mhurhangee/ep-ind-claims huggingface dataset:
A chuck plate that can be disposed between an annealing object and a holding table for use, and which is configured for attenuating thermal radiation light radiated from the annealing object and directed toward the holding table, the chuck plate comprising: an upper surface on which the annealing object is held during use; and a lower surface facing the holding table during use, wherein the upper surface includes a region that is brought into contact with the annealing object in a state in which the annealing object is held and a through-hole where there is no contact with the annealing object, and wherein an absorbing film including dye for absorbing the thermal radiation light radiated from the annealing object and directed toward the holding table is provided in at least one of the region of the upper surface on which the annealing object is held during use and the lower surface facing the holding table. an upper surface on which the annealing object is held during use; and a lower surface facing the holding table during use, wherein the upper surface includes a region that is brought into contact with the annealing object in a state in which the annealing object is held and a through-hole where there is no contact with the annealing object, and wherein an absorbing film including dye for absorbing the thermal radiation light radiated from the annealing object and directed toward the holding table is provided in at least one of the region of the upper surface on which the annealing object is held during use and the lower surface facing the holding table.
A depilatory composition comprising at least two different hair growth inhibition additives comprising a combination of from 0.01 to 5 wt% of the plant extract Gymnestra sylvestra and from 0.001 to 10 wt% chelidonine, wherein the weight ratio, based on active ingredient, of gymnestra sylvestra extract to chelidonine is between from 1:1 to 250:1.
Secure system for the storage and/or the transport of valuables, comprising at least: - a enclosure provided with at least one internal storage zone arranged to directly receive the valuables to be protected or a cassette containing the valuables to be protected, - a tank containing at least one neutralisation product, and - a short-circuit device disposed between the tank and the storage zone and configured to allow the transport of the neutralisation product either, when the valuables are directly stored in the storage zone, to spraying means connected to said tank and capable of projecting said neutralisation product in the storage zone, or only when a cassette is disposed in the storage zone towards the inside of said cassette, said secure system being characterised in that the short-circuit device comprises at least: - a nozzle arranged to cooperate with a wall of the cassette in such a way as to allow, when the latter is placed in the storage zone, the passage of the neutralisation product coming from the tank inside said cassette, and - a slide associated with said nozzle and capable of sliding, on the side opposite to said nozzle, along its longitudinal axis, in a sealed manner, inside a body between a "retracted" position in which the neutralisation product coming from the tank passes through the associated nozzle, and a "deployed" position in which the neutralisation product coming from the tank passes through the spraying means. - a enclosure provided with at least one internal storage zone arranged to directly receive the valuables to be protected or a cassette containing the valuables to be protected, - a tank containing at least one neutralisation product, and - a short-circuit device disposed between the tank and the storage zone and configured to allow the transport of the neutralisation product either, when the valuables are directly stored in the storage zone, to spraying means connected to said tank and capable of projecting said neutralisation product in the storage zone, or only when a cassette is disposed in the storage zone towards the inside of said cassette, - a nozzle arranged to cooperate with a wall of the cassette in such a way as to allow, when the latter is placed in the storage zone, the passage of the neutralisation product coming from the tank inside said cassette, and - a slide associated with said nozzle and capable of sliding, on the side opposite to said nozzle, along its longitudinal axis, in a sealed manner, inside a body between a "retracted" position in which the neutralisation product coming from the tank passes through the associated nozzle, and a "deployed" position in which the neutralisation product coming from the tank passes through the spraying means.
