mhurhangee/ep-ind-claims huggingface dataset:
A thermal processing apparatus comprising: a chamber for accommodating a workpiece of a thermal processing object, the chamber having a partition wall for partitioning an inside of the chamber from an outside of the chamber; a heat radiation heater disposed penetrating the partition wall, wherein the heat radiation heater has a heat radiation unit for radiating heat to heat the workpiece, and a cylindrical glass tube covering the heat radiation unit and having an extension section extended outward beyond the heat radiation unit in an axial direction; a ring seal arranged on an outer peripheral surface of the extension section, and hermetically sealing the inside of the chamber from the outside of the chamber, the ring seal having an inner peripheral surface coming into contact with the outer peripheral surface of the extension section; and a heat blocking plate arranged between the heat radiation unit and the ring seal in the axial direction of the glass tube, for blocking heat radiated from the heat radiation unit, the heat blocking plate having an inner peripheral surface fitting along the extension section, characterized in that the heat radiation unit is formed as a coil of a wire wound in a coil shape and the wire is disposed in a linear shape inside the extension section and the heat blocking plate is arranged to be separated from the ring seal. a chamber for accommodating a workpiece of a thermal processing object, the chamber having a partition wall for partitioning an inside of the chamber from an outside of the chamber; a heat radiation heater disposed penetrating the partition wall, wherein the heat radiation heater has a heat radiation unit for radiating heat to heat the workpiece, and a cylindrical glass tube covering the heat radiation unit and having an extension section extended outward beyond the heat radiation unit in an axial direction; a ring seal arranged on an outer peripheral surface of the extension section, and hermetically sealing the inside of the chamber from the outside of the chamber, the ring seal having an inner peripheral surface coming into contact with the outer peripheral surface of the extension section; and a heat blocking plate arranged between the heat radiation unit and the ring seal in the axial direction of the glass tube, for blocking heat radiated from the heat radiation unit, the heat blocking plate having an inner peripheral surface fitting along the extension section, characterized in that the heat radiation unit is formed as a coil of a wire wound in a coil shape and the wire is disposed in a linear shape inside the extension section and the heat blocking plate is arranged to be separated from the ring seal.
A method for implementing a direct interface between access network nodes, comprising: establishing, by an access network node, a direct interface with a proxy node; and performing, by the access network node, information exchange with an access network node managed by the proxy node through the established direct interface; characterised in that when the access network node terminates a service, the information exchange comprises: after the proxy node detects a disconnection from the access network node through underlying link protection, instructing, by the proxy node, other access network nodes managed by the proxy node itself to delete stored cell information of the access network node;and after the other access network nodes managed by the proxy node delete the stored cell information successfully, responding, by the other access network nodes, to the proxy node with a deletion success. establishing, by an access network node, a direct interface with a proxy node; and performing, by the access network node, information exchange with an access network node managed by the proxy node through the established direct interface; characterised in that when the access network node terminates a service, the information exchange comprises: after the proxy node detects a disconnection from the access network node through underlying link protection, instructing, by the proxy node, other access network nodes managed by the proxy node itself to delete stored cell information of the access network node;and after the other access network nodes managed by the proxy node delete the stored cell information successfully, responding, by the other access network nodes, to the proxy node with a deletion success. after the proxy node detects a disconnection from the access network node through underlying link protection, instructing, by the proxy node, other access network nodes managed by the proxy node itself to delete stored cell information of the access network node;and after the other access network nodes managed by the proxy node delete the stored cell information successfully, responding, by the other access network nodes, to the proxy node with a deletion success.
A method for depositing nanoparticles on a support comprising the following steps: - taking a solution or a colloidal suspension of nanoparticles, and - nebulizing said solution or a colloidal suspension of nanoparticles on a surface of said support in atmospheric plasma, said atmospheric plasma being a cold atmospheric plasma comprising a plasmagenic gas, the macroscopic temperature of which in said plasma may vary between -10°C and 400°C. - taking a solution or a colloidal suspension of nanoparticles, and - nebulizing said solution or a colloidal suspension of nanoparticles on a surface of said support in atmospheric plasma,
A gas sensor comprising: a support substrate; a first longitudinal arm structure having a first end attached to said first support substrate, and having a second end; a second longitudinal arm structure having a first end attached to said first support substrate, and having a second end; and at least one nanotube attached to the second ends of said first longitudinal arm structure and said second longitudinal arm structure; and a heat sink situated on said support substrate; wherein the first longitudinal arm structure and the second longitudinal arm structure have a bimorph structure comprising a metal layer and a dielectric layer, and the second ends of said first longitudinal arm structure and said second longitudinal arm structure move relative to said heat sink upon a change of temperature. a support substrate; a first longitudinal arm structure having a first end attached to said first support substrate, and having a second end; a second longitudinal arm structure having a first end attached to said first support substrate, and having a second end; and at least one nanotube attached to the second ends of said first longitudinal arm structure and said second longitudinal arm structure; and a heat sink situated on said support substrate; wherein the first longitudinal arm structure and the second longitudinal arm structure have a bimorph structure comprising a metal layer and a dielectric layer, and the second ends of said first longitudinal arm structure and said second longitudinal arm structure move relative to said heat sink upon a change of temperature.
