mhurhangee/ep-ind-claims huggingface dataset:
A microphone array for capturing sound field audio content, comprising: a first set of directional microphones disposed on a first framework at a first radius r 1 from a center and arranged in at least a first portion of a first spherical surface (410, 420, 430, 440, 450); and a second set of directional microphones disposed on a second framework at a second radius r 2 from the center and arranged in at least a second portion of a second spherical surface (415, 425, 435, 445, 455), the second radius r 2 being larger than the first radius r 1; wherein the directional microphones capture information that allows for the extraction of Higher-Order Ambisonics signals, characterized in that each of the first and second sets of directional microphones include at least ( N + 1) 2 directional microphones, where N represents an Ambisonic order, and Higher-Order Ambisonics refers to Ambisonic order 2 or higher, said microphone array further comprising an A-format microphone or a B-format microphone disposed within the first set of directional microphones. a first set of directional microphones disposed on a first framework at a first radius r 1 from a center and arranged in at least a first portion of a first spherical surface (410, 420, 430, 440, 450); and a second set of directional microphones disposed on a second framework at a second radius r 2 from the center and arranged in at least a second portion of a second spherical surface (415, 425, 435, 445, 455), the second radius r 2 being larger than the first radius r 1; wherein the directional microphones capture information that allows for the extraction of Higher-Order Ambisonics signals, characterized in that each of the first and second sets of directional microphones include at least ( N + 1) 2 directional microphones, where N represents an Ambisonic order, and Higher-Order Ambisonics refers to Ambisonic order 2 or higher, said microphone array further comprising an A-format microphone or a B-format microphone disposed within the first set of directional microphones.
A polar code interleaving processing method, comprising: determining N to-be-encoded bits, wherein N is a positive integer; obtaining a first sequence that comprises sequence numbers of N polarized channels, wherein the first sequence is used to indicate a reliability order of the N polarized channels; performing polar encoding on the N to-be-encoded bits to obtain encoded bits; performing interleaving processing on the encoded bits based on the first sequence, characterised in that the performing interleaving processing on the encoded bits based on the first sequence comprises: sorting the encoded bits based on the first sequence to obtain sorted encoded bits; and inputting the sorted encoded bits into an interleaver to obtain interleaved bits. determining N to-be-encoded bits, wherein N is a positive integer; obtaining a first sequence that comprises sequence numbers of N polarized channels, wherein the first sequence is used to indicate a reliability order of the N polarized channels; performing polar encoding on the N to-be-encoded bits to obtain encoded bits; performing interleaving processing on the encoded bits based on the first sequence, characterised in that the performing interleaving processing on the encoded bits based on the first sequence comprises: sorting the encoded bits based on the first sequence to obtain sorted encoded bits; and inputting the sorted encoded bits into an interleaver to obtain interleaved bits.
A method for depositing a layer of carbon nanostructures on a substrate, the carbon nanostructures consisting of an array of randomly oriented graphene sheets upstanding on the substrate, the method including the steps: providing a processing chamber, the processing chamber having chamber walls, the processing chamber having a substrate location zone; providing the substrate at the substrate location zone in the processing chamber, internal surfaces of the chamber walls facing the substrate location zone; evacuating the processing chamber; providing a processing gas in the processing chamber at a pressure in the range 1 to 1000 Pa, the processing gas comprising carbon monoxide gas; creating and sustaining gaseous plasma in the processing chamber for a period of at least 1 second, the gaseous plasma having a power density of at least 0.1 MW m -3; heating the substrate to a temperature of more than 500 °C; maintaining the internal surfaces of the chamber walls at a temperature below 300 °C; growing the layer of carbon nanostructures on the substrate. providing a processing chamber, the processing chamber having chamber walls, the processing chamber having a substrate location zone; providing the substrate at the substrate location zone in the processing chamber, internal surfaces of the chamber walls facing the substrate location zone; evacuating the processing chamber; providing a processing gas in the processing chamber at a pressure in the range 1 to 1000 Pa, the processing gas comprising carbon monoxide gas; creating and sustaining gaseous plasma in the processing chamber for a period of at least 1 second, the gaseous plasma having a power density of at least 0.1 MW m -3; heating the substrate to a temperature of more than 500 °C; maintaining the internal surfaces of the chamber walls at a temperature below 300 °C; growing the layer of carbon nanostructures on the substrate.
