mhurhangee/patent-ind-claim-en huggingface dataset:
A plasticizer composition, comprising: a terephthalate-based plasticizer in which each of two alkyl groups bound to a diester group independently has 4 to 10 carbon atoms; and a trimellitate-based plasticizer represented by Formula 1 below, wherein an epoxidized oil is not contained in the plasticizer: In Formula 1, R 1 to R 3 are each independently an alkyl group having 4 to 10 carbon atoms, wherein the terephthalate-based plasticizer and the trimellitate-based plasticizer are included at a weight ratio of 90:10 to 10:90, and with the proviso that the trimellitate-based plasticizer is not a trimellitate of Formula 1 above where R1 to R3 are each independently C 3 to C 5 -alkyl when the terephtalate-based plasticizer is a terephtalate in which each of two alkyl groups bound to a diester group independently has 8 carbon atoms. a terephthalate-based plasticizer in which each of two alkyl groups bound to a diester group independently has 4 to 10 carbon atoms; and a trimellitate-based plasticizer represented by Formula 1 below, wherein an epoxidized oil is not contained in the plasticizer: In Formula 1, R 1 to R 3 are each independently an alkyl group having 4 to 10 carbon atoms, wherein the terephthalate-based plasticizer and the trimellitate-based plasticizer are included at a weight ratio of 90:10 to 10:90, and with the proviso that the trimellitate-based plasticizer is not a trimellitate of Formula 1 above where R1 to R3 are each independently C 3 to C 5 -alkyl when the terephtalate-based plasticizer is a terephtalate in which each of two alkyl groups bound to a diester group independently has 8 carbon atoms.
A method for managing control channel usage in Carrier Aggregation, comprising: defining a time reuse factor and a time reuse pattern for a Physical Uplink Control Channel (PUCCH) resource on a Primary Cell (PCell) for enabling time multiplexing the subframes of the resource (S21); and assigning a Physical Uplink Control Channel (PUCCH) resource element to a requesting User Equipment (UE) by using colliding resources in different subframes (S22), wherein the time reuse factor and the time reuse pattern are variably set based on at least one of the number of requesting User Equipments (UE) and the individual traffic needs of the requesting User Equipment (UE). defining a time reuse factor and a time reuse pattern for a Physical Uplink Control Channel (PUCCH) resource on a Primary Cell (PCell) for enabling time multiplexing the subframes of the resource (S21); and assigning a Physical Uplink Control Channel (PUCCH) resource element to a requesting User Equipment (UE) by using colliding resources in different subframes (S22), wherein the time reuse factor and the time reuse pattern are variably set based on at least one of the number of requesting User Equipments (UE) and the individual traffic needs of the requesting User Equipment (UE).
Fluid header tank for a heat exchanger, comprising a receptacle delimited by at least one side wall and a bottom wall having multiple first openings substantially aligned along a direction of elongation of the tank (A-A), the receptacle being closed by a cover having at least a second opening for receiving a supply duct opposite multiple first openings , wherein said second opening has an elongate shape having a larger dimension along the direction of elongation of the tank (A-A) and said second opening having a ratio between its largest and its smallest dimension at least greater than 1.5, characterized in that it has a sleeve which protrudes from the outer face of the cover to surround said second opening .
A method for wireless communication performed by an apparatus, comprising: generating a frame for transmitting data to one or more wireless nodes; determining whether to include a frame extension after a data symbol in the frame, wherein the determination is to include the frame extension if a transmission data rate to be used to transmit the frame is greater than or equal to a threshold value; determining a length of the frame extension based on a reception capability of the one or more wireless nodes expected to receive the frame; providing an indication of the length of the frame extension within the frame, if the determination is to include the frame extension; and determining a number of spatial streams to be used to transmit the frame and a transmission bandwidth to be used to transmit the frame, wherein the threshold value is based on at least one of the transmission bandwidth or the number of spatial streams outputting the frame for transmission. generating a frame for transmitting data to one or more wireless nodes; determining whether to include a frame extension after a data symbol in the frame, wherein the determination is to include the frame extension if a transmission data rate to be used to transmit the frame is greater than or equal to a threshold value; determining a length of the frame extension based on a reception capability of the one or more wireless nodes expected to receive the frame; providing an indication of the length of the frame extension within the frame, if the determination is to include the frame extension; and determining a number of spatial streams to be used to transmit the frame and a transmission bandwidth to be used to transmit the frame, wherein the threshold value is based on at least one of the transmission bandwidth or the number of spatial streams outputting the frame for transmission.
