable along a curved section of the guide path by way of the drive and the linear guide , and in that the at least one opening region is at a distance (L1227) from the guide path , and in that the at least one opening region is movable equidistantly to the guide path .
A load safety system in which hydraulic cylinders which are being activated via a hydraulic valve block in order to enable securing of sensitive loads to be loaded on an inloader vehicle , and load holding mechanisms which are driven by said hydraulic cylinders , suspension air bags in communication with the wheels of the inloader vehicle and an EBS modulator are included, wherein it comprises an electronic control unit which; - activates said load safety system by receiving "the vehicle has been loaded signal" generated by said EBS modulator in line with the "suspension pressure" formed by the total load of the vehicle, - receives a "hydraulic pressure" information from said hydraulic valve block upon activation of said load holding mechanisms by the operator, and - generates a "brake activation signal" which enables the EBS modulator to shift the brakes to active or passive state by comparing with the ideal pressure value. - activates said load safety system by receiving "the vehicle has been loaded signal" generated by said EBS modulator in line with the "suspension pressure" formed by the total load of the vehicle, - receives a "hydraulic pressure" information from said hydraulic valve block upon activation of said load holding mechanisms by the operator, and - generates a "brake activation signal" which enables the EBS modulator to shift the brakes to active or passive state by comparing with the ideal pressure value.
Projectile comprising a supporting shell , a projectile base , a fuse in an ogive of the projectile , an intermediate unit , filled with an expulsion charge, and an expulsion plate , wherein the intermediate unit is incorporated between the fuse and the expulsion plate , and also comprising a secondary unit for receiving materials initiating an effect and/or a signalling effect, characterized by at least one device for generating a premonitory sound signal.
A method for continuous measurement of the concentration of trichloramine in the air of a closed room containing a basin of water treated with chlorine comprising the following steps: a - measurement of the concentration C1, advantageously in mg/m 3 or ppb, in oxidizing gases in the ambient air inside the room using at least one first amperometric electrochemical sensor with an electrolyte protected by a gas-permeable membrane and whose fixed work potential is higher than 1.1 V; b - measurement of the reduction in the concentration C2 of free chlorine in the water basin, averaged over a period of at least 4 hours, advantageously 12 hours, converted into the unit of measurement of C1, advantageously in mg/m 3 or ppb; c - obtaining the final concentration Cf of trichloramine in the ambient air inside the room by comparison between the concentrations C1 and C2 and choice of the smallest of these concentrations. a - measurement of the concentration C1, advantageously in mg/m 3 or ppb, in oxidizing gases in the ambient air inside the room using at least one first amperometric electrochemical sensor with an electrolyte protected by a gas-permeable membrane and whose fixed work potential is higher than 1.1 V; b - measurement of the reduction in the concentration C2 of free chlorine in the water basin, averaged over a period of at least 4 hours, advantageously 12 hours, converted into the unit of measurement of C1, advantageously in mg/m 3 or ppb; c - obtaining the final concentration Cf of trichloramine in the ambient air inside the room by comparison between the concentrations C1 and C2 and choice of the smallest of these concentrations.
Tolerance compensation arrangement having a tolerance compensation apparatus for the indirect mounting and adjustment of at least one motorcycle trim element around a motorcycle light on a motorcycle frame element , comprising a tolerance compensation frame which is fastened by way of a first set of fastening means such that it can be displaced with respect to the motorcycle frame element in a tolerance compensation direction (Y) in a partially mounted state, the tolerance compensation frame being fastened by way of the first set of fastening means such that it cannot be displaced with respect to the motorcycle frame element in a final mounted state, characterized in that the at least one motorcycle trim element can be fastened or is fastened to the tolerance compensation frame by way of a second set of fastening means.
A system for modulating power provided to an electric heating element of a vehicle exhaust system , the system comprising: a controller controlling a switch ; an alternator having a first field terminal input , wherein the first field terminal input is connected to the switch; and an electric heating element connected to at least an output of the alternator; characterised in that the controller is configured to determine a power demand for the electric heating element and modulate the first field terminal input by actuating the switch in accordance with a duty cycle determined based on the power demand to cause the alternator to provide power to the electric heating element according to the power demand. a controller controlling a switch ; an alternator having a first field terminal input , wherein the first field terminal input is connected to the switch; and an electric heating element connected to at least an output of the alternator; characterised in that the controller is configured to determine a power demand for the electric heating element and modulate the first field terminal input by actuating the switch in accordance with a duty cycle determined based on the power demand to cause the alternator to provide power to the electric heating element according to the power demand.
A computer-implemented method for verifying a relay system node , the method comprising: sending , by a key management node, a remote attestation request to a relay system node; receiving , by the key management node and from the relay system node, attestation evidence generated by the relay system node, wherein the attestation evidence comprises a measurement value, a public key of the relay system node , and a signature of the relay system node; sending , by the key management node, the attestation evidence to an attestation service ; receiving , by the key management node and from the attestation service, an attestation verification report, wherein the attestation verification report is generated based on a verification of the attestation evidence by the attestation service; and storing, by the key management node , the public key of the relay system node . sending , by a key management node, a remote attestation request to a relay system node; receiving , by the key management node and from the relay system node, attestation evidence generated by the relay system node, wherein the attestation evidence comprises a measurement value, a public key of the relay system node , and a signature of the relay system node; sending , by the key management node, the attestation evidence to an attestation service ; receiving , by the key management node and from the attestation service, an attestation verification report, wherein the attestation verification report is generated based on a verification of the attestation evidence by the attestation service; and storing, by the key management node , the public key of the relay system node .