mhurhangee/ep-ind-claims huggingface dataset:
A process for the purification of abiraterone acetate starting from crude products, which comprises preparing a solution of the crude product, adsorbing it on a polymer resin and eluting abiraterone acetate from the resin using a mixture of water/aqueous buffer and a polar solvent as eluent.
A method of separating a substance by supercritical fluid chromatography, comprising the steps of: liquefying a gas to form a liquefied gas; injecting a sample comprising a desired substance into a mobile phase comprising a supercritical fluid, formed from the liquefied gas, and a solvent; passing the mobile phase into which the sample has been injected through a chromatography column for separating the desired substance from the sample; and dividing the mobile phase comprising the desired substance into the solvent and the gas; separating the desired substance from the solvent, wherein the gas divided from the mobile phase is recycled as a raw material for the liquefied gas in accordance with the pressure of the gas supplied for the formation of the liquefied gas from a gas supply device. the method characterized in that: in the step of forming a liquefied gas, the gas divided from the mobile phase is liquefied as a result of keeping the pressure of the gas divided from the mobile phase at a predetermined pressure that is higher than the pressure of the gas supplied for formation of the liquefied gas from the gas supply device. liquefying a gas to form a liquefied gas; injecting a sample comprising a desired substance into a mobile phase comprising a supercritical fluid, formed from the liquefied gas, and a solvent; passing the mobile phase into which the sample has been injected through a chromatography column for separating the desired substance from the sample; and dividing the mobile phase comprising the desired substance into the solvent and the gas; separating the desired substance from the solvent, wherein the gas divided from the mobile phase is recycled as a raw material for the liquefied gas in accordance with the pressure of the gas supplied for the formation of the liquefied gas from a gas supply device. in the step of forming a liquefied gas, the gas divided from the mobile phase is liquefied as a result of keeping the pressure of the gas divided from the mobile phase at a predetermined pressure that is higher than the pressure of the gas supplied for formation of the liquefied gas from the gas supply device.
A lever fitting-type connector comprising: a housing having a main body receiving a terminal and a pair of projections projecting from the main body; a rotatable lever having holes into which the pair of the projections is inserted respectively, the lever being rotated in a state that the projections are inserted into the holes from a non-fitting position before being fitted to another connector to a fitting position approaching the housing and fitted to the other connector by rotating around the projection; an engagement receiving portion arranged in the projection and extending from the projection so as to sandwich the lever between the main body and the engagement receiving portion; characterized by a first overlapping position arranged in the lever and overlapped with the engagement receiving portion at the non-fitting position; a second overlapping position arranged in the lever and overlapped with the engagement receiving portion at the fitting position; and an engaging portion arranged between the first overlapping position and the second overlapping position, projecting from the lever, and engaged to the engagement receiving portion. a housing having a main body receiving a terminal and a pair of projections projecting from the main body; a rotatable lever having holes into which the pair of the projections is inserted respectively, the lever being rotated in a state that the projections are inserted into the holes from a non-fitting position before being fitted to another connector to a fitting position approaching the housing and fitted to the other connector by rotating around the projection; an engagement receiving portion arranged in the projection and extending from the projection so as to sandwich the lever between the main body and the engagement receiving portion; characterized by a first overlapping position arranged in the lever and overlapped with the engagement receiving portion at the non-fitting position; a second overlapping position arranged in the lever and overlapped with the engagement receiving portion at the fitting position; and an engaging portion arranged between the first overlapping position and the second overlapping position, projecting from the lever, and engaged to the engagement receiving portion.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a base station, a first random access preamble; receiving, from the base station, a random access response including backoff information; determining a type of the UE and a type of a cause of the RRC connection; determining (606, 607, 609, 610, 611), a backoff value based on the backoff information and a scaling factor, in case that the type of the UE is associated with a machine type communication and the type of the cause of the RRC connection is a delayTolerantAccess; and transmitting a second random access preamble based on the backoff value. transmitting, to a base station, a first random access preamble; receiving, from the base station, a random access response including backoff information; determining a type of the UE and a type of a cause of the RRC connection; determining (606, 607, 609, 610, 611), a backoff value based on the backoff information and a scaling factor, in case that the type of the UE is associated with a machine type communication and the type of the cause of the RRC connection is a delayTolerantAccess; and transmitting a second random access preamble based on the backoff value.
