mhurhangee/ep-ind-claims huggingface dataset:
A method for air to ground uplink synchronization, the method comprising: (a) initiating a downlink synchronization of user equipment onboard an aircraft with a ground base station, wherein at least a first antenna and a second antenna are mounted on the aircraft, and wherein the first antenna is mounted at the front of the aircraft, and the second antenna is mounted at the rear of the aircraft; (b) computing a range to the ground base station based on a downlink path loss, wherein the downlink path loss is calculated independently for each of the first and second antennas; (c) selecting an initial time advance value from a set of predetermined time advance values based on the computed range, wherein the initial time advance value is estimated from the antenna having the lowest downlink path loss; (d) sending a first random access channel, RACH, request with the initial time advance value to the ground base station in a first attempt to synchronize an uplink signal and attach the user equipment to a network; (e) when the user equipment fails to attach to the network, sending a next RACH request with a next time advance value from the set of predetermined time advance values to the ground base station, in a next attempt to synchronize the uplink signal and attach the user equipment to the network; and (f) when the user equipment fails again to attach to the network, repeating step (e) until the user equipment is attached to the network with a current time advance value. (a) initiating a downlink synchronization of user equipment onboard an aircraft with a ground base station, wherein at least a first antenna and a second antenna are mounted on the aircraft, and wherein the first antenna is mounted at the front of the aircraft, and the second antenna is mounted at the rear of the aircraft; (b) computing a range to the ground base station based on a downlink path loss, wherein the downlink path loss is calculated independently for each of the first and second antennas; (c) selecting an initial time advance value from a set of predetermined time advance values based on the computed range, wherein the initial time advance value is estimated from the antenna having the lowest downlink path loss; (d) sending a first random access channel, RACH, request with the initial time advance value to the ground base station in a first attempt to synchronize an uplink signal and attach the user equipment to a network; (e) when the user equipment fails to attach to the network, sending a next RACH request with a next time advance value from the set of predetermined time advance values to the ground base station, in a next attempt to synchronize the uplink signal and attach the user equipment to the network; and (f) when the user equipment fails again to attach to the network, repeating step (e) until the user equipment is attached to the network with a current time advance value.
A method of controlling a power system comprising: determining an average set load which is a total load of the power system divided by a number of a plurality of generator sets in the power system; generating a power error which is a difference between the average set load and a set load on a generator set of the plurality; generating a base offset which is a product of the power error and a load share gain; characterized in that the method further comprises: determining a power offset selected from a local offset imposed by the generator set and a system offset imposed by the power system; generating a final offset which combines the base offset and the power offset; generating a final reference value based on a nominal reference of the generator set and the final offset; and applying the final reference value to a control system to control the output of the generator set to obtain proportional load sharing between the plurality of generator sets. determining an average set load which is a total load of the power system divided by a number of a plurality of generator sets in the power system; generating a power error which is a difference between the average set load and a set load on a generator set of the plurality; generating a base offset which is a product of the power error and a load share gain; characterized in that the method further comprises: determining a power offset selected from a local offset imposed by the generator set and a system offset imposed by the power system; generating a final offset which combines the base offset and the power offset; generating a final reference value based on a nominal reference of the generator set and the final offset; and applying the final reference value to a control system to control the output of the generator set to obtain proportional load sharing between the plurality of generator sets. determining a power offset selected from a local offset imposed by the generator set and a system offset imposed by the power system; generating a final offset which combines the base offset and the power offset; generating a final reference value based on a nominal reference of the generator set and the final offset; and applying the final reference value to a control system to control the output of the generator set to obtain proportional load sharing between the plurality of generator sets.
