mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the detection, by a receiver device , of a pulse of a signal received by said receiver device , said received signal corresponding to data emitted with a predetermined period T c , each piece of data being encoded by a presence or an absence of a pulse, characterized in that said method comprises: - A step of temporally offsetting of the received signal according to a predetermined number N s of delays corresponding to different multiples of T c , in such a way as to generate N s delayed signals, - A step of correlating, at a time that is a candidate for the detection of a pulse, the received signal with each of the delayed signals, in such a way as to obtain N s correlation values associated with said candidate time, - A step of calculating a maximum correlation value among the N s correlation values associated with the candidate time, - A step of detecting a pulse of the received signal according to said maximum correlation value. - A step of temporally offsetting of the received signal according to a predetermined number N s of delays corresponding to different multiples of T c , in such a way as to generate N s delayed signals, - A step of correlating, at a time that is a candidate for the detection of a pulse, the received signal with each of the delayed signals, in such a way as to obtain N s correlation values associated with said candidate time, - A step of calculating a maximum correlation value among the N s correlation values associated with the candidate time, - A step of detecting a pulse of the received signal according to said maximum correlation value.
Subscriber station for a bus system for transmitting messages by means of the CAN protocol, having a microcontroller having a RAM , a CAN controller for reading data to be sent in a message directly from the RAM without buffer storage in a buffer store , and a memory access error detection/processing device for detecting a memory access error (S2, S5, S8, S21) of the CAN controller when reading from the RAM and for processing a detected memory access error, wherein the memory access error detection/processing device is configured to process the detected memory access error (S2, S5, S8, S21) by setting an error code (S3, S6, S9, S31), wherein the CAN controller changes to a bus observation mode (S4, S7, S10, S41) if the memory access error detection/processing device has set the error code, wherein the CAN controller is configured to change to the bus observation mode for this purpose, wherein the CAN controller cannot start a transmission and cannot send dominant bits but can receive all messages in the bus observation mode.
A method for processing a throttle control signal, wherein a throttle channel for transmitting the throttle control signal and a communication channel for transmitting communication data are arranged between an electronic speed control and a controller , and the method comprises: receiving, by the electronic speed control , the throttle control signal via the communication channel if a signal transmission state of the throttle channel is in an abnormal state; and receiving, by the electronic speed control , the throttle control signal via the throttle channel when the signal transmission state of the throttle channel is in a normal state. receiving, by the electronic speed control , the throttle control signal via the communication channel if a signal transmission state of the throttle channel is in an abnormal state; and receiving, by the electronic speed control , the throttle control signal via the throttle channel when the signal transmission state of the throttle channel is in a normal state.
