mhurhangee/ep-ind-claims huggingface dataset:
Device for assembling two parts by laser transmission welding, a first transparent top part being positioned on a second absorbing bottom part, the assembly of the two parts (11, 12) being positioned on a support for the laser welding, the assembly device comprising a means for projecting a laser beam onto the top surface of said top part and assembly means capable of keeping the assembly of the two parts (11, 12) assembled together on the support and comprising at least: - first upper clamping means, that is to say capable of coming to bear against the top surface of the top part, intended to ensure the geometrical referencing of the assembly of the two parts (11, 12) positioned on said support, - second lower clamping means, that is to say capable of coming to bear against the bottom surface of the bottom part, intended to exert a predetermined force against the assembly of the two parts (11, 12) positioned on said support, - and first adjustment means, associated with said second clamping means, comprising a plurality of movable members, capable of being actuated independently of one another at a predetermined welding interface of the two parts (11, 12) and intended to adjust said predetermined force at said welding interface, assembly device in which said first clamping means comprise a plurality of articulated clamps distributed all along the welding interface. - first upper clamping means, that is to say capable of coming to bear against the top surface of the top part, intended to ensure the geometrical referencing of the assembly of the two parts (11, 12) positioned on said support, - second lower clamping means, that is to say capable of coming to bear against the bottom surface of the bottom part, intended to exert a predetermined force against the assembly of the two parts (11, 12) positioned on said support, - and first adjustment means, associated with said second clamping means, comprising a plurality of movable members, capable of being actuated independently of one another at a predetermined welding interface of the two parts (11, 12) and intended to adjust said predetermined force at said welding interface,
A card comprising: a plastic layer having first and second surfaces, a width W and a length L; windings wound along the first surface of the plastic layer or within said plastic layer to form a card antenna; a metal layer overlying the plastic layer; said metal layer having a first surface and a second surface, and a width and a length equal to that of the plastic layer; wherein the second surface faces the plastic layer; a module having a chip and a chip antenna for communicating with the card antenna; characterized in that a groove is formed within the second surface of said metal layer; and a strip of ferrite material is arranged in said groove disposed between the second surface of the metal layer and the antenna windings; said ferrite material strip extending over and overlying the antenna windings; the ferrite material strip having a length and width limited to track the underlying antenna windings, wherein the ferrite material is disposed to shield the card antenna and the chip antenna to provide improved RF shielding between the metal layer and the windings of both the card antenna and the chip antenna. a plastic layer having first and second surfaces, a width W and a length L; windings wound along the first surface of the plastic layer or within said plastic layer to form a card antenna; a metal layer overlying the plastic layer; said metal layer having a first surface and a second surface, and a width and a length equal to that of the plastic layer; wherein the second surface faces the plastic layer; a module having a chip and a chip antenna for communicating with the card antenna; characterized in that a groove is formed within the second surface of said metal layer; and a strip of ferrite material is arranged in said groove disposed between the second surface of the metal layer and the antenna windings; said ferrite material strip extending over and overlying the antenna windings; the ferrite material strip having a length and width limited to track the underlying antenna windings, wherein the ferrite material is disposed to shield the card antenna and the chip antenna to provide improved RF shielding between the metal layer and the windings of both the card antenna and the chip antenna.
A method for the preparation of an eggshell catalyst comprising the steps of; i) immersing extrudates or pellets of an oxidic support having a circular cross section in the form of spheres having a diameter from 0.5 mm to 25 mm or cylinders having a length from 0.5 mm to 50 mm, and a diameter from 0.5 mm to 25 mm in a solution of cobalt ammine carbonate, ii) heating the solution containing the extrudates or pellets to a temperature between 60 and 120°C to precipitate cobalt compounds onto their surface, then iii) separating the resulting supported cobalt compounds from the remaining solution, iv) drying the supported cobalt compounds to form a dried catalyst precursor, and v) sieving the dried catalyst precursor to remove unsupported cobalt compounds. i) immersing extrudates or pellets of an oxidic support having a circular cross section in the form of spheres having a diameter from 0.5 mm to 25 mm or cylinders having a length from 0.5 mm to 50 mm, and a diameter from 0.5 mm to 25 mm in a solution of cobalt ammine carbonate, ii) heating the solution containing the extrudates or pellets to a temperature between 60 and 120°C to precipitate cobalt compounds onto their surface, then iii) separating the resulting supported cobalt compounds from the remaining solution, iv) drying the supported cobalt compounds to form a dried catalyst precursor, and v) sieving the dried catalyst precursor to remove unsupported cobalt compounds.
