mhurhangee/ep-ind-claims huggingface dataset:
A transmission mode switching method for transmission mode switching in a combined cell, comprising: monitoring, by user equipment, UE, pilot signals sent by at least two nodes, wherein the pilot signals sent by the different nodes are different, and the pilot signals are used for differentiating the at least two nodes; and sending, by the UE, a physical layer measurement result report to a base station, NodeB, if the UE determines, according to the detected pilot signals, that measurement results of the pilot signals of the at least two nodes meet a preset trigger condition; and receiving, by the UE, a mode switching indication that is sent by the NodeB by using a downlink high speed-shared control channel, HS-SCCH, wherein the mode switching indication comprises information about a downlink transmission mode and an information about a node that sends downlink data; wherein the preset trigger condition is: the UE detects that a parameter value of the pilot signals sent by the at least two nodes falls within a preset threshold range; or the UE detects that a parameter value of the pilot signals sent by the at least two nodes falls beyond a preset threshold range; wherein the parameter value of the pilot signals is any one of the following: a strength difference of the pilot signals, a channel quality difference, and a path gain difference. monitoring, by user equipment, UE, pilot signals sent by at least two nodes, wherein the pilot signals sent by the different nodes are different, and the pilot signals are used for differentiating the at least two nodes; and sending, by the UE, a physical layer measurement result report to a base station, NodeB, if the UE determines, according to the detected pilot signals, that measurement results of the pilot signals of the at least two nodes meet a preset trigger condition; and receiving, by the UE, a mode switching indication that is sent by the NodeB by using a downlink high speed-shared control channel, HS-SCCH, wherein the mode switching indication comprises information about a downlink transmission mode and an information about a node that sends downlink data; wherein the preset trigger condition is: the UE detects that a parameter value of the pilot signals sent by the at least two nodes falls within a preset threshold range; or the UE detects that a parameter value of the pilot signals sent by the at least two nodes falls beyond a preset threshold range; wherein the parameter value of the pilot signals is any one of the following: a strength difference of the pilot signals, a channel quality difference, and a path gain difference.
An information processing device comprising: a source acquisition unit configured to acquire a source of content; and a content output unit configured to output the content on the basis of the acquired source, wherein the source includes a source cached by a client, and the cached source includes a source converted into an intermediate format, wherein the cached source includes a source that has not been converted into an intermediate format, and the information processing device further includes a source converter configured to convert the source that has not been converted into an intermediate format, into the intermediate format, wherein the source converter is configured to convert the source that has not been converted into the intermediate format, into the intermediate format, on the basis of the number of times the source that has not been converted into the intermediate format has been used as output of the content, wherein the source includes a script, and the source converted into the intermediate format includes a machine code obtained by compiling the script. a source acquisition unit configured to acquire a source of content; and a content output unit configured to output the content on the basis of the acquired source, wherein the source includes a source cached by a client, and the cached source includes a source converted into an intermediate format, wherein the cached source includes a source that has not been converted into an intermediate format, and the information processing device further includes a source converter configured to convert the source that has not been converted into an intermediate format, into the intermediate format, wherein the source converter is configured to convert the source that has not been converted into the intermediate format, into the intermediate format, on the basis of the number of times the source that has not been converted into the intermediate format has been used as output of the content, wherein the source includes a script, and the source converted into the intermediate format includes a machine code obtained by compiling the script.
A method for characterizing natural fracture networks or other textural networks in an Earth formation, comprising: receiving microseismic data from a hydraulic fracturing event; and processing the microseismic data with a computer processor to: determine presence and location of microseismic events in the data and thereby provide a cloud of microseismic events; characterized in that the method further comprises: processing the microseismic data with a computer processor to identify a subset of the microseismic data predominantly containing microseismic events which are located on or immediately adjacent to one or more fractures produced by the hydraulic fracturing event, wherein processing to identify the said subset comprises identifying locations according to density of microseismic events; obtain a remainder dataset of the microseismic data containing different microseismic events which are predominantly events on natural fractures by removing the subset from the microseismic data; process the remainder dataset of the microseismic data to characterize the natural fracture networks or the other textural networks, and output the characterization to a visual display, a printer or computer memory. receiving microseismic data from a hydraulic fracturing event; and processing the microseismic data with a computer processor to: determine presence and location of microseismic events in the data and thereby provide a cloud of microseismic events; determine presence and location of microseismic events in the data and thereby provide a cloud of microseismic events; identify a subset of the microseismic data predominantly containing microseismic events which are located on or immediately adjacent to one or more fractures produced by the hydraulic fracturing event, wherein processing to identify the said subset comprises identifying locations according to density of microseismic events; obtain a remainder dataset of the microseismic data containing different microseismic events which are predominantly events on natural fractures by removing the subset from the microseismic data; process the remainder dataset of the microseismic data to characterize the natural fracture networks or the other textural networks, and output the characterization to a visual display, a printer or computer memory.
