mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft comprising: a fuselage ; a tail ; an upswept afterbody beginning at a breakline of the fuselage ; and a plurality of drag reducing elements , each of the drag reducing elements | having a first end and a second end ; wherein the drag reducing elements are positioned on each side of the aircraft fuselage beginning at the breakline and extending rearward toward the tail ; and the first end of each drag reducing element is raised relative to the second end thereof ; characterized in that the drag reducing elements are planar elements; and the each of the drag reducing elements is positioned nose-up at an angle relative to the direction of airflow about the fuselage at the location of the drag reducing element . a fuselage ; a tail ; an upswept afterbody beginning at a breakline of the fuselage ; and a plurality of drag reducing elements , each of the drag reducing elements | having a first end and a second end ; wherein the drag reducing elements are positioned on each side of the aircraft fuselage beginning at the breakline and extending rearward toward the tail ; and the first end of each drag reducing element is raised relative to the second end thereof ; characterized in that the drag reducing elements are planar elements; and the each of the drag reducing elements is positioned nose-up at an angle relative to the direction of airflow about the fuselage at the location of the drag reducing element .
A method performed by a user equipment, UE , for sidelink failure management, the method comprising: receiving , from a source cell, a first message including a sidelink Radio Resource Control, RRC, configuration associated with a target cell; determining that a sidelink failure event associated with an associated sidelink destination UE occurs; and transmitting a sidelink failure report indicating the sidelink failure event to the target cell after performing a handover procedure to switch from the source cell to the target cell, wherein: a type of the sidelink failure event comprises a sidelink RRC reconfiguration failure event for a PC5-RRC connection between the UE and the associated sidelink destination UE or a sidelink radio link failure event for the PC5-RRC connection between the UE and the associated sidelink destination UE. receiving , from a source cell, a first message including a sidelink Radio Resource Control, RRC, configuration associated with a target cell; determining that a sidelink failure event associated with an associated sidelink destination UE occurs; and transmitting a sidelink failure report indicating the sidelink failure event to the target cell after performing a handover procedure to switch from the source cell to the target cell, wherein: a type of the sidelink failure event comprises a sidelink RRC reconfiguration failure event for a PC5-RRC connection between the UE and the associated sidelink destination UE or a sidelink radio link failure event for the PC5-RRC connection between the UE and the associated sidelink destination UE.
A paste composition comprising: a. 40-70 percent by weight (wt%) of a low melting point (LMP) particle composition, wherein the particles are selected from the group consisting of particles of at least one LMP metal ( Y ), at least one alloy of the at least one LMP metal ( X/Y ), and combinations thereof; b. 25-65 wt% of a high melting point (HMP) particle composition, comprising at least one, preferably at least two, metallic element ( M ) that is reactive with the at least one LMP metal Y of the LMP particle composition at a process temperature T1; and c. 1-15 wt% of a fluxing vehicle, wherein the reaction products formed between M and Y are crystalline intermetallics that are solids at temperature T1; and wherein the surface area of said HMP particle composition is in the range of 0.07 to 0.18 square meters per gram of Y in said composition, preferably in the range of 0.08 to 0.15 square meters per gram of Y in said composition, measured with the method as of the description. a. 40-70 percent by weight (wt%) of a low melting point (LMP) particle composition, wherein the particles are selected from the group consisting of particles of at least one LMP metal ( Y ), at least one alloy of the at least one LMP metal ( X/Y ), and combinations thereof; b. 25-65 wt% of a high melting point (HMP) particle composition, comprising at least one, preferably at least two, metallic element ( M ) that is reactive with the at least one LMP metal Y of the LMP particle composition at a process temperature T1; and c. 1-15 wt% of a fluxing vehicle, wherein the reaction products formed between M and Y are crystalline intermetallics that are solids at temperature T1; and wherein the surface area of said HMP particle composition is in the range of 0.07 to 0.18 square meters per gram of Y in said composition, preferably in the range of 0.08 to 0.15 square meters per gram of Y in said composition, measured with the method as of the description. wherein the reaction products formed between M and Y are crystalline intermetallics that are solids at temperature T1; and wherein the surface area of said HMP particle composition is in the range of 0.07 to 0.18 square meters per gram of Y in said composition, preferably in the range of 0.08 to 0.15 square meters per gram of Y in said composition, measured with the method as of the description.
