mhurhangee/ep-ind-claims huggingface dataset:
A transfer device for transferring rod-like articles (11, 11', 11") of the tobacco-processing industry, which are conveyed along a longitudinal axis, from a longitudinal conveyor which conveys the articles (11, 11', 11") so as to be advanced in series along a longitudinal axis onto a transverse conveyor which conveys the articles (11, 11', 11") away along a transverse axis, wherein the transfer device comprises a pair of accelerator discs with a contact pressure disc and a first conveyor disc, wherein the transfer device additionally comprises a second conveyor disc, wherein the first and the second conveyor disc (16, 17) comprise contact surfaces (20, 20') which in a first portion have a constant radius and in a second portion have an increasing radius, characterised in that the first and the second conveyor disc (16, 17) are rotatably drivable or driven relative to one another at an angular position which is adjustable in a variable manner, by the first and the second conveyor disc (16, 17) being driven separately from one another or the first and the second conveyor disc (16, 17) being driven together, whilst the angular position of the first conveyor disc relative to the second conveyor disc (16, 17) is adjusted such that a motor, relative to the driving of the conveyor disc (16, 17), is able to displace this conveyor disc in terms of angular position.
A method for producing a genetic modification into a target site of a plant genome without introducing an exogenous selectable marker into said plant genome, the method comprising providing a first guide polynucleotide, a polynucleotide modification template, a second guide polynucleotide, and a Cas endonuclease to a plant cell comprising a first endogenous gene selected from the group consisting of an acetolactate synthase gene, a glutamine synthase gene and an enolpyruvylshikimate-3-phosphate synthase (EPSPS) gene, wherein said first guide polynucleotide and Cas endonuclease are capable of forming a first complex that enables the Cas endonuclease to introduce a double strand break at a first target site, located in or near said first endogenous gene in the genome of said plant cell, wherein said second guide polynucleotide and Cas endonuclease are capable of forming a second complex that enables the Cas endonuclease to introduce a double strand break at a second target site in the genome of said plant cell, wherein said polynucleotide modification template comprises at least one nucleotide alteration when compared to the first endogenous gene and said first endogenous gene is modified to confer herbicide resistance to a plant cell, wherein the first target site and the second target site are located at two different genomic loci.
A laser engraver comprising a laser and a camera and a plate for holding a product to be engraved, the plate comprising a reference grid, wherein an optical path of the laser is directed to the plate and an optical path of the camera is directed to the plate and the optical path of the camera to the plate and the optical path of the laser to the plate are at least partially the same before and when hitting the plate, a calibration system with a controller, and a comparator, wherein the controller is set up to use the reference grid of the plate to calibrate the camera, and wherein the laser engraver is characterized in that the controller is set up to have the laser engrave a predefined pattern on a product on the plate and to have the camera to capture the position of this engraved pattern and the controller is set up to have the comparator to compare the predefined position of the engraved pattern and the position according to the camera and to determine a difference between these two positions, wherein the controller is set up to use this difference to calibrate the laser.
