mhurhangee/ep-ind-claims huggingface dataset:
A communication device (10, 20) comprising: a contactless communication unit (116; 216) configured to perform a non-contact communication with an external device (20, 10) and to receive predetermined setting data from the external device (20, 10); a communication unit (120; 220) configured to perform a wireless communication with the external device (20, 10); a control unit (124, 201, 224) configured to establish the wireless connection between the communication unit (120; 220) and the external device (20, 10) by using setting data received from the external device (20, 10); and a data processing unit (124, 224) configured to store the setting data in a storage unit (24, 150, 160, 211, 250, 260) before the wireless communication is released; a power input unit (134, 254) configured to receive power from outside; and a connection releasing unit (132, 232) configured to release the wireless connection between the communication unit (120; 220) and the external device (20, 10), characterized in that the control unit (124, 201, 224) is configured to use the setting data stored in the storage unit (24, 150, 160, 211, 250, 260) at a time of re-establishing a wireless connection between the communication unit (120; 220) and the external device (20, 10), and the connection releasing unit (132, 232) is configured not to release the wireless connection while power is being supplied via the power input unit (134, 254) when a predetermined time has passed without actual data communication. a contactless communication unit (116; 216) configured to perform a non-contact communication with an external device (20, 10) and to receive predetermined setting data from the external device (20, 10); a communication unit (120; 220) configured to perform a wireless communication with the external device (20, 10); a control unit (124, 201, 224) configured to establish the wireless connection between the communication unit (120; 220) and the external device (20, 10) by using setting data received from the external device (20, 10); and a data processing unit (124, 224) configured to store the setting data in a storage unit (24, 150, 160, 211, 250, 260) before the wireless communication is released; a power input unit (134, 254) configured to receive power from outside; and a connection releasing unit (132, 232) configured to release the wireless connection between the communication unit (120; 220) and the external device (20, 10), characterized in that the control unit (124, 201, 224) is configured to use the setting data stored in the storage unit (24, 150, 160, 211, 250, 260) at a time of re-establishing a wireless connection between the communication unit (120; 220) and the external device (20, 10), and the connection releasing unit (132, 232) is configured not to release the wireless connection while power is being supplied via the power input unit (134, 254) when a predetermined time has passed without actual data communication.
A device for occluding an opening in the heart, comprising: a first element, comprising at least one thread or wire, and a second element, which is joined with the first element and further comprising at least one longitudinal section, said second element comprising a braided material, said braided material comprising at least one thread or wire, and wherein a diameter of said second element is of substantially the same size or smaller than said opening for all of the at least one longitudinal sections, when said device is in a preset, expanded configuration, wherein the first element has a first section and a third section with a distance denoted L between the first section and the third section of the first element, when the device is in its preset expanded configuration, and with a diameter denoted D of the first section or the third section of the first element, said second element has an oval-like shape in its cross-section with a shorter diameter denoted B, and a longer diameter denoted A, characterized in that a ratio of said longer diameter denoted A to said shorter diameter denoted B is in the range of 1.8-5.15, a ratio of said diameter denoted D to said distance denoted L is in the range of 1.4-5.6, preferably in the range of 3.2-5.6; a ratio of said diameter denoted D to said longer diameter denoted A is in the range of 1.3-2.2; and a ratio of said diameter denoted D to said shorter diameter denoted B is in the range of 2.3-6.3. a first element, comprising at least one thread or wire, and a second element, which is joined with the first element and further comprising at least one longitudinal section, said second element comprising a braided material, said braided material comprising at least one thread or wire, and wherein a diameter of said second element is of substantially the same size or smaller than said opening for all of the at least one longitudinal sections, when said device is in a preset, expanded configuration, wherein the first element has a first section and a third section with a distance denoted L between the first section and the third section of the first element, when the device is in its preset expanded configuration, and with a diameter denoted D of the first section or the third section of the first element, said second element has an oval-like shape in its cross-section with a shorter diameter denoted B, and a longer diameter denoted A, characterized in that a ratio of said longer diameter denoted A to said shorter diameter denoted B is in the range of 1.8-5.15, a ratio of said diameter denoted D to said distance denoted L is in the range of 1.4-5.6, preferably in the range of 3.2-5.6; a ratio of said diameter denoted D to said longer diameter denoted A is in the range of 1.3-2.2; and a ratio of said diameter denoted D to said shorter diameter denoted B is in the range of 2.3-6.3.