A multilayer film structure comprising a top encapsulation Layer A, a bottom Layer C and a tie Layer B between Layer A and Layer C, the multilayer film structure being characterized in that : Layer A comprises a resin selected from the group consisting of A1) polyolefin-based resins, A2) polar ethylene copolymer resins, and A3) poly(vinyl butyral) resins; Layer B comprises a blend comprising one or more polyolefins selected from an ethylene octene copolymer plastomer or elastomer, LLDPE and LDPE; and greater than 40 weight percent of a crystalline block copolymer composite (CBC), said CBC comprising: i) from 0.5 to 49 wt%, based on the total weight of the CBC, of a crystalline ethylene polymer (CEP) comprising greater than 90 mol% polymerized ethylene; ii) from 0.5 to 49 wt%, based on the total weight of the CBC, of crystalline propylene-based polymer (CPP) comprising greater than 90 mol% polymerized propylene; and iii) from 50 to 99 wt%, based on the total weight of the CBC, of a diblock copolymer comprising (a) a crystalline ethylene polymer block (CEPB) comprising greater than 90 mol% polymerized ethylene and (b) a crystalline propylene-based polymer block (CPPB) comprising greater than 90 mol% polymerized propylene; and Layer C comprises a propylene-based polymer having at least one melting point greater than 125°C. Layer A comprises a resin selected from the group consisting of A1) polyolefin-based resins, A2) polar ethylene copolymer resins, and A3) poly(vinyl butyral) resins; Layer B comprises a blend comprising one or more polyolefins selected from an ethylene octene copolymer plastomer or elastomer, LLDPE and LDPE; and greater than 40 weight percent of a crystalline block copolymer composite (CBC), said CBC comprising: i) from 0.5 to 49 wt%, based on the total weight of the CBC, of a crystalline ethylene polymer (CEP) comprising greater than 90 mol% polymerized ethylene; ii) from 0.5 to 49 wt%, based on the total weight of the CBC, of crystalline propylene-based polymer (CPP) comprising greater than 90 mol% polymerized propylene; and iii) from 50 to 99 wt%, based on the total weight of the CBC, of a diblock copolymer comprising (a) a crystalline ethylene polymer block (CEPB) comprising greater than 90 mol% polymerized ethylene and (b) a crystalline propylene-based polymer block (CPPB) comprising greater than 90 mol% polymerized propylene; and i) from 0.5 to 49 wt%, based on the total weight of the CBC, of a crystalline ethylene polymer (CEP) comprising greater than 90 mol% polymerized ethylene; ii) from 0.5 to 49 wt%, based on the total weight of the CBC, of crystalline propylene-based polymer (CPP) comprising greater than 90 mol% polymerized propylene; and iii) from 50 to 99 wt%, based on the total weight of the CBC, of a diblock copolymer comprising (a) a crystalline ethylene polymer block (CEPB) comprising greater than 90 mol% polymerized ethylene and (b) a crystalline propylene-based polymer block (CPPB) comprising greater than 90 mol% polymerized propylene; and Layer C comprises a propylene-based polymer having at least one melting point greater than 125°C.
A climate-control system comprising: a variable-capacity compressor ; an outdoor ambient temperature sensor configured to indicate a temperature of outdoor ambient air; a user-controlled device configured to provide a demand signal indicating a demand for at least one of heating and cooling; and a control module configured to command a compressor capacity stage and a capacity stage run time based on the temperature from the outdoor ambient temperature sensor and the demand signal, wherein the control module is configured to command the variable-capacity compressor to a high capacity stage if the temperature from the outdoor ambient temperature sensor is outside of a lockout threshold, characterized in that the control module is configured to modify the lockout threshold based on a cycle run time, and the cycle run time is an actual run time for the variable-capacity compressor to meet a setpoint temperature. a variable-capacity compressor ; an outdoor ambient temperature sensor configured to indicate a temperature of outdoor ambient air; a user-controlled device configured to provide a demand signal indicating a demand for at least one of heating and cooling; and a control module configured to command a compressor capacity stage and a capacity stage run time based on the temperature from the outdoor ambient temperature sensor and the demand signal, wherein the control module is configured to command the variable-capacity compressor to a high capacity stage if the temperature from the outdoor ambient temperature sensor is outside of a lockout threshold, characterized in that the control module is configured to modify the lockout threshold based on a cycle run time, and the cycle run time is an actual run time for the variable-capacity compressor to meet a setpoint temperature.