A transistor comprising: a gate electrode layer; a gate insulating layer over the gate electrode layer; an oxide semiconductor layer over the gate insulating layer; a source electrode layer and a drain electrode layer over the gate insulating layer, wherein the source electrode layer and the drain electrode layer overlap with part of the oxide semiconductor layer, or wherein the oxide semiconductor layer overlaps with part of the source electrode layer and the drain electrode layer; and an oxide insulating layer over the source electrode layer and the drain electrode layer, and on and in contact with the oxide semiconductor layer, wherein the oxide semiconductor layer includes indium, zinc, and one or more metal elements selected from gallium, aluminum, manganese, cobalt and tin, wherein the oxide semiconductor layer comprises a first region of a superficial portion and a second region of the rest portion, wherein the first region of the oxide semiconductor layer is formed of microcrystals c-axis-oriented in a direction perpendicular to the surface of the oxide semiconductor layer and wherein the second region of the oxide semiconductor layer is formed of a mixture of amorphousness and microcrystals. a gate electrode layer; a gate insulating layer over the gate electrode layer; an oxide semiconductor layer over the gate insulating layer; a source electrode layer and a drain electrode layer over the gate insulating layer, wherein the source electrode layer and the drain electrode layer overlap with part of the oxide semiconductor layer, or wherein the oxide semiconductor layer overlaps with part of the source electrode layer and the drain electrode layer; and an oxide insulating layer over the source electrode layer and the drain electrode layer, and on and in contact with the oxide semiconductor layer, wherein the oxide semiconductor layer includes indium, zinc, and one or more metal elements selected from gallium, aluminum, manganese, cobalt and tin, wherein the oxide semiconductor layer comprises a first region of a superficial portion and a second region of the rest portion, wherein the first region of the oxide semiconductor layer is formed of microcrystals c-axis-oriented in a direction perpendicular to the surface of the oxide semiconductor layer and wherein the second region of the oxide semiconductor layer is formed of a mixture of amorphousness and microcrystals.
A computer-implemented method comprising determining a contemporaneous location trace (603, 605, 607) associated with a mobile device, the location trace representing a contemporaneously recent movement history associated with the mobile device; comparing the determined location trace against one or more indexed location traces representing a movement history of at least one other mobile device; determining a service parameter, a service suggestion or a combination thereof which corresponds to the location trace of the mobile device and which is associated with the indexed location traces which, based on the comparison, substantially match the determined location trace, wherein the service parameter comprises a type of point of interest and wherein the service suggestion comprises an identification of a point of interest, a location-based advertisement, a type of public transportation route or a description of a travelled route; and providing the service parameter, the service suggestion or the combination thereof to the mobile device.
An auxiliary generator of electrical energy, comprising: - an external shell provided with at least one intake opening for a fluid and at least one outlet opening for the fluid; - a rotor housed inside the shell along the path of the fluid from said intake opening to said outlet opening; said rotor being provided with a plurality of vanes for intercepting the fluid and an output shaft; - a generator of electrical current housed inside the shell, provided with an input shaft mechanically connected to the output shaft of the rotor, and provided with at least one output electrical terminal; and - an at least one accumulator of electrical energy electrically connected to said output electrical terminal, wherein the auxiliary generator further comprises a multiplier housed inside the shell and mechanically interposed between the output shaft of the rotor and the input shaft of the generator of electrical current, characterized in that said rotor is provided with at least two sections, each provided with a respective configuration of the vanes for intercepting the fluid; the configuration of the vanes of one section being different from that of the axially adjacent section. - an external shell provided with at least one intake opening for a fluid and at least one outlet opening for the fluid; - a rotor housed inside the shell along the path of the fluid from said intake opening to said outlet opening; said rotor being provided with a plurality of vanes for intercepting the fluid and an output shaft; - a generator of electrical current housed inside the shell, provided with an input shaft mechanically connected to the output shaft of the rotor, and provided with at least one output electrical terminal; and - an at least one accumulator of electrical energy electrically connected to said output electrical terminal, wherein the auxiliary generator further comprises a multiplier housed inside the shell and mechanically interposed between the output shaft of the rotor and the input shaft of the generator of electrical current, characterized in that said rotor is provided with at least two sections, each provided with a respective configuration of the vanes for intercepting the fluid; the configuration of the vanes of one section being different from that of the axially adjacent section.
