mhurhangee/ep-ind-claims huggingface dataset:
An oil supply assembly for a gas turbine engine comprising: a strut with an interior scavenge cavity extending longitudinally in the interior of the strut defining a first diameter at an upper end and a second diameter at a lower end, an oil supply tube extending through the scavenge cavity and an oil return tube extending through the scavenge cavity, and a scavenge pipe fitting configured to couple to the second diameter at the lower end of the strut having a scavenge pipe coupled to the fitting in spaced apart relation to the oil return tube so that any oil that escapes from the oil supply tube, along with oil in the return tube is removed from the strut via the scavenge pipe. a strut with an interior scavenge cavity extending longitudinally in the interior of the strut defining a first diameter at an upper end and a second diameter at a lower end, an oil supply tube extending through the scavenge cavity and an oil return tube extending through the scavenge cavity, and a scavenge pipe fitting configured to couple to the second diameter at the lower end of the strut having a scavenge pipe coupled to the fitting in spaced apart relation to the oil return tube so that any oil that escapes from the oil supply tube, along with oil in the return tube is removed from the strut via the scavenge pipe.
Energy converter, having • a gas supply system, having - an electrolyser, which has at least one cathode and at least one anode with a shared oxyhydrogen outlet, - an oxyhydrogen tank with a volume in the range of from 800 cm 3 to 1000 cm 3 that is fluidically connected to the oxyhydrogen outlet, and - an oxyhydrogen conduit that is fluidically connected to the oxyhydrogen tank, • a direct-injection internal combustion engine, of which the high-pressure accumulator is fluidically connected to the oxyhydrogen conduit of the gas supply system, and • a water tank that is fluidically connected to a water inlet of the electrolyser of the gas supply system. • a gas supply system, having - an electrolyser, which has at least one cathode and at least one anode with a shared oxyhydrogen outlet, - an oxyhydrogen tank with a volume in the range of from 800 cm 3 to 1000 cm 3 that is fluidically connected to the oxyhydrogen outlet, and - an oxyhydrogen conduit that is fluidically connected to the oxyhydrogen tank, - an electrolyser, which has at least one cathode and at least one anode with a shared oxyhydrogen outlet, - an oxyhydrogen tank with a volume in the range of from 800 cm 3 to 1000 cm 3 that is fluidically connected to the oxyhydrogen outlet, and - an oxyhydrogen conduit that is fluidically connected to the oxyhydrogen tank, • a direct-injection internal combustion engine, of which the high-pressure accumulator is fluidically connected to the oxyhydrogen conduit of the gas supply system, and • a water tank that is fluidically connected to a water inlet of the electrolyser of the gas supply system.
Anchoring system of the removable profile, in particular of a storage box with a covering roller blind and/or safety separating net in the vehicle luggage compartment, wherein the profile has the stops (8, 8', 12, 12'), which limit the range of axial displacement of said profile in relation to the holders (5, 5'), and axially displaceable end pieces (2, 2') with which said profile is fastenable to the holders (5, 5') arranged in the vehicle, and wherein the end pieces (2, 2') are pushed away axially from the profile towards the holders (5, 5') by means of the springs (3, 3'), characterized in that the profile is closed at the ends thereof by means of stoppers (7, 7'), and in that the stops (8, 8') extend away from the stoppers (7, 7') axially from the profile, wherein the end pieces (2, 2') have the openings (10, 10') which permit the passage of the stops (8, 8') to the supporting surfaces (9, 9').
