mhurhangee/ep-ind-claims huggingface dataset:
A method of performing multi-radio access technology, RAT, simultaneous transmission by a user equipment, UE, in a wireless communication system, the method comprising: Receiving, from a first RAT base station, information on a first subframe set, information on a second subframe set, a first power management parameter related to the first subframe set, and a second power management parameter related to the second subframe set; wherein the first power management parameter and the second power management parameter are differently configured to indicate that a first RAT signal is transmitted in the first subframe set and the first RAT signal and a second RAT signal are simultaneously transmitted in the second subframe set, configuring maximum transmit power of the first RAT signal transmitted in the first subframe set using the first power management parameter, and each maximum transmit power of the first RAT signal and the second RAT signal transmitted in the second subframe set using the second power management parameter; and transmitting the first RAT signal on the first subframe set based on the information on the first subframe set, and transmitting the first RAT signal and the second RAT signal on the second subframe set based on the information on the second subframe set, wherein the second power management parameter limits the maximum transmit power of the second RAT signal to be simultaneously transmitted with the first RAT signal in the second subframe set. Receiving, from a first RAT base station, information on a first subframe set, information on a second subframe set, a first power management parameter related to the first subframe set, and a second power management parameter related to the second subframe set; wherein the first power management parameter and the second power management parameter are differently configured to indicate that a first RAT signal is transmitted in the first subframe set and the first RAT signal and a second RAT signal are simultaneously transmitted in the second subframe set, configuring maximum transmit power of the first RAT signal transmitted in the first subframe set using the first power management parameter, and each maximum transmit power of the first RAT signal and the second RAT signal transmitted in the second subframe set using the second power management parameter; and transmitting the first RAT signal on the first subframe set based on the information on the first subframe set, and transmitting the first RAT signal and the second RAT signal on the second subframe set based on the information on the second subframe set, wherein the second power management parameter limits the maximum transmit power of the second RAT signal to be simultaneously transmitted with the first RAT signal in the second subframe set.
A cavity-backed slot antenna comprising: a conductive enclosure (110, 120, 108) having a slot; a feed; a balun located proximate the slot and coupled to the feed, the balun configured to couple the slot to the feed; a plurality of coupled lines proximate the balun and distal to a location at which the balun is coupled to the feed, wherein the plurality of coupled lines is configured to be capacitively coupled to the balun when a signal of a first frequency band is applied to the feed, wherein the plurality of coupled lines is configured to be decoupled from the balun when a signal of a second frequency band is applied to the feed, wherein the first frequency band is lower than the second frequency band; and wherein the slot has a chevron shape. a conductive enclosure (110, 120, 108) having a slot; a feed; a balun located proximate the slot and coupled to the feed, the balun configured to couple the slot to the feed; a plurality of coupled lines proximate the balun and distal to a location at which the balun is coupled to the feed, wherein the plurality of coupled lines is configured to be capacitively coupled to the balun when a signal of a first frequency band is applied to the feed, wherein the plurality of coupled lines is configured to be decoupled from the balun when a signal of a second frequency band is applied to the feed, wherein the first frequency band is lower than the second frequency band; and wherein the slot has a chevron shape.
A Mobile Station, MS, for a GSM/EDGE network, the MS being arranged to, as a first alternative, use every 13 th TDMA frame with an odd number as an idle frame which is used for neighboring cell measurement and every 13 th TDMA frame with an even number as a PTCCH, a Packet Timing Control Channel, the MS being arranged to, as a second alternative, use every 13 th TDMA frame with an odd number as a PTCCH and every 13 th TDMA frame with an even number for neighboring cell measurements, the MS being arranged to transmit (126, 122, 121) information to the GSM/EDGE network that the MS supports the use of said second alternative, and to receive (123, 122, 121) information from the GSM/EDGE network about which of these two alternatives the MS should use.
