mhurhangee/ep-ind-claims huggingface dataset:
A method, for use in communications, comprising - providing a plurality of transmission opportunities (401, 402; 501, 502; 601, 602, 701) for data to be transmitted, wherein a transmission opportunity in the plurality of transmission opportunities (401, 402; 501, 502; 601, 602, 701) is configured to comprise a payload portion for payload data; - transmitting the payload portion in the transmission opportunity, wherein the payload portion comprises a beginning portion from start of the payload portion and a completion portion to completion of the payload portion; characterized by - transmitting control information (580; 630; 730) in the transmission opportunity after transmitting the beginning portion and before transmitting the completion portion, wherein the control information (580; 630; 730) is provided as a message informing on a quantity remaining to completion of transmitting the payload portion. - providing a plurality of transmission opportunities (401, 402; 501, 502; 601, 602, 701) for data to be transmitted, wherein a transmission opportunity in the plurality of transmission opportunities (401, 402; 501, 502; 601, 602, 701) is configured to comprise a payload portion for payload data; - transmitting the payload portion in the transmission opportunity, wherein the payload portion comprises a beginning portion from start of the payload portion and a completion portion to completion of the payload portion; characterized by - transmitting control information (580; 630; 730) in the transmission opportunity after transmitting the beginning portion and before transmitting the completion portion, wherein the control information (580; 630; 730) is provided as a message informing on a quantity remaining to completion of transmitting the payload portion.
Pick-up apparatus of an agricultural harvesting machine, in particular a self-loading forage box, a press, an attachment of a field chopper or a merger, in order to pick up harvested crop from an underlying surface, having a frame or carrier, having pick-up tines which are spaced apart from one another and are drivable along a movement path, having scrapers which are arranged between the pick-up tines and delimit slots in which the pick-up tines run, and the pick-up tines are guided rotating along their path of movement at the scrapers, and the scrapers each have a bow part and a holding part, the scrapers act on the frame or on the carrier via the holding part, the bow part of the respective scraper acts on the holding part of the respective scraper, the pick-up tines are guided along a first portion of their movement path on the bow part and along a second portion of their movement path on the holding part, wherein the bow part of the respective scraper is fastened by a first, preferably lower, portion to the holding part of the respective scraper, the bow part of the respective scraper is likewise fastened by a second, preferably upper, portion to the holding part of the respective scraper, wherein the bow part of the respective scraper is fastened releasably by the second portion to the holding part of the respective scraper via a rapid closure, characterized in that the bow part of the respective scraper is nonreleasably fastened by the first portion to the holding part of the respective scraper. having a frame or carrier, having pick-up tines which are spaced apart from one another and are drivable along a movement path, having scrapers which are arranged between the pick-up tines and delimit slots in which the pick-up tines run, and the pick-up tines are guided rotating along their path of movement at the scrapers, and the scrapers each have a bow part and a holding part, the scrapers act on the frame or on the carrier via the holding part, the bow part of the respective scraper acts on the holding part of the respective scraper, the pick-up tines are guided along a first portion of their movement path on the bow part and along a second portion of their movement path on the holding part, wherein the bow part of the respective scraper is fastened by a first, preferably lower, portion to the holding part of the respective scraper, the bow part of the respective scraper is likewise fastened by a second, preferably upper, portion to the holding part of the respective scraper, wherein the bow part of the respective scraper is fastened releasably by the second portion to the holding part of the respective scraper via a rapid closure, characterized in that the bow part of the respective scraper is nonreleasably fastened by the first portion to the holding part of the respective scraper.
