mhurhangee/patent-ind-claim-en huggingface dataset:
Panel, in particular floor panel, - with a panel forming a core - with an upper side , - with an underside , - with a first side edge , - with a second side edge arranged opposite the first side edge , - with a first locking element formed on the first side edge , - with a second locking element formed on the second side edge , the first locking element and the second locking element being designed to correspond to one another, - with a first abutment surface formed on the first side edge , the first abutment surface adjoining the upper side , and - with a second abutment surface formed on the second side edge , wherein the second abutment surface adjoins the upper -side , - said first locking member and said second locking member being adapted to form a horizontal lock in a locking position, - wherein the material of the side edges corresponds to the core material of the panel, - wherein a deformation element is arranged at least in sections on at least one of the abutment surfaces , wherein the deformation element is formed from the material of the side edge , - wherein a deformation section corresponding to the deformation element is provided on the other abutment surface , characterized in - that the deformation element and the deforming section are suitable for being deformed at least in sections in the locking position by the contact of the deformation element with the opposite abutment surface . - with a panel forming a core - with an upper side , - with an underside , - with a first side edge , - with a second side edge arranged opposite the first side edge , - with a first locking element formed on the first side edge , - with a second locking element formed on the second side edge , the first locking element and the second locking element being designed to correspond to one another, - with a first abutment surface formed on the first side edge , the first abutment surface adjoining the upper side , and - with a second abutment surface formed on the second side edge , wherein the second abutment surface adjoins the upper -side , - said first locking member and said second locking member being adapted to form a horizontal lock in a locking position, - wherein the material of the side edges corresponds to the core material of the panel, - wherein a deformation element is arranged at least in sections on at least one of the abutment surfaces , wherein the deformation element is formed from the material of the side edge , - wherein a deformation section corresponding to the deformation element is provided on the other abutment surface , characterized in - that the deformation element and the deforming section are suitable for being deformed at least in sections in the locking position by the contact of the deformation element with the opposite abutment surface .
A device for diagnosing a control device used in a process control system , the device comprising: an energy harvester selected from at least one of: harvesting energy from local heat, recovering energy from local heat, harvesting energy from vibration, recovering energy from vibration, harvesting energy from movement, recovering energy from movement, harvest energy from motion of a valve, harvest energy from an accelerometer, or harvesting energy produced by mechanical movement of the control device; an accelerometer responsive to a motion of the control device and configured to generate a signal when a magnitude of the motion of the control device is greater than a threshold; and a communication module that is configured to (i) receive, from the accelerometer , the signal generated by the accelerometer , (ii) activate, and receive energy harvested by the energy harvester , based on the reception of the signal generated by the accelerometer , and (iii) transmit, after activation, a signal indicative of the magnitude of the motion of the control device being greater than the threshold, wherein the device is physically coupled to the control device . an energy harvester selected from at least one of: harvesting energy from local heat, recovering energy from local heat, harvesting energy from vibration, recovering energy from vibration, harvesting energy from movement, recovering energy from movement, harvest energy from motion of a valve, harvest energy from an accelerometer, or harvesting energy produced by mechanical movement of the control device; an accelerometer responsive to a motion of the control device and configured to generate a signal when a magnitude of the motion of the control device is greater than a threshold; and a communication module that is configured to (i) receive, from the accelerometer , the signal generated by the accelerometer , (ii) activate, and receive energy harvested by the energy harvester , based on the reception of the signal generated by the accelerometer , and (iii) transmit, after activation, a signal indicative of the magnitude of the motion of the control device being greater than the threshold, wherein the device is physically coupled to the control device .
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, configuration information for one or more discovery resource regions, the configuration information including time and frequency resource information and threshold information associated with a reception signal power for each of the one or more discovery resource regions; measuring reception signal power in resources associated with the one or more discovery resource regions; selecting a discovery resource region among the one or more discovery resource regions based on the measured reception signal power and the threshold information; and transmitting a discovery signal using at least one resource included in the selected discovery resource region. receiving, from a base station, configuration information for one or more discovery resource regions, the configuration information including time and frequency resource information and threshold information associated with a reception signal power for each of the one or more discovery resource regions; measuring reception signal power in resources associated with the one or more discovery resource regions; selecting a discovery resource region among the one or more discovery resource regions based on the measured reception signal power and the threshold information; and transmitting a discovery signal using at least one resource included in the selected discovery resource region.