A computer-implemented method for fulfilling a claim for an unregistered device, the computer-implemented method comprising: receiving a claim data object associated with a subscriber identifier data object, the claim data object comprising a device identification data object; querying a device protection program subscriber database associated with a system for a subscriber profile data object associated with the subscriber identifier data object; receiving result data indicative that the device protection program database does not include the subscriber profile data object; transmitting a third-party enrollment status request to a third-party device management system (118A, 118B, 118C; 222, 216), the third-party enrollment status request data object comprising the subscriber identifier data object and the device identification data object; receiving a third-party enrollment status response data object from the third-party device management system (118A, 118B, 118C; 222, 216) indicating a third-party enrollment status associated with the subscriber identifier data object, wherein the third-party enrollment status is indicative of a third-party subscriber profile data object stored in the third-party device management system (118A, 118B, 118C; 222, 216); and initiating a claim processing instruction set associated with the claim data object without the subscriber profile data object. receiving a claim data object associated with a subscriber identifier data object, the claim data object comprising a device identification data object; querying a device protection program subscriber database associated with a system for a subscriber profile data object associated with the subscriber identifier data object; receiving result data indicative that the device protection program database does not include the subscriber profile data object; transmitting a third-party enrollment status request to a third-party device management system (118A, 118B, 118C; 222, 216), the third-party enrollment status request data object comprising the subscriber identifier data object and the device identification data object; receiving a third-party enrollment status response data object from the third-party device management system (118A, 118B, 118C; 222, 216) indicating a third-party enrollment status associated with the subscriber identifier data object, wherein the third-party enrollment status is indicative of a third-party subscriber profile data object stored in the third-party device management system (118A, 118B, 118C; 222, 216); and initiating a claim processing instruction set associated with the claim data object without the subscriber profile data object.
A method for delivering a group addressed frame by a relay entity in a wireless local area network, WLAN, system, the method comprising: receiving the group addressed frame from a station, STA, in a unicast manner; and delivering the group addressed frame to a root access point, root AP, in the unicast manner, wherein the group addressed frame is transmitted in a broadcasting manner by the root AP within a basic service set, BSS, wherein the group addressed frame transmitted in the broadcasting manner by the root AP comprises: an Address 1, A1, field set to a group address; an Address 2, A2, field set to a medium access control, MAC, address of the root AP; and an Address 3, A3, field set to a MAC address of the STA, the MAC address of the STA being a source address of the group addressed frame, wherein the group addressed frame is discarded by the relay entity if the STA having an address identical to the source address of the group addressed frame broadcasted by the root AP is connected to the relay entity. receiving the group addressed frame from a station, STA, in a unicast manner; and delivering the group addressed frame to a root access point, root AP, in the unicast manner, wherein the group addressed frame is transmitted in a broadcasting manner by the root AP within a basic service set, BSS, wherein the group addressed frame transmitted in the broadcasting manner by the root AP comprises: an Address 1, A1, field set to a group address; an Address 2, A2, field set to a medium access control, MAC, address of the root AP; and an Address 3, A3, field set to a MAC address of the STA, the MAC address of the STA being a source address of the group addressed frame, wherein the group addressed frame is discarded by the relay entity if the STA having an address identical to the source address of the group addressed frame broadcasted by the root AP is connected to the relay entity. an Address 1, A1, field set to a group address; an Address 2, A2, field set to a medium access control, MAC, address of the root AP; and an Address 3, A3, field set to a MAC address of the STA, the MAC address of the STA being a source address of the group addressed frame, wherein the group addressed frame is discarded by the relay entity if the STA having an address identical to the source address of the group addressed frame broadcasted by the root AP is connected to the relay entity.
A fiber-optic tube holder comprising: a base member including: an opening for receiving a tube, a back end of the opening including a first channel for retaining a first side of the tube, and sides of the opening including a first pair of tapered cavities (46A, 46B), and a front end including a second pair of cavities (48A, 48B) separated by a slot; and a locking member including: a back wall including a second channel for retaining a second side of the tube and having a tapered profile for inserting down into the first pair of tapered cavities (46A, 46B) in the base member; and a front wall extending out in front of the back wall, the front wall including arms (68A, 68B) being configured to slide down into the second pair of cavities (48A, 48B) in the base member. a base member including: an opening for receiving a tube, a back end of the opening including a first channel for retaining a first side of the tube, and sides of the opening including a first pair of tapered cavities (46A, 46B), and a front end including a second pair of cavities (48A, 48B) separated by a slot; and an opening for receiving a tube, a back end of the opening including a first channel for retaining a first side of the tube, and sides of the opening including a first pair of tapered cavities (46A, 46B), and a front end including a second pair of cavities (48A, 48B) separated by a slot; and a locking member including: a back wall including a second channel for retaining a second side of the tube and having a tapered profile for inserting down into the first pair of tapered cavities (46A, 46B) in the base member; and a front wall extending out in front of the back wall, the front wall including arms (68A, 68B) being configured to slide down into the second pair of cavities (48A, 48B) in the base member. a back wall including a second channel for retaining a second side of the tube and having a tapered profile for inserting down into the first pair of tapered cavities (46A, 46B) in the base member; and a front wall extending out in front of the back wall, the front wall including arms (68A, 68B) being configured to slide down into the second pair of cavities (48A, 48B) in the base member.