Active compound combinations comprising penflufen of the formula N -[2-(1,3-dimethylbutyl)phenyl]-5-fluoro-1,3-dimethyl-1 H -pyrazole-4-carboxamide: and Rynaxypyr of the formula 3-bromo- N -[4-chloro-2-methyl-6-(methylcarbamoyl)phenyl]-1-(3-chloropyridin-2-yl)-1 H -pyrazole-5-carboxamide: in a weight ratio of from 50: 1 to 1: 50. penflufen of the formula N -[2-(1,3-dimethylbutyl)phenyl]-5-fluoro-1,3-dimethyl-1 H -pyrazole-4-carboxamide: and Rynaxypyr of the formula 3-bromo- N -[4-chloro-2-methyl-6-(methylcarbamoyl)phenyl]-1-(3-chloropyridin-2-yl)-1 H -pyrazole-5-carboxamide: in a weight ratio of from 50: 1 to 1: 50.
A touch switch module comprising: a panel where a slide bar (2c, 2d) for instructing an operation of an electrical equipment is displayed; a touch sensor which is formed on the panel, and which is adapted to detect a touch to the slide bar (2c, 2d); and a control unit which is connected to the touch sensor, and which is adapted to output operation information for operating the electrical equipment on the basis of the touch, wherein the control unit includes a slide velocity detection unit that is adapted to detect a slide velocity which is a change over time in sliding when the touch moves along the slide bar (2c, 2d); and an operation information switching unit adapted to compare the slide velocity with a predetermined threshold (Vs), output first operation information as the operation information when the slide velocity is below the threshold (Vs), and output second operation information that is different from the first operation information as the operation information when the slide velocity is equal to or higher than the threshold (Vs), and the first operation information changes an operating condition of the electrical equipment by a first physical quantity, and the second operation information changes the operating condition of the electrical equipment by a second physical quantity larger than the first physical quantity, characterized in that the control unit includes a threshold-UP change unit adapted to change the threshold (Vs) to a higher level within prescribed time after the first operation information is output. a panel where a slide bar (2c, 2d) for instructing an operation of an electrical equipment is displayed; a touch sensor which is formed on the panel, and which is adapted to detect a touch to the slide bar (2c, 2d); and a control unit which is connected to the touch sensor, and which is adapted to output operation information for operating the electrical equipment on the basis of the touch, wherein the control unit includes a slide velocity detection unit that is adapted to detect a slide velocity which is a change over time in sliding when the touch moves along the slide bar (2c, 2d); and an operation information switching unit adapted to compare the slide velocity with a predetermined threshold (Vs), output first operation information as the operation information when the slide velocity is below the threshold (Vs), and output second operation information that is different from the first operation information as the operation information when the slide velocity is equal to or higher than the threshold (Vs), and the first operation information changes an operating condition of the electrical equipment by a first physical quantity, and the second operation information changes the operating condition of the electrical equipment by a second physical quantity larger than the first physical quantity, characterized in that the control unit includes a threshold-UP change unit adapted to change the threshold (Vs) to a higher level within prescribed time after the first operation information is output.
Method to increase the safety in boarding areas (A, B, C) and to optimize the utilization of capacity for transport means that comprise at least one designated boarding area, wherein the boarding area (A, B, C) of a transport means is divided into at least two ports (1, 2, 3), which each comprise a direct access to the transport means, and the maximum passenger capacity of which each corresponds to the maximum capacity of the largest transport means, which can be entered via the boarding area (A, B, C), wherein the entry into the ports (1, 2, 3) takes place via at least one separating apparatus connected to a control system for the purpose of data communication and wherein no entry into a port (1, 2, 3) is possible if a passenger number in the port (1, 2, 3) specified by the control system for the current boarding process has been reached or while the passengers located in the port (1, 2, 3) are boarding the transport means, wherein the passenger number specified in a port (1, 2, 3) for the boarding process and the free capacity of the incoming transport means is determined by the control system depending on the transport demand in the following intermediate stations prior to a terminal station, provided that there are intermediate stations, wherein the passengers located in a port (1, 2, 3) are allocated to an incoming transport means for the current boarding process and wherein the current number of passengers located in a port (1, 2, 3) are detected by the at least one separating apparatus and this is transmitted to the control system and wherein, if the passenger number in the port (1, 2, 3) specified for a boarding process has been reached or a specified timer, which corresponds to a specified time window, has elapsed and a transport means arrives, to which the passengers currently located in the port (1, 2, 3) are allocated, the passengers which are located in the port (1, 2, 3) are requested to board and a counter for the passenger number in the port (1, 2, 3) is set to zero.