A speech analyser comprising: an input module for provision of speech data based on a speech signal; a primary feature extractor for provision of primary feature metrics of the speech data; a secondary feature extractor for provision of secondary feature metrics associated with the speech data; and a speech model module comprising a neural network with model layers including an input layer, one or more intermediate layers including a first intermediate layer, and an output layer for provision of a speaker metric, wherein the speech model module is configured to condition an intermediate layer based on the secondary feature metrics for provision of output from the intermediate layer as input to the model layer after the intermediate layer in the neural network. an input module for provision of speech data based on a speech signal; a primary feature extractor for provision of primary feature metrics of the speech data; a secondary feature extractor for provision of secondary feature metrics associated with the speech data; and a speech model module comprising a neural network with model layers including an input layer, one or more intermediate layers including a first intermediate layer, and an output layer for provision of a speaker metric,
An integrated gas turbine engine, electrical power subsystem and thermal management subsystem for aerospace application, comprising: a first motor/generator coupled to a low pressure shaft of the gas turbine engine; a second motor/generator coupled to a high pressure shaft of the gas turbine engine; and a system controller coupled to each of the gas turbine engine, the first motor/generator, and the second motor/generator, wherein the controller is programmed to receive engine thrust demand and electrical power demand from an aircraft and to determine an amount of power sharing (304, 354) between the first motor/generator and the second motor/generator to meet an electrical power demand and control a gas generator portion (304, 354) of the gas turbine engine using a total system power demand as a control variable; and an energy storage unit (30, 46), wherein the controller is further programmed to meet the electrical power demand, which includes an amount of engine thrust, by storing energy to, and drawing energy from, the energy storage unit (30, 46); and characterized in that the controller is further programmed to augment the amount of engine thrust produced in the gas turbine engine by affecting the power sharing between the first motor/generator and the second motor/generator; and in that augmenting thrust is provided by reversing the operation of the first motor/generator and operating in a motoring mode. a first motor/generator coupled to a low pressure shaft of the gas turbine engine; a second motor/generator coupled to a high pressure shaft of the gas turbine engine; and a system controller coupled to each of the gas turbine engine, the first motor/generator, and the second motor/generator, wherein the controller is programmed to receive engine thrust demand and electrical power demand from an aircraft and to determine an amount of power sharing (304, 354) between the first motor/generator and the second motor/generator to meet an electrical power demand and control a gas generator portion (304, 354) of the gas turbine engine using a total system power demand as a control variable; and an energy storage unit (30, 46), wherein the controller is further programmed to meet the electrical power demand, which includes an amount of engine thrust, by storing energy to, and drawing energy from, the energy storage unit (30, 46); and characterized in that the controller is further programmed to augment the amount of engine thrust produced in the gas turbine engine by affecting the power sharing between the first motor/generator and the second motor/generator; and in that augmenting thrust is provided by reversing the operation of the first motor/generator and operating in a motoring mode.
A knitted component, comprising: a first area, wherein the first area includes a plurality of knit loops comprising a first yarn; and a second yarn at least partially inlaid within the first area of the knitted component such that the second yarn extends between at least a first loop and a second loop of the plurality of knit loops, wherein the second yarn includes a foamable material comprising a blowing agent and a thermoplastic polymer, characterised in that a first portion of the second yarn is exposed on a first surface in the first area. a first area, wherein the first area includes a plurality of knit loops comprising a first yarn; and a second yarn at least partially inlaid within the first area of the knitted component such that the second yarn extends between at least a first loop and a second loop of the plurality of knit loops, wherein the second yarn includes a foamable material comprising a blowing agent and a thermoplastic polymer, characterised in that a first portion of the second yarn is exposed on a first surface in the first area.
