mhurhangee/ep-ind-claims huggingface dataset:
A wastewater or sludge treatment fixed film cross-flow distribution media sheet (84, 84') comprising a corrugated sheet of material having a front surface (86, 86'), a rear surface (88, 88'), a top (90, 90'), a bottom (92, 92'), a first side (94, 94'), a second side (96, 96'), a width (w, w') extending from the first side to the second side, either or both of the first side (94, 94') and second side (96, 96') being an exposed side or sides of the sheet, the exposed side or sides to be exposed to wastewater or sludge that is denser outside of the width of the sheet than wastewater or sludge within the width of the sheet, and a height (h, h') extending from the bottom to the top, the corrugations (98, 98') being present in the front and rear surfaces with peaks (102, 102') at the front surface and valleys (104, 104') at the rear surface, the corrugations being angled corrugations that are at an angle of10° to 80° with respect to the top and the bottom of the sheet, the sheet having a thickness (t, t') extending from a plane corresponding to the peaks of the corrugations on the front surface to a plane corresponding to the valleys of the corrugations on the rear surface, the sheet further comprising a unitary baffle (100, 100') as an integral part of the sheet along the exposed side or sides of the sheet, the baffle (100, 100') being a generally vertical corrugation (116, 116') extending generally vertically along the exposed side or sides from the top (90, 90') downwardly to a point at least about half the height (h') of the sheet, the baffle extending at least for the thickness (t, t') of the sheet, the baffle (100, 100') having a free edge and an edge where the baffle joins the corrugated sheet (84, 84'), the generally vertical corrugation (116, 116') that is the baffle having a flange (114, 114') formed along the free edge and a flange (115, 115') formed along the edge of the corrugated sheet (84, 84') where the baffle joins the corrugated sheet, the baffle (100, 100') being sufficient, when bonded to either a like baffle on a like sheet or an optional substantially planar sheet (132, 132') positioned adjacent the front or rear surface, to substantially block air from exiting the exposed side or sides of the sheet or the denser wastewater or sludge being treated from entering the exposed side or sides of the sheet.
Edge profile forming part of a suspended ceiling substructure comprising a plurality of support profiles arranged suspended from a raw ceiling of a building structure and a plurality of base profiles, each of which being attached to at least one of the plurality of support profiles, the edge profile being formed by a single sheet profile and having a U-shaped cross-section comprising a base portion capable of being fixed to a wall structure, a first leg portion and a second leg portion, the first leg portion having an outer section and an inner section, wherein the outer section is arranged offset towards the inner section and relative to the second leg portion, wherein the second leg portion comprises an abutment edge extending inwardly towards the first leg portion, wherein the edge portion allows for arranging an end portion of a support profile between of the outer section of the first leg portion and the second leg portion, and wherein the abutment edge is arranged to be in contact with a front end of the supporting profile when it is arranged inside the edge profile in the mounted state.
An apparatus for simultaneously exposing a target region within a subject's body to light and an electric field when driven by an AC voltage source, the apparatus comprising: at least two electrodes configured so that, when the electrodes are applied to a subject's body and driven by the AC voltage source, an AC electric field is coupled into the target region; and a light-emitting circuit adapted to be driven by the AC electric field and being embeddable within the subject's body, wherein the light-emitting circuit has first and second terminals (29, 29'), such that, when the first and second terminals (29, 29') are positioned with respect to the AC electric field so that an AC voltage gradient large enough to drive the light-emitting circuit appears between the first and second terminals (29, 29'), the light-emitting circuit is driven to illuminate the target region. at least two electrodes configured so that, when the electrodes are applied to a subject's body and driven by the AC voltage source, an AC electric field is coupled into the target region; and a light-emitting circuit adapted to be driven by the AC electric field and being embeddable within the subject's body, wherein the light-emitting circuit has first and second terminals (29, 29'), such that, when the first and second terminals (29, 29') are positioned with respect to the AC electric field so that an AC voltage gradient large enough to drive the light-emitting circuit appears between the first and second terminals (29, 29'), the light-emitting circuit is driven to illuminate the target region.
