mhurhangee/patent-ind-claim-en huggingface dataset:
A method for classifying sources of cyber-attacks in attack-sensor systems by analyzing attack metadata, said method comprising the following steps performed by at least one processor: a. obtaining metadata from data regarding attacks in the form of access operations to a sensor-based system, which is monitored by one or more sensors deployed within said sensor-based system; b. filtering portions of data from said metadata for reaching a desirable dataset for modeling; c. creating attack sessions , wherein the attack sessions are created from the filtered portions of data from said metadata; d. extracting statistical features in two learning phases, wherein features from each of the attack sessions are extracted in a second phase of said two phases; e. labeling attack sessions with an appropriate source attack label ; f. training a class model based on said statistical features that have been extracted and on the attack sessions that have been labeled with an appropriate source attack label; g. generating said trained class model; and h. storing said trained class model in a memory, characterized in that said at least one processor creates an attack session by aggregating all atomic attacks from a single attacker in a predetermined time interval and, for the extracting step, extracts features from the atomic attacks from a single attacker in a first phase of said two phases and extracts features from the created single-attacker attack sessions in a second phase of said two phases. a. obtaining metadata from data regarding attacks in the form of access operations to a sensor-based system, which is monitored by one or more sensors deployed within said sensor-based system; b. filtering portions of data from said metadata for reaching a desirable dataset for modeling; c. creating attack sessions , wherein the attack sessions are created from the filtered portions of data from said metadata; d. extracting statistical features in two learning phases, wherein features from each of the attack sessions are extracted in a second phase of said two phases; e. labeling attack sessions with an appropriate source attack label ; f. training a class model based on said statistical features that have been extracted and on the attack sessions that have been labeled with an appropriate source attack label; g. generating said trained class model; and h. storing said trained class model in a memory, characterized in that said at least one processor creates an attack session by aggregating all atomic attacks from a single attacker in a predetermined time interval and, for the extracting step, extracts features from the atomic attacks from a single attacker in a first phase of said two phases and extracts features from the created single-attacker attack sessions in a second phase of said two phases.
Wall holder for a battery-operated vacuum cleaner , comprising a housing which has a receptacle for holding the battery-operated vacuum cleaner , the wall holder having an electrical plug-in connector for contacting a held vacuum cleaner in order to charge the battery, the plug-in connector being connected to a mains plug via at least one power supply cable , the power supply cable being able to be laid in the housing in an integrated manner, characterised in that the housing has a flap as a cover of the integrated power supply cable , the flap having integrated cabling .
A mobile communication system , comprising: a first wireless base station which manages a macro cell ; a second wireless base station which manages a small cell included in the macro cell ; and a core network node ; wherein when a mobile terminal , which stays in the macro cell, transmits (S11) a service establishment request to the core network node , the core network node transmits (S12) the request to the first wireless base station ; when the first wireless base station receives the service establishment request, the first wireless base station determines (S13) whether the requested service is of a type that is establishable in the small cell; when the requested service is of a type that is establishable in the small cell, the first wireless base station transmits (S14) to the core network node a service establishment reply notifying that establishment of the service has failed in order to execute a handover to the small cell; when the requested service is of a type that is not establishable in the small cell, the first wireless base station establishes a bearer between itself and the mobile terminal , whereby the bearer is associated with the requested service; when the core network node receives the service establishment