A mounting element for releasably receiving a sensor for transferring and/or receiving electrical currents and/or signals relating to a body of an organism, comprising - a mounting element base having a receiving space for receiving the sensor , - the receiving space comprising -- a floor , -- a wall disposed on the floor and disposed on at least three sides, -- an opening formed by at least one tab , -- at least one clip closure , and - further comprising a cover for the mounting element base , -- an at least three-sided wall being disposed on the inner side thereof, -- the end face thereof being implemented for contacting the end face of the wall of the mounting element base , -- wherein at least one counterpart to the at least one clip closure is disposed on the wall of the inner side of the cover , and - the mounting element base and the cover are connected to each other by a connecting element such that the cover is displaceable relative to the mounting element base , and - the mounting element base and the cover are therefore lockable to each other by means of the at least one clip closure and the at least one counterpart and can also be opened again. - a mounting element base having a receiving space for receiving the sensor , - the receiving space comprising -- a floor , -- a wall disposed on the floor and disposed on at least three sides, -- an opening formed by at least one tab , -- at least one clip closure , and - further comprising a cover for the mounting element base , -- an at least three-sided wall being disposed on the inner side thereof, -- the end face thereof being implemented for contacting the end face of the wall of the mounting element base , -- wherein at least one counterpart to the at least one clip closure is disposed on the wall of the inner side of the cover , and -- a floor , -- a wall disposed on the floor and disposed on at least three sides, -- an opening formed by at least one tab , -- at least one clip closure , and - further comprising a cover for the mounting element base , -- an at least three-sided wall being disposed on the inner side thereof, -- the end face thereof being implemented for contacting the end face of the wall of the mounting element base , -- wherein at least one counterpart to the at least one clip closure is disposed on the wall of the inner side of the cover , and - the mounting element base and the cover are connected to each other by a connecting element such that the cover is displaceable relative to the mounting element base , and - the mounting element base and the cover are therefore lockable to each other by means of the at least one clip closure and the at least one counterpart and can also be opened again.
A process for repairing a part made of organic matrix composite material coated with at least one layer of paint comprising the following steps: a) removing the paint at a damaged area of the part , b) removing the composite material at the damaged area so as to form a recessed portion , c) depositing a repair resin in the recessed portion d) curing the repair resin , e) applying at least one layer of paint to the repair area, wherein the repair resin is loaded with magnetically detectable particles , the process further comprising, prior to steps a) through e), a step of checking for the absence of a repair resin loaded with magnetically detectable particles at a determined distance from the damaged area. a) removing the paint at a damaged area of the part , b) removing the composite material at the damaged area so as to form a recessed portion , c) depositing a repair resin in the recessed portion d) curing the repair resin , e) applying at least one layer of paint to the repair area, wherein the repair resin is loaded with magnetically detectable particles , the process further comprising, prior to steps a) through e), a step of checking for the absence of a repair resin loaded with magnetically detectable particles at a determined distance from the damaged area.
A method for ion exchanging glass articles, the method comprising: receiving processing instructions from one or more user input devices ; loading a cassette containing a plurality of glass articles into a molten salt bath of one or more ion exchange stations automatically with a robotic lift based on the processing instructions; and removing the cassette from the molten salt bath automatically with the robotic lift after a predetermined time based on the processing instructions; and rotating the cassette , characterized in that the cassette is rotated automatically with a rotation tool coupled to one of the robotic lift and the cover of the one or more ion exchange stations to drain fluid of the molten salt bath from the cassette . receiving processing instructions from one or more user input devices ; loading a cassette containing a plurality of glass articles into a molten salt bath of one or more ion exchange stations automatically with a robotic lift based on the processing instructions; and removing the cassette from the molten salt bath automatically with the robotic lift after a predetermined time based on the processing instructions; and rotating the cassette , characterized in that the cassette is rotated automatically with a rotation tool coupled to one of the robotic lift and the cover of the one or more ion exchange stations to drain fluid of the molten salt bath from the cassette .
