mhurhangee/ep-ind-claims huggingface dataset:
A system for charging a recipient power source of a recipient electric vehicle using an accelerated charge flow from a donor power source of a donor vehicle, wherein the recipient power source provided with an accessible recipient charge receptacle; the donor power source provided with an extendable donor charge receptacle adapted to resiliently engage the recipient charge receptacle; wherein the system further comprising a pack controller, in each one of the donor vehicle and the recipient electric vehicle, electrically connected to the recipient power source and the donor power source, characterized in that the pack controller is adapted to combine the functions of a battery pack protection circuit, a battery charger, a current and voltage regulator, a data monitor and a communication circuit associated with the charge transfer from the donor vehicle to the recipient electric vehicle facilitating regulated and informed power transfer; and comprises a processor, a back/boost module comprising a DC/DC converter, an onboard charger, a GFI and a pre-charge relay, the buck/boost module electrically connected to the recipient charge receptacle and the donor receptacle of the recipient power source in the recepient electric vehicle and of the donor power source in the donor vehicle, wherein the buck/boost module is configured to balance relative electrical potentials of the donor vehicle to the recipient electric vehicle, and to charge the recipient power source of the recipient electric vehicle, by the donor vehicle, based on pre-defined voltage and current levels comprising level 1, level 2, and level 3, wherein level 1 corresponds to AC energy to the vehicle's on board charger; from the most common U.S. grounded household receptacle, commonly referred to as a 120 volt outlet, level 2 corresponds to single phase AC energy to the vehicle's on-board charger with 208-240 volt and level 3 corresponds to DC energy from an off-board charger, and wherein the buck/boost module further comprising plurality of switches comprising Switch 1 and Switch 2 and charges the recipient power source of the recipient electric vehicle by using the switches Switch 1 and Switch 2, and wherein when the Switch 1 is closed and the Switch 2 is opened, the recipient power source is charged for the level 1 or the level 2 selected by the pack controller and wherein when the Switch 1 is opened and the Switch 2 is closed, the recipient power source is charged via the DC/DC converter for the level 3.
A battery assembly comprising: a plurality of battery modules electrically connected together, each battery module acting as a secondary battery and comprising a plurality of cells and a resin container, the plurality of cells being separated by partitions, electrically connected together, and housed in the resin container, wherein each cell includes an electrode group and an electrolyte, and the container is provided with one safety valve operating in accordance with an internal pressure of the container, characterized in that a working pressure of each safety valve is set lower than a maximum internal pressure of each battery module during charge equalization of the battery assembly, and the working pressure is also set so that a change in a battery assembly weight due to a release of the electrolyte after the charge equalization of the battery assembly is 0.015 g or less per ampere-hour capacity. a plurality of battery modules electrically connected together, each battery module acting as a secondary battery and comprising a plurality of cells and a resin container, the plurality of cells being separated by partitions, electrically connected together, and housed in the resin container, wherein each cell includes an electrode group and an electrolyte, and the container is provided with one safety valve operating in accordance with an internal pressure of the container, characterized in that a working pressure of each safety valve is set lower than a maximum internal pressure of each battery module during charge equalization of the battery assembly, and the working pressure is also set so that a change in a battery assembly weight due to a release of the electrolyte after the charge equalization of the battery assembly is 0.015 g or less per ampere-hour capacity.
A farnesoid X receptor agonist for use for the treatment of hepatitis B virus infection in a subject in need thereof, selected from the group consisting of the compound identified by the CAS REGISTRY NUMBER 1192171-69-9, GW4064 of formula and 6 -ethyl-chenodeoxycholic acid (6ECDCA) of formula
A method for operating a hearing device having at least two omnidirectional microphones emitting microphone signals and a detection unit for defining acoustic feedback, which comprises the steps of: - electrically connecting the microphones with one another a first time to form a first signal with a directional effect; - adjusting the directional effect of the first signal such that acoustic feedback in the first signal is maximized; and - analyzing the first signal via the detection unit to define the acoustic feedback. - electrically connecting the microphones with one another a first time to form a first signal with a directional effect; - adjusting the directional effect of the first signal such that acoustic feedback in the first signal is maximized; and - analyzing the first signal via the detection unit to define the acoustic feedback.
