mhurhangee/patent-ind-claim-en huggingface dataset:
An antennar system comprising: - a source able to emit at least one beam, the source comprising at least one linear network of antennas , each linear network being able to emit a beam, and - a reflector laid out for reflecting at least the beam, characterized in that the reflector comprises a primary reflector and two secondary reflectors able to reflect the beam towards the primary reflector , each of the primary and secondary reflectors having the shape of a parabolic cylinder, a median plane (P) being defined for the reflector , each secondary reflector being symmetrical relatively to the median plane (P), two ends being defined for the primary reflector , each secondary reflector being positioned facing one respective end of the primary reflector . - a source able to emit at least one beam, the source comprising at least one linear network of antennas , each linear network being able to emit a beam, and - a reflector laid out for reflecting at least the beam, characterized in that the reflector comprises a primary reflector and two secondary reflectors able to reflect the beam towards the primary reflector , each of the primary and secondary reflectors having the shape of a parabolic cylinder, a median plane (P) being defined for the reflector , each secondary reflector being symmetrical relatively to the median plane (P), two ends being defined for the primary reflector , each secondary reflector being positioned facing one respective end of the primary reflector .
Method for providing an actual time profile of a measurement parameter (T) required for a measurement by use of a measuring unit , wherein the time profile of the measurement parameter (T) is obtained by controlling the measurement parameter (T) by means of a controller and a setpoint profile for the measurement parameter (T), wherein the setpoint profile for the measurement parameter (T) comprises a series of several directly successive strictly monotonic or constant partial sections , of which at least two directly successive partial sections have different gradients, wherein a reference variable profile of a reference variable for the controller is produced from the setpoint profile , characterized in that the reference variable profile of the reference variable (T F ) for the controller is obtained starting from the setpoint profile of the measurement parameter (T) by smoothing the setpoint profile in a respective transition region between two of the directly successive partial sections of different gradients in dependence on the characteristic of the controller and/or the time span Δt which the actual time profile of the measurement parameter passes. wherein the setpoint profile for the measurement parameter (T) comprises a series of several directly successive strictly monotonic or constant partial sections , of which at least two directly successive partial sections have different gradients, wherein a reference variable profile of a reference variable for the controller is produced from the setpoint profile , characterized in that the reference variable profile of the reference variable (T F ) for the controller is obtained starting from the setpoint profile of the measurement parameter (T) by smoothing the setpoint profile in a respective transition region between two of the directly successive partial sections of different gradients in dependence on the characteristic of the controller and/or the time span Δt which the actual time profile of the measurement parameter passes.
An electrochromic device comprising an electrode layer; an electrochromic layer located on the electrode layer; and a conductive band located on the electrode layer, and wherein the conductive band has a closed ring shape, wherein the conductive band is in contact with the electrochromic layer, and wherein the conductive band surrounds a peripheral side surface of the electrochromic layer. wherein the conductive band has a closed ring shape, wherein the conductive band is in contact with the electrochromic layer, and wherein the conductive band surrounds a peripheral side surface of the electrochromic layer.
An apparatus for performing positioning operations, comprising: a transceiver of a user equipment, UE, configured to: receive a downlink physical channel from a base station, the downlink physical channel received on one or more slots of one or more subframes of one or more radio frames, the downlink physical channel carrying user data and/or control information from the base station to the UE, the downlink physical channel comprising a physical downlink control channel, PDCCH, or a physical downlink shared channel, PDSCH; receive , from the base station, an indication in a downlink control information, DCI, scheduling message that the base station will transmit reference signals for positioning on the downlink physical channel; and in response to receiving the indication, perform a positioning measurement of a reference signal received from the base station on the downlink physical channel. receive a downlink physical channel from a base station, the downlink physical channel received on one or more slots of one or more subframes of one or more radio frames, the downlink physical channel carrying user data and/or control information from the base station to the UE, the downlink physical channel comprising a physical downlink control channel, PDCCH, or a physical downlink shared channel, PDSCH; receive , from the base station, an indication in a downlink control information, DCI, scheduling message that the base station will transmit reference signals for positioning on the downlink physical channel; and in response to receiving the indication, perform a positioning measurement of a reference signal received from the base station on the downlink physical channel.