A process for obtaining Paliperidone, I, comprising: - hydrogenation of compound IX, or a salt thereof in an alcoholic solution, wherein the alcoholic solution consist of a mixture of an alcohol with water from 1:0.01 to a ratio of 1:1 (v/v), to obtain compound V, or a salt thereof, and - alkylating compound VI with V, or a salt thereof using triethylamine or diisopropylethylamine and, optionally, a solvent. - hydrogenation of compound IX, or a salt thereof in an alcoholic solution, wherein the alcoholic solution consist of a mixture of an alcohol with water from 1:0.01 to a ratio of 1:1 (v/v), to obtain compound V, or a salt thereof, and - alkylating compound VI with V, or a salt thereof using triethylamine or diisopropylethylamine and, optionally, a solvent.
A flight control method of an Unmanned Aerial Vehicle, UAV, comprising: Determining a flight track of the UAV; receiving a remote control signal sent by a remote control apparatus which is operated manually; converting the remote control signal into a flight controlled quantity of the UAV; generating a flight adjustment controlled quantity of the UAV according to a current location, the flight track and the flight controlled quantity, of the UAV; and executing a flight mission according to an action indicated by the flight adjustment controlled quantity, as to enable the UAV to run on the flight track; wherein the flight controlled quantity comprises a pitching flight controlled quantity and a transverse flight controlled quantity, and generating the flight adjustment controlled quantity of the UAV according to the current location, the flight track and the flight controlled quantity, of the UAV comprises: when the transverse flight controlled quantity is zero, determining a transverse adjustment controlled quantity according to the current location of the UAV and the flight track; and generating a flight adjustment controlled quantity according to the pitching flight controlled quantity and the transverse adjustment controlled quantity, the flight adjustment controlled quantity comprising a flight speed magnitude and a flight direction. Determining a flight track of the UAV; receiving a remote control signal sent by a remote control apparatus which is operated manually; converting the remote control signal into a flight controlled quantity of the UAV; generating a flight adjustment controlled quantity of the UAV according to a current location, the flight track and the flight controlled quantity, of the UAV; and executing a flight mission according to an action indicated by the flight adjustment controlled quantity, as to enable the UAV to run on the flight track; wherein the flight controlled quantity comprises a pitching flight controlled quantity and a transverse flight controlled quantity, and generating the flight adjustment controlled quantity of the UAV according to the current location, the flight track and the flight controlled quantity, of the UAV comprises: when the transverse flight controlled quantity is zero, determining a transverse adjustment controlled quantity according to the current location of the UAV and the flight track; and generating a flight adjustment controlled quantity according to the pitching flight controlled quantity and the transverse adjustment controlled quantity, the flight adjustment controlled quantity comprising a flight speed magnitude and a flight direction. when the transverse flight controlled quantity is zero, determining a transverse adjustment controlled quantity according to the current location of the UAV and the flight track; and generating a flight adjustment controlled quantity according to the pitching flight controlled quantity and the transverse adjustment controlled quantity, the flight adjustment controlled quantity comprising a flight speed magnitude and a flight direction.
Method for controlling a hill-start assist for a vehicle, in particular a commercial vehicle, having a power-assisted brake system and having electronic brake control, wherein the vehicle can be kept at a standstill on a flat or inclined road by its service brake system, even without driver operation of the brake pedal, by automatically introducing a hill-start assist pressure into the wheel brakes, wherein the hill-start assist pressure is a function of the road inclination and at least one variable derived from the weight of the vehicle, and the hill-start assist pressure is proportional to the product of the absolute value of the road inclination and the weight of the vehicle, characterized in that the hill-start assist pressure is calculated internally in the vehicle using the formula RSP _ pressure = RSP _ inclination × U _ F, where RSP_pressure = hill-start assist pressure RSP_inclination = verified vehicle inclination U_F = function of the vehicle braking pressure level from earlier braking operations. RSP_pressure = hill-start assist pressure RSP_inclination = verified vehicle inclination U_F = function of the vehicle braking pressure level from earlier braking operations.
A method for removing microorganisms on an industrial processing hard surface comprising: contacting the hard surface with a peroxyformic acid composition comprising at least 75 ppm peroxyformic acid, wherein the composition is dosed on site and/or generated in situ; and removing microbial growth from the surface; wherein the surface is a CO 2 scrubber in a fermentation system, wherein the scrubber contains packing materials, and wherein the scrubber surface and packing material surface is contacted with the peroxyformic acid composition in an intermittent treatment of a process water stream feeding the scrubber. contacting the hard surface with a peroxyformic acid composition comprising at least 75 ppm peroxyformic acid, wherein the composition is dosed on site and/or generated in situ; and removing microbial growth from the surface; wherein the surface is a CO 2 scrubber in a fermentation system, wherein the scrubber contains packing materials, and wherein the scrubber surface and packing material surface is contacted with the peroxyformic acid composition in an intermittent treatment of a process water stream feeding the scrubber.