An armed unmanned aerial vehicle ("UAV") including: an elongate central body having a nose and an opposed tail aligned along a longitudinal axis; a pair of opposed side rotor arm assemblies respectively extending from opposite sides of the central body about a pitch axis; a tail rotor arm assembly extending from the tail of the central body along the longitudinal axis; a weapons system including at least one projectile associated with the central body; and a flight and targeting controller operatively associated with the side rotor arm assemblies and the tail rotor arm assembly, characterised in that each side rotor arm assembly is selectively rotatable relative to the central body about the pitch axis; and said flight and targeting controller is configured to: responsive to receiving target information about a target, determine at least a pitch angle and a yaw angle required to strike the target with the weapons system; and selectively control operation of each said side and tail rotor arm assembly (120, 130) for aiming the weapons system, based on at least the pitch angle and the yaw angle determined. an elongate central body having a nose and an opposed tail aligned along a longitudinal axis; a pair of opposed side rotor arm assemblies respectively extending from opposite sides of the central body about a pitch axis; a tail rotor arm assembly extending from the tail of the central body along the longitudinal axis; a weapons system including at least one projectile associated with the central body; and a flight and targeting controller operatively associated with the side rotor arm assemblies and the tail rotor arm assembly, characterised in that each side rotor arm assembly is selectively rotatable relative to the central body about the pitch axis; and said flight and targeting controller is configured to: responsive to receiving target information about a target, determine at least a pitch angle and a yaw angle required to strike the target with the weapons system; and selectively control operation of each said side and tail rotor arm assembly (120, 130) for aiming the weapons system, based on at least the pitch angle and the yaw angle determined. responsive to receiving target information about a target, determine at least a pitch angle and a yaw angle required to strike the target with the weapons system; and selectively control operation of each said side and tail rotor arm assembly (120, 130) for aiming the weapons system, based on at least the pitch angle and the yaw angle determined.
An agent for reductively decolorizing colored keratin fibers, in particular human hair, containing, in an aqueous cosmetic carrier, (a) one or more reducing agents from the group comprising sodium dithionite, zinc dithionite, potassium dithionite, sodium sulfite, sodium hydrogen sulfite, potassium sulfite, potassium hydrogen sulfite, ammonium sulfite, sodium thiosulfate, potassium thiosulfate, ammonium thiosulfate, hydroxymethanesulfinic acid, aminomethanesulfinic acid, cysteine, thiolactic acid, thioglycolic acid and/or ascorbic acid, and (b) one or more zwitterionic surfactants which each have, as structural units, at least one quaternary ammonium group and at least one -SO 3 - grouping, characterized in that the total amount of all direct dyes and oxidation dye precursors contained in the agent has a value of at most 0.2 wt.% based on the total weight of the agent. (a) one or more reducing agents from the group comprising sodium dithionite, zinc dithionite, potassium dithionite, sodium sulfite, sodium hydrogen sulfite, potassium sulfite, potassium hydrogen sulfite, ammonium sulfite, sodium thiosulfate, potassium thiosulfate, ammonium thiosulfate, hydroxymethanesulfinic acid, aminomethanesulfinic acid, cysteine, thiolactic acid, thioglycolic acid and/or ascorbic acid, and (b) one or more zwitterionic surfactants which each have, as structural units, at least one quaternary ammonium group and at least one -SO 3 - grouping,
A system for creating an application software environment without changing an operating system of a client computer, the system comprising an operating system abstraction and protection layer, wherein said abstraction and protection layer is interposed between a running software application (50, 52, 54) and said operating system, whereby a virtual environment in which an application may run is provided and wherein said operating system is a Windows operating system comprising a Windows Registry, wherein the operating system abstraction and protection layer responds with a key and its value if said key and value are stored within the operating system abstraction and protection layer, if not stored, the operating system abstraction and protection layer allows the request to pass through to the Windows Registry.
A method of identifying a compound that modulates IL-17 and/or IL-23 signaling activity, comprising (a) contacting a lymphocytic choriogenic meningitis virus clone 13 (LCMV-CL 13)-infected FVB mouse with a test compound; (b) measuring one or more symptoms of hemorrhagic fever in the FVB mouse, wherein a difference of one or more symptoms compared to control FVB mouse or a pre-determined value indicates that the test compound modulates IL-17 and/or IL-23 signaling, thereby identifying the compound that modulates IL-17 and/or IL-23 signaling activity. (a) contacting a lymphocytic choriogenic meningitis virus clone 13 (LCMV-CL 13)-infected FVB mouse with a test compound; (b) measuring one or more symptoms of hemorrhagic fever in the FVB mouse, wherein a difference of one or more symptoms compared to control FVB mouse or a pre-determined value indicates that the test compound modulates IL-17 and/or IL-23 signaling, thereby identifying the compound that modulates IL-17 and/or IL-23 signaling activity.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: selecting a serving cell; receiving, from the serving cell, a configuration for an additional measurement in an idle state and/or an inactive state, wherein the configuration includes an establishment or resume of RRC connection cause for the additional measurement; performing the additional measurement on at least one neighbor cell while the UE is in the idle state or the inactive state upon receiving a request of a radio resource control, RRC, connection establishment or a RRC connection resume from an upper layer, based on that the received request comprises a cause indicated by the cause included in the configuration; and reporting a result of the additional measurement to the serving cell when entering a connected state. selecting a serving cell; receiving, from the serving cell, a configuration for an additional measurement in an idle state and/or an inactive state, wherein the configuration includes an establishment or resume of RRC connection cause for the additional measurement; performing the additional measurement on at least one neighbor cell while the UE is in the idle state or the inactive state upon receiving a request of a radio resource control, RRC, connection establishment or a RRC connection resume from an upper layer, based on that the received request comprises a cause indicated by the cause included in the configuration; and reporting a result of the additional measurement to the serving cell when entering a connected state.
