mhurhangee/ep-ind-claims huggingface dataset:
A pressure tank arrangement for storing and discharging compressed liquid fuels, having: - a pressure vessel defining an internal space in which the fuel can be stored, wherein the pressure vessel has a greater longitudinal extension than transverse extension, a middle section and at least one polar cap (P1, P2) adjacent to the middle section, wherein the polar cap (P1, P2) tapers towards an end region (E1, E2), and - a reinforcing layer, which envelops the middle section and the polar cap (P1, P2) of the pressure vessel, wherein the reinforcing layer has at least two superposed fibre-reinforced individual plies, and - at least one force transmission element having a connecting section and an anchoring section, characterised in that the anchoring section is arranged between the reinforcing layer and the pressure vessel and/or between the individual plies of the reinforcing layer, and the connecting section penetrates the reinforcing layer and is accessible from outside the reinforcing layer, wherein the connecting section projects into the space (R1, R2) which is enclosed by a lateral surface obtained by an imaginary extrusion of the external boundary line of the largest cross-sectional surface of the reinforced middle section in a direction parallel to a centre line of gravity which is formed from the area centroids of all cross-sectional surfaces of the pressure vessel, by a surface (EF1, EF2) which is perpendicular to the centre line of gravity and which intersects the end region (E1, E2), and by the surface of the reinforcing layer. - a pressure vessel defining an internal space in which the fuel can be stored, wherein the pressure vessel has a greater longitudinal extension than transverse extension, a middle section and at least one polar cap (P1, P2) adjacent to the middle section, wherein the polar cap (P1, P2) tapers towards an end region (E1, E2), and - a reinforcing layer, which envelops the middle section and the polar cap (P1, P2) of the pressure vessel, wherein the reinforcing layer has at least two superposed fibre-reinforced individual plies, and - at least one force transmission element having a connecting section and an anchoring section, the anchoring section is arranged between the reinforcing layer and the pressure vessel and/or between the individual plies of the reinforcing layer, and the connecting section penetrates the reinforcing layer and is accessible from outside the reinforcing layer, wherein the connecting section projects into the space (R1, R2) which is enclosed by a lateral surface obtained by an imaginary extrusion of the external boundary line of the largest cross-sectional surface of the reinforced middle section in a direction parallel to a centre line of gravity which is formed from the area centroids of all cross-sectional surfaces of the pressure vessel, by a surface (EF1, EF2) which is perpendicular to the centre line of gravity and which intersects the end region (E1, E2), and by the surface of the reinforcing layer.
A solid form of N-[ -1-[ -1-(4-aminomethyl-benzylcarbamoyl)-2-phenyl-ethylcarbamoyl]-2-(4-ethoxy-phenyl)-ethyl]-benzamide hydrochloride, which exhibits at least the following characteristic X-ray powder diffraction peaks (Cu Kα radiation, expressed in degrees 2θ) at 5.1 ± 0.2, 10.3 ± 0.2, 10.7 ± 0.2, 18.1 ± 0.2 and 18.6 ± 0.2.
A sensor apparatus for detecting and monitoring leakage currents on insulator disc strings of an electrical power system, the apparatus comprising: (a) a sensor unit configured to attach to a cap of an insulator disc string, the sensor unit includes: (i) a sensor disc configured to surround the cap, the sensor disc includes a conducting lower disc set, a conducting upper disc set, an insulating disc set sandwiched between the upper and lower conducting disc sets, and a conducting mesh connected to a bottom of the lower disc set to provide a uniform contact between the sensor disc and a surface of an insulator disc; and (ii) a housing connected to the sensor disc, the housing including electronics configured to measure and communicate leakage currents on an insulator disc; and (b) wherein leakage currents on a surface of the insulator disc are intercepted by the sensor disc and transferred to the housing for processing and communication by the electronics. (a) a sensor unit configured to attach to a cap of an insulator disc string, the sensor unit includes: (i) a sensor disc configured to surround the cap, the sensor disc includes a conducting lower disc set, a conducting upper disc set, an insulating disc set sandwiched between the upper and lower conducting disc sets, and a conducting mesh connected to a bottom of the lower disc set to provide a uniform contact between the sensor disc and a surface of an insulator disc; and (ii) a housing connected to the sensor disc, the housing including electronics configured to measure and communicate leakage currents on an insulator disc; and (i) a sensor disc configured to surround the cap, the sensor disc includes a conducting lower disc set, a conducting upper disc set, an insulating disc set sandwiched between the upper and lower conducting disc sets, and a conducting mesh connected to a bottom of the lower disc set to provide a uniform contact between the sensor disc and a surface of an insulator disc; and (ii) a housing connected to the sensor disc, the housing including electronics configured to measure and communicate leakage currents on an insulator disc; and (b) wherein leakage currents on a surface of the insulator disc are intercepted by the sensor disc and transferred to the housing for processing and communication by the electronics.
