mhurhangee/ep-ind-claims huggingface dataset:
A dual circuit burner for a gas stove, the dual circuit burner comprising a burner body having outer gas outlet openings for providing circularly arranged outer flames, inner gas outlet openings for providing circularly arranged inner flames, at least one secondary air outlet opening for providing secondary air at the inner gas outlet openings, and a secondary air chamber which is fluidly connected to the at least one secondary air outlet opening, wherein the secondary air chamber is at least partially ring-shaped when looking from above, characterized in that the at least one secondary air outlet opening is arranged above the inner gas outlet openings.
A computing device for monitoring a virtualization infrastructure of a computer network, the computer network comprising a plurality of servers communicatively coupled by a plurality of network devices comprising a switch fabric and one or more agents configured to execute within corresponding servers of the computer network, wherein each of the servers is a member of one or more aggregates and each of the aggregates comprises one or more of the servers; wherein the computing device is configured to: receive result data for probes issued by each agent to at least one other agent of the one or more agents; determine a status for each issued probe, the status determined based on a selected metric and based on the result data; generate a graphical user interface that includes a plurality of status blocks, the plurality of status blocks arranged in one or more columns having one or more rows of status blocks arranged under the one or more columns, wherein each of the status blocks is associated with a probe issued by a particular one of the agents of the plurality of agents to a particular destination agent of the plurality of agents, and wherein each of the status blocks is rendered in a corresponding color indicative of the status determined for the probe issued by the particular one of the agents of the plurality of agents to the particular destination agent of the plurality of agents; and output the graphical user interface for display at a display device. receive result data for probes issued by each agent to at least one other agent of the one or more agents; determine a status for each issued probe, the status determined based on a selected metric and based on the result data; generate a graphical user interface that includes a plurality of status blocks, the plurality of status blocks arranged in one or more columns having one or more rows of status blocks arranged under the one or more columns, wherein each of the status blocks is associated with a probe issued by a particular one of the agents of the plurality of agents to a particular destination agent of the plurality of agents, and wherein each of the status blocks is rendered in a corresponding color indicative of the status determined for the probe issued by the particular one of the agents of the plurality of agents to the particular destination agent of the plurality of agents; and output the graphical user interface for display at a display device.
An image forming system, comprising: a transporter that transports an object; a transfer unit that transfers an image onto the object transported by the transporter; a fixing unit that fixes, onto the object, the image transferred by the transfer unit; and a processor configured to: in a first mode, exert control to transfer the image onto the object such that the image is fixed onto the object by the fixing unit; in a second mode, exert control to transfer the image onto the object such that the image is not fixed onto the object by the fixing unit, characterized in that the processor is further configured to: when an instruction to change the object so as to transfer the image onto another object, wherein the thickness or the shape is changed, is received through an operation unit, make a transition to the second mode. a transporter that transports an object; a transfer unit that transfers an image onto the object transported by the transporter; a fixing unit that fixes, onto the object, the image transferred by the transfer unit; and a processor configured to: in a first mode, exert control to transfer the image onto the object such that the image is fixed onto the object by the fixing unit; in a second mode, exert control to transfer the image onto the object such that the image is not fixed onto the object by the fixing unit, in a first mode, exert control to transfer the image onto the object such that the image is fixed onto the object by the fixing unit; in a second mode, exert control to transfer the image onto the object such that the image is not fixed onto the object by the fixing unit, characterized in that the processor is further configured to: when an instruction to change the object so as to transfer the image onto another object, wherein the thickness or the shape is changed, is received through an operation unit, make a transition to the second mode.