A heat exchanger, comprising: a heat transfer tube bundle housing duct for housing heat transfer tube bundles; openings provided on a sidewall of the heat transfer tube bundle housing duct, for freely inserting and removing the heat transfer tube bundles; bundle-bottom-rails provided in a direction perpendicular to an inflowing direction of a flue gas and within the heat transfer tube bundle housing duct, for freely moving the heat transfer tube bundles; temporary support parts provided in a structure outside the heat transfer tube bundle housing duct; moving rails supported by the temporary support parts, for moving the heat transfer tube bundles; and a driving apparatus for drawing out the heat transfer tube bundles onto the moving rails, characterised in that enclosure parts configured to prevent mixing of ashes are provided at lateral faces of the bundle-bottom-rails. a heat transfer tube bundle housing duct for housing heat transfer tube bundles; openings provided on a sidewall of the heat transfer tube bundle housing duct, for freely inserting and removing the heat transfer tube bundles; bundle-bottom-rails provided in a direction perpendicular to an inflowing direction of a flue gas and within the heat transfer tube bundle housing duct, for freely moving the heat transfer tube bundles; temporary support parts provided in a structure outside the heat transfer tube bundle housing duct; moving rails supported by the temporary support parts, for moving the heat transfer tube bundles; and a driving apparatus for drawing out the heat transfer tube bundles onto the moving rails, characterised in that enclosure parts configured to prevent mixing of ashes are provided at lateral faces of the bundle-bottom-rails.
A nonwoven fabric comprising: a. a first surface and a second surface and at least a first and second visually discernible zone on at least one of the first and second surface, each of the first and second zones (110, 120) having a first pattern of three-dimensional features imparted to it by a forming belt on which the nonwoven fabric was formed, each of the three- dimensional features defining a microzone comprising a first region and a second region, the first and second regions (300, 310) each being fluid permeable and having a difference in values for an intensive property, b. wherein the nonwoven fabric comprise continuous polymeric fibers and the polymeric fibers in the second region are at least partially thermally bonded on the first surface, and c. wherein at least one of the first and second zones (110, 120) have a second pattern of three- dimensional features being thermal point bonds imparted to it by point bonding calendar rolls (71, 73), each of the thermal point bonds defining a point bond microzone comprising a point bond first region and a point bond second region, the first and second point bond regions (300, 310) having a difference in values for the intensive property. a. a first surface and a second surface and at least a first and second visually discernible zone on at least one of the first and second surface, each of the first and second zones (110, 120) having a first pattern of three-dimensional features imparted to it by a forming belt on which the nonwoven fabric was formed, each of the three- dimensional features defining a microzone comprising a first region and a second region, the first and second regions (300, 310) each being fluid permeable and having a difference in values for an intensive property, b. wherein the nonwoven fabric comprise continuous polymeric fibers and the polymeric fibers in the second region are at least partially thermally bonded on the first surface, and c. wherein at least one of the first and second zones (110, 120) have a second pattern of three- dimensional features being thermal point bonds imparted to it by point bonding calendar rolls (71, 73), each of the thermal point bonds defining a point bond microzone comprising a point bond first region and a point bond second region, the first and second point bond regions (300, 310) having a difference in values for the intensive property.
A straddle-type vehicle which turns in a state in which a vehicle body is banked from an upright state to a first side in a vehicle width direction around a predetermined angular displacement center, the straddle-type vehicle comprising: a head lamp which irradiates a head lamp irradiation region set to be forward in a travelling direction of the vehicle relative to the vehicle body; a first auxiliary lamp which irradiates a first auxiliary lamp irradiation region set to be forward in the travelling direction of the vehicle relative to the head lamp irradiation region, in a region which is inward with respect to a turning direction in which the vehicle body turns; and a second auxiliary lamp which is placed in such a manner that a distance between the second auxiliary lamp and the predetermined angular displacement center is smaller than a distance between the first auxiliary lamp and the predetermined angular displacement center, characterized in that the second auxiliary lamp irradiates a second auxiliary lamp irradiation region set to be forward in the travelling direction of the vehicle relative to the first auxiliary lamp irradiation region, in the region which is inward with respect to the turning direction of the vehicle body. a head lamp which irradiates a head lamp irradiation region set to be forward in a travelling direction of the vehicle relative to the vehicle body; a first auxiliary lamp which irradiates a first auxiliary lamp irradiation region set to be forward in the travelling direction of the vehicle relative to the head lamp irradiation region, in a region which is inward with respect to a turning direction in which the vehicle body turns; and a second auxiliary lamp which is placed in such a manner that a distance between the second auxiliary lamp and the predetermined angular displacement center is smaller than a distance between the first auxiliary lamp and the predetermined angular displacement center, characterized in that the second auxiliary lamp irradiates a second auxiliary lamp irradiation region set to be forward in the travelling direction of the vehicle relative to the first auxiliary lamp irradiation region, in the region which is inward with respect to the turning direction of the vehicle body.
