mhurhangee/ep-ind-claims huggingface dataset:
A UV curable coating composition for ophthalmic lenses comprising: a) at least one epoxy alkoxysilane; b) at least one polyfunctional acrylate monomer and/or polyfunctional epoxy compound, different from a); and c) at least one UV absorber. a) at least one epoxy alkoxysilane; b) at least one polyfunctional acrylate monomer and/or polyfunctional epoxy compound, different from a); and c) at least one UV absorber.
An oil-in-water emulsion comprising an aqueous phase, an oil phase comprising squalene, a surfactant comprising polysorbate 80, a phospholipid, and a lipophilic small molecule immune potentiator (SMIP), wherein the phospholipid is 1,2-Distearoyl-sn-Glycero-3-phosphatidylcholine or 1,2-Dioleoyl-sn-Glycero-3-phosphatidylcholine, the SMIP is palmitoyl-Cys(2,3-dilauroyloxy-propyl)-Abu-D-Glu-NH2 or a salt thereof, and the average droplet size in the emulsion is less than 250nm, provided that (i) the phospholipid does not include an amino acid residue and (ii) the phospholipid is not a cationic phospholipid.
A pharmaceutical composition for manufacturing an orally disintegrating tablet, comprising: a coated active substance; a buffer having a hardness of less than 1 time as high as the hardness of the particle of the coated active substance and a particle diameter which is 0.1 to 10 times as large as the particle diameter of the coated active substance; and a shield having a hardness of 1 to 20 times as high as the particle of the coated active substance and a particle size that is 1 to 10 times as large as the particle diameter of the coated active substance, wherein the buffer refers to an excipient that performs buffer action by being destroyed before the coating layer is destroyed in order to prevent the coated active substance from being destroyed by pressure that is applied during the tableting process, and wherein the shield refers to an excipient that precludes pressure from being applied to the active substance while the buffer destroyed by the pressure is disposed in spaces formed during the tableting process, and wherein the weight ratio of the buffer with respect to the coated active substance is 5 or less, and the weight ratio of the shield with respect to the coated active substance is 3 or less. a coated active substance; a buffer having a hardness of less than 1 time as high as the hardness of the particle of the coated active substance and a particle diameter which is 0.1 to 10 times as large as the particle diameter of the coated active substance; and a shield having a hardness of 1 to 20 times as high as the particle of the coated active substance and a particle size that is 1 to 10 times as large as the particle diameter of the coated active substance, wherein the buffer refers to an excipient that performs buffer action by being destroyed before the coating layer is destroyed in order to prevent the coated active substance from being destroyed by pressure that is applied during the tableting process, and wherein the shield refers to an excipient that precludes pressure from being applied to the active substance while the buffer destroyed by the pressure is disposed in spaces formed during the tableting process, and wherein the weight ratio of the buffer with respect to the coated active substance is 5 or less, and the weight ratio of the shield with respect to the coated active substance is 3 or less.
A film comprising a continuous surface having a plurality of large scale apertures originating therein, said large scale apertures are basins defined by sidewalls extending outwardly from said continuous surface and a bottom wall, said bottom wall having at least one fluid passage therein, and a discontinuous surface disposed generally parallel to and spaced from said continuous surface; said discontinuous surface having large scale apertures therein, said large scale apertures defined by sidewalls originating on said discontinuous surface and extending outwardly therefrom; wherein the large scale apertures on the continuous surface are oriented in the same direction as the large scale apertures on the discontinuous surface; and wherein the large scale apertures on said discontinuous surface have a diameter, or an equivalent hydraulic diameter, of at least 400 μm and transfer insult fluids through the film by gravity.
Unmanned missile configured for airspeeds in the supersonic range, comprising: at least two rudders which are each rotatable about an axis of rotation extending transverse to a missile longitudinal axis by means of a first drive device; the rudders each having a first blade segment and a second blade segment; the blade segments (10; 20) in each case forming, at least in part, mutually opposite flow surfaces (1a; 1b) of a cross-sectional profile of the associated rudder; characterised in that the blade segments (10; 20) are in each case movable relative to one another about a centre of rotation by means of a second drive device to change the cross-sectional profile. at least two rudders which are each rotatable about an axis of rotation extending transverse to a missile longitudinal axis by means of a first drive device; the rudders each having a first blade segment and a second blade segment; the blade segments (10; 20) in each case forming, at least in part, mutually opposite flow surfaces (1a; 1b) of a cross-sectional profile of the associated rudder; characterised in that the blade segments (10; 20) are in each case movable relative to one another about a centre of rotation by means of a second drive device to change the cross-sectional profile.
