mhurhangee/ep-ind-claims huggingface dataset:
A method of storing at least one counter (Ci) into a flash memory, wherein each page (Pl) of the memory assigned to the storage of the counter(s) comprises: header data including a first word intended to contain a number of the page, one word (Ci) per counter to store a first value thereof, and a second word intended to contain an error control code calculated by taking into account first values; frames (Fj) all having a same number of words, each frame being intended to contain a value independent from the frame data, and at least one occurrence of an identifier (i) of a counter, each written frame representing an increment or decrement of the value of the concerned counter with respect to its first value; wherein, said header data are written before a first frame (Fj) is written into the page (Pl); the current value of a counter is calculated by updating the first value of this counter according to all the frames (Fj) in the page which comprise the identifier (i) of this counter; and the initialization of a new page goes along with a writing of the header data with, as a first value, the current values of the counters calculated based on the previous page. header data including a first word intended to contain a number of the page, one word (Ci) per counter to store a first value thereof, and a second word intended to contain an error control code calculated by taking into account first values; frames (Fj) all having a same number of words, each frame being intended to contain a value independent from the frame data, and at least one occurrence of an identifier (i) of a counter, each written frame representing an increment or decrement of the value of the concerned counter with respect to its first value; wherein, said header data are written before a first frame (Fj) is written into the page (Pl); the current value of a counter is calculated by updating the first value of this counter according to all the frames (Fj) in the page which comprise the identifier (i) of this counter; and the initialization of a new page goes along with a writing of the header data with, as a first value, the current values of the counters calculated based on the previous page.
Safety brake (20, 120) of an escalator or a moving walkway, which safety brake (20, 120) includes at least one locking member (21, 121), which is arranged so as to adopt a release setting or a locking setting by means of a pivot movement about a pivot axle (22, 122), wherein the locking member (21, 121) in the locking setting engages in at least one movable part (4, 6, 17, 18) of the escalator or the moving walkway and locks it, characterised in that the safety brake (20, 120) comprises a linear guide (23, 123) by which the locking member (21, 121) is linearly guided relative to the pivot axle (22, 122) between a first position (25, 125) and a second position (26, 126) and the linear guide (23, 123) is mounted on a stationary part (5, 52) of the escalator or the moving walkway by the pivot axle (22, 122).
A milking parlour comprising at least first and second robotic manipulation devices (100,200) and a plurality of milking stalls provided on a platform moveable relative to the robotic manipulation devices (100,200); wherein the at least first and second robotic manipulation devices (100,200) are positioned so as to be capable of simultaneously servicing neighbouring milking stalls on the platform; the parlour being characterised in that each one of the at least first and second robotic manipulation devices (100,200) is operable, by an electronic control system, to attach, to the same animal in a milking stall, a subset of a total required number of teat cups to be attached to the teats of said animal in the milking stall such that any particular animal has teat cups attached to its teats by at least two robotic manipulation devices (100,200).
