mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna device comprising: a ground electrode ; a first dielectric layer which is provided on one surface of the ground electrode ; a feed plate which is provided on a surface of the first dielectric layer opposite from the ground electrode and is made of a conductor, and which is shorted to the ground electrode ; a feed line which feeds to the feed plate ; a second dielectric layer which is provided in such a manner as to sandwich the feed plate with the first dielectric layer ; and a radiation electrode which is provided on a surface of the second dielectric layer opposite from the feed plate , and which is fed by being electrically connected to the feed plate at a feed point to radiate or receive a radiowave with a first frequency, characterized in that : a slit is formed in the ground electrode , wherein the slit radiates or receives a radiowave with a second frequency and in that one end of the ground electrode , where the slit is not formed, is bent in a direction away from the radiation electrode , and the ground electrode is grounded at the one end . a ground electrode ; a first dielectric layer which is provided on one surface of the ground electrode ; a feed plate which is provided on a surface of the first dielectric layer opposite from the ground electrode and is made of a conductor, and which is shorted to the ground electrode ; a feed line which feeds to the feed plate ; a second dielectric layer which is provided in such a manner as to sandwich the feed plate with the first dielectric layer ; and a radiation electrode which is provided on a surface of the second dielectric layer opposite from the feed plate , and which is fed by being electrically connected to the feed plate at a feed point to radiate or receive a radiowave with a first frequency, characterized in that : a slit is formed in the ground electrode , wherein the slit radiates or receives a radiowave with a second frequency and in that a slit is formed in the ground electrode , wherein the slit radiates or receives a radiowave with a second frequency and in that one end of the ground electrode , where the slit is not formed, is bent in a direction away from the radiation electrode , and the ground electrode is grounded at the one end .
A fluid dispenser module (M; M') for incorporating in a fluid dispenser head (T; T'; T") that is mounted on a fluid reservoir (R), the fluid dispenser module (M; M') comprising a fluid inlet (13; 13'), a dispenser orifice , and a fluid flow path (Cp) between the fluid inlet (13; 13') and the dispenser orifice , the dispenser module (M; M') further comprising a valve (3, 20; 3', 2') that selectively interrupts said fluid flow path (Cp), said valve (3, 20; 3', 2') opening when the fluid in the fluid flow path (Cp) upstream from the valve (3, 20; 3', 2') is at a determined pressure, characterized in that it further comprises a vent path (Ca) for venting the fluid reservoir (R).
An antisense morpholino oligomer for use in a method of treating a bacterial infection by reducing expression and activity of a protein associated with a biochemical pathway and/or cellular process in a bacterium, wherein the bacterium is in a subject and is selected from the genus Klebsiella, and the protein is an acyl carrier protein encoded by the acpP gene, said method comprising contacting the bacterium with an antisense morpholino oligomer, wherein the antisense morpholino oligomer is composed of morpholino subunits and phosphorus-containing intersubunit linkages joining a morpholino nitrogen of one subunit to a 5'-exocyclic carbon of an adjacent subunit, and having (a) 10-40 nucleotide bases, and (b) a targeting sequence of SEQ ID NO: 2 (TGC TCA TAC TC), where the oligomer is conjugated to a cell-penetrating peptide (CPP).
