mhurhangee/ep-ind-claims huggingface dataset:
An article comprising a low application temperature hot melt adhesive comprising: (a) 5 to 20 wt% of at least one styrenic block copolymer which has a melt flow index greater than 33, measured in accordance with ASTM D 1238 (200°C/5kg), and a styrene content greater than 40%, (b) 0.5 to 5 wt% of a wax, (c) 30 to 70 wt% of a tackifier, having a ring and ball softening point less than 105°C, measured in accordance with ASTM E28, (d) 0.1 to 2 wt% of an antioxidant, (e) 0 to 30 wt% of an oil, and (f) a further styrenic block copolymer, wherein the adhesive has a viscosity less than about 8,500 mPas (centipoises) at 120°C, and wherein the adhesive has a yield stress of greater than 0.34 MPa (50 psi), wherein the article is a disposable article with an elastic attachment. (a) 5 to 20 wt% of at least one styrenic block copolymer which has a melt flow index greater than 33, measured in accordance with ASTM D 1238 (200°C/5kg), and a styrene content greater than 40%, (b) 0.5 to 5 wt% of a wax, (c) 30 to 70 wt% of a tackifier, having a ring and ball softening point less than 105°C, measured in accordance with ASTM E28, (d) 0.1 to 2 wt% of an antioxidant, (e) 0 to 30 wt% of an oil, and (f) a further styrenic block copolymer, wherein the adhesive has a viscosity less than about 8,500 mPas (centipoises) at 120°C, and wherein the adhesive has a yield stress of greater than 0.34 MPa (50 psi), wherein the article is a disposable article with an elastic attachment.
A method in a User Equipment, UE, with a voice setting determined by a first indicator related to voice services in an Evolved Packet System, EPS, the first indicator being set to "Internet Protocol Multimedia Subsystem, IMS, voice preferred, Circuit Switched, CS, voice secondary", the method comprising: receiving a Non Access Stratum, NAS, protocol Accept message with a second indicator indicating that an IMS voice over packet-switched, PS, session is supported, the second indicator being provided by lower layers of the UE to upper layers of the UE; responsive to the first indicator and the second indicator, determining availability of voice services over the IMS, wherein determining the availability of voice services further comprises initiating (2A-1) an IMS registration when the UE is not already registered with the IMS; based on a failure of the registration with the IMS (30; 70), performing (1A-5), by the UE, a combined tracking area update, TAU. receiving a Non Access Stratum, NAS, protocol Accept message with a second indicator indicating that an IMS voice over packet-switched, PS, session is supported, the second indicator being provided by lower layers of the UE to upper layers of the UE; responsive to the first indicator and the second indicator, determining availability of voice services over the IMS, wherein determining the availability of voice services further comprises initiating (2A-1) an IMS registration when the UE is not already registered with the IMS; based on a failure of the registration with the IMS (30; 70), performing (1A-5), by the UE, a combined tracking area update, TAU.
Method for influencing the hardening of the partly still liquid core of slabs and blooms of steel during continuous casting, wherein a force action or travel action periodically takes place on the wide sides of the strip and the force or travel action is carried out in vibrating manner, characterised in that the force or travel action is carried out in push-pull manner in adjacent regions which are successive in the production flow and the upper frames of the segments, which produce the force or travel action, move not in parallel, but are movable by tilting, wherein the segments generate the oscillation processes due to the resistances of the strip.
A communication method, wherein the method comprises: sending uplink capability information to a network device, wherein the uplink capability information comprises at least one of the following: a maximum quantity of uplink carriers configured for a communication apparatus, a maximum quantity of uplink carriers supported by the communication apparatus, and a maximum quantity of channels supported by the communication apparatus; receiving first information from the network device, wherein the first information indicates an uplink carrier used for uplink transmission; and performing uplink transmission with the network device on the uplink carrier, characterized in that, the uplink capability information comprises the maximum quantity of uplink carriers configured for the communication apparatus and the maximum quantity of uplink carriers supported by the communication apparatus, the first information indicates N uplink carriers used for uplink transmission, and the N uplink carriers are located in M uplink carriers configured for the communication apparatus; and the performing uplink transmission with the network device on the uplink carrier comprises: performing uplink transmission with the network device on the N uplink carriers, wherein M is an integer greater than 1, N is an integer greater than or equal to 1, and N ≤ M; and M is less than or equal to the maximum quantity of uplink carriers configured for the communication apparatus, and N is less than or equal to the maximum quantity of uplink carriers supported by the communication apparatus. sending uplink capability information to a network device, wherein the uplink capability information comprises at least one of the following: a maximum quantity of uplink carriers configured for a communication apparatus, a maximum quantity of uplink carriers supported by the communication apparatus, and a maximum quantity of channels supported by the communication apparatus; receiving first information from the network device, wherein the first information indicates an uplink carrier used for uplink transmission; and performing uplink transmission with the network device on the uplink carrier, characterized in that, the uplink capability information comprises the maximum quantity of uplink carriers configured for the communication apparatus and the maximum quantity of uplink carriers supported by the communication apparatus, the first information indicates N uplink carriers used for uplink transmission, and the N uplink carriers are located in M uplink carriers configured for the communication apparatus; and the performing uplink transmission with the network device on the uplink carrier comprises: performing uplink transmission with the network device on the N uplink carriers, wherein M is an integer greater than 1, N is an integer greater than or equal to 1, and N ≤ M; and M is less than or equal to the maximum quantity of uplink carriers configured for the communication apparatus, and N is less than or equal to the maximum quantity of uplink carriers supported by the communication apparatus.