A transformer comprising: a core configured to form a magnetic circuit and including an air gap in at least a part of the core; a bobbin mounted on the core; a primary winding wire that is wound on the bobbin in more than two separate layers including a first layer of the primary winding wire closest to the air gap and a second layer of the primary winding wire farther away from the gap than the first layer; and a secondary winding wire insulated from the primary winding wire, and including a first layer of the secondary winding wire wound between the first layer of the primary winding wire and the second layer of the primary winding wire, wherein the first layer of the primary winding wire and the second layer of the primary winding wire are connected in series; wherein the secondary winding wire is also wound in more than two separate layers, wherein the layers of the primary winding wire and the layers of the secondary winding wire are alternately laminated on the bobbin, characterised in that in the primary winding wire, a specific layer of the primary winding wire and one or more layers closer to the air gap than the specific layer are connected in series, and the specific layer of the primary winding wire and one or more layers farther away from the air gap than the specific layer are connected in parallel, wherein, also in the secondary winding wire, a specific layer of the secondary winding wire and one or more layers closer to the air gap than the specific layer are connected in series, and the specific layer of the secondary winding wire and one or more layers farther away from the air gap than the specific layer are connected in parallel. a core configured to form a magnetic circuit and including an air gap in at least a part of the core; a bobbin mounted on the core; a primary winding wire that is wound on the bobbin in more than two separate layers including a first layer of the primary winding wire closest to the air gap and a second layer of the primary winding wire farther away from the gap than the first layer; and a secondary winding wire insulated from the primary winding wire, and including a first layer of the secondary winding wire wound between the first layer of the primary winding wire and the second layer of the primary winding wire, wherein the first layer of the primary winding wire and the second layer of the primary winding wire are connected in series; wherein the secondary winding wire is also wound in more than two separate layers, wherein the layers of the primary winding wire and the layers of the secondary winding wire are alternately laminated on the bobbin,
A method for communication in a wireless network in which a User Equipment "UE" associated with a first evolved Node B "eNB" experiences interference from a second eNB, the method performed by the first eNB comprises: negotiating by the first evolved Node B "eNB" of the wireless network with the second eNB of the wireless network for a partitioning of subband resources on an uplink, a first subset of subband resources being assigned to the first eNB, and a second subset of subband resources being assigned to the second eNB; scheduling the UE on the first subset of subband resources with cross subframe scheduling, the first subset comprising protected uplink resources, wherein the scheduling occurs in a downlink control channel sent in a protected downlink subframe n1=n-k, where k>4 and n is the scheduled uplink subframe. negotiating by the first evolved Node B "eNB" of the wireless network with the second eNB of the wireless network for a partitioning of subband resources on an uplink, a first subset of subband resources being assigned to the first eNB, and a second subset of subband resources being assigned to the second eNB; scheduling the UE on the first subset of subband resources with cross subframe scheduling, the first subset comprising protected uplink resources, wherein the scheduling occurs in a downlink control channel sent in a protected downlink subframe n1=n-k, where k>4 and n is the scheduled uplink subframe.
Method for producing a decorated wall or floor panel, comprising the process steps: a) providing a plate-shaped carrier; b) applying a decoration simulating a decoration template onto at least a partial area of the plate-shaped carrier; c) applying a cover layer onto the decoration, wherein the cover layer comprises a radiation curing compound; d) curing the cover layer; characterized in that the cover layer is cured by use of two directly successive emitters, wherein the first emitter emits radiation with a wavelength which is different compared to radiation from the second emitter, wherein the first emitter emits radiation with radiation maxima in a wavelength range of greater than or equal to 395 nm to less than or equal to 445 nm, and wherein the radiation intensity of the first emitter to the radiation intensity of the second emitter is a ratio of greater than or equal to 0.75:1 to less than or equal to 1:0,75. a) providing a plate-shaped carrier; b) applying a decoration simulating a decoration template onto at least a partial area of the plate-shaped carrier; c) applying a cover layer onto the decoration, wherein the cover layer comprises a radiation curing compound; d) curing the cover layer;
A shrink film comprising: a core layer; two plies of intermediate layer respectively arranged on both sides of the core layer; and two plies of surface layer respectively arranged on both outer sides of the intermediate layers, the shrink film having a five-layered multilayer structure composed of three types of layers [(surface layer)/(intermediate layer)/(core layer)/(intermediate layer)/(surface layer)], characterized in that the core layer is a resinous layer mainly containing a polyolefin resin, the surface layer is a resinous layer mainly containing a polyester resin, and the intermediate layer is a resinous layer mainly containing a polyethylene resin containing a glycidyl methacrylate component, wherein the polyethylene resin containing a glycidyl methacrylate component has a GMA content of 4 to 15 percent by weight, and the polyolefin resin has a melting point of 100 °C to 150 °C and a density of 0.80 to 0.95 g/cm 3. a core layer; two plies of intermediate layer respectively arranged on both sides of the core layer; and two plies of surface layer respectively arranged on both outer sides of the intermediate layers, the shrink film having a five-layered multilayer structure composed of three types of layers [(surface layer)/(intermediate layer)/(core layer)/(intermediate layer)/(surface layer)], characterized in that the core layer is a resinous layer mainly containing a polyolefin resin, the surface layer is a resinous layer mainly containing a polyester resin, and the intermediate layer is a resinous layer mainly containing a polyethylene resin containing a glycidyl methacrylate component, wherein the polyethylene resin containing a glycidyl methacrylate component has a GMA content of 4 to 15 percent by weight, and the polyolefin resin has a melting point of 100 °C to 150 °C and a density of 0.80 to 0.95 g/cm 3.