A cargo tank for an extremely low temperature substance carrier, the cargo tank comprising: a primary barrier (200, 200A) including a primary corrugated panel having a corrugated portion formed by a plurality of continuous corrugated cross-sections and a primary main panel connected to the primary corrugated panel; a secondary barrier (400, 400A) including a secondary corrugated panel having a corrugated portion formed by a plurality of continuous corrugated cross-sections and a secondary main panel connected to the secondary corrugated panel; a primary insulated wall (300, 300A) provided between the primary barrier (200, 200A) and the secondary barrier (400, 400A) and including a depression receiving the corrugated portion of the secondary corrugated panel; and a secondary insulated wall (500, 500A) provided between the secondary barrier (400, 400A) and a body shell; wherein the primary insulated wall (300, 300A) comprises: an upper plywood board provided under the primary barrier (200, 200A); characterized in that the primary insulated wall (300,300A) further comprises: an upper glass fiber reinforced epoxy composite provided under the upper plywood board; a lower glass fiber reinforced epoxy composite provided on the secondary barrier (400, 400A); and an insulation plate provided between the upper glass fiber reinforced epoxy composite and the lower glass fiber reinforced epoxy composite. a primary barrier (200, 200A) including a primary corrugated panel having a corrugated portion formed by a plurality of continuous corrugated cross-sections and a primary main panel connected to the primary corrugated panel; a secondary barrier (400, 400A) including a secondary corrugated panel having a corrugated portion formed by a plurality of continuous corrugated cross-sections and a secondary main panel connected to the secondary corrugated panel; a primary insulated wall (300, 300A) provided between the primary barrier (200, 200A) and the secondary barrier (400, 400A) and including a depression receiving the corrugated portion of the secondary corrugated panel; and a secondary insulated wall (500, 500A) provided between the secondary barrier (400, 400A) and a body shell; wherein the primary insulated wall (300, 300A) comprises: an upper plywood board provided under the primary barrier (200, 200A); characterized in that the primary insulated wall (300,300A) further comprises: an upper glass fiber reinforced epoxy composite provided under the upper plywood board; a lower glass fiber reinforced epoxy composite provided on the secondary barrier (400, 400A); and an insulation plate provided between the upper glass fiber reinforced epoxy composite and the lower glass fiber reinforced epoxy composite. an upper glass fiber reinforced epoxy composite provided under the upper plywood board; a lower glass fiber reinforced epoxy composite provided on the secondary barrier (400, 400A); and an insulation plate provided between the upper glass fiber reinforced epoxy composite and the lower glass fiber reinforced epoxy composite.
A compound of the following formula: or a pharmaceutically acceptable salt or solvate thereof, wherein: - ------ represents a single bond or a double bond on the condition that the two bonds ------ do not represent a double bond at the same time, - n1 and n2 represent, independently of each other, an integer comprised between 0 and 8, - Q represents an optionally substituted aryl or an optionally substituted heterocycle, - W represents NR 0, a piperidinediyl, a piperazinediyl or a pyrrolidinediyl, - X 1 represents O or NR 1, - X 2 represents O or NR 2, - X 3 represents: ▪ N when ----- X 3 represents a double bond =X 3, and ▪ NR 3 when ----- X 3 represents a single bond -X 3, - X 4 represents: ▪ O or NR 4 when ----- X 4 represents a double bond =X 4, and ▪ OR 4 or NR 4 R 5 when ----- X 4 represents a single bond -X 4, - R 0 represents H; CHO; CO 2 -((C 1 -C 6)alkyl); or a (C 1 -C 6)alkyl optionally substituted with CHO, CO 2 H or CO 2 -((C 1 -C 6)alkyl), - R 1 and R 2 represent, independently of each other, H or a (C 1 -C 6)alkyl, - R 3 and R 4 represent, independently of each other, H, (C 1 -C 6)alkyl, aryl, heterocycle, -((C 1 -C 6)alkyl)-X 5 -aryl or -((C 1 -C 6)alkyl)-X 5 -heterocycle, with X 5 representing a bond, O or NR 6 and each aryl or heterocycle moiety being optionally substituted, and - R 5 and R 6 represent, independently of each other, H or a (C 1 -C 6)alkyl. - ------ represents a single bond or a double bond on the condition that the two bonds ------ do not represent a double bond at the same time, - n1 and n2 represent, independently of each other, an integer comprised between 0 and 8, - Q represents an optionally substituted aryl or an optionally substituted heterocycle, - W represents NR 0, a piperidinediyl, a piperazinediyl or a pyrrolidinediyl, - X 1 represents O or NR 1, - X 2 represents O or NR 2, - X 3 represents: ▪ N when ----- X 3 represents a double bond =X 3, and ▪ NR 3 when ----- X 3 represents a single bond -X 3, ▪ N when ----- X 3 represents a double bond =X 3, and ▪ NR 3 when ----- X 3 represents a single bond -X 3, - X 4 represents: ▪ O or NR 4 when ----- X 4 represents a double bond =X 4, and ▪ OR 4 or NR 4 R 5 when ----- X 4 represents a single bond -X 4, ▪ O or NR 4 when ----- X 4 represents a double bond =X 4, and ▪ OR 4 or NR 4 R 5 when ----- X 4 represents a single bond -X 4, - R 0 represents H; CHO; CO 2 -((C 1 -C 6)alkyl); or a (C 1 -C 6)alkyl optionally substituted with CHO, CO 2 H or CO 2 -((C 1 -C 6)alkyl), - R 1 and R 2 represent, independently of each other, H or a (C 1 -C 6)alkyl, - R 3 and R 4 represent, independently of each other, H, (C 1 -C 6)alkyl, aryl, heterocycle, -((C 1 -C 6)alkyl)-X 5 -aryl or -((C 1 -C 6)alkyl)-X 5 -heterocycle, with X 5 representing a bond, O or NR 6 and each aryl or heterocycle moiety being optionally substituted, and - R 5 and R 6 represent, independently of each other, H or a (C 1 -C 6)alkyl.
