mhurhangee/ep-ind-claims huggingface dataset:
A flame-free catalytic thermal incineration device, comprising: an incinerating furnace disposed in a housing and including air pores; a reactant inlet capable to allow a reactant to be combusted to flow into the incinerating furnace; a reactant heating and feeding unit extending downward stream from the reactant inlet, and including a heater and an opening in a lower portion of the reactant heating and feeding unit; an oxygen feeding unit capable of feeding oxygen through the air pores of the incinerating furnace; and a metallic oxide catalyst filled in the incinerating furnace, characterized in that a plurality of the air pores of the incinerating furnace is formed on a floor surface of the incinerating furnace, wherein the oxygen feeding unit is provided to lead to a surface of an inner wall of the housing of the incinerating furnace capable of allowing oxygen to descend along the surface of the inner wall of the housing of the incinerating furnace and to be fed through the air pores on the floor surface of the incinerating furnace, wherein the oxygen feeding unit comprises: a hollow disc disposed surrounding the reactant inlet; a first pipe in contact with an end of the disc leading to the hollow disc and capable of allowing oxygen to flow into the hollow disc; and a second pipe in contact with another end of the disc leading to the hollow disc and capable of feeding oxygen escaping from the hollow disc to the surface of the inner wall of the housing of the incinerating furnace. an incinerating furnace disposed in a housing and including air pores; a reactant inlet capable to allow a reactant to be combusted to flow into the incinerating furnace; a reactant heating and feeding unit extending downward stream from the reactant inlet, and including a heater and an opening in a lower portion of the reactant heating and feeding unit; an oxygen feeding unit capable of feeding oxygen through the air pores of the incinerating furnace; and a metallic oxide catalyst filled in the incinerating furnace, a hollow disc disposed surrounding the reactant inlet; a first pipe in contact with an end of the disc leading to the hollow disc and capable of allowing oxygen to flow into the hollow disc; and a second pipe in contact with another end of the disc leading to the hollow disc and capable of feeding oxygen escaping from the hollow disc to the surface of the inner wall of the housing of the incinerating furnace.
A fluid-jet emitting device, comprising: a tubular member having at least one air inlet opening and one air outlet opening; blowing means, located inside the tubular member to suck air in through the inlet opening and to produce an air flow out through the outlet opening; the blowing means generating inside the tubular member said air flow propagating from the inlet opening to the outlet opening and from the latter towards the outside environment; the blowing means comprising a drive unit and an air movement member connected to the drive unit; an apparatus for delivering the fluid towards the air flow; the apparatus comprising at least one fluid delivery nozzle and an air compression structure connected to the delivery nozzle to mix the fluid with the compressed air; the drive unit being mechanically connected to the air compression structure to set it in operation in such a way that the blowing means and the air compression structure are driven by the drive unit; characterized in that the blowing means comprise a container defining an internal cavity and located inside the tubular member; the container having an outside surface which is shaped to guide said air flow towards the outlet opening; at least part of the drive unit and at least part of the compression structure being located in the internal cavity of the container; at least part of the compression structure being directly exposed to the air flow produced by the blowing means so as to cool the compression structure. a tubular member having at least one air inlet opening and one air outlet opening; blowing means, located inside the tubular member to suck air in through the inlet opening and to produce an air flow out through the outlet opening; the blowing means generating inside the tubular member said air flow propagating from the inlet opening to the outlet opening and from the latter towards the outside environment; the blowing means comprising a drive unit and an air movement member connected to the drive unit; an apparatus for delivering the fluid towards the air flow; the apparatus comprising at least one fluid delivery nozzle and an air compression structure connected to the delivery nozzle to mix the fluid with the compressed air; the drive unit being mechanically connected to the air compression structure to set it in operation in such a way that the blowing means and the air compression structure are driven by the drive unit; characterized in that the blowing means comprise a container defining an internal cavity and located inside the tubular member; the container having an outside surface which is shaped to guide said air flow towards the outlet opening; at least part of the drive unit and at least part of the compression structure being located in the internal cavity of the container; at least part of the compression structure being directly exposed to the air flow produced by the blowing means so as to cool the compression structure.