A method of transmitting a maximum power ratio of an Enhanced Dedicated Physical Data Channel, E-DPDCH, to a Dedicated Physical Control Channel, DPCCH, whose power is controlled for uplink packet data transmission in a mobile communication system, the method comprising the steps of: generating a 16-bit user equipment identifier, UE-ID,specific cyclic redundancy check, CRC, by combining a CRC generated for detecting errors from control information with a UE-ID for identifying a user equipment, UE, to receive the control information, wherein the control information comprises the maximum power ratio for uplink transmission; generating 90 coded bits by adding the UE-ID specific CRC and 8 tails bits to 6-bit control information and encoding the added bits at a coding rate of 1/3; generating a 60-bit rate-matched block by rate-matching the coded bits according to a rate matching pattern representing positions of bits to be punctured among the coded bits; and transmitting the rate-matched block to the UE, wherein the rate matching pattern comprises {1, 2, 5, 6, 7, 11, 12, 14, 15, 17, 23, 24, 31, 37, 44, 47, 61, 63, 64, 71, 72, 75, 77, 80, 83, 84, 85, 87, 88, 90}. generating a 16-bit user equipment identifier, UE-ID,specific cyclic redundancy check, CRC, by combining a CRC generated for detecting errors from control information with a UE-ID for identifying a user equipment, UE, to receive the control information, wherein the control information comprises the maximum power ratio for uplink transmission; generating 90 coded bits by adding the UE-ID specific CRC and 8 tails bits to 6-bit control information and encoding the added bits at a coding rate of 1/3; generating a 60-bit rate-matched block by rate-matching the coded bits according to a rate matching pattern representing positions of bits to be punctured among the coded bits; and transmitting the rate-matched block to the UE, wherein the rate matching pattern comprises {1, 2, 5, 6, 7, 11, 12, 14, 15, 17, 23, 24, 31, 37, 44, 47, 61, 63, 64, 71, 72, 75, 77, 80, 83, 84, 85, 87, 88, 90}.
A computer-implemented method for determining a likelihood of a presence or absence of a genetic variation in a gene of interest for a subject the method comprising: (a) providing a reference genome comprising (i) a gene of interest and (ii) a counterpart gene to the gene of interest, wherein the gene of interest is selected from the group consisting of PMS2, CYP21A2, CYP11B1, CYP11B2, GBA, HBA1, HBG1, HBB, HYDIN, IKBKG, NCF1, NEB, VWF, PKD1, SMN1, SMN2 and SBDS and the counterpart gene to the gene of interest, or a portion thereof, is 70% to 99% identical to the gene of interest; (b) substituting at least 30% of nucleotides in the counterpart gene of the reference genome with an ambiguous nucleotide marker, thereby providing a modified reference genome; (c) mapping sequence reads obtained from a diploid subject to the modified reference genome, wherein (i) the subject comprises the gene of interest and the counterpart gene, (ii) the sequence reads are obtained using a massively parallel sequencing method, and (iii) the sequence reads derived from the counterpart gene, or portion thereof, of the subject map to the gene of interest of the modified reference genome and not to the counterpart gene of the modified reference genome; and (d) determining the likelihood of a presence or absence of a genetic variation in the gene of interest of the subject according to the sequence reads mapped to the modified reference genome. (a) providing a reference genome comprising (i) a gene of interest and (ii) a counterpart gene to the gene of interest, wherein the gene of interest is selected from the group consisting of PMS2, CYP21A2, CYP11B1, CYP11B2, GBA, HBA1, HBG1, HBB, HYDIN, IKBKG, NCF1, NEB, VWF, PKD1, SMN1, SMN2 and SBDS and the counterpart gene to the gene of interest, or a portion thereof, is 70% to 99% identical to the gene of interest; (b) substituting at least 30% of nucleotides in the counterpart gene of the reference genome with an ambiguous nucleotide marker, thereby providing a modified reference genome; (c) mapping sequence reads obtained from a diploid subject to the modified reference genome, wherein (i) the subject comprises the gene of interest and the counterpart gene, (ii) the sequence reads are obtained using a massively parallel sequencing method, and (iii) the sequence reads derived from the counterpart gene, or portion thereof, of the subject map to the gene of interest of the modified reference genome and not to the counterpart gene of the modified reference genome; and (d) determining the likelihood of a presence or absence of a genetic variation in the gene of interest of the subject according to the sequence reads mapped to the modified reference genome.