A device for guiding fishing gear out of a container (20, 20a, 20b), the device comprising a housing (10, 10a) with a first portion (11, 11a) which forms an inlet for the fishing gear, a second portion which forms an outlet for the fishing gear, characterized in that a guide channel for the fishing gear extends from the inlet to the outlet, the guide channel being arranged to guide the fishing gear out of the container (20, 20a, 20b) over a gunwale on a boat, and that the housing (10, 10a) is provided with a coupling flange arranged to receive a portion of the container (20, 20a, 20b) or an adapter (30, 30a) arranged between the housing and the container (20, 20a)
A value or security product in the form of a laminate body formed by at least two film layers (121, 122, 123, 124, 125) with at least one electrical antenna structure (130, 220) arranged in an inner first plane in the laminate body and with at least one security component overlapping the at least one electrical antenna structure (130, 220) in at least one overlapping area and located in a second plane, wherein in the laminate body adjacent to the at least one overlapping area at least one compensation structure is located which is applied to one of the at least two film layers (121, 122, 123, 124, 125), the height (H') of which is at least as great as the height of the at least one electrical antenna structure (130, 220) in the at least one overlapping area, characterized in that the at least one compensation structure is provided in the form of elevations at a small distance parallel to at least one antenna structure (130, 220). wherein in the laminate body adjacent to the at least one overlapping area at least one compensation structure is located which is applied to one of the at least two film layers (121, 122, 123, 124, 125), the height (H') of which is at least as great as the height of the at least one electrical antenna structure (130, 220) in the at least one overlapping area, characterized in that the at least one compensation structure is provided in the form of elevations at a small distance parallel to at least one antenna structure (130, 220).
A battery system, comprising: - at least two battery submodules, each with at least two secondary battery cells electrically connected in series or in parallel, and each being mechanically self-supported by a module frame; - a battery module with the at least two battery submodules electrically connected in series or in parallel and mechanically supported by a crossbeam; and - a cell connection unit electrically connecting the at least two battery submodules, mechanically coupling the at least two module frames (14,18,19) and mechanically coupling the battery module to the crossbeam; - wherein the crossbeam comprises at least one coolant duct and is in thermal contact with a side surface (16, 17) of at least one battery submodule. - at least two battery submodules, each with at least two secondary battery cells electrically connected in series or in parallel, and each being mechanically self-supported by a module frame; - a battery module with the at least two battery submodules electrically connected in series or in parallel and mechanically supported by a crossbeam; and - a cell connection unit electrically connecting the at least two battery submodules, mechanically coupling the at least two module frames (14,18,19) and mechanically coupling the battery module to the crossbeam; - wherein the crossbeam comprises at least one coolant duct and is in thermal contact with a side surface (16, 17) of at least one battery submodule.
A filter basket assembly device for a drip filter coffee maker having both a carafe mode and a single serve mode, the device comprising: a filter basket body for holding a coffee filter, the body having a lower surface in which there is a through opening comprising a valve seat; a valve member being biased into a normally closed position with respect to the valve seat; an actuator residing below the through opening; and a motor; wherein the actuator is shaped and adapted to cooperate with a carafe, such that when the carafe is presented to the drip filter coffee maker, that carafe impinges on the actuator to open the valve member for operating in the carafe mode and allowing continuous fluid flow out of the through opening; and in the single serve mode, automatic activation of the actuator by operation of the motor is delayed until grounds in the coffee filter have sufficiently brewed in hot water for a predetermined delay. a filter basket body for holding a coffee filter, the body having a lower surface in which there is a through opening comprising a valve seat; a valve member being biased into a normally closed position with respect to the valve seat; an actuator residing below the through opening; and a motor; wherein the actuator is shaped and adapted to cooperate with a carafe, such that when the carafe is presented to the drip filter coffee maker, that carafe impinges on the actuator to open the valve member for operating in the carafe mode and allowing continuous fluid flow out of the through opening; and in the single serve mode, automatic activation of the actuator by operation of the motor is delayed until grounds in the coffee filter have sufficiently brewed in hot water for a predetermined delay.
