mhurhangee/ep-ind-claims huggingface dataset:
A vehicle steering column support structure comprising: instrument panel reinforcement disposed along the vehicle width direction between left and right front pillars and is configured as a pressed structural body with a square cross-section divided into two to which a steering support bracket is fixed that supports a steering column; and a brace (84, 86) with a top end portion (84A, 86A) fixed to a rear portion of the steering support bracket, and a bottom end portion (84B, 86B) fixed to a vehicle body floor or a lower portion of the front pillar, wherein the pressed structural body comprises an upper member configuring an upper section side of the square cross-section and a lower member configuring a lower section side of the square cross-section; and the steering support bracket comprises a first support member that is fixed to the upper member, and a second support member that is fixed to the lower member and extends towards the first support member side and is fixed to the first support member. instrument panel reinforcement disposed along the vehicle width direction between left and right front pillars and is configured as a pressed structural body with a square cross-section divided into two to which a steering support bracket is fixed that supports a steering column; and a brace (84, 86) with a top end portion (84A, 86A) fixed to a rear portion of the steering support bracket, and a bottom end portion (84B, 86B) fixed to a vehicle body floor or a lower portion of the front pillar, wherein the pressed structural body comprises an upper member configuring an upper section side of the square cross-section and a lower member configuring a lower section side of the square cross-section; and the steering support bracket comprises a first support member that is fixed to the upper member, and a second support member that is fixed to the lower member and extends towards the first support member side and is fixed to the first support member.
A method for manufacturing an enhancement mode III-nitride HEMT comprising: a. providing a substrate comprising a stack of layers on the substrate, each layer comprising a III-nitride material, and a passivation layer comprising high temperature silicon nitride overlying and in contact with an upper layer (203, 204) of the stack of III-nitride layers, wherein the HT silicon nitride is formed by MOCVD or LPCVD or any equivalent technique at a temperature higher than 450°C, more preferably higher than 550°C, even more preferably higher than 700°C thereby having having a H-content of about 3-8% and a density of about 2.9-3.1 g/cm 3, the passivation layer being formed in -situ with the stack of III-nitride layers, b. forming a recessed gate region by removing substantially completely the passivation layer only in the gate region, thereby exposing the underlying upper layer, then c. forming a p-doped GaN layer at least in the recessed gate region, thereby filling at least partially the recessed gate region, and d. forming a gate contact in the gate region and source/drain contacts through the passivation layer. a. providing a substrate comprising a stack of layers on the substrate, each layer comprising a III-nitride material, and a passivation layer comprising high temperature silicon nitride overlying and in contact with an upper layer (203, 204) of the stack of III-nitride layers, wherein the HT silicon nitride is formed by MOCVD or LPCVD or any equivalent technique at a temperature higher than 450°C, more preferably higher than 550°C, even more preferably higher than 700°C thereby having having a H-content of about 3-8% and a density of about 2.9-3.1 g/cm 3, the passivation layer being formed in -situ with the stack of III-nitride layers, b. forming a recessed gate region by removing substantially completely the passivation layer only in the gate region, thereby exposing the underlying upper layer, then c. forming a p-doped GaN layer at least in the recessed gate region, thereby filling at least partially the recessed gate region, and d. forming a gate contact in the gate region and source/drain contacts through the passivation layer.
Decoder for reconstructing a sample array from a data stream, configured to derive a bi-partition of a predetermined block of the sample array into first and second partitions by determining a measure for a central tendency of reconstructed sample values of a reference block of the picture, co-located to the predetermined block, segmenting the reference block by comparing each reconstructed sample value of the reference block with a threshold globally defined for the reconstructed sample values of the reference block and depending on the measure for the central tendency to obtain a bi-segmentation of the reference block into first and predetermined partitions, and spatially transferring the bi-segmentation of the reference block of the picture onto the predetermined block of the depth/disparity map so as to obtain the first and second partitions, associate each of neighboring samples of the sample array, adjoining to the predetermined block, with a respective one of the first and second partitions so that each neighboring sample adjoins the partition with which same is associated; predict the predetermined block by assigning a mean value of values of the neighboring samples associated with the first partition to samples of the sample array positioned within the first partition and/or a mean value of values of the neighboring samples associated with the second partition to samples of the sample array positioned within the second partition.