A socket for electric parts, comprising: a socket body ; a housing portion in which an electric part provided with an Sn-containing terminal is housed; and an electric contact disposed in the socket body and placed in contact with the terminal, wherein the electric contact comprises: a first layer into which Sn from the Sn-containing terminal melts and diffuses upon application of heat; and a second layer formed on the outer side of the first layer and lower in the rate at which Sn from the Sn-containing terminal melts and diffuses upon application of heat than the first layer, the second Sn-diffusion rate being slower than the first Sn-diffusion rate, wherein the first layer has a thickness within a range of 0.1μm to 5 μm and is a Pd layer, the second layer has a thickness within a range of 1.0 μm to 20 μm and is an Ag layer, or the first layer has a thickness within a range of 0.1 μm to 5 μm and is a Pd plated layer, the second layer has a thickness within a range of 1.0 μm to 20 μm and is an Ag plated layer. a socket body ; a housing portion in which an electric part provided with an Sn-containing terminal is housed; and an electric contact disposed in the socket body and placed in contact with the terminal, wherein the electric contact comprises: a first layer into which Sn from the Sn-containing terminal melts and diffuses upon application of heat; and a second layer formed on the outer side of the first layer and lower in the rate at which Sn from the Sn-containing terminal melts and diffuses upon application of heat than the first layer, a first layer into which Sn from the Sn-containing terminal melts and diffuses upon application of heat; and a second layer formed on the outer side of the first layer and lower in the rate at which Sn from the Sn-containing terminal melts and diffuses upon application of heat than the first layer, the second Sn-diffusion rate being slower than the first Sn-diffusion rate, wherein the first layer has a thickness within a range of 0.1μm to 5 μm and is a Pd layer, the second layer has a thickness within a range of 1.0 μm to 20 μm and is an Ag layer, or the first layer has a thickness within a range of 0.1 μm to 5 μm and is a Pd plated layer, the second layer has a thickness within a range of 1.0 μm to 20 μm and is an Ag plated layer. wherein the first layer has a thickness within a range of 0.1μm to 5 μm and is a Pd layer, the second layer has a thickness within a range of 1.0 μm to 20 μm and is an Ag layer, or the first layer has a thickness within a range of 0.1 μm to 5 μm and is a Pd plated layer, the second layer has a thickness within a range of 1.0 μm to 20 μm and is an Ag plated layer.
A sludge treatment method comprising: preparing a granular mixture by mixing dehydrated sludge and cement raw meal, the mixture having a total moisture content of not less than 10% by mass and not greater than 25% by mass; accommodating a fluidized medium made of the mixture in a dryer casing and feeding drying gas as fluidizing gas into the fluidized medium; drying the mixture by a fluidized bed dryer (6; 6A; 6B; 6A') by bringing the mixture into contact with the drying gas; supplying the dried mixture to a pyroprocessing step of a cement production process as a fuel and raw meal; supplying exhaust gas from the dryer (6; 6A; 6A') to the pyroprocessing step as cooling gas for cooling a pyroprocessed product; and supplying the drying gas to the dryer (6; 6A; 6A'), the drying gas being either exhaust gas from the cement production process or exhaust gas from a process that utilizes heat thereof, the drying gas having a temperature of not lower than 50°C but lower than 200°C. preparing a granular mixture by mixing dehydrated sludge and cement raw meal, the mixture having a total moisture content of not less than 10% by mass and not greater than 25% by mass; accommodating a fluidized medium made of the mixture in a dryer casing and feeding drying gas as fluidizing gas into the fluidized medium; drying the mixture by a fluidized bed dryer (6; 6A; 6B; 6A') by bringing the mixture into contact with the drying gas; supplying the dried mixture to a pyroprocessing step of a cement production process as a fuel and raw meal; supplying exhaust gas from the dryer (6; 6A; 6A') to the pyroprocessing step as cooling gas for cooling a pyroprocessed product; and supplying the drying gas to the dryer (6; 6A; 6A'), the drying gas being either exhaust gas from the cement production process or exhaust gas from a process that utilizes heat thereof, the drying gas having a temperature of not lower than 50°C but lower than 200°C.
