mhurhangee/ep-ind-claims huggingface dataset:
A method of an access point, comprising: generating a preamble (441; 451); CHARACTERISED BY generating a very high throughput signal, VHT-SIG, field (442; 452), wherein the VHT-SIG field comprises information of whether the access point allows a terminal (403, 405, 407, 409) in transmission opportunity, TXOP, power saving mode to enter a doze state during a TXOP duration; generating a medium access control MAC, frame comprising a MAC header, wherein the MAC header comprises information indicating whether additional data is transmitted to the terminal; and transmitting, to the terminal, a data frame (440; 450) comprising the preamble, the VHT-SIG field, the MAC frame, and a corresponding data field. generating a preamble (441; 451); CHARACTERISED BY generating a very high throughput signal, VHT-SIG, field (442; 452), wherein the VHT-SIG field comprises information of whether the access point allows a terminal (403, 405, 407, 409) in transmission opportunity, TXOP, power saving mode to enter a doze state during a TXOP duration; generating a medium access control MAC, frame comprising a MAC header, wherein the MAC header comprises information indicating whether additional data is transmitted to the terminal; and transmitting, to the terminal, a data frame (440; 450) comprising the preamble, the VHT-SIG field, the MAC frame, and a corresponding data field.
An aqueous coating composition, in particular dispersion paint, comprising or obtained by mixing a) an aqueous dispersion binding agent comprising copolymers A) and dispersed inorganic solid particles B) and optionally at least one alkoxy-substituted polysiloxane C) (aqueous composite particle dispersion), wherein the inorganic solid particles B) are selected from the group consisting of fumed silica, colloidal silica, non-delaminated sheet silicates, delaminated sheet silicates and mixtures thereof, wherein the copolymers A) comprise as copolymerized units A1) at least one comonomer having a hydrolyzable silane as functional group wherein said functional group does not act as a chain extender during the copolymerization reaction, and as copolymerized units A2) ethylenically unsaturated comonomers different from comonomers A1), b) at least one organic, in particular water-dispersed or dispersible or water-emulsifiable or emulsified, binding agent different from binding agent a) and selected from the group consisting of vinylacetate/ethylene copolymers, copolymers based on vinylaromatic compounds and (meth)acrylates, in particular acrylates, copolymers based on all-acrylic compounds, and mixtures thereof, c) at least one dispersing agent, d) at least one filler, e) at least one organic solvent, and f) water. a) an aqueous dispersion binding agent comprising copolymers A) and dispersed inorganic solid particles B) and optionally at least one alkoxy-substituted polysiloxane C) (aqueous composite particle dispersion), wherein the inorganic solid particles B) are selected from the group consisting of fumed silica, colloidal silica, non-delaminated sheet silicates, delaminated sheet silicates and mixtures thereof, wherein the copolymers A) comprise as copolymerized units A1) at least one comonomer having a hydrolyzable silane as functional group wherein said functional group does not act as a chain extender during the copolymerization reaction, and as copolymerized units A2) ethylenically unsaturated comonomers different from comonomers A1), b) at least one organic, in particular water-dispersed or dispersible or water-emulsifiable or emulsified, binding agent different from binding agent a) and selected from the group consisting of vinylacetate/ethylene copolymers, copolymers based on vinylaromatic compounds and (meth)acrylates, in particular acrylates, copolymers based on all-acrylic compounds, and mixtures thereof, c) at least one dispersing agent, d) at least one filler, e) at least one organic solvent, and f) water.
A flow delivery article to deliver a gaseous flow to the mouth of a user, comprising: a flow pathway; and a flow-driven vibration component (4, 18, 27, 32) configured to provide vibration driven by flow passing along the flow pathway, thereby to provide tactile stimulation to the user, and wherein the vibration component comprises a rotary member (5, 20, 28, 33) arranged to rotate in response to receiving flow. a flow pathway; and a flow-driven vibration component (4, 18, 27, 32) configured to provide vibration driven by flow passing along the flow pathway, thereby to provide tactile stimulation to the user, and wherein the vibration component comprises a rotary member (5, 20, 28, 33) arranged to rotate in response to receiving flow.
An adaptor for connecting a drill bit to a hollow shank of a self-drilling rock bolt, the adaptor including a body which extends in an axial direction between a distal end and a proximal end, a tubular conduit which extends between the ends(32, 34), an abutment surface formed in an outer surface of the body that divides the body into a proximal portion and a distal portion, wherein at least a part of the proximal portion includes a first taper which tapers towards the proximal end, wherein at least a part of the distal portion includes a second taper which tapers towards the distal end, and wherein the first taper and the second taper are adapted for friction fit in a bore of the shank and a recess in the drill bit respectively.