reply notifying that establishment of the service has failed, the core network node transmits (S16) the service establishment request to the second wireless base station ; when the second wireless base station receives the service establishment request from the core network node , the second wireless base station establishes (S17) a bearer between itself and the mobile terminal , whereby the bearer is associated with the requested service. a first wireless base station which manages a macro cell ; a second wireless base station which manages a small cell included in the macro cell ; and a core network node ; wherein when a mobile terminal , which stays in the macro cell, transmits (S11) a service establishment request to the core network node , the core network node transmits (S12) the request to the first wireless base station ; when the first wireless base station receives the service establishment request, the first wireless base station determines (S13) whether the requested service is of a type that is establishable in the small cell; when the requested service is of a type that is establishable in the small cell, the first wireless base station transmits (S14) to the core network node a service establishment reply notifying that establishment of the service has failed in order to execute a handover to the small cell; when the requested service is of a type that is not establishable in the small cell, the first wireless base station establishes a bearer between itself and the mobile terminal , whereby the bearer is associated with the requested service; when the core network node receives the service establishment reply notifying that establishment of the service has failed, the core network node transmits (S16) the service establishment request to the second wireless base station ;
Bistable device comprising a fixed baseplate , at least two levers , a tappet associated with each lever , integral with said lever , disposed between the lever and the baseplate , substantially aligned in a first direction (T1), a lever able to be displaced, relative to the baseplate , so as to displace the associated tappet substantially in translation in the first direction (T1) and a member able to take two positions, characterised in that it further comprises a rocker associated with each lever , disposed between the baseplate and the associated tappet , comprising two V-shapes which face the associated tappet , a touch of the associated tappet in the first V-shape tending to turn the associated rocker in a first direction (R1 +) and a touch of the associated tappet in the second V-shape tending to turn the associated rocker in a second direction (R1-) opposite to the first direction (R1+), in that all the rockers are synchronised in rotation and in that the rockers are synchronised with the member .
A method at a gateway (110, 510; 810) within a sensor system (210; 212; 214) for communicating with at least one sensor module (160; 512, 812), the method comprising: storing a timing profile for communications with the at least one sensor module; powering down a processor of the gateway; waking (720; 1020) a radio core of the gateway at a threshold time prior to a transmission time for a sensor beacon signal from the at least one sensor module; sampling (822; 1022) a channel for the sensor beacon signal at the radio core while the processor of the gateway is powered down; if the sensor beacon signal is detected: waking the processor on the gateway ; exchanging (750; 1040) communication with the at least one sensor module ; providing a report to a network server; and powering down (752; 1042) the processor and radio core upon completion of the exchanging communication. storing a timing profile for communications with the at least one sensor module; powering down a processor of the gateway; waking (720; 1020) a radio core of the gateway at a threshold time prior to a transmission time for a sensor beacon signal from the at least one sensor module; sampling (822; 1022) a channel for the sensor beacon signal at the radio core while the processor of the gateway is powered down; if the sensor beacon signal is detected: waking the processor on the gateway ; exchanging (750; 1040) communication with the at least one sensor module ; providing a report to a network server; and powering down (752; 1042) the processor and radio core upon completion of the exchanging communication. waking the processor on the gateway ; exchanging (750; 1040) communication with the at least one sensor module ; providing a report to a network server; and powering down (752; 1042) the processor and radio core upon completion of the exchanging communication.