Method for producing a shoe, in particular a sports shoe, comprising the steps: a) Producing a shoe upper, wherein the shoe upper has an upper region covering the upper region of the wearer's foot and a lower region enclosing the sole of the wearer's foot; b) Producing a sole part, wherein the sole part having a bottom region and a lateral wall region, wherein the bottom region and the wall region delimiting an upwardly open receiving space for bulk material; c) Filling the receiving space with a bulk material, wherein the bulk material consisting at least partially, preferably completely, of a thermoplastic elastomer; d) Fastening the shoe upper to the sole part so that the lower region of the shoe upper comes to rest on the bulk material, wherein at least one web-like structure is formed on the bottom region, which structure extends into the receiving space, characterized in that the bulk material is introduced in the form of individual loose bodies and also, in part, in the form of interconnected bodies. a) Producing a shoe upper, wherein the shoe upper has an upper region covering the upper region of the wearer's foot and a lower region enclosing the sole of the wearer's foot; b) Producing a sole part, wherein the sole part having a bottom region and a lateral wall region, wherein the bottom region and the wall region delimiting an upwardly open receiving space for bulk material; c) Filling the receiving space with a bulk material, wherein the bulk material consisting at least partially, preferably completely, of a thermoplastic elastomer; d) Fastening the shoe upper to the sole part so that the lower region of the shoe upper comes to rest on the bulk material,
A method for assessing an ambient light level during video acquisition with a video camera, said video camera being operably connected with an IR illuminator, and having a day mode in which an IR-cut filter is arranged in front of an image sensor and a night mode in which the IR-cut filter is not arranged in front of the image sensor, characterized in acquiring a stream of images with the video camera in night mode, with the IR illuminator having a first illumination output level, and then reducing an output level of the IR illuminator to a predetermined illumination output level during acquisition of a sequence of a predetermined number of consecutive image frames within the image stream, wherein the reduction of the output level of the IR illumination is a sudden change; the method further comprising assessing a measure representative of an ambient light level from an evaluation of the sequence of image frames and using the assessed measure as input to a controller for the IR-cut filter, and if the assessed measure passes a threshold value, switch the video camera to day mode operation. acquiring a stream of images with the video camera in night mode, with the IR illuminator having a first illumination output level, and then reducing an output level of the IR illuminator to a predetermined illumination output level during acquisition of a sequence of a predetermined number of consecutive image frames within the image stream, wherein the reduction of the output level of the IR illumination is a sudden change; the method further comprising assessing a measure representative of an ambient light level from an evaluation of the sequence of image frames and using the assessed measure as input to a controller for the IR-cut filter, and if the assessed measure passes a threshold value, switch the video camera to day mode operation.
A process for preparing Compound IA: said process comprising: A) coupling an appropriate amount of an amine: with a dichloropyrimidine: in a suitable aprotic organic solvent, optionally in the presence of an appropriate amount of a suitable base, at a suitable temperature, to yield an intermediate of Formula XA: and B) de-chlorinating the intermediate of Formula XA with hydrogen gas or a transfer hydrogenation reagent and, optionally, an appropriate amount of a suitable metal catalyst, in the presence of an appropriate amount of a suitable base, at a suitable temperature, in a suitable organic solvent. A) coupling an appropriate amount of an amine: with a dichloropyrimidine: in a suitable aprotic organic solvent, optionally in the presence of an appropriate amount of a suitable base, at a suitable temperature, to yield an intermediate of Formula XA: and B) de-chlorinating the intermediate of Formula XA with hydrogen gas or a transfer hydrogenation reagent and, optionally, an appropriate amount of a suitable metal catalyst, in the presence of an appropriate amount of a suitable base, at a suitable temperature, in a suitable organic solvent.
A power conversion apparatus comprising: a converter circuit which is connected to an AC power supply, and converts AC power to DC power; an inverter circuit which converts the DC power converted by the converter circuit to AC power of a predetermined frequency; wherein a current detector means which is configured to detect a primary input current input from the converter circuit to the inverter circuit; a voltage detector means which is configured to detect a primary input voltage input from the converter circuit to the inverter circuit; a power value calculator means which is configured to obtain a power value from the primary input current detected by the current detector means and the primary input voltage detected by the voltage detector means; characterised in that the converter circuit includes a plurality of switching elements constituting a rectifier circuit for rectifying three-phase AC power, at least one reactor is provided between the AC power supply and the converter circuit, and a droop control means (30, 40) is configured to reduce output of the inverter circuit in such a manner that the power value obtained by the power value calculator means is lower than a predetermined power value to protect the insulator of the at least one reactor. a converter circuit which is connected to an AC power supply, and converts AC power to DC power; an inverter circuit which converts the DC power converted by the converter circuit to AC power of a predetermined frequency; wherein a current detector means which is configured to detect a primary input current input from the converter circuit to the inverter circuit; a voltage detector means which is configured to detect a primary input voltage input from the converter circuit to the inverter circuit; a power value calculator means which is configured to obtain a power value from the primary input current detected by the current detector means and the primary input voltage detected by the voltage detector means; characterised in that the converter circuit includes a plurality of switching elements constituting a rectifier circuit for rectifying three-phase AC power, at least one reactor is provided between the AC power supply and the converter circuit, and a droop control means (30, 40) is configured to reduce output of the inverter circuit in such a manner that the power value obtained by the power value calculator means is lower than a predetermined power value to protect the insulator of the at least one reactor.
