mhurhangee/ep-ind-claims huggingface dataset:
A conveyor, comprising: a tray for supporting goods thereon; a powered drive for driving the tray to move goods along the tray; a gate supported on the tray for closing an opening in the tray and for opening to allow the goods to drop through the tray opening, the gate having a first magnet supported thereon; and a gate drive for moving the gate between the open and closed positions, characterised in that the gate drive has a second magnet on a rod end of the gate drive for cooperation with the first magnet, each of the first and second magnets having a substantially planar face, and at least one of the first and second magnets (32, 34) moves in a direction generally parallel to its planar face as the magnets (32,34) are coupled together until the first and second magnets (32,34) are substantially aligned, such that magnetic forces pull the gate to the closed position, and the first and second magnets (32, 34) separate if the gate encounters a significant force when closing. a tray for supporting goods thereon; a powered drive for driving the tray to move goods along the tray; a gate supported on the tray for closing an opening in the tray and for opening to allow the goods to drop through the tray opening, the gate having a first magnet supported thereon; and a gate drive for moving the gate between the open and closed positions, characterised in that the gate drive has a second magnet on a rod end of the gate drive for cooperation with the first magnet, each of the first and second magnets having a substantially planar face, and at least one of the first and second magnets (32, 34) moves in a direction generally parallel to its planar face as the magnets (32,34) are coupled together until the first and second magnets (32,34) are substantially aligned, such that magnetic forces pull the gate to the closed position, and the first and second magnets (32, 34) separate if the gate encounters a significant force when closing.
A method of wireless communication of a user equipment, UE, comprising: receiving, from a base station, a configuration for carrier aggregation for a primary cell, PCell, and one or more secondary cells, SCells, wherein a total bandwidth of the PCell and the one or more SCells is not a multiple of a defined bandwidth; and communicating with the base station through the PCell and the one or more SCells, wherein the communicating through the one or more SCells is based on a radio resource management, RRM, measurement associated with the PCell and is not based on any RRM measurement associated with the one or more SCells. receiving, from a base station, a configuration for carrier aggregation for a primary cell, PCell, and one or more secondary cells, SCells, wherein a total bandwidth of the PCell and the one or more SCells is not a multiple of a defined bandwidth; and communicating with the base station through the PCell and the one or more SCells, wherein the communicating through the one or more SCells is based on a radio resource management, RRM, measurement associated with the PCell and is not based on any RRM measurement associated with the one or more SCells.
An electronic equipment, comprising: circuitry configured to: receive information designating a functionality selected amongst a plurality of controllable functionalities, receive a plurality of recordings of a same group of at least one user input for said selected functionality, apply a trained neural network model on said received plurality of recordings to recognize an input pattern, associate said recognized input pattern with said selected functionality, and store said association in a memory, and control said selected functionality based on said stored association, wherein said circuitry is further configured to: generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, the electronic equipment being characterized in that said circuitry is further configured to recognize an input pattern when each determined variability of the corresponding user input is smaller than a threshold value. receive information designating a functionality selected amongst a plurality of controllable functionalities, receive a plurality of recordings of a same group of at least one user input for said selected functionality, apply a trained neural network model on said received plurality of recordings to recognize an input pattern, associate said recognized input pattern with said selected functionality, and store said association in a memory, and control said selected functionality based on said stored association, wherein said circuitry is further configured to: generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, the electronic equipment being characterized in that said circuitry is further configured to recognize an input pattern when each determined variability of the corresponding user input is smaller than a threshold value. control said selected functionality based on said stored association, wherein said circuitry is further configured to: generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, generate a distribution of at least one user input of said input pattern based on said plurality of recordings, and determine a variability of each user input of said recordings based on said generated distribution, the electronic equipment being characterized in that said circuitry is further configured to recognize an input pattern when each determined variability of the corresponding user input is smaller than a threshold value.