A method for producing a tire vulcanization mold , comprising: producing a master mold having a same surface shape as a tire surface to be produced; subsequently producing a rubber mold to which a surface of the master mold is transferred; subsequently casting a plaster mold to which a surface of the rubber mold is transferred; subsequently casting a mold to which a surface of the plaster mold is transferred; and subsequently installing a vent unit at a predetermined position on a tire molding surface of the mold , wherein a tip end of a positioning member at an attachment position corresponding to the predetermined position on the surface of the master mold is installed protruding; the rubber mold is produced using the master mold so that a positioning hole is formed in the rubber mold by the tip end ; the tip end is embedded in the positioning hole with a rear end of the positioning member protruding from the surface of the rubber mold ; the plaster mold is produced using the rubber mold so that the rear end is embedded in the plaster mold with the tip end protruding from the surface of the plaster mold ; a case that constitutes a vent unit is detachably fixed to the tip end ; the vulcanization mold is cast using the plaster mold so that the case is cast and fixed to the vulcanization mold ; a valve body that constitutes the vent unit is inserted and attached to the case removed from the positioning member so that the tire molding surface is installed in the vent unit ; and the case is detachably fixed to the rear end by engaging the case and the positioning member with each other. producing a master mold having a same surface shape as a tire surface to be produced; subsequently producing a rubber mold to which a surface of the master mold is transferred; subsequently casting a plaster mold to which a surface of the rubber mold is transferred; subsequently casting a mold to which a surface of the plaster mold is transferred; and subsequently installing a vent unit at a predetermined position on a tire molding surface of the mold , wherein a tip end of a positioning member at an attachment position corresponding to the predetermined position on the surface of the master mold is installed protruding; the rubber mold is produced using the master mold so that a positioning hole is formed in the rubber mold by the tip end ; the tip end is embedded in the positioning hole with a rear end of the positioning member protruding from the surface of the rubber mold ; the plaster mold is produced using the rubber mold so that the rear end is embedded in the plaster mold with the tip end protruding from the surface of the plaster mold ; a case that constitutes a vent unit is detachably fixed to the tip end ; the vulcanization mold is cast using the plaster mold so that the case is cast and fixed to the vulcanization mold ; a valve body that constitutes the vent unit is inserted and attached to the case removed from the positioning member so that the tire molding surface is installed in the vent unit ; and the case is detachably fixed to the rear end by engaging the case and the positioning member with each other.
An apparatus , comprising: an input for receiving a common mode signal driven into a first end of a communication link for transmitting the common mode signal to a second end of the communication link, the communication link operative in accordance with differential signaling; and a differential mode circuitry is configured to detect differential signal energy at the second end of the communication link while the input receives the common mode signal, the differential mode circuitry including a comparator configured to compare the detected differential signal energy to a threshold for determining a measure of electromagnetic compatibility, EMC, wherein the measure of the EMC is a measure of emission and/or noise immunity on the communication link. an input for receiving a common mode signal driven into a first end of a communication link for transmitting the common mode signal to a second end of the communication link, the communication link operative in accordance with differential signaling; and a differential mode circuitry is configured to detect differential signal energy at the second end of the communication link while the input receives the common mode signal, the differential mode circuitry including a comparator configured to compare the detected differential signal energy to a threshold for determining a measure of electromagnetic compatibility, EMC, wherein the measure of the EMC is a measure of emission and/or noise immunity on the communication link.
A driving assistance apparatus that assists a transition from an autonomous driving mode in which a vehicle is driven under autonomous control to a manual driving mode in which the vehicle is driven by a driver, comprising: one or more memories ; and circuitry that, in operation, performs operations including determining a take-over request method which is a method of presenting, in the vehicle, a take-over request that informs the driver that the autonomous driving mode is going to be cancelled, characterized in that the operations further includes detecting a driving-unrelated activity by the driver among a plurality of driving-unrelated activities that may be detected, and detecting a level of concentration on the detected driving-unrelated activity of the driver, wherein the level of concentration is a measure of how much the driver is concentrated on the driving-unrelated activity in which the driver is engaging, and the determining includes determining the take-over request method based on the detected level of concentration on the driving-unrelated activity of the driver among a plurality of take-over request methods associated with the detected driving-unrelated activity, each of the plurality of take-over request methods being associated with a respective level of concentration. one or more memories ; and circuitry that, in operation, performs operations including determining a take-over request method which is a method of presenting, in the vehicle, a take-over request that informs the driver that the autonomous driving mode is going to be cancelled, characterized in that the operations further includes detecting a driving-unrelated activity by the driver among a plurality of driving-unrelated activities that may be detected, and detecting a level of concentration on the detected driving-unrelated activity of the driver, wherein the level of concentration is a measure of how much the driver is concentrated on the driving-unrelated activity in which the driver is engaging, and detecting a driving-unrelated activity by the driver among a plurality of driving-unrelated activities that may be detected, and detecting a level of concentration on the detected driving-unrelated activity of the driver, wherein the level of concentration is a measure of how much the driver is concentrated on the driving-unrelated activity in which the driver is engaging, and the determining includes determining the take-over request method based on the detected level of concentration on the driving-unrelated activity of the driver among a plurality of take-over request methods associated with the detected driving-unrelated activity, each of the plurality of take-over request methods being associated with a respective level of concentration.
