mhurhangee/patent-ind-claim-en huggingface dataset:
A touch surface device , comprising at least: - an element comprising a first face forming the touch surface and a second face opposite to the first face ; - an acoustic wave sensor including at least one portion of piezoelectric material disposed between two electrodes , the portion of piezoelectric material and both electrodes being structured by forming surface wavinesses as wrinkles, the sensor being secured to the second face of the element such that apexes or valleys of the wrinkles are in contact with the second face of the element ; - an electronic circuit coupled to the electrodes of the sensor and configured to identify, from an electric signal intended to be outputted from the electrodes of the sensor , at least one touch gesture made on the touch surface. - an element comprising a first face forming the touch surface and a second face opposite to the first face ; - an acoustic wave sensor including at least one portion of piezoelectric material disposed between two electrodes , the portion of piezoelectric material and both electrodes being structured by forming surface wavinesses as wrinkles, the sensor being secured to the second face of the element such that apexes or valleys of the wrinkles are in contact with the second face of the element ; - an electronic circuit coupled to the electrodes of the sensor and configured to identify, from an electric signal intended to be outputted from the electrodes of the sensor , at least one touch gesture made on the touch surface.
A system for checking project security vulnerabilities for automation system design, the system comprising: a security database configured to store descriptions of known software vulnerability related to an automation system; an Internet crawler application configured to systematically browse the Internet to find new software vulnerability related to the automation system and index the new software vulnerability into the security database ; a security service application configured to: retrieve, from the security database , one or more potential software vulnerabilities related to a hardware/software configuration of the automation system; identify one or more policies related to the potential vulnerabilities wherein each policy describes a potential vulnerability and action to be performed in response to detection of the potential vulnerabilities; apply the policies to the hardware/software configuration and software code corresponding to an automation application to identify one or more actual vulnerabilities; and display the one or more actual vulnerabilities to a user, wherein the one or more actual vulnerabilities are displayed to the user in an Integrated Development Environment (IDE). a security database configured to store descriptions of known software vulnerability related to an automation system; an Internet crawler application configured to systematically browse the Internet to find new software vulnerability related to the automation system and index the new software vulnerability into the security database ; a security service application configured to: retrieve, from the security database , one or more potential software vulnerabilities related to a hardware/software configuration of the automation system; identify one or more policies related to the potential vulnerabilities wherein each policy describes a potential vulnerability and action to be performed in response to detection of the potential vulnerabilities; apply the policies to the hardware/software configuration and software code corresponding to an automation application to identify one or more actual vulnerabilities; and display the one or more actual vulnerabilities to a user, wherein the one or more actual vulnerabilities are displayed to the user in an Integrated Development Environment (IDE). retrieve, from the security database , one or more potential software vulnerabilities related to a hardware/software configuration of the automation system; identify one or more policies related to the potential vulnerabilities wherein each policy describes a potential vulnerability and action to be performed in response to detection of the potential vulnerabilities; apply the policies to the hardware/software configuration and software code corresponding to an automation application to identify one or more actual vulnerabilities; and display the one or more actual vulnerabilities to a user, wherein the one or more actual vulnerabilities are displayed to the user in an Integrated Development Environment (IDE).
A frame for use in manufacturing having a long side and a short side , the frame comprising: a perimeter defined by the long side , a second, opposing long side , the short side , and a second, opposing short side ; a first alignment tab extending from the frame long side , the first alignment tab comprising an alignment element, wherein the first alignment tab and the alignment element allow for positioning of the frame at a manufacturing station at a known location for a manufacturing process to occur within a center area defined by the perimeter, wherein the frame is configured to secure a material within the frame , wherein the frame is configured to be positioned at a first manufacturing station with a first face positioned toward a first manufacturing operation to be performed at the first manufacturing station , wherein the frame is configured to be aligned at the first manufacturing station with the first alignment tab extending from the frame mechanically engaged with the first manufacturing station , wherein the material first face and the frame first face are similarly oriented, wherein the frame is configured to be positioned at a second manufacturing station with a second face positioned toward a second manufacturing operation to be performed at the second manufacturing station , wherein the frame is configured to be aligned at the second manufacturing station with the first alignment tab extending from the frame mechanically engaged with the second manufacturing station , and wherein the material second face and the frame second face are similarly oriented. wherein the frame is configured to secure a material within the frame , wherein the frame is configured to be positioned at a first manufacturing station with a first face positioned toward a first manufacturing operation to be performed at the first manufacturing station , wherein the frame is configured to be aligned at the first manufacturing station with the first alignment tab extending from the frame mechanically engaged with the first manufacturing station , wherein the material first face and the frame first face are similarly oriented, wherein the frame is configured to be positioned at a second manufacturing station with a second face positioned toward a second manufacturing operation to be performed at the second manufacturing station , wherein the frame is configured to be aligned at the second manufacturing station with the first alignment tab extending from the frame mechanically engaged with the second manufacturing station , and wherein the material second face and the frame second face are similarly oriented.
