mhurhangee/ep-ind-claims huggingface dataset:
Gas delivery device comprising a first chamber enclosed by gas-, liquid- and solid-tight first chamber walls, wherein at least a part of the first chamber walls has been replaced by a first gas permeable and liquid and solid impermeable membrane, wherein the first chamber comprises a gas releasing molecule, and wherein the first gas permeable membrane comprises silicone, wherein the gas releasing molecule is a carbon monoxide releasing molecule (CORM), a hydrogen sulfide (H 2 S) releasing molecule or a nitric oxide releasing molecule, and wherein the gas releasing molecule is a metal organic compound.
Process for producing methane, wherein a first mass flow G1, which is a hydrogen-containing gas mixture, is mixed with a second mass flow G2, which contains carbon dioxide and/or carbon monoxide, and hydrogen and carbon dioxide and/or carbon monoxide in the obtained mixture are converted into methane in a catalytic reaction, wherein the second mass flow G2 is obtained by a) performing a catalytic hydromethanation in which the inputs carbon, steam and oxygen are converted in the presence of at least one catalyst at a temperature in the range from 400°C 800°C into methane, carbon monoxide and carbon dioxide or b) performing a steam-hydrogen gasification in which the inputs carbon, hydrogen, steam and oxygen are converted at a temperature in the range from 800°C to 1100°C into methane, carbon monoxide and carbon dioxide wherein in the catalytic hydromethanation of alternative a) or in the steam-hydrogen gasification according to alternative b) hydrogen is added as an additional input to adjust the reaction equilibrium in favour of methane, wherein the hydrogen is separated from the first mass flow G1. a) performing a catalytic hydromethanation in which the inputs carbon, steam and oxygen are converted in the presence of at least one catalyst at a temperature in the range from 400°C 800°C into methane, carbon monoxide and carbon dioxide or b) performing a steam-hydrogen gasification in which the inputs carbon, hydrogen, steam and oxygen are converted at a temperature in the range from 800°C to 1100°C into methane, carbon monoxide and carbon dioxide
A reflector for a base station antenna, comprising a main body of the reflector, wherein the main body of the reflector is a monolayer or multilayer structure, wherein each layer of the structure comprises a plurality of chambers for accommodating respective phase shifters of the base station antenna, wherein the main body and the chambers are integrally formed, wherein each chamber comprises a guide groove and a rib placed in the chamber, wherein the guide groove and the rib are configured for fixing and limiting said phase shifters, wherein a sliding dielectric block of each phase shifter can be moved along a respective one of the guide grooves, wherein the main body further comprises narrow slots parallel to and near to both side edges of a first surface of the reflector, wherein the narrow slots and the guide grooves are parallel and connected to each other, and the narrow slots are for connecting the phase shifters to a drive mechanism, wherein the first surface of the reflector is configured for fixing radiation devices of the base station antenna.
SAR system which is adapted to - transmit two or more chronologically offset pulses (P1, P2) within one pulse repetition interval in such a way that the pulses (P1, P2) are emitted by phase centres, which are arranged at different positions perpendicular to the flight direction, and the pulses (P1, P2) light up the same strip of ground and - separate the received echoes of the pulses (P1, P2) from one another through digital beam shaping, and - which comprises two spatially separated transmission antennae (11, 12) and at least one receiving antenna (13, 14), characterised in that - a second pulse following a first pulse intersects the first pulse, wherein the radar echoes are separated from each other through pulse modulation, and - to separate the echoes of the pulses (P1, P2) the Scan-on-Receive method is used. - transmit two or more chronologically offset pulses (P1, P2) within one pulse repetition interval in such a way that the pulses (P1, P2) are emitted by phase centres, which are arranged at different positions perpendicular to the flight direction, and the pulses (P1, P2) light up the same strip of ground and - separate the received echoes of the pulses (P1, P2) from one another through digital beam shaping, and - which comprises two spatially separated transmission antennae (11, 12) and at least one receiving antenna (13, 14), - a second pulse following a first pulse intersects the first pulse, wherein the radar echoes are separated from each other through pulse modulation, and - to separate the echoes of the pulses (P1, P2) the Scan-on-Receive method is used.