A base station device comprising: a signal transmission unit which is configured to transmit a signal including information, which specifies an effective bandwidth and a carrier frequency of a second downlink carrier different from a first downlink carrier, to a mobile station device with use of RRC signaling via a physical downlink shared channel on the first downlink carrier, wherein the first downlink carrier and the second downlink carrier have different carrier frequencies, and each of the first downlink carrier and the second downlink carrier has its own downlink effective bandwidth; and a communication unit which is configured to communicate with the mobile station device by aggregate use of both the first downlink carrier and the second downlink carrier. a signal transmission unit which is configured to transmit a signal including information, which specifies an effective bandwidth and a carrier frequency of a second downlink carrier different from a first downlink carrier, to a mobile station device with use of RRC signaling via a physical downlink shared channel on the first downlink carrier, wherein the first downlink carrier and the second downlink carrier have different carrier frequencies, and each of the first downlink carrier and the second downlink carrier has its own downlink effective bandwidth; and a communication unit which is configured to communicate with the mobile station device by aggregate use of both the first downlink carrier and the second downlink carrier.
A storage system for storing product items, comprising; a grid structure; a number of storage bins configured to be stored in vertical compartments in the grid structure, where each storage bin is configured to contain at least one product item; where the storage system comprises a picking and/or supply station; the storage system comprises a conveyor system configured to convey a storage bin from a first position to a second position and further to a third position, where the second position is a picking and/or supply position of the picking and/or supply station; the conveyor system comprises a first, tiltable conveyor configured to convey the storage bin from the first position to the third position via the second position; where the tiltable conveyor is configured to receive the storage bin at a first height of the first position, to move the storage bin to a second height of the second position and to deliver the storage bin at a third height of the third position, where the first height, the second height and the third height are different from each other; characterized in that the storage system comprises a vehicle configured to move horizontally on top of the storage grid; the vehicle comprises a lifting device configured to lower a storage bin vertically from the top of the grid structure to the first position and configured to elevate a storage bin vertically from the third position to the top of the grid structure; where the first and third positions (P1, P3) are provided vertically below two different vertical compartments (22b, 22c) of the grid structure. a grid structure; a number of storage bins configured to be stored in vertical compartments in the grid structure, where each storage bin is configured to contain at least one product item; where the storage system comprises a picking and/or supply station; the storage system comprises a conveyor system configured to convey a storage bin from a first position to a second position and further to a third position, where the second position is a picking and/or supply position of the picking and/or supply station; the conveyor system comprises a first, tiltable conveyor configured to convey the storage bin from the first position to the third position via the second position; where the tiltable conveyor is configured to receive the storage bin at a first height of the first position, to move the storage bin to a second height of the second position and to deliver the storage bin at a third height of the third position, where the first height, the second height and the third height are different from each other; characterized in that the storage system comprises a vehicle configured to move horizontally on top of the storage grid; the vehicle comprises a lifting device configured to lower a storage bin vertically from the top of the grid structure to the first position and configured to elevate a storage bin vertically from the third position to the top of the grid structure; where the first and third positions (P1, P3) are provided vertically below two different vertical compartments (22b, 22c) of the grid structure.
A device for feeding yarn to a textile machine, comprising a main body defining an entry portion and an exit portion for yarn; a rotatable drum for winding said yarn originating from said entry portion and a motor connected to said drum for rotating it; a control member active at least on said motor to regulate its torque and velocity; the device being characterized by said exit portion being selectively switchable between a first configuration in which it defines a free exit section for the yarn having a substantially annular shape, through which the exiting yarn undergoes complete revolutions about a rotation axis of the drum and defines a closed path in the intersection of the exiting yarn with a plane perpendicular to the rotation axis, and a second configuration in which it defines a limited, obstructed exit section, through which the exiting yarn undergoes incomplete revolutions about the rotation axis of the drum and defines an open path; said control member controlling and regulating the velocity of said motor for the purpose of maintaining a stock of yarn on the drum when in the first configuration and instead maintaining the tension constant when in the second configuration.
Dental apparatus tank device, in particular dental blasting apparatus tank device, with at least one base body unit, characterised by at least one sensor unit, which is at least partially integrated into the base body unit and is implemented by a pressure sensor unit that is embodied as a manometer, wherein the sensor unit is at least partially encompassed by the base body unit.