A method comprising: forming an interconnect line etch opening in an upper hardmask layer over a lower hardmask layer over a dielectric layer having a first and a second interconnect line disposed therein, wherein the interconnect line etch opening is formed aligned over the interconnect line; introducing a block copolymer in the interconnect line etch opening, wherein the assembled block copolymer comprises columns formed from blocks of polymer A and surrounded by blocks of polymer B; and assembling the block copolymer to form a plurality of assembled structures that are spaced along a length of the interconnect line etch opening, wherein the block copolymer in the block copolymer layer portion configured to create diameters of the columns and a pitch of the columns and to thereby align blocks with each of the first and second interconnect lines; characterised in that an electron beam is used to selectively expose a subset of the columns which are directly aligned over the first and second interconnect lines, and wherein the exposed columns are removed. forming an interconnect line etch opening in an upper hardmask layer over a lower hardmask layer over a dielectric layer having a first and a second interconnect line disposed therein, wherein the interconnect line etch opening is formed aligned over the interconnect line; introducing a block copolymer in the interconnect line etch opening, wherein the assembled block copolymer comprises columns formed from blocks of polymer A and surrounded by blocks of polymer B; and assembling the block copolymer to form a plurality of assembled structures that are spaced along a length of the interconnect line etch opening, wherein the block copolymer in the block copolymer layer portion configured to create diameters of the columns and a pitch of the columns and to thereby align blocks with each of the first and second interconnect lines; characterised in that an electron beam is used to selectively expose a subset of the columns which are directly aligned over the first and second interconnect lines, and wherein the exposed columns are removed.
A method for generating demodulation reference signal, DMRS, sequences, comprising steps of: acquiring, by a communication terminal, a parameter corresponding to the DMRS sequence initial value corresponding to an enhanced physical downlink control channel, E-PDCCH, and generating a DMRS sequence initial value corresponding to the E-PDCCH using the parameter corresponding to the DMRS sequence initial value corresponding to the E-PDCCH; and acquiring, by the communication terminal, a parameter corresponding to the DMRS sequence initial value corresponding to a physical downlink shared channel, PDSCH, and generating the DMRS sequence initial value corresponding to the PDSCH using the parameter corresponding to the DMRS sequence initial value corresponding to the PDSCH; and generating, by the communication terminal, a DMRS sequence corresponding to the E-PDCCH using the DMRS sequence initial value corresponding to the E-PDCCH, and a DMRS sequence corresponding to the PDSCH using the DMRS sequence initial value corresponding to the PDSCH, wherein the DMRS sequence initial value corresponding to the E-PDCCH is different from the DMRS sequence initial value corresponding to the PDSCH. acquiring, by a communication terminal, a parameter corresponding to the DMRS sequence initial value corresponding to an enhanced physical downlink control channel, E-PDCCH, and generating a DMRS sequence initial value corresponding to the E-PDCCH using the parameter corresponding to the DMRS sequence initial value corresponding to the E-PDCCH; and acquiring, by the communication terminal, a parameter corresponding to the DMRS sequence initial value corresponding to a physical downlink shared channel, PDSCH, and generating the DMRS sequence initial value corresponding to the PDSCH using the parameter corresponding to the DMRS sequence initial value corresponding to the PDSCH; and generating, by the communication terminal, a DMRS sequence corresponding to the E-PDCCH using the DMRS sequence initial value corresponding to the E-PDCCH, and a DMRS sequence corresponding to the PDSCH using the DMRS sequence initial value corresponding to the PDSCH, wherein the DMRS sequence initial value corresponding to the E-PDCCH is different from the DMRS sequence initial value corresponding to the PDSCH.
An antenna device configured to be used in contact with or close to a human body or a conductor, the antenna device comprising: an antenna; and a metasurface layer that is layered on the antenna, configured to be disposed on the human body side or the conductor, and includes a low-loss film and a metasurface formed on the low-loss film, wherein the low-loss film includes a first-layer low-loss film and a second-layer low-loss film that are layered, the metasurface includes a first-layer metasurface made of a plurality of first-layer electrodes (21A1, 21C1) formed on the first-layer low-loss film and a second-layer metasurface made of a plurality of second-layer electrodes (21B1) formed on the second-layer low-loss film, the plurality of first-layer electrodes (21A1) is disposed not overlapping the plurality of second-layer electrodes (21B 1) in plan view, and the plurality of second-layer electrodes (21B 1) is disposed not overlapping the plurality of first-layer electrodes (21A1) in plan view, wherein the plurality of first electrodes (21A1) and the plurality of second electrodes (21B1) in respective rows are alternately arranged side by side. an antenna; and a metasurface layer that is layered on the antenna, configured to be disposed on the human body side or the conductor, and includes a low-loss film and a metasurface formed on the low-loss film, wherein the low-loss film includes a first-layer low-loss film and a second-layer low-loss film that are layered, the metasurface includes a first-layer metasurface made of a plurality of first-layer electrodes (21A1, 21C1) formed on the first-layer low-loss film and a second-layer metasurface made of a plurality of second-layer electrodes (21B1) formed on the second-layer low-loss film, the plurality of first-layer electrodes (21A1) is disposed not overlapping the plurality of second-layer electrodes (21B 1) in plan view, and the plurality of second-layer electrodes (21B 1) is disposed not overlapping the plurality of first-layer electrodes (21A1) in plan view, wherein the plurality of first electrodes (21A1) and the plurality of second electrodes (21B1) in respective rows are alternately arranged side by side.