Plug for closing holes, in particular in vehicle bodies, with a basic body which is composed of a first plastics material, and a sealing body which is attached to the basic body, wherein the sealing body has two sealing rings (12, 16) which are arranged opposite each other, and therefore said sealing rings can lie against the one and the other side of a bodywork part, wherein the sealing body has a sprue region and a plurality of connecting regions by means of which the two sealing rings (12, 16) are connected to each other, characterized in that a plurality of connecting webs extend between the sprue region and one of the two sealing rings (12, 16).
A multivariable fuel control and estimator (MFCE) of a gas turbine engine for preventing combustor blowout, the MFCE comprising: a first input port that is configured to receive controller requests and provide system usage commands; a second input port that is configured to receive measured disturbance values in the fuel flow; a third input port that is configured to receive system and component limits; a fourth input port that is configured to receive fuel system sensed parameters from a fuel system (220; 320) and engine sensed parameters from an engine system; a fuel system model of the fuel system of the gas turbine engine and an engine model of the engine system that includes the combustor of the gas turbine engine, wherein the fuel system model is a non-linear fuel system model providing accurate dynamic fuel flow prediction and simultaneous prediction of dynamic interactions between actuators and fuel flow; a processor configured to generate a control signal for controlling the fuel valve and configured to generate a control signal for controlling the actuator using the fuel system model and the engine model based on the controller requests, the measured disturbance values, the system and component limits, and the sensed parameters to prevent combustion blowout; and an output port that transmits the control signals to the fuel system (220; 320). a first input port that is configured to receive controller requests and provide system usage commands; a second input port that is configured to receive measured disturbance values in the fuel flow; a third input port that is configured to receive system and component limits; a fourth input port that is configured to receive fuel system sensed parameters from a fuel system (220; 320) and engine sensed parameters from an engine system; a fuel system model of the fuel system of the gas turbine engine and an engine model of the engine system that includes the combustor of the gas turbine engine, wherein the fuel system model is a non-linear fuel system model providing accurate dynamic fuel flow prediction and simultaneous prediction of dynamic interactions between actuators and fuel flow; a processor configured to generate a control signal for controlling the fuel valve and configured to generate a control signal for controlling the actuator using the fuel system model and the engine model based on the controller requests, the measured disturbance values, the system and component limits, and the sensed parameters to prevent combustion blowout; and an output port that transmits the control signals to the fuel system (220; 320).
An electrochemical sensing apparatus, comprising: a carrier (20, 220, 420) having first and second electrically conductive regions that are electrically isolated from one another, the carrier (20, 220, 420) including an opening (24, 124, 224, 424) extending therethrough; and an electrochemical module (30, 130, 230, 430) mounted to the carrier (20, 220, 420), the electrochemical module (30, 130, 230, 430) having an electrochemical cavity (42, 242) with a first electrode in electrical communication with the first conductive region of the carrier, a second electrode in electrical communication with the second conductive region of the carrier (20, 220, 420), and wherein the electrochemical cavity (42, 242) includes a reagent layer; characterized by at least a portion of the electrochemical module (30, 130, 230, 430) extending across the opening (24, 124, 224, 424). a carrier (20, 220, 420) having first and second electrically conductive regions that are electrically isolated from one another, the carrier (20, 220, 420) including an opening (24, 124, 224, 424) extending therethrough; and an electrochemical module (30, 130, 230, 430) mounted to the carrier (20, 220, 420), the electrochemical module (30, 130, 230, 430) having an electrochemical cavity (42, 242) with a first electrode in electrical communication with the first conductive region of the carrier, a second electrode in electrical communication with the second conductive region of the carrier (20, 220, 420), and wherein the electrochemical cavity (42, 242) includes a reagent layer; characterized by at least a portion of the electrochemical module (30, 130, 230, 430) extending across the opening (24, 124, 224, 424).
