mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus configured to operate as an access point, AP configured to transmit packets to a subordinate station, STA and a STA connected to another AP, the communication apparatus comprising: a storage unit including a transmission buffer configured to store packets for each STA; and a control unit configured to control processing for sharing information on a sequence number of a transmission buffer for each STA between the APs, wherein the control unit transmits information on the sequence number of the transmission buffer for each STA of the AP to the other AP on the basis of a request from the other AP. transmit packets to a subordinate station, STA and a STA connected to another AP, the communication apparatus comprising: a storage unit including a transmission buffer configured to store packets for each STA; and a control unit configured to control processing for sharing information on a sequence number of a transmission buffer for each STA between the APs, wherein the control unit transmits information on the sequence number of the transmission buffer for each STA of the AP to the other AP on the basis of a request from the other AP. a storage unit including a transmission buffer configured to store packets for each STA; and a control unit configured to control processing for sharing information on a sequence number of a transmission buffer for each STA between the APs, wherein the control unit transmits information on the sequence number of the transmission buffer for each STA of the AP to the other AP on the basis of a request from the other AP.
An oil system for a gas turbine engine comprising: an oil tank; a fill tube (240; 340) coupled to the oil tank; a cap (241; 341) coupled to a first end of the fill tube (240; 340); a first baffle coupled to an inner wall of the fill tube (240; 340), wherein the first baffle comprises a first aperture; a second baffle coupled to the inner wall of the fill tube (240; 340); and a first release opening coupled to the first baffle; characterised by a flapper valve (242; 342) coupled to the fill tube (240; 340), and the first release opening being a release tube. an oil tank; a fill tube (240; 340) coupled to the oil tank; a cap (241; 341) coupled to a first end of the fill tube (240; 340); a first baffle coupled to an inner wall of the fill tube (240; 340), wherein the first baffle comprises a first aperture; a second baffle coupled to the inner wall of the fill tube (240; 340); and a first release opening coupled to the first baffle; characterised by a flapper valve (242; 342) coupled to the fill tube (240; 340), and the first release opening being a release tube.
A method of refining a molten iron alloy while feeding oxygen to a molten iron alloy bath in a converter furnace, the method comprising: supplying a direct current between a first electrode disposed above the molten iron alloy bath and a second electrode disposed in contact with the molten iron alloy bath, wherein a hollow top blowing lance is used as the first electrode, a height of the top blowing lance is controlled based on weight of residual slag in the furnace, weight of an input auxiliary raw material, weight of a reaction product, a slag density, and a cross-sectional area of the furnace belly portion, the height of the top blowing lance being controlled between 0.1 times and 10 times a slag height H (m) calculated by H (m) = (total weight of the residual slag in the furnace, the input auxiliary raw material, and the reaction products (kg)) / (the slag density (kg/m 3) × the cross-sectional area of the furnace belly portion (m 2)), and when I P represents a magnitude of an average of a direct current during an energization time when the direct current is supplied, I P ' represents a magnitude of an average of the direct current during the energization time within one minute immediately before the feeding of the oxygen is stopped, W s [t] represents an amount of molten steel in the converter furnace, and A s [m 2] represents a furnace internal cross-sectional area at a furnace belly portion, at least one of equations to is satisfied. I P ≥ 0.125 × W s I P ≥ 1.5 × A s I P ′ ≥ 0.125 × W s I P ′ ≥ 1.5 × A s supplying a direct current between a first electrode disposed above the molten iron alloy bath and a second electrode disposed in contact with the molten iron alloy bath, wherein a hollow top blowing lance is used as the first electrode, a height of the top blowing lance is controlled based on weight of residual slag in the furnace, weight of an input auxiliary raw material, weight of a reaction product, a slag density, and a cross-sectional area of the furnace belly portion, the height of the top blowing lance being controlled between 0.1 times and 10 times a slag height H (m) calculated by H (m) = (total weight of the residual slag in the furnace, the input auxiliary raw material, and the reaction products (kg)) / (the slag density (kg/m 3) × the cross-sectional area of the furnace belly portion (m 2)), and when I P represents a magnitude of an average of a direct current during an energization time when the direct current is supplied, I P ' represents a magnitude of an average of the direct current during the energization time within one minute immediately before the feeding of the oxygen is stopped, W s [t] represents an amount of molten steel in the converter furnace, and A s [m 2] represents a furnace internal cross-sectional area at a furnace belly portion, at least one of equations to is satisfied. I P ≥ 0.125 × W s I P ≥ 1.5 × A s I P ′ ≥ 0.125 × W s I P ′ ≥ 1.5 × A s
A stiffening assembly for a fuel tank having a wall, the assembly comprising: first and second inserts for the wall of the fuel tank, the inserts each comprising a base having a flange, a head, and a neck coupling the base to the head, the neck having a portion that is narrower than at least a portion of the head; and an elongate body having first and second connectors at respective first and second ends (66, 68) of the body, each connector including a pocket sized to receive the head of a respective one of the inserts, whereby the insert is partially hollow and includes a cavity opening at the base. first and second inserts for the wall of the fuel tank, the inserts each comprising a base having a flange, a head, and a neck coupling the base to the head, the neck having a portion that is narrower than at least a portion of the head; and an elongate body having first and second connectors at respective first and second ends (66, 68) of the body, each connector including a pocket sized to receive the head of a respective one of the inserts, whereby the insert is partially hollow and includes a cavity opening at the base.
