mhurhangee/ep-ind-claims huggingface dataset:
A door actuating unit for actuating a door leaf, comprising a door actuator and a hazard detector, - wherein the door actuator includes an arresting element, - wherein the hazard detector and the arresting element are connected to a control unit, so that the control unit can control the arresting element based on signals from the hazard detector, and - wherein the control unit, by means of a predefined signal from the hazard detector, is adapted to transfer the arresting element into a condition releasing the door actuator, - wherein the door actuating unit includes an energy supply element, in order to supply electric energy to the hazard detector and/or to the arresting unit and/or to the door actuator, characterized in that - the energy supply element is an energy storage, in particular a battery and/or an accumulator and/or a condensator, - the door actuator is electro-hydraulically arrestable and the arresting element is an electrically controllable bi-stable magnetic valve, and - the door actuating unit includes a housing, in which the door actuator, the hazard detector and the energy supply element are disposed. - wherein the door actuator includes an arresting element, - wherein the hazard detector and the arresting element are connected to a control unit, so that the control unit can control the arresting element based on signals from the hazard detector, and - wherein the control unit, by means of a predefined signal from the hazard detector, is adapted to transfer the arresting element into a condition releasing the door actuator, - wherein the door actuating unit includes an energy supply element, in order to supply electric energy to the hazard detector and/or to the arresting unit and/or to the door actuator, - the energy supply element is an energy storage, in particular a battery and/or an accumulator and/or a condensator, - the door actuator is electro-hydraulically arrestable and the arresting element is an electrically controllable bi-stable magnetic valve, and - the door actuating unit includes a housing, in which the door actuator, the hazard detector and the energy supply element are disposed.
An electronic book system, comprising: a publisher processing subsystem configured to permit first publisher supply of an electronic book, and second publisher supply of an extension, the extension comprising a runnable add-on which is implemented via a triggered launch and which provides functionality relating to the book; a distribution subsystem configured to provide the extension to a user of the electronic book system for use with an electronic book reader; and an annotation subsystem, operably coupled with the electronic book reader, configured to add the extension to the book as an annotation, wherein a launch parameter for determining an initial condition of the add-on is responsive to a displayed portion of the book. a publisher processing subsystem configured to permit first publisher supply of an electronic book, and second publisher supply of an extension, the extension comprising a runnable add-on which is implemented via a triggered launch and which provides functionality relating to the book; a distribution subsystem configured to provide the extension to a user of the electronic book system for use with an electronic book reader; and an annotation subsystem, operably coupled with the electronic book reader, configured to add the extension to the book as an annotation, wherein a launch parameter for determining an initial condition of the add-on is responsive to a displayed portion of the book.
A steam generator for a laundry machine comprising: a housing formed to provide a space for holding water; a heater for heating the water to generate steam; a water level sensor for sensing a water level of the water held in the housing; a partition (70, 77) configured to surround the water level sensor for maintaining a stable state of the water at a portion to be sensed by the water level sensor, the water level sensor including: a common electrode, a low water level electrode for measuring a lowest water level, and a high water level electrode for measuring a highest water level, characterized in that the partition (70, 77) has a pass through hole (70a, 70d) provided at a position above a lowest end of the high water level electrode and the partition (70, 77) has a slit (70b, 70c) formed in a range from a lowest end of the low water level electrode to a lowest end of the high water level electrode. a housing formed to provide a space for holding water; a heater for heating the water to generate steam; a water level sensor for sensing a water level of the water held in the housing; a partition (70, 77) configured to surround the water level sensor for maintaining a stable state of the water at a portion to be sensed by the water level sensor, the water level sensor including: a common electrode, a low water level electrode for measuring a lowest water level, and a high water level electrode for measuring a highest water level, a common electrode, a low water level electrode for measuring a lowest water level, and a high water level electrode for measuring a highest water level,
An autonomous transducer system comprising - energy scavenging means; - energy storage means; - load circuit comprising at least one functional block providing a given functionality and a microcontroller comprising internal registers; and - power management module arranged for providing power supplied by said energy scavenging system to said load circuit or for exchanging power with said the energy storage means and wherein said power management module further comprises means for tuning said at least one functional block of said load circuit according to a given configuration scheme and based on information stored internally in said internal registers of said microcontroller, said power management module being operable based on a control signal from said microcontroller. - energy scavenging means; - energy storage means; - load circuit comprising at least one functional block providing a given functionality and a microcontroller comprising internal registers; and - power management module arranged for providing power supplied by said energy scavenging system to said load circuit or for exchanging power with said the energy storage means and wherein said power management module further comprises means for tuning said at least one functional block of said load circuit according to a given configuration scheme and based on information stored internally in said internal registers of said microcontroller, said power management module being operable based on a control signal from said microcontroller.