A battery pack comprising: a rechargeable battery configured to receive charging current from a power generation module in a driving mode, to supply discharging current to a starter motor in a start mode and to supply discharging current to at least one load (130a, 130b) in a sleep mode, wherein charging current is not received from the power generation module in the sleep mode; a current control unit configured to control the current supplied to the at least one load; and a battery management system configured to monitor an output voltage of the rechargeable battery in the sleep mode and control the current control unit to control the current supplied to the at least one load in the sleep mode based on the monitored output voltage; characterised in that the current control unit includes a variable resistor, wherein the battery management system controls the current supplied to the at least one load by varying a resistance value of the variable resistor; and in that the rechargeable battery is connected to a driving mode path and a sleep mode path, wherein the current control unit is included in the sleep mode path, wherein the battery management system controls a switch such that an output terminal of the battery pack is connected to the driving mode path in the driving mode, and to the sleep mode path in the sleep mode. a rechargeable battery configured to receive charging current from a power generation module in a driving mode, to supply discharging current to a starter motor in a start mode and to supply discharging current to at least one load (130a, 130b) in a sleep mode, wherein charging current is not received from the power generation module in the sleep mode; a current control unit configured to control the current supplied to the at least one load; and a battery management system configured to monitor an output voltage of the rechargeable battery in the sleep mode and control the current control unit to control the current supplied to the at least one load in the sleep mode based on the monitored output voltage; characterised in that the current control unit includes a variable resistor, wherein the battery management system controls the current supplied to the at least one load by varying a resistance value of the variable resistor; and in that the rechargeable battery is connected to a driving mode path and a sleep mode path, wherein the current control unit is included in the sleep mode path, wherein the battery management system controls a switch such that an output terminal of the battery pack is connected to the driving mode path in the driving mode, and to the sleep mode path in the sleep mode.
A medical treatment device having an adjustable treatment diameter, comprising: a catheter having an elongate flexible shaft with a proximal end and a distal end; a first heating element disposed at and connected to the distal end of the elongate flexible shaft, the first heating element having a first outer diameter measured orthogonal to a longitudinal axis of the elongate flexible shaft; first electrical contacts on the elongate flexible shaft; and a second heating element having second electrical contacts selectively connectable to the first electrical contacts, the second heating element having a second outer diameter measured orthogonally to the longitudinal axis of the elongate flexible shaft that is greater than the first outer diameter, wherein when the second electrical contacts are connected to the first electrical contacts the second heating element at least partially surrounds the first heating element. a catheter having an elongate flexible shaft with a proximal end and a distal end; a first heating element disposed at and connected to the distal end of the elongate flexible shaft, the first heating element having a first outer diameter measured orthogonal to a longitudinal axis of the elongate flexible shaft; first electrical contacts on the elongate flexible shaft; and a second heating element having second electrical contacts selectively connectable to the first electrical contacts, the second heating element having a second outer diameter measured orthogonally to the longitudinal axis of the elongate flexible shaft that is greater than the first outer diameter, wherein when the second electrical contacts are connected to the first electrical contacts the second heating element at least partially surrounds the first heating element.
A method for producing 2,3,3,3-tetrafluoropropene, which comprises bringing an azeotropic composition or azeotrope-like composition of 2,3,3,3-tetrafluoropropene and chloromethane into contact with pentane, hexane, heptane, octane, nonane, decane, undecane, dodecane, methanol, ethanol, propanol, butanol, pentanol, CF 3 CH 2 OCF 2 CF 2 H, CF 3 CF 2 CF 2 CF 2 OCF 3, CF 3 CF 2 CF 2 CF 2 OCH 2 CH 3, CClF 2 CF 2 CHClF, CF 3 CF 2 CF 2 CF 2 CF 2 CF 2 CH 2 CH 3 or CF 3 CF 2 CHFCHFCF 3 to obtain 2,3,3,3-tetrafluoropropene containing substantially no chloromethane, wherein the azeotrope-like composition is a composition wherein the content ratio of 2,3,3,3-tetrafluoropropene is from 58 to 78 mol%, and the content ratio of chloromethane is from 22 to 42 mol%.
