mhurhangee/ep-ind-claims huggingface dataset:
A method for single row switching and/or group switching of an agricultural distribution machine, which has a plurality of row units, which are activable and/or deactivable individually and/or in groups for the controlled spreading of granular distribution goods, such as seeds or fertilisers, which row units are, for the spreading of granular distribution goods, in each instance supplied from at least one storage hopper with distribution goods contained therein by means of a metering device and/or delivery device, which is disposed between the at least one storage hopper and the row units, and which is controllable and/or regulatable with regard to its delivery rate of distribution goods per time unit, - wherein the metering device and/or delivery device operates within a definable and/or variable operating range between a lower delivery rate limit and an upper delivery rate limit, - wherein a total delivery rate of the metering device and/or delivery device is less than or approximately equal to the upper delivery rate limit for all activated row units, - and wherein the delivery rate of distribution goods delivered by the controllable and/or regulatable metering device and/or delivery device is or can be increased or decreased depending on the particular number of activated or deactivated row units, wherein a minimum number of row units to be activated and/or remaining activated is aligned with the operating range of the metering device and/or delivery device and/or with the particular lower delivery rate limit, and, upon the lower delivery rate limit being reached and/or fallen below of, either all remaining row units are switched off together with the metering device and/or delivery device or the minimum number of row units required for reaching or maintaining the lower delivery rate limit remain activated, and it is in each instance defined by means of a regulation program stored in a regulating device if in each instance individual row units can be switched for an optimum speed range of a cell rotor of the metering device and/or delivery device or if in each instance a groupwise switching of the row units should be carried out. - wherein the metering device and/or delivery device operates within a definable and/or variable operating range between a lower delivery rate limit and an upper delivery rate limit, - wherein a total delivery rate of the metering device and/or delivery device is less than or approximately equal to the upper delivery rate limit for all activated row units, - and wherein the delivery rate of distribution goods delivered by the controllable and/or regulatable metering device and/or delivery device is or can be increased or decreased depending on the particular number of activated or deactivated row units,
A method performed by a wireless device for performing an uplink transmission to a base station in a wireless access system, wherein the wireless access system comprises a plurality of mini-slot configurations, wherein a mini-slot configuration comprises one or more orthogonal frequency division multiplexed, OFDM, symbol intervals and is a sub-division of a slot, the method comprising: performing a clear channel assessment to identify a transmission opportunity; determining the start of a mini-slot that is closest to the start of the transmission opportunity; performing an uplink transmission within the determined mini-slot, wherein the transmission is performed by selecting one of a plurality of preconfigured mini-slot configurations for mini-slot communication between the base station and the wireless device, wherein the mini-slot configuration comprises a demodulation reference signal in a configured OFDM symbol position and the demodulation reference signal location within an OFDM symbol in the slot identifies the mini-slot configuration being used such that the base station can identify the start of the uplink transmission. performing a clear channel assessment to identify a transmission opportunity; determining the start of a mini-slot that is closest to the start of the transmission opportunity; performing an uplink transmission within the determined mini-slot, wherein the transmission is performed by selecting one of a plurality of preconfigured mini-slot configurations for mini-slot communication between the base station and the wireless device, wherein the mini-slot configuration comprises a demodulation reference signal in a configured OFDM symbol position and the demodulation reference signal location within an OFDM symbol in the slot identifies the mini-slot configuration being used such that the base station can identify the start of the uplink transmission.