Burner (10, 134) for producing hot gas, having a flame tube (12, 112) which is connectable to a turbine, and having an air guiding device, wherein the flame tube (12, 112) is arranged in the air guiding device, which encloses said flame tube, in which air guiding device there is formed a flow path (21, 121) for air, and having a burner head which is fastened on a base (34, 134) and which, for the feed of fuel mixed with air into the flame tube (12, 112), has multiple nozzle channels (20, 120) which communicate with the flow path for air in the air guiding device and which each have a nozzle channel inlet opening for the feed of air and into which there projects in each case one fuel nozzle (17, 117) fixed to a base (34, 134), wherein the fuel nozzles (17, 117) are, for the supply of fuel, connected to a fuel plenum which is formed in the base (34, 134) and which can be connected to a fuel feed line, and wherein the burner head has a burner head body (18, 118) in which the nozzle channels (20, 120) which communicate with the flow path (21, 121) for air in the air guiding device are formed, which burner head body encloses a pilot combustion space (22, 122) which is open towards the flame tube (12, 112) and which communicates with the air guiding device, characterized in that the nozzle channels (20, 120) extend in the burner head body (18, 118) in passage bores which are perpendicular to the base (34, 134) and which are arranged azimuthally offset with respect to one another, wherein the nozzle channel inlet opening, which serves for the feed of air conducted in the air guiding device, of each nozzle channel (20, 120) is extended through by the fuel nozzle (17, 117) projecting into the nozzle channel (20, 120), and wherein the burner head body (18, 118) has a base wall with a base-side opening for a pilot fuel nozzle, which projects into a mixing chamber which is formed in the burner head body (18, 118) and which acts as a premixing path, wherein the burner head body (18, 118) has multiple air guiding channels which are arranged in the base wall and which extend outwards proceeding from the mixing chamber, wherein said air guiding channels are connected to the flow path for air in the air guiding device, and wherein said air guiding channels open into the mixing chamber.
A resuscitation system for aiding a user in providing resuscitative treatment to a patient, said system comprising: a first electrode (3, 22) coupled in fixed relation with a first motion sensor (7, 20); a second electrode (4, 23) coupled in fixed relation with a second motion sensor (7, 20); and at least one processor and memory, the at least one processor configured to analyze motion signals from the first and second motion sensors to estimate the location and/or orientation of the first and second electrodes relative to each other; and a communication component (11, 18) configured to provide feedback based on the analyzed motion signals to assist the user in placement of the first electrode and the second electrode on the body of the patient in an anterior-anterior position or an anterior-posterior position. a first electrode (3, 22) coupled in fixed relation with a first motion sensor (7, 20); a second electrode (4, 23) coupled in fixed relation with a second motion sensor (7, 20); and at least one processor and memory, the at least one processor configured to analyze motion signals from the first and second motion sensors to estimate the location and/or orientation of the first and second electrodes relative to each other; and a communication component (11, 18) configured to provide feedback based on the analyzed motion signals to assist the user in placement of the first electrode and the second electrode on the body of the patient in an anterior-anterior position or an anterior-posterior position.
An apparatus comprising: a vibratory separator having a frame and a screen; a lift housing disposed proximate the vibratory separator; a lift system disposed in the lift housing and configured to selectively engage a portion of the vibratory separator to lift the portion of the vibratory separator; and an alignment device coupled to the lift system and configured to engage a corresponding alignment device coupled to the portion of the vibratory separator; characterized in that the alignment device has a conical shape and the corresponding alignment device has a conical shape. a vibratory separator having a frame and a screen; a lift housing disposed proximate the vibratory separator; a lift system disposed in the lift housing and configured to selectively engage a portion of the vibratory separator to lift the portion of the vibratory separator; and an alignment device coupled to the lift system and configured to engage a corresponding alignment device coupled to the portion of the vibratory separator; characterized in that the alignment device has a conical shape and the corresponding alignment device has a conical shape.