Expansion radiator for a hermetically sealed electrical transformer or a choke, to which a heat exchange fluid is supplied via an inflow means, guided through an expansion corrugation cavity formed by an expansion corrugation and an associated cover part, and then drained via outflow means, characterised in that a flow guiding part directing the flow direction of the heat exchange fluid is disposed in an orifice region between the inflow means and expansion corrugation cavity, which projects into the expansion corrugation cavity.
A light emitting device comprising: lead frame units including a first lead frame and a second lead frame spaced apart from each other, the first and second lead frames (110, 120) each comprising a top surface and an opposing bottom surface; a facing region where the first and second lead frames (110, 120) face each other; fixing spaces formed at the facing region and at regions adjacent to opposite side edges of the respective first and second lead frames (110, 120), the opposite side edges being connected to an edge of the first lead frame or the second lead frame which is adjacent to the facing region; stepped portions (113, 123) formed on sidewalls of the fixing spaces; a light emitting diode chip mounted on the first lead frame; wherein the stepped portions (113, 123) comprise stepped portions formed on sidewalls of the fixing space formed at the facing region and stepped portions formed on sidewalls of the fixing spaces formed at the regions adjacent to opposite side edges of the respective first and second lead frames (110, 120), and an area of a lower portion of each of the fixing spaces is greater than an upper portion of each of the fixing spaces, and the fixing space formed at the facing region is connected to the fixing spaces formed at the regions adjacent to the opposite side edges of the respective first and second lead frames (110, 120). lead frame units including a first lead frame and a second lead frame spaced apart from each other, the first and second lead frames (110, 120) each comprising a top surface and an opposing bottom surface; a facing region where the first and second lead frames (110, 120) face each other; fixing spaces formed at the facing region and at regions adjacent to opposite side edges of the respective first and second lead frames (110, 120), the opposite side edges being connected to an edge of the first lead frame or the second lead frame which is adjacent to the facing region; stepped portions (113, 123) formed on sidewalls of the fixing spaces; a light emitting diode chip mounted on the first lead frame; wherein the stepped portions (113, 123) comprise stepped portions formed on sidewalls of the fixing space formed at the facing region and stepped portions formed on sidewalls of the fixing spaces formed at the regions adjacent to opposite side edges of the respective first and second lead frames (110, 120), and an area of a lower portion of each of the fixing spaces is greater than an upper portion of each of the fixing spaces, and the fixing space formed at the facing region is connected to the fixing spaces formed at the regions adjacent to the opposite side edges of the respective first and second lead frames (110, 120).
A method for liquefying starch, said method comprising: (a) incubating a slurry comprising a granular starch substrate with an enzyme composition, at a temperature which is above 55°C and below the initial starch gelatinization temperature of the granular starch substrate, for about 2 mins to about 4 hrs at a pH range of about 4.0 to about 6.2; (b) raising the temperature to 0 to about 45°C above the initial starch gelatinization temperature for about 5 mins to about 6 hrs at a pH of between about pH 4.0 and about 6.2 and obtaining liquefied starch; wherein the enzyme composition comprises a mixture of a phytase and an alpha amylase, wherein the phytase has an amino acid sequence having at least 90% sequence identity to the sequence BP-WT: or to the sequence BP-11: or to the sequence BP-17: (a) incubating a slurry comprising a granular starch substrate with an enzyme composition, at a temperature which is above 55°C and below the initial starch gelatinization temperature of the granular starch substrate, for about 2 mins to about 4 hrs at a pH range of about 4.0 to about 6.2; (b) raising the temperature to 0 to about 45°C above the initial starch gelatinization temperature for about 5 mins to about 6 hrs at a pH of between about pH 4.0 and about 6.2 and obtaining liquefied starch; wherein the enzyme composition comprises a mixture of a phytase and an alpha amylase, wherein the phytase has an amino acid sequence having at least 90% sequence identity to the sequence BP-WT: or to the sequence BP-11: or to the sequence BP-17:
Vehicle, in particular for feed processing, comprising at least one mixing container for a pourable mixture and comprising a rotary piston fan installation which is connected on the suction-side to the mixing container and is connected on the pressure-side to a pneumatic conveying device for discharging the blended mixture from the mixing container, characterised in that the rotary piston fan installation comprises two rotary piston fans (22, 23) which are connected in series with a cooler being positioned therebetween and of which the rotary piston fan provided downstream can optionally be switched on to pressurise the pneumatic conveying device.