Cooking method for an apparatus for cooking food comprising a receiving means provided for receiving food, a stirring means arranged within the receiving means, at least one main heating means and at least one ventilation motor for generating a heating flow, the receiving means and the stirring means being designed to be moved with a relative rotation movement, the cooking apparatus comprising at least one means for controlling the relative rotation movement, the main heating means and the ventilation motor, characterised in that the cooking method comprises: - a first step of cooking for a first duration, during which the relative rotation movement of the receiving means and of the stirring means is neutralised, the main heating means is controlled to adjust the temperature according to a first setpoint value and the ventilation motor is controlled at a first ventilation system to adjust the heating flow according to a first circulation speed; - a second step of cooking for a second duration greater than the first duration, during which the relative rotation movement of the receiving means and of the stirring means is active according to a first rotation speed, the main heating means is controlled to adjust the temperature according to a second setpoint value, less than or equal to the first setpoint value, and the ventilation motor is controlled at a second ventilation system, less than the first ventilation system, to adjust the heating flow according to a second circulation speed. - a first step of cooking for a first duration, during which the relative rotation movement of the receiving means and of the stirring means is neutralised, the main heating means is controlled to adjust the temperature according to a first setpoint value and the ventilation motor is controlled at a first ventilation system to adjust the heating flow according to a first circulation speed; - a second step of cooking for a second duration greater than the first duration, during which the relative rotation movement of the receiving means and of the stirring means is active according to a first rotation speed, the main heating means is controlled to adjust the temperature according to a second setpoint value, less than or equal to the first setpoint value, and the ventilation motor is controlled at a second ventilation system, less than the first ventilation system, to adjust the heating flow according to a second circulation speed.
Motor vehicle windshield wiper and windshield washer device including, on the one hand, wipers and a motor-drive for driving said wipers in alternating movement between two opposite neutral positions, said wipers sweeping out a wiping area between said two positions, and, on the other hand, nozzles adapted to be oriented towards said wiping area and a pump for feeding said nozzles with washing liquid so as to spray said washing liquid towards said wiping area, said windshield wiper and windshield washer device further including a first control circuit for controlling said motor-drive and a second control circuit for controlling said pump, said second control circuit including a selectively activated contactor for feeding said second control circuit with electrical current; characterized in that said control circuits (10, 76) are electrically coupled to each other; and in that said pump is commanded when said selectively activated contactor is activated and said wipers are simultaneously in at least one of said two neutral positions.
A resonant monolithic differential Surface Acoustic Wave temperature sensing device (401, 51, 61) comprising a plurality of SAW elements (420, 430, 52, 54, 62, 63), comprising at least a first SAW element (420, 52, 62) and a second SAW element (430, 54, 63), fabricated on a cut of quartz selected from the group consisting of: the families having |φ| substantially zero, 0° ≤ θ ≤ 55°, and rotational equivalents thereof, wherein said first SAW element has a propagation direction aligned with ψPSAW and said second SAW element has a propagation direction aligned with ψNSAW, and wherein |ψPSAW| and |ψNSAW| obey the constraints: 28.5 ° + 0.365 * θ ≤ ψPSAW, ψPSAW < ψNSAW, |ψNSAW| ≤ 37.0 + 0.310 * θ, and rotational equivalents thereof, characterized in that 1.8 ° ≤ ψNSAW − ψPSAW ≤ 8.5 °
A polishing composition comprising: at least one abrasive; at least one nitride removal rate reducing agent comprising a hydrophobic portion and a hydrophilic portion; wherein the hydrophobic portion comprises a C 12 to C 40 hydrocarbon group and is separated by zero to ten alkylene oxide groups from the hydrophilic portion; an acid or a base; and water; wherein the polishing composition has a pH of 2 to 6.5; wherein the hydrophilic portion comprises at least one group selected from the group consisting of a sulfinite group, a sulfate group, a carboxylate group, a phosphate group, and a phosphonate group; and wherein the polishing composition has a ratio of a removal rate for a silicon oxide to a removal rate for a silicon nitride of at least 3:1 when polishing a patterned wafer comprising at least silicon nitride patterns overlayed with at least silicon oxide. at least one abrasive; at least one nitride removal rate reducing agent comprising a hydrophobic portion and a hydrophilic portion; wherein the hydrophobic portion comprises a C 12 to C 40 hydrocarbon group and is separated by zero to ten alkylene oxide groups from the hydrophilic portion; an acid or a base; and water; wherein the polishing composition has a pH of 2 to 6.5; wherein the hydrophilic portion comprises at least one group selected from the group consisting of a sulfinite group, a sulfate group, a carboxylate group, a phosphate group, and a phosphonate group; and wherein the polishing composition has a ratio of a removal rate for a silicon oxide to a removal rate for a silicon nitride of at least 3:1 when polishing a patterned wafer comprising at least silicon nitride patterns overlayed with at least silicon oxide.