An image forming apparatus comprising: an image forming unit including a plurality of photoconductor drums arranged in tandem; a conveyor belt arranged opposite to the plurality of photoconductor drums and configured to convey a recording sheet; a cleaning unit including a cleaning member positioned in contact with the conveyor belt on a recording sheet conveyance passage along which the recording sheet is conveyed on the conveyor belt to collect substance adhering to the conveyor belt, and a receptacle configured to store the substance collected by the cleaning member, wherein the cleaning unit is arranged on the same side as the image forming unit with respect to the conveyor belt; and characterized by a positioning member configured to cause the cleaning member to be positioned at a contacting position where the cleaning member contacts with the conveyor belt and at a spaced-apart position where the cleaning member is away from the conveyor belt, wherein the cleaning member being positioned by the positioning member at the spaced-apart position during an image forming process. an image forming unit including a plurality of photoconductor drums arranged in tandem; a conveyor belt arranged opposite to the plurality of photoconductor drums and configured to convey a recording sheet; a cleaning unit including a cleaning member positioned in contact with the conveyor belt on a recording sheet conveyance passage along which the recording sheet is conveyed on the conveyor belt to collect substance adhering to the conveyor belt, and a receptacle configured to store the substance collected by the cleaning member, wherein the cleaning unit is arranged on the same side as the image forming unit with respect to the conveyor belt; and characterized by a positioning member configured to cause the cleaning member to be positioned at a contacting position where the cleaning member contacts with the conveyor belt and at a spaced-apart position where the cleaning member is away from the conveyor belt, wherein the cleaning member being positioned by the positioning member at the spaced-apart position during an image forming process.
A closure for a container having a neck with an external bead, which closure includes: an inner shell including an inner shell base wall having a central passage, and an annular skirt extending axially from the base wall radially outward of the central passage and having an outer surface and at least one external thread segment projecting from the outer surface; and an outer shell coupled to the inner shell and including an outer shell base wall, a plug seal extending axially from the outer shell base wall through the central passage of the inner shell base wall, and an annular outer skirt extending axially from the outer shell base wall radially outward of the plug seal and having at least one internal thread segment for threaded engagement with the at least one external thread segment of the inner shell, wherein the central passage has an inner diameter, wherein the plug seal includes an annular wall having a wall outer surface, and wherein the plug seal includes an annular seal extending radially outwardly from the annular wall and having a seal outer surface, characterised in that the wall outer surface has a diameter less than said inner diameter of the central passage and the seal outer surface has a seal outer diameter greater than said inner diameter of the central passage such that the base wall of the inner shell is axially retained between the outer shell base wall and the annular seal. an inner shell including an inner shell base wall having a central passage, and an annular skirt extending axially from the base wall radially outward of the central passage and having an outer surface and at least one external thread segment projecting from the outer surface; and an outer shell coupled to the inner shell and including an outer shell base wall, a plug seal extending axially from the outer shell base wall through the central passage of the inner shell base wall, and an annular outer skirt extending axially from the outer shell base wall radially outward of the plug seal and having at least one internal thread segment for threaded engagement with the at least one external thread segment of the inner shell, wherein the central passage has an inner diameter, wherein the plug seal includes an annular wall having a wall outer surface, and wherein the plug seal includes an annular seal extending radially outwardly from the annular wall and having a seal outer surface, characterised in that the wall outer surface has a diameter less than said inner diameter of the central passage and the seal outer surface has a seal outer diameter greater than said inner diameter of the central passage such that the base wall of the inner shell is axially retained between the outer shell base wall and the annular seal.