A method for wireless communication, comprising: receiving , by a wireless user equipment device that is one of a plurality of wireless user equipment devices, user equipment grouping parameters (105A-D) for group assignment, which configure how the plurality of wireless user equipment devices are to be organized into groups (103A-D) associated with different wake-up signals to be received from an access node at predetermined intervals before different transmissions are received from the access node, to indicate to the wireless user equipment device when to monitor a control channel in response to receiving a wake-up signal, prior to monitoring the different transmissions received from the access node; wherein the assignment of wireless user equipment devices to each group is based on the user equipment grouping parameters; and monitoring , by the wireless user equipment device, a control channel in response to receiving the wake-up signal, based on the grouping of the wireless user equipment device to one of the groups associated with the wake-up signal; wherein the user equipment grouping parameters comprise a relative number of wireless devices per each group, wherein v i is a parameter value for group i , a relative distribution of the wireless user equipment devices among K groups is proportional to the user equipment grouping parameters, and a group index for the wireless user equipment devices is determined as UE group index = { 0 , 0 < I ≤ V 0 i V i − 1 < I ≤ V i , 1 ≤ i ≤ K − 1 where I = UE ID mod V K − 1 and V i = ∑ j = 0 i v j . receiving , by a wireless user equipment device that is one of a plurality of wireless user equipment devices, user equipment grouping parameters (105A-D) for group assignment, which configure how the plurality of wireless user equipment devices are to be organized into groups (103A-D) associated with different wake-up signals to be received from an access node at predetermined intervals before different transmissions are received from the access node, to indicate to the wireless user equipment device when to monitor a control channel in response to receiving a wake-up signal, prior to monitoring the different transmissions received from the access node; wherein the assignment of wireless user equipment devices to each group is based on the user equipment grouping parameters; and monitoring , by the wireless user equipment device, a control channel in response to receiving the wake-up signal, based on the grouping of the wireless user equipment device to one of the groups associated with the wake-up signal; wherein the user equipment grouping parameters comprise a relative number of wireless devices per each group, wherein v i is a parameter value for group i , a relative distribution of the wireless user equipment devices among K groups is proportional to the user equipment grouping parameters, and a group index for the wireless user equipment devices is determined as UE group index = { 0 , 0 < I ≤ V 0 i V i − 1 < I ≤ V i , 1 ≤ i ≤ K − 1 where I = UE ID mod V K − 1 and V i = ∑ j = 0 i v j .
A positive electrode piece, comprising a current collector and an electrode active material layer disposed on at least one surface of the current collector , wherein the current collector comprises a support layer and a conductive layer disposed on at least one surface of the support layer , and a single side thickness D2 of the conductive layer satisfies 30 nm≤D2≤3 μm, a material of the conductive layer is aluminum or aluminum alloy, and a density of the conductive layer is 2.5 g/cm<3> to 2.8 g/cm<3>, and a primer layer comprising a conductive material and a binder is also arranged between the current collector and the electrode active material layer ; wherein from a direction of a width of a coated surface of the positive electrode piece, the electrode active material layer comprises 2n+1 regions based on a compaction density, and a compaction density of a middle region is higher than compaction densities of the regions on both sides, wherein n is a positive natural number.
A catalyst layer comprising an electrocatalyst comprising platinum, wherein the platinum can be alloyed or mixed with: one or more other precious metals, or base metals, or an oxide of a precious metal or a base metal; and an oxygen evolution catalyst, characterised in that the oxygen evolution catalyst comprises a crystalline metal oxide of formula (AA') a (BB') b O c . wherein A and A' are the same or different and are selected from the group consisting of yttrium, lanthanum, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, magnesium, calcium, strontium, barium, sodium, potassium, indium, thallium, tin, lead, antimony and bismuth; B is selected from the group consisting of Ru, Ir, Os, and Rh; B' is selected from the group consisting of Ru, Ir, Os, Rh, Ca, Mg or RE (wherein RE is a rare earth metal), indium, thallium, tin, lead, antimony and bismuth; wherein a is 1.33 to 3; b is 2; and c is 3 to 10. one or more other precious metals, or base metals, or an oxide of a precious metal or a base metal; and an oxygen evolution catalyst, characterised in that the oxygen evolution catalyst comprises a crystalline metal oxide of formula (AA') a (BB') b O c . wherein A and A' are the same or different and are selected from the group consisting of yttrium, lanthanum, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, magnesium, calcium, strontium, barium, sodium, potassium, indium, thallium, tin, lead, antimony and bismuth; B is selected from the group consisting of Ru, Ir, Os, and Rh; B' is selected from the group consisting of Ru, Ir, Os, Rh, Ca, Mg or RE (wherein RE is a rare earth metal), indium, thallium, tin, lead, antimony and bismuth; wherein a is 1.33 to 3; b is 2; and c is 3 to 10.
A turbine bucket for use with a gas turbine engine , comprising: a platform ; an airfoil extending from the platform ; and a plurality of cooling circuits extending through the platform and the airfoil , wherein one of the plurality of cooling circuits comprises a serpentine cooling channel comprising one or more legs and one or more bends within the platform ; characterized by a plurality of core ties between the one or more legs of the serpentine cooling channel to facilitate inspection and repair access, the core ties being brazed shut in normal operation of the turbine bucket. a platform ; an airfoil extending from the platform ; and a plurality of cooling circuits extending through the platform and the airfoil , wherein one of the plurality of cooling circuits comprises a serpentine cooling channel comprising one or more legs and one or more bends within the platform ; characterized by a plurality of core ties between the one or more legs of the serpentine cooling channel to facilitate inspection and repair access, the core ties being brazed shut in normal operation of the turbine bucket.