A coloring material comprising a protein-based pigment and a chelating agent, the protein-based pigment including a phycobiliprotein, the content of the protein-based pigment in the coloring material being 1% by mass or more and 70 % by mass or less, the content of the chelating agent in the coloring material being 30% by mass or more and 99% by mass or less, with the content of solid components in the coloring material being 100% by mass, wherein the content of water in the coloring material is 15% by mass or less, the coloring material is a powder, and the chelating agent includes at least one compound selected from the group consisting of citric acid, malic acid, ethylenediaminetetraacetic acid, and salts of citric acid, malic acid, and ethylenediaminetetraacetic acid.
A method of controlling a scheduling scheme, the method performed by a base station, BS, and comprising: transmitting first scheduling information including a first resource assignment and a first new data indicator, NDI, on a physical downlink control channel, PDCCH, to a user equipment, UE, to activate a semi-persistent scheduling, SPS, for a downlink data packet to be delivered to the UE with the first resource assignment, the first scheduling information being masked with a persistent Cell Radio Network Temporary Identifier, C-RNTI, associated with the SPS, the first NDI indicating a first value; and transmitting second scheduling information including a second resource assignment on the PDCCH from the BS, the second scheduling information being masked with the persistent C-RNTI associated with the SPS, wherein if the second scheduling information includes a second NDI indicating a second value, the second value being different from the first value, the second scheduling information is used for a retransmission downlink data packet with the second resource assignment. transmitting first scheduling information including a first resource assignment and a first new data indicator, NDI, on a physical downlink control channel, PDCCH, to a user equipment, UE, to activate a semi-persistent scheduling, SPS, for a downlink data packet to be delivered to the UE with the first resource assignment, the first scheduling information being masked with a persistent Cell Radio Network Temporary Identifier, C-RNTI, associated with the SPS, the first NDI indicating a first value; and transmitting second scheduling information including a second resource assignment on the PDCCH from the BS, the second scheduling information being masked with the persistent C-RNTI associated with the SPS, wherein if the second scheduling information includes a second NDI indicating a second value, the second value being different from the first value, the second scheduling information is used for a retransmission downlink data packet with the second resource assignment.
A metronome , comprising: a first sensor to detect strikes to the metronome; a speaker and a controller in communication with the first sensor , wherein when the controller receives a signal from the first sensor indicating a predetermined number of strikes to the metronome , the controller , in response, generates a signal to mute or un-mute said speaker , and wherein when the controller receives a signal from the first sensor indicating an event different from the predetermined number of strikes to the metronome , the controller , in response, generates a signal to one of (i) set a tempo based on a characteristics of the event, (ii) turn on and off the metronome based on a characteristics of the event, and (iii) place the metronome to one of a sleep mode and an awake mode. a first sensor to detect strikes to the metronome; a speaker and a controller in communication with the first sensor , wherein when the controller receives a signal from the first sensor indicating a predetermined number of strikes to the metronome , the controller , in response, generates a signal to mute or un-mute said speaker , and wherein when the controller receives a signal from the first sensor indicating an event different from the predetermined number of strikes to the metronome , the controller , in response, generates a signal to one of (i) set a tempo based on a characteristics of the event, (ii) turn on and off the metronome based on a characteristics of the event, and (iii) place the metronome to one of a sleep mode and an awake mode.
An implantable medical device , comprising: a power supply module ; a processing unit ; an implantable lead system including at least one lead having a plurality of electrodes adapted to stimulate a patient's tissue responsive to instructions generated by the processing unit in association with a pulse generator module, the plurality of electrodes including at least one inactive electrode and at least one active electrode; a charge pump voltage source operative to supply a common-mode voltage reference with respect to one or more circuitry portions of the pulse generator module configured to energize one or more electrodes; and diagnostic circuitry configured to generate one or more control signals for adjusting the common-mode voltage reference provided by the charge pump voltage source depending on a difference between the common-mode voltage reference and an interference voltage sensed at a Kelvin connection node (506-1) associated with the implantable lead system. a power supply module ; a processing unit ; an implantable lead system including at least one lead having a plurality of electrodes adapted to stimulate a patient's tissue responsive to instructions generated by the processing unit in association with a pulse generator module, the plurality of electrodes including at least one inactive electrode and at least one active electrode; a charge pump voltage source operative to supply a common-mode voltage reference with respect to one or more circuitry portions of the pulse generator module configured to energize one or more electrodes; and diagnostic circuitry configured to generate one or more control signals for adjusting the common-mode voltage reference provided by the charge pump voltage source depending on a difference between the common-mode voltage reference and an interference voltage sensed at a Kelvin connection node (506-1) associated with the implantable lead system.