A telescopic rod (100,200,300,400,500) configured to handle objects or tools at a desired height above the head of a user, comprising: - a rod base having a base end; - a rod extension slidingly engaging with said rod base; - an actuation unit arranged to push/pull said rod extension with respect to said rod base. - a support member is arranged at a support end of said rod extension opposite to said rod base, said support member configured to support a tool; - a rod actuation command arranged at said base end to operate said actuation means, wherein said actuation unit comprises: - a nut element integral to said rod extension, and a longitudinal screw member that pivotally engages with said rod base. - a motor means that causes said screw member to rotate upon operation by said rod actuation command, - wherein said nut element is arranged to slide within said rod base and to engage with said screw member in such a way that upon rotation of said screw member said rod extension slides within said rod base, and wherein said rod base has a longitudinal channel in which said screw member engages with play, wherein said longitudinal channel has a polygonal shaped cross-section. - a rod base having a base end; - a rod extension slidingly engaging with said rod base; - an actuation unit arranged to push/pull said rod extension with respect to said rod base. - a support member is arranged at a support end of said rod extension opposite to said rod base, said support member configured to support a tool; - a rod actuation command arranged at said base end to operate said actuation means, - a nut element integral to said rod extension, and a longitudinal screw member that pivotally engages with said rod base. - a motor means that causes said screw member to rotate upon operation by said rod actuation command, - wherein said nut element is arranged to slide within said rod base and to engage with said screw member in such a way that upon rotation of said screw member said rod extension slides within said rod base, and
A method for managing power consumption in a device, the method comprising: at a device having a carrier detector that performs a radio frequency carrier detection function: toggling a power setting of apparatus, which controls the carrier detector, between an on setting and an off setting, according to a first duty cycle having a fixed off-time duration and a first dwell time having a first dwell time duration, during which the radio frequency carrier detection function is performed; receiving at least one input that affects the radio frequency carrier detection function; changing the first duty cycle to a second duty cycle in response to the at least one input, wherein the second duty cycle has the same fixed off-time duration of the first duty cycle and a second dwell time having a second dwell time duration that is longer than the first dwell time duration, during which the radio frequency carrier detection function is performed; and toggling the power setting of the apparatus, which controls the carrier detector, between the on setting and the off setting, according to the second duty cycle. at a device having a carrier detector that performs a radio frequency carrier detection function: toggling a power setting of apparatus, which controls the carrier detector, between an on setting and an off setting, according to a first duty cycle having a fixed off-time duration and a first dwell time having a first dwell time duration, during which the radio frequency carrier detection function is performed; receiving at least one input that affects the radio frequency carrier detection function; changing the first duty cycle to a second duty cycle in response to the at least one input, wherein the second duty cycle has the same fixed off-time duration of the first duty cycle and a second dwell time having a second dwell time duration that is longer than the first dwell time duration, during which the radio frequency carrier detection function is performed; and toggling the power setting of the apparatus, which controls the carrier detector, between the on setting and the off setting, according to the second duty cycle. toggling a power setting of apparatus, which controls the carrier detector, between an on setting and an off setting, according to a first duty cycle having a fixed off-time duration and a first dwell time having a first dwell time duration, during which the radio frequency carrier detection function is performed; receiving at least one input that affects the radio frequency carrier detection function; changing the first duty cycle to a second duty cycle in response to the at least one input, wherein the second duty cycle has the same fixed off-time duration of the first duty cycle and a second dwell time having a second dwell time duration that is longer than the first dwell time duration, during which the radio frequency carrier detection function is performed; and toggling the power setting of the apparatus, which controls the carrier detector, between the on setting and the off setting, according to the second duty cycle.