A surgical stapling apparatus, comprising: a cartridge assembly defining a tissue contacting surface; an anvil assembly defining a tissue contacting surface; and a surgical buttress releasably secured to at least one of the tissue contacting surface of the cartridge assembly and the tissue contacting surface of the anvil assembly by at least one anchor; characterised in that: the tissue contacting surface of at least one of the cartridge assembly and the anvil assembly includes a grip enhancing feature (220a, 220b, 220c) formed thereon, wherein a gripping effect of the surgical buttress relative to the tissue contacting surface of a respective cartridge assembly and anvil assembly is enhanced as compared to a cartridge assembly and an anvil assembly devoid of the grip enhancing feature (220a, 220b, 220c). a cartridge assembly defining a tissue contacting surface; an anvil assembly defining a tissue contacting surface; and a surgical buttress releasably secured to at least one of the tissue contacting surface of the cartridge assembly and the tissue contacting surface of the anvil assembly by at least one anchor;
A radar unit for detecting an existence of interference, wherein the radar unit comprises: a millimetre wave (mmW) transceiver (Tx/Rx) circuit comprising a plurality of antennas forming a radiation pattern and configured to radiate a transmit radar signal and receive an echo signal thereof; a mixed analog and baseband circuit operably coupled to the mmW Tx/Rx circuit; and a signal processor circuit operably coupled to the mixed analog and baseband circuit; wherein the radar unit is characterized by; at least one auxiliary interference detection path coupled to the signal processor circuit wherein the at least one auxiliary interference detection path includes at least one auxiliary baseband receiver; an interference detection unit operably coupled to the at least one auxiliary interference detection path and configured to monitor at least a portion of a radar frequency band supported by the radar unit, receive an interference signal from the at least one auxiliary baseband receiver and determine from the received interference signal an arrival direction of the received interference signal and a level of interference, and output an interference detected signal; and wherein the signal processor circuit is configured to analyse the interference detected signal and quantify a response to the arrival direction and level of the received interference signal. a millimetre wave (mmW) transceiver (Tx/Rx) circuit comprising a plurality of antennas forming a radiation pattern and configured to radiate a transmit radar signal and receive an echo signal thereof; a mixed analog and baseband circuit operably coupled to the mmW Tx/Rx circuit; and a signal processor circuit operably coupled to the mixed analog and baseband circuit; wherein the radar unit is characterized by; at least one auxiliary interference detection path coupled to the signal processor circuit wherein the at least one auxiliary interference detection path includes at least one auxiliary baseband receiver; an interference detection unit operably coupled to the at least one auxiliary interference detection path and configured to monitor at least a portion of a radar frequency band supported by the radar unit, receive an interference signal from the at least one auxiliary baseband receiver and determine from the received interference signal an arrival direction of the received interference signal and a level of interference, and output an interference detected signal; and wherein the signal processor circuit is configured to analyse the interference detected signal and quantify a response to the arrival direction and level of the received interference signal.
An ex vivo method for removing bacteria from a sample taken from a subject who is suspected of being infected with bacteria, wherein the bacteria are known to have nondetectable affinity for heparan sulfate, the method comprising: (i) contacting a sample from whole blood in an extracorporeal circuit at a linear flow rate of about 400 cm/min to about 1000 cm/min with an adsorption media to allow the formation of an adhering complex, wherein the adsorption media is a solid substrate of high surface area having at least one polysaccharide adsorbent on the surface thereof, which is heparin, wherein the solid substrate comprises a plurality of rigid polymer beads, wherein the rigid polymer bead is a member selected from the group consisting of polyurethane, polymethylmethacrylate, polyethylene or co-polymers of ethylene and other monomers, polyethylene imine, polypropylene, and polyisobutylene, wherein the size of channels or interstitial space between individual beads permits passage of blood cells, wherein the bacteria is selected from Acinetobacter baumannii, carbapenem-resistant Escherichia coli, carbapenem-resistant Klebsiella pneumoniae, or extended spectrum beta-lactamase Klebsiella pneumoniae; wherein the beads are coated with 0.27 mg to 10 mg heparin per gram of bead; and (ii) separating the sample from the adhering complex to produce the sample with a reduced amount of bacteria; wherein the adhering complex comprises bacteria and the adsorption media. (i) contacting a sample from whole blood in an extracorporeal circuit at a linear flow rate of about 400 cm/min to about 1000 cm/min with an adsorption media to allow the formation of an adhering complex, wherein the adsorption media is a solid substrate of high surface area having at least one polysaccharide adsorbent on the surface thereof, which is heparin, wherein the solid substrate comprises a plurality of rigid polymer beads, wherein the rigid polymer bead is a member selected from the group consisting of polyurethane, polymethylmethacrylate, polyethylene or co-polymers of ethylene and other monomers, polyethylene imine, polypropylene, and polyisobutylene, wherein the size of channels or interstitial space between individual beads permits passage of blood cells, wherein the bacteria is selected from Acinetobacter baumannii, carbapenem-resistant Escherichia coli, carbapenem-resistant Klebsiella pneumoniae, or extended spectrum beta-lactamase Klebsiella pneumoniae; wherein the beads are coated with 0.27 mg to 10 mg heparin per gram of bead; and (ii) separating the sample from the adhering complex to produce the sample with a reduced amount of bacteria;