A method for enhancing the cooling of an industrial kitchen kettle, the method using a kettle with an inner jacket and an outer jacket, between which is formed an intermediate space, into which cooling medium is arranged to be fed by feed elements and discharged by discharge elements said feed and discharge elements forming a normal cooling circulation, in which method cooling medium is fed into the intermediate space substantially in the same amount as is discharged from it, characterized in that, in the method, the flow velocity of the cooling medium in the intermediate space is increased using an additional pump arranged in connection with the intermediate space alongside the normal cooling circulation (5, 6), by which pump cooling medium is taken from the intermediate space into an auxiliary circulation (7, 8) outside the intermediate space and returned into the intermediate space.
Method for producing terpenes in fungi, comprising the steps of: (a) providing a transcription factor activating a terpene biosynthetic gene cluster having terpene biosynthetic genes and regulatory regions operably linked to said genes, the transcription factor having a sequence SEQ ID NO:74, or a sequence showing at least 80% identity to SEQ ID NO: 74; (b) operably linking said transcription factor to a promoter; (c) transforming the transcription factor of item (a) operably linked to the promoter of item (b) to a host cell carrying a terpene biosynthetic gene cluster as described in item (a); (d) cultivating said host in conditions allowing the expression of the transcription factor activating the cluster; and optionally (e) recovering the terpene product. (a) providing a transcription factor activating a terpene biosynthetic gene cluster having terpene biosynthetic genes and regulatory regions operably linked to said genes, the transcription factor having a sequence SEQ ID NO:74, or a sequence showing at least 80% identity to SEQ ID NO: 74; (b) operably linking said transcription factor to a promoter; (c) transforming the transcription factor of item (a) operably linked to the promoter of item (b) to a host cell carrying a terpene biosynthetic gene cluster as described in item (a); (d) cultivating said host in conditions allowing the expression of the transcription factor activating the cluster; and optionally (e) recovering the terpene product.
Perfected blister suitable for a blister pack for tablets, pills or capsules, characterized in that it has a dome-shaped part having a surface, most of which is faceted and defined by polygonal surfaces of small dimensions.
A medical apparatus for use in the production of a plaster cast or a data model of a limb stump, in particular a lower leg stump, the apparatus comprising at least: - a pressure vessel having, when the apparatus is in use, an upper front side as a first front face and a lower front face as a second front face, with a fluid chamber or a pressure chamber for receiving or storing a fluid under pressure, wherein the fluid chamber or pressure chamber is a closed space in which the fluid can be exposed to a pressure above the atmospheric pressure (in short: atmosphere), wherein the pressure vessel comprises a wall made of a first material, the wall delimiting an interior of the pressure vessel against an exterior (Ä), wherein the pressure vessel comprises an insertion opening in the first front face for inserting the limb stump into the interior of the pressure vessel; and - a fluid-tight membrane made of at least one second material, which is arranged to delimit the fluid chamber or the pressure chamber; - wherein at least one section of the membrane is fastened to the pressure vessel by means of at least one connector, characterized in that: the section lies in a region of the membrane being proximal or facing the insertion opening, wherein the at least one connector is fastened to a bottom surface, to a side surface of the wall or to the second front site of the pressure vessel. - a pressure vessel having, when the apparatus is in use, an upper front side as a first front face and a lower front face as a second front face, with a fluid chamber or a pressure chamber for receiving or storing a fluid under pressure, wherein the fluid chamber or pressure chamber is a closed space in which the fluid can be exposed to a pressure above the atmospheric pressure (in short: atmosphere), wherein the pressure vessel comprises a wall made of a first material, the wall delimiting an interior of the pressure vessel against an exterior (Ä), wherein the pressure vessel comprises an insertion opening in the first front face for inserting the limb stump into the interior of the pressure vessel; and - a fluid-tight membrane made of at least one second material, which is arranged to delimit the fluid chamber or the pressure chamber; - wherein at least one section of the membrane is fastened to the pressure vessel by means of at least one connector, the section lies in a region of the membrane being proximal or facing the insertion opening, wherein the at least one connector is fastened to a bottom surface, to a side surface of the wall or to the second front site of the pressure vessel.