Fastening assembly - with a first component which has at least one undercut groove, - with a second component which has a base element and which on a rear side of the base element has an engagement element projecting from a rear surface of the rear side, - wherein the engagement element can engage with the groove, - wherein the engagement element has a hammerhead portion, - wherein the hammerhead portion is aligned relative to the groove in an insertion position of the second component such that the hammerhead portion can be inserted into the groove and - wherein the hammerhead portion is aligned relative to the groove in an assembled position of the second component such that the hammerhead portion fits against at least one undercut of the groove, - wherein a positioning device is provided which holds the second component in the assembled position in a form-fitting and/or force-fitting manner, - wherein the positioning device has at least one spring element which engages at least partially in the groove of the first component in the assembled position of the second component, characterised in that - the spring element is formed by a region with a reduced wall thickness, i.e. a region which has a smaller wall thickness than the parts of the second component which do not belong to the spring element, - a bolt portion as a rotation-limiting element has a cross-section which has two two corner regions with flanks adjoining therein and two circular arc regions connecting the two corner regions to one another respectively, - the second component has a magnet holder as a holding device. - with a first component which has at least one undercut groove, - with a second component which has a base element and which on a rear side of the base element has an engagement element projecting from a rear surface of the rear side, - wherein the engagement element can engage with the groove, - wherein the engagement element has a hammerhead portion, - wherein the hammerhead portion is aligned relative to the groove in an insertion position of the second component such that the hammerhead portion can be inserted into the groove and - wherein the hammerhead portion is aligned relative to the groove in an assembled position of the second component such that the hammerhead portion fits against at least one undercut of the groove, - wherein a positioning device is provided which holds the second component in the assembled position in a form-fitting and/or force-fitting manner, - wherein the positioning device has at least one spring element which engages at least partially in the groove of the first component in the assembled position of the second component, - the spring element is formed by a region with a reduced wall thickness, i.e. a region which has a smaller wall thickness than the parts of the second component which do not belong to the spring element, - a bolt portion as a rotation-limiting element has a cross-section which has two two corner regions with flanks adjoining therein and two circular arc regions connecting the two corner regions to one another respectively, - the second component has a magnet holder as a holding device.
A method of creating a binary encoded polymer comprising repeatedly extending a growing polymer chain with an extension product of (i) one or more than one of either a first monomer or a second monomer of a first monomer pair, or (ii) one or more than one of either a first monomer or a second monomer of a second monomer pair, and wherein the extension product represents a series of binary information bits corresponding to a bit stream translated from text or an image or a video or an audio format, wherein the first monomer and the second monomer of the first monomer pair each is representative of a first binary information bit, wherein the first monomer and the second monomer of the second monomer pair each is representative of a second binary information bit, and alternating between the first monomer and second monomer of a given monomer pair when monomers of the extension products are representative of the same binary information bit and occur directly in series, and wherein the binary encoded polymer encodes the text or image or video or audio format. repeatedly extending a growing polymer chain with an extension product of (i) one or more than one of either a first monomer or a second monomer of a first monomer pair, or (ii) one or more than one of either a first monomer or a second monomer of a second monomer pair, and (i) one or more than one of either a first monomer or a second monomer of a first monomer pair, or (ii) one or more than one of either a first monomer or a second monomer of a second monomer pair, and wherein the extension product represents a series of binary information bits corresponding to a bit stream translated from text or an image or a video or an audio format, wherein the first monomer and the second monomer of the first monomer pair each is representative of a first binary information bit, wherein the first monomer and the second monomer of the second monomer pair each is representative of a second binary information bit, and alternating between the first monomer and second monomer of a given monomer pair when monomers of the extension products are representative of the same binary information bit and occur directly in series, and wherein the binary encoded polymer encodes the text or image or video or audio format.
Piston for a piston machine, wherein the piston is composed in certain regions of a steel or a light metal alloy and comprises a layer stack arranged on a piston crown of the piston, wherein the layer stack at least comprises: - a first layer which indirectly or directly adjoins a surface of the piston crown and which comprises a heat-insulating material, - a second layer which indirectly or directly adjoins the first layer and which comprises a heat-conducting material, wherein a diameter (d S) of the layer stack is smaller than a diameter (d K) of the piston crown, characterized in that the heat-insulating material of the first layer comprises an intermetallic compound composed of FeAI(Cr, Nb, Zr, C, B) and/or Fe 3 Al(Cr, Nb, Zr, C, B). - a first layer which indirectly or directly adjoins a surface of the piston crown and which comprises a heat-insulating material, - a second layer which indirectly or directly adjoins the first layer and which comprises a heat-conducting material,
A method of an initiating communication subscriber, the method comprising discovering a proximity service target, said proximity service target providing proximity service; and setting up, via uplink and downlink signaling, proximity service communication with said proximity service target, wherein, in relation to said setting up, said method further comprises transmitting, to a network node, an uplink signaling comprising a proximity service request, said proximity service request comprises at least an own identity and a proximity service target identity; and receiving, after said transmitting said uplink signaling, from said network node, a downlink signaling comprising a proximity service acknowledgement, said proximity service acknowledgement comprises at least a session key, generated by said proximity service target, for ciphering said proximity service communication. discovering a proximity service target, said proximity service target providing proximity service; and setting up, via uplink and downlink signaling, proximity service communication with said proximity service target, wherein, in relation to said setting up, said method further comprises transmitting, to a network node, an uplink signaling comprising a proximity service request, said proximity service request comprises at least an own identity and a proximity service target identity; and receiving, after said transmitting said uplink signaling, from said network node, a downlink signaling comprising a proximity service acknowledgement, said proximity service acknowledgement comprises at least a session key, generated by said proximity service target, for ciphering said proximity service communication.