An electrical power converter, comprising: an inverter with semiconductor switches (S1, S2, S3, S4); a resonant circuit coupled with the inverter; a controller for switching the semiconductor switches (S1, S2, S3, S4) of the inverter to switching states; wherein the controller is adapted for periodically switching the inverter between switching states, such that a periodic resonant current (i res) is generated in the resonant circuit, the switching states comprising a free-wheeling state for short-circuiting the resonant circuit; wherein the switching states further comprise at least one of: a power forward state, in which a DC voltage (+Vdc) is applied to the resonant circuit, which has the same polarity as the resonant current (ires); a power backward state, in which a DC voltage (+Vdc) is applied to the resonant circuit that has the opposite polarity as the resonant current (ires); wherein the controller is adapted for determining a zero crossing of the resonant current (i res) as specific periodic point; characterized in that the controller is adapted for switching the inverter to a power forward state or to a power backward state at a predefined first time period (ts) before the zero crossing; the controller is adapted for switching the inverter to the free-wheeling switching state at a predefined second time period after the zero crossing and the controller is adapted for applying during a low-power mode the switching states such that an overall power feed backward from the resonant circuit to an input of the inverter is nearly balanced with an overall power feed forward from the input of the inverter to the resonant circuit, such that only a small total amount of power may be transferred to or from the resonant circuit. an inverter with semiconductor switches (S1, S2, S3, S4); a resonant circuit coupled with the inverter; a controller for switching the semiconductor switches (S1, S2, S3, S4) of the inverter to switching states; a power forward state, in which a DC voltage (+Vdc) is applied to the resonant circuit, which has the same polarity as the resonant current (ires); a power backward state, in which a DC voltage (+Vdc) is applied to the resonant circuit that has the opposite polarity as the resonant current (ires); wherein the controller is adapted for determining a zero crossing of the resonant current (i res) as specific periodic point;
A method for mathematically modeling the performance characteristics of an aircraft comprising: computing a thrust-minus-drag mathematical model from measured fuel flow data, measured air data, measured attitude and acceleration data and pilot entered data; computing a thrust estimate from data measured from at least one engine sensor; and adding the thrust estimate to the thrust-minus-drag mathematical model, the adding preventing a zero thrust estimate value during cruise. computing a thrust-minus-drag mathematical model from measured fuel flow data, measured air data, measured attitude and acceleration data and pilot entered data; computing a thrust estimate from data measured from at least one engine sensor; and adding the thrust estimate to the thrust-minus-drag mathematical model, the adding preventing a zero thrust estimate value during cruise.
Plant for the extraction of juice from vegetable raw material, in particular for the extraction of must from grape berries, of the type comprising at least two presses (12; 14, 16), provided with an inlet duct (30a; 30b, 30c) and a first outlet duct (36; 38, 40) for the extracted juice and a second outlet duct or discharge opening (54; 56, 58) for the solid residues or lees of the starting vegetable raw material, said presses (12; 14, 16) being of the membrane type and being provided with draining holes communicating with said first outlet duct (36; 38, 40), said inlet duct (30a; 30b, 30c) being connected both to a hopper (18; 20, 22) for loading and supplying said vegetable raw material and to a washing water supply, characterized in that said at least two presses (12; 14, 16) are mounted in parallel with each other and on said inlet duct (30b, 30c) of the second (14, 16) of said at least two presses (12; 14, 16) valve means (32, 34) are provided which are movable between two positions, a first position wherein the inlet duct (30b, 30c) of said second press (14, 16) is connected to said loading and supply hopper of said first press and a second position wherein said second press (14, 16) is connected to a loading and supply hopper (20, 22) for vegetable raw material different from that of said first press.