A method of wireless communication by a user equipment, UE, comprising: transmitting a supported configuration of the UE for sounding reference signal, SRS, transmission; receiving , in response to transmitting the supported configuration, configuration information for the SRS transmission, wherein the configuration information is generated based on the supported configuration; and communicating , with at least a subset of a plurality of TRPs, using the SRS transmission on resource elements assigned based on the configuration information; characterized in that the supported configuration by the UE of the SRS transmission comprises information indicating the UE supports one or more of transmitting the SRS transmission over a first span of an integer number of resource blocks during a slot, transmitting the SRS transmission using every resource element over a second span of one or more resource blocks during the slot, or transmitting the SRS transmission using one of every N resource elements over a third span of one or more resource blocks during the slot, wherein N is greater than 4. transmitting a supported configuration of the UE for sounding reference signal, SRS, transmission; receiving , in response to transmitting the supported configuration, configuration information for the SRS transmission, wherein the configuration information is generated based on the supported configuration; and communicating , with at least a subset of a plurality of TRPs, using the SRS transmission on resource elements assigned based on the configuration information; characterized in that the supported configuration by the UE of the SRS transmission comprises information indicating the UE supports one or more of transmitting the SRS transmission over a first span of an integer number of resource blocks during a slot, transmitting the SRS transmission using every resource element over a second span of one or more resource blocks during the slot, or transmitting the SRS transmission using one of every N resource elements over a third span of one or more resource blocks during the slot, wherein N is greater than 4.
A method of controlling a plasma in a nuclear fusion reactor, the nuclear fusion reactor comprising sensors and plasma control inputs, the sensors comprising a set of primary sensors which are configured to monitor the state of the plasma and a set of secondary sensors which are configured to monitor other properties of the reactor, the method comprising: providing (S101) an initial control model relating readings of only the primary sensors to control of the plasma control inputs; performing a control loop comprising: operating (S103) the plasma control inputs in dependence upon the sensors according to the control model; determining, (S104) during operation of the reactor, correlations between readings of the primary sensors and the secondary sensors, and/or between readings of the secondary sensors and states of the plasma control inputs; and adjusting (S106) the control model based on the determined correlations, including adding a secondary sensor to the control model when a correlation has been found for that sensor. providing (S101) an initial control model relating readings of only the primary sensors to control of the plasma control inputs; performing a control loop comprising: operating (S103) the plasma control inputs in dependence upon the sensors according to the control model; determining, (S104) during operation of the reactor, correlations between readings of the primary sensors and the secondary sensors, and/or between readings of the secondary sensors and states of the plasma control inputs; and adjusting (S106) the control model based on the determined correlations, including adding a secondary sensor to the control model when a correlation has been found for that sensor. operating (S103) the plasma control inputs in dependence upon the sensors according to the control model; determining, (S104) during operation of the reactor, correlations between readings of the primary sensors and the secondary sensors, and/or between readings of the secondary sensors and states of the plasma control inputs; and adjusting (S106) the control model based on the determined correlations, including adding a secondary sensor to the control model when a correlation has been found for that sensor.
An air oil separator assembly comprising: (a) a tank with a surrounding wall defining an interior volume , an open mouth in communication with the interior volume , and a closed bottom ; the tank further including, (i) an inlet extending through the wall ; (ii) a lower liquid sump in the interior volume held by the closed bottom ; and (iii) a flange circumscribing the mouth; the flange having a projection therefrom; and (b) a filter element removably positioned in the interior volume ; the filter element comprising: (i) a tubular construction of filter media having opposite first and second ends and a longitudinal axis; and (ii) a first end cap construction secured to the first end of the filter media ; the first end cap construction including a flange-receiving recess therein; wherein the projection on the flange of the tank extends into the flange-receiving recess of the first end cap construction ; characterized in that said air oil separator assembly further comprises a cover removably mounted on the tank over the mouth to provide selective access to the interior volume . (a) a tank with a surrounding wall defining an interior volume , an open mouth in communication with the interior volume , and a closed bottom ; the tank further including, (i) an inlet extending through the wall ; (ii) a lower liquid sump in the interior volume held by the closed bottom ; and (iii) a flange circumscribing the mouth; the flange having a projection therefrom; and (i) an inlet extending through the wall ; (ii) a lower liquid sump in the interior volume held by the closed bottom ; and (iii) a flange circumscribing the mouth; the flange having a projection therefrom; and (b) a filter element removably positioned in the interior volume ; the filter element comprising: (i) a tubular construction of filter media having opposite first and second ends and a longitudinal axis; and (ii) a first end cap construction secured to the first end of the filter media ; the first end cap construction including a flange-receiving recess therein; (i) a tubular construction of filter media having opposite first and second ends and a longitudinal axis; and (ii) a first end cap construction secured to the first end of the filter media ; the first end cap construction including a flange-receiving recess therein; wherein the projection on the flange of the tank extends into the flange-receiving recess of the first end cap construction ; characterized in that said air oil separator assembly further comprises a cover removably mounted on the tank over the mouth to provide selective access to the interior volume .