An isolated polypeptide or virus containing an amino acid sequence selected from the group consisting of SEQ ID NOs: 16-21, 35, 65-73 and 75-92.
A power conversion device, comprising: a transformer circuit formed of a center-tapped isolation transformer ; a rectifying circuit formed of a first semiconductor switch element and a second semiconductor switch element , each connected to the transformer circuit; a smoothing circuit formed of a capacitor connected to the rectifying circuit; a positive terminal and a negative terminal connectable to a load ; and a grounding surface to which the negative terminal of the load is connectable, wherein: a cathode terminal of the first switch element and a cathode terminal of the second switch element are each connected to a respective negative terminal of the isolation transformer ; and a connection point of an anode terminal of the first switch element and an anode terminal of the second switch element , and a connection point of a negative terminal of the capacitor and the grounding surface , are the same. a transformer circuit formed of a center-tapped isolation transformer ; a rectifying circuit formed of a first semiconductor switch element and a second semiconductor switch element , each connected to the transformer circuit; a smoothing circuit formed of a capacitor connected to the rectifying circuit; a positive terminal and a negative terminal connectable to a load ; and a grounding surface to which the negative terminal of the load is connectable, wherein: a cathode terminal of the first switch element and a cathode terminal of the second switch element are each connected to a respective negative terminal of the isolation transformer ; and a connection point of an anode terminal of the first switch element and an anode terminal of the second switch element , and a connection point of a negative terminal of the capacitor and the grounding surface , are the same. a cathode terminal of the first switch element and a cathode terminal of the second switch element are each connected to a respective negative terminal of the isolation transformer ; and a connection point of an anode terminal of the first switch element and an anode terminal of the second switch element , and a connection point of a negative terminal of the capacitor and the grounding surface , are the same.
An electronic device comprising: a first circuit board on which a first circuit is mounted; a second circuit board on which a second circuit is mounted; a metal supporter ; and a flexible flat cable disposed on the metal supporter and connecting the first circuit board and the second circuit board to each other, the flexible flat cable transmitting a signal between the first circuit and the second circuit, the flexible flat cable being formed of a plurality of stacked substance layers including a first and second conductor , and the flexible flat cable having a shield surface and a signal surface , wherein the first conductor provides a transmission path for the signal and the second conductor is connected to ground to function as a shield layer that shields electromagnetic waves, between the first conductor and the signal surface only an insulating coat is present and between the first conductor and the shield surface a plurality of physical layers including the second conductor are interposed, characterised in that the flexible flat cable is provided with a plurality of creases , the creases being formed such that the shield surface is valley-folded and the signal surface is mountain-folded, the flexible flat cable being disposed such that each crease has a contact portion where the crease is in contact on the signal surface side with the metal supporter over a folded back portion of predetermined width Wd, the predetermined width Wd lying in a range between 5 mm to 40 mm, the flexible flat cable being provided with the creases such that an interval Wa between adjacent ones of the creases lies in a range between 50 mm and 70 mm. a first circuit board on which a first circuit is mounted; a second circuit board on which a second circuit is mounted; a metal supporter ; and a flexible flat cable disposed on the metal supporter and connecting the first circuit board and the second circuit board to each other, the flexible flat cable transmitting a signal between the first circuit and the second circuit, the flexible flat cable being formed of a plurality of stacked substance layers including a first and second conductor , and the flexible flat cable having a shield surface and a signal surface , wherein
A brake actuator , including a braking member , the braking member including a direct current motor and a braking pad , the motor comprising a shaft and being configured to movably drive the braking pad during rotation of the shaft , the actuator being characterised in that it includes a calculator configured to: - measure, over time, a current consumed by the motor and a voltage across terminals of the motor ; - implement a Kalman filter to calculate, from the current and voltage measured, a filtered current consumed by the motor and a filtered speed of rotation of the shaft of the motor ; - calculate, from the value of the filtered current consumed by the motor and the value of the filtered speed of rotation of the shaft of the motor , a braking application force which is produced by the actuator ; - control switching off the motor when the calculated value of the braking application force reaches a predetermined set point. the motor comprising a shaft and being configured to movably drive the braking pad during rotation of the shaft , the actuator being characterised in that it includes a calculator configured to: - measure, over time, a current consumed by the motor and a voltage across terminals of the motor ; - implement a Kalman filter to calculate, from the current and voltage measured, a filtered current consumed by the motor and a filtered speed of rotation of the shaft of the motor ; - calculate, from the value of the filtered current consumed by the motor and the value of the filtered speed of rotation of the shaft of the motor , a braking application force which is produced by the actuator ; - control switching off the motor when the calculated value of the braking application force reaches a predetermined set point. - measure, over time, a current consumed by the motor and a voltage across terminals of the motor ; - implement a Kalman filter to calculate, from the current and voltage measured, a filtered current consumed by the motor and a filtered speed of rotation of the shaft of the motor ; - calculate, from the value of the filtered current consumed by the motor and the value of the filtered speed of rotation of the shaft of the motor , a braking application force which is produced by the actuator ; - control switching off the motor when the calculated value of the braking application force reaches a predetermined set point.