A ballast water treatment apparatus comprising: a tank; a spray nozzle which supplies ballast water in the form of droplets into the tank; and a gas circulation unit which supplies inert gas into the tank, and sucks inert gas that is not dissolved in the ballast water in the tank, wherein the gas circulation unit is provided to supply the sucked inert gas back into the tank, characterized in that the gas circulation unit includes a first gas supply line which supplies inert gas to the spray nozzle, a second gas supply line which supplies inert gas in the form of bubbles into the tank, and a gas discharge line which sucks inert gas in the tank, and the gas discharge line is provided to supply the sucked inert gas into the first gas supply line and to supply the sucked inert gas into the second gas supply line and to discharge the sucked inert gas to the outside, and the gas circulation unit includes a gas supply source which supplies inert gas into both the first gas supply line and the second gas supply line, a circulation pump which circulates the inert gas, and a bubble generator which is provided in the second gas supply line, and the spray nozzle is provided to spray the ballast water into an upper region in the tank, the gas discharge line is provided to suck the inert gas in the upper region in the tank by an operation of the circulation pump, and the bubble generator is positioned in a lower region in the tank, and electronic expansion valves 336 and 337 are provided in the first and second gas supply lines 331 and 332, respectively. a tank; a spray nozzle which supplies ballast water in the form of droplets into the tank; and a gas circulation unit which supplies inert gas into the tank, and sucks inert gas that is not dissolved in the ballast water in the tank, wherein the gas circulation unit is provided to supply the sucked inert gas back into the tank, characterized in that the gas circulation unit includes a first gas supply line which supplies inert gas to the spray nozzle, a second gas supply line which supplies inert gas in the form of bubbles into the tank, and a gas discharge line which sucks inert gas in the tank, and the gas discharge line is provided to supply the sucked inert gas into the first gas supply line and to supply the sucked inert gas into the second gas supply line and to discharge the sucked inert gas to the outside, and the gas circulation unit includes a gas supply source which supplies inert gas into both the first gas supply line and the second gas supply line, a circulation pump which circulates the inert gas, and a bubble generator which is provided in the second gas supply line, and the spray nozzle is provided to spray the ballast water into an upper region in the tank, the gas discharge line is provided to suck the inert gas in the upper region in the tank by an operation of the circulation pump, and the bubble generator is positioned in a lower region in the tank, and electronic expansion valves 336 and 337 are provided in the first and second gas supply lines 331 and 332, respectively.
An antioxidant eye drop composition consisting essentially of: between 0.1 wt% and 5 wt% ethyl pyruvate; between 0.1 wt% and 5 wt% resveratrol; between 0.1 wt% and 5 wt% astaxanthin; between 0.1 wt% and 5 wt% green tea extract containing (-)Epigallocatechin gallate; and the balance being a carbomer gel carrier, wherein the carbomer gel carrier consists essentially of: 0.4 wt% Carbopol 980 NF; 5.7 wt% sorbitol; 0.01 wt% cetrimide; 0.01 wt% EDTA; and the balance being deionized water; wherein the pH of the eye drop composition is adjusted to between 7.0 and 7.4 with effective amounts of sodium chloride and sodium hydroxide. between 0.1 wt% and 5 wt% ethyl pyruvate; between 0.1 wt% and 5 wt% resveratrol; between 0.1 wt% and 5 wt% astaxanthin; between 0.1 wt% and 5 wt% green tea extract containing (-)Epigallocatechin gallate; and 0.4 wt% Carbopol 980 NF; 5.7 wt% sorbitol; 0.01 wt% cetrimide; 0.01 wt% EDTA; and the balance being deionized water;
An automatic leveling method in an automatic leveling device having only one tilt sensor provided on a leveling base plate, comprising: an auxiliary leveling step and a main leveling step, wherein said auxiliary leveling step entails changing an inclination of said leveling base plate following a predetermined searching route that is defined by successive inclinations, so as to bring said leveling base plate from a condition in which no tilt detecting signal reflecting said tilt sensor's inclination is obtained from said tilt sensor into a condition in which a tilt detecting signal reflecting said tilt sensor's inclination is obtained from said tilt sensor, and wherein said main leveling step entails leveling said leveling base plate horizontally based on the tilt detecting signal from said tilt sensor.
A method of removing particulate material or other contaminants generated during the manufacturing process from a surface of a substrate, the method comprising exposing the surface to a non-aqueous liquid, wherein the surface is a first electrode, a second electrode and/or an ion conductor layer of an electrochromic device and has lithium inserted into it, wherein the non-aqueous liquid is a fluorocarbon, hydrofluorocarbon, or a non-aqueous surfactant, and wherein the particulate material has a size in a range of 0.1 micron to 1000 microns.