A method in an automated system for installing an endless abrasive belt to a belt holder unit of a belt grinding machine, the method comprising: aligning a base with a belt holder unit, the base comprising a backing plate and at least one belt extraction element (104, 106) extending from the backing plate, wherein a cartridge having an endless abrasive belt pre-tightened around the cartridge is physically coupled with the base such that there is a space between the backing plate and the cartridge; arranging the cartridge to face the belt holder unit such that the cartridge is situated between the backing plate and the belt holder unit; reducing said space by pressing the cartridge against the belt holder unit, wherein the reducing said space causes the at least one belt extraction element (104, 106) to exert force on said belt and push said belt off around the cartridge as a response to reducing said space; and causing tightening of said belt to the belt holder unit. aligning a base with a belt holder unit, the base comprising a backing plate and at least one belt extraction element (104, 106) extending from the backing plate, wherein a cartridge having an endless abrasive belt pre-tightened around the cartridge is physically coupled with the base such that there is a space between the backing plate and the cartridge; arranging the cartridge to face the belt holder unit such that the cartridge is situated between the backing plate and the belt holder unit; reducing said space by pressing the cartridge against the belt holder unit, wherein the reducing said space causes the at least one belt extraction element (104, 106) to exert force on said belt and push said belt off around the cartridge as a response to reducing said space; and causing tightening of said belt to the belt holder unit.
A system comprising: a plurality of master core processors (102A-102N); a plurality of memory banks (104A-104N); one or more coding banks (110A-1 10N), each of the one or more coding banks being smaller than each of the one or more memory banks; a plurality of bank queues (116A-116N) that queue requests for the memory banks; an arbiter coupled between the master core processors and the bank queues to receive requests from the master core processors and provide the requests to the bank queues; and an access scheduler coupled between the bank queues, the memory banks, and the one or more coding banks to process the requests such that a conflicting request serviceable by the one or more coding banks is provided to the one or more coding banks; wherein data in the one or more coding banks is coded such that servicing a first request includes decoding the data by obtaining at least one other piece of data from the memory banks and using the at least one other piece of data to decode the data; wherein the arbiter is configured to load data in the one or more coding banks using a lookahead process on requests stored in the bank queues. a plurality of master core processors (102A-102N); a plurality of memory banks (104A-104N); one or more coding banks (110A-1 10N), each of the one or more coding banks being smaller than each of the one or more memory banks; a plurality of bank queues (116A-116N) that queue requests for the memory banks; an arbiter coupled between the master core processors and the bank queues to receive requests from the master core processors and provide the requests to the bank queues; and an access scheduler coupled between the bank queues, the memory banks, and the one or more coding banks to process the requests such that a conflicting request serviceable by the one or more coding banks is provided to the one or more coding banks;
An input circuit for an industrial controller comprising: input terminals (18a, 18b) for receiving a sensed voltage and providing a current path between the input terminals; an isolator having isolator inputs connected in series along the current path between the input terminals so that current flow between the input terminals in a first direction activates the isolator; and an active current limiter placed in series along the current path with the isolator inputs to limit current flow through the isolator inputs; wherein the active current limiter provides a comparator with a first input being connected on one side of a sensing resistor and a second input being connected to a second side of the sensing resistor through a precision voltage reference, the sensing resistor being in series with the isolator inputs, and wherein the active current limiter includes a current limiting transistor in series with the isolator inputs that is controlled by the output of the comparator. input terminals (18a, 18b) for receiving a sensed voltage and providing a current path between the input terminals; an isolator having isolator inputs connected in series along the current path between the input terminals so that current flow between the input terminals in a first direction activates the isolator; and an active current limiter placed in series along the current path with the isolator inputs to limit current flow through the isolator inputs; wherein the active current limiter provides a comparator with a first input being connected on one side of a sensing resistor and a second input being connected to a second side of the sensing resistor through a precision voltage reference, the sensing resistor being in series with the isolator inputs, and wherein the active current limiter includes a current limiting transistor in series with the isolator inputs that is controlled by the output of the comparator.