A memory circuit comprising: a memory area in which a plurality of memory cells are arranged in matrix fashion, each of the plurality of memory cells including a ferromagnetic tunnel junction device, MTJ; a readout circuit configured to read out first data written into the MTJ in a nonvolatile manner; a control unit configured to: determine whether the first data read out by the readout circuit is the same as second data to be written into the MTJ, not to write the second data into the MTJ in case of determining that the first data is the same as the second data, and write the second data into the MTJ in case of determining that the first data is not the same as the second data, characterized in that the control unit is further configured such that the operation to determine whether the first data read out by the readout circuit is the same as second data to be written into the MTJ is performed only once for a writing operation and to receive a skip signal from an external circuit provided outside the memory circuit, and in that the control unit is further configured to: not determine whether the first data is the same as the second data in case that the skip signal is received, and determine whether the first data is the same as the second data in case that the skip signal is not received. a memory area in which a plurality of memory cells are arranged in matrix fashion, each of the plurality of memory cells including a ferromagnetic tunnel junction device, MTJ; a readout circuit configured to read out first data written into the MTJ in a nonvolatile manner; a control unit configured to: determine whether the first data read out by the readout circuit is the same as second data to be written into the MTJ, not to write the second data into the MTJ in case of determining that the first data is the same as the second data, and write the second data into the MTJ in case of determining that the first data is not the same as the second data, determine whether the first data read out by the readout circuit is the same as second data to be written into the MTJ, not to write the second data into the MTJ in case of determining that the first data is the same as the second data, and write the second data into the MTJ in case of determining that the first data is not the same as the second data, characterized in that the control unit is further configured such that the operation to determine whether the first data read out by the readout circuit is the same as second data to be written into the MTJ is performed only once for a writing operation and to receive a skip signal from an external circuit provided outside the memory circuit, and in that the control unit is further configured to: not determine whether the first data is the same as the second data in case that the skip signal is received, and determine whether the first data is the same as the second data in case that the skip signal is not received.
Device for producing a preferably corrugated plastic pipe from a molten plastic tube, comprising • an injection head for connecting to an extruder, wherein the injection head is provided with a discharge nozzle device for extruding the molten plastic tube, and • several moulding jaws in each case having a moulding surface for moulding, preferably in a corrugated manner, the extruded molten plastic tube, said moulding jaws being arranged to be guided respectively in pairs by means of a drive device for moulding the extruded molten plastic tube along a moulding path in the production direction of the extruded molten plastic tube and are arranged to be guided back in a return direction by means of the drive device, wherein the moulding jaws guided in pairs along the moulding path form a receiving space, by means of their moulding surfaces facing each other, for receiving the molten plastic tube, characterised in that at least one of the moulding jaws has a sensor device which comprises at least one sensor (10, 20, 30, 40) with a data-capturing sensor head (11, 21, 31, 41), which is arranged in such a way that its capture area comprises an area of the moulding surface and/or an area of the receiving space. • an injection head for connecting to an extruder, wherein the injection head is provided with a discharge nozzle device for extruding the molten plastic tube, and • several moulding jaws in each case having a moulding surface for moulding, preferably in a corrugated manner, the extruded molten plastic tube, said moulding jaws being arranged to be guided respectively in pairs by means of a drive device for moulding the extruded molten plastic tube along a moulding path in the production direction of the extruded molten plastic tube and are arranged to be guided back in a return direction by means of the drive device, wherein the moulding jaws guided in pairs along the moulding path form a receiving space, by means of their moulding surfaces facing each other, for receiving the molten plastic tube,
An aerosol delivery device sensory system, comprising: an outer body of an aerosol delivery device; an atomizer comprising a heating element and received in the outer body; an infrared sensor configured to measure infrared radiation produced by the heating element of the atomizer; a component of the aerosol delivery device positioned between the atomizer and the infrared sensor; and a fiber optic cable having a first end positioned proximate the infrared sensor and extending around the component to a second end positioned proximate the heating element of the atomizer to receive infrared radiation produced by the heating element, the infrared sensor being configured to measure infrared radiation received from the heating element of the atomizer through the fiber optic cable. an outer body of an aerosol delivery device; an atomizer comprising a heating element and received in the outer body; an infrared sensor configured to measure infrared radiation produced by the heating element of the atomizer; a component of the aerosol delivery device positioned between the atomizer and the infrared sensor; and a fiber optic cable having a first end positioned proximate the infrared sensor and extending around the component to a second end positioned proximate the heating element of the atomizer to receive infrared radiation produced by the heating element, the infrared sensor being configured to measure infrared radiation received from the heating element of the atomizer through the fiber optic cable.