Compound of formula (I'): wherein: - n is 0 and X is chosen from - Ar is a benzyl substituted at the meta-position by a C 1 to C 8 alkoxy group, advantageously a C 1 to C 4 alkoxy group, preferably a methoxy group, or a pharmaceutically acceptable salt thereof, or a compound of formula (I'), wherein - n is 1 and X is - Ar is a phenyl substituted at the meta-position by a fluor, said compound corresponding to formula (Ib): or a pharmaceutically acceptable salt thereof, or a compound of formula (I'), wherein - n is 1 and X is said compound corresponding to formula, - Ar is a phenyl substituted at para position by said compound corresponding to formula (Ic): or a pharmaceutically acceptable salt thereof. - n is 0 and X is chosen from - Ar is a benzyl substituted at the meta-position by a C 1 to C 8 alkoxy group, advantageously a C 1 to C 4 alkoxy group, preferably a methoxy group, or a pharmaceutically acceptable salt thereof, or a compound of formula (I'), wherein - n is 1 and X is - Ar is a phenyl substituted at the meta-position by a fluor, said compound corresponding to formula (Ib): or a pharmaceutically acceptable salt thereof, or a compound of formula (I'), wherein - n is 1 and X is said compound corresponding to formula, - Ar is a phenyl substituted at para position by said compound corresponding to formula (Ic):
A polypeptide having proline-specific endoprotease activity, selected from the group consisting of i. a polypeptide comprising a mature polypeptide sequence of SEQ ID NO: 2; ii. a polypeptide that has least 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% identity to the mature polypeptide sequence of SEQ ID NO: 2; iii. a polypeptide encoded by a nucleic acid that has at least 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or 100% identity to a mature polypeptide coding sequence of SEQ ID NO: 1, wherein the mature polypeptide sequence of SEQ ID NO: 2 comprises amino acids 36 to 526, amino acids 37 to 526, amino acids 39 to 526, amino acids 40 to 526, or amino acids 41 to 526 of SEQ ID NO: 2, wherein methionine at position 1 of SEQ ID NO: 2 is counted as 1, and wherein the polypeptide has at least 50% residual activity after the polypeptide has been kept at a temperature of at least 70°C for 15 min, wherein the activity is measured with Acetyl AlaAlaPro-para-nitroalinine (Ac-AAP-pNA) as a substrate. i. a polypeptide comprising a mature polypeptide sequence of SEQ ID NO: 2; ii. a polypeptide that has least 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% identity to the mature polypeptide sequence of SEQ ID NO: 2; iii. a polypeptide encoded by a nucleic acid that has at least 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or 100% identity to a mature polypeptide coding sequence of SEQ ID NO: 1,
A power supply system for an electric powered vehicle on which an electric motor for driving the vehicle is mounted, comprising: a power control unit connected between a first power line and said electric motor, and configured to control driving of said electric motor; a first power storage device and a second power storage device connected in parallel to said first power line; a first switch connected between said first power storage device and said first power line; and a second switch connected between said second power storage device and said first power line; characterized by a third switch (CHR1, CHR2) disposed between a second power line supplied with charging electric power for charging said first and second power storage devices, and said first power storage device and said second power storage device; and a control unit for controlling ON and OFF states of said first to third switches, so as to selectively form any of a first power feed path formed by connecting each of said first and second power storage devices to said first power line, and a second power feed path (PB1, PB2) formed by connecting, to said first power line, one of said first and second power storage devices connected in parallel when said third switch is turned ON. a power control unit connected between a first power line and said electric motor, and configured to control driving of said electric motor; a first power storage device and a second power storage device connected in parallel to said first power line; a first switch connected between said first power storage device and said first power line; and a second switch connected between said second power storage device and said first power line; characterized by a third switch (CHR1, CHR2) disposed between a second power line supplied with charging electric power for charging said first and second power storage devices, and said first power storage device and said second power storage device; and a control unit for controlling ON and OFF states of said first to third switches, so as to selectively form any of a first power feed path formed by connecting each of said first and second power storage devices to said first power line, and a second power feed path (PB1, PB2) formed by connecting, to said first power line, one of said first and second power storage devices connected in parallel when said third switch is turned ON.