A method of establishing a sample tube set which is adapted to be processed by a laboratory automation system, the method comprising: - selecting a sample tube set comprising several sample tube types by selecting a plurality of different sample tube types from an assortment of available sample tube types; - obtaining a parameter of distribution for at least one detection parameter of each sample tube type comprised in said sample tube set, wherein the parameter of distribution comprises information regarding a distribution of previously detected reference data values of the at least one detection parameter; - determining whether or not the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set by comparing the parameter of distribution for the at least one detection parameter of each sample tube type comprised in said sample tube set with the parameter of distribution for the at least one detection parameter of all the other sample tube types comprised in said sample tube set; and - indicating that the selected sample tube set is approved for being processed by the laboratory automation system, if it is determined that the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set, or - proposing at least one conflict remediation, if it is determined that the laboratory automation system is not capable of identifying each sample tube type comprised in said sample tube set. - selecting a sample tube set comprising several sample tube types by selecting a plurality of different sample tube types from an assortment of available sample tube types; - obtaining a parameter of distribution for at least one detection parameter of each sample tube type comprised in said sample tube set, wherein the parameter of distribution comprises information regarding a distribution of previously detected reference data values of the at least one detection parameter; - determining whether or not the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set by comparing the parameter of distribution for the at least one detection parameter of each sample tube type comprised in said sample tube set with the parameter of distribution for the at least one detection parameter of all the other sample tube types comprised in said sample tube set; and - indicating that the selected sample tube set is approved for being processed by the laboratory automation system, if it is determined that the laboratory automation system is capable of identifying each sample tube type comprised in said sample tube set, or - proposing at least one conflict remediation, if it is determined that the laboratory automation system is not capable of identifying each sample tube type comprised in said sample tube set.
Arrangement for use in the sanitary sector, comprising a profile, a glass or plastic panel and a device for holding and moving the glass or plastic panel relative to the profile, wherein the device comprises a pressure plate which is guided and/or held in a form-fitting manner in the profile and which, by way of an actuating means, is directly or indirectly connectable to the glass or plastic panel reversibly in a form-fitting and/or force-fitting manner, wherein the pressure plate is arranged on a top edge of the glass or plastic panel, and wherein the top edge faces away from a floor, characterized in that a slot or an elongate cutout is formed within the pressure plate.
A thrust reverser for a turbojet engine nacelle comprising means (13; 13'; 13") for diverting at least a portion of an air flow from the turbojet engine, and at least one cowl movable in translation relative to an outer fixed structure of the thrust reverser, the thrust reverser having at least one rotatably hinged flap, said movable cowl being capable of moving alternately from a closure position in which it ensures the aerodynamic continuity of the nacelle with the flap and covers the diverting means (13; 13'; 13"), the flap being in the retracted position, to an opening position in which it opens a passage in the nacelle and uncovers the diverting means (13; 13'; 13"), the flap obstructs a portion of an annular channel of the nacelle, characterized in that it comprises a cable-pulley system (20-25; 20'-25'; 20"-25") for driving the flap, the cable-pulley system (20-25; 20'-25'; 20"-25") comprising at least one cable (20; 20'; 20") associated with at least one pulley (21-23; 21'-22'; 21"-23") to connect the flap to the thrust reverser.
An electrode assembly comprising: a plurality of alternately arranged cathode and anode plates; a separator disposed between the cathode plate and the anode plate; a plurality of cathode tabs respectively formed on the cathode plates in a structure in which the tabs protrude from the electrode surfaces; a plurality of anode tabs respectively formed on the anode plate in a structure in which the tabs protrude from the electrode surfaces; a cathode lead coupled to the cathode tabs; and an anode lead coupled to the anode tabs, wherein the cathode tabs and the anode tabs have different shapes and wherein widths of the cathode tabs and the anode tabs are equal to 2 to 100% a length of electrode surfaces with the tabs formed thereon, wherein the widths are a size in a direction perpendicular to a direction in which tabs protrude from electrode surfaces, wherein the cathode lead and the anode lead are respectively welded to the cathode tabs and the anode tabs, and wherein heights of welding portions where the cathode tabs and the anode tabs are respectively coupled to the cathode lead and the anode lead are equal to 3 to 30%, preferably 3 to 20%, a height of the cathode and anode leads, wherein at least one of the cathode and anode tabs has a tapered shape selected from a trapezoidal shape, an upwardly-tapered funnel shape, a sector shape or a mushroom shape, a welding portion of which has the wider width. a plurality of alternately arranged cathode and anode plates; a separator disposed between the cathode plate and the anode plate; a plurality of cathode tabs respectively formed on the cathode plates in a structure in which the tabs protrude from the electrode surfaces; a plurality of anode tabs respectively formed on the anode plate in a structure in which the tabs protrude from the electrode surfaces; a cathode lead coupled to the cathode tabs; and an anode lead coupled to the anode tabs, wherein the cathode tabs and the anode tabs have different shapes and wherein widths of the cathode tabs and the anode tabs are equal to 2 to 100% a length of electrode surfaces with the tabs formed thereon, wherein the widths are a size in a direction perpendicular to a direction in which tabs protrude from electrode surfaces, wherein the cathode lead and the anode lead are respectively welded to the cathode tabs and the anode tabs, and wherein heights of welding portions where the cathode tabs and the anode tabs are respectively coupled to the cathode lead and the anode lead are equal to 3 to 30%, preferably 3 to 20%, a height of the cathode and anode leads, wherein at least one of the cathode and anode tabs has a tapered shape selected from a trapezoidal shape, an upwardly-tapered funnel shape, a sector shape or a mushroom shape, a welding portion of which has the wider width.