A method for detecting, in a wireless network, a radar transmission from a radar source, comprising: designating an apparatus, configured to communicate with an access terminal in the wireless network on a channel operating in a frequency-division duplexing mode, to monitor the channel for radar transmission from the radar source while operating on the channel; and causing the apparatus to refrain from transmitting on the channel during at least one subframe of a frame of a downlink frequency band; and the method being characterized by further comprising causing the apparatus to monitor the channel for the radar transmission from the radar source while operating on the channel and to detect the radar transmission from the radar source on the channel during the at least one subframe of the frame of the downlink frequency band in which the apparatus is caused to refrain from transmitting on the channel; and based on a power level of the radar transmission from the radar source being greater than a threshold value during the at least one subframe of the frame of the downlink frequency band in which the apparatus is caused to monitor the channel for the radar transmission from the radar source, causing the apparatus to switch to a different channel to communicate with the access terminal. designating an apparatus, configured to communicate with an access terminal in the wireless network on a channel operating in a frequency-division duplexing mode, to monitor the channel for radar transmission from the radar source while operating on the channel; and causing the apparatus to refrain from transmitting on the channel during at least one subframe of a frame of a downlink frequency band; and the method being characterized by further comprising causing the apparatus to monitor the channel for the radar transmission from the radar source while operating on the channel and to detect the radar transmission from the radar source on the channel during the at least one subframe of the frame of the downlink frequency band in which the apparatus is caused to refrain from transmitting on the channel; and based on a power level of the radar transmission from the radar source being greater than a threshold value during the at least one subframe of the frame of the downlink frequency band in which the apparatus is caused to monitor the channel for the radar transmission from the radar source, causing the apparatus to switch to a different channel to communicate with the access terminal.
A method of balancing load in a cellular network comprising first cells with a first priority and second cells with a second priority, different than the first priority, the method comprising: detecting (301, 402) a high load condition in a first cell with the first priority, when load in the first cell exceeds a predefined limit, using a network model comprising signal level information on different geographical locations for different cells to find (302, 403) a second cell having the second priority and having at least partially overlapping service area with the first cell, using said network model and population data comprising information about number of users on different geographical locations to determine a value to a network parameter that has an effect on whether a user connects to the first cell or to the second cell, wherein said population data is based on one or more of the following: home addresses of people and work addresses of people, wherein the network parameter is a threshold high parameter representing the threshold signal strength for connection to a cell in the network, and conditionally taking (304, 409) the determined value of the network parameter in use in the cellular network to balance load between the first and the second cell in the overlapping service area. detecting (301, 402) a high load condition in a first cell with the first priority, when load in the first cell exceeds a predefined limit, using a network model comprising signal level information on different geographical locations for different cells to find (302, 403) a second cell having the second priority and having at least partially overlapping service area with the first cell, using said network model and population data comprising information about number of users on different geographical locations to determine a value to a network parameter that has an effect on whether a user connects to the first cell or to the second cell, wherein said population data is based on one or more of the following: home addresses of people and work addresses of people, wherein the network parameter is a threshold high parameter representing the threshold signal strength for connection to a cell in the network, and conditionally taking (304, 409) the determined value of the network parameter in use in the cellular network to balance load between the first and the second cell in the overlapping service area.