A vibratory meter (5, 1600) configured to predict and reduce noise in the vibratory meter (5, 1600), the vibratory meter (5, 1600) comprising: a sensor assembly (10, 1610); and a meter electronics (20, 1620) in communication with the sensor assembly (10, 1610), the meter electronics (20, 1620) being configured to: provide a drive signal to a sensor assembly (10, 1610), wherein the drive signal comprises a multi-tone drive signal including a drive tone and one or more test tones for verifying the sensor assembly; receive a sensor signal from the sensor assembly (10, 1610) having one or more components, wherein the one or more components comprise at least one of intermodulation distortion signals and harmonic signals; characterised in that the meter electronics (20, 1620) is further configured to generate a signal to be applied to one of the sensor signal and the drive signal to compensate for the one or more components, wherein the meter electronics (20, 1620) being configured to generate the signal to be applied to one of the sensor signal and the drive signal comprises generating the signal based on a system model of the sensor assembly (10, 1610). a sensor assembly (10, 1610); and a meter electronics (20, 1620) in communication with the sensor assembly (10, 1610), the meter electronics (20, 1620) being configured to: provide a drive signal to a sensor assembly (10, 1610), wherein the drive signal comprises a multi-tone drive signal including a drive tone and one or more test tones for verifying the sensor assembly; receive a sensor signal from the sensor assembly (10, 1610) having one or more components, wherein the one or more components comprise at least one of intermodulation distortion signals and harmonic signals; characterised in that the meter electronics (20, 1620) is further configured to generate a signal to be applied to one of the sensor signal and the drive signal to compensate for the one or more components, wherein the meter electronics (20, 1620) being configured to generate the signal to be applied to one of the sensor signal and the drive signal comprises generating the signal based on a system model of the sensor assembly (10, 1610). provide a drive signal to a sensor assembly (10, 1610), wherein the drive signal comprises a multi-tone drive signal including a drive tone and one or more test tones for verifying the sensor assembly; receive a sensor signal from the sensor assembly (10, 1610) having one or more components, wherein the one or more components comprise at least one of intermodulation distortion signals and harmonic signals; characterised in that the meter electronics (20, 1620) is further configured to generate a signal to be applied to one of the sensor signal and the drive signal to compensate for the one or more components, wherein the meter electronics (20, 1620) being configured to generate the signal to be applied to one of the sensor signal and the drive signal comprises generating the signal based on a system model of the sensor assembly (10, 1610).