A battery comprising: a battery cell comprising an anode, a cathode and an electrolyte disposed between the anode and the cathode; a tab support frame having an outer edge that extends beyond a periphery of the battery cell; a first current collector tab having a distal end extending from the anode of the battery cell; a second current collector tab having a distal end extending from the cathode of the battery cell; a lower packaging material disposed below the battery cell and the tab support frame and an upper packaging material disposed above the battery cell; cell; characterised in that, the first and second current collector tabs (701, 702) are supported by the tab support frame; and that, the upper packaging material has an outer edge that does not extend to the distal end of the first and second current collector tabs (701, 702), such that a portion of the first and second current collector tabs (701, 702) extends beyond the outer edge of the upper packaging material but not beyond the outer edge of the tab support frame. a battery cell comprising an anode, a cathode and an electrolyte disposed between the anode and the cathode; a tab support frame having an outer edge that extends beyond a periphery of the battery cell; a first current collector tab having a distal end extending from the anode of the battery cell; a second current collector tab having a distal end extending from the cathode of the battery cell; a lower packaging material disposed below the battery cell and the tab support frame and an upper packaging material disposed above the battery cell; cell; characterised in that, the first and second current collector tabs (701, 702) are supported by the tab support frame; and that, the upper packaging material has an outer edge that does not extend to the distal end of the first and second current collector tabs (701, 702), such that a portion of the first and second current collector tabs (701, 702) extends beyond the outer edge of the upper packaging material but not beyond the outer edge of the tab support frame.
A crane for lifting a load, the crane comprising an extensible arm that can be lifted and lowered; the extensible arm comprising a base member and a plurality of sliding members (33, 34, 35, 36, 37, 38, 39, 40) terminating with an end sliding member; the sliding members (31, 33, 34, 35, 36, 37, 38, 39, 40) of the extensible arm being coaxially inserted one inside the other and being telescopically movable relative to each other between a respective retracted position and a respective extended position under the action of corresponding telescopic drive means, the telescopic drive means being mounted on the end sliding member; the crane being characterized in that the telescopic drive means comprise a first and a second actuator (41, 42), and further in that each actuator has a movable end (41", 42") which is equipped with means (51, 52) for engaging and disengaging respective members of the extensible arm.
An injection blow molding method for making a container comprising the steps of injecting a molten crystallizable polymer in a preform mold via a hot runner system and biaxially stretching the preform by blowing, thereby forming a container, characterized in that the step of injecting comprises adding locally applied friction/shear in the hot runner wherein said adding comprises selectively modifying the polymer melt flow path from a cross-sectional point-of-view and in relation to its length, wherein the hot runner construction is modified in a manner to force macromolecules in the polymer melt into different degrees of pre-alignment/orientation, thereby inducing in the preform regular sequence of variations in molecular pre- alignment/orientation between different locations of the wall cross-section of the preform.
An electrosurgical instrument, comprising: an elongated housing having proximal and distal ends (5, 7), the proximal end configured to couple to a source of electrosurgical energy via first and second channels (14, 16) extending along a length of the housing to the distal end thereof, the distal end including a reflector having a dielectric load operably coupled thereto, the dielectric load configured to receive at least a portion of the first channel therein such that in a first mode of operation electrosurgical energy transmitted to the first channel is reflected from the reflector to electrosurgically treat tissue, the reflector configured to receive at least a portion of the second channel therein such that in a second mode of operation electrosurgical energy is transmitted to the second channel to dissect tissue, characterized in that the reflector is formed from a conductive metal tube having a diagonal cross-cut at least partially through a width thereof and configured to shape a microwave radiation field emitted from the distal face. an elongated housing having proximal and distal ends (5, 7), the proximal end configured to couple to a source of electrosurgical energy via first and second channels (14, 16) extending along a length of the housing to the distal end thereof, the distal end including a reflector having a dielectric load operably coupled thereto, the dielectric load configured to receive at least a portion of the first channel therein such that in a first mode of operation electrosurgical energy transmitted to the first channel is reflected from the reflector to electrosurgically treat tissue, the reflector configured to receive at least a portion of the second channel therein such that in a second mode of operation electrosurgical energy is transmitted to the second channel to dissect tissue, characterized in that the reflector is formed from a conductive metal tube having a diagonal cross-cut at least partially through a width thereof and configured to shape a microwave radiation field emitted from the distal face.