A control apparatus (30, 30.1) for an electrical device arranged in a power supply network (8, 10, 12, 14, 14.1, 14.2) for controlling the restarting of the electrical device upon a blackout in the power supply network (8, 10, 12, 14, 14.1, 14.2), comprising at least one detection unit configured to detect at least one first switch-on condition, wherein the control device (30, 30.1) further comprises: - at least one control unit configured to determine a first switch-on delay period upon a detection of the first switch-on condition, - wherein the first switch-on delay time period is a random time period, and - wherein the control unit is configured to cause an establishment of an electrical connection between the electrical device and the power supply network (8, 10, 12, 14, 14.1, 14.2) at the earliest after the first switch-on delay time period has elapsed, characterized in that - the random first switch-on delay time period is between a minimum time limit value and a maximum time limit value, - the control unit is configured to determine the minimum time limit value and the maximum time limit value in response to at least one parameter selected from the group comprising: - system class of the electrical device , - controllable network load or non-controllable network load of the electrical device , - type of network load of the electrical device , - level of rated power of the network load of the electrical device , - historical data of the electrical device , - local time of the electrical device , - duration of the blackout. - at least one control unit configured to determine a first switch-on delay period upon a detection of the first switch-on condition, - wherein the first switch-on delay time period is a random time period, and - wherein the control unit is configured to cause an establishment of an electrical connection between the electrical device and the power supply network (8, 10, 12, 14, 14.1, 14.2) at the earliest after the first switch-on delay time period has elapsed, - the random first switch-on delay time period is between a minimum time limit value and a maximum time limit value, - the control unit is configured to determine the minimum time limit value and the maximum time limit value in response to at least one parameter selected from the group comprising: - system class of the electrical device , - controllable network load or non-controllable network load of the electrical device , - type of network load of the electrical device , - level of rated power of the network load of the electrical device , - historical data of the electrical device , - local time of the electrical device , - duration of the blackout. - system class of the electrical device , - controllable network load or non-controllable network load of the electrical device , - type of network load of the electrical device , - level of rated power of the network load of the electrical device , - historical data of the electrical device , - local time of the electrical device , - duration of the blackout.
A biopsy device comprising: an outer cannula hub ; an elongated outer cannula carried at a proximal end by said outer cannula hub and defining a tissue cutting edge at an opposite distal end; an inner cannula hub ; an elongated inner cannula carried at a proximal end by said inner cannula hub and concentrically slidably disposed within said outer cannula ; a housing defining a first cavity , a second cavity , and a spring hub between said first and second cavities , said spring hub defining a bore in communication between said first cavity and said second cavity , the first cavity configured to support at least a portion of the inner cannula hub , the bore configured for passage of said inner cannula therethrough; an outer cannula spring disposed within said first cavity in contact between said spring hub and said outer cannula hub , said outer cannula spring having a compressed state in which the spring is configured to produce a force directed distally against said outer cannula hub to propel said outer cannula hub distally; and an inner cannula spring disposed within said second cavity in contact between said spring hub and said inner cannula hub , said inner cannula spring having a compressed state in which the spring is configured to produce a force directed proximally against said inner cannula hub to propel said inner cannula hub proximally. an outer cannula hub ; an elongated outer cannula carried at a proximal end by said outer cannula hub and defining a tissue cutting edge at an opposite distal end; an inner cannula hub ; an elongated inner cannula carried at a proximal end by said inner cannula hub and concentrically slidably disposed within said outer cannula ; a housing defining a first cavity , a second cavity , and a spring hub between said first and second cavities , said spring hub defining a bore in communication between said first cavity and said second cavity , the first cavity configured to support at least a portion of the inner cannula hub , the bore configured for passage of said inner cannula therethrough; an outer cannula spring disposed within said first cavity in contact between said spring hub and said outer cannula hub , said outer cannula spring having a compressed state in which the spring is configured to produce a force directed distally against said outer cannula hub to propel said outer cannula hub distally; and an inner cannula spring disposed within said second cavity in contact between said spring hub and said inner cannula hub , said inner cannula spring having a compressed state in which the spring is configured to produce a force directed proximally against said inner cannula hub to propel said inner cannula hub proximally.