A system for implementing service function deployment, wherein the system comprises an active apparatus and a standby apparatus for a first service; wherein the active apparatus is configured to process the first service and deploy a first function module for a second service on the standby apparatus, wherein the second service is an artificial intelligence, AI, service; and the standby apparatus is configured to process data of the second service by using the first function module, wherein the first function module comprises an inference module; and the standby apparatus is specifically configured to draw an inference based on feature data of the second service by using the inference module, to obtain an inference result, wherein the active apparatus is further configured to deploy a feature extraction module for the second service on the active apparatus; the active apparatus is further configured to extract a feature of raw data of the second service by using the feature extraction module, to obtain the feature data, and send the feature data to the standby apparatus; and the standby apparatus is configured to receive the feature data from the active apparatus and draw, by using the inference module, an inference based on the feature data received from the active apparatus. the active apparatus is configured to process the first service and deploy a first function module for a second service on the standby apparatus, wherein the second service is an artificial intelligence, AI, service; and the standby apparatus is configured to process data of the second service by using the first function module, wherein the first function module comprises an inference module; and the standby apparatus is specifically configured to draw an inference based on feature data of the second service by using the inference module, to obtain an inference result, wherein the active apparatus is further configured to deploy a feature extraction module for the second service on the active apparatus; the active apparatus is further configured to extract a feature of raw data of the second service by using the feature extraction module, to obtain the feature data, and send the feature data to the standby apparatus; and the standby apparatus is configured to receive the feature data from the active apparatus and draw, by using the inference module, an inference based on the feature data received from the active apparatus.
A tissue imaging system, characterized in that it comprises: an x-ray subsystem to generate at least one two dimensional x-ray image and a three dimensional x-ray volume image of an extracted specimen for measurement and analysis of the x-ray images; an ultrasound subsystem including an ultrasound probe and an imaging camera to determine a position and orientation of a contoured structure in an area of interest that includes the specimen to be extracted and to generate 2D ultrasound images including the contoured structure in the area of interest that includes the specimen to be extracted and to generate a 3D ultrasound volume image from the 2D ultrasound images including the contoured structure for measurement and analysis; and an image fusion generator including a fusion processor to fuse the 3D ultrasound volume image including the contoured structure and the 3D x-ray volume image of the extracted specimen for measurement and analysis. an x-ray subsystem to generate at least one two dimensional x-ray image and a three dimensional x-ray volume image of an extracted specimen for measurement and analysis of the x-ray images; an ultrasound subsystem including an ultrasound probe and an imaging camera to determine a position and orientation of a contoured structure in an area of interest that includes the specimen to be extracted and to generate 2D ultrasound images including the contoured structure in the area of interest that includes the specimen to be extracted and to generate a 3D ultrasound volume image from the 2D ultrasound images including the contoured structure for measurement and analysis; and an image fusion generator including a fusion processor to fuse the 3D ultrasound volume image including the contoured structure and the 3D x-ray volume image of the extracted specimen for measurement and analysis.