A computer-implemented method of training a neural network model, comprising: determining, after a predetermined number of training iterations, a specificity of each filter of a plurality of filters (1102, 1204), or a combination thereof; training each filter of the plurality of filters based at least in part on the specificity; determining whether to continue the training of each filter based at least in part on each filter's determined specificity, characterised in: that the specificity of each filter of the plurality of filters is based on at least one of entropy, change of the filter's weight from the original filter's weight, variance weight values, difference of each filter's weights from the weights of other filters, cross correlation with other filters; determining a target complexity of the neural network implementation, based on at least one of a memory specification, a power specification, or a combination thereof, in which the determined target complexity is used for at least one of selectivity training filters, prioritizing filters to train, or a combination thereof. determining, after a predetermined number of training iterations, a specificity of each filter of a plurality of filters (1102, 1204), or a combination thereof; training each filter of the plurality of filters based at least in part on the specificity; determining whether to continue the training of each filter based at least in part on each filter's determined specificity, characterised in: that the specificity of each filter of the plurality of filters is based on at least one of entropy, change of the filter's weight from the original filter's weight, variance weight values, difference of each filter's weights from the weights of other filters, cross correlation with other filters; determining a target complexity of the neural network implementation, based on at least one of a memory specification, a power specification, or a combination thereof, in which the determined target complexity is used for at least one of selectivity training filters, prioritizing filters to train, or a combination thereof. that the specificity of each filter of the plurality of filters is based on at least one of entropy, change of the filter's weight from the original filter's weight, variance weight values, difference of each filter's weights from the weights of other filters, cross correlation with other filters; determining a target complexity of the neural network implementation, based on at least one of a memory specification, a power specification, or a combination thereof, in which the determined target complexity is used for at least one of selectivity training filters, prioritizing filters to train, or a combination thereof.
Liquid composition comprising desPro 36 Exendin-4 -Lys 6 -NH 2 and/or a pharmacologically tolerable salt thereof and optionally at least one pharmaceutically acceptable excipient, characterized in that it contains methionine and is free of EDTA and histidine and in that the composition contains desPro 36 Exendin-4 -Lys 6 -NH 2 in an amount of from 0.01 mg/ml to 1.5 mg/ml.
A method for configuring timing advance by a base station of a radio access network, RAN, comprising; providing a timing advance command for the RAN, that employs a modulation scheme with a scalable numerology having a plurality of subcarrier spacings, SCSs defined for the radio access network, wherein the timing advance command accommodates the scalable numerology used by the RAN, and wherein providing the timing advance command comprises configuring a number of bits used to express a timing advance duration to a user equipment, UE, determining a timing advance step size for the UE when the UE is in communication with the RAN to calculate the timing advance duration included in the timing advance command, the timing advance step size being associated with one of the plurality of SCSs, defined for the RAN, and wherein the timing advance step size is one of a plurality of timing advance step sizes, each timing advance step size of the plurality of timing advance step sizes being scaled for a respective one of the SCSs defined for the radio access network; and transmitting the timing advance command to the UE. providing a timing advance command for the RAN, that employs a modulation scheme with a scalable numerology having a plurality of subcarrier spacings, SCSs defined for the radio access network, wherein the timing advance command accommodates the scalable numerology used by the RAN, and wherein providing the timing advance command comprises configuring a number of bits used to express a timing advance duration to a user equipment, UE, determining a timing advance step size for the UE when the UE is in communication with the RAN to calculate the timing advance duration included in the timing advance command, the timing advance step size being associated with one of the plurality of SCSs, defined for the RAN, and wherein the timing advance step size is one of a plurality of timing advance step sizes, each timing advance step size of the plurality of timing advance step sizes being scaled for a respective one of the SCSs defined for the radio access network; and transmitting the timing advance command to the UE.