A method for producing a water-absorbent resin comprising at least two stages of reversed-phase suspension polymerization, wherein the first stage of the at least two stages of reversed-phase suspension polymerization comprises the following steps of: performing a primary dispersion by stirring to mix in the absence of surfactants an aqueous solution of a water-soluble ethylenically unsaturated monomer containing a hydrophilic polymeric dispersion agent with a petroleum hydrocarbon dispersion medium in which a hydrophobic polymeric dispersion agent dissolves or disperses; further performing a secondary dispersion by adding a surfactant to the resultant dispersion liquid; and performing a polymerization by using a water-soluble radical polymerization initiator to obtain a water-absorbent resin as particles in a hydrous gel state which disperse in the petroleum hydrocarbon dispersion medium. performing a primary dispersion by stirring to mix in the absence of surfactants an aqueous solution of a water-soluble ethylenically unsaturated monomer containing a hydrophilic polymeric dispersion agent with a petroleum hydrocarbon dispersion medium in which a hydrophobic polymeric dispersion agent dissolves or disperses; further performing a secondary dispersion by adding a surfactant to the resultant dispersion liquid; and performing a polymerization by using a water-soluble radical polymerization initiator to obtain a water-absorbent resin as particles in a hydrous gel state which disperse in the petroleum hydrocarbon dispersion medium.
Method for measuring the positions of centres of curvature (K1, K2, K3) of optical surfaces (S1, S2, S3) of a single- or multi-lens optical system, comprising the following steps: a) providing an optical imaging unit (44, 62) which images at least one object plane (39; 39a, 39b) into a first image plane and simultaneously a second image plane which is different from the first image plane but is situated in the same beam path; b) arranging the optical system such that, taking into consideration the refractive effect of any optical surface (S1, S2) of the optical system potentially situated upstream in the beam path, a presumed position of a first centre of curvature is located in the first image plane of the optical imaging unit and a presumed position of a second centre of curvature (K2') is located in the second image plane of the optical imaging unit; c) simultaneously or sequentially imaging an object (40; 40a, 40b) arranged in the object plane (39; 39a, 39b) onto the first image plane and onto the second image plane by means of measuring light which is incident on the optical system from one side; d) detecting reflections of the measuring light at optical surfaces (S1, S2, S3) of the optical system by means of a spatially resolving light sensor; e) calculating the actual positions of the first centre of curvature and of the second centre of curvature on the basis of the reflections detected in step d). a) providing an optical imaging unit (44, 62) which images at least one object plane (39; 39a, 39b) into a first image plane and simultaneously a second image plane which is different from the first image plane but is situated in the same beam path; b) arranging the optical system such that, taking into consideration the refractive effect of any optical surface (S1, S2) of the optical system potentially situated upstream in the beam path, a presumed position of a first centre of curvature is located in the first image plane of the optical imaging unit and a presumed position of a second centre of curvature (K2') is located in the second image plane of the optical imaging unit; c) simultaneously or sequentially imaging an object (40; 40a, 40b) arranged in the object plane (39; 39a, 39b) onto the first image plane and onto the second image plane by means of measuring light which is incident on the optical system from one side; d) detecting reflections of the measuring light at optical surfaces (S1, S2, S3) of the optical system by means of a spatially resolving light sensor; e) calculating the actual positions of the first centre of curvature and of the second centre of curvature on the basis of the reflections detected in step d).