Method for producing a component from a titanium-aluminium base alloy, in particular as component parts for turbocharger units of internal combustion engines, comprising the following steps: - heating cast starting material within the (α+β) phase region to a temperature at which the β phase comprises at least 5% by volume, - forging the heated starting material into the forged blank by means of impact forming at a rate of form change of at least 19 1/s, wherein the forged blank has no burr after the forging, - removing the forged blank from the die and cooling the forged blank in a controlled, uniform manner, wherein after the cooling to room temperature the forged blank has a proportion of β/B2 Ti phase of at most 10% by volume, and - further processing the forged blank into the final product. - heating cast starting material within the (α+β) phase region to a temperature at which the β phase comprises at least 5% by volume, - forging the heated starting material into the forged blank by means of impact forming at a rate of form change of at least 19 1/s, wherein the forged blank has no burr after the forging, - removing the forged blank from the die and cooling the forged blank in a controlled, uniform manner, wherein after the cooling to room temperature the forged blank has a proportion of β/B2 Ti phase of at most 10% by volume, and - further processing the forged blank into the final product.
A method of exchanging messages by a sink device of a wireless network, the messages being intended for streaming connection with a source device, the method comprising: transmitting a connect request message for data streaming to the source device; receiving a first connect response message from the source device, the connect response message including connection information indicating that a connection with the source device has failed and wait time information that indicates a wait time for the sink device required for connection with the source device; and outputting a user interface, on a display window of the sink device, indicating both the connection information indicating that the connection with the source device has failed and the wait time information, wherein the connection is reattempted by the source device automatically after the wait time passes or within the wait time if a reason for failure is solved. transmitting a connect request message for data streaming to the source device; receiving a first connect response message from the source device, the connect response message including connection information indicating that a connection with the source device has failed and wait time information that indicates a wait time for the sink device required for connection with the source device; and outputting a user interface, on a display window of the sink device, indicating both the connection information indicating that the connection with the source device has failed and the wait time information, wherein the connection is reattempted by the source device automatically after the wait time passes or within the wait time if a reason for failure is solved.
A method of operating an overlay access node in a wireless communication network including one or more underlay access nodes, the method comprising: receiving, by the overlay access node, an indication of at least one power measurement associated with one or more of the overlay access node and the underlay access nodes, wherein the overlay access node is configured to transmit data during one or more almost blank subframes, ABSs; and selecting, by the overlay access node, at least one user equipment, UE for reception of a transmission from the overlay access node during one or more ABSs, based at least partly on the indication, wherein the at least one UE is in communication with the overlay access node, but not with the underlay access nodes, during the one or more ABSs; determining, by the overlay access node, a first power level for communicating with the at least one UE during the one or more ABSs, wherein the first power level is lower than a second power level used during non-ABS subframes; and communicating, by the overlay access node, data and/or control information with the at least one UE at the first power level. receiving, by the overlay access node, an indication of at least one power measurement associated with one or more of the overlay access node and the underlay access nodes, wherein the overlay access node is configured to transmit data during one or more almost blank subframes, ABSs; and selecting, by the overlay access node, at least one user equipment, UE for reception of a transmission from the overlay access node during one or more ABSs, based at least partly on the indication, wherein the at least one UE is in communication with the overlay access node, but not with the underlay access nodes, during the one or more ABSs; determining, by the overlay access node, a first power level for communicating with the at least one UE during the one or more ABSs, wherein the first power level is lower than a second power level used during non-ABS subframes; and communicating, by the overlay access node, data and/or control information with the at least one UE at the first power level.
A computer implemented method for monitoring bone marrow in a patient, comprising: collecting NMR signals of a bone marrow volume in a bone of the patient, at a first time point; repeating the collecting of NMR signals at least at a second time point, at least two months after the first time point; and analyzing the NMR signals collected at the first time point and the second time point; characterized in that the analyzing comprises estimating one or both of adipocyte content and changes in adipocyte content of the bone marrow; and in that collecting the NMR signals at the first time point and at the second time point is done using a stray field non-homogeneous NMR scanner. collecting NMR signals of a bone marrow volume in a bone of the patient, at a first time point; repeating the collecting of NMR signals at least at a second time point, at least two months after the first time point; and analyzing the NMR signals collected at the first time point and the second time point; characterized in that the analyzing comprises estimating one or both of adipocyte content and changes in adipocyte content of the bone marrow; and in that collecting the NMR signals at the first time point and at the second time point is done using a stray field non-homogeneous NMR scanner.