A baling device to form bales of crop material having a cylindrical shape, comprising: - a frame, - an intake device having an inlet and an outlet, wherein the intake device is arranged on the frame to take in crop material via the inlet and wherein the outlet of the intake device is located at a fixed position with respect to the frame, - a bale forming device for forming a bale of said crop material, wherein the bale forming device is arranged on the frame and comprises: - at least one endless belt to delimit a baling chamber, and - a number of guiding elements (11, 12, 13) to guide the endless belt, wherein the endless belt is arranged on the guiding elements (11, 12, 13) to receive, during formation of a bale, crop material from the outlet of the intake device between two guiding elements (11, 12, 13) arranged at opposite sides of the outlet, the baling chamber to be formed between the two guiding elements (11, 12, 13), characterized in that the bale forming device comprises at least four guiding elements (11a, 11b, 11c, 11d) which are movably mounted with respect to the outlet of the intake device to position for subsequent bales different pairs (11a, 11b and 11c, 11d) of two guiding elements of the at least four movable guiding elements (11a, 11b, 11c, 11d) at the opposite sides of the outlet, wherein each of the movable guiding elements (11a, 11b, 11c, 11d) is arranged on an arm which arm is rotatable with respect to a common axis of rotation. - a frame, - an intake device having an inlet and an outlet, wherein the intake device is arranged on the frame to take in crop material via the inlet and wherein the outlet of the intake device is located at a fixed position with respect to the frame, - a bale forming device for forming a bale of said crop material, wherein the bale forming device is arranged on the frame and comprises: - at least one endless belt to delimit a baling chamber, and - a number of guiding elements (11, 12, 13) to guide the endless belt, wherein the endless belt is arranged on the guiding elements (11, 12, 13) to receive, during formation of a bale, crop material from the outlet of the intake device between two guiding elements (11, 12, 13) arranged at opposite sides of the outlet, the baling chamber to be formed between the two guiding elements (11, 12, 13),
A dual inductor circuit (40, 50) comprising: a first inductor (46, 56) defining a first terminal (41, 51) and a second terminal (42, 52), wherein the first inductor coils from the first and second terminals to a ground terminal (45, 55); and a second inductor (48, 58) disposed inside the first inductor, the second inductor defining a third terminal (43, 53) and a fourth terminal (44, 54), wherein the second inductor coils from the third and fourth terminals to the ground terminal, and wherein third and fourth terminals of the second inductor are independent from the first inductor. a first inductor (46, 56) defining a first terminal (41, 51) and a second terminal (42, 52), wherein the first inductor coils from the first and second terminals to a ground terminal (45, 55); and a second inductor (48, 58) disposed inside the first inductor, the second inductor defining a third terminal (43, 53) and a fourth terminal (44, 54), wherein the second inductor coils from the third and fourth terminals to the ground terminal, and wherein third and fourth terminals of the second inductor are independent from the first inductor.
A method of operation of a first device having a trusted relationship with a network-based media service to establish a temporary trust relationship between the network-based media service and a second device, comprising: obtaining a certificate of the second device, the second device being a device that does not have a trusted relationship with the network-based media service; generating a temporary token for the second device based on the certificate of the second device; and sending the temporary token for the second device to a server that provides the network-based media service to thereby pre-authorize the second device for temporary media service. obtaining a certificate of the second device, the second device being a device that does not have a trusted relationship with the network-based media service; generating a temporary token for the second device based on the certificate of the second device; and sending the temporary token for the second device to a server that provides the network-based media service to thereby pre-authorize the second device for temporary media service.
A device for measuring the loss factor and/or for measuring the phase angle between a voltage and a current and/or for recording a decay process of the voltage and/or the current and/or for recording partial discharge processes and/or for transit time measurement on test objects, wherein the device comprises a housing in which there is arranged at least one test circuit for carrying out the measurement and/or recording operation, wherein the device comprises a coaxial cable which is provided for connection of the housing to a voltage generator and which has at least one internal conductor and at least one external conductor, wherein the test circuit comprises a current detection device, characterized in that the test circuit has an ohmic voltage divider which is connected to the external conductor of the coaxial cable, and in that the current detection device is connected to the internal conductor of the coaxial cable.
A solid form comprising a crystalline form of a compound of Formula: the crystalline form having an X-ray powder diffraction pattern having a peak located at 13.01 ± 0.10 and 15.40 ± 0.10 degrees 2θ and optionally peaks located at 1, 2, 3, 4, 5, 6, or all of the following peak positions: 10.25 ± 0.10, 20.56 ± 0.10, 21.07 ± 0.10, 24.84 ± 0.10, 25.78 ± 0.10, and 26.17 ± 0.10 degrees 2θ.