A combination of a chain ring and a chain comprising: a body; and a plurality of teeth affixed around a circumference of the body; whereinsome of the plurality of teeth are configured to engage a first lateral side of a first link of a chain, thereby applying a force to the chain in a first lateral direction; and some of the plurality of teeth are configured to engage a second lateral side of second link of the chain, thereby applying a force to the chain in a second lateral direction characterised in that the teeth are configured to engage the chain without shifting and positioned in at least two lateral positions, the teeth in a first lateral position being configured to impart a first lateral force, and the teeth in a second lateral position being configured to impart a second lateral force. a body; and a plurality of teeth affixed around a circumference of the body; whereinsome of the plurality of teeth are configured to engage a first lateral side of a first link of a chain, thereby applying a force to the chain in a first lateral direction; and some of the plurality of teeth are configured to engage a second lateral side of second link of the chain, thereby applying a force to the chain in a second lateral direction characterised in that the teeth are configured to engage the chain without shifting and positioned in at least two lateral positions, the teeth in a first lateral position being configured to impart a first lateral force, and the teeth in a second lateral position being configured to impart a second lateral force.
A method for analyzing DNA, the method comprising: - forming labelled DNA fragments by: (a) cleaving genomic DNA into DNA fragments; (b) selectively functionalizing any non-methylated CpG sites present in the DNA with a linker comprising a hydrolysable moiety; and (c) attaching a label to the linker; - separating the labelled DNA fragments from any non-labelled DNA fragments; - hydrolysing the hydrolysable moiety of the linker of the separated labelled DNA fragments, so as to release the DNA fragments from the label; and - sequencing the released DNA fragments. - forming labelled DNA fragments by: (a) cleaving genomic DNA into DNA fragments; (b) selectively functionalizing any non-methylated CpG sites present in the DNA with a linker comprising a hydrolysable moiety; and (c) attaching a label to the linker; (a) cleaving genomic DNA into DNA fragments; (b) selectively functionalizing any non-methylated CpG sites present in the DNA with a linker comprising a hydrolysable moiety; and (c) attaching a label to the linker; - separating the labelled DNA fragments from any non-labelled DNA fragments; - hydrolysing the hydrolysable moiety of the linker of the separated labelled DNA fragments, so as to release the DNA fragments from the label; and - sequencing the released DNA fragments.
Electrode suitable for oxygen evolution in electrolytic processes comprising a valve metal substrate, an external catalytic layer and a protective layer consisting of valve metal oxides interposed between the substrate and the catalytic layer, said catalytic layer comprising mixed oxides of iridium, of tin and of at least one doping element M selected from the group consisting of bismuth, antimony, tantalum and niobium, the average crystallite size of said mixed oxides being lower than 5 nm, the molar ratio Ir:(Ir+Sn) ranging from 0.25 to 0.55 and the molar ratio M:(Ir+Sn+M) ranging from 0.02 to 0.15.