A specimen container (100; 300; 400; 500; 600; 700; 800; 900; 1000; 1100; 1200; 1300; 1400; 1500; 1700; 1900; 2000; 2100; 2200; 2300) configured for cryogenic processing of a specimen, the specimen container comprising: an elongate member (102; 1102; 1202; 1302; 1402; 1502; 1702; 1902; 2202); an equilibration solution (120; 720) preloaded within a lumen of the elongate member at a first position; a vitrification solution (122; 652, 654, 656) preloaded within the lumen of the elongate member at a second position located distal to the first position; and a displaceable barrier (124; 524; 1915; 2015; 2124; 2224, 2225) positioned between the equilibration solution and the vitrification solution such that the equilibration solution and the vitrification solution are initially spaced apart from each other within the lumen of the elongate member. an elongate member (102; 1102; 1202; 1302; 1402; 1502; 1702; 1902; 2202); an equilibration solution (120; 720) preloaded within a lumen of the elongate member at a first position; a vitrification solution (122; 652, 654, 656) preloaded within the lumen of the elongate member at a second position located distal to the first position; and a displaceable barrier (124; 524; 1915; 2015; 2124; 2224, 2225) positioned between the equilibration solution and the vitrification solution such that the equilibration solution and the vitrification solution are initially spaced apart from each other within the lumen of the elongate member.
A fuel separation system (202, 302, 402) comprising: a fuel separator (214, 314, 418, 422) comprising a flash distillation separator, the fuel separator configured to receive a fuel stream (212, 312, 416) and separate the fuel stream, based on a volatility of the fuel stream, into a vapor stream (216, 316, 428) defined by a first auto-ignition characteristic value and a first liquid stream (217, 317, 430) defined by a second auto-ignition characteristic value, the second auto-ignition characteristic value greater than the first auto-ignition characteristic value; and a control system (218, 322, 426) communicably coupled to the fuel separator and operable to receive an input from an engine, the input comprising an engine operating condition, the control system configured to adjust an operating parameter of the fuel separator, based at least in part on the engine operating condition, to vary at least one of the first or second auto-ignition characteristic values. a fuel separator (214, 314, 418, 422) comprising a flash distillation separator, the fuel separator configured to receive a fuel stream (212, 312, 416) and separate the fuel stream, based on a volatility of the fuel stream, into a vapor stream (216, 316, 428) defined by a first auto-ignition characteristic value and a first liquid stream (217, 317, 430) defined by a second auto-ignition characteristic value, the second auto-ignition characteristic value greater than the first auto-ignition characteristic value; and a control system (218, 322, 426) communicably coupled to the fuel separator and operable to receive an input from an engine, the input comprising an engine operating condition, the control system configured to adjust an operating parameter of the fuel separator, based at least in part on the engine operating condition, to vary at least one of the first or second auto-ignition characteristic values.