A peripheral intravenous (IV) waveform analysis (PIVA) system, comprising: a peripheral IV device configured to acquire, from a vein of a living subject, peripheral venous signals; and a processing device communicatively connected to the peripheral IV device, configured to: receive (S210) the peripheral venous signals from the peripheral IV device; and perform (S220) a spectral analysis on the peripheral venous signal to obtain a peripheral venous pressure frequency spectrum; characterized in that the processing device is further configured to: perform (S230) a statistical analysis on amplitudes of peaks of the peripheral venous pressure frequency spectrum to determine an intravascular volume status of the living subject in real time. a peripheral IV device configured to acquire, from a vein of a living subject, peripheral venous signals; and a processing device communicatively connected to the peripheral IV device, configured to: receive (S210) the peripheral venous signals from the peripheral IV device; and perform (S220) a spectral analysis on the peripheral venous signal to obtain a peripheral venous pressure frequency spectrum; characterized in that the processing device is further configured to: perform (S230) a statistical analysis on amplitudes of peaks of the peripheral venous pressure frequency spectrum to determine an intravascular volume status of the living subject in real time. receive (S210) the peripheral venous signals from the peripheral IV device; and perform (S220) a spectral analysis on the peripheral venous signal to obtain a peripheral venous pressure frequency spectrum; characterized in that the processing device is further configured to: perform (S230) a statistical analysis on amplitudes of peaks of the peripheral venous pressure frequency spectrum to determine an intravascular volume status of the living subject in real time.
A method of wireless communication by a base station, comprising: receiving one or more local operation notifications from one or more UEs, each of the one or more local operation notifications indicating a local operation that is local to a respective UE of the one or more UEs, wherein each of the one or more local operation notifications is received from a respective UE for the one or more UEs, the local operation being a self-calibration and/or a transmission blockage detection of the one or more UEs, allocating one or more resources for the one or more local operations of the one or more UEs, wherein the one or more resources are allocated in response to the one or more local operation notifications; determining one or more resource indicators indicating the one or more resources; and transmitting the one or more resource indicators to the one or more UEs. receiving one or more local operation notifications from one or more UEs, each of the one or more local operation notifications indicating a local operation that is local to a respective UE of the one or more UEs, wherein each of the one or more local operation notifications is received from a respective UE for the one or more UEs, the local operation being a self-calibration and/or a transmission blockage detection of the one or more UEs, allocating one or more resources for the one or more local operations of the one or more UEs, wherein the one or more resources are allocated in response to the one or more local operation notifications; determining one or more resource indicators indicating the one or more resources; and transmitting the one or more resource indicators to the one or more UEs.
Heating system comprising; - heat exchange devices comprising a domestic water heat exchanger and one or more heat exchanger devices like radiators, floor heating devices etc., - branch supply lines , - branch return lines , - a main supply line for feeding a heating fluid to said heat exchanging devices through said branch supply lines , and - one main return line for returning the heating fluid from said heat exchanging devices through said branch return lines, - a controller , and - a by-pass line and a control valve positioned controlling the flow through said by-pass line , said by-pass line connecting said main supply line and said main return line , where the by-pass line is connected to the main supply line upstream to the heat exchanger devices like radiators, floor heating devices etc., but downstream of the domestic water heat exchanger , characterized in that for periods where no heat is supplied to the heat exchanging devices , the controller is adapted to regulate the control valve by a re-heating procedure of the fluid in the main supply line or in one of said branch supply lines where the control valve opens for a time period under a given condition. - heat exchange devices comprising a domestic water heat exchanger and one or more heat exchanger devices like radiators, floor heating devices etc., - branch supply lines , - branch return lines , - a main supply line for feeding a heating fluid to said heat exchanging devices through said branch supply lines , and - one main return line for returning the heating fluid from said heat exchanging devices through said branch return lines, - a controller , and - a by-pass line and a control valve positioned controlling the flow through said by-pass line , said by-pass line connecting said main supply line and said main return line , where the by-pass line is connected to the main supply line upstream to the heat exchanger devices like radiators, floor heating devices etc., but downstream of the domestic water heat exchanger ,
Process for preparing a semi-finished product comprising a PAEK-based resin and reinforcing fibres, comprising the steps of: a. preparing a dispersion comprising a PAEK-based resin in pulverulent form dispersed in an aqueous phase comprising at least one surfactant; b. bringing the reinforcing fibres into contact with said aqueous dispersion; c. drying the fibres impregnated with dispersion; and d. heating the impregnated fibres to a temperature sufficient for the melting of the resin, so as to form a semi-finished product, characterized in that the surfactant is a thermally stable surfactant as defined in the description. a. preparing a dispersion comprising a PAEK-based resin in pulverulent form dispersed in an aqueous phase comprising at least one surfactant; b. bringing the reinforcing fibres into contact with said aqueous dispersion; c. drying the fibres impregnated with dispersion; and d. heating the impregnated fibres to a temperature sufficient for the melting of the resin, so as to form a semi-finished product,
A method for cooperative multipoint transmission, comprising controlling the transmission of reference signals (CSI RS1, CSI RS2) corresponding to a plurality of sites such that reference signals (CSI RS1, CSI RS2) are transmitted in different time intervals depending on the strength of reception of the reference signals (CSI RS1, CSI RS2)_at a user equipment , informing the user equipment about the time intervals and of a channel state information reference signal activation pattern being applied, the activation pattern separating strong channel components from weak channel components.