A refrigerating apparatus including a refrigerant circuit to which a compressor and a positive displacement type expander are connected and which performs a refrigeration cycle by circulating refrigerant, comprising: any one of an expansion type muffler, a branch pipe type muffler, and an interference type muffler wherein the refrigerant circuit uses carbon dioxide as the refrigerant for performing the refrigeration cycle, in which the compressor compresses the refrigerant to over its critical pressure, characterized in that the refrigerant circuit includes pressure reducing means for allowing high-pressure refrigerant to be in a gas-liquid two-phase state by reducing its pressure, and the muffler (30, 40, 50) is provided between the outflow side of the pressure reducing means and the inflow side of the expander. any one of an expansion type muffler, a branch pipe type muffler, and an interference type muffler wherein the refrigerant circuit uses carbon dioxide as the refrigerant for performing the refrigeration cycle, in which the compressor compresses the refrigerant to over its critical pressure, characterized in that the refrigerant circuit includes pressure reducing means for allowing high-pressure refrigerant to be in a gas-liquid two-phase state by reducing its pressure, and the muffler (30, 40, 50) is provided between the outflow side of the pressure reducing means and the inflow side of the expander.
A monoclonal antibody or a fragment of a monoclonal antibody capable of binding to a serum form of human thymidine kinase 1, wherein said monoclonal antibody or fragment has specificity for at least one epitope selected from a group consisting of NCPVPGKPGE, SEQ ID NO: 4; PVPGKPGEAV, SEQ ID NO: 5; and NCPVPGKPGEAV, SEQ ID NO: 3 of said human TK1; and said monoclonal antibody or fragment has a variable heavy domain complementarity determining region 1 having amino acid sequence SEQ ID NO: 15; a VH domain CDR2 having amino acid sequence SEQ ID NO: 16; a VH domain CDR3 having amino acid sequence SEQ ID NO: 17; a variable light domain CDR1 having amino acid sequence SEQ ID NO: 18; a VL domain CDR2 having amino acid sequence SEQ ID NO: 19; and a VL domain CDR3 having amino acid sequence SEQ ID NO: 20. a variable heavy domain complementarity determining region 1 having amino acid sequence SEQ ID NO: 15; a VH domain CDR2 having amino acid sequence SEQ ID NO: 16; a VH domain CDR3 having amino acid sequence SEQ ID NO: 17; a variable light domain CDR1 having amino acid sequence SEQ ID NO: 18; a VL domain CDR2 having amino acid sequence SEQ ID NO: 19; and a VL domain CDR3 having amino acid sequence SEQ ID NO: 20.
A radio communication base station for receiving an aperiodic sounding reference signal, A-SRS, comprising: a transmitter adapted to transmit control information including a transmission request for the A-SRS and a transmission power control command, TPC command, for the A-SRS, a transmission power value of the A-SRS being controlled using a first accumulation value updated with the transmitted TPC command, a receiver adapted to receive the A-SRS at the controlled transmission power value, and a measurer adapted to measure channel state information, CSI, using the received A-SRS, wherein a second accumulation value instead of the first accumulation value is used for controlling, the second accumulation value being updated with a TPC command transmitted on a specific subframe and in a specific downlink control information DCI format. a transmitter adapted to transmit control information including a transmission request for the A-SRS and a transmission power control command, TPC command, for the A-SRS, a transmission power value of the A-SRS being controlled using a first accumulation value updated with the transmitted TPC command, a receiver adapted to receive the A-SRS at the controlled transmission power value, and a measurer adapted to measure channel state information, CSI, using the received A-SRS, wherein a second accumulation value instead of the first accumulation value is used for controlling, the second accumulation value being updated with a TPC command transmitted on a specific subframe and in a specific downlink control information DCI format.