A pumping mechanism of a diesel fuel pump actuated by an oil lubricated cam follower, the pumping mechanism comprising a pump head, a cam follower for cooperating with a rotating cam, and a plunger, located partially within a plunger location bore provided in the pump head and extending along a longitudinal axis of the plunger location bore; wherein the pump head comprises a main section and an extension section, wherein a portion of the plunger extends from the extension section, and a lower surface at an end of the plunger contacts the cam follower; wherein, in use, during a pumping stroke, rotation of the cam causes force to be transferred to the plunger via the cam follower, thereby causing the plunger to move along the plunger location bore and into a pumping chamber, to cause fuel within the pumping chamber to become pressurised; and wherein during a return stroke, a spring provided in a spring chamber surrounding the extension section of the pump head, and abutting a first spring seat and a second spring seat, maintains contact between the cam follower and the cam; the pumping mechanism further comprising a sealing assembly (180, 280) comprising a seal (182, 282) and a seal retainer (184, 284), said sealing assembly (180, 280) acting to prevent mixing of fuel which lubricates the plunger inside the plunger location bore, with oil which lubricates the cam follower and a lower part of the plunger extending below the seal, the seal (182, 282) being provided partially within the seal retainer (184, 284), and extending partially from the seal retainer (184, 284), towards the cam follower the sealing assembly (180, 280) further comprising retaining means to retain the sealing assembly (180, 280) on the pump head, characterised in that the retaining means comprises a lip provided on the seal which is located in a recess provided on an end section of the extension section of the pump head.
In a label printer mechanism, a method comprising: printing on a first label (30, 60) carried by a carrier web in the label printer mechanism to produce a first custom printed customer engagement label (30, 60), the first custom printed customer engagement label being printed with a first set of data; within the label printer mechanism, as the carrier web travels in a first direction affixing the first custom printed customer engagement label to a surface (32, 62) of a first personalized plastic card (34, 64); after the first custom printed customer engagement label is produced, moving the carrier in a second direction opposite the first direction, and printing on a second label (30, 60) in the label printer mechanism to produce a second custom printed customer engagement label (30, 60), the second custom printed customer engagement label being printed with a second set of data that differs from the first set of data; and within the label printer mechanism, as the carrier web travels in the first direction affixing the second custom printed customer engagement label to a surface (32, 62) of a second personalized plastic card (34, 64). printing on a first label (30, 60) carried by a carrier web in the label printer mechanism to produce a first custom printed customer engagement label (30, 60), the first custom printed customer engagement label being printed with a first set of data; within the label printer mechanism, as the carrier web travels in a first direction affixing the first custom printed customer engagement label to a surface (32, 62) of a first personalized plastic card (34, 64); after the first custom printed customer engagement label is produced, moving the carrier in a second direction opposite the first direction, and printing on a second label (30, 60) in the label printer mechanism to produce a second custom printed customer engagement label (30, 60), the second custom printed customer engagement label being printed with a second set of data that differs from the first set of data; and within the label printer mechanism, as the carrier web travels in the first direction affixing the second custom printed customer engagement label to a surface (32, 62) of a second personalized plastic card (34, 64).
A port controller, comprising: an input/output IO pin (GPIO4) coupleable to an IO pin of an other port controller; a receptacle supply pin configured to receive power from a voltage bus (V BUS) of a receptacle; a VDD supply pin coupleable to a VDD supply; a gate driver pin configured to drive a control node of a power path switch, the power path switch comprising an output coupled to a power system sink; a control input (I2C) for coupling to a control output of a processor which serves as a master; the port controller comprising a state machine configured to perform a dead-battery control DBC algorithm upon sensing a dead-battery DB condition, the DB condition comprising sensing a voltage on said receptacle supply pin and a lack of voltage on said VDD supply pin, said DBC algorithm configured to enable the communication with the other port controller to directly communicate with the other port controller via the IO pin (GPIO4) so that only one port controller (205, 210) takes control to provide power to the power system sink; the DBC algorithm comprising: sending a control signal to turn on said gate driver pin to close said power path switch to exclusively provide said power from the voltage bus (V BUS) to said power system sink. an input/output IO pin (GPIO4) coupleable to an IO pin of an other port controller; a receptacle supply pin configured to receive power from a voltage bus (V BUS) of a receptacle; a VDD supply pin coupleable to a VDD supply; a gate driver pin configured to drive a control node of a power path switch, the power path switch comprising an output coupled to a power system sink; a control input (I2C) for coupling to a control output of a processor which serves as a master; the port controller comprising a state machine configured to perform a dead-battery control DBC algorithm upon sensing a dead-battery DB condition, the DB condition comprising sensing a voltage on said receptacle supply pin and a lack of voltage on said VDD supply pin, said DBC algorithm configured to enable the communication with the other port controller to directly communicate with the other port controller via the IO pin (GPIO4) so that only one port controller (205, 210) takes control to provide power to the power system sink; the DBC algorithm comprising: sending a control signal to turn on said gate driver pin to close said power path switch to exclusively provide said power from the voltage bus (V BUS) to said power system sink.