A circuit (100; 180), comprising: a plurality of non-volatile memory cells (130; 189), characterized by logic (140; 193) configured to use a physical unclonable function to produce a key, to store the key in a set of non-volatile memory cells in the plurality of non-volatile memory cells (130; 189), and to use the physical unclonable function to update the key when a key update protocol signals that the key needs to be updated; logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set, wherein the logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set is configured to disable use of the physical unclonable function; and authentication logic requiring a successful authentication protocol to enable the physical unclonable function to produce the key, wherein the physical unclonable function is configured to utilize entropy generated using non-volatile memory cells in the plurality of non-volatile memory cells (130; 189) to produce the key; or the physical unclonable function is configured to use the set of non-volatile memory cells to produce the key. a plurality of non-volatile memory cells (130; 189), characterized by logic (140; 193) configured to use a physical unclonable function to produce a key, to store the key in a set of non-volatile memory cells in the plurality of non-volatile memory cells (130; 189), and to use the physical unclonable function to update the key when a key update protocol signals that the key needs to be updated; logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set, wherein the logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set is configured to disable use of the physical unclonable function; and authentication logic requiring a successful authentication protocol to enable the physical unclonable function to produce the key, wherein the physical unclonable function is configured to utilize entropy generated using non-volatile memory cells in the plurality of non-volatile memory cells (130; 189) to produce the key; or the physical unclonable function is configured to use the set of non-volatile memory cells to produce the key.
Semiconductor circuit arrangement for controlling a high voltage falling between the ends of a series connection of semiconductor modules (101, 102, 103), wherein each semiconductor module (101, 102, 103) has a parallel connection of at least two components (105, 106, 107, 108), which can each be controlled via a control input by means of a control device, and of which at least a first component can be conductive or blocking in normal operation for the partial voltage of the high voltage applied to it, the remaining component or components (105, 106, 107) of a parallel connection are blocking in normal operation at least when the first component is blocking, and wherein the control device is designed to control, after a detected malfunction of the first component of a semiconductor module (101, 102, 103), the remaining component or components (105, 106, 107) of the corresponding semiconductor module (101, 102, 103) via their control inputs in such a way that the remaining component or components (105, 106, 107) of the corresponding semiconductor module (101, 102, 103) steadily pass into a conductive state, so that the whole semiconductor module comprising the first component passes into a long-lasting conductive state.
A method comprising: at a mobile device, receiving, at a first location, an invitational message for specific media content from a local wireless network, the invitational message being localized to the first location; in response to receiving the invitational message, the mobile device sending a scheduling request to a content transfer scheduling server to cause a transfer of the specific media content to a media device to be scheduled. at a mobile device, receiving, at a first location, an invitational message for specific media content from a local wireless network, the invitational message being localized to the first location; in response to receiving the invitational message, the mobile device sending a scheduling request to a content transfer scheduling server to cause a transfer of the specific media content to a media device to be scheduled.
An electrically powered hydraulic system for a working machine, wherein the electrically powered hydraulic system comprises: an electric motor to power a working hydraulic pump to operate at least one hydraulic function of the working machine, wherein a flow of hydraulic fluid generated by the hydraulic pump is controlled by the operation rotational speed of the electric motor, an electronically controlled control valve for controlling the flow of hydraulic fluid from the pump to the at least one hydraulic function, an operator input device (17, 19, 21) for controlling the at least one hydraulic function, wherein the operator input device is operable in at least two operating ranges (30,32), and characterized by an electronic control unit configured to: - when the operator input device is in a first operating range, maintain the electric motor at a constant rotational speed, and control a variation in flow of hydraulic fluid to the hydraulic function with the electronically controlled control valve, and - when the operator input device is in a second operating range, control a variation in flow of hydraulic fluid by varying the electric motor rotational speed and by controlling the control valve, according to displacement of the operator input device. an electric motor to power a working hydraulic pump to operate at least one hydraulic function of the working machine, wherein a flow of hydraulic fluid generated by the hydraulic pump is controlled by the operation rotational speed of the electric motor, an electronically controlled control valve for controlling the flow of hydraulic fluid from the pump to the at least one hydraulic function, an operator input device (17, 19, 21) for controlling the at least one hydraulic function, wherein the operator input device is operable in at least two operating ranges (30,32), and characterized by an electronic control unit configured to: - when the operator input device is in a first operating range, maintain the electric motor at a constant rotational speed, and control a variation in flow of hydraulic fluid to the hydraulic function with the electronically controlled control valve, and - when the operator input device is in a second operating range, control a variation in flow of hydraulic fluid by varying the electric motor rotational speed and by controlling the control valve, according to displacement of the operator input device. - when the operator input device is in a first operating range, maintain the electric motor at a constant rotational speed, and control a variation in flow of hydraulic fluid to the hydraulic function with the electronically controlled control valve, and - when the operator input device is in a second operating range, control a variation in flow of hydraulic fluid by varying the electric motor rotational speed and by controlling the control valve, according to displacement of the operator input device.