A method of operation of a network node in a telecommunications network, the method, performed by the network node, comprising: storing information defining at least one network slice; comparing a neighbour cell list of said cell against a list of cells in the coverage area of the network slice; if one or more cell appearing in said neighbour cell list does not appear in the list of cells in the coverage area of the network slice, determining that said cell defines at least a part of the boundary of the coverage area of the network slice; based on said determining, for the at least one defined network slice, storing information identifying a plurality of cells that define at least a part of a boundary of a coverage area of the network slice; and adapting the operation of a cell depending on whether or not the cell defines at least a part of the boundary of the coverage area of the network slice. storing information defining at least one network slice; comparing a neighbour cell list of said cell against a list of cells in the coverage area of the network slice; if one or more cell appearing in said neighbour cell list does not appear in the list of cells in the coverage area of the network slice, determining that said cell defines at least a part of the boundary of the coverage area of the network slice; based on said determining, for the at least one defined network slice, storing information identifying a plurality of cells that define at least a part of a boundary of a coverage area of the network slice; and adapting the operation of a cell depending on whether or not the cell defines at least a part of the boundary of the coverage area of the network slice.
Method for monitoring tyre properties of vehicle tyres on a vehicle , having at least the following steps of a) providing vehicle tyres having a multiplicity of tyre modules on a vehicle, wherein the tyre modules each have at least one sensor for measuring tyre properties, b) starting and moving the vehicle , wherein the tyre modules change from a standstill mode to a movement mode , characterized by c) stopping the vehicle , wherein at least one sensor in the tyre module detects the standstill or a slow movement of the vehicle tyre and then changes to a receiving mode for a stationary receiving apparatus , wherein, in this mode , the frequency of transmission of the tyre modules is increased in comparison with the frequency of transmission in the standstill mode or a travel mode in order to reduce the required standing time of the vehicle beside the stationary receiving apparatus for the purpose of receiving the tyre properties from the tyre modules , d) transitioning to an interim mode if a predefined period is exceeded or transitioning to the movement mode . a) providing vehicle tyres having a multiplicity of tyre modules on a vehicle, wherein the tyre modules each have at least one sensor for measuring tyre properties, b) starting and moving the vehicle , wherein the tyre modules change from a standstill mode to a movement mode , characterized by wherein the tyre modules change from a standstill mode to a movement mode , characterized by c) stopping the vehicle , wherein at least one sensor in the tyre module detects the standstill or a slow movement of the vehicle tyre and then changes to a receiving mode for a stationary receiving apparatus , wherein, in this mode , the frequency of transmission of the tyre modules is increased in comparison with the frequency of transmission in the standstill mode or a travel mode in order to reduce the required standing time of the vehicle beside the stationary receiving apparatus for the purpose of receiving the tyre properties from the tyre modules , wherein at least one sensor in the tyre module detects the standstill or a slow movement of the vehicle tyre and then changes to a receiving mode for a stationary receiving apparatus , wherein, in this mode , the frequency of transmission of the tyre modules is increased in comparison with the frequency of transmission in the standstill mode or a travel mode in order to reduce the required standing time of the vehicle beside the stationary receiving apparatus for the purpose of receiving the tyre properties from the tyre modules , d) transitioning to an interim mode if a predefined period is exceeded or transitioning to the movement mode .