A method for manufacturing non-woven fabric with enhanced hardness and sound absorption, comprising the steps of: preparing a first filament with a non-circular cross-section in the shape of"+" or "Y" using polyester having a melting point of 250 °C or more; preparing a second filament using polyester having a melting point of 180 °C or less; mixing the first filament and the second filament such that a content of the second filament becomes 10-50 wt%, and preparing a long fiber nonwoven web using the obtained mixture; and treating the nonwoven web with hot air at a temperature lower than the temperature at which layers making up an automotive undercover in a plate for the automotive undercover are laminated and the temperature at which the undercover is formed, wherein hot air is passed from the top of the nonwoven web to the bottom of the nonwoven web, causing the second filaments to melt and then fuse with adjacent first filaments when they are cooled, wherein the degree of non-circular shape (diameter of a circle connecting outermost lines of the cross-section of filament/diameter of the central circle of the cross-section of filament) of the non-circular cross-section is 2.0~3.0, wherein the automotive undercover is a part in the form of the plate attached to the outermost layer at the bottom of an automobile; the automotive undercover consists of a polyester nonwoven fabric layer for the outside finish, a polypropylene film layer, the nonwoven fabric layer obtained by the above manufacturing method, and a polyester nonwoven fabric layer for the inner side finish sequentially stacked. preparing a first filament with a non-circular cross-section in the shape of"+" or "Y" using polyester having a melting point of 250 °C or more; preparing a second filament using polyester having a melting point of 180 °C or less; mixing the first filament and the second filament such that a content of the second filament becomes 10-50 wt%, and preparing a long fiber nonwoven web using the obtained mixture; and treating the nonwoven web with hot air at a temperature lower than the temperature at which layers making up an automotive undercover in a plate for the automotive undercover are laminated and the temperature at which the undercover is formed, wherein hot air is passed from the top of the nonwoven web to the bottom of the nonwoven web, causing the second filaments to melt and then fuse with adjacent first filaments when they are cooled, wherein the degree of non-circular shape (diameter of a circle connecting outermost lines of the cross-section of filament/diameter of the central circle of the cross-section of filament) of the non-circular cross-section is 2.0~3.0, wherein the automotive undercover is a part in the form of the plate attached to the outermost layer at the bottom of an automobile; the automotive undercover consists of a polyester nonwoven fabric layer for the outside finish, a polypropylene film layer, the nonwoven fabric layer obtained by the above manufacturing method, and a polyester nonwoven fabric layer for the inner side finish sequentially stacked.
An uplink, UL, multi-user, MU, transmission method of an STA in a wireless communication system, the method comprising: receiving a trigger frame, the trigger frame comprising resource allocation information for an UL MU transmission of a station, STA; and sending an UL MU physical protocol data unit, PPDU, generated based on the trigger frame, wherein the UL MU PPDU comprises a first part having a first inverse discrete Fourier transform/discrete Fourier transform, IDFT/DFT, period and a second part having a second IDFT/DFT period which is four times the first IDFT/DFT period, wherein the first part is transmitted through at least one 20 MHz channel of a frequency location including at least some of a frequency resource indicated by the resource allocation information, wherein the second part is transmitted using the frequency resource indicated by the resource allocation information, and characterized in that, when the frequency resource is less than a 20MHz channel and includes a frequency location of a plurality of the at least one 20MHz channel, the first part is duplicated in a 20 MHz unit, by the size of the plurality of 20MHz channels, and transmitted only through the plurality of 20 MHz channels. receiving a trigger frame, the trigger frame comprising resource allocation information for an UL MU transmission of a station, STA; and sending an UL MU physical protocol data unit, PPDU, generated based on the trigger frame, wherein the UL MU PPDU comprises a first part having a first inverse discrete Fourier transform/discrete Fourier transform, IDFT/DFT, period and a second part having a second IDFT/DFT period which is four times the first IDFT/DFT period, wherein the first part is transmitted through at least one 20 MHz channel of a frequency location including at least some of a frequency resource indicated by the resource allocation information, wherein the second part is transmitted using the frequency resource indicated by the resource allocation information, and characterized in that, when the frequency resource is less than a 20MHz channel and includes a frequency location of a plurality of the at least one 20MHz channel, the first part is duplicated in a 20 MHz unit, by the size of the plurality of 20MHz channels, and transmitted only through the plurality of 20 MHz channels.
A wind turbine, comprising a hub, a blade shaft which is connected to the hub, a rotor blade which is connected to the blade shaft, a fixed bearing arrangement which is arranged at a blade end of the blade shaft, and a floating bearing arrangement which is arranged at a hub end of the blade shaft, wherein the bearing arrangements (14, 15) enable a rotational movement of the rotor blade relative to the blade shaft, characterized in that a first bearing shell of the floating bearing arrangement is provided with a gear ring which can be used to adjust a pitch angle of the rotor blade, the fixed bearing arrangement comprises a radial bearing for transferring radial forces, and an axial bearing (17, 18) for transferring axial forces, and the radial bearing and/or the axial bearing (17, 18) comprises exchangeable bearing pads (22, 26, 27).