An interlocking data safe conversion method for formal verification, comprising the steps of: providing two translators (S103, S203, S303) developed by adopting different programming methods and programming languages, the translators each configured to convert an input file into a format file capable of being identified by a formal verification tool; providing an input file (S101, S201, S301); using the translators (S103, S202, S302) to convert the input file to produce two output files (S104, S203, S303); characterized in that the method comprises the step of: comparing the output files (S105, S204, S304) to realise detection process failure, so that safe conversion of data is guaranteed; and characterized in that the steps are carried out for converting: input files in the form of equipment interface information excel tables, interlocking information excel tables and station yard description data to LCF format files for comparison; and, input files in the form of interlocking Boolean logic data into HHL format files for comparison. providing two translators (S103, S203, S303) developed by adopting different programming methods and programming languages, the translators each configured to convert an input file into a format file capable of being identified by a formal verification tool; providing an input file (S101, S201, S301); using the translators (S103, S202, S302) to convert the input file to produce two output files (S104, S203, S303); characterized in that the method comprises the step of: comparing the output files (S105, S204, S304) to realise detection process failure, so that safe conversion of data is guaranteed; and characterized in that the steps are carried out for converting: input files in the form of equipment interface information excel tables, interlocking information excel tables and station yard description data to LCF format files for comparison; and, input files in the form of interlocking Boolean logic data into HHL format files for comparison. comparing the output files (S105, S204, S304) to realise detection process failure, so that safe conversion of data is guaranteed; and characterized in that the steps are carried out for converting: input files in the form of equipment interface information excel tables, interlocking information excel tables and station yard description data to LCF format files for comparison; and, input files in the form of interlocking Boolean logic data into HHL format files for comparison. input files in the form of equipment interface information excel tables, interlocking information excel tables and station yard description data to LCF format files for comparison; and, input files in the form of interlocking Boolean logic data into HHL format files for comparison.
A susceptor assembly for inductively heating an aerosol-forming substrate, the susceptor assembly comprising a multi-layer susceptor tube defining a cavity for receiving an induction coil inside the susceptor tube, wherein the multi-layer susceptor tube comprises an inner tubular layer which consists of a first electrically conductive material, and an outer tubular layer surrounding the inner tubular layer which consists of a second electrically conductive material, characterised in that an electrical resistivity of the first electrically conductive material is larger than an electrical resistivity of the second electrically conductive material.
A motorized seatbelt retractor comprising, a motor which generates a rotational torque for driving a seatbelt retractor; a first electric control unit (2; 5) being provided with a first micro computer for controlling a rotational speed of said motor; and a second electric control unit (1; 4) being provided with a second micro computer which can communicate with an on-board controller, characterized in that said second micro computer comprises a driving mode selecting portion which selects one of driving modes for controlling said motor based on a signal from said on-board controller or a sensor; and said first micro computer comprises a motor control portion which selects one of driving modes stored previously based on the selecting result of said driving mode selecting portion, and controls a driving current supplied to said motor based on the selected driving mode.
An apparatus for depleting a tank, comprising a head having a hose port configured to connect a suction hose thereto, a first suction opening, an inner chamber connecting said hose port and said first suction opening, and a pressurizing port configured to connect a pressure hose thereto, wherein the head has a propulsion opening provided on a rear wall of the head and opening to the outside of the head, characterized in that the head has a duct system separate from the inner chamber and connecting said pressurizing port with said propulsion opening.
A powder comprising pierced particles for use as an active component of a metal ion battery, the pierced particles each comprising a particle body and at least one passage extending through the particle body; wherein the pierced particles have an average aspect ratio of at least 3:1, an average thickness of no more than 3 μm, and the passages have an average width of at least 30 nm; and wherein the pierced particles comprise an electroactive material selected from silicon and germanium.