A cooking device (111 to 114) comprising: a heating unit that heats an object to be heated; a heating chamber that houses the object to be heated; a lighting unit (103a to 103d) that emits light to an inside of the heating chamber; an image capturing unit that captures an image of the inside of the heating chamber; a display that displays a contour of the object to be heated; an image acquisition unit that acquires an image of the object to be heated from the image capturing unit; a contour candidate generator that generates a plurality of contour candidates of the object to be heated by using the image of the object to be heated acquired by the image acquisition unit; and a presented contour determination unit that determines a contour to be displayed on the display from among the plurality of contour candidates acquired by the contour candidate generator; characterized in that: the cooking device (111 to 114) further comprising: a controller that causes the display to display the contour determined by the presented contour determination unit; the presented contour determination unit is configured to display, on the display, an input screen requesting that an approved portion or a disapproved portion be selected in the contour of the object to be heated that has been displayed on the display, when the contour displayed on the display is not approved. a heating unit that heats an object to be heated; a heating chamber that houses the object to be heated; a lighting unit (103a to 103d) that emits light to an inside of the heating chamber; an image capturing unit that captures an image of the inside of the heating chamber; a display that displays a contour of the object to be heated; an image acquisition unit that acquires an image of the object to be heated from the image capturing unit; a contour candidate generator that generates a plurality of contour candidates of the object to be heated by using the image of the object to be heated acquired by the image acquisition unit; and a presented contour determination unit that determines a contour to be displayed on the display from among the plurality of contour candidates acquired by the contour candidate generator; characterized in that: the cooking device (111 to 114) further comprising: a controller that causes the display to display the contour determined by the presented contour determination unit; the presented contour determination unit is configured to display, on the display, an input screen requesting that an approved portion or a disapproved portion be selected in the contour of the object to be heated that has been displayed on the display, when the contour displayed on the display is not approved. a controller that causes the display to display the contour determined by the presented contour determination unit; the presented contour determination unit is configured to display, on the display, an input screen requesting that an approved portion or a disapproved portion be selected in the contour of the object to be heated that has been displayed on the display, when the contour displayed on the display is not approved.
A product order fulfillment system comprising: multiple decks arrayed at different levels and defining multilevel decks; at least one autonomous transport vehicle disposed on each of the multilevel decks, and configured for holding and transporting a pickface on each deck; more than one lift, traversing and connecting more than one level of the multilevel decks, and arranged for lifting and lowering the pickface from the multilevel decks; and at least one pickface transfer station on each deck interfacing between the autonomous transport vehicle on the deck and a respective lift of the more than one lift to effect transfer of the pickface between the autonomous transport vehicle and the lift; characterized in that the more than one lift defines a fulfillment stream of mixed case pickfaces outbound from the multilevel decks to a load fill, and at least one stream of the fulfillment stream, from one of the more than one lift, has an ordered sequence of streaming pickfaces wherein the ordered sequence of streaming pickfaces in the least one stream is based on another stream of the fulfilment stream from another of the more than one lift. multiple decks arrayed at different levels and defining multilevel decks; at least one autonomous transport vehicle disposed on each of the multilevel decks, and configured for holding and transporting a pickface on each deck; more than one lift, traversing and connecting more than one level of the multilevel decks, and arranged for lifting and lowering the pickface from the multilevel decks; and at least one pickface transfer station on each deck interfacing between the autonomous transport vehicle on the deck and a respective lift of the more than one lift to effect transfer of the pickface between the autonomous transport vehicle and the lift; characterized in that the more than one lift defines a fulfillment stream of mixed case pickfaces outbound from the multilevel decks to a load fill, and at least one stream of the fulfillment stream, from one of the more than one lift, has an ordered sequence of streaming pickfaces wherein the ordered sequence of streaming pickfaces in the least one stream is based on another stream of the fulfilment stream from another of the more than one lift.
A method for producing an optically active 2-hydroxy ester, the method comprising selectively esterifying one enantiomer of a racemic 2-hydroxy ester in a solvent containing a catalyst represented by any one of the following formulae (a) to (d), and a carboxylic acid anhydride,or a carboxylic acid anhydride and a carboxylic acid, the carboxylic acid anhydride being diphenylacetic acid anhydride, provided that the solvent contains a carboxylic acid anhydride but does not contain a carboxylic acid, whereas the carboxylic acid anhydride being pivalic acid anhydride and the carboxylic acid being diphenylacetic acid, provided that the solvent contains a carboxylic acid anhydride and a carboxylic acid, wherein, X represents any one of the following substituents: -CH 3 -CH 2 -OR -(CH 2) 2 -S-CH 3 -CH 2 -SR -(CH 2) 4 -NHR -CH 2 CONHR -(CH 2) 2 CONHR and R represents a protecting group.