A composition comprising A- poly(vinyl alcohol) (PVOH) in an amount ranging between 30 and 99 wt%; B- at least one crosslinking compound being present in an amount ranging between 0.1 and 20 wt%, and selected from polymers, copolymers and nonpolymeric materials, each having a functionality capable of associating to the PVOH, wherein said functionality is a carboxylic acid selected from dicarboxylic acids, tricarboxylic acids and higher homologues; C- at least one additional bioplastic that is a biodegradable polymer in an amount ranging between 0.1 and 50 wt%, wherein the at least one additional bioplastic is selected from poly(ethylene oxide) (PEO), poly(ethylene glycol) (PEG), polycaprolactone (PCL), poly(lactic acid) (PLA), cellulose and cellulose derivatives, starch, thermoplastic starch (TPS), chitosan and polyhydroxyalkanoates (PHAs); and D- optionally at least one additive in an amount ranging between 0.1 and 20 wt%. A- poly(vinyl alcohol) (PVOH) in an amount ranging between 30 and 99 wt%; B- at least one crosslinking compound being present in an amount ranging between 0.1 and 20 wt%, and selected from polymers, copolymers and nonpolymeric materials, each having a functionality capable of associating to the PVOH, wherein said functionality is a carboxylic acid selected from dicarboxylic acids, tricarboxylic acids and higher homologues; C- at least one additional bioplastic that is a biodegradable polymer in an amount ranging between 0.1 and 50 wt%, wherein the at least one additional bioplastic is selected from poly(ethylene oxide) (PEO), poly(ethylene glycol) (PEG), polycaprolactone (PCL), poly(lactic acid) (PLA), cellulose and cellulose derivatives, starch, thermoplastic starch (TPS), chitosan and polyhydroxyalkanoates (PHAs); and D- optionally at least one additive in an amount ranging between 0.1 and 20 wt%.
A shaft for a rotary star screen apparatus, said shaft having: a shaft body having a series of axially spaced star connectors ; and a series of stars , mounted to said star connectors , each one of said stars comprising a plurality of circumferentially distributed star members each elongate in a direction having a component radially away from said shaft body ; characterized in that said star connectors each comprise a plurality of circumferentially distributed star member connectors ; and wherein each of said star members is a separate part, individually and detachably mounted to one of said star member connectors . a shaft body having a series of axially spaced star connectors ; and a series of stars , mounted to said star connectors , each one of said stars comprising a plurality of circumferentially distributed star members each elongate in a direction having a component radially away from said shaft body ; characterized in that said star connectors each comprise a plurality of circumferentially distributed star member connectors ; and wherein each of said star members is a separate part, individually and detachably mounted to one of said star member connectors .
A superhigh strength gas shielded welding wire, characterized in that the contents of chemical elements of the superhigh strength gas shielded welding wire in percentage by mass are: C 0.06-0.12%, Si 0.55-0.80%, Mn 1.60-1.95%, 0 < Cu < 0.20%, Cr 0.10-0.35%, Mo 0.10-0.50%, Ni 1.00-1.60%, Ti 0.01-0.20%, B 0.0005-0.0060%, and the balance being Fe and other inevitable impurities; and in further satisfying: 0.30% Cr + Mo ≤ 0.60% and 0.15% ≤ Cr + Cu ≤ 0.40%.
Wind turbine tower ring segment , wherein the wind turbine tower ring segment is configured as a jacket segment, and preferably as a concrete element, having two abutment locations for abutting abutment locations of at least one further wind turbine tower ring segment , and having at least one clearance in the region of each abutment location, wherein in the region of each abutment location in each case a first connection element is incorporated in the wind turbine tower ring segment, wherein the respective first connection element comprises an anchoring bar having a first end and a second end , a connection flange , disposed on the first end of the anchoring bar , for connecting the connection element to a second connection element which is incorporated in a further wind turbine tower ring segment so as to, on account thereof, connect the two wind turbine tower ring segments , at least supporting the connection of the two latter, and two, three, or a plurality of anchoring elements which are disposed in a portion of the anchoring bar that is adjacent to the second end , wherein the anchoring elements are configured as head bolts and the anchoring bar in a manner orthogonal to the longitudinal axis thereof has a rectangular cross section, and wherein the respective first connection element is incorporated in the wind turbine tower ring segment in such a manner that a second end of the anchoring bar by way of the anchoring elements configured as head bolts is hidden in the wind turbine tower ring segment , and the first end of the anchoring bar by way of the connection flange protrudes outward into the clearance.