A method for producing a laminate including a step of laminating a resin impregnated fiber reinforced composition layer on a metal member, wherein the method includes a step of forming a resin coating on the metal member; and a step of laminating a resin impregnated fiber reinforced composition layer containing a resin impregnated fiber reinforced composition via the above resin coating by a laser fusion method, wherein the resin impregnated fiber reinforced composition contains relative to the sum of component I and component C taken as 100% by mass, 20 to 80% by mass of a polymer having a melting point and/or a glass transition temperature of 50 to 300°C as component I, and 20 to 80% by mass of a reinforcing fiber as component C, and wherein the above resin coating includes a layer containing a dye on a surface to be laser-fused with the resin impregnated fiber reinforced composition layer, wherein the dye absorbs light having a wavelength of 300 to 3000 nm, and a layer containing no dye as a surface in contact with the metal member. a step of forming a resin coating on the metal member; and a step of laminating a resin impregnated fiber reinforced composition layer containing a resin impregnated fiber reinforced composition via the above resin coating by a laser fusion method, wherein the resin impregnated fiber reinforced composition contains relative to the sum of component I and component C taken as 100% by mass, 20 to 80% by mass of a polymer having a melting point and/or a glass transition temperature of 50 to 300°C as component I, and 20 to 80% by mass of a reinforcing fiber as component C, and wherein the above resin coating includes a layer containing a dye on a surface to be laser-fused with the resin impregnated fiber reinforced composition layer, wherein the dye absorbs light having a wavelength of 300 to 3000 nm, and a layer containing no dye as a surface in contact with the metal member.
An aircraft cabin light-emitting diode, LED, lighting assembly comprising: a plurality of separately addressable microcontrollers (312; 412); a plurality of multicolor LED lights (304; 404), wherein each respective microcontroller of the plurality of microcontrollers (312; 412) is paired with and controls a respective multicolor LED light of the plurality of multicolored LED lights (304; 404); each multicolor LED light comprising a plurality of LEDs (460A, 462A, 464A), and the lighting assembly further comprising a printed circuit board, PCB' having first and second surfaces, the plurality of microcontrollers (312; 412) being mounted on the first surface and the plurality of LED lights (304; 404) being mounted on the second surface; characterized in that each of the plurality of LEDs comprises a shared terminal (461A, 463A, 465A) and a non-shared terminal (467A, 469A, 471A), wherein the shared terminal (461A, 463A, 465A) is electrically connected to a node that is shared with the other LEDs of the plurality and the non-shared terminal (467A, 469A, 471A) is electrically connected to the microcontroller that is paired with the multicolored LED light; each microcontroller is configured to receive pixel data via a data line and generate a separate pulse wave modulated signal to each of the non-shared terminals (467A, 469A, 471A) of the multicolor LED light in accordance with the received pixel data; and the plurality of microcontrollers (312; 412) and the plurality of LED lights (304; 404) are mounted on the same flexible PCB and the lighting assembly is housed within a flexible housing. a plurality of separately addressable microcontrollers (312; 412); a plurality of multicolor LED lights (304; 404), wherein each respective microcontroller of the plurality of microcontrollers (312; 412) is paired with and controls a respective multicolor LED light of the plurality of multicolored LED lights (304; 404); each multicolor LED light comprising a plurality of LEDs (460A, 462A, 464A), and the lighting assembly further comprising a printed circuit board, PCB' having first and second surfaces, the plurality of microcontrollers (312; 412) being mounted on the first surface and the plurality of LED lights (304; 404) being mounted on the second surface; characterized in that each of the plurality of LEDs comprises a shared terminal (461A, 463A, 465A) and a non-shared terminal (467A, 469A, 471A), wherein the shared terminal (461A, 463A, 465A) is electrically connected to a node that is shared with the other LEDs of the plurality and the non-shared terminal (467A, 469A, 471A) is electrically connected to the microcontroller that is paired with the multicolored LED light; each microcontroller is configured to receive pixel data via a data line and generate a separate pulse wave modulated signal to each of the non-shared terminals (467A, 469A, 471A) of the multicolor LED light in accordance with the received pixel data; and the plurality of microcontrollers (312; 412) and the plurality of LED lights (304; 404) are mounted on the same flexible PCB and the lighting assembly is housed within a flexible housing.
An orbital welding head for an orbital welding apparatus for connection by means of a cable to a welding current source in a welding current source housing, said current source being equipped with a base controller, wherein the orbital welding head comprises a tube mount and a welding electrode holder rotatably supported opposite the tube mount for mounting a welding electrode, wherein the orbital welding apparatus comprises a motor, which is configured so as to drive the welding electrode holder and thus rotate it opposite the tube mount, and the orbital welding head comprises an electronic circuit characterized in that the electronic circuit comprises a memory, which is arranged in the orbital welding head, wherein the electronic circuit is configured so as to store one or more electrode load values (62.1) of the welding electrode in the memory, and the electronic circuit of the orbital welding head is configured such that using the electrode load values, a maintenance state value of the welding electrode is determined, which is a measure of the wear of the welding electrode, wherein the one or more electrode load values comprise one or more of the following parameters: - measured voltage on the welding electrode in combination with the applied current, and/or - measured resistance on the electrode. - measured voltage on the welding electrode in combination with the applied current, and/or - measured resistance on the electrode.