A chemical liquid injector for injecting a chemical liquid filled in a syringe having a cylinder and a piston, comprising: a piston driving mechanism driven by a motor for moving the piston of the syringe into and out of the cylinder; a motor current measuring circuit configured to measure a motor current, the motor current being a current flowing through the motor; a display device ; and an injector control circuit configured to control operation of the motor such that the chemical liquid in the syringe is injected in accordance with an injection protocol for the chemical liquid, to calculate an injection pressure of the chemical liquid by using the result of the motor current measurement by the motor current measuring circuit , wherein the injector control circuit is configured to display the calculated injection pressure on the display device while a chemical liquid injection operation is performed by driving the motor, to temporarily stop the operation of the motor when the calculated injection pressure reaches a preset limit pressure during the injection of the chemical liquid, characterized in that the injector control circuit is configured to display the preset limit pressure as the injection pressure on the display device instead of the calculated injection pressure during the stop of the operation of the motor due to the injection pressure reaching the preset limit pressure. a piston driving mechanism driven by a motor for moving the piston of the syringe into and out of the cylinder; a motor current measuring circuit configured to measure a motor current, the motor current being a current flowing through the motor; a display device ; and an injector control circuit configured to control operation of the motor such that the chemical liquid in the syringe is injected in accordance with an injection protocol for the chemical liquid, to calculate an injection pressure of the chemical liquid by using the result of the motor current measurement by the motor current measuring circuit , wherein the injector control circuit is configured to display the calculated injection pressure on the display device while a chemical liquid injection operation is performed by driving the motor, to temporarily stop the operation of the motor when the calculated injection pressure reaches a preset limit pressure during the injection of the chemical liquid, characterized in that the injector control circuit is configured to display the preset limit pressure as the injection pressure on the display device instead of the calculated injection pressure during the stop of the operation of the motor due to the injection pressure reaching the preset limit pressure.
A hair extender, wherein the hair extender at least comprises a main plate , a clamping assembly, and a transmission pressing plate; a rear end surface of the main plate is provided with a sliding groove running leftwards and rightwards; a plurality of first clamping bosses are extended forwards from a bottom of the sliding groove to go beyond a front end surface of the main plate, distributed at an interval, and arranged in a straight line; a right sidewall of each of the first clamping bosses is provided with a first clamping recess ; the bottom of the sliding groove is provided with a plurality of mounting grooves running through the front end surface and the rear end surface of the main plate, and the mounting grooves are one-to-one corresponding to the first clamping bosses ; the clamping assembly is mounted in the sliding groove of the main plate, and comprises a push rod and a reset spring ; a plurality of second clamping bosses are extended forwards from positions on the push rod corresponding to the mounting grooves of the main plate; the second clamping bosses run through the mounting grooves and are one-to-one corresponding to the first clamping bosses ; a second clamping recess is provided at a position on a sidewall of each of the second clamping bosses corresponding to one of the first clamping recesses of the first clamping bosses; one of the first clamping recesses and one of the second clamping recesses together construct a clamping cavity matched with a hair extension clip; a right end of the reset spring abuts against a right portion of the sliding groove, and a left end of the reset spring abuts against a right end portion of the push rod; the main plate is provided with a moving groove running upwards and downwards; the transmission pressing plate is mounted in the moving groove; an extension portion is extended from the transmission pressing plate towards an upper side of the main plate; a plurality of vertical mounting rods are fixed below the extension portion, located above the sliding groove of the main plate, and one-to-one corresponding to the clamping cavities.