An electronic device comprising a heat dissipation coating composition; wherein the heat dissipation coating composition comprises a transparent coating layer deposited on a surface of the electronic device, wherein the coating layer comprises: a heat absorber selected from the group consisting of silica aerogel, carbon nanotube aerogel, graphene aerogel, and combinations thereof, a transparent resin selected from the group consisting of a polyacrylic resin, a polycarbonate resin, a cyclic olefin resin, an epoxy resin, a urethane resin, a silicone resin, a cyanoacrylate resin, a polyester resin, and combinations thereof, and a solvent; and a heat spreader layer deposited at least partially on top of the transparent coating layer or deposited on the surface of the electronic device adjacent to the transparent coating layer, wherein the heat spreader layer comprises: metallic or non-metallic particles selected from the group consisting of copper, aluminum, graphite, carbon nanotube, graphene on a metal, graphene, and combinations thereof; wherein the heat spreader layer is deposited to coat 50% or less of the top of the transparent coating layer; or wherein the heat spreader layer is deposited on the surface of the electronic device adjacent to the transparent coating layer spreader layer to coat 50% or less of the surface of the electronic device. a heat absorber selected from the group consisting of silica aerogel, carbon nanotube aerogel, graphene aerogel, and combinations thereof, a transparent resin selected from the group consisting of a polyacrylic resin, a polycarbonate resin, a cyclic olefin resin, an epoxy resin, a urethane resin, a silicone resin, a cyanoacrylate resin, a polyester resin, and combinations thereof, and a solvent; and a heat spreader layer deposited at least partially on top of the transparent coating layer or deposited on the surface of the electronic device adjacent to the transparent coating layer, wherein the heat spreader layer comprises: metallic or non-metallic particles selected from the group consisting of copper, aluminum, graphite, carbon nanotube, graphene on a metal, graphene, and combinations thereof; wherein the heat spreader layer is deposited to coat 50% or less of the top of the transparent coating layer; or wherein the heat spreader layer is deposited on the surface of the electronic device adjacent to the transparent coating layer spreader layer to coat 50% or less of the surface of the electronic device. metallic or non-metallic particles selected from the group consisting of copper, aluminum, graphite, carbon nanotube, graphene on a metal, graphene, and combinations thereof; wherein the heat spreader layer is deposited to coat 50% or less of the top of the transparent coating layer; or wherein the heat spreader layer is deposited on the surface of the electronic device adjacent to the transparent coating layer spreader layer to coat 50% or less of the surface of the electronic device.
an automated synthesis system for iodine-123-IBZM nuclear medicine comprising: a control/display means; a reactant supply means connecting to the control/display means; an adsorption means connecting to the control/display means and to the reactant supply means; an oxidation means connecting to the control/display means, the reactant supply means and the adsorption means; a product collection means connecting to the control/display means, the reactant supply means, the adsorption means and the oxidation means; a waste liquid collection means connecting to the control/display means, the adsorption means and the product collection means; and a gas filtration means connecting to the control/display means, the oxidation means and the product collection means. a control/display means; a reactant supply means connecting to the control/display means; an adsorption means connecting to the control/display means and to the reactant supply means; an oxidation means connecting to the control/display means, the reactant supply means and the adsorption means; a product collection means connecting to the control/display means, the reactant supply means, the adsorption means and the oxidation means; a waste liquid collection means connecting to the control/display means, the adsorption means and the product collection means; and a gas filtration means connecting to the control/display means, the oxidation means and the product collection means.