An electro-mechanical actuator for operating a curtain mounted to slide along an axis (X 10), said actuator comprising a motor belonging to a motor unit, a power supply unit for powering the motor, and a box, the motor unit being received in a first internal housing (L 1) of the box, the box being elongate and including a hollow main body which defines the first internal housing (L 1), said housing being isolated from the outside by the main body and by parts which close it at its extremities, a part of the motor unit, including the corresponding printed circuits being received in the first internal housing (L 1), the box forming at least one second internal housing, separated from the first internal housing by a wall (35, 43) of the box and in which an electrical or electronic component (28, 50) of the actuator is received that is distinct from the motor and from the power supply unit, a cover (33, 41) isolating the or each second housing (L 2, L' 2) from the outside of the box, characterized in that the power supply unit is received in the internal housing, and in that the cover is removable with respect to the main body.
A combination of a FGFR inhibitor selected from N-(3,5-dimethoxyphenyl)-N'-(1-methylethyl)-N- [3 -(1 -methyl-1H-pyrazol-4-yl)quinoxalin-6-yl]ethane-1,2-diamine or a pharmaceutically acceptable salt thereof or a solvate thereof, and N-(2-fluoro-3,5-dimethoxyphenyl)-N-(1H-imidazol-2-ylmethyl)-3-(1-methyl-1H-pyrazol-4-yl)pyrido[2,3-b]pyrazin-6-amine or a pharmaceutically acceptable salt thereof or a solvate thereof, and an IGF1R inhibitor.
An endoscope system, comprising: an illumination unit that generates illumination light to irradiate an observation target; an imaging device that includes plural pixels and is adapted to image the observation target with reflected light of the illumination light; an image signal acquisition unit configured to acquire a plurality of image signals from the imaging device, the plurality of image signals corresponding to a plurality of wavelength ranges including a wavelength range where an absorption coefficient changes according to oxygen saturation of blood hemoglobin; an oxygen saturation calculation unit adapted to calculate the oxygen saturation based on the image signals; an exposure amount designation value calculation unit adapted to calculate an exposure amount designation value for designating an amount of exposure, which is required to image the observation target, based on the image signals; a threshold value calculation unit adapted to calculate a threshold value according to the exposure amount designation value; a region detection unit adapted to calculate a calculation value based on pixel values of the image signals and to detect a first region, in which the calculation values fall within a range equal to or greater than the threshold value, and a second region, in which the calculation values are out of the range; and an image generation unit adapted to generate an oxygen saturation image, in which the oxygen saturation is displayed differently in the first and second regions, using the image signals, the oxygen saturation, and information of the first and second regions. an illumination unit that generates illumination light to irradiate an observation target; an imaging device that includes plural pixels and is adapted to image the observation target with reflected light of the illumination light; an image signal acquisition unit configured to acquire a plurality of image signals from the imaging device, the plurality of image signals corresponding to a plurality of wavelength ranges including a wavelength range where an absorption coefficient changes according to oxygen saturation of blood hemoglobin; an oxygen saturation calculation unit adapted to calculate the oxygen saturation based on the image signals; an exposure amount designation value calculation unit adapted to calculate an exposure amount designation value for designating an amount of exposure, which is required to image the observation target, based on the image signals; a threshold value calculation unit adapted to calculate a threshold value according to the exposure amount designation value; a region detection unit adapted to calculate a calculation value based on pixel values of the image signals and to detect a first region, in which the calculation values fall within a range equal to or greater than the threshold value, and a second region, in which the calculation values are out of the range; and an image generation unit adapted to generate an oxygen saturation image, in which the oxygen saturation is displayed differently in the first and second regions, using the image signals, the oxygen saturation, and information of the first and second regions.
A method for preventing cross-contamination of samples prepared in close proximity to one another, the method comprising: providing at least two sample tubes, wherein each of the at least two sample tubes includes a sample to be analyzed; fitting a sample tube adapter into each of the at least two sample tubes, the sample tube adapter being configured for preventing cross-contamination between each of the at least two tubes, characterized by the sample tube adapter including: an open proximal end defined by a first member dimensioned to be inserted into a sample tube; a tapered member that tapers distally from a first width adjacent to the first member to a second smaller width at a distal end of the sample tube adapter; and an open distal end providing a narrowed exit site defined by the tapered member, wherein the open distal end is dimensioned to allow gases to escape from the sample tube with increased velocity; and with the sample tube adapters in place, performing at least one sample preparation step including a forced air drydown step for removing a volatile solvent from each of the samples to be analyzed to prepare the samples for analysis.