A suction valve for an endoscope, wherein the endoscope comprises a first conduit and a second conduit, and the suction valve comprises a shaft, a pressing unit, and a holding seat; wherein a first opening and a second opening are provided at a bottom and a sidewall of the shaft, respectively, the first opening communicating with the first conduit; wherein the holding seat is sleeved in the shaft, and a middle portion of the shaft projects outward to form a ridge, the ridge being snap-fitted into the holding seat; and wherein the pressing unit is connected to the shaft, the shaft being provided with a curved slide rail, the pressing unit being provided with a sliding ball at a position in contact with the curved slide rail, the pressing unit comprising a bump, a first slot being provided at a sidewall of the holding seat, the bump being snap-fitted with the first slot such that when the pressing unit is depressed, the bump moves in the first slot and the sliding ball slides along the curved slide rail to bring the shaft to rotate by a preset angle, such that the second opening communicates with the second conduit. a pressing unit, and a holding seat; wherein a first opening and a second opening are provided at a bottom and a sidewall of the shaft, respectively, the first opening communicating with the first conduit; wherein the holding seat is sleeved in the shaft, and a middle portion of the shaft projects outward to form a ridge, the ridge being snap-fitted into the holding seat; and wherein the pressing unit is connected to the shaft, the shaft being provided with a curved slide rail, the pressing unit being provided with a sliding ball at a position in contact with the curved slide rail, the pressing unit comprising a bump, a first slot being provided at a sidewall of the holding seat, the bump being snap-fitted with the first slot such that when the pressing unit is depressed, the bump moves in the first slot and the sliding ball slides along the curved slide rail to bring the shaft to rotate by a preset angle, such that the second opening communicates with the second conduit.
A curable film-forming composition comprising: (a) a film-forming polymer comprising reactive epoxy functional groups; (b) a curing agent comprising acid functional groups reactive with the reactive functional groups in (a); and (c) an acrylic polymer component comprising: (i) epoxy functional groups; and (ii) polydialkylsiloxane functional groups; wherein the components (a), (b) and (c) are different from one another. (a) a film-forming polymer comprising reactive epoxy functional groups; (b) a curing agent comprising acid functional groups reactive with the reactive functional groups in (a); and (c) an acrylic polymer component comprising: (i) epoxy functional groups; and (ii) polydialkylsiloxane functional groups; (i) epoxy functional groups; and (ii) polydialkylsiloxane functional groups;
A cartridge, comprising: a storage component comprising reservoirs that each contains a solution, the storage component comprising a storage component cover and a storage component base, the storage component cover having pockets extending from a side of a common platform, each pocket defining a portion of one of the reservoirs, the storage component base having openings extending through the storage component base such that the openings are each aligned with a different one of the pockets; a transport component being configured to transport the solutions from the reservoirs to a sensor held by the transport component, the sensor being configured to detect a presence and/or amount of an agent in a liquid sample, characterised in that: the transport component is configured to be coupled with the storage component; the transport component is independent from the storage component; and the transport component comprises disruption mechanisms (16, 59, 56) configured to disrupt the sealing integrity of a material on the storage component upon coupling of the storage component and the transport component. a storage component comprising reservoirs that each contains a solution, the storage component comprising a storage component cover and a storage component base, the storage component cover having pockets extending from a side of a common platform, each pocket defining a portion of one of the reservoirs, the storage component base having openings extending through the storage component base such that the openings are each aligned with a different one of the pockets; a transport component being configured to transport the solutions from the reservoirs to a sensor held by the transport component, the sensor being configured to detect a presence and/or amount of an agent in a liquid sample, characterised in that: the transport component is configured to be coupled with the storage component; the transport component is independent from the storage component; and the transport component comprises disruption mechanisms (16, 59, 56) configured to disrupt the sealing integrity of a material on the storage component upon coupling of the storage component and the transport component. the transport component is configured to be coupled with the storage component; the transport component is independent from the storage component; and the transport component comprises disruption mechanisms (16, 59, 56) configured to disrupt the sealing integrity of a material on the storage component upon coupling of the storage component and the transport component.