Method for operating an electrical machine comprising a stator having a coil of electrical conductors, said coil comprising two coil ends that lie opposite one another, said method being characterized by the steps: - simultaneously determining vibration measurement values with which it is possible to determine the elliptic vibration modes of the two coil ends in dependence upon time; - determining the ellipse inclinations and the phase position of the elliptic vibration modes of the two coil ends; - determining critical operating states of the electrical machine in which the ellipse inclinations and the phase positions of the elliptic vibration modes of the two coil ends are essentially identical; - operating the electrical machine in such a manner that the critical operating states are avoided by means of varying the idle power of the electrical machine. - simultaneously determining vibration measurement values with which it is possible to determine the elliptic vibration modes of the two coil ends in dependence upon time; - determining the ellipse inclinations and the phase position of the elliptic vibration modes of the two coil ends; - determining critical operating states of the electrical machine in which the ellipse inclinations and the phase positions of the elliptic vibration modes of the two coil ends are essentially identical; - operating the electrical machine in such a manner that the critical operating states are avoided by means of varying the idle power of the electrical machine.
A method for manufacturing an object with a fibrous matrix consisting of depositing, onto a reception face (4', 21, 36) of a support (4, 20, 32), at least one fibrous pulp, at least comprising fibres and a carrier liquid, and consisting of removing at least a portion of the carrier liquid, with the reception face (4', 21, 36) being adapted or configured so that the carrier liquid does not naturally percolate through the support (4, 20, 32) without an external stress and so that the carrier liquid percolates through the support (4, 20, 32) when a controlled stress is applied to all or part of the pulp/support system, said method being characterised in that the part of the support forming the reception face (4', 21, 36) is at least porous and is at least partly formed by an isotropic or substantially isotropic material comprising an open-cell foam and/or an open-cell material at least partly obtained by particle agglomeration and exhibiting wettability with the carrier liquid such that the contact angle of a drop of the carrier liquid with the reception face is greater than or equal to 100°.
An apparatus for nucleic acids amplification, comprising: a support platform comprising one or more wells configured to hold a sample; a thin film disposed within the one or more wells; and a light source; wherein the light source is configured to be directed at the support platform such that exposed light from the light source generates light-to-heat conversion within the thin film and subsequent heating of the sample. a support platform comprising one or more wells configured to hold a sample; a thin film disposed within the one or more wells; and a light source; wherein the light source is configured to be directed at the support platform such that exposed light from the light source generates light-to-heat conversion within the thin film and subsequent heating of the sample.
A lens drive device, comprising a lens support, a coil winded at a periphery of the lens support, an upper cover arranged above the lens support, and a lower cover arranged below the lens support, a screening can is covered outside the lens support; wherein driving magnets are respectively provided on opposite two inner sidewalls of the screening can, a PCB board is provided on a sidewall at another side of the screening can; a Hall chip is provided on the PCB board; a Hall magnet back gasket and a Hall magnet are provided at corresponding positions of the lens support; spatially, the Hall magnet and the Hall chip are spaced to each other and are configured oppositely; and the PCB board, the Hall chip on the PCB board and the Hall magnet form a lens position detection unit, characterized in that a number of the driving magnets are two; two elongated driving magnets are respectively provided on two different inner circumferential sidewalls of the screening can; and the two elongated driving magnets are opposite to each other, the PCB board and the two elongated driving magnets are respectively provided on different inner circumferential sidewalls of the screening can, an opened notch portion is provided at an upper corner of an outer circumference of the lens support, and into the opened notch portion is accommodated the Hall magnet back gasket and the Hall magnet sequentially from inside to outside, the Hall magnet back gasket is made of a stainless steel high-magnetism material.