An amine compound represented by Formula 1: wherein, in Formula 1, Ar 1 and Ar 2 are each independently a substituted or unsubstituted aryl group of 6 to 40 carbon atoms for forming a ring, a substituted or unsubstituted heteroaryl group of 2 to 40 carbon atoms for forming a ring, or a substituted or unsubstituted alkyl group of 1 to 20 carbon atoms, L is a direct linkage, a substituted or unsubstituted arylene group of 6 to 30 carbon atoms for forming a ring, or a substituted or unsubstituted heteroarylene group of 2 to 30 carbon atoms for forming a ring, and HT is represented by Formula 2: wherein, in Formula 2, wherein R 1 is not combined with L in Formula 1 and wherein R 1 is an unsubstituted phenyl group, an unsubstituted naphthyl group, an unsubstituted biphenyl group, an unsubstituted dibenzofuranyl group, or an unsubstituted dibenzothiophene group; R 2 to R 9 are each independently a hydrogen atom, a deuterium atom, a halogen atom, a cyano group, a nitro group, an amino group, a substituted or unsubstituted aryl group of 6 to 40 carbon atoms for forming a ring, a substituted or unsubstituted heteroaryl group of 2 to 40 carbon atoms for forming a ring, or a substituted or unsubstituted alkyl group of 1 to 20 carbon atoms, wherein one pair selected from R 2 and R 3, R 3 and R 4, and R 4 and R 5 forms an hexagonal hydrocarbon ring; or, wherein one or two pairs selected from R 6 and R 7, R 7 and R 8, and R 8 and R 9 each form an hexagonal hydrocarbon ring, and when one pair selected from R 2 and R 3, R 3 and R 4, and R 4 and R 5 forms an hexagonal hydrocarbon ring, R 8 is a hydrogen atom. Ar 1 and Ar 2 are each independently a substituted or unsubstituted aryl group of 6 to 40 carbon atoms for forming a ring, a substituted or unsubstituted heteroaryl group of 2 to 40 carbon atoms for forming a ring, or a substituted or unsubstituted alkyl group of 1 to 20 carbon atoms, L is a direct linkage, a substituted or unsubstituted arylene group of 6 to 30 carbon atoms for forming a ring, or a substituted or unsubstituted heteroarylene group of 2 to 30 carbon atoms for forming a ring, and HT is represented by Formula 2: wherein, in Formula 2, wherein R 1 is not combined with L in Formula 1 and wherein R 1 is an unsubstituted phenyl group, an unsubstituted naphthyl group, an unsubstituted biphenyl group, an unsubstituted dibenzofuranyl group, or an unsubstituted dibenzothiophene group; R 2 to R 9 are each independently a hydrogen atom, a deuterium atom, a halogen atom, a cyano group, a nitro group, an amino group, a substituted or unsubstituted aryl group of 6 to 40 carbon atoms for forming a ring, a substituted or unsubstituted heteroaryl group of 2 to 40 carbon atoms for forming a ring, or a substituted or unsubstituted alkyl group of 1 to 20 carbon atoms, wherein one pair selected from R 2 and R 3, R 3 and R 4, and R 4 and R 5 forms an hexagonal hydrocarbon ring; or, wherein one or two pairs selected from R 6 and R 7, R 7 and R 8, and R 8 and R 9 each form an hexagonal hydrocarbon ring, and when one pair selected from R 2 and R 3, R 3 and R 4, and R 4 and R 5 forms an hexagonal hydrocarbon ring, R 8 is a hydrogen atom.
A method for configuring a scheduling request, applied to a terminal device, the method comprising: receiving at least one bandwidth part, BWP, configured by a network side; receiving at least one scheduling request configuration configured by the network side for each of the at least one BWP, wherein the scheduling request configuration has a mapping relationship with a logical channel; receiving BWP activation information sent by the network side, wherein the BWP activation information is used to deactivate a first BWP currently used by the terminal device, and activate a second BWP in the at least one BWP configured for the terminal device, wherein the first BWP is different from the second BWP; after receiving the BWP activation information sent by the network side, determining the scheduling request configuration corresponding to the second BWP on the basis of the second BWP to be activated indicated in the BWP activation information and the at least one scheduling request configuration configured for each of the at least one BWP; and determining a logical channel mapped to the scheduling request configuration corresponding to the second BWP on the basis of the scheduling request configuration corresponding to the second BWP. receiving at least one bandwidth part, BWP, configured by a network side; receiving at least one scheduling request configuration configured by the network side for each of the at least one BWP, wherein the scheduling request configuration has a mapping relationship with a logical channel; receiving BWP activation information sent by the network side, wherein the BWP activation information is used to deactivate a first BWP currently used by the terminal device, and activate a second BWP in the at least one BWP configured for the terminal device, wherein the first BWP is different from the second BWP; after receiving the BWP activation information sent by the network side, determining the scheduling request configuration corresponding to the second BWP on the basis of the second BWP to be activated indicated in the BWP activation information and the at least one scheduling request configuration configured for each of the at least one BWP; and determining a logical channel mapped to the scheduling request configuration corresponding to the second BWP on the basis of the scheduling request configuration corresponding to the second BWP.