A control device for a vehicle for determining a comfort level of a driver, the control device being configured to: receive sensor output of a physiological sensor and a behavioral sensor, the physiological sensor measuring at least one physiological feature of the driver and the behavioral sensor measuring at least one behavioral feature of the driver, receive driving context information from a driving context detection unit, create a reference data set by recording the sensor output and the driving context information over a predetermined reference time period, determine a reference index for the comfort level of the driver based on the reference data set, determine a comfort level index value of the driver, the index value being determined as a function of a current sensor output, current driving context information and the reference index, define a fixed-length sliding window during which the sensor output is recorded, and determine the comfort level index value of the driver based the fixed-length sliding window. receive sensor output of a physiological sensor and a behavioral sensor, the physiological sensor measuring at least one physiological feature of the driver and the behavioral sensor measuring at least one behavioral feature of the driver, receive driving context information from a driving context detection unit, create a reference data set by recording the sensor output and the driving context information over a predetermined reference time period, determine a reference index for the comfort level of the driver based on the reference data set, determine a comfort level index value of the driver, the index value being determined as a function of a current sensor output, current driving context information and the reference index, define a fixed-length sliding window during which the sensor output is recorded, and determine the comfort level index value of the driver based the fixed-length sliding window.
Motor assembly comprising: - an electric motor for actuating a valve of a vehicle, the electric motor having a shaft, - a motor control unit comprising a leadframe at least partially overmolded with a plastic housing, the leadframe supporting a number of motor control devices arranged in the housing, the leadframe having at least two pins providing terminals for electrical connection to the electric motor - a housing receiving the electric motor and the control unit, - wherein the shaft protrudes on a first side of the motor assembly, - wherein at least two terminals of the electric motor protrude on the first side of the motor assembly, - wherein the pins protrude from the plastic housing on the first side of the motor assembly, - wherein the pins have a first portion being in contact with the plastic housing, - a second portion for making contact with the terminals of the electric motor and - a weak portion arranged between the first portion and the second portion, - wherein after assembling the motor control unit and the electric motor with the housing, the weak portion of each pin is bent out of an original orientation into an assembly orientation in which the second portion of each pin makes contact with a terminal of the electric motor. - an electric motor for actuating a valve of a vehicle, the electric motor having a shaft, - a motor control unit comprising a leadframe at least partially overmolded with a plastic housing, the leadframe supporting a number of motor control devices arranged in the housing, the leadframe having at least two pins providing terminals for electrical connection to the electric motor - a housing receiving the electric motor and the control unit, - wherein the shaft protrudes on a first side of the motor assembly, - wherein at least two terminals of the electric motor protrude on the first side of the motor assembly, - wherein the pins protrude from the plastic housing on the first side of the motor assembly, - wherein the pins have a first portion being in contact with the plastic housing, - a second portion for making contact with the terminals of the electric motor and - a weak portion arranged between the first portion and the second portion, - wherein after assembling the motor control unit and the electric motor with the housing, the weak portion of each pin is bent out of an original orientation into an assembly orientation in which the second portion of each pin makes contact with a terminal of the electric motor.
A gas turbine system with an air flow control system, the gas turbine system comprising: an airflow generation system for attachment to a rotatable shaft of a gas turbine system for drawing in an excess flow of air through an air intake section; a mixing area for receiving an exhaust gas stream produced by a turbine component of the gas turbine system; a selective catalytic reduction system for processing the exhaust gas stream from the mixing area; characterized by an air extraction system for extracting at least a portion of the excess flow of air generated by the airflow generation system to provide bypass air; an enclosure surrounding the gas turbine system and forming an air passage, the bypass air flowing through the air passage and around a compressor component, a combustor component and the turbine component of the gas turbine system into the mixing area to reduce a temperature of the exhaust gas stream produced by the turbine component of the gas turbine system; and a mixing system for mixing the bypass air with the exhaust gas stream in the mixing area; wherein the selective catalytic reduction system processes the reduced temperature exhaust gas stream from the mixing area. an airflow generation system for attachment to a rotatable shaft of a gas turbine system for drawing in an excess flow of air through an air intake section; a mixing area for receiving an exhaust gas stream produced by a turbine component of the gas turbine system; a selective catalytic reduction system for processing the exhaust gas stream from the mixing area; characterized by an air extraction system for extracting at least a portion of the excess flow of air generated by the airflow generation system to provide bypass air; an enclosure surrounding the gas turbine system and forming an air passage, the bypass air flowing through the air passage and around a compressor component, a combustor component and the turbine component of the gas turbine system into the mixing area to reduce a temperature of the exhaust gas stream produced by the turbine component of the gas turbine system; and a mixing system for mixing the bypass air with the exhaust gas stream in the mixing area; wherein the selective catalytic reduction system processes the reduced temperature exhaust gas stream from the mixing area.