An authentication device for authenticating a communication device, comprising: an information issuing unit configured to, upon receiving, from an image forming apparatus, service request data including device information identifying the communication device, issue receipt information and send the receipt information to one of the image forming apparatus and the communication device; a first storage unit configured to store the device information included in the service request data and the receipt information issued by the information issuing unit in association with each other; a reception unit configured to receive, from the communication device, the device information of the communication device and the issued receipt information; and an authentication unit configured to compare the received device information and receipt information with the device information and receipt information stored in the first storage unit in association with each other, and output a result of the comparison. an information issuing unit configured to, upon receiving, from an image forming apparatus, service request data including device information identifying the communication device, issue receipt information and send the receipt information to one of the image forming apparatus and the communication device; a first storage unit configured to store the device information included in the service request data and the receipt information issued by the information issuing unit in association with each other; a reception unit configured to receive, from the communication device, the device information of the communication device and the issued receipt information; and an authentication unit configured to compare the received device information and receipt information with the device information and receipt information stored in the first storage unit in association with each other, and output a result of the comparison.
A pressure intensifier for fluids, in particular for liquids, with a cylinder block consisting of several cylinder block members (13.1, 13.2, 13.3) in which a pressure intensifier piston and a control piston move cyclically, wherein the pressure intensifier piston forms a high-pressure working chamber and a low-pressure working chamber in the cylinder block and the control piston controls the movement of the pressure intensifier piston, wherein the cylinder block has an external low-pressure connection and an external high-pressure connection that respectively form an interface with the environment outside the cylinder block, characterized in that the cylinder block members (13.1, 13.2, 13.3) form a compound cylinder block accommodated by a clamping sleeve, and the clamping sleeve holds the cylinder block members (13.1, 13.2, 13.3) next to one another in such a way that they abut one another with their end faces, and biases them against one another.
A container produced from a single-layered, helically bent sheet-metal strip, a first helically extending edge section of the sheet-metal strip being bent toward the outside of the container while forming a helically extending outwardly bent edge, a second, helically extending edge section of the sheet-metal strip overlapping on the inside of the container a third section of the sheet-metal strip adjacent to the outwardly bent edge and extending from the outwardly bent edge in the direction of the second edge section, the second edge section being connected, fluid-tight, to the third section of the sheet-metal strip on the inside of the container, a sealant being introduced on the outside of the container in a helically extending seam that is formed between the outwardly bent edge of the first edge section and the second edge section, in particular between the outwardly bent edge of the first edge section and an offset of the second edge section.
A method of tuning a selected non-volatile memory cell in a vector-by-matrix multiplication array of non-volatile memory cells, the method comprising: (i) setting an initial target current for the selected non-volatile memory cell and setting an output error to zero; (ii) soft erasing all the non-volatile memory cells of the vector-by-matrix multiplication array; (iii) performing a deep programming operation on all non-volatile memory cells other than the selected non-volatile memory cell; (iv) if the output error differs from zero and is positive, meaning the selected non-volatile memory cell has undergone an overshoot in programming, revising the initial target current to a new target current based on the output error (3405A-B); if the output error is equal to zero or is negative, setting the new target current to the previously set target current; (v) performing one or more of a coarse programming operation and a fine programming operation on the selected non-volatile memory cell (vi) performing a read operation on the selected non-volatile memory cell and determining a cell output current drawn by the selected non-volatile memory cell during the read operation; (vii) calculating the output error as a difference between the determined cell output current and the new target current; and (viii) repeating steps (ii), (iii), (iv), (v), (vi), and (vii) until the output error is less than a predetermined threshold. (i) setting an initial target current for the selected non-volatile memory cell and setting an output error to zero; (ii) soft erasing all the non-volatile memory cells of the vector-by-matrix multiplication array; (iii) performing a deep programming operation on all non-volatile memory cells other than the selected non-volatile memory cell; (iv) if the output error differs from zero and is positive, meaning the selected non-volatile memory cell has undergone an overshoot in programming, revising the initial target current to a new target current based on the output error (3405A-B); if the output error is equal to zero or is negative, setting the new target current to the previously set target current; (v) performing one or more of a coarse programming operation and a fine programming operation on the selected non-volatile memory cell (vi) performing a read operation on the selected non-volatile memory cell and determining a cell output current drawn by the selected non-volatile memory cell during the read operation; (vii) calculating the output error as a difference between the determined cell output current and the new target current; and (viii) repeating steps (ii), (iii), (iv), (v), (vi), and (vii) until the output error is less than a predetermined threshold.