A method comprising: receiving physical content as an input, wherein the physical content comprises at least one of a letter, a postcard or a paper; capturing image data of physical content, where the physical content includes an image indicative of at least one desired recipient; performing image recognition on the captured image data to locate the image indicative of the at least one desired recipient; matching the located image with corresponding contact information to obtain address information for the at least one desired recipient; replacing the image indicative of the at least one desired recipient with an image indicative of a sender of the physical content; and addressing an electronic communication to the at least one desired recipient using the address information, where the electronic communication comprises the captured image data of the physical content comprising the image indicative of the sender of the physical content. receiving physical content as an input, wherein the physical content comprises at least one of a letter, a postcard or a paper; capturing image data of physical content, where the physical content includes an image indicative of at least one desired recipient; performing image recognition on the captured image data to locate the image indicative of the at least one desired recipient; matching the located image with corresponding contact information to obtain address information for the at least one desired recipient; replacing the image indicative of the at least one desired recipient with an image indicative of a sender of the physical content; and addressing an electronic communication to the at least one desired recipient using the address information, where the electronic communication comprises the captured image data of the physical content comprising the image indicative of the sender of the physical content.
A work machine comprising: a track structure capable of traveling, a swing structure mounted on the track structure and capable of swinging to right and left, a work device mounted to the swing structure, a plurality of cameras (96a-d) mounted to the swing structure so as to be capable of shooting in different directions, a storage device for storing videos taken by the plurality of cameras (96a-d), and a controller having a camera selection section configured to select, when the track structure, the swing structure or the work device makes an operation, from among the plurality of cameras (96a-d) a camera in accordance with the operation, characterized in that the controller has a storage control section configured to store in the storage device a video taken during the operation by the camera selected by the camera selection section. a track structure capable of traveling, a swing structure mounted on the track structure and capable of swinging to right and left, a work device mounted to the swing structure, a plurality of cameras (96a-d) mounted to the swing structure so as to be capable of shooting in different directions, a storage device for storing videos taken by the plurality of cameras (96a-d), and a controller having a camera selection section configured to select, when the track structure, the swing structure or the work device makes an operation, from among the plurality of cameras (96a-d) a camera in accordance with the operation, characterized in that the controller has a storage control section configured to store in the storage device a video taken during the operation by the camera selected by the camera selection section.
System for switching high voltages with a switching path which comprises at least two series-connected switching units (2, 3), wherein each switching unit (2, 3) comprises at least one support element (4, 5) and elements of a kinematic chain for transferring a switching movement from at least one drive, wherein the support elements (4, 5) of the at least two switching units (2, 3) are mechanically interconnected by means of at least one coupling element and the drive of the at least two switching units (2, 3) is configured as a common drive, characterized in that support elements (4, 5) are of different lengths, for the compensation of variations in the height of the foundation, and in that the at least one coupling element is arranged on the support elements (4, 5) such that the distance from the drive to the switching units (2, 3), via elements of the kinematic chain, is of equal length, in the event of differences in the height of the foundation, with distances of equal length from the switching units (2, 3) to fixing points of the at least one coupling element on the support elements (4, 5).
A breathing assistance apparatus comprising: a pressurized gas source; a container containing a liquid; and a conduit including distal and proximal ends, wherein the conduit splits intermediate the distal and proximal ends into patient conduit adapted for connection to a patient interface and a bubbler conduit comprising the distal end of the conduit, the proximal end of the conduit being adapted for connection to the pressurized gas source, characterized in that the bubbler conduit has a distal portion configured to be submerged in the liquid, a distal end of the bubbler conduit comprising a bubbler elbow and a bubbler extending from the bubbler elbow to a bubbler exit portion, and the distal end of the bubbler conduit is configured such that the angle of the bubbler is 135° to 180° with respect to a vertical axis defined by gravity and pointing toward the Earth's center of mass when the container is in an operational straight up position, where 0° corresponds to the bubbler exit portion being oriented straight down and 180° corresponds to the bubbler exit portion being oriented straight up in the operational straight up position of the container, wherein the bubbler exit portion is not a funnel. a pressurized gas source; a container containing a liquid; and a conduit including distal and proximal ends, wherein the conduit splits intermediate the distal and proximal ends into patient conduit adapted for connection to a patient interface and a bubbler conduit comprising the distal end of the conduit, the proximal end of the conduit being adapted for connection to the pressurized gas source, characterized in that the bubbler conduit has a distal portion configured to be submerged in the liquid, a distal end of the bubbler conduit comprising a bubbler elbow and a bubbler extending from the bubbler elbow to a bubbler exit portion, and the distal end of the bubbler conduit is configured such that the angle of the bubbler is 135° to 180° with respect to a vertical axis defined by gravity and pointing toward the Earth's center of mass when the container is in an operational straight up position, where 0° corresponds to the bubbler exit portion being oriented straight down and 180° corresponds to the bubbler exit portion being oriented straight up in the operational straight up position of the container, wherein the bubbler exit portion is not a funnel.
