mhurhangee/patent-ind-claim-en huggingface dataset:
Austenitic alloy based on nickel and with a high chromium content, intended to be used at a given operating temperature between 900°C and 1150°C, the alloy comprising the following compounds by mass percentage: - chromium between 40% and 45%, - iron between 10% and 14%, - carbon between 0.4% and 0.6%, - titanium between 0.05 and 0.2%, - niobium between 0.5% and 1.5%, - at least one reactive element, selected from rare earths or hafnium, between 0.002% and 0.1%, - silicon between 0 and 1%, - manganese between 0 and 0.5%, - molybdenum or copper content of less than 0.5% - trace impurities such as phosphorus, sulfur, lead, tin, zirconium or tungsten; the content of which is less than one hundred particles per million (ppm), - nickel to make up the balance of the alloy compounds, and the alloy having a molar fraction of niobium- and/or titanium-rich secondary carbo-nitrides greater than 0.1%, after the operating temperature has been applied thereto, measured using a scanning or transmission electron microscope. - chromium between 40% and 45%, - iron between 10% and 14%, - carbon between 0.4% and 0.6%, - titanium between 0.05 and 0.2%, - niobium between 0.5% and 1.5%, - at least one reactive element, selected from rare earths or hafnium, between 0.002% and 0.1%, - silicon between 0 and 1%, - manganese between 0 and 0.5%, - molybdenum or copper content of less than 0.5% - trace impurities such as phosphorus, sulfur, lead, tin, zirconium or tungsten; the content of which is less than one hundred particles per million (ppm), - nickel to make up the balance of the alloy compounds, and the alloy having a molar fraction of niobium- and/or titanium-rich secondary carbo-nitrides greater than 0.1%, after the operating temperature has been applied thereto, measured using a scanning or transmission electron microscope.
A detection system for extracting information from a sensor module in a rolling wheel, the detection system comprising: - a sensor module which comprises a sensor adapted for sensing a physical property of the tire when mounted in a tire of the wheel or on an inner surface of a tire of the wheel, - an acquisition module adapted for sampling a signal from the sensor module, thus obtaining a sequence of data samples, being characterized by - a correlation module adapted for cross-correlating a signed reference sequence with the sequence of data samples thus obtaining a correlation sequence, - an extraction module adapted for identifying at least one perturbation in the correlation sequence, wherein the perturbation is induced when a part of the tire where the sensor is mounted hits the ground thereby forming the tire patch. - a sensor module which comprises a sensor adapted for sensing a physical property of the tire when mounted in a tire of the wheel or on an inner surface of a tire of the wheel, - an acquisition module adapted for sampling a signal from the sensor module, thus obtaining a sequence of data samples, being characterized by - a correlation module adapted for cross-correlating a signed reference sequence with the sequence of data samples thus obtaining a correlation sequence, - an extraction module adapted for identifying at least one perturbation in the correlation sequence, wherein the perturbation is induced when a part of the tire where the sensor is mounted hits the ground thereby forming the tire patch.
A combination product comprising: (A) a compound of formula (I): X= CF 3 = Compound A or X= CF 3 = Compound B or a salt thereof; and (B) a compound of formula (X) or a pharmaceutically acceptable salt thereof. (A) a compound of formula (I): X= CF 3 = Compound A or X= CF 3 = Compound B or a salt thereof; and (B) a compound of formula (X) or a pharmaceutically acceptable salt thereof.
A disc cutter for a cutting unit used in a tunnel boring machine comprising: an annular disc body made of a metal alloy or metal matrix composite having a first side , a second side arranged substantially opposite to the first side and a radially peripheral part ; and a cemented carbide cutting part mounted in and substantially encircling the radially peripheral part of the annular disc body which protrudes outwardly therefrom to engage with the rock during operation; wherein the cutting part is made from a material having a higher wear resistance than the material used for the at least one disc body ; wherein there is a metallic interlayer essentially comprising nickel, nickel alloy, copper or copper alloy between the annular disc body and the cutting part ; characterized in that the cutting part is in the form of a continuous ring and wherein the elements of the metallic interlayer form diffusion bonds between the annular disc body and the cutting part an annular disc body made of a metal alloy or metal matrix composite having a first side , a second side arranged substantially opposite to the first side and a radially peripheral part ; and a cemented carbide cutting part mounted in and substantially encircling the radially peripheral part of the annular disc body which protrudes outwardly therefrom to engage with the rock during operation; wherein the cutting part is made from a material having a higher wear resistance than the material used for the at least one disc body ; wherein there is a metallic interlayer essentially comprising nickel, nickel alloy, copper or copper alloy between the annular disc body and the cutting part ; characterized in that the cutting part is in the form of a continuous ring and wherein the elements of the metallic interlayer form diffusion bonds between the annular disc body and the cutting part
A method of operating a network on a plurality of frequency hopping channels, the method comprising: transmitting a beacon on a beacon channel different from the frequency hopping channels; receiving a request from a node to join the network in response to the beacon; adding the node to the network in response to the step of receiving; and communicating with the node on the plurality of frequency hopping channels after the step of adding, wherein the beacon channel has a different bandwidth from each of the frequency hopping channels. transmitting a beacon on a beacon channel different from the frequency hopping channels; receiving a request from a node to join the network in response to the beacon; adding the node to the network in response to the step of receiving; and communicating with the node on the plurality of frequency hopping channels after the step of adding, wherein the beacon channel has a different bandwidth from each of the frequency hopping channels.