A detergent product for treating textiles in the format of a single-use portion pack, in particular for cleaning textiles and/or for washing textiles, comprising a film bag having at least two bag chambers which are enclosed by at least one water-soluble film, the bag chambers being formed by at least two, preferably only two, layers of film sealed to one another in one or more sealing portions of a sealing plane, and contain a detergent preparation, - the film bag having at least one flow opening which is arranged outside the bag chambers and is provided in the region of a sealing portion between at least two adjacent bag chambers; - the film bag having a base area lying in the sealing plane, the base area being predetermined by an outer contour line of the film bag in the sealing plane, the flow opening being provided in a central region of the base area of the film bag; characterized in that - the proportion of the opening area of the flow opening to the base area of the film bag is between 0.5% and 50%, preferably between 4% and 20%. - the film bag having at least one flow opening which is arranged outside the bag chambers and is provided in the region of a sealing portion between at least two adjacent bag chambers; - the film bag having a base area lying in the sealing plane, the base area being predetermined by an outer contour line of the film bag in the sealing plane, the flow opening being provided in a central region of the base area of the film bag; - the proportion of the opening area of the flow opening to the base area of the film bag is between 0.5% and 50%, preferably between 4% and 20%.
A method for measuring degradation kinetics of a biomaterial in aqueous solution, comprising the following steps: filling a high-pressure container with the biomaterial in aqueous solution and submitting said biomaterial to a temperature below the freezing temperature of the biomaterial at atmospheric pressure; closing the high-pressure container with a nucleating-lock, wherein the nucleating-lock is at a temperature below the freezing temperature of the biomaterial at atmospheric pressure; allowing the high-pressure container to reach a pre-determined temperature, in particular a pre-determined test temperature, different from the freezing temperature of the biomaterial at atmospheric pressure; removing the high-pressure container at a selected time and placing it at a temperature higher than the freezing temperature of the biomaterial at atmospheric pressure; and opening the high-pressure container for recovering the biomaterial in aqueous solution for complementary analytic characterization; wherein the degradation kinetics of the biomaterial in aqueous solution is measured at a temperature below the freezing temperature of the biomaterial at atmospheric pressure. filling a high-pressure container with the biomaterial in aqueous solution and submitting said biomaterial to a temperature below the freezing temperature of the biomaterial at atmospheric pressure; closing the high-pressure container with a nucleating-lock, wherein the nucleating-lock is at a temperature below the freezing temperature of the biomaterial at atmospheric pressure; allowing the high-pressure container to reach a pre-determined temperature, in particular a pre-determined test temperature, different from the freezing temperature of the biomaterial at atmospheric pressure; removing the high-pressure container at a selected time and placing it at a temperature higher than the freezing temperature of the biomaterial at atmospheric pressure; and opening the high-pressure container for recovering the biomaterial in aqueous solution for complementary analytic characterization; wherein the degradation kinetics of the biomaterial in aqueous solution is measured at a temperature below the freezing temperature of the biomaterial at atmospheric pressure.