A conditional access system comprising a host configured to receive an incoming data stream and to supply this incoming data stream to a conditional access module, the conditional access module being configured to process the incoming data stream and to provide a corresponding output stream to the host, characterized in that the host and the conditional access module are configured to engage in an authentication protocol with each other upon detection of a code embedded in the incoming data stream or in the output stream.
A support system, comprising: a headwear system adapted to be worn on the head of a user; a frame adapted to have a visor attached thereto to shield at least a portion of the face of the user; a first member attached to the headwear system; a second member attached to the frame, the second member being pivotable relative to the first member so that the frame is pivotable relative to the headwear system; an adjustable mechanism adapted to abut and apply force to the second member in a first state to compress the second member into abutting engagement with the first member and having at least a second state in which the adjustable mechanism does not abut the first member; and an extending pivot member extending axially through a passage in the first member and a passage in the second member, the pivot member comprising threading, the adjustable mechanism comprising cooperating threading via which the position of the adjustable mechanism may be adjusted to place it in the first state or in the at least a second state, the extending pivot member further comprising a first flange, characterized in that the extending pivot member comprises a second flange, spaced from the first flange, the first flange and the second flange capturing a portion of the first member and a portion of the second member therebetween to maintain the extending pivot member, the first member and the second member in operative connection. a headwear system adapted to be worn on the head of a user; a frame adapted to have a visor attached thereto to shield at least a portion of the face of the user; a first member attached to the headwear system; a second member attached to the frame, the second member being pivotable relative to the first member so that the frame is pivotable relative to the headwear system; an adjustable mechanism adapted to abut and apply force to the second member in a first state to compress the second member into abutting engagement with the first member and having at least a second state in which the adjustable mechanism does not abut the first member; and an extending pivot member extending axially through a passage in the first member and a passage in the second member, the pivot member comprising threading, the adjustable mechanism comprising cooperating threading via which the position of the adjustable mechanism may be adjusted to place it in the first state or in the at least a second state, the extending pivot member further comprising a first flange, characterized in that the extending pivot member comprises a second flange, spaced from the first flange, the first flange and the second flange capturing a portion of the first member and a portion of the second member therebetween to maintain the extending pivot member, the first member and the second member in operative connection.
A solder alloy of a tin-silver-copper solder alloy consisting of: tin, silver, copper, bismuth, nickel, and cobalt, and optionally indium and/or antimony, wherein relative to the total amount of the solder "alloy, the silver content is more than 2 mass% and 4 mass% or less, the copper content is 0.1 mass% or more and 1 mass% or less, the bismuth content is 0.5 mass% or more and 4.8 mass% or less, the nickel content is 0.01 mass% or more and 0.15 mass% or less, the cobalt content is 0.001 mass% or more and 0.008 mass% or less, and the tin content is the remaining content. tin, silver, copper, bismuth, nickel, and cobalt, and optionally indium and/or antimony, wherein relative to the total amount of the solder "alloy, the silver content is more than 2 mass% and 4 mass% or less, the copper content is 0.1 mass% or more and 1 mass% or less, the bismuth content is 0.5 mass% or more and 4.8 mass% or less, the nickel content is 0.01 mass% or more and 0.15 mass% or less, the cobalt content is 0.001 mass% or more and 0.008 mass% or less, and the tin content is the remaining content.