A composition comprising: A) a liquid detergent product; and B) a silicone additive comprising: wherein the silicone additive comprises at least 80 mole percent of units A) a liquid detergent product; and B) a silicone additive comprising: wherein the silicone additive comprises at least 80 mole percent of units
An antenna structure comprising: a first port ; a second port ; and a single radiator connected to both the first and second ports , the single radiator being operable to simultaneously transceive in: a symmetrical excited mode in which current flows symmetrically through the single radiator to or from the first port , thereby causing the single radiator to resonate at a first resonant frequency; and an asymmetrical excited mode in which current flows asymmetrically through the single radiator to or from the second port , thereby causing the single radiator to resonate at a second resonant frequency, wherein the single radiator comprises: a first element , the first element being elongate and linear; a second element , the second element being elongate, linear, and parallel to the first element ; and arm connectors connecting the first element to the second element ; wherein the second port comprises two second port feedlines connected to the second element in a symmetrical arrangement; wherein the antenna structure is configured to feed a signal being transmitted or received via the second port as a differential signal along the two second port feedlines. a first port ; a second port ; and a single radiator connected to both the first and second ports , the single radiator being operable to simultaneously transceive in: a symmetrical excited mode in which current flows symmetrically through the single radiator to or from the first port , thereby causing the single radiator to resonate at a first resonant frequency; and an asymmetrical excited mode in which current flows asymmetrically through the single radiator to or from the second port , thereby causing the single radiator to resonate at a second resonant frequency, a symmetrical excited mode in which current flows symmetrically through the single radiator to or from the first port , thereby causing the single radiator to resonate at a first resonant frequency; and an asymmetrical excited mode in which current flows asymmetrically through the single radiator to or from the second port , thereby causing the single radiator to resonate at a second resonant frequency, wherein the single radiator comprises: a first element , the first element being elongate and linear; a second element , the second element being elongate, linear, and parallel to the first element ; and arm connectors connecting the first element to the second element ; a first element , the first element being elongate and linear; a second element , the second element being elongate, linear, and parallel to the first element ; and arm connectors connecting the first element to the second element ; wherein the second port comprises two second port feedlines connected to the second element in a symmetrical arrangement; wherein the antenna structure is configured to feed a signal being transmitted or received via the second port as a differential signal along the two second port feedlines.
A material comprising a reaction product of a cyclic azasilane with water and a compound or polymer comprising an isocyanate functional group or an epoxy functional group, characterized in that the cyclic azasilane is selected from azasilanes having the following structures:
A method for configuring a medium access control control element, MAC CE, which includes an activation indicator indicating activation/deactivation of M serving cells configured for a user equipment, UE, by a base station in a wireless communication system, the MAC CE being included in a MAC message to be transmitted to the UE, the method characterised in that : the MAC CE comprises a plurality of bits which correspond to indices of serving cells supportable by the system in a one-to-one manner, the MAC CE further comprising at least one reserved bit, and the activation indicator is configured using each of M bits of the plurality of bits, the M bits corresponding to indices of the M supportable serving cells configured for the UE. the MAC CE comprises a plurality of bits which correspond to indices of serving cells supportable by the system in a one-to-one manner, the MAC CE further comprising at least one reserved bit, and the activation indicator is configured using each of M bits of the plurality of bits, the M bits corresponding to indices of the M supportable serving cells configured for the UE.
An electronic device comprising: a first housing ; a speaker module disposed on a surface of the first housing, and configured to output sounds in a first direction ; a second housing and a sound hole formed in the second housing ; a sound reflection plate engaged with one end of the second housing, wherein the sound reflection plate is located apart from the surface of the first housing, and having a first surface facing the speaker module; a heat emission device disposed on a second surface of the sound reflection plate; a microphone module fixed inside the second housing and exposed outside of the electronic device through the sound hole, wherein the sound reflection plate is configured to absorb heat generated from the heat emission device, and discharge the absorbed heat to the outside of the electronic device through a space between the surface of the first housing and the first surface of the sound reflection plate. a first housing ; a speaker module disposed on a surface of the first housing, and configured to output sounds in a first direction ; a second housing and a sound hole formed in the second housing ; a sound reflection plate engaged with one end of the second housing, wherein the sound reflection plate is located apart from the surface of the first housing, and having a first surface facing the speaker module; a heat emission device disposed on a second surface of the sound reflection plate; a microphone module fixed inside the second housing and exposed outside of the electronic device through the sound hole, wherein the sound reflection plate is configured to absorb heat generated from the heat emission device, and discharge the absorbed heat to the outside of the electronic device through a space between the surface of the first housing and the first surface of the sound reflection plate.