Steel drum manufactured from steel sheet and having a cylindrical shape with at least a bottom cover in a sealed connection to the cylindrical shape, provided with a plurality of corrugations on the circumferential surface of the cylindrical shape, the plurality of corrugations being grouped in at least one cluster (5, 6), characterised in that: per cluster (5, 6) there are at least 5 corrugations, wherein each corrugation has a profile of an identical shape and size; each corrugation profile consists of a peak portion and a valley portion, and a peak-to-valley depth of the corrugations is constant and is between 2.5 mm and 6.0 mm; in the at least one cluster (5, 6) each peak portion has a same curved peak shape, and each valley portion has a same curved valley shape; the peak radius being equal to the valley radius, the peak portion being defined as a circular segment with a fixed peak radius and the valley portion is defined as a circular segment with fixed valley radius, wherein the peak radius and/or the valley radius is at least 6 mm, and wherein the corrugations are located at a pitch of at least 15 mm. per cluster (5, 6) there are at least 5 corrugations, wherein each corrugation has a profile of an identical shape and size; each corrugation profile consists of a peak portion and a valley portion, and a peak-to-valley depth of the corrugations is constant and is between 2.5 mm and 6.0 mm; in the at least one cluster (5, 6) each peak portion has a same curved peak shape, and each valley portion has a same curved valley shape; the peak radius being equal to the valley radius, the peak portion being defined as a circular segment with a fixed peak radius and the valley portion is defined as a circular segment with fixed valley radius, wherein the peak radius and/or the valley radius is at least 6 mm, and wherein the corrugations are located at a pitch of at least 15 mm.
An image processing method, applied to an electronic device comprising a multi-spectral sensor, wherein the method comprises: displaying a preview interface, wherein the preview interface comprises a first control; detecting a first operation on the first control; obtaining multiple frames of initial images (P1..P3) including at least a first frame of initial image and a second frame of initial image, the first frame of initial image and the second frame of initial image being in RAW domain or Bayer-pattern images, in response to the first operation, wherein color channel signals (T1..T6) comprised in the first frame of initial image and the second frame of initial image are different, and each of the first frame of initial image and the second frame of initial image includes three different color channel signals (T1..T6); processing each of the first frame of initial image and the second frame of initial image, to obtain a processed image corresponding to each frame of initial image; and fusing the multiple frames of processed images to obtain a target image. displaying a preview interface, wherein the preview interface comprises a first control; detecting a first operation on the first control; obtaining multiple frames of initial images (P1..P3) including at least a first frame of initial image and a second frame of initial image, the first frame of initial image and the second frame of initial image being in RAW domain or Bayer-pattern images, in response to the first operation, wherein color channel signals (T1..T6) comprised in the first frame of initial image and the second frame of initial image are different, and each of the first frame of initial image and the second frame of initial image includes three different color channel signals (T1..T6); processing each of the first frame of initial image and the second frame of initial image, to obtain a processed image corresponding to each frame of initial image; and fusing the multiple frames of processed images to obtain a target image.
A method implemented in a mobile radio (22, 40, 50) for a cellular radio communication system (10, 30) that includes a first serving cell and a second non-serving cell, where the mobile radio (22, 40, 50) is currently served by a first base station (20, 38) in the first cell and uplink radio transmissions from the mobile radio (22, 40, 50) causes inter-cell interference in the second non-serving cell, the method being characterized by: (a) estimating the inter-cell interference in the second non-serving cell caused by the mobile radio's uplink transmissions; (b) detecting that the estimated inter-cell interference in the second non-serving cell exceeds a predetermined threshold; and (c) controlling radio resources to limit the estimated inter-cell interference in the second non-serving cell to become less than the predetermined threshold. (a) estimating the inter-cell interference in the second non-serving cell caused by the mobile radio's uplink transmissions; (b) detecting that the estimated inter-cell interference in the second non-serving cell exceeds a predetermined threshold; and (c) controlling radio resources to limit the estimated inter-cell interference in the second non-serving cell to become less than the predetermined threshold.