A pharmaceutical composition or a combined pharmaceutical preparation wherein tocopherol (vitamin E) and ascorbic acid (vitamin C) are the sole active principles, for use in the treatment of fragile X syndrome in a human.
A dentifrice composition comprising: (a) 50% to 60%, by weight of the composition, of water; (b) 27% to 47%, by weight of the composition, of a calcium-containing abrasive wherein the calcium-containing abrasive comprises calcium carbonate; (c) 0.0025% to 2%, by weight of the composition, of a fluoride ion source; (d) 0.01% to 10%, by weight of the composition, of a zinc ion source; (e) 0.001% to 5%, by weight of the composition, of a copolymer of maleic anhydride and methyl vinyl ether; and (f) a polyphosphate, wherein the polyphosphate is a pyrophosphate; and wherein said composition has a pH greater than 8. (a) 50% to 60%, by weight of the composition, of water; (b) 27% to 47%, by weight of the composition, of a calcium-containing abrasive wherein the calcium-containing abrasive comprises calcium carbonate; (c) 0.0025% to 2%, by weight of the composition, of a fluoride ion source; (d) 0.01% to 10%, by weight of the composition, of a zinc ion source; (e) 0.001% to 5%, by weight of the composition, of a copolymer of maleic anhydride and methyl vinyl ether; and (f) a polyphosphate, wherein the polyphosphate is a pyrophosphate; and
A sensor assembly comprising: a sensor module comprising: a cylindrical portion, in which a measurement target fluid is introducible; and a diaphragm provided at an end of the cylindrical portion, the diaphragm comprising a first surface to be in contact with the measurement target fluid, and a second surface opposite the first surface, a detector being provided on the second surface; a joint attached with the sensor module, the joint comprising a pressure introduction port configured to introduce the measurement target fluid to the sensor module; a cylindrical base member attached to the joint, the cylindrical base member surrounding the sensor module; an electronic circuit attached to the base member and configured to receive a detection signal outputted by the detector; and a temperature sensor electrically connected with the electronic circuit, wherein the temperature sensor comprises a temperature detector configured to detect a temperature, and at least one lead wire electrically connecting the temperature detector and the electronic circuit; characterized in that: the temperature sensor is received in a receiver of the cylindrical base member such that the temperature detector is provided at the side of the sensor module opposite the side receiving the measurement target fluid and near the sensor module, and such that the temperature detector is cooled by ambient air in the same manner as the detector. a sensor module comprising: a cylindrical portion, in which a measurement target fluid is introducible; and a diaphragm provided at an end of the cylindrical portion, the diaphragm comprising a first surface to be in contact with the measurement target fluid, and a second surface opposite the first surface, a detector being provided on the second surface; a joint attached with the sensor module, the joint comprising a pressure introduction port configured to introduce the measurement target fluid to the sensor module; a cylindrical base member attached to the joint, the cylindrical base member surrounding the sensor module; an electronic circuit attached to the base member and configured to receive a detection signal outputted by the detector; and a temperature sensor electrically connected with the electronic circuit, wherein the temperature sensor comprises a temperature detector configured to detect a temperature, and at least one lead wire electrically connecting the temperature detector and the electronic circuit;
A base station, comprising: transmit circuitry; receive circuitry; and a control system configured to generate a downlink data frame having an information element in an uplink resource allocation portion, wherein the information element indicates: a feedback type requested by the base station from a mobile station, wherein the feedback type includes an indication of MIMO mode or permutation mode settings; and a location of a subsequent uplink data frame indicating when feedback information requested by the base station is to be provided by the mobile station on an allocated uplink resource, wherein the location is specified with reference to the downlink data frame; wherein the transmit circuitry is configured to transmit the generated downlink data frame to the mobile station. transmit circuitry; receive circuitry; and a control system configured to generate a downlink data frame having an information element in an uplink resource allocation portion, wherein the information element indicates: a feedback type requested by the base station from a mobile station, wherein the feedback type includes an indication of MIMO mode or permutation mode settings; and a location of a subsequent uplink data frame indicating when feedback information requested by the base station is to be provided by the mobile station on an allocated uplink resource, wherein the location is specified with reference to the downlink data frame; a feedback type requested by the base station from a mobile station, wherein the feedback type includes an indication of MIMO mode or permutation mode settings; and a location of a subsequent uplink data frame indicating when feedback information requested by the base station is to be provided by the mobile station on an allocated uplink resource, wherein the location is specified with reference to the downlink data frame; wherein the transmit circuitry is configured to transmit the generated downlink data frame to the mobile station.