An energy bank including a heat exchanger, the energy bank comprising an enclosure, and within the enclosure: an input-side circuit of the heat exchanger for connection to an energy source; an output-side circuit of the heat exchanger for connection to an energy sink; a phase-change material for the storage of energy; an optical source to launch light into the phase change material, wherein the optical source is controllable to produce light of different colours; one or more sensors to provide measurement data indicative of the amount of energy stored as latent heat in the phase change material, wherein the one or more sensors includes an optical sensing arrangement to detect light launched from the optical source after the light has passed through the phase change material, wherein the optical source and the optical sensing arrangement is configured to give a graduated measure of a plurality of different energy storage states from empty to full, wherein the optical sensing arrangement is configured to detect at least some of different colours and the optical arrangement is configured to detect at least some of different colours; and a processor operatively connected to the one or more sensors and configured to determine a status of the phase-change material based on data from the optical sensing arrangement. an input-side circuit of the heat exchanger for connection to an energy source; an output-side circuit of the heat exchanger for connection to an energy sink; a phase-change material for the storage of energy; an optical source to launch light into the phase change material, wherein the optical source is controllable to produce light of different colours; one or more sensors to provide measurement data indicative of the amount of energy stored as latent heat in the phase change material, wherein the one or more sensors includes an optical sensing arrangement to detect light launched from the optical source after the light has passed through the phase change material, wherein the optical source and the optical sensing arrangement is configured to give a graduated measure of a plurality of different energy storage states from empty to full, wherein the optical sensing arrangement is configured to detect at least some of different colours and the optical arrangement is configured to detect at least some of different colours; and a processor operatively connected to the one or more sensors and configured to determine a status of the phase-change material based on data from the optical sensing arrangement.
A thermal barrier system, comprising: a protective coating on a substrate; and a ceramic feature layer, wherein said ceramic feature layer forms a lattice structure; characterised in that: said ceramic feature layer is attached to said protective coating via an adhesive spray coat, wherein the ceramic feature layer is mechanically interlocked to said protective coating via said adhesive spray coat, and said adhesive spray coat at least partially overfills said ceramic feature layer, said ceramic feature layer including an extended area such that a bottom surface of a wall of the ceramic feature layer is enlarged with respect to a top surface thereof, which facilitates the mechanical interlock between said ceramic feature layer and said protective coating via said adhesive spray coat, and said extended area being flared. a protective coating on a substrate; and a ceramic feature layer, wherein said ceramic feature layer forms a lattice structure; characterised in that: said ceramic feature layer is attached to said protective coating via an adhesive spray coat, wherein the ceramic feature layer is mechanically interlocked to said protective coating via said adhesive spray coat, and said adhesive spray coat at least partially overfills said ceramic feature layer, said ceramic feature layer including an extended area such that a bottom surface of a wall of the ceramic feature layer is enlarged with respect to a top surface thereof, which facilitates the mechanical interlock between said ceramic feature layer and said protective coating via said adhesive spray coat, and said extended area being flared.
A biopsy needle, comprising: an outer tube including a first lumen extending therethrough; a longitudinal body slidably received in the first lumen of the outer tube, the longitudinal body including a second lumen extending therethrough, a distal end of the longitudinal body forming a tissue penetrating distal tip and including an opening configured to receive a tissue sample therein when the longitudinal body penetrates target tissue, the longitudinal body having an outer diameter selected to form a space between an inner surface of the outer tube and an outer surface of the longitudinal body; a plurality of openings extending through a wall of the longitudinal body to permit fluid communication between the second lumen and the space, a size of the openings being selected to permit the openings to operate as a filter permitting liquids to pass from the second lumen to the space while preventing tissue from passing therethrough; and a stylet slidably received in the first lumen. an outer tube including a first lumen extending therethrough; a longitudinal body slidably received in the first lumen of the outer tube, the longitudinal body including a second lumen extending therethrough, a distal end of the longitudinal body forming a tissue penetrating distal tip and including an opening configured to receive a tissue sample therein when the longitudinal body penetrates target tissue, the longitudinal body having an outer diameter selected to form a space between an inner surface of the outer tube and an outer surface of the longitudinal body; a plurality of openings extending through a wall of the longitudinal body to permit fluid communication between the second lumen and the space, a size of the openings being selected to permit the openings to operate as a filter permitting liquids to pass from the second lumen to the space while preventing tissue from passing therethrough; and a stylet slidably received in the first lumen.