A method, implemented by a wireless transmit/receive unit, WTRU, configured to manage a plurality of downlink, DL, bandwidth parts, BWPs, including an initial/default DL BWP, the method comprising: receiving information related to a first channel occupancy time, COT; selecting one or more active DL BWPs for the WTRU among the plurality of DL BWPs for the first COT based on the received information; receiving information indicating an inactivity timer applicable for the one or more active DL BWPs; starting the inactivity timer when the first COT begins; receiving first downlink control information, DCI, on the one or more active DL BWPs during the first COT; pausing the inactivity timer when the first COT ends; starting the inactivity timer when a second COT begins; deactivating the one or more active DL BWPs and activating the default BWP based on the inactivity timer expiring during the second COT; and after activating the default BWP, receiving second DCI on the default BWP during a third COT, wherein the second COT is later than the first COT, and the third COT is later than the second COT. receiving information related to a first channel occupancy time, COT; selecting one or more active DL BWPs for the WTRU among the plurality of DL BWPs for the first COT based on the received information; receiving information indicating an inactivity timer applicable for the one or more active DL BWPs; starting the inactivity timer when the first COT begins; receiving first downlink control information, DCI, on the one or more active DL BWPs during the first COT; pausing the inactivity timer when the first COT ends; starting the inactivity timer when a second COT begins; deactivating the one or more active DL BWPs and activating the default BWP based on the inactivity timer expiring during the second COT; and after activating the default BWP, receiving second DCI on the default BWP during a third COT, wherein the second COT is later than the first COT, and the third COT is later than the second COT.
Capping system for a gully for draining traffic areas, in particular for a road gully, comprising a cap having a frame and a grate that can be inserted into the frame, wherein the frame is rectangular at least in sections, wherein the capping system has a separate adapter element which, when installed, is arranged between the frame and a drainage body which is circular in cross-section at least in sections, wherein the adapter element comprises a first region and a second region, wherein the first region is adapted to receive the frame, and the second region is adapted to extend into the drainage body at least in sections, characterized in that a collar is arranged on the upper edge of the frame in the installed state, which extends away from the frame, wherein the collar has a profile comprising a plurality of extensions arranged in rows and perpendicular to the collar, wherein the frame and the collar have a border extending in the direction of the profile and aligned with the profile in a plane.
A sounding reference signal, SRS, configuration method, comprising: determining, by a base station, a movement speed of user equipment, UE; determining, by the base station based on the movement speed of the UE, a UE-specific SRS subframe configuration set in a plurality of UE-specific SRS subframe configuration sets corresponding to a used cell-specific SRS subframe configuration set, and determining a UE-specific SRS subframe configuration parameter in the determined UE-specific subframe configuration set, wherein the UE-specific SRS subframe configuration parameter is used to indicate a subframe used to send an SRS; and sending, by the base station, the UE-specific SRS subframe configuration parameter and identification information of the UE-specific subframe configuration set to the UE, the method further comprising: sending, by the base station, a quantity L 1 to the UE, wherein L 1 is a maximum quantity of symbols that are in a subframe and that are used to send an SRS, and L 1 is a positive integer greater than 1. determining, by a base station, a movement speed of user equipment, UE; determining, by the base station based on the movement speed of the UE, a UE-specific SRS subframe configuration set in a plurality of UE-specific SRS subframe configuration sets corresponding to a used cell-specific SRS subframe configuration set, and determining a UE-specific SRS subframe configuration parameter in the determined UE-specific subframe configuration set, wherein the UE-specific SRS subframe configuration parameter is used to indicate a subframe used to send an SRS; and sending, by the base station, the UE-specific SRS subframe configuration parameter and identification information of the UE-specific subframe configuration set to the UE, the method further comprising: sending, by the base station, a quantity L 1 to the UE, wherein L 1 is a maximum quantity of symbols that are in a subframe and that are used to send an SRS, and L 1 is a positive integer greater than 1.