A data acquisition device for analyzing a reference object (41, 42), the data acquisition device having a longitudinal axis and comprising: a lens assembly; an image capture device in communication with the lens assembly for receiving and processing light from the lens assembly to generate images; a light source; a light tube coupled at a rear end to the light source and extending along the longitudinal axis between a front end and the rear end, the light tube operable to transport light from the light source therethrough and emit the light from the front end; an actuator operable to activate the image capture device and the light source; a shell, the shell surrounding the lens assembly, the image capture device, the light source, and the light tube; and a plurality of spacers disposed proximate the front end of the light tube, each of the plurality of spacers extending from the shell and sized to space the front end of the light tube from an exterior surface on which the reference object is configured. a lens assembly; an image capture device in communication with the lens assembly for receiving and processing light from the lens assembly to generate images; a light source; a light tube coupled at a rear end to the light source and extending along the longitudinal axis between a front end and the rear end, the light tube operable to transport light from the light source therethrough and emit the light from the front end; an actuator operable to activate the image capture device and the light source; a shell, the shell surrounding the lens assembly, the image capture device, the light source, and the light tube; and a plurality of spacers disposed proximate the front end of the light tube, each of the plurality of spacers extending from the shell and sized to space the front end of the light tube from an exterior surface on which the reference object is configured.
A faceplate for an angle of attack sensor comprising: a heated chassis having an annular heater positioned on the heated chassis; a mounting plate positioned on the heated chassis and including: a first opening at a center of the mounting plate; and mounting holes located around a periphery of the mounting plate and extending through the mounting plate; and an air gap located between the mounting plate and the heated chassis; wherein the heated chassis includes an annular space in the heated chassis that extends around the heated chassis and into the heated chassis from an exterior surface of the heated chassis to form an internal chamber between the heated chassis and the mounting plate. a heated chassis having an annular heater positioned on the heated chassis; a mounting plate positioned on the heated chassis and including: a first opening at a center of the mounting plate; and mounting holes located around a periphery of the mounting plate and extending through the mounting plate; and a first opening at a center of the mounting plate; and mounting holes located around a periphery of the mounting plate and extending through the mounting plate; and an air gap located between the mounting plate and the heated chassis; wherein the heated chassis includes an annular space in the heated chassis that extends around the heated chassis and into the heated chassis from an exterior surface of the heated chassis to form an internal chamber between the heated chassis and the mounting plate.
A surgical instrument system, comprising: a surgical communications hub; and a surgical instrument (8030, 8040) comprising a controller, a first set of firmware, and a communications system configured to communicate with said surgical communications hub, wherein said first set of firmware is suitable for said surgical instrument (8030, 8040) to perform a first surgical technique, and wherein said controller is selectively operable by the user of said surgical instrument system to upload a second set of firmware from said surgical communications hub that makes said surgical instrument (8030, 8040) suitable to perform a second surgical technique which is different than said first surgical technique. wherein said surgical instrument (8030, 8040) comprises: a shaft; an end effector; an articulation joint rotatably connecting said end effector to said shaft; and an articulation drive system comprising an articulation motor in communication with said controller, wherein said controller configured to move said end effector through a first articulation range when said controller is using said first set of firmware, wherein said controller configured to move said end effector through a second articulation range when said controller is using said second set of firmware; wherein said first articulation range is less than said second articulation range; or said first articulation range is greater than said second articulation range. a surgical communications hub; and a surgical instrument (8030, 8040) comprising a controller, a first set of firmware, and a communications system configured to communicate with said surgical communications hub, wherein said first set of firmware is suitable for said surgical instrument (8030, 8040) to perform a first surgical technique, and wherein said controller is selectively operable by the user of said surgical instrument system to upload a second set of firmware from said surgical communications hub that makes said surgical instrument (8030, 8040) suitable to perform a second surgical technique which is different than said first surgical technique. a shaft; an end effector; an articulation joint rotatably connecting said end effector to said shaft; and an articulation drive system comprising an articulation motor in communication with said controller, wherein said controller configured to move said end effector through a first articulation range when said controller is using said first set of firmware, wherein said controller configured to move said end effector through a second articulation range when said controller is using said second set of firmware; wherein said first articulation range is less than said second articulation range; or said first articulation range is greater than said second articulation range.