A method for wireless communication, comprising: transmitting, from a user equipment, UE, an indication to a base station that the UE is capable of processing a resynchronization signal, RSS; determining , at the UE, that a resynchronization signal, RSS, transmission is scheduled for first wireless resources that at least partially overlap with second wireless resources scheduled for another transmission of one or more transmission types, by determining that the first wireless resources and the second wireless resources are in a same physical resource block, PRB, or subframe; determining that the RSS transmission is dropped for the PRB or subframe based at least in part on one or more prioritization rules; and receiving , from the base station, the other transmission and not the RSS transmission over the second wireless resources based at least in part on the one or more prioritization rules that prioritize the one or more transmission types relative to the RSS. transmitting, from a user equipment, UE, an indication to a base station that the UE is capable of processing a resynchronization signal, RSS; determining , at the UE, that a resynchronization signal, RSS, transmission is scheduled for first wireless resources that at least partially overlap with second wireless resources scheduled for another transmission of one or more transmission types, by determining that the first wireless resources and the second wireless resources are in a same physical resource block, PRB, or subframe; determining that the RSS transmission is dropped for the PRB or subframe based at least in part on one or more prioritization rules; and receiving , from the base station, the other transmission and not the RSS transmission over the second wireless resources based at least in part on the one or more prioritization rules that prioritize the one or more transmission types relative to the RSS.
An interrupt system for a RISC-V architecture, comprising a machine mode abnormality or interrupt return address register, a machine mode abnormality cause register, a machine mode abnormality cause stack register, wherein the machine mode abnormality cause stack register is a first CSR (Control and Status Register) register, and the first CSR register is configured to store a value in the machine mode abnormality cause register into a stack by means of a first instruction; characterized in that the first instruction is: "csrrwi x0, pushmcause, offset", and the first instruction includes an operator csrrwi, a destination operand x0, a csr register pushmcause, and an immediate number offset and wherein an operation flow of the instruction "csrrwi x0, pushmcause, offset" is: a processor core decodes a current instruction as the CSR instruction csrrwi, and detects that the corresponding CSR register is pushmcause; the processor core takes out the value of the CSR register mcause and writes the value directly to a stack, wherein the address of the stack is: the address specified in the sp register + offset << 2, where offset is a 5-bit immediate number in the csrrwi instruction code; a hardware writes the value of the mcause to the stack which automatically updates the value of the mcause into the rd register. the machine mode abnormality cause stack register is a first CSR (Control and Status Register) register, and the first CSR register is configured to store a value in the machine mode abnormality cause register into a stack by means of a first instruction; characterized in that the first instruction is: "csrrwi x0, pushmcause, offset", and the first instruction includes an operator csrrwi, a destination operand x0, a csr register pushmcause, and an immediate number offset and wherein an operation flow of the instruction "csrrwi x0, pushmcause, offset" is: a processor core decodes a current instruction as the CSR instruction csrrwi, and detects that the corresponding CSR register is pushmcause; the processor core takes out the value of the CSR register mcause and writes the value directly to a stack, wherein the address of the stack is: the address specified in the sp register + offset << 2, where offset is a 5-bit immediate number in the csrrwi instruction code; a hardware writes the value of the mcause to the stack which automatically updates the value of the mcause into the rd register. a processor core decodes a current instruction as the CSR instruction csrrwi, and detects that the corresponding CSR register is pushmcause; the processor core takes out the value of the CSR register mcause and writes the value directly to a stack, wherein the address of the stack is: the address specified in the sp register + offset << 2, where offset is a 5-bit immediate number in the csrrwi instruction code; a hardware writes the value of the mcause to the stack which automatically updates the value of the mcause into the rd register.