Wet room for a rail vehicle, comprising - an interior, which is at least partly delimited by a ceiling, a floor and at least one side wall, - at least one lighting means and/or a light-admitting structure, characterized in that - the wet room comprises a photocatalytic element, which is designed to release air-purifying substances when activated by means of light, wherein the photocatalytic element is configured as a side or ceiling element and is fitted between the at least one lighting means and the interior of the wet room. - an interior, which is at least partly delimited by a ceiling, a floor and at least one side wall, - at least one lighting means and/or a light-admitting structure, - the wet room comprises a photocatalytic element, which is designed to release air-purifying substances when activated by means of light, wherein the photocatalytic element is configured as a side or ceiling element and is fitted between the at least one lighting means and the interior of the wet room.
A network controller for controlling a telecommunications network comprising a plurality of vehicles each including a telecommunications device, the network controller comprising: a network configuration database, containing data representing the configuration of the network; an assets database, containing for each vehicle (i) data representing planned movements of the vehicle in a geographic area, the vehicle having a planned route from a first location to a second location, and (ii) data representing parameters for acceptable variation in said route; an information exchange requirement database, containing data representing expected future network loading; an optimisation engine configured to calculate from the data stored in the network configuration database, assets database and IER database, a set of routes for the vehicles that optimises, subject to the parameters for acceptable variation, the availability of the telecommunications network in the geographic area; and a tasking-order dispatcher, configured to generate tasking orders for transmitting to the vehicles from the set of routes calculated by the optimisation engine. a network configuration database, containing data representing the configuration of the network; an assets database, containing for each vehicle (i) data representing planned movements of the vehicle in a geographic area, the vehicle having a planned route from a first location to a second location, and (ii) data representing parameters for acceptable variation in said route; an information exchange requirement database, containing data representing expected future network loading; an optimisation engine configured to calculate from the data stored in the network configuration database, assets database and IER database, a set of routes for the vehicles that optimises, subject to the parameters for acceptable variation, the availability of the telecommunications network in the geographic area; and a tasking-order dispatcher, configured to generate tasking orders for transmitting to the vehicles from the set of routes calculated by the optimisation engine.
A filter cartridge (900, 1800, 1850) comprising: (a) media (905, 1851) having first and second ends; and surrounding and defining an open filter interior; (b) a first, open, end piece (920, 1855) being positioned at the first end of the media (905, 1851); and, (c) a housing seal arrangement positioned on the first end piece (920, 1855) and comprising: (i) a first radially directed seal surface having at least three radially outwardly projecting sections (923e, 1805) alternating with at least three, radially inwardly projecting sections (931c, 1806), creating a non-circular seal perimeter. (a) media (905, 1851) having first and second ends; and surrounding and defining an open filter interior; (b) a first, open, end piece (920, 1855) being positioned at the first end of the media (905, 1851); and, (c) a housing seal arrangement positioned on the first end piece (920, 1855) and comprising: (i) a first radially directed seal surface having at least three radially outwardly projecting sections (923e, 1805) alternating with at least three, radially inwardly projecting sections (931c, 1806), creating a non-circular seal perimeter. (i) a first radially directed seal surface having at least three radially outwardly projecting sections (923e, 1805) alternating with at least three, radially inwardly projecting sections (931c, 1806), creating a non-circular seal perimeter.