A piezoelectric material comprising: a main component containing a perovskite-type metal oxide that can be expressed by the following general formula; a first subcomponent containing Mn; a second subcomponent containing Li; and a third subcomponent containing Bi, wherein the content of Mn on a metal basis is not less than 0.04 parts by weight and is not greater than 0.36 parts by weight when the metal oxide is 100 parts by weight, the content α of Li on a metal basis is equal to or less than 0.0012 parts by weight (including 0 parts by weight) when the metal oxide is 100 parts by weight, and content β of Bi on a metal basis is not less than 0.042 parts by weight and is not greater than 0.850 parts by weight when the metal oxide is 100 parts by weight (Ba 1-x Ca x) a (Ti 1-y-z Zr y Sn z)O 3 (in the formula, 0.09 ≤ x ≤ 0.30, 0.025 ≤ y ≤ 0.085, 0 ≤ z ≤ 0.02, and 0.986 ≤ a ≤ 1.02). a main component containing a perovskite-type metal oxide that can be expressed by the following general formula; a first subcomponent containing Mn; a second subcomponent containing Li; and a third subcomponent containing Bi,
Movable assembly for aerating a litter covering the ground of an enclosure, comprising a motorised movable base capable of travelling autonomously across said enclosure and a scarifying system towed by said movable base comprising a scarifying shaft on which scarifying blades (20-20'') are installed, said scarifying shaft being rotated by motorised drive means, the scarifying system being installed movable in rotation relative to the movable base, the movable assembly comprising: - means for measuring the available energy load for the movable assembly; characterised by: - means for measuring the attitude (α, ω) of the movable base; and - a device for controlling the scarifying system capable of modifying the height of the scarifying shaft relative to the movable base, so as to adapt the penetration depth of the scarifying blades in said litter based on at least the measured available energy load and the measured attitude (α, ω) of the movable base. - means for measuring the available energy load for the movable assembly; - means for measuring the attitude (α, ω) of the movable base; and - a device for controlling the scarifying system capable of modifying the height of the scarifying shaft relative to the movable base, so as to adapt the penetration depth of the scarifying blades in said litter based on at least the measured available energy load and the measured attitude (α, ω) of the movable base.
A valve for controlling a flow rate of an inlet fluid, the valve comprising: a housing portion having at least one fluid inlet and at least one fluid outlet; at least one thermal actuator comprising at least two containers (318,320) positioned at least partially within the housing portion, the at least two containers (318,320) defining respective interior portions for receiving a working fluid, characterized in that the interior portions are in fluidal communication with each other, and at least one of the containers (318,320) is arranged such that the working fluid in that container can exchange thermal energy with the or another inlet fluid, and in that the containers (318,320) are arranged such that a change in a temperature difference between the working fluid in the respective interior portions of the containers and within a predetermined range of temperature difference causes a quantity of the working fluid to be transferred in or out of at least one of the containers resulting in a change in mass distribution of the working fluid within the containers that causes movement of a portion of the valve which controls the flow rate of the inlet fluid. a housing portion having at least one fluid inlet and at least one fluid outlet; at least one thermal actuator comprising at least two containers (318,320) positioned at least partially within the housing portion, the at least two containers (318,320) defining respective interior portions for receiving a working fluid, characterized in that the interior portions are in fluidal communication with each other, and at least one of the containers (318,320) is arranged such that the working fluid in that container can exchange thermal energy with the or another inlet fluid, and in that the containers (318,320) are arranged such that a change in a temperature difference between the working fluid in the respective interior portions of the containers and within a predetermined range of temperature difference causes a quantity of the working fluid to be transferred in or out of at least one of the containers resulting in a change in mass distribution of the working fluid within the containers that causes movement of a portion of the valve which controls the flow rate of the inlet fluid.
Method for controlling the winding of an elongated element onto a collection reel with the interposition of a service fabric, the method comprising: - rotating the collection reel; - simultaneously winding the elongated element and the service fabric onto the collection reel, wherein said simultaneous winding comprises: - determining the actual winding diameter of the collection reel; - detecting a variation in length of the portion of elongated element about to be deposited onto the collection reel; - adjusting the rotation speed of the collection reel according to said actual winding diameter of the collection reel and the variation in length of said portion of elongated element. - rotating the collection reel; - simultaneously winding the elongated element and the service fabric onto the collection reel, wherein said simultaneous winding comprises: - determining the actual winding diameter of the collection reel; - detecting a variation in length of the portion of elongated element about to be deposited onto the collection reel; - adjusting the rotation speed of the collection reel according to said actual winding diameter of the collection reel and the variation in length of said portion of elongated element.