A method for supplying electric power at a network connection point into an electric supply network having a network frequency by means of a converter-controlled generator unit , in particular a wind turbine , characterized in that , the method comprises the following steps: - supplying electric power depending on a control function, wherein the electric power can comprise active and reactive power, and - as a control function between a normal control function and at least one frequency-maintaining control function differing from the normal control function a selection can be made, and - the normal control function is selected if it has been recognized that the electric supply network is operating in a normal state, and - the frequency-maintaining control function is selected if a steady-frequency operating state is present or is being prepared, wherein a steady-frequency operating state describes an operating state particularly of the electric supply network in which the network frequency is to be maintained at a constant value. - supplying electric power depending on a control function, wherein the electric power can comprise active and reactive power, and - as a control function between a normal control function and at least one frequency-maintaining control function differing from the normal control function a selection can be made, and - the normal control function is selected if it has been recognized that the electric supply network is operating in a normal state, and - the frequency-maintaining control function is selected if a steady-frequency operating state is present or is being prepared, wherein a steady-frequency operating state describes an operating state particularly of the electric supply network in which the network frequency is to be maintained at a constant value.
An aircraft emergency lighting system, comprising: at least one interior emergency light ; at least one exterior emergency light ; an interior ambient light condition source; at least one exterior ambient light sensor ; an emergency power source operatively interconnected with each of said at least one interior emergency light and said at least one exterior emergency light; and an emergency lighting system controller operatively interconnected with each of said interior ambient light condition source and said at least one exterior ambient light sensor, wherein said emergency lighting system controller is further operatively interconnected with said emergency power source, wherein an interior ambient light condition, provided by the interior ambient light condition source, and an exterior ambient light condition, provided by the exterior ambient light condition sensor , are each inputs to said emergency lighting system controller , and wherein said emergency lighting system controller is configured to control operation of each of said at least one interior emergency light and said at least one exterior emergency light . at least one interior emergency light ; at least one exterior emergency light ; an interior ambient light condition source; at least one exterior ambient light sensor ; an emergency power source operatively interconnected with each of said at least one interior emergency light and said at least one exterior emergency light; and an emergency lighting system controller operatively interconnected with each of said interior ambient light condition source and said at least one exterior ambient light sensor, wherein said emergency lighting system controller is further operatively interconnected with said emergency power source, wherein an interior ambient light condition, provided by the interior ambient light condition source, and an exterior ambient light condition, provided by the exterior ambient light condition sensor , are each inputs to said emergency lighting system controller , and wherein said emergency lighting system controller is configured to control operation of each of said at least one interior emergency light and said at least one exterior emergency light .
A method performed by a radio network node in a Radio Access Network, RAN, for scheduling downlink, DL, data for a User Equipment, UE, in a control region , wherein the UE has one or more control resource sets, CORESETs, configured in the control region , in which one or more CORESETs the UE monitors for Physical Downlink Control Channel, PDCCH, wherein the method comprises: - determining to transmit DL data to the UE in one or more control region subsets , when an amount of the DL data for the UE is less or equal to a threshold, wherein the threshold is a parameterized threshold of a number of bits, the threshold defining a percentage of the total amount of bits available in the control region of a carrier, and the threshold is based on available resources of the control region subset and on an estimated channel quality of the UE , and wherein the method further comprises: - transmitting DL data to the UE in the one or more control region subsets . - determining to transmit DL data to the UE in one or more control region subsets , when an amount of the DL data for the UE is less or equal to a threshold, wherein the threshold is a parameterized threshold of a number of bits, the threshold defining a percentage of the total amount of bits available in the control region of a carrier, and the threshold is based on available resources of the control region subset and on an estimated channel quality of the UE , and - transmitting DL data to the UE in the one or more control region subsets .