A method of driving an electronic device comprising one or more device elements, the or each device element comprising particles which are moved to control a device element state, and the or each device element comprising a collector electrode (14;120), and an output electrode (12;124,126), wherein the method comprises: in a reset phase, applying a first set of control signals to control the device to move the particles to a reset electrode (14;120); and in an addressing phase, applying a second set of control signals to control the device to move the particles from the reset electrode (14; 120) such that a desired number of particles are at the output electrode (12;124,126), wherein the second set of control signals comprises a pulse waveform oscillating between first and second voltages in which the first voltage is for attracting the particles to the reset electrode and the second voltage is for attracting the particles from the reset electrode to the output electrode, and wherein the duty cycle and the magnitude of the first and second voltage of the pulse waveform determines the proportion of particles transferred to the output electrode in the addressing phase characterized in that the or each device element further comprises a gate electrode (16;122), wherein the reset electrode comprises one of the collector electrode (14;120), output electrode (12;122,124) and the gate electrode (16;122), wherein when the first voltage of the pulse waveform is applied, the gate electrode (16; 122) prevents movement of particles from the output electrode to the reset electrode, so that particles already at the output electrode are held there. in a reset phase, applying a first set of control signals to control the device to move the particles to a reset electrode (14;120); and in an addressing phase, applying a second set of control signals to control the device to move the particles from the reset electrode (14; 120) such that a desired number of particles are at the output electrode (12;124,126),
An ultrasonic probe for scanning a volumetric region by movement of an array transducer comprising: a probe case having a fluid compartment at a distal end and a handle portion below the distal end; an array transducer mounted on a carriage assembly in the fluid compartment; a pair of rails (30,32) on which the carriage assembly travels in the fluid compartment, said rails comprising an undercut region; a drive cable attached to the underside of the carriage assembly; a cam axially attached to a cam shaft, which extends into the handle portion, wherein said drive cable is wrapped around the cam; a motor located in the handle portion and attached to the cam shaft to move the carriage assembly and array transducer on the rails; and a first ball bearing roller located at one side of the carriage assembly and adapted to ride on a first one of the rails, and a second ball bearing roller located at the other side of the carriage assembly and adapted to ride on a second one of the rails; wherein: - the probe further comprises third and fourth rollers riding in the undercut region of each rail, - the drive cable passes around at least a portion of a cam surface (82,84) to provide relatively linear motion to the carriage assembly, - the motor is coupled to the cam to drive the cam in alternating directions of rotation, and - the ends of the cable are attached to the cam a probe case having a fluid compartment at a distal end and a handle portion below the distal end; an array transducer mounted on a carriage assembly in the fluid compartment; a pair of rails (30,32) on which the carriage assembly travels in the fluid compartment, said rails comprising an undercut region; a drive cable attached to the underside of the carriage assembly; a cam axially attached to a cam shaft, which extends into the handle portion, wherein said drive cable is wrapped around the cam; a motor located in the handle portion and attached to the cam shaft to move the carriage assembly and array transducer on the rails; and a first ball bearing roller located at one side of the carriage assembly and adapted to ride on a first one of the rails, and a second ball bearing roller located at the other side of the carriage assembly and adapted to ride on a second one of the rails; wherein: - the probe further comprises third and fourth rollers riding in the undercut region of each rail, - the drive cable passes around at least a portion of a cam surface (82,84) to provide relatively linear motion to the carriage assembly, - the motor is coupled to the cam to drive the cam in alternating directions of rotation, and - the ends of the cable are attached to the cam - the probe further comprises third and fourth rollers riding in the undercut region of each rail, - the drive cable passes around at least a portion of a cam surface (82,84) to provide relatively linear motion to the carriage assembly, - the motor is coupled to the cam to drive the cam in alternating directions of rotation, and - the ends of the cable are attached to the cam
An ultrasonic liquid electronic cigarette atomizer, comprising an atomization core, a suction nozzle and an air outlet tube, a bottom end of the air outlet tube being communicated with an atomization chamber of the atomization core, a top end of the air outlet tube being communicated with the suction nozzle, wherein the top end of the air outlet tube is communicated with a bottom end of the suction nozzle through a liquid blocking chamber, and the diameter of a top end of the liquid blocking chamber is greater than the diameter of the bottom end of the suction nozzle; is characterized in that the ultrasonic liquid electronic cigarette atomizer further comprises a connecting seat between the liquid blocking chamber and the suction nozzle, wherein an air tube is disposed in the connecting seat, the bottom of the air tube extends into the liquid blocking chamber, the side wall of the air tube is not in contact with the side wall of the liquid blocking chamber, and the liquid blocking chamber is communicated with the suction nozzle through the air tube.
A method comprising: receiving a request at a relying party from a user to register an authenticator of a client of the user; in response to the request to register the authenticator, generating at the client a public key associated with the authenticator and transmitting the public key to the relying party; generating a code at the relying party by performing a hash operation on the public key; performing a secure transaction confirmation operation including displaying, in a secure display of the user's client, the code that was generated at the relying party and asking the user to send the code displayed on the secure display to the relying party over an authenticated out-of-band communication channel; sending the code from the user to the relying party through the authenticated out-of-band communication channel; and verifying the identity of the user at the relying party using the code and responsively registering the authenticator in response to a positive verification. receiving a request at a relying party from a user to register an authenticator of a client of the user; in response to the request to register the authenticator, generating at the client a public key associated with the authenticator and transmitting the public key to the relying party; generating a code at the relying party by performing a hash operation on the public key; performing a secure transaction confirmation operation including displaying, in a secure display of the user's client, the code that was generated at the relying party and asking the user to send the code displayed on the secure display to the relying party over an authenticated out-of-band communication channel; sending the code from the user to the relying party through the authenticated out-of-band communication channel; and verifying the identity of the user at the relying party using the code and responsively registering the authenticator in response to a positive verification.