A compound of formula (I-a3), a tautomer, enantiomer, diastereomer, racemate or a pharmaceutically acceptable salt thereof: wherein: R 1, R 2 and R 3 are each independently selected from the group consisting of hydrogen, halogen, hydroxy, cyano, nitro, C 1-8 alkyl, C 3-8 cycloalkyl, C 1-8 alkoxy, C 3-8 cycloalkoxy, -S p R 11, -C R 11, -C OR 11, -NR 12 R 13 and -C NR 12; R 11, R 12 and R 13 are selected from the group consisting of hydrogen and C 1-4 alkyl; p is 0, 1 or 2. R 1, R 2 and R 3 are each independently selected from the group consisting of hydrogen, halogen, hydroxy, cyano, nitro, C 1-8 alkyl, C 3-8 cycloalkyl, C 1-8 alkoxy, C 3-8 cycloalkoxy, -S p R 11, -C R 11, -C OR 11, -NR 12 R 13 and -C NR 12; R 11, R 12 and R 13 are selected from the group consisting of hydrogen and C 1-4 alkyl; p is 0, 1 or 2.
A fire suppression apparatus for a battery pack, comprising: a fire detection sensor for detecting a probability of fire occurrence at a battery pack; a fire-extinguishing chemical tank containing a fire-extinguishing chemical in an inner space therein; and a control unit for allowing the fire-extinguishing chemical of the fire-extinguishing chemical tank into the battery pack when fire occurrence is detected by the fire detection sensor, characterized in that: the fire-extinguishing chemical tank includes an outlet connected to the inside of the battery pack to discharge the fire-extinguishing chemical, a piston for discharging the fire-extinguishing chemical to the outlet by means of movement, and an explosive for moving the piston by explosion, and when fire occurrence is detected, the control unit explodes the explosive of the fire-extinguishing chemical tank to move the piston so that the fire-extinguishing chemical of the fire-extinguishing chemical tank is injected into the battery pack. a fire detection sensor for detecting a probability of fire occurrence at a battery pack; a fire-extinguishing chemical tank containing a fire-extinguishing chemical in an inner space therein; and a control unit for allowing the fire-extinguishing chemical of the fire-extinguishing chemical tank into the battery pack when fire occurrence is detected by the fire detection sensor, characterized in that: the fire-extinguishing chemical tank includes an outlet connected to the inside of the battery pack to discharge the fire-extinguishing chemical, a piston for discharging the fire-extinguishing chemical to the outlet by means of movement, and an explosive for moving the piston by explosion, and when fire occurrence is detected, the control unit explodes the explosive of the fire-extinguishing chemical tank to move the piston so that the fire-extinguishing chemical of the fire-extinguishing chemical tank is injected into the battery pack. the fire-extinguishing chemical tank includes an outlet connected to the inside of the battery pack to discharge the fire-extinguishing chemical, a piston for discharging the fire-extinguishing chemical to the outlet by means of movement, and an explosive for moving the piston by explosion, and when fire occurrence is detected, the control unit explodes the explosive of the fire-extinguishing chemical tank to move the piston so that the fire-extinguishing chemical of the fire-extinguishing chemical tank is injected into the battery pack.
A micro LED structure comprising: a micro p-n diode (135,150), wherein the micro p-n diode has a maximum width of 1 to 100 μm; and a metallization layer wherein the metallization layer is between the micro p-n diode and a bonding layer on a substrate; and a conformal dielectric barrier layer spanning sidewalls of the micro p-n diode (135, 150), spanning sidewalls of the metallization layer, and spanning sidewalls of the bonding layer. a micro p-n diode (135,150), wherein the micro p-n diode has a maximum width of 1 to 100 μm; and a metallization layer wherein the metallization layer is between the micro p-n diode and a bonding layer on a substrate; and a conformal dielectric barrier layer spanning sidewalls of the micro p-n diode (135, 150), spanning sidewalls of the metallization layer, and spanning sidewalls of the bonding layer.
Method for determining the water content in the working fluid of a gas turbine plant, with the following steps: measuring several temperatures of the working fluid of the gas turbine plant at various positions in the gas turbine plant, measuring several pressures of the working fluid at various positions in the gas turbine plant, and indirectly measuring the water content of the working fluid flowing through the gas turbine plant by means of the measured pressure and temperature values. measuring several temperatures of the working fluid of the gas turbine plant at various positions in the gas turbine plant, measuring several pressures of the working fluid at various positions in the gas turbine plant, and indirectly measuring the water content of the working fluid flowing through the gas turbine plant by means of the measured pressure and temperature values.