Method for separating two or more dicarboxylic acids or fractions of two or more dicarboxylic acids from biological and/or chemical reaction solutions by adsorption, at a pH of 1 to 7 in a temperature range of 20°C-80°C, on at least partially non-polar hydrophobic adsorbents, from which an adsorbate is subsequently desorbed, characterized in that the adsorbents comprise highly crosslinked polymers selected from polymethylenebiphenyl or polymethylenebenzene, wherein separation of two or more coexisting dicarboxylic acids is effected by selective adsorption, wherein the dicarboxylic acids are selected from maleic acid, itaconic acid, mesaconic acid, citraconic acid, methylsuccinic acid, tartaric acid and malic acid, and the adsorbed dicarboxylic acids are obtained from the adsorbents by elution with water, methanol, ethanol or acetone.
An apparatus for temporally interpolating a three-dimensional depth image, the apparatus comprising: a color image acquiring unit configured to acquire color images from a color camera; and a depth image acquiring unit configured to acquire depth images from a depth camera; a motion area extractor configured to extract a motion area from only the depth images, without using the color images, the motion area comprising a moving object; a correspondence acquiring unit configured to acquire correspondence information regarding a correspondence between the depth images from which the motion area is extracted; a temporal interpolation unit configured to interpolate depth images acquired by the depth image acquiring unit based on the acquired correspondence information using a temporal interpolation procedure, the depth images comprising a depth point cloud, said depth point cloud comprising a plurality of depth points; and an intermediate depth image generator configured to generate an intermediate depth image corresponding to a new point in time for which a color image exists but a depth image does not exist using a result of an interpolation performed by the temporal interpolation unit using depth images that are temporally adjacent to said one color image; wherein said temporal interpolation procedure is configured to interpolate corresponding depth points in said depth images to find depth points of the intermediate depth image. a color image acquiring unit configured to acquire color images from a color camera; and a depth image acquiring unit configured to acquire depth images from a depth camera; a motion area extractor configured to extract a motion area from only the depth images, without using the color images, the motion area comprising a moving object; a correspondence acquiring unit configured to acquire correspondence information regarding a correspondence between the depth images from which the motion area is extracted; a temporal interpolation unit configured to interpolate depth images acquired by the depth image acquiring unit based on the acquired correspondence information using a temporal interpolation procedure, the depth images comprising a depth point cloud, said depth point cloud comprising a plurality of depth points; and an intermediate depth image generator configured to generate an intermediate depth image corresponding to a new point in time for which a color image exists but a depth image does not exist using a result of an interpolation performed by the temporal interpolation unit using depth images that are temporally adjacent to said one color image; wherein said temporal interpolation procedure is configured to interpolate corresponding depth points in said depth images to find depth points of the intermediate depth image.
Dental milling cutter comprising a milling head and a shaft, wherein the milling head is provided with a toothing extending over the entire length of a contour of the milling head, wherein as seen in the direction of the median longitudinal axis of the dental milling cutter (10; 40) the circumference of the milling head is divided into a plurality of sections (30, 32, 34, 36; 42, 44, 46, 48), wherein in the circumferential direction of the milling head sections (30, 32, 34, 36; 42, 44, 46, 48) of different primary toothings are alternating, characterized in that each section (30, 32, 34, 36; 42, 44, 46, 48) includes more than one tooth of the same primary toothing.
A nozzle bar for treating fibres with water jets, including an elongately extending upper part, in which an elongately formed pressure chamber is placed, wherein the pressure chamber includes an end side with an opening for supplying water and an opposite closed end side, and wherein a pressure distribution chamber, which extends parallel to the pressure chamber, is placed in the upper part, and wherein several throughflow bores are placed distributed along the length of the upper part in the intermediate walling between the pressure chamber and the pressure distribution chamber, through which bores water is guidable from the pressure chamber into the pressure distribution chamber, and including an elongately extending lower part, which is disposed in a liquid-tight manner at the upper part, and wherein a nozzle strip with bores for the water discharge is accommodated in or at the lower part, and wherein a slot, which extends between the pressure distribution chamber and the nozzle strip for charging the nozzle strip with water, is placed in the upper part, characterized in that - the pressure chamber is cylindrically configured and has a circular cross-section with a diameter of 70 mm to 90 mm, and in that - the pressure distribution chamber is cylindrically configured and has a circular cross-section with a diameter of 30 mm to 40 mm. - the pressure chamber is cylindrically configured and has a circular cross-section with a diameter of 70 mm to 90 mm, and in that - the pressure distribution chamber is cylindrically configured and has a circular cross-section with a diameter of 30 mm to 40 mm.