A piezoelectric device , comprising: a vibrating film ; and a piezoelectric film that is provided on the vibrating film and has a first surface in contact with the vibrating film and a second surface on an opposite side to the first surface; first and second electrodes electrically connected to the piezoelectric film and that are disposed at positions away from each other and are short-circuited to each other at a position away from the piezoelectric film ; and a third electrode that is provided between the first and second electrodes and is disposed at a position away from the first and second electrodes , characterized in that at least parts of contours of end portions of the first and second electrodes are defined in parallel to side portions of the third electrode , and wherein the third electrode is provided where a strain (ε) of the vibrating film is maximized if the vibrating film performs ultrasonic vibration. a vibrating film ; and a piezoelectric film that is provided on the vibrating film and has a first surface in contact with the vibrating film and a second surface on an opposite side to the first surface; first and second electrodes electrically connected to the piezoelectric film and that are disposed at positions away from each other and are short-circuited to each other at a position away from the piezoelectric film ; and a third electrode that is provided between the first and second electrodes and is disposed at a position away from the first and second electrodes , characterized in that at least parts of contours of end portions of the first and second electrodes are defined in parallel to side portions of the third electrode , and wherein the third electrode is provided where a strain (ε) of the vibrating film is maximized if the vibrating film performs ultrasonic vibration.
A system for determining electrical faults, comprising: switch circuitry comprising at least one first switch detector resistor in parallel communication with at least one switch ; terminal board circuitry comprising at least one terminal board resistor in parallel communication with the switch circuitry and in communication with a power source ; acquisition board circuitry comprising voltage comparison circuitry operable to receive a generated reference voltage value as a first input and a field voltage value as a second input and to output a comparison value , wherein the field voltage value represents voltage communicated from the switch circuitry and the terminal board circuitry ; and a controller comprising at least one processor and instructions, wherein the controller is adapted to: receive a power source reference ; control the generated reference voltage value based at least in part on the power source reference to the voltage comparison circuitry ; receive the comparison value from the voltage comparison circuitry ; and determine one of a plurality of electrical faults based at least in part on the comparison value , characterised in that the switch circuitry further comprises at least one second switch detector resistor in series communication with the at least one switch for detecting when the switch is closed. switch circuitry comprising at least one first switch detector resistor in parallel communication with at least one switch ; terminal board circuitry comprising at least one terminal board resistor in parallel communication with the switch circuitry and in communication with a power source ; acquisition board circuitry comprising voltage comparison circuitry operable to receive a generated reference voltage value as a first input and a field voltage value as a second input and to output a comparison value , wherein the field voltage value represents voltage communicated from the switch circuitry and the terminal board circuitry ; and a controller comprising at least one processor and instructions, wherein the controller is adapted to: receive a power source reference ; control the generated reference voltage value based at least in part on the power source reference to the voltage comparison circuitry ; receive the comparison value from the voltage comparison circuitry ; and determine one of a plurality of electrical faults based at least in part on the comparison value , characterised in that the switch circuitry further comprises at least one second switch detector resistor in series communication with the at least one switch for detecting when the switch is closed. receive a power source reference ; control the generated reference voltage value based at least in part on the power source reference to the voltage comparison circuitry ; receive the comparison value from the voltage comparison circuitry ; and determine one of a plurality of electrical faults based at least in part on the comparison value , characterised in that the switch circuitry further comprises at least one second switch detector resistor in series communication with the at least one switch for detecting when the switch is closed.