A vertical axis wind turbine comprising: a turbine rotor with rotor blades disposed for rotation about a substantially vertical axis; a plurality of vertically extending stator vanes circumferentially spaced apart about the rotor in an annular array, each vane having: a radially inward facing surface; and a radially outward facing surface; characterised in that each vane has a flange on an outer edge of each vane, said flange being disposed at an acute angle (β) to said radially outward facing surface. a turbine rotor with rotor blades disposed for rotation about a substantially vertical axis; a plurality of vertically extending stator vanes circumferentially spaced apart about the rotor in an annular array, each vane having: a radially inward facing surface; and a radially outward facing surface; a radially inward facing surface; and a radially outward facing surface;
A wireless transmit/receive unit, WTRU, for synchronizing with a beamforming cellular communications network, the WTRU comprising: a processor configured to: receive, at the WTRU, within a beam, a SYNC burst set, comprising a plurality of SYNC bursts that each comprise multiple symbols, from the beamforming cellular communications network, wherein the plurality of SYNC bursts alternate in time between being oriented by a transmission and/or reception point, TRP, of the beamforming cellular communications network and being oriented by the WTRU, wherein during a SYNC burst oriented by the TRP a first number of beam directions are sequentially transmitted by the TRP and the WTRU is configured to receive using one or more of a second number of beam directions and wherein during a SYNC burst oriented by the WTRU one of said first number of beam directions is transmitted by the TRP and the WTRU is configured to sequentially receive using one or more of said second number of beam directions; and determine, from the SYNC burst set, the synchronization parameters for the WTRU to synchronize with the beamforming cellular communications network. receive, at the WTRU, within a beam, a SYNC burst set, comprising a plurality of SYNC bursts that each comprise multiple symbols, from the beamforming cellular communications network, wherein the plurality of SYNC bursts alternate in time between being oriented by a transmission and/or reception point, TRP, of the beamforming cellular communications network and being oriented by the WTRU, wherein during a SYNC burst oriented by the TRP a first number of beam directions are sequentially transmitted by the TRP and the WTRU is configured to receive using one or more of a second number of beam directions and wherein during a SYNC burst oriented by the WTRU one of said first number of beam directions is transmitted by the TRP and the WTRU is configured to sequentially receive using one or more of said second number of beam directions; and wherein during a SYNC burst oriented by the TRP a first number of beam directions are sequentially transmitted by the TRP and the WTRU is configured to receive using one or more of a second number of beam directions and wherein during a SYNC burst oriented by the WTRU one of said first number of beam directions is transmitted by the TRP and the WTRU is configured to sequentially receive using one or more of said second number of beam directions; and determine, from the SYNC burst set, the synchronization parameters for the WTRU to synchronize with the beamforming cellular communications network.
A fixation device for providing at least one fixation location at a wind turbine, said wind turbine comprising at least a wind turbine tower, a nacelle and a hub for a number of rotor blades, wherein - said fixation device comprises at least one fixation arm (12, 13) configured for being arranged at said nacelle, - wherein said at least one fixation arm in an active state, where the at least one fixation arm is at least partly extended, extends at least to a position forward of the nacelle and at a level substantially at or below a rotation axis for the rotor blades of the wind turbine, wherein said at least one fixation arm (12, 13) is configured for being mounted at, on or in the nacelle, characterized in that - said at least one fixation arm (12, 13) is extendable, - wherein said at least one fixation arm in an inactive state is not extending essentially forward of the nacelle, and said at least one fixation arm (12, 13) is configured for being mounted in connection with a bottom part of the nacelle. - said fixation device comprises at least one fixation arm (12, 13) configured for being arranged at said nacelle, - wherein said at least one fixation arm in an active state, where the at least one fixation arm is at least partly extended, extends at least to a position forward of the nacelle and at a level substantially at or below a rotation axis for the rotor blades of the wind turbine, wherein said at least one fixation arm (12, 13) is configured for being mounted at, on or in the nacelle, characterized in that - said at least one fixation arm (12, 13) is extendable, - wherein said at least one fixation arm in an inactive state is not extending essentially forward of the nacelle, and said at least one fixation arm (12, 13) is configured for being mounted in connection with a bottom part of the nacelle.
An image processing method comprising: acquiring (S201; S401) an input image from a captured image; acquiring (S201, S202; S401-S404) input data (201, 511) including the input image and a first noise map representing a noise amount in the input image, the first noise map being generated based on an optical black area corresponding to the input image, which is an optical black area of the captured image or another image captured with a same image capturing condition as that of the captured image; wherein generating the first noise map comprises: acquiring the optical black area corresponding to the input image; extracting one or more partial optical black images that are at least part of the optical black area; and generating the first noise map by arraying the one or more partial optical black images; and inputting (S203; S405) the input data into a neural network to execute a task of a recognition or regression for the input image. acquiring (S201; S401) an input image from a captured image; acquiring (S201, S202; S401-S404) input data (201, 511) including the input image and a first noise map representing a noise amount in the input image, the first noise map being generated based on an optical black area corresponding to the input image, which is an optical black area of the captured image or another image captured with a same image capturing condition as that of the captured image; wherein generating the first noise map comprises: acquiring the optical black area corresponding to the input image; extracting one or more partial optical black images that are at least part of the optical black area; and generating the first noise map by arraying the one or more partial optical black images; and inputting (S203; S405) the input data into a neural network to execute a task of a recognition or regression for the input image. acquiring the optical black area corresponding to the input image; extracting one or more partial optical black images that are at least part of the optical black area; and generating the first noise map by arraying the one or more partial optical black images; and inputting (S203; S405) the input data into a neural network to execute a task of a recognition or regression for the input image.