A user terminal (100-1) configured to perform D2D communication that is direct device-to-device communication, in a first frequency band allocated to a first Public Land Mobile Network, PLMN, wherein the first frequency band is managed by a first eNodeB (200-1), comprising: a transmitter configured to transmit, to a second user terminal (100-2), a specific D2D signal that includes frequency band information indicating the first frequency band, wherein: the transmitter transmits the specific D2D signal in a second frequency band different from the first frequency band, wherein the second frequency band is managed by a second eNodeB (200-2), the specific D2D signal is a D2D discovery signal when the first eNodeB (200-1) and the second eNodeB (200-2) are synchronized, and the specific D2D signal is a D2D synchronization signal when the first eNodeB (200-1) and the second eNodeB (200-2) are asynchronous. the transmitter transmits the specific D2D signal in a second frequency band different from the first frequency band, wherein the second frequency band is managed by a second eNodeB (200-2), the specific D2D signal is a D2D discovery signal when the first eNodeB (200-1) and the second eNodeB (200-2) are synchronized, and the specific D2D signal is a D2D synchronization signal when the first eNodeB (200-1) and the second eNodeB (200-2) are asynchronous.
A valve prosthesis for implantation into a native cardiac valve site of an individual, the valve prosthesis comprising: a valve body; and a frame supporting the valve body, the frame comprising: a central portion configured to fit securely within an annulus of the valve site; a support arm extending from the central portion and configured to extend over and secure a native valve leaflet; and a chordae guiding element extending from the support arm and configured to engage chordae of the valve site, wherein the chordae guiding element is configured to angle the chordae so that the chordae are stretched to restrict movement of the valve prosthesis in an upstream direction of blood flow at the valve site, and wherein the chordae guiding element is configured to reduce bending of the chordae to reduce stress on the chordae during the cardiac cycle. a valve body; and a frame supporting the valve body, the frame comprising: a central portion configured to fit securely within an annulus of the valve site; a support arm extending from the central portion and configured to extend over and secure a native valve leaflet; and a chordae guiding element extending from the support arm and configured to engage chordae of the valve site, wherein the chordae guiding element is configured to angle the chordae so that the chordae are stretched to restrict movement of the valve prosthesis in an upstream direction of blood flow at the valve site, and wherein the chordae guiding element is configured to reduce bending of the chordae to reduce stress on the chordae during the cardiac cycle. a central portion configured to fit securely within an annulus of the valve site; a support arm extending from the central portion and configured to extend over and secure a native valve leaflet; and a chordae guiding element extending from the support arm and configured to engage chordae of the valve site, wherein the chordae guiding element is configured to angle the chordae so that the chordae are stretched to restrict movement of the valve prosthesis in an upstream direction of blood flow at the valve site, and wherein the chordae guiding element is configured to reduce bending of the chordae to reduce stress on the chordae during the cardiac cycle.
An adjustable mount for a light signal assembly comprising: a fixture configured to be attached to the light signal assembly; and a mounting track configured to be connected to a cantilever or a bridge , and allow the fixture to be adjustably positioned in a direction substantially parallel to a length of the cantilever or the bridge and mounted to the mounting track ; a chain having one end or an adjustable handrail having one end, and an adjustable handrail upright , wherein the adjustable handrail upright is configured to be attached to the one end of the chain or to the one end of the adjustable handrail , a toe board configured to be connected to the cantilever or bridge , and attached to the adjustable handrail upright , wherein the toe board comprises a plurality of holes allowing the one or more adjustable handrail uprights to be adjustably positioned in the direction substantially parallel to the length of the cantilever or the bridge and mounted to the toe board with mounting hardware . a fixture configured to be attached to the light signal assembly; and a mounting track configured to be connected to a cantilever or a bridge , and allow the fixture to be adjustably positioned in a direction substantially parallel to a length of the cantilever or the bridge and mounted to the mounting track ; a chain having one end or an adjustable handrail having one end, and an adjustable handrail upright , wherein the adjustable handrail upright is configured to be attached to the one end of the chain or to the one end of the adjustable handrail , a toe board configured to be connected to the cantilever or bridge , and attached to the adjustable handrail upright , wherein the toe board comprises a plurality of holes allowing the one or more adjustable handrail uprights to be adjustably positioned in the direction substantially parallel to the length of the cantilever or the bridge and mounted to the toe board with mounting hardware .