A method of fabricating a graphite-containing electrode (60; 160; 260), the method comprising: a) providing a plurality of first graphite-containing elements (62; 162) and a plurality of second graphite-containing elements (64; 164), the plurality of first graphite-containing elements (62; 162) having a first degree of graphitization and the plurality of second graphite-containing elements (64; 164) having a second, different degree of graphitization; and subsequently b) treating the plurality of first graphite-containing elements (62; 162) and the plurality of second graphite-containing elements (64; 164) with an oxidizer to provide oxygen-containing surface groups bonded on the surfaces of the plurality of first graphite-containing elements (62; 162) and the plurality of second graphite-containing elements (64; 164); wherein: the plurality of first graphite-containing elements and the plurality of second graphite-containing elements are fibers. a) providing a plurality of first graphite-containing elements (62; 162) and a plurality of second graphite-containing elements (64; 164), the plurality of first graphite-containing elements (62; 162) having a first degree of graphitization and the plurality of second graphite-containing elements (64; 164) having a second, different degree of graphitization; and subsequently b) treating the plurality of first graphite-containing elements (62; 162) and the plurality of second graphite-containing elements (64; 164) with an oxidizer to provide oxygen-containing surface groups bonded on the surfaces of the plurality of first graphite-containing elements (62; 162) and the plurality of second graphite-containing elements (64; 164); wherein: the plurality of first graphite-containing elements and the plurality of second graphite-containing elements are fibers.
Device for accelerating, in particular braking, a trailer vehicle, which is braked by a pneumatic brake, by a tractor vehicle driven by a hydraulic system, in particular a forklift and/or truck and/or tractor, comprising a hydraulic pump, which is connected to at least one hydraulic motor via pressure lines, in particular one as a supply line of the hydraulic fluid and one as a return line of the hydraulic fluid, wherein drive wheels of the tractor vehicle can be driven by the hydraulic motors, wherein at least one pressure sensor is provided on a pressure line to receive data through the pressure sensor and to a trailer control means, in particular comprising a trailer control valve for the pneumatic brake of the trailer vehicle, In particular for braking of the pneumatic brake of the trailer vehicle which corresponds to a braking operation of the tractor vehicle, the supply line of the hydraulic fluid having a substantially constant low pressure during braking operation of the tractor vehicle.
A method for securing a checked-out guest virtual machine comprising: hosting a security virtual machine on a server network element, wherein the security virtual machine provides security services to a guest virtual machine (156A-C) hosted by the server network element; receiving a request for checking-out the guest virtual machine hosted by the server network element, wherein checking-out the guest virtual machine comprises transferring hosting of the guest virtual machine from the server network element to a client network element (110, 120, 130); configuring a security module (158A-C) for the guest virtual machine in order to secure the guest virtual machine, wherein the security module is configured, based at least in part on parameters associated with the client network element, by the security virtual machine for use on the guest virtual machine hosted by the client network element; and providing the security module to the guest virtual machine when the guest virtual machine is checked-out. hosting a security virtual machine on a server network element, wherein the security virtual machine provides security services to a guest virtual machine (156A-C) hosted by the server network element; receiving a request for checking-out the guest virtual machine hosted by the server network element, wherein checking-out the guest virtual machine comprises transferring hosting of the guest virtual machine from the server network element to a client network element (110, 120, 130); configuring a security module (158A-C) for the guest virtual machine in order to secure the guest virtual machine, wherein the security module is configured, based at least in part on parameters associated with the client network element, by the security virtual machine for use on the guest virtual machine hosted by the client network element; and providing the security module to the guest virtual machine when the guest virtual machine is checked-out.
A spacer textile material (600,700,800,900,1010) comprising: a first layer (610,710, 810,910); a second layer (620, 720, 820, 920); a plurality of connecting members extending between and joining the first layer (610,710, 810,910) and the second layer (620, 720, 820, 920); a channel (601,781,881,981,1030) bounded by portions of the first layer (610, 710, 810,910) and the second layer (620, 720, 820, 920) that are in direct contact; a first tensile strand (640,740,840,940,1040) and a second tensile strand (650,750,850,950,1050), wherein a portion (643,743,843,1042) of the first tensile strand and a portion (653,753,853,1052) of the second tensile strand are both disposed within the channel (601,781,881,981,1030). a first layer (610,710, 810,910); a second layer (620, 720, 820, 920); a plurality of connecting members extending between and joining the first layer (610,710, 810,910) and the second layer (620, 720, 820, 920); a channel (601,781,881,981,1030) bounded by portions of the first layer (610, 710, 810,910) and the second layer (620, 720, 820, 920) that are in direct contact; a first tensile strand (640,740,840,940,1040) and a second tensile strand (650,750,850,950,1050), wherein a portion (643,743,843,1042) of the first tensile strand and a portion (653,753,853,1052) of the second tensile strand are both disposed within the channel (601,781,881,981,1030).