An aircraft in a state in which a gas turbine engine is temporarily mounted to a pylon on a wing of the aircraft, the pylon having a forward pylon mount and a rearward pylon mount , the gas turbine engine having a forward engine mount for service attachment to the forward pylon mount and a rearward engine mount for service attachment to the rearward pylon mount ; characterised in that a positional relationship between the gas turbine engine and the pylon being such that the forward engine mount is out of alignment with the forward pylon mount and/or the rearward engine mount is out of alignment with the rearward pylon mount , at least one temporary forward link , being length-adjustable, and at least one temporary rearward link , being length-adjustable, the gas turbine engine being temporarily attached to the pylon via the at least one temporary forward link and the at least one temporary rearward link , wherein the at least one temporary forward link and the at least one temporary rearward link are each adapted to resist tension and compression, to maintain the positional relationship between the gas turbine engine and the pylon in the absence of adjustment of the lengths of the at least one temporary forward link and the at least one temporary rearward link ; wherein adjustment of the length of at least one of the temporary forward link and the temporary rearward link is operable to bring the forward engine mount into alignment with the forward pylon mount and/or the rearward engine mount into alignment with the rearward pylon mount for service attachment of the gas turbine engine to the pylon , and the at least one temporary forward link and the at least one temporary rearward link are removable from the gas turbine engine and from the pylon .
A spinal implant for placement in an intervertebral space between a first vertebral body (V i ) and a second vertebral body (V s ) of a spine, the spinal implant comprising: a body having a first surface for contacting the first vertebral body; a first extendable support element connected to the body at a first location, the first extendable support element including a first piston slidably received within a first cylinder , and the first extendable support element being configured to expand so as to apply a first expansion force directed away from the first surface; a second extendable support element connected to the body at a second location, the second extendable support element including a second piston slidably received within a second cylinder , and the second extendable support element being configured to expand so as to apply a second expansion force directed away from the first surface; and an input for expanding the first and second extendable support elements, wherein the first and second extendable support elements are configured to be extended by supplying a hydraulic fluid to the input, and wherein the spinal implant is configured such that application of a single input force to the spinal implant via the input induces the first extendable support element to expand and apply the first expansion force and induces the second extendable support element to expand and apply the second expansion force, the first expansion force being greater than the second expansion force. a body having a first surface for contacting the first vertebral body; a first extendable support element connected to the body at a first location, the first extendable support element including a first piston slidably received within a first cylinder , and the first extendable support element being configured to expand so as to apply a first expansion force directed away from the first surface; a second extendable support element connected to the body at a second location, the second extendable support element including a second piston slidably received within a second cylinder , and the second extendable support element being configured to expand so as to apply a second expansion force directed away from the first surface; and an input for expanding the first and second extendable support elements, wherein the first and second extendable support elements are configured to be extended by supplying a hydraulic fluid to the input, and wherein the spinal implant is configured such that application of a single input force to the spinal implant via the input induces the first extendable support element to expand and apply the first expansion force and induces the second extendable support element to expand and apply the second expansion force, the first expansion force being greater than the second expansion force.
Optical device for interference structuring of a sample , comprising a laser for emitting a laser beam , a beam splitter for splitting the laser beam into at least two partial beams (8.1, 8.2), at least one first cylindrical lens , and at least one second cylindrical lens for refracting the at least two partial beams (8.1, 8.2) in the direction of an interference region , the beam splitter , the at least first cylindrical lens , and the at least one second cylindrical lens being arranged in the beam path of the laser beam such that the at least two partial beams (8.1, 8.2) of the laser beam interfere with one another in the interference region such that a structure having linear structural elements can be formed in a structure region of the sample , and the cylinder axis (ZA 1 ) of the at least one first cylindrical lens being oriented parallel to the cylinder axis (ZA 2 ) of the at least one second cylindrical lens , at least one third cylindrical lens being provided in the form of a converging lens, the cylinder axis (ZA 3 ) of which is oriented perpendicular to the optical axis, characterized in that the cylinder axis (ZA 3 ) of the third cylindrical lens is oriented perpendicular to the cylinder axis (ZA 1 ) of the at least one first cylindrical lens .