An antibody comprising a heavy chain variable region comprising heavy chain CDRs of SEQ ID NO: 6, 7, and 8, and a light chain variable region comprising light chain CDRs of SEQ ID NOs: 3, 4, and 5 for use in a method of treating AL amyloidosis in a patient, wherein the patient has been previously selected as having: (a) Mayo Stage IV AL amyloidosis; (b) a 6MWD of ≥ 150 meters at baseline and an EF of > 50% at baseline; (c) Mayo Stage IV AL amyloidosis and an EF of > 50% at baseline; or (d) Mayo Stage IV AL amyloidosis, a 6MWD of ≥ 150 meters at baseline, and an EF of > 50% at baseline. (a) Mayo Stage IV AL amyloidosis; (b) a 6MWD of ≥ 150 meters at baseline and an EF of > 50% at baseline; (c) Mayo Stage IV AL amyloidosis and an EF of > 50% at baseline; or (d) Mayo Stage IV AL amyloidosis, a 6MWD of ≥ 150 meters at baseline, and an EF of > 50% at baseline.
A cleaner composition for cleaning a surface of a substrate, consisting essentially of (A) 90.0 to 99.9% by weight of an organic solvent and (B) 0.1 to 10.0% by weight of an alcohol of 3 to 6 carbon atoms, the composition containing (C) sodium and/or potassium in an amount of 0.002 to 0.03 part by weight per 100 parts by weight of components (A) and (B) combined, wherein the organic solvent (A) is an aliphatic hydrocarbon of 5 to 20 carbon atoms, or wherein the organic solvent (A) is a dialkylene glycol dialkyl ether of 5 to 20 carbon atoms, and wherein component (C) includes sodium and/or potassium being present in the form of sodium hydroxide and/or potassium hydroxide. (A) 90.0 to 99.9% by weight of an organic solvent and (B) 0.1 to 10.0% by weight of an alcohol of 3 to 6 carbon atoms,
A method of determining a phase line on which a transmitter is transmitting, comprising: receiving, by a receiver communicatively coupled to a plurality of power distribution phase lines , a signal comprising a plurality of different frequencies on each phase line of the plurality of phase lines , the plurality of phase lines composing a plurality of feeder lines , each feeder line of the plurality of feeder lines comprising a subset of phase lines of the plurality of phase lines , the plurality of different frequencies including a plurality of tone frequencies, and the signal being generated by a transmitter that transmits the signal on a particular phase line of the plurality of phase lines ; determining, for each respective phase line of the plurality of phase lines , a received signal strength of each tone frequency of the plurality of tone frequencies; and based on only those signals received by the receiver and based on the received signal strength of each tone frequency of the plurality of tone frequencies on each phase line of the plurality of phase lines , identifying the transmitter as being coupled to the particular phase line of the plurality of phase lines . receiving, by a receiver communicatively coupled to a plurality of power distribution phase lines , a signal comprising a plurality of different frequencies on each phase line of the plurality of phase lines , the plurality of phase lines composing a plurality of feeder lines , each feeder line of the plurality of feeder lines comprising a subset of phase lines of the plurality of phase lines , the plurality of different frequencies including a plurality of tone frequencies, and the signal being generated by a transmitter that transmits the signal on a particular phase line of the plurality of phase lines ; determining, for each respective phase line of the plurality of phase lines , a received signal strength of each tone frequency of the plurality of tone frequencies; and based on only those signals received by the receiver and based on the received signal strength of each tone frequency of the plurality of tone frequencies on each phase line of the plurality of phase lines , identifying the transmitter as being coupled to the particular phase line of the plurality of phase lines .