Device for the automatic connection of a high-speed spindle to a numerically controlled machine, comprising a first connecting element configured to be connected to an electrical power supply network by means of first connection means and to a pressurized air supply network by means of first pneumatic connection means, and a second connection element configured to be fixed to the rotating spindle holder head of a multifunction numerical control machine and to be connected to the high-speed spindle by means of second electrical connection means and second pneumatic connection means, said first and second connecting elements being rotatably connected with respect to each other to automatically perform an electrical and pneumatic connection of the high-speed spindle which, following the rotation of the rotating spindle-holder head to which it is connected, is in the working position, said first connecting element comprising at least one first electrical contact element connected to the power supply network and said second connecting element comprising at least one second electrical contact element configured to make electrical contact with said at least one first electrical contact element and electrically connected to the high speed electro-spindle, wherein the first connecting element includes a duct to transfer the pressurized air from the first connecting element to the second connecting element, and wherein the duct is connected to a second chamber obtained in the second connection element to connect it to the pressurized air supply network, said second chamber being connected to the second pneumatic connection means, wherein the second chamber comprises a wall on which connection ducts are obtained, one connection duct for each individual of the second pneumatic connection means, characterized in that said wall further comprises openings, each opening for the insertion of a single of each of the second electrical connection means. wherein the first connecting element includes a duct to transfer the pressurized air from the first connecting element to the second connecting element, and wherein the duct is connected to a second chamber obtained in the second connection element to connect it to the pressurized air supply network, said second chamber being connected to the second pneumatic connection means, wherein the second chamber comprises a wall on which connection ducts are obtained, one connection duct for each individual of the second pneumatic connection means, characterized in that said wall further comprises openings, each opening for the insertion of a single of each of the second electrical connection means.
A valve train assembly (100, 300) comprising at least one dual body rocker arm (110, 310) comprising a first body (3, 203), a second body (7, 207), a latching arrangement (120, 320) for latching and unlatching the first body (3, 203) and the second body (7, 207) and wherein the latching arrangement (120, 320) comprises a latching pin (1, 201) that is biased to an unlatched configuration, the assembly further comprising an actuator arrangement (2, 202) for controlling the latching arrangement (120, 320) and wherein the actuator arrangement (2, 202) is configured so that it contacts the latching arrangement (120, 320) to cause the latching pin (1, 201) to be moved into a latched configuration in which it latches the first (3, 203) and second (7, 207) bodies together, where in use, movement of the rocker arm (110, 310) under the action of a cam to cause a valve event moves the actuator arrangement (2, 202) out of contact with the latching arrangement (120, 320) so as to form a gap between the actuator arrangement (2, 202) and the dual body rocker arm (110, 310) while a contact force between the latching pin (1, 202) and one or other of the first (3, 203) and second (7, 207) bodies maintains the latching pin (1, 201) in the latched configuration, wherein when the first (3, 203) and second (7, 207) bodies are latched together the first (3, 203) and second (7, 207) bodies are arranged to pivot as a single body about a first pivot point under the action of the cam, in use, which pivoting moves the latching arrangement (120, 320) out of contact with the actuator arrangement (2, 202).
A method for signal processing in a spread spectrum system, comprising: performing sampling and time-frequency transform on a received first time domain signal to obtain a first frequency domain signal; performing modulo operation on the first frequency domain signal with respect to a preset threshold to obtain a second frequency domain signal; performing inverse time-frequency transform on the second frequency domain signal to obtain a second time domain signal, and performing despreading on the second time domain signal; and setting the preset threshold, so that when there is no narrow band interference, NBI, signal, an amplitude of a third frequency domain signal obtained through sampling and time-frequency transform on a received third time domain signal, is higher than a false alarm probability of the preset threshold, wherein the false alarm probability is P F = P | Real R k | 〉 Th + P | Imag R k | 〉 Th = 2 erfc Th 2 σ k, wherein, R k is the first frequency domain signal at a frequency point k, Th is the preset threshold. performing sampling and time-frequency transform on a received first time domain signal to obtain a first frequency domain signal; performing modulo operation on the first frequency domain signal with respect to a preset threshold to obtain a second frequency domain signal; performing inverse time-frequency transform on the second frequency domain signal to obtain a second time domain signal, and performing despreading on the second time domain signal; and setting the preset threshold, so that when there is no narrow band interference, NBI, signal, an amplitude of a third frequency domain signal obtained through sampling and time-frequency transform on a received third time domain signal, is higher than a false alarm probability of the preset threshold, wherein the false alarm probability is P F = P | Real R k | 〉 Th + P | Imag R k | 〉 Th = 2 erfc Th 2 σ k, wherein, R k is the first frequency domain signal at a frequency point k, Th is the preset threshold.