An electronic device comprising: a communication module ; an audio processing module ; a memory configured to store at least one noise cancellation variable; and a processor configured to: classify the at least one noise cancellation variable corresponding to electric field strengths based on characteristics of a device for an audio signal output comprised in the electronic device; control the memory to store the at least one noise cancellation variable; establish a call with a counterpart electronic device using the communication module ; determine an electric field strength of the electronic device; determine a noise cancellation variable corresponding to the determined electric field strength of the electronic device among the at least one noise cancellation variable, wherein the noise cancellation variable includes a noise suppression level; and control the audio processing module to cancel a noise of an audio signal based on the noise cancellation variable corresponding to the determined electric field strength of the electronic device. a communication module ; an audio processing module ; a memory configured to store at least one noise cancellation variable; and a processor configured to: classify the at least one noise cancellation variable corresponding to electric field strengths based on characteristics of a device for an audio signal output comprised in the electronic device; control the memory to store the at least one noise cancellation variable; establish a call with a counterpart electronic device using the communication module ; determine an electric field strength of the electronic device; determine a noise cancellation variable corresponding to the determined electric field strength of the electronic device among the at least one noise cancellation variable, wherein the noise cancellation variable includes a noise suppression level; and control the audio processing module to cancel a noise of an audio signal based on the noise cancellation variable corresponding to the determined electric field strength of the electronic device. classify the at least one noise cancellation variable corresponding to electric field strengths based on characteristics of a device for an audio signal output comprised in the electronic device; control the memory to store the at least one noise cancellation variable; establish a call with a counterpart electronic device using the communication module ; determine an electric field strength of the electronic device; determine a noise cancellation variable corresponding to the determined electric field strength of the electronic device among the at least one noise cancellation variable, wherein the noise cancellation variable includes a noise suppression level; and control the audio processing module to cancel a noise of an audio signal based on the noise cancellation variable corresponding to the determined electric field strength of the electronic device.
Method for selecting a program function (APFa, APFb) for providing a multiply implemented function , particularly in a vehicle , ship or in an aircraft, wherein dependencies (A) are or have been recorded between single performance values (DegO, Deg1) for functional units (16, 20, 22, M, APF) that are used for performing the program function (APFa, APFb) and total performance values (p) that have been stipulated for a multiply implemented function , wherein current single performance values (X) of the functional units (16, 20, 22, M, APF) are ascertained, wherein the ascertained single performance values (X) and the recorded dependencies (A) are used to ascertain or to compute a total performance value (y) for the functional units (16, 20, 22, M, APF), and wherein the total performance value (y) or at least one value ascertained or computed therefrom is used for selecting the program function (APFa) or another program function (APFb) for providing the multiply implemented function , and wherein the single performance values (DegO, Deg1) and the current single performance values (X) are generic, functionally nonspecific degradation levels.
An air purging unit for an imaging device , comprising: a barrel ; a fluid-flow channel (104, 204, 204-1 to 204-4), one end of the fluid-flow channel being connected to the barrel and another end of the fluid-flow channel being removably couplable to an inlet (306, 406, 406-1 to 406-4) of a housing of the imaging device, the inlet being couplable to a fluid delivery tube (308, 408, 408-1 to 408-4) from a fluid storage chamber (302, 402, 402-1 to 402-4) to deliver a printing fluid to a cartridge; a piston element forming an air-tight seal inside the barrel; a spring element , in a biased state, connected between an inner surface of the barrel and the piston element; and a locking unit to lock the piston element and retain the spring element in the biased state, wherein the locking unit is unlockable to release the piston element, break the air-tight seal, and unbias the spring element to remove air from the fluid delivery tube through the inlet prior to coupling the cartridge to the inlet. a barrel ; a fluid-flow channel (104, 204, 204-1 to 204-4), one end of the fluid-flow channel being connected to the barrel and another end of the fluid-flow channel being removably couplable to an inlet (306, 406, 406-1 to 406-4) of a housing of the imaging device, the inlet being couplable to a fluid delivery tube (308, 408, 408-1 to 408-4) from a fluid storage chamber (302, 402, 402-1 to 402-4) to deliver a printing fluid to a cartridge; a piston element forming an air-tight seal inside the barrel; a spring element , in a biased state, connected between an inner surface of the barrel and the piston element; and a locking unit to lock the piston element and retain the spring element in the biased state, wherein the locking unit is unlockable to release the piston element, break the air-tight seal, and unbias the spring element to remove air from the fluid delivery tube through the inlet prior to coupling the cartridge to the inlet.
Spun poly(2,5-benzimidazole) (ABPBI) fibers characterized by having the following properties: a. filaments in the range of 1.67 dtex (1.5 denier) to 13.33 dtex (12.0 denier); b. tenacity in the range of 2.21 cN/dtex (2.5 grams per denier) to 3.53 cN/dtex (4.0 grams per denier); c. break strength in the range of 3.92 cN (4.0 gmf) to 14.71 cN (15 gmf); and d. elogantion at break in the range of 15 - 25% a. filaments in the range of 1.67 dtex (1.5 denier) to 13.33 dtex (12.0 denier); b. tenacity in the range of 2.21 cN/dtex (2.5 grams per denier) to 3.53 cN/dtex (4.0 grams per denier); c. break strength in the range of 3.92 cN (4.0 gmf) to 14.71 cN (15 gmf); and d. elogantion at break in the range of 15 - 25%