A method for radio signal coverage mapping, the method comprising the steps of • determining geolocation of a mobile device (130, 131, 132, 133) receiving a radio signal; • determining proximity of the mobile device to other objects; • determining orientation of the mobile device in 3D space; • determining the radio signal's reception parameters; • storing at least two records comprising the gathered information on geolocation and proximity and orientation and the radio signal reception parameters (1000a-1000d) wherein at least one of the geolocation, proximity, orientation (1000a-1000c) differs between the two records; • receiving, by the mobile device, a communication request, the communication using the radio signal, at a location determined by the first record; • determining whether signal reception parameters result in an improved quality of service at the second location, defined by the second record, than at the location determined by the first record; and • navigating, by the mobile device, a user of the mobile device to the second location and informing when the current parameters of geolocation and proximity and orientation, of the mobile device, match the parameters stored in the second record, the method being characterized in that said determining proximity includes proximity to other devices by the mobile device's front and/or back side. • determining geolocation of a mobile device (130, 131, 132, 133) receiving a radio signal; • determining proximity of the mobile device to other objects; • determining orientation of the mobile device in 3D space; • determining the radio signal's reception parameters; • storing at least two records comprising the gathered information on geolocation and proximity and orientation and the radio signal reception parameters (1000a-1000d) wherein at least one of the geolocation, proximity, orientation (1000a-1000c) differs between the two records; • receiving, by the mobile device, a communication request, the communication using the radio signal, at a location determined by the first record; • determining whether signal reception parameters result in an improved quality of service at the second location, defined by the second record, than at the location determined by the first record; and • navigating, by the mobile device, a user of the mobile device to the second location and informing when the current parameters of geolocation and proximity and orientation, of the mobile device, match the parameters stored in the second record,
Refrigerator having an intermediate base for dividing a storage compartment in the refrigerator, comprising two substantially U-shaped retaining brackets for refrigerated goods, which are supported rotatably on the intermediate base in opposite directions of rotation, wherein holders are also provided, by means of which the retaining brackets for refrigerated goods are fastened to the intermediate base, wherein the holders are fastened to the intermediate base in the region of the centre of a lateral edge of the intermediate base in each case, characterised in that the retaining brackets for refrigerated goods have a tape-shaped section, the flat side of which, in the folded-out state, is aligned substantially parallel to the intermediate base, so that two narrow, flat strips are available, upon which refrigerated goods or a shelf can be positioned, and is successively tilted against the horizontal when pivoted in a retracting manner.
A system comprising: a memory; and processing circuitry operatively coupled to the memory and configured to: define a relationship for multiple electrodes of a plurality of electrodes, wherein the relationship defines a ratio of a value of a therapy parameter between the multiple electrodes; receive, via a user interface, an input to lock the relationship for the multiple electrodes of the plurality of electrodes; perform a master adjustment that adjusts each value of the therapy parameter for each respective electrode of the multiple electrodes by an amount specified by the relationship to maintain the ratio of the value of the therapy parameter between the multiple electrodes; and control delivery of electrical stimulation according to the master adjustment. a memory; and processing circuitry operatively coupled to the memory and configured to: define a relationship for multiple electrodes of a plurality of electrodes, wherein the relationship defines a ratio of a value of a therapy parameter between the multiple electrodes; receive, via a user interface, an input to lock the relationship for the multiple electrodes of the plurality of electrodes; perform a master adjustment that adjusts each value of the therapy parameter for each respective electrode of the multiple electrodes by an amount specified by the relationship to maintain the ratio of the value of the therapy parameter between the multiple electrodes; and control delivery of electrical stimulation according to the master adjustment. define a relationship for multiple electrodes of a plurality of electrodes, wherein the relationship defines a ratio of a value of a therapy parameter between the multiple electrodes; receive, via a user interface, an input to lock the relationship for the multiple electrodes of the plurality of electrodes; perform a master adjustment that adjusts each value of the therapy parameter for each respective electrode of the multiple electrodes by an amount specified by the relationship to maintain the ratio of the value of the therapy parameter between the multiple electrodes; and control delivery of electrical stimulation according to the master adjustment.