A current return network comprising: a composite structural element having a web, wherein the composite structural element is a spar; at least one flange connected to the web; at least one metallic conductive layer integrated with and extending the length of the web; wherein the at least one metallic conductive layer is configured to electrically bond to an aircraft system and provide a ground path. a composite structural element having a web, wherein the composite structural element is a spar; at least one flange connected to the web; at least one metallic conductive layer integrated with and extending the length of the web; wherein the at least one metallic conductive layer is configured to electrically bond to an aircraft system and provide a ground path.
A method for real-time processing a data packet stream in a communications system, with the steps of - receiving a first admission control packet, ACP, that includes a number of admission control parameters, the admission control packet embedded in the data packet stream, - reading from said first admission control packet, ACP, at least one admission control parameter indicating a throughput, Rl, required for a real-time processing of a sub-stream of the data packet stream of data packets related to the first admission control packet, ACP, - determining a currently available throughput, V, - comparing the currently available throughput, V, with the required throughput, Rl, - admitting the real-time processing of the sub-stream, if the currently available throughput, V, is higher than or equal to the required throughput, Rl. - receiving a first admission control packet, ACP, that includes a number of admission control parameters, the admission control packet embedded in the data packet stream, - reading from said first admission control packet, ACP, at least one admission control parameter indicating a throughput, Rl, required for a real-time processing of a sub-stream of the data packet stream of data packets related to the first admission control packet, ACP, - determining a currently available throughput, V, - comparing the currently available throughput, V, with the required throughput, Rl, - admitting the real-time processing of the sub-stream, if the currently available throughput, V, is higher than or equal to the required throughput, Rl.
An isolated polynucleotide encoding a polypeptide of interest, said isolated polynucleotide comprising: (a) a sequence of n number of linked nucleosides or nucleotides comprising at least one modified nucleoside or nucleotide as compared to the chemical structure of an A, G, U or C nucleoside or nucleotide, (b) a 5' UTR comprising at least one Kozak sequence, (c) a 3' UTR, and (d) at least one 5' cap structure; wherein the at least one modified nucleoside or nucleotide comprises 5-methoxyuracil, and is not pseudouridine or 5-methyl-cytidine, wherein the polynucleotide exhibits a reduced cellular innate immune response when introduced into a population of cells, as compared to the cellular innate immune induced by a corresponding unmodified nucleic acid, wherein the polynucleotide has a Protein:Cytokine ratio of greater than 100, wherein the Protein:Cytokine ratio is the ratio of the amount of encoded polypeptide produced in a cell, tissue or organism to the amount of one or more cytokines whose expression is triggered in the cell, tissue or organism as a result of administration or contact with the polynucleotide. (a) a sequence of n number of linked nucleosides or nucleotides comprising at least one modified nucleoside or nucleotide as compared to the chemical structure of an A, G, U or C nucleoside or nucleotide, (b) a 5' UTR comprising at least one Kozak sequence, (c) a 3' UTR, and (d) at least one 5' cap structure;
Method for generating a resultant test plan for testing a measurement object, wherein at least one dataset is generated by measuring the measurement object, wherein the measurement object or a part of the measurement object is assigned to at least one object class based on data, wherein a test plan assigned to the object class is determined as an object-class-specific test plan, and wherein the resultant test plan is determined as a function of the object-class-specific test plan, and characterized in that the assignment of the measurement object or of the part of the measurement object to an object class is independent of dimensions. wherein at least one dataset is generated by measuring the measurement object, wherein the measurement object or a part of the measurement object is assigned to at least one object class based on data, wherein a test plan assigned to the object class is determined as an object-class-specific test plan, and wherein the resultant test plan is determined as a function of the object-class-specific test plan, and characterized in that the assignment of the measurement object or of the part of the measurement object to an object class is independent of dimensions.
Stromal-Derived Factor-1 for use in the treatment of a disorder of a subject's heart involving loss of cardiomyocytes, wherein Stromal-Derived Factor-1 is administered intramyocardially to cause cardiomyocyte proliferation within the subject's heart and as a combined therapy with GM-CSF so as to thereby treat the disorder.