A method for authenticating a document (ICC, 501) to a reader (IFD, 550) using a Diffie-Hellman protocol, wherein a first parameter set comprising one or more parameter values is stored in the reader in a non-volatile memory, wherein the first parameter set is stored in the reader at the time of production, initialisation or configuration of the reader, wherein the first parameter set contains parameter values which are necessary for performing the Diffie-Hellman protocol, wherein the communication between the document and the reader is implemented on the basis of a challenge-response chip card protocol, said method comprising the steps of: - producing (102, 234, 334, 334', 434, 434') a first data value (RND.ICC) by the document; - calculating (104, 236, 336, 336', 436, 436') a ciphertext (E(s)), which includes at least the first data value (RND.ICC), by means of a secret key by the document; - transmitting the ciphertext (E(s)) from the document to the reader; - decrypting (108, 238, 338, 338', 438, 438') the ciphertext (E(s)) by the reader by means of the secret key; - performing the Diffie-Hellman protocol for a first time in order to agree a first shared secret between the document and the reader, wherein the first performance of the Diffie-Hellman protocol is based on the first parameter set; - performing the Diffie-Hellman protocol for a second time in order to agree a second shared secret (H') between the document and the reader, wherein the second performance of the Diffie-Hellman protocol is based on a second parameter set, wherein the further parameter values are derived from the first parameter set and the first shared secret and the first data value (RND.ICC); - authenticating the document to the reader with the aid of the second secret (H'). - producing (102, 234, 334, 334', 434, 434') a first data value (RND.ICC) by the document; - calculating (104, 236, 336, 336', 436, 436') a ciphertext (E(s)), which includes at least the first data value (RND.ICC), by means of a secret key by the document; - transmitting the ciphertext (E(s)) from the document to the reader; - decrypting (108, 238, 338, 338', 438, 438') the ciphertext (E(s)) by the reader by means of the secret key; - performing the Diffie-Hellman protocol for a first time in order to agree a first shared secret between the document and the reader, wherein the first performance of the Diffie-Hellman protocol is based on the first parameter set; - performing the Diffie-Hellman protocol for a second time in order to agree a second shared secret (H') between the document and the reader, wherein the second performance of the Diffie-Hellman protocol is based on a second parameter set, wherein the further parameter values are derived from the first parameter set and the first shared secret and the first data value (RND.ICC); - authenticating the document to the reader with the aid of the second secret (H').
A computer-implemented method to communicate intent of an autonomous vehicle, the method comprising: receiving, by a computing system that comprises one or more computing devices and from an autonomy computing system of an autonomous vehicle, data indicating an intent of the autonomous vehicle to perform a driving maneuver; determining, by the computing system and based at least in part on the data indicating the intent, that the intent of the autonomous vehicle should be communicated to a passenger of the autonomous vehicle; wherein determining that the intent of the autonomous vehicle should be communicated to the passenger comprises determining that a degree of confidence of an event associated with the intent meets a predetermined threshold; and responsive to determining that the intent of the autonomous vehicle should be communicated to the passenger: generating, by the computing system, a graphical interface (302, 310, 314, 318, 322, 326, 330) indicating the intent of the autonomous vehicle; and providing for display, by the computing system and for viewing by the passenger, the graphical interface (302, 310, 314, 318, 322, 326, 330). receiving, by a computing system that comprises one or more computing devices and from an autonomy computing system of an autonomous vehicle, data indicating an intent of the autonomous vehicle to perform a driving maneuver; determining, by the computing system and based at least in part on the data indicating the intent, that the intent of the autonomous vehicle should be communicated to a passenger of the autonomous vehicle; wherein determining that the intent of the autonomous vehicle should be communicated to the passenger comprises determining that a degree of confidence of an event associated with the intent meets a predetermined threshold; and responsive to determining that the intent of the autonomous vehicle should be communicated to the passenger: generating, by the computing system, a graphical interface (302, 310, 314, 318, 322, 326, 330) indicating the intent of the autonomous vehicle; and providing for display, by the computing system and for viewing by the passenger, the graphical interface (302, 310, 314, 318, 322, 326, 330). generating, by the computing system, a graphical interface (302, 310, 314, 318, 322, 326, 330) indicating the intent of the autonomous vehicle; and providing for display, by the computing system and for viewing by the passenger, the graphical interface (302, 310, 314, 318, 322, 326, 330).