A method for detecting that an attacker has sent one or more messages to a receiver node, the method comprising: storing at least a portion of an nth message received by the receiver node from a sender node in a memory device; sending an integrity check message to the sender node comprising an indication of the value of n; receiving a reply message from the sender node including at least a portion of the nth message sent by the sender node to the receiver node; and comparing the at least a portion of the nth message sent by the sender node to the receiver node with the nth message received by the receiver node from the sender node stored in the memory device. storing at least a portion of an nth message received by the receiver node from a sender node in a memory device; sending an integrity check message to the sender node comprising an indication of the value of n; receiving a reply message from the sender node including at least a portion of the nth message sent by the sender node to the receiver node; and comparing the at least a portion of the nth message sent by the sender node to the receiver node with the nth message received by the receiver node from the sender node stored in the memory device.
A touch controller comprising: circuitry configured to be coupled to a first touch pixel and a second adjacent touch pixel on a touch sensor panel, the circuitry configured to: during a first time period, drive and sense the first touch pixel and couple the second touch pixel to a reference voltage; and during a second time period, drive and sense the second touch pixel and couple the first touch pixel to the reference voltage, characterized in that: the reference voltage is set such that it is less than a system ground. circuitry configured to be coupled to a first touch pixel and a second adjacent touch pixel on a touch sensor panel, the circuitry configured to: during a first time period, drive and sense the first touch pixel and couple the second touch pixel to a reference voltage; and during a second time period, drive and sense the second touch pixel and couple the first touch pixel to the reference voltage, characterized in that: the reference voltage is set such that it is less than a system ground. during a first time period, drive and sense the first touch pixel and couple the second touch pixel to a reference voltage; and during a second time period, drive and sense the second touch pixel and couple the first touch pixel to the reference voltage, characterized in that: the reference voltage is set such that it is less than a system ground. the reference voltage is set such that it is less than a system ground.
A control system, comprising a processor configured to: receive a first dataset associated with a type of load device coupled to a switch device; receive a second dataset associated with one or more operations of the load device over a period of time; determine a switching profile to control moving an armature of the switch device between a first position and a second position based on the first dataset and the second dataset, wherein the switching profile comprises a firing angle for moving the armature with respect to an electrical waveform; receive a third dataset associated with protection equipment associated with the load device; and adjust the switching profile based on the third dataset; and control a current provided to a coil of the switch device based on the switching profile, wherein the coil is configured to cause the armature to move. receive a first dataset associated with a type of load device coupled to a switch device; receive a second dataset associated with one or more operations of the load device over a period of time; determine a switching profile to control moving an armature of the switch device between a first position and a second position based on the first dataset and the second dataset, wherein the switching profile comprises a firing angle for moving the armature with respect to an electrical waveform; receive a third dataset associated with protection equipment associated with the load device; and adjust the switching profile based on the third dataset; and control a current provided to a coil of the switch device based on the switching profile, wherein the coil is configured to cause the armature to move.
A toilet seat set including a toilet seat and a toilet seat lid that are joined to each other via a toilet seat joint assembly, both the toilet seat and the toilet lid having a plate-shaped structure, wherein both the toilet seat and the toilet lid in a state in which they lie on top of each other, have a circumferential gap of less than 10 mm, preferably between 3 and 7 mm, and wherein the toilet seat and the lid are manufactured according to an SMC or BMC method, the toilet lid and the toilet seat consisting of fiber-reinforced resin consisting of a duroplast resin matrix with reinforcement fibers and at least the toilet lid and the toilet seat consisting of preferably cellulose-free SMC or BMC solid material.
Timepiece oscillator structure comprising at least one divisible unit, which comprises at least one component which comprises at least one flexible blade or at least one blade with necks, joining two main units, each more rigid than said flexible blade or blade with necks, where said divisible unit comprises at least one gripping unit which is designed to be adjacent to at least one said main unit to which it is connected by at least one divisible linkage which is designed in order to make possible the detachment of said gripping unit from said component when said component is fixed, by means of at least said particular main unit which is designed to be adjacent to said gripping unit, to a more rigid external element than said flexible blade or than the necks of said blade with necks, characterised in that the same gripping unit is adjacent to the main units situated on both sides of the same flexible blade or blade with necks, in order to protect said flexible blade or blade with necks.