A method of manufacturing a solar cell comprising the steps of: a) applying slurry containing TiO 2 particles and heat-treating the applied slurry to form a porous electron transporting layer; b) forming Sb 2 S 3 which is an inorganic semiconductor type sensitizer on a surface of the TiO 2 particle of the porous electron transporting layer, using a chemical bath deposition method; and c) applying a solution containing an P3HT [poly(3-hexylthiophene)] which is an organic photovoltaic material satisfying Chemical Formula 1 to the porous electron transporting layer formed with the inorganic semiconductor type sensitizer to form a hole transporting layer wherein the pores of the porous electron transporting layer are filled with the P3HT, and the applied P3HT and the inorganic semiconductor type sensitizer contact each other, wherein the hole transporting layer has a LUMO level higher than an Ec level which is the lowest energy level of the conduction band of the inorganic semiconductor type sensitizer, so that the photoelectron generated in the hole transporting layer spontaneously moves to the inorganic semiconductor type sensitizer, wherein in Chemical Formula 1, R 1 and R 2 are each independently selected from hydrogen or C6 alkyl group, only one of the R 1 and R 2 is C6 alkyl group, R 1 and R 2 are not hydrogen at the same time, and n is 2 to 10,000. a) applying slurry containing TiO 2 particles and heat-treating the applied slurry to form a porous electron transporting layer; b) forming Sb 2 S 3 which is an inorganic semiconductor type sensitizer on a surface of the TiO 2 particle of the porous electron transporting layer, using a chemical bath deposition method; and c) applying a solution containing an P3HT [poly(3-hexylthiophene)] which is an organic photovoltaic material satisfying Chemical Formula 1 to the porous electron transporting layer formed with the inorganic semiconductor type sensitizer to form a hole transporting layer wherein the pores of the porous electron transporting layer are filled with the P3HT, and the applied P3HT and the inorganic semiconductor type sensitizer contact each other,
A medical imaging system, comprising: - an X-ray image acquisition unit; - a shield placement unit; - a radar unit; and - a processing unit; wherein the X-ray image acquisition unit is configured to acquire an X-ray image of a patient; wherein the shield placement unit is configured to move at least one shield to cover at least one part of the patient to stop or limit X-ray exposure of the at least one part of the patient; wherein the processing unit is configured to control the shield placement unit to move and position the at least one shield; wherein the radar unit is configured to obtain radio frequency "RF" data, wherein the RF data is obtained from the emission of RF radiation and the sensing of reflected RF radiation, and wherein the reflected RF radiation comprises RF radiation reflected from a shield of the at least one shield; and wherein the processing unit is configured to control the shield placement unit to move the shield with respect to the patient, and wherein the control comprises utilization of the RF data. - an X-ray image acquisition unit; - a shield placement unit; - a radar unit; and - a processing unit; wherein the X-ray image acquisition unit is configured to acquire an X-ray image of a patient; wherein the shield placement unit is configured to move at least one shield to cover at least one part of the patient to stop or limit X-ray exposure of the at least one part of the patient; wherein the processing unit is configured to control the shield placement unit to move and position the at least one shield; wherein the radar unit is configured to obtain radio frequency "RF" data, wherein the RF data is obtained from the emission of RF radiation and the sensing of reflected RF radiation, and wherein the reflected RF radiation comprises RF radiation reflected from a shield of the at least one shield; and wherein the processing unit is configured to control the shield placement unit to move the shield with respect to the patient, and wherein the control comprises utilization of the RF data.
A blind rivet nut-setting tool comprising: an output shaft defining a longitudinal axis, the output shaft moveable along the longitudinal axis between a first output shaft position and a second output shaft position; a carrier moveable along the longitudinal axis between a first carrier position and a second carrier position; a first motor configured to rotate the output shaft about the longitudinal axis in response to an external force moving the output shaft in a rearward direction from the first output shaft position to the second output shaft position; and a second motor configured to translate the carrier along the longitudinal axis between the first carrier position and the second carrier position; characterised in that a cam member rotated by the second motor and including a pin arranged in a lobe of the carrier, wherein in response to the cam member being rotated in a first direction by the second motor, the carrier is translated along the longitudinal axis from the first carrier position to the second carrier position, and wherein the output shaft is translated along the longitudinal axis in the rearward direction when the second motor moves the carrier from the first carrier position to the second carrier position. an output shaft defining a longitudinal axis, the output shaft moveable along the longitudinal axis between a first output shaft position and a second output shaft position; a carrier moveable along the longitudinal axis between a first carrier position and a second carrier position; a first motor configured to rotate the output shaft about the longitudinal axis in response to an external force moving the output shaft in a rearward direction from the first output shaft position to the second output shaft position; and a second motor configured to translate the carrier along the longitudinal axis between the first carrier position and the second carrier position; characterised in that a cam member rotated by the second motor and including a pin arranged in a lobe of the carrier, wherein in response to the cam member being rotated in a first direction by the second motor, the carrier is translated along the longitudinal axis from the first carrier position to the second carrier position, and wherein the output shaft is translated along the longitudinal axis in the rearward direction when the second motor moves the carrier from the first carrier position to the second carrier position.