An insect repellent composition comprising p-menthane-3,8-diol in an amount of at least 20% by weight of the composition, vanillin in an amount of 5 to 15% by weight of said composition, sodium bisulphite, and a delivery vehicle.
A method for detecting a touch pattern width, applied for a touch input device which only can report a coordinate information to an operating system without reporting a width information to the operating system concurrently, comprising steps of: receiving first coordinate information and corresponding touch width information of a touch pattern which is not being sent to an operating system, and storing the first coordinate information and the touch width information (S10); receiving second coordinate information of a current touch pattern, wherein the second coordinate information is the coordinate information of the current touch pattern sent by the touch device to the operating system (S20); and searching the first coordinate information which is consistent with the second coordinate information, from the stored first coordinate information, and determining the touch width information corresponding to the first coordinate information that has been searched as the determined width information of the touch pattern (S30); identifying the touch pattern width according to the determined width information which is determined based on the second coordinate information; wherein the first coordinate information and the second coordinate information include a central coordinate value of a closed geometric shape corresponding to the touch pattern; the touch width information includes a length and a width of a bounding rectangle corresponding to the touch pattern, or a long axis and a short axis information of an inscribed ellipse corresponding to the touch pattern. receiving first coordinate information and corresponding touch width information of a touch pattern which is not being sent to an operating system, and storing the first coordinate information and the touch width information (S10); receiving second coordinate information of a current touch pattern, wherein the second coordinate information is the coordinate information of the current touch pattern sent by the touch device to the operating system (S20); and searching the first coordinate information which is consistent with the second coordinate information, from the stored first coordinate information, and determining the touch width information corresponding to the first coordinate information that has been searched as the determined width information of the touch pattern (S30); identifying the touch pattern width according to the determined width information which is determined based on the second coordinate information; wherein the first coordinate information and the second coordinate information include a central coordinate value of a closed geometric shape corresponding to the touch pattern; the touch width information includes a length and a width of a bounding rectangle corresponding to the touch pattern, or a long axis and a short axis information of an inscribed ellipse corresponding to the touch pattern.
A vehicle motion control system for controlling motion of a vehicle, the motion control system comprising: for each wheel of the vehicle, a respective motion control actuator configured to control a motion of the wheel based on a respective actuator control signal (Sa,Sb,Sc,Sd) received by the respective motion control actuators; and a central controller configured to control the motion of the vehicle by sending the respective actuator control signal (Sa) to the respective motion control actuator of each wheel based on a motion control intent signal (Si) received by the central controller ; wherein the vehicle motion control system is configured to determine whether the central controller is functional to send the actuator control signals, and if it is determined that the central controller is not functional, at least one of the motion control actuators is configured to: control a motion of its own wheel based directly on the motion control intent signal (Si), and characterized in that if it is determined that the central controller is not functional the at least one of the motion control actuators is further configured to send respective actuator control signals (Sb,Sc,Sd) to other motion control actuators of each other wheels of the vehicle, based on the motion control intent signal (Si). for each wheel of the vehicle, a respective motion control actuator configured to control a motion of the wheel based on a respective actuator control signal (Sa,Sb,Sc,Sd) received by the respective motion control actuators; and a central controller configured to control the motion of the vehicle by sending the respective actuator control signal (Sa) to the respective motion control actuator of each wheel based on a motion control intent signal (Si) received by the central controller ; wherein the vehicle motion control system is configured to determine whether the central controller is functional to send the actuator control signals, and if it is determined that the central controller is not functional, at least one of the motion control actuators is configured to: control a motion of its own wheel based directly on the motion control intent signal (Si), and