Method for positioning a movably arranged panel, wherein the moveable panel is operatively coupled through a drive assembly to a drive motor for moving the moveable panel, the method comprising the steps of a. actuating the drive motor to move the moveable panel to a desired stop position; b. determining a panel braking distance based on a physical property of the moveable panel and a physical property of at least one of the drive assembly and the drive motor, wherein the panel braking distance corresponds to a distance covered by the moveable panel in a period of time starting from a decision to switch off the drive motor until stand-still of the moveable panel; c. determining an actual position of the moveable panel; d. determining an expected stop position by adding the panel braking distance and the present position; and e. switching off the drive motor if the expected stop position is within a predetermined range around the desired stop position and repeating steps b, c and d if the expected stop position is outside said predetermined range; and characterised in that a control loop time corresponds to a period of time for performing steps b, c and d and wherein the method comprises a further step f, performed prior to step e, of determining said predetermined range based on the control loop time and the instant speed of the moveable panel. a. actuating the drive motor to move the moveable panel to a desired stop position; b. determining a panel braking distance based on a physical property of the moveable panel and a physical property of at least one of the drive assembly and the drive motor, wherein the panel braking distance corresponds to a distance covered by the moveable panel in a period of time starting from a decision to switch off the drive motor until stand-still of the moveable panel; c. determining an actual position of the moveable panel; d. determining an expected stop position by adding the panel braking distance and the present position; and e. switching off the drive motor if the expected stop position is within a predetermined range around the desired stop position and repeating steps b, c and d if the expected stop position is outside said predetermined range; and
A polymer composition comprising a) one stage comprising a polymer having a glass transition temperature of less than 10°C measured by thermo mechanical analysis b) one stage comprising a polymer having a glass transition temperature of at least 60°C measured by thermo mechanical analysis and c) and a polymer having a glass transition temperature of at least 30°C measured by thermo mechanical analysis characterized in that at least the component a) and the component b) of composition are part of a multistage polymer, and characterized in that the polymer has a mass average molecular weight Mw of at least 100 OOOg/mol and below 800 OOOg/mol as measured by size exclusion chromatography and that the component c) represents at most 40wt% and more than 10wt% of the composition based on a) b) and c). a) one stage comprising a polymer having a glass transition temperature of less than 10°C measured by thermo mechanical analysis b) one stage comprising a polymer having a glass transition temperature of at least 60°C measured by thermo mechanical analysis and c) and a polymer having a glass transition temperature of at least 30°C measured by thermo mechanical analysis
A method for recovering a caustic solution from a carbonate solution, the method comprising: receiving an alkaline carbonate solution that comprises between 0.1M (moles per liter of solution) to 4.0M hydroxide and between 0.1M to 4.1M carbonate; reacting, in a slaking process, quicklime (CaO) and a low carbonate content fluid to yield a slurry of primarily slaked lime (Ca 2); reacting the Ca 2 slurry and the alkaline carbonate solution to grow calcium carbonate (CaCO 3) crystal aggregates of 0.0005 mm 3 to 5 mm 3 in volume in a fluidized-bed reactive crystallizer; conditioning the CaCO 3 crystal aggregates; and calcining the conditioned CaCO 3 crystal aggregates to yield CaO and carbon dioxide (CO 2). receiving an alkaline carbonate solution that comprises between 0.1M (moles per liter of solution) to 4.0M hydroxide and between 0.1M to 4.1M carbonate; reacting, in a slaking process, quicklime (CaO) and a low carbonate content fluid to yield a slurry of primarily slaked lime (Ca 2); reacting the Ca 2 slurry and the alkaline carbonate solution to grow calcium carbonate (CaCO 3) crystal aggregates of 0.0005 mm 3 to 5 mm 3 in volume in a fluidized-bed reactive crystallizer; conditioning the CaCO 3 crystal aggregates; and calcining the conditioned CaCO 3 crystal aggregates to yield CaO and carbon dioxide (CO 2).
A modified metformin compound selected from the group consisting of mito-metformin, mito-phenformin, mito-PEG-metformin, mito-cy-metformin or pyrformin, having the following structure: n = 1 - Mito-Metformin-C 2 5 - Mito-Metformin-C 6 9 - Mito-Metformin-C 10 11 - Mito-Metformin-C 12. Mito 12 -Metformin. Mito 10 -Metformin. Mito 6 -Metformin. Mito 2 -Metformin. Mito-Phenformin Mito-Phen 2 formin Pyrformin (n=1) Pyr 6 formin (n=5). Mito-PEG 2 -Metformin (n=1) Mito-PEG 3 -Metformin (n=2). or Mito-Cy-Metformin