A method for anchoring an edge cloud to a central cloud, the method being performed in a cloud environment comprising the central cloud and the edge cloud, the method comprising: obtaining (S238, S310), by a connectivity controller of the edge cloud, an address of an anchoring registry of the central cloud; sending (S240, S312), by the connectivity controller, to the anchoring registry, information about networking configuration of the edge cloud; setting up (S246, S314), by an orchestrator of the central cloud, a virtual private network, VPN, service in the central cloud; requesting (S248, S316), by the orchestrator of the central cloud, edge VPN configuration information from the central VPN service, based on the information about networking configuration of the edge cloud; sending (S252, S318), by the anchoring registry, the edge VPN configuration information, to an orchestrator of the edge cloud; creating (S258, S320), by the orchestrator of the edge cloud, an edge VPN service, based on the edge VPN configuration information; and establishing (S260, S322) a VPN connection between the edge VPN service and the central VPN service, whereby services from either one of the edge cloud or the central cloud are exposed in the edge cloud and the central cloud. obtaining (S238, S310), by a connectivity controller of the edge cloud, an address of an anchoring registry of the central cloud; sending (S240, S312), by the connectivity controller, to the anchoring registry, information about networking configuration of the edge cloud; setting up (S246, S314), by an orchestrator of the central cloud, a virtual private network, VPN, service in the central cloud; requesting (S248, S316), by the orchestrator of the central cloud, edge VPN configuration information from the central VPN service, based on the information about networking configuration of the edge cloud; sending (S252, S318), by the anchoring registry, the edge VPN configuration information, to an orchestrator of the edge cloud; creating (S258, S320), by the orchestrator of the edge cloud, an edge VPN service, based on the edge VPN configuration information; and establishing (S260, S322) a VPN connection between the edge VPN service and the central VPN service, whereby services from either one of the edge cloud or the central cloud are exposed in the edge cloud and the central cloud.
An upper for an article of footwear, the upper comprising: a knitted component comprising a plurality of knitted cushioning structures that define a cushioning region, wherein each of the knitted cushioning structures comprises a knitted wall defining a channel characterised by at least two strands extending longitudinally through the channel.
A camera photosensitive component, comprising: a silicon substrate layer; a pixel array layer attached to one surface of the silicon substrate layer; and a microprism layer arranged in parallel with the pixel array layer, the microprism layer comprising microprisms, wherein the microprisms in the microprism layer are configured to decompose incident light into m color lights for emission, and n color lights in the emitted m color lights are respectively emitted into subpixels in corresponding colors of pixels corresponding to the microprisms, and n is not greater than m; wherein every two adjacent microprisms correspond to two adjacent pixels: a first pixel and a second pixel; wherein the first pixel and the second pixel comprises totally 2n-1 subpixels, and the first pixel and the second pixel share the nth subpixel, and the nth subpixel shared by the first pixel and the second pixel has a larger area than the other subpixels; wherein the first microprism is configured to decompose the incident light into the m color lights for emission, the n color lights in the emitted m color lights are respectively emitted into n-1 subpixels in the corresponding colors of the first pixel and the shared nth subpixel, the second microprism is configured to decompose the incident light into the m color lights for emission, and the n color lights in the emitted m color lights are respectively emitted into n-1 subpixels in the corresponding colors of the second pixel and the shared nth subpixel. a silicon substrate layer; a pixel array layer attached to one surface of the silicon substrate layer; and a microprism layer arranged in parallel with the pixel array layer, the microprism layer comprising microprisms, wherein the microprisms in the microprism layer are configured to decompose incident light into m color lights for emission, and n color lights in the emitted m color lights are respectively emitted into subpixels in corresponding colors of pixels corresponding to the microprisms, and n is not greater than m; wherein every two adjacent microprisms correspond to two adjacent pixels: a first pixel and a second pixel; wherein the first pixel and the second pixel comprises totally 2n-1 subpixels, and the first pixel and the second pixel share the nth subpixel, and the nth subpixel shared by the first pixel and the second pixel has a larger area than the other subpixels; wherein the first microprism is configured to decompose the incident light into the m color lights for emission, the n color lights in the emitted m color lights are respectively emitted into n-1 subpixels in the corresponding colors of the first pixel and the shared nth subpixel, the second microprism is configured to decompose the incident light into the m color lights for emission, and the n color lights in the emitted m color lights are respectively emitted into n-1 subpixels in the corresponding colors of the second pixel and the shared nth subpixel.