A resource reconfiguration method comprising the steps of: • receiving, by a primary base station, a first message sent by a secondary base station, wherein the first message is used to request the primary base station to reconfigure, for a user equipment, a resource corresponding to the secondary base station, the user equipment simultaneously communicates with the primary base station and the secondary base station, wherein only the primary base station provides a reconfiguration function to the user equipment, wherein the first message includes uplink resource configuration information that is configured for the user equipment by the secondary base station and is corresponding to the secondary base station and further includes a reason for requesting a reconfiguration; and • sending, by the primary base station, a reconfiguration message including the uplink resource configuration information corresponding to the secondary base station to the user equipment. • receiving, by a primary base station, a first message sent by a secondary base station, wherein the first message is used to request the primary base station to reconfigure, for a user equipment, a resource corresponding to the secondary base station, the user equipment simultaneously communicates with the primary base station and the secondary base station, wherein only the primary base station provides a reconfiguration function to the user equipment, wherein the first message includes uplink resource configuration information that is configured for the user equipment by the secondary base station and is corresponding to the secondary base station and further includes a reason for requesting a reconfiguration; and • sending, by the primary base station, a reconfiguration message including the uplink resource configuration information corresponding to the secondary base station to the user equipment.
A massage toy for stimulation of a sexual organ, the massage toy comprising at least the following components: - A first toy member of the massage toy, wherein the first toy member comprises a first rod element extending along a first rotation axis, wherein the first rod element is arranged rotatably on the first rotation axis; - A second toy member of the massage toy, wherein the second toy member comprises a second rod element extending along a second rotation axis, wherein the second rod element is arranged rotatably on the second rotation axis; - A hinge assembly (2, 2a, 2b) that connects the first toy member with the second toy member such that the first and the second toy member (11, 21) can be swiveled around a swivel axis of the hinge assembly (2, 2a, 2b), wherein the hinge assembly (2, 2a, 2b) is configured to adopt an adjustable swivel angle, such that a distance between the first rotation axis and the second rotation axis is adjustable by adjusting the swivel angle; - A motor assembly (5, 5a) for motor-driven rotation of the first rod element around the first rotation axis and for motor-driven rotation of the second rod element around the second rotation axis, characterized in that the motor assembly comprises at least one stepper motor, characterized in that the stepper motor has a step resolution of more than 50 steps per full rotation of the respective rod element. - A first toy member of the massage toy, wherein the first toy member comprises a first rod element extending along a first rotation axis, wherein the first rod element is arranged rotatably on the first rotation axis; - A second toy member of the massage toy, wherein the second toy member comprises a second rod element extending along a second rotation axis, wherein the second rod element is arranged rotatably on the second rotation axis; - A hinge assembly (2, 2a, 2b) that connects the first toy member with the second toy member such that the first and the second toy member (11, 21) can be swiveled around a swivel axis of the hinge assembly (2, 2a, 2b), wherein the hinge assembly (2, 2a, 2b) is configured to adopt an adjustable swivel angle, such that a distance between the first rotation axis and the second rotation axis is adjustable by adjusting the swivel angle; - A motor assembly (5, 5a) for motor-driven rotation of the first rod element around the first rotation axis and for motor-driven rotation of the second rod element around the second rotation axis, characterized in that the motor assembly comprises at least one stepper motor, characterized in that the stepper motor has a step resolution of more than 50 steps per full rotation of the respective rod element.
A contact lens for an eye, the lens having a posterior surface with an inner optical portion and a non-optical peripheral carrier portion which rests at least partially on the eye, characterised in that the carrier portion is shaped so that inward of a reference diameter about a reference axis, the radius of curvature of points on the posterior surface varies substantially linearly with distance from the reference axis at a first rate-of change, and outward of the reference diameter the radius of curvature of points on the posterior surface varies substantially linearly with distance from the reference axis at a second rate-of change, the second rate-of change being greater than the first rate-of change, whereby the carrier portion will have a universal shape fitting most normal eyes.