Joint prosthesis implant (1; 100) comprising: - a main body (2; 200) made mainly of ceramic and comprising a joint outer surface made of ceramic, of concave or convex shape, - at least one tightening screw configured to tighten the main body (2; 200) on the patient's bone or on an intermediate element attached to said bone, - at least one added ring in the main body (2; 200) and forming with it a chamber trapping the head of the tightening screw and comprising a bearing surface forming a stop for said head of the tightening screw , the added ring being configured to be in contact with the tightening screw during said tightening, the added ring comprising a central hole crossed by the tightening screw , characterized in that the added ring is configured to distribute homogeneously in the main body (2; 200) the mechanical stresses caused by tightening the tightening screw . - a main body (2; 200) made mainly of ceramic and comprising a joint outer surface made of ceramic, of concave or convex shape, - at least one tightening screw configured to tighten the main body (2; 200) on the patient's bone or on an intermediate element attached to said bone, - at least one added ring in the main body (2; 200) and forming with it a chamber trapping the head of the tightening screw and comprising a bearing surface forming a stop for said head of the tightening screw , the added ring being configured to be in contact with the tightening screw during said tightening, the added ring comprising a central hole crossed by the tightening screw ,
A front closing cross-member for a road vehicle, the front closing cross-member comprising: left and right end portions ; and a medial portion having a leading edge , a trailing edge that extends rearward in a longitudinal direction relative to the leading edge , and an airfoil-like cross-sectional shape, wherein the trailing edge has a height less than a height of the leading edge , and the medial portion is arranged between the left and right end portions ; characterized in that : each of the left and right end portions has a rounded, generally rectangular shape and a height greater than a maximum height of the medial portion , each of the left and right end portions defines a plurality of apertures extending in the longitudinal direction, and each aperture of the plurality of apertures is configured to receive a fastener arranged to couple each of the left and right end portions to at least a portion of a structural frame of the road vehicle, wherein for each end portion of the left and right end portions , the plurality of apertures defines at least three apertures that are vertically aligned, with central axes of the apertures being parallel to one another. left and right end portions ; and a medial portion having a leading edge , a trailing edge that extends rearward in a longitudinal direction relative to the leading edge , and an airfoil-like cross-sectional shape, wherein the trailing edge has a height less than a height of the leading edge , and the medial portion is arranged between the left and right end portions ;
Transmitting device for supporting Hybrid Automatic Repeat Request, HARQ, the transmitting device being configured to: select a first interleaving sequence ; interleave a data unit using the first interleaving sequence to obtain a first interleaved data unit to be transmitted to a receiving device ; and if a retransmission of the data unit is required: select a second interleaving sequence , wherein the second interleaving sequence is the first interleaving sequence flipped in the frequency domain, and interleave the data unit using the second interleaving sequence to obtain a second interleaved data unit to be transmitted to the receiving device . select a first interleaving sequence ; interleave a data unit using the first interleaving sequence to obtain a first interleaved data unit to be transmitted to a receiving device ; and if a retransmission of the data unit is required: select a second interleaving sequence , wherein the second interleaving sequence is the first interleaving sequence flipped in the frequency domain, and interleave the data unit using the second interleaving sequence to obtain a second interleaved data unit to be transmitted to the receiving device . select a second interleaving sequence , wherein the second interleaving sequence is the first interleaving sequence flipped in the frequency domain, and interleave the data unit using the second interleaving sequence to obtain a second interleaved data unit to be transmitted to the receiving device .
A topical composition comprising encapsulated resveratrol, oligopeptide-1, and niacinamide, and optionally one or more of Opuntia tuna fruit extract, malachite extract, adenosine, algae extract and/or Opuntia ficus-indica fruit extract.
A functionalized oligomeric compound C having the following general structural formula (I): wherein: - the radicals R, R 1 , R 2 , R 3 and R 4 are the same as or different from one another, and are a C 1 -C 10 alkylene group, preferably C 5 -C 8 , the alkylene is preferably a linear chain; - the radical R 5 is a NH-CO-O-(CH 2 -CH 2 -O) n -R 7 group, wherein the -O-(CH 2 -CH 2 -O) n -R 7 radical is a radical of the alkyl monoether of polyethylene glycol (PEG) wherein R 7 is a C 1 -C 8 alkyl chain of the alkyl monoether and n is an integer from 2 to 22; - m is an integer selected from 0 to 5 and - the radical R 6 is a selected from (a) an isocyanate radical (-NCO), (b) said radical R 5 and (c) a group of general structural formula (II): wherein the radicals R 8 and R 9 can be the same as or different from one another and are selected from H and a linear or branched C 1 -C 4 alkyl radical; in said compound C there are at least two radicals R 6 , each comprising a radical of general structural formula (II). - the radicals R, R 1 , R 2 , R 3 and R 4 are the same as or different from one another, and are a C 1 -C 10 alkylene group, preferably C 5 -C 8 , the alkylene is preferably a linear chain; - the radical R 5 is a NH-CO-O-(CH 2 -CH 2 -O) n -R 7 group, wherein the -O-(CH 2 -CH 2 -O) n -R 7 radical is a radical of the alkyl monoether of polyethylene glycol (PEG) wherein R 7 is a C 1 -C 8 alkyl chain of the alkyl monoether and n is an integer from 2 to 22; - m is an integer selected from 0 to 5 and - the radical R 6 is a selected from (a) an isocyanate radical (-NCO), (b) said radical R 5 and (c) a group of general structural formula (II): wherein the radicals R 8 and R 9 can be the same as or different from one another and are selected from H and a linear or branched C 1 -C 4 alkyl radical; in said compound C there are at least two radicals R 6 , each comprising a radical of general structural formula (II).