A method for producing a butene polymer, comprising: a polymerization step of performing polymerization reaction by contacting a raw material component comprising 20% by mass or more of isobutene with a Lewis acid catalyst; an addition step of adding a butene oligomer to the reaction solution of the polymerization reaction; a water washing step of water-washing the reaction solution supplemented with the butene oligomer to obtain a solution to be treated containing the reaction product and the butene oligomer; and a distillation step of subjecting the solution to be treated to distillation treatment to obtain the butene polymer, wherein an amount of the butene oligomer added is 25 parts by mass or larger with respect to 100 parts by mass of the reaction product. a polymerization step of performing polymerization reaction by contacting a raw material component comprising 20% by mass or more of isobutene with a Lewis acid catalyst; an addition step of adding a butene oligomer to the reaction solution of the polymerization reaction; a water washing step of water-washing the reaction solution supplemented with the butene oligomer to obtain a solution to be treated containing the reaction product and the butene oligomer; and a distillation step of subjecting the solution to be treated to distillation treatment to obtain the butene polymer, wherein an amount of the butene oligomer added is 25 parts by mass or larger with respect to 100 parts by mass of the reaction product.
A heat transfer apparatus, comprising a first flow conduit for a first fluid and a second flow conduit for a second fluid that is in heat-transferring contact with the first flow conduit, wherein the first flow conduit comprises a plurality of pipe units (1.1) which are arranged parallel to one another and which conduct the first fluid vertically, wherein the second flow conduit comprises a cavity (2.1) which runs around the pipe units (1.1) and which conducts the second fluid vertically, wherein a first distribution device (3.1) is provided for supplying the first fluid to the pipe units (1.1) and a second distribution device (3.2) is provided for discharging the first fluid from the pipe units (1.1), wherein a plurality of flow openings (3.3) for the second fluid that are connected to the cavity (2.1) are respectively provided on both distribution devices (3.1, 3.2), wherein the distribution devices (3.1, 3.2) are designed so as to be disk-shaped, wherein the distribution device (3.1, 3.2) has a plurality of distribution channels (3.4) for the first fluid, characterized in that the pipe units (1.1) have a rectangular inner flow cross section, wherein the distribution device (3.1, 3.2) is formed by a base body (3.5) that delimits the distribution channels (3.4) on at least three sides and a cover element (3.6) that delimits the distribution channels (3.4) on one side.
A method for determining a content acquisition path, comprising: receiving , by a first network node, a request from a user, wherein the request is used for requesting an original content provider to provide a content, and the request carries a name of the content, a network address of the original content provider and a network address of the user; calculating , by the first network node, at least two forwarding paths to the original content provider, and determining a content acquisition path according to link cost on each forwarding path and a content cache hit rate of a network node on each forwarding path ; sending , by the first network node, the request to a next network node according to the content acquisition path, for enabling the next network node to forward or respond to the request; the method being further characterised by the features of: receiving , by the first network node, a content data packet generated by a cache network node hitting the content or generated by the original content provider, wherein the content data packet carries content hit rate information of all cache network nodes passed by the request; extracting , by the first network node, the content hit rate information in the content data packet; and updating, by the first network node, content hit rate information stored locally of corresponding network nodes. receiving , by a first network node, a request from a user, wherein the request is used for requesting an original content provider to provide a content, and the request carries a name of the content, a network address of the original content provider and a network address of the user; calculating , by the first network node, at least two forwarding paths to the original content provider, and determining a content acquisition path according to link cost on each forwarding path and a content cache hit rate of a network node on each forwarding path ; sending , by the first network node, the request to a next network node according to the content acquisition path, for enabling the next network node to forward or respond to the request; the method being further characterised by the features of: receiving , by the first network node, a content data packet generated by a cache network node hitting the content or generated by the original content provider, wherein the content data packet carries content hit rate information of all cache network nodes passed by the request; extracting , by the first network node, the content hit rate information in the content data packet; and updating, by the first network node, content hit rate information stored locally of corresponding network nodes. receiving , by the first network node, a content data packet generated by a cache network node hitting the content or generated by the original content provider, wherein the content data packet carries content hit rate information of all cache network nodes passed by the request; extracting , by the first network node, the content hit rate information in the content data packet; and updating, by the first network node, content hit rate information stored locally of corresponding network nodes.