A method of handling non-human semen having cells therein, the method including: providing a supply of semen obtained from a non-human male animal; using a programmable machine to conduct a plurality of integrated flow cytometry operations, the operations including: a) receiving the supply of semen into the machine; b) forming multiple streams containing the cells; and c) sorting at least one portion of the cells into a first population of cells having a characteristic A and a second population of cells having a characteristic B; and distributing the first or the second population for commercial use; wherein the step of forming multiple streams containing the cells is enabled by having multiple flow cytometry units linked to form a single integrated multi-channel flow cytometry unit, and wherein the single integrated multi-channel flow cytometry unit utilizes a common supply of cells for the multiple streams; and a common system for delivering carrier fluid, the common carrier fluid delivery system being capable of supplying one or more of the units at a first flow rate and one or more of the units at a second flow rate; a common operations control input; and a common processor for receiving and processing information from the multiple flow cytometry units, wherein the operational parameters of each of the multiple flow cytometry units can be set independently of the other flow cytometry units. providing a supply of semen obtained from a non-human male animal; using a programmable machine to conduct a plurality of integrated flow cytometry operations, the operations including: a) receiving the supply of semen into the machine; b) forming multiple streams containing the cells; and c) sorting at least one portion of the cells into a first population of cells having a characteristic A and a second population of cells having a characteristic B; and a) receiving the supply of semen into the machine; b) forming multiple streams containing the cells; and c) sorting at least one portion of the cells into a first population of cells having a characteristic A and a second population of cells having a characteristic B; and distributing the first or the second population for commercial use; wherein the step of forming multiple streams containing the cells is enabled by having multiple flow cytometry units linked to form a single integrated multi-channel flow cytometry unit, and wherein the single integrated multi-channel flow cytometry unit utilizes a common supply of cells for the multiple streams; and a common system for delivering carrier fluid, the common carrier fluid delivery system being capable of supplying one or more of the units at a first flow rate and one or more of the units at a second flow rate; a common operations control input; and a common processor for receiving and processing information from the multiple flow cytometry units, wherein the operational parameters of each of the multiple flow cytometry units can be set independently of the other flow cytometry units.
A method of treating an effluent (116,), comprising: receiving a hydrocarbon feed stream and a large fraction of a process gas stream in a hydroprocessing reactor wherein the large fraction of the process gas stream is at least 25% of the process gas stream; producing the effluent with the hydroprocessing reactor, wherein the effluent has a pressure of at least 34.5 bars [500 psia]; providing a remainder (114B, 114B') of the process gas stream to one or more gas-assisted nozzles (120A, 120B) using the remainder (114B, 114B') of the process gas stream as an assist gas to inject a fluid stream (122A, 122B) through a plurality of micron-sized fluid droplets into the effluent from the reactor with the one or more gas-assisted nozzles (120A, 120B), wherein a pressure differential between the assist gas and the effluent is at least 3.45 bars [50 psi]; and contacting the effluent with a heat transfer surface downstream of the injection location. receiving a hydrocarbon feed stream and a large fraction of a process gas stream in a hydroprocessing reactor wherein the large fraction of the process gas stream is at least 25% of the process gas stream; producing the effluent with the hydroprocessing reactor, wherein the effluent has a pressure of at least 34.5 bars [500 psia]; providing a remainder (114B, 114B') of the process gas stream to one or more gas-assisted nozzles (120A, 120B) using the remainder (114B, 114B') of the process gas stream as an assist gas to inject a fluid stream (122A, 122B) through a plurality of micron-sized fluid droplets into the effluent from the reactor with the one or more gas-assisted nozzles (120A, 120B), wherein a pressure differential between the assist gas and the effluent is at least 3.45 bars [50 psi]; and contacting the effluent with a heat transfer surface downstream of the injection location.
A device for injecting fluid in animals, in particular by intranasal administration, comprising a tubular syringe body whereof the distal end is provided with a fluid discharge outlet that is able to be closed off, a hollow plunger equipped with a push-piece is mounted axially sliding in said syringe body, said hollow plunger extending beyond the push-piece by a closable tubular zone connectable to a reservoir supplying fluid to be injected, the member closing off the tubular zone and the member closing off the fluid discharge outlet, each equipped with means (11, 5) for returning to the closed position, respectively being configured so as, in the state with the plunger partially inserted in the syringe body, to go from the closed position to the open position, one under the effect of the movement of the plunger in the direction of an exit from the syringe body, the other under the effect of a movement of the plunger in the direction of an entry into the syringe body, the plunger being equipped with means returning to the position partially outside the syringe body, and characterized in that the syringe body is longitudinally bordered by a lug formed by at least two flanges or radial ribs outside said body arranged so as to be separated from one another along an axis substantially parallel to the longitudinal axis of the syringe body, the interval between said flanges or ribs defining a bearing zone for at least one finger able to wind at least partially around said syringe body.
Drainage gully, particularly channel drain, comprising a frame which is inserted in a height-adjustable manner from above into an outlet container, and a covering which is provided in the area of an inlet of the frame, the frame being adjustably supported via at least one height adapter in the height relative to the outlet container, characterized in that the height adapter is configured such that it can be cut to length to different height levels.