Pre-assembled blade for a fan for cooling the cooling fluid contained inside the radiator of operating machines and/or vehicles, comprising a blade body integral with an axial shank , wherein the shank has a part axially on the outside of the blade body in the form of a cylindrical pin , at least one hole with a female thread being formed inside the pin ; and the blade comprises -) a blade flange , suitable, in use, for fixing the pre-assembled blade to a hub of the fan , comprising • a hollow cylindrical body , the opposite end bases of which comprise respectively: • a flat edge provided with at least one through-hole , • an annular surface ; -) a disk having at least one through-hole coaxial, when the blade is assembled, with the said at least one hole in the shank ; -) an eccentric pin rigidly joined to the said disk and comprising an outer toothing on a part of its side surface, suitable for meshing during use with a rack of a device for adjusting the inflow angle of the blade , for rotational operation of the said blade about its axis; -) at least one screw designed to pass through one of the through-holes in the disk and mate with the female thread of one of the holes in the cylindrical pin in order to perform relative fixing of disk and cylindrical pin , ensuring a definite angular alignment of the blade body relative to the eccentric pin during pre-assembly. -) a blade flange , suitable, in use, for fixing the pre-assembled blade to a hub of the fan , comprising • a hollow cylindrical body , the opposite end bases of which comprise respectively: • a flat edge provided with at least one through-hole , • an annular surface ; • a hollow cylindrical body , the opposite end bases of which comprise respectively: • a flat edge provided with at least one through-hole , • an annular surface ; -) a disk having at least one through-hole coaxial, when the blade is assembled, with the said at least one hole in the shank ; -) an eccentric pin rigidly joined to the said disk and comprising an outer toothing on a part of its side surface, suitable for meshing during use with a rack of a device for adjusting the inflow angle of the blade , for rotational operation of the said blade about its axis; -) at least one screw designed to pass through one of the through-holes in the disk and mate with the female thread of one of the holes in the cylindrical pin in order to perform relative fixing of disk and cylindrical pin , ensuring a definite angular alignment of the blade body relative to the eccentric pin during pre-assembly.
A method of forming a fibre article, comprising: providing a former having a contoured forming surface ; locating a fibre preform between a first diaphragm and a second diaphragm , the second diaphragm being offset from the forming surface; drawing a vacuum between the first and second diaphragms so as to hold the preform captive between the diaphragms; displacing the second diaphragm towards the former so as to bring the second diaphragm into partial contact with the former; drawing a vacuum between the second diaphragm and the former so as to bring at least a part of the second diaphragm adjoining the preform into conformity with the forming surface; and setting the preform in its configuration; wherein: the fibre preform comprises one or more substantially inextensible fibres extending linearly in a first direction; the forming surface comprises a concavity and prominences on either side of the concavity; and the step of bringing the second diaphragm into partial contact with the former comprises bringing the second diaphragm into contact with the prominences whilst the second diaphragm does not fully contact the concavity and with the substantially inextensible fibres extending from one of the prominences to the other. providing a former having a contoured forming surface ; locating a fibre preform between a first diaphragm and a second diaphragm , the second diaphragm being offset from the forming surface; drawing a vacuum between the first and second diaphragms so as to hold the preform captive between the diaphragms; displacing the second diaphragm towards the former so as to bring the second diaphragm into partial contact with the former; drawing a vacuum between the second diaphragm and the former so as to bring at least a part of the second diaphragm adjoining the preform into conformity with the forming surface; and setting the preform in its configuration; wherein: the fibre preform comprises one or more substantially inextensible fibres extending linearly in a first direction; the forming surface comprises a concavity and prominences on either side of the concavity; and the step of bringing the second diaphragm into partial contact with the former comprises bringing the second diaphragm into contact with the prominences whilst the second diaphragm does not fully contact the concavity and with the substantially inextensible fibres extending from one of the prominences to the other. the fibre preform comprises one or more substantially inextensible fibres extending linearly in a first direction; the forming surface comprises a concavity and prominences on either side of the concavity; and the step of bringing the second diaphragm into partial contact with the former comprises bringing the second diaphragm into contact with the prominences whilst the second diaphragm does not fully contact the concavity and with the substantially inextensible fibres extending from one of the prominences to the other.