A header of a combine harvester comprising: an auger for directing the movement of harvested grain toward a feederhouse of the combine harvester; and an adjustable hood positioned above the auger and moveable between a lowered position, a raised position, and an intermediate position between the lowered and raised positions, the adjustable hood including: a pivot mechanism, the header being characterised in that it comprises: an actuator for moving the adjustable hood between the lowered, raised, and intermediate positions, wherein the actuator is in communication with a control unit for remotely controlling the adjustable hood between the lowered, raised and intermediate positions, and in that the control unit is configured to automatically position the adjustable hood based on a harvesting speed or on feedback from a sensor (214,216), the sensor comprised in the header and in communication with the control unit. an auger for directing the movement of harvested grain toward a feederhouse of the combine harvester; and an adjustable hood positioned above the auger and moveable between a lowered position, a raised position, and an intermediate position between the lowered and raised positions, the adjustable hood including: a pivot mechanism, the header being characterised in that it comprises: an actuator for moving the adjustable hood between the lowered, raised, and intermediate positions, wherein the actuator is in communication with a control unit for remotely controlling the adjustable hood between the lowered, raised and intermediate positions, and in that the control unit is configured to automatically position the adjustable hood based on a harvesting speed or on feedback from a sensor (214,216), the sensor comprised in the header and in communication with the control unit. a pivot mechanism, the header being characterised in that it comprises: an actuator for moving the adjustable hood between the lowered, raised, and intermediate positions, wherein the actuator is in communication with a control unit for remotely controlling the adjustable hood between the lowered, raised and intermediate positions, and in that the control unit is configured to automatically position the adjustable hood based on a harvesting speed or on feedback from a sensor (214,216), the sensor comprised in the header and in communication with the control unit. an actuator for moving the adjustable hood between the lowered, raised, and intermediate positions, wherein the actuator is in communication with a control unit for remotely controlling the adjustable hood between the lowered, raised and intermediate positions, and in that the control unit is configured to automatically position the adjustable hood based on a harvesting speed or on feedback from a sensor (214,216), the sensor comprised in the header and in communication with the control unit.
A method for radio link adaptation at a transmit and receive point, the method being performed by a network node, the method comprising: obtaining log-likelihood ratio, LLR, values for a block of codewords, wherein the LLR values are output from an information decoder decoding the block of codewords, and wherein the block of codewords has been communicated over a radio link (160a, 160b) between the transmit and receive point and a terminal device (150a, 150b); and performing radio link adaptation of the radio link (160a, 160b) depending on the LLR values by selecting radio link adaptation parameter values, wherein which radio link adaptation parameter values to select depends on the LLR values, wherein the radio link adaptation parameter values are defined by modulation and coding scheme values, wherein which radio link adaptation parameter values to select depends on whether the LLR values are above or below a threshold value, and wherein selecting radio link adaptation parameter values involves incrementing or decrementing currently used modulation and coding scheme values in steps depending on whether the LLR values are above or below the threshold value, wherein which step-size to use when incrementing or decrementing the currently used modulation and coding scheme values depends on the LLR values. obtaining log-likelihood ratio, LLR, values for a block of codewords, wherein the LLR values are output from an information decoder decoding the block of codewords, and wherein the block of codewords has been communicated over a radio link (160a, 160b) between the transmit and receive point and a terminal device (150a, 150b); and performing radio link adaptation of the radio link (160a, 160b) depending on the LLR values by selecting radio link adaptation parameter values, wherein which radio link adaptation parameter values to select depends on the LLR values, wherein the radio link adaptation parameter values are defined by modulation and coding scheme values, wherein which radio link adaptation parameter values to select depends on whether the LLR values are above or below a threshold value, and wherein selecting radio link adaptation parameter values involves incrementing or decrementing currently used modulation and coding scheme values in steps depending on whether the LLR values are above or below the threshold value, wherein which step-size to use when incrementing or decrementing the currently used modulation and coding scheme values depends on the LLR values.