A method for determining a sub-therapeutic, a therapeutic, a moderately toxic or toxic concentration of aspirin in an individual by measuring the levels of salicylic acid and salicyluric acid in an in vitro urinary sample taken from the individual, calculating the ratio of salicylic acid to salicyluric acid in the sample, and comparing the calculated ratio to one or more ratios of salicylic acid to salicyluric acid indicative of a non-toxic concentration, a moderately toxic or toxic concentration of aspirin in which a ratio of salicylic acid to salicyluric acid of less than about 1.00:7.50 indicates a sub-therapeutic concentration, between about 1.00: 7.50 and about 1.00: 3.00 indicates a therapeutic concentration, between about 1.00: 3.00 and about 1.00: 1.00 indicates a moderately toxic concentration, and greater than about 1.00: 1.00 indicates a toxic concentration.
An electronic overload relay comprising: a bus bar (30, 30-1 to 30-4) formed by a conductive metallic material, adapted to be provided between an electromagnetic contactor and a load, or between a circuit breaker and the electromagnetic contactor; and a resistor part arranged between one end and the other end of the bus bar, and including a shunt resistor for detecting a value of a current flowing through the bus bar, wherein the electronic overload relay is characterized in that the bus bar (30, 30-1 to 30-4) includes a bus bar base being a plate-shaped conductive member (300, 301, 302, 303, 304), wherein the resistor part is integrated on the bus bar base. a bus bar (30, 30-1 to 30-4) formed by a conductive metallic material, adapted to be provided between an electromagnetic contactor and a load, or between a circuit breaker and the electromagnetic contactor; and a resistor part arranged between one end and the other end of the bus bar, and including a shunt resistor for detecting a value of a current flowing through the bus bar, wherein the electronic overload relay is characterized in that the bus bar (30, 30-1 to 30-4) includes a bus bar base being a plate-shaped conductive member (300, 301, 302, 303, 304), wherein the resistor part is integrated on the bus bar base.
Method of operating an electrochemical system (100, 201), the method comprising: transporting an aqueous electrolyte of the electrochemical system (100, 201) comprising a first electrode comprising an electrochemically active material comprising aluminum, and a second electrode comprising an electrochemically active cathode material through a porous medium (130, 230), such that a solid comprising aluminum is heterogeneously precipitated on a surface of the porous medium (130, 230), wherein at least a portion of the aluminum within the solid originates from a product of an electricity generating electrochemical reaction carried out within the electrochemical system (100, 201). transporting an aqueous electrolyte of the electrochemical system (100, 201) comprising a first electrode comprising an electrochemically active material comprising aluminum, and a second electrode comprising an electrochemically active cathode material through a porous medium (130, 230), such that a solid comprising aluminum is heterogeneously precipitated on a surface of the porous medium (130, 230), wherein at least a portion of the aluminum within the solid originates from a product of an electricity generating electrochemical reaction carried out within the electrochemical system (100, 201).
A metal powder additive manufacturing method, the method comprising: providing a metal powder bed within a processing chamber (130, 144); using a melting element for sequentially melting layers of metal powder on the metal powder bed to generate an object made of metal which includes a pure metal or an alloy; and using a control system for controlling a flow of a gas mixture within the processing chamber (130, 144) from a source of inert gas and a source of an oxygen containing material, the gas mixture including the inert gas and oxygen from the oxygen containing material; wherein a volume percentage of oxygen in the gas mixture is between approximately 0.5% to approximately 1%. providing a metal powder bed within a processing chamber (130, 144); using a melting element for sequentially melting layers of metal powder on the metal powder bed to generate an object made of metal which includes a pure metal or an alloy; and using a control system for controlling a flow of a gas mixture within the processing chamber (130, 144) from a source of inert gas and a source of an oxygen containing material, the gas mixture including the inert gas and oxygen from the oxygen containing material; wherein a volume percentage of oxygen in the gas mixture is between approximately 0.5% to approximately 1%.
An amphibious personal watercraft vehicle comprising: a sit-astride seat, a planing hull, front and rear wheel arches (36, 37) on either side of the vehicle, at least four wheels (50, 51, 52, 53), each of which is movable between an extended land mode location and a retracted water mode location two of the wheels being front steerable wheels (50, 53), which are, at least in the land mode of the vehicle, connected to a steering control which can be operated by a driver to steer the vehicle, an engine which in the land mode of the vehicle is connected to at least one of the wheels to drive the wheel, and marine propulsion means to propel the vehicle on water. a sit-astride seat, a planing hull, front and rear wheel arches (36, 37) on either side of the vehicle, at least four wheels (50, 51, 52, 53), each of which is movable between an extended land mode location and a retracted water mode location two of the wheels being front steerable wheels (50, 53), which are, at least in the land mode of the vehicle, connected to a steering control which can be operated by a driver to steer the vehicle, an engine which in the land mode of the vehicle is connected to at least one of the wheels to drive the wheel, and marine propulsion means to propel the vehicle on water.