A humanized RS7 anti-Trop-2 antibody or antigen-binding fragment thereof conjugated to a cytotoxic agent, for use in a method of treating pancreatic cancer comprising: a) administering to a subject with pancreatic cancer the anti-Trop-2 antibody or antigen-binding fragment thereof conjugated to a cytotoxic agent, wherein the anti-Trop-2 antibody or fragment thereof comprises the light chain CDR sequences CDR1 (KASQDVSIAVA, SEQ ID NO: 7); CDR2 (SASYRYT, SEQ ID NO: 8); and CDR3 (QQHYITPLT, SEQ ID NO: 9) and the heavy chain CDR sequences CDR1 (NYGMN, SEQ ID NO: 10); CDR2 (WINTYTGEPTYTDDFKG, SEQ ID NO. 11) and CDR3 (GGFGSSYWYFDV, SEQ ID NO: 12), wherein the cytotoxic agent is SN-38 conjugated to the antibody or antigen-binding fragment by linker CL2A, wherein the structure of the immunoconjugate is MAb-CL2A-SN-38 and b) administering to said subject a PAM4 anti-pancreatic cancer mucin antibody or antigen- binding fragment thereof conjugated to a radionuclide, wherein the anti-pancreatic cancer mucin antibody or fragment thereof comprises the light complementarity determining region sequences CDR1 (SASSSVSSSYLY, SEQ ID NO: 1); CDR2 (STSNLAS, SEQ ID NO: 2); and CDR3 (HQWNRYPYT, SEQ ID NO: 3); and the heavy chain CDR sequences CDR1 (SYVLH, SEQ ID NO: 4); CDR2 (YINPYNDGTQYNEKFKG, SEQ ID NO: 5) and CDR3 (GFGGSYGFAY, SEQ ID NO: 6), and wherein the radionuclide is 90 Y. a) administering to a subject with pancreatic cancer the anti-Trop-2 antibody or antigen-binding fragment thereof conjugated to a cytotoxic agent, wherein the anti-Trop-2 antibody or fragment thereof comprises the light chain CDR sequences CDR1 (KASQDVSIAVA, SEQ ID NO: 7); CDR2 (SASYRYT, SEQ ID NO: 8); and CDR3 (QQHYITPLT, SEQ ID NO: 9) and the heavy chain CDR sequences CDR1 (NYGMN, SEQ ID NO: 10); CDR2 (WINTYTGEPTYTDDFKG, SEQ ID NO. 11) and CDR3 (GGFGSSYWYFDV, SEQ ID NO: 12), wherein the cytotoxic agent is SN-38 conjugated to the antibody or antigen-binding fragment by linker CL2A, wherein the structure of the immunoconjugate is MAb-CL2A-SN-38 and b) administering to said subject a PAM4 anti-pancreatic cancer mucin antibody or antigen- binding fragment thereof conjugated to a radionuclide, wherein the anti-pancreatic cancer mucin antibody or fragment thereof comprises the light complementarity determining region sequences CDR1 (SASSSVSSSYLY, SEQ ID NO: 1); CDR2 (STSNLAS, SEQ ID NO: 2); and CDR3 (HQWNRYPYT, SEQ ID NO: 3); and the heavy chain CDR sequences CDR1 (SYVLH, SEQ ID NO: 4); CDR2 (YINPYNDGTQYNEKFKG, SEQ ID NO: 5) and CDR3 (GFGGSYGFAY, SEQ ID NO: 6), and wherein the radionuclide is 90 Y.