A gutter assembly, comprising a gutter which is double walled, and comprises an inner and an outer wall and ribs connecting said inner and outer wall , providing a functionally self supporting gutter , wherein said gutter is produced in a process selected from extrusion and additive manufacturing, and is substantially from a polymer material, preferably from PVC, the gutter assembly further comprising: - two attachment rails extending along a length and at a building side outer wall part of the gutter , the building side outer wall part comprising two parallel mounting recesses providing the attachment rails; - the mounting recesses each provided with a one-sided undercut groove providing the mounting recess with a gutter mounting flange ; - two mounting rails each comprising a mounting flange fitting one of said attachment rail and comprising an attachment end for attaching said mounting rail to a building, and wherein each mounting rail comprises a U-shaped edge comprising said mounting flange for fitting, in particular snap-fitting, into said undercut groove of one said mounting recess . produced in a process selected from extrusion and additive manufacturing, and is substantially from a polymer material, preferably from PVC, the gutter assembly further comprising: - two attachment rails extending along a length and at a building side outer wall part of the gutter , the building side outer wall part comprising two parallel mounting recesses providing the attachment rails; - the mounting recesses each provided with a one-sided undercut groove providing the mounting recess with a gutter mounting flange ; - two mounting rails each comprising a mounting flange fitting one of said attachment rail and comprising an attachment end for attaching said mounting rail to a building, and - two attachment rails extending along a length and at a building side outer wall part of the gutter , the building side outer wall part comprising two parallel mounting recesses providing the attachment rails; - the mounting recesses each provided with a one-sided undercut groove providing the mounting recess with a gutter mounting flange ; - two mounting rails each comprising a mounting flange fitting one of said attachment rail and comprising an attachment end for attaching said mounting rail to a building, and wherein each mounting rail comprises a U-shaped edge comprising said mounting flange for fitting, in particular snap-fitting, into said undercut groove of one said mounting recess .
A composition comprising: (A) A blend of silane-grafted ethylene-α-olefin elastomer and a hydroxyl-terminated polyorganosiloxane; (B) 70 or more weight percent (wt%), based on the weight of the composition, of a vinyl-terminated silicone rubber; (C) A crosslinking catalyst; (D) An ethylene-α-olefin elastomer; and (E) Optionally, one or more of an additive and filler. (A) A blend of silane-grafted ethylene-α-olefin elastomer and a hydroxyl-terminated polyorganosiloxane; (B) 70 or more weight percent (wt%), based on the weight of the composition, of a vinyl-terminated silicone rubber; (C) A crosslinking catalyst; (D) An ethylene-α-olefin elastomer; and (E) Optionally, one or more of an additive and filler.
An automotive seat-back assembly , comprising: a seat-back panel ; a plurality of floor-mount brackets for attaching said seat-back assembly to an automotive floor; an anchorage bar operably located on said seat-back panel; at least one anchorage fixture mounted on said anchorage bar , said anchorage fixture being accessible for engaging with a mating anchorage device provided on an object to be secured; characterized by the anchorage bar which is fastened to a front or rear surface of said seat-back panel ; or the anchorage bar which is provided as an internal anchorage bar located within the internal structure of said seat-back panel ; and wherein said seat-back panel is generally hollow and made of a thermoplastic material. a seat-back panel ; a plurality of floor-mount brackets for attaching said seat-back assembly to an automotive floor; an anchorage bar operably located on said seat-back panel; at least one anchorage fixture mounted on said anchorage bar , said anchorage fixture being accessible for engaging with a mating anchorage device provided on an object to be secured; characterized by the anchorage bar which is fastened to a front or rear surface of said seat-back panel ; or the anchorage bar which is provided as an internal anchorage bar located within the internal structure of said seat-back panel ; and wherein said seat-back panel is generally hollow and made of a thermoplastic material.
Device for precipitation of fluid and/or particulate impurities from a fluid stream (F, F') comprising at least one first guiding element and at least a second guiding element , wherein it is possible to impose at least one first change in direction to the fluid stream (F, F') by means of the first guiding element and wherein it is possible to impose at least one second change in direction to the fluid stream (F, F') by means of the second guiding element , characterized in that the fluid stream (F, F') flows essentially flows in a laminar fashion along the first guiding element and the second guiding element and the device comprises at least one support frame wherein the first guiding element and/or the second guiding element is/are indirectly supported by the support frame such that the first guiding element and/or the second guide element are movably supported relative to the support frame against at least one restoring force established by at least one resetting device .