A refrigerant distributing device comprising: a header having a configuration in which the header is connectable to one end of each of a plurality of heat-transfer pipes of a heat exchanger through which a refrigerant flows in parallel to the plurality of heat-transfer pipes disposed in parallel and an interior of the header is divided, by one or more division plates, in a parallel direction in which the plurality of heat-transfer pipes to be disposed, the header being mounted so as to stand in an up-down direction; a plurality of capillary tubes that allow a flow rate of the refrigerant to be adjusted; and a distributor configured to distribute the refrigerant to each chamber within the header divided by the one or more division plates and flow the refrigerant into each chamber, wherein the distributor is connected to each of the respective chambers via one of the plurality of capillary tubes, characterised in that a drift suppression member for suppressing a distribution drift is provided at a connection port of each chamber with an orifice having a through hole with a smaller inner diameter than that of the capillary tube provided at the connection port of the capillary tube in each chamber. a header having a configuration in which the header is connectable to one end of each of a plurality of heat-transfer pipes of a heat exchanger through which a refrigerant flows in parallel to the plurality of heat-transfer pipes disposed in parallel and an interior of the header is divided, by one or more division plates, in a parallel direction in which the plurality of heat-transfer pipes to be disposed, the header being mounted so as to stand in an up-down direction; a plurality of capillary tubes that allow a flow rate of the refrigerant to be adjusted; and a distributor configured to distribute the refrigerant to each chamber within the header divided by the one or more division plates and flow the refrigerant into each chamber, wherein the distributor is connected to each of the respective chambers via one of the plurality of capillary tubes, characterised in that a drift suppression member for suppressing a distribution drift is provided at a connection port of each chamber with an orifice having a through hole with a smaller inner diameter than that of the capillary tube provided at the connection port of the capillary tube in each chamber.
An apparatus comprising an encoder for encoding image data into a resultant bitstream in accordance with an encoding profile that encodes at least one 8x8 block of the image data such that the at least one 8x8 block includes two chrominance values arrays and a luminance values array, wherein each of the two chrominance values arrays has a same height and a same width as the luminance values array, wherein said encoder indicates a presence of non-zero transform coefficients in any of the two chrominance values arrays and the luminance values array of the at least one 8x8 block in the resultant bitstream using a first syntax, and indicates a respective presence of non-zero transform coefficients for each of the two chrominance values arrays and the luminance values array of the at least one 8x8 block in the resultant bitstream separately using a respective array specific syntax element, said respective syntax elements being different from the first syntax, and wherein said encoder applies Context Adaptive Binary Arithmetic Coding, CABAC, to the at least one 8x8 block to encode transform coefficients of the at least one 8x8 block.
Satellite signal receiver used for location (GNSS) adapted to be fixed on a support comprising: - at least one antenna able to receive said satellite signals used for location, said antenna comprising at least two movable phase centres; - determination means for determining a location on the basis of said received satellite signals, said receiver being characterised in that it comprises: - displacement means adapted to displace said phase centres, to select one of said phase centres and to determine a position of said selected phase centre relative to the support, said determination means being adapted to determine a location, on the basis of said position of said selected phase centre relative to the support, transmitted by said displacement means, by correcting a variation in the phase of the received signal, the variation being caused by the displacement of the selected phase centre, said determination means for determining a location comprising: - first sub-means for multiplying said satellite signal by a signal generated in the receiver and having a frequency dependent on the frequency of the carrier of said satellite signal, in order to obtain a first signal; - second sub-means for multiplying said first signal by a signal generated in the receiver and having a carrier phase dependent on said position of said phase centre, in order to obtain a second signal; - sub-means for demodulating said second signal, in order to obtain a third signal; - sub-means for integrating said third signal over a period dependent on the displacement period of said phase centre. - at least one antenna able to receive said satellite signals used for location, said antenna comprising at least two movable phase centres; - determination means for determining a location on the basis of said received satellite signals, - displacement means adapted to displace said phase centres, to select one of said phase centres and to determine a position of said selected phase centre relative to the support, - first sub-means for multiplying said satellite signal by a signal generated in the receiver and having a frequency dependent on the frequency of the carrier of said satellite signal, in order to obtain a first signal; - second sub-means for multiplying said first signal by a signal generated in the receiver and having a carrier phase dependent on said position of said phase centre, in order to obtain a second signal; - sub-means for demodulating said second signal, in order to obtain a third signal; - sub-means for integrating said third signal over a period dependent on the displacement period of said phase centre.