An apparatus comprising at least one processor and at least one memory comprising computer code that, when executed by the at least one processor, causes the apparatus to perform the steps of: determining the occurrence of a change in System Information; determining whether or not the System Information was transmitted to a user equipment by at least one network apparatus during a time period immediately prior to determining said occurrence; and causing an indication of the occurrence of said change to be transmitted to the user equipment when it is determined that the System Information was transmitted to the user equipment within the time period. determining the occurrence of a change in System Information; determining whether or not the System Information was transmitted to a user equipment by at least one network apparatus during a time period immediately prior to determining said occurrence; and causing an indication of the occurrence of said change to be transmitted to the user equipment when it is determined that the System Information was transmitted to the user equipment within the time period.
A multi-layered motor vehicle pipeline, in particular, a motor vehicle temperature-control pipeline for fluid temperature-control and cooling media, wherein the pipeline comprises at least three layers (2, 4, 6), particularly with the following layer structure from the outside to the inside: - an outer layer, wherein this outer layer consists of at least 98 % by weight of HDPE or of a thermoplastic vulcanisate, - an intermediate layer of polypropylene, - an inner layer of polyethylene or of a thermoplastic vulcanisate, wherein the total layer thickness or the total wall thickness of the pipeline is 0.5 to 3.0 mm, in particular, 0.7 to 2.5 mm, preferably 0.8 to 2 mm and more preferably, 0.85 to 1.8 mm. - an outer layer, wherein this outer layer consists of at least 98 % by weight of HDPE or of a thermoplastic vulcanisate, - an intermediate layer of polypropylene, - an inner layer of polyethylene or of a thermoplastic vulcanisate,
Method for operating a cable car system having at least two cable car stations and having at least one self-contained haul cable extending between the cable car stations, to which at least one cable car vehicle is coupled, or having at least one suspension cable, on which at least one cable car vehicle is moved by means of at least one traction cable, wherein the at least one cable car vehicle is moved between the cable car stations by means of the haul cable or the traction cable, and having at least one cable car support over which the haul cable or the suspension cable and the traction cable are guided, wherein the travelling positions of the at least one cable car vehicle along the travelling routes are determined by means of at least one measuring device, and wherein the travelling positions of the at least one cable car vehicle along the travelling routes are transmitted to a control unit and are processed and stored therein, characterized in that a signal is input into the control unit by means of an input device located on the at least one cable car support such that maintenance or assembly work and the like are carried out on this cable car support, wherein, when a cable car vehicle approaches the cable car support, the drive for moving the at least one cable car vehicle is regulated by the control unit in such a way that in the region of the cable car support the cable car vehicle is moved at a speed which is greatly reduced in relation to the operating speed or stopped.
A device for appending a CRC to a data packet, comprising: a splitter for splitting a data word into a plurality of paths; a plurality of cyclic redundancy check units (110A-110N), wherein each of the cyclic redundancy check units is for processing a respective one of the paths, wherein each of the cyclic redundancy check units comprises: a first output port (113A-113N) for outputting a cyclic redundancy check value for a packet ending within the cyclic redundancy check unit; and a second output port (112A-112N) for outputting a cyclic redundancy check value for a packet starting or ongoing within the cyclic redundancy check unit. a splitter for splitting a data word into a plurality of paths; a plurality of cyclic redundancy check units (110A-110N), wherein each of the cyclic redundancy check units is for processing a respective one of the paths, wherein each of the cyclic redundancy check units comprises: a first output port (113A-113N) for outputting a cyclic redundancy check value for a packet ending within the cyclic redundancy check unit; and a second output port (112A-112N) for outputting a cyclic redundancy check value for a packet starting or ongoing within the cyclic redundancy check unit. a first output port (113A-113N) for outputting a cyclic redundancy check value for a packet ending within the cyclic redundancy check unit; and a second output port (112A-112N) for outputting a cyclic redundancy check value for a packet starting or ongoing within the cyclic redundancy check unit.