Method for controlling an AC/DC converter connected, on the one hand, to an AC network and, on the other hand, to a multi-point DC high-voltage network , comprising the steps of: - identification of an electric power setpoint (P210), said setpoint being received from an external device, and identification of the operating point (P10) of the converter; - depending on the identified operating point of the converter (P10), set respective power corrective setpoint terminals (MDP11, MDP12, MDP13, NDP11, NDP12, NDP13) for at least two different electrical parameters to be controlled; - generate corrective power setpoints (DP11, DP12) for said at least two different electrical parameters of the converter , each of these corrective power setpoints being between said respective terminals; - apply an electrical power setpoint to the converter (P211), this electrical power setpoint being the sum of the identified electrical power setpoint (P210) and the generated corrective setpoints (DP11, DP12). - identification of an electric power setpoint (P210), said setpoint being received from an external device, and identification of the operating point (P10) of the converter; - depending on the identified operating point of the converter (P10), set respective power corrective setpoint terminals (MDP11, MDP12, MDP13, NDP11, NDP12, NDP13) for at least two different electrical parameters to be controlled; - generate corrective power setpoints (DP11, DP12) for said at least two different electrical parameters of the converter , each of these corrective power setpoints being between said respective terminals; - apply an electrical power setpoint to the converter (P211), this electrical power setpoint being the sum of the identified electrical power setpoint (P210) and the generated corrective setpoints (DP11, DP12).
A method of controlling a planting machine of an agricultural system in applying material to an agricultural surface relative to a reference position, wherein the agricultural system comprises one or more processors ; a reference position identifier system to identify a reference position by using the signals from one or more seed sensors (122, 122A and 193); a controllable subsystem ; material sensors deployed for detecting or sensing the applied material; a position sensor that provides a location of agricultural system ; a sensor signal processing system ; an action identification system ; and a control signal generation system ; the method comprising: identifying a reference position on an agricultural surface ; applying material based on the identified reference position; sensing a characteristic of the material; generating a material sensor signal indicative of the characteristic; identifying a location of the applied material based on the material sensor signal; generating a processing system output signal based on the location of the applied material and based on the reference position; identifying an action based on the processing system output signal; and generating a control signal to perform the identified action. one or more processors ; a reference position identifier system to identify a reference position by using the signals from one or more seed sensors (122, 122A and 193); a controllable subsystem ; material sensors deployed for detecting or sensing the applied material; a position sensor that provides a location of agricultural system ; a sensor signal processing system ; an action identification system ; and a control signal generation system ; the method comprising: identifying a reference position on an agricultural surface ; applying material based on the identified reference position; sensing a characteristic of the material; generating a material sensor signal indicative of the characteristic; identifying a location of the applied material based on the material sensor signal; generating a processing system output signal based on the location of the applied material and based on the reference position; identifying an action based on the processing system output signal; and generating a control signal to perform the identified action. identifying a reference position on an agricultural surface ; applying material based on the identified reference position; sensing a characteristic of the material; generating a material sensor signal indicative of the characteristic; identifying a location of the applied material based on the material sensor signal; generating a processing system output signal based on the location of the applied material and based on the reference position; identifying an action based on the processing system output signal; and generating a control signal to perform the identified action.
A device comprising: a contact lens adapted to render one or more portions of one or more predetermined images to a wearer of the contact lens, the contact lens comprising: a first light source embedded in and/or mounted to the contact lens, the first light source adapted to emit light toward a retina of the wearer; an electro-active prism adapted to dynamically adjustably steer the light in two coordinate directions and toward two or more predetermined locations on the retina to form, on the retina, a spot that moves in a predetermined pattern to define the one or more portions of the one or more predetermined images, the electro-active prism configured to move the spot on the retina at a speed faster than a speed at which the retina can send images of a single spot to the brain of the wearer; and a controller adapted to: dynamically control emission of the light from the light source; and/or dynamically control steering of the light by the electro-active prism. a first light source embedded in and/or mounted to the contact lens, the first light source adapted to emit light toward a retina of the wearer; an electro-active prism adapted to dynamically adjustably steer the light in two coordinate directions and toward two or more predetermined locations on the retina to form, on the retina, a spot that moves in a predetermined pattern to define the one or more portions of the one or more predetermined images, the electro-active prism configured to move the spot on the retina at a speed faster than a speed at which the retina can send images of a single spot to the brain of the wearer; and a controller adapted to: dynamically control emission of the light from the light source; and/or dynamically control steering of the light by the electro-active prism. dynamically control emission of the light from the light source; and/or dynamically control steering of the light by the electro-active prism.