A light emitting device comprising: a base (101, 401) comprising a conductive wiring; a light emitting element mounted on the base (101, 401), and including an active layer adapted to emit a first light; an encapsulant covering the light emitting element and the light reflective film, wherein a ratio of a maximum width (Wmax) of the encapsulant with respect to a maximum width of the light emitting element, in a side view, is 2 or more, wherein an outer shape of a part of the encapsulant located within a range of elevation angles that is in a range of 10° to 50° from a center of a mounting region at an upper surface of the base (101, 401) on which the light emitting element is mounted is formed to have a curved surface, characterised in that the light emitting device comprises a light reflective film located on an upper surface of the light emitting element; and in that a ratio (r/Wmax) of a radius of curvature (r) of the curved surface with respect to the maximum width (Wmax) of the encapsulant, in a side view, is in a range of 0.25 to 0.50. a base (101, 401) comprising a conductive wiring; a light emitting element mounted on the base (101, 401), and including an active layer adapted to emit a first light; an encapsulant covering the light emitting element and the light reflective film, wherein a ratio of a maximum width (Wmax) of the encapsulant with respect to a maximum width of the light emitting element, in a side view, is 2 or more, wherein an outer shape of a part of the encapsulant located within a range of elevation angles that is in a range of 10° to 50° from a center of a mounting region at an upper surface of the base (101, 401) on which the light emitting element is mounted is formed to have a curved surface, characterised in that the light emitting device comprises a light reflective film located on an upper surface of the light emitting element; and in that a ratio (r/Wmax) of a radius of curvature (r) of the curved surface with respect to the maximum width (Wmax) of the encapsulant, in a side view, is in a range of 0.25 to 0.50.
A high-pressure fuel pump that is a plunger high-pressure fuel pump, comprising: a cylinder provided to a pump; a plunger that is slidably provided in the cylinder and reciprocates in accordance with rotation of a cam; a fluid pressurizing chamber formed between the plunger and the cylinder; an electromagnetic valve provided to a space formed between the pressurizing chamber and a fluid intake path; and a discharge valve provided to a space formed between the pressurizing chamber and a fluid discharge path, wherein the discharge valve includes: a seat member including a seat surface formed in a conical shape having a diameter gradually decreasing toward the pressurizing chamber; a valve member that comes into contact with the seat member; a spring that biases the valve member toward the seat; the high pressure pump being characterised in that, the discharge valve further comprises: a guide mechanism that holds the valve member so that the valve member can axially slide; a curved surface part formed on a contact surface on which the valve member has contact with the seat. a cylinder provided to a pump; a plunger that is slidably provided in the cylinder and reciprocates in accordance with rotation of a cam; a fluid pressurizing chamber formed between the plunger and the cylinder; an electromagnetic valve provided to a space formed between the pressurizing chamber and a fluid intake path; and a discharge valve provided to a space formed between the pressurizing chamber and a fluid discharge path, wherein the discharge valve includes: a seat member including a seat surface formed in a conical shape having a diameter gradually decreasing toward the pressurizing chamber; a valve member that comes into contact with the seat member; a spring that biases the valve member toward the seat; the high pressure pump being characterised in that, the discharge valve further comprises: a guide mechanism that holds the valve member so that the valve member can axially slide; a curved surface part formed on a contact surface on which the valve member has contact with the seat. a seat member including a seat surface formed in a conical shape having a diameter gradually decreasing toward the pressurizing chamber; a valve member that comes into contact with the seat member; a spring that biases the valve member toward the seat; the high pressure pump being characterised in that, the discharge valve further comprises: a guide mechanism that holds the valve member so that the valve member can axially slide; a curved surface part formed on a contact surface on which the valve member has contact with the seat. a guide mechanism that holds the valve member so that the valve member can axially slide; a curved surface part formed on a contact surface on which the valve member has contact with the seat.
A lighting module for a motor vehicle comprising a matrix light source grouping together a plurality of elementary light sources, a data reception unit for receiving a lighting setpoint, and a control unit intended to control said matrix light source according to said lighting setpoint, the module comprising a memory element to which the control unit has read access, and in which calibration data specific to each of the elementary light sources are stored, characterized in that the control unit is configured to transmit at least some of said calibration data to a control module of the motor vehicle.