mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a memory; and at least one processor to: continually analyze at least one of metrics, events, and conditions for indications of an attack in a computer network; determine a change in the at least one of metrics, events, and conditions in the computer network, the change comprising at least one of a change in backup deduplication rates, backup data traffic, daily backup change rates, or a number of files backed up daily per client; detect the attack in the computer network based on the change in the at least one of metrics, events, and conditions in the computer network; analyze the at least one of metrics, events, and conditions in the computer network and determine that at least one hardware device has been infected; restrict access to the at least one hardware device that has been infected; and instruct backup server tooling software to make an off-site copy of a previous backup of the at least one hardware device that has been infected. a memory; and at least one processor to: continually analyze at least one of metrics, events, and conditions for indications of an attack in a computer network; determine a change in the at least one of metrics, events, and conditions in the computer network, the change comprising at least one of a change in backup deduplication rates, backup data traffic, daily backup change rates, or a number of files backed up daily per client; detect the attack in the computer network based on the change in the at least one of metrics, events, and conditions in the computer network; analyze the at least one of metrics, events, and conditions in the computer network and determine that at least one hardware device has been infected; restrict access to the at least one hardware device that has been infected; and instruct backup server tooling software to make an off-site copy of a previous backup of the at least one hardware device that has been infected. continually analyze at least one of metrics, events, and conditions for indications of an attack in a computer network; determine a change in the at least one of metrics, events, and conditions in the computer network, the change comprising at least one of a change in backup deduplication rates, backup data traffic, daily backup change rates, or a number of files backed up daily per client; detect the attack in the computer network based on the change in the at least one of metrics, events, and conditions in the computer network; analyze the at least one of metrics, events, and conditions in the computer network and determine that at least one hardware device has been infected; restrict access to the at least one hardware device that has been infected; and instruct backup server tooling software to make an off-site copy of a previous backup of the at least one hardware device that has been infected.
Device for the generative manufacture of components, comprising a base plate which provides a seating surface for the application and compaction of powder in order to manufacture the component, wherein the base plate comprises a plurality of metal sheets, said metal sheets being shaped and arranged adjacent to one another such that the seating surface of the base plate is provided by means of lateral faces of the metal sheets, characterised in that the device is constructed to generate a defined tension force between the metal sheets, said tension force allowing individual metal sheets to yield during the application and compaction of the powder on the seating surface, and the device has a screw connection for generating the defined tension force.
Tire building drum (1, 101, 201, 301, 401, 501) with a first turn-up bladder, wherein the tire building drum (1, 101, 201, 301, 401, 501) comprises a drum body (10, 110, 210) that is rotatable about a central axis extending in an axial direction, wherein the tire building drum (1, 101, 201, 301, 401, 501) comprises a center section for shaping a carcass and a turn-up section for turning-up one or more tire components against the shaped carcass at the center section, wherein the first turn-up bladder is arranged to be expanded at the turn-up section, wherein the first turn-up bladder has a first circumferential edge and a second circumferential edge opposite to the first circumferential edge in the axial direction, and comprises an inflatable bladder body extending between the first circumferential edge and the second circumferential edge, wherein the bladder body, when uninflated, folds onto itself about a fold line at a side of the first circumferential edge opposite to the second circumferential edge in the axial direction, wherein the first circumferential edge and the second circumferential edge extend in a circumferential direction about the central axis around the drum body (10, 110, 210), wherein the tire building drum (1, 101, 201, 301, 401, 501) comprises a first release member (61, 161, 261, 361, 561) and a first actuator (51, 351, 551) for generating a relative movement between said first release member (61, 161, 261, 361, 561) and the drum body (10, 110, 210) to move said first release member (61, 161, 261, 361, 561) in a first release direction, in particular in a first release direction parallel or substantially parallel to the central axis, with respect to the drum body (10, 110, 210) from a first fixation position in which the first release member (61, 161, 261, 361, 561) fixates the first circumferential edge to the drum body (10, 110, 210) into a first release position in which the first release member (61, 161, 261, 361, 561) releases the first circumferential edge from the drum body (10, 110, 210), wherein the first release member (61, 161, 261, 361, 561) is located in the axial direction between the second circumferential edge and the fold line of the uninflated bladder body and covered by said uninflated bladder body in a radial direction perpendicular to the central axis.
A rotor blade of fiber-reinforced plastic for a wind power plant, that comprises a radar absorber embedded in the fiber-reinforced plastic, characterized in that - the integrated radar absorber covers several discrete surface sections (AB 1, AB2) of the rotor blade without covering the entire surface of the rotor blade, - the surface sections (AB1, AB2) extend only along a part of the length of the rotor blade, and a section of the rotor blade edges is located in at least one of the discrete surface sections (AB1, AB2), - the integrated radar absorber comprises a layer close to the surface with a defined electric sheet resistivity of 100 to 800 ohm/square, which is located 2 to 5 mm below the surface, - the integrated radar absorber comprises a layer far removed from the surface with a defined electric sheet resistivity of a maximum of 50 ohm/square in a distance of 5 to 16 mm to the layer close to the surface. - the integrated radar absorber covers several discrete surface sections (AB 1, AB2) of the rotor blade without covering the entire surface of the rotor blade, - the surface sections (AB1, AB2) extend only along a part of the length of the rotor blade, and a section of the rotor blade edges is located in at least one of the discrete surface sections (AB1, AB2), - the integrated radar absorber comprises a layer close to the surface with a defined electric sheet resistivity of 100 to 800 ohm/square, which is located 2 to 5 mm below the surface, - the integrated radar absorber comprises a layer far removed from the surface with a defined electric sheet resistivity of a maximum of 50 ohm/square in a distance of 5 to 16 mm to the layer close to the surface.
System for controlling a lift truck, including: - Human control members generating signals for manually handling actuators of the vehicle, - A module for detecting the vehicle environment, - A navigation module making it possible to generate handling set point signals as a function of an instruction received, - A control module generating handling signals, this control module comprising: ∘ An automatic control sub-module generating autonomous handling signals sent to one or more actuators of the vehicle, as a function of the set point signals and the information from the detection module, ∘ An assisted control sub-module generating manual handling signals corrected as a function of the manual handling signals and the information from the detection module and/or the handling set point signals, - A switching module arranged to select one or more manual handling signals and/or one or more autonomous handling signals, and/or one or more corrected manual handling signals. - Human control members generating signals for manually handling actuators of the vehicle, - A module for detecting the vehicle environment, - A navigation module making it possible to generate handling set point signals as a function of an instruction received, - A control module generating handling signals, this control module comprising: ∘ An automatic control sub-module generating autonomous handling signals sent to one or more actuators of the vehicle, as a function of the set point signals and the information from the detection module, ∘ An assisted control sub-module generating manual handling signals corrected as a function of the manual handling signals and the information from the detection module and/or the handling set point signals, ∘ An automatic control sub-module generating autonomous handling signals sent to one or more actuators of the vehicle, as a function of the set point signals and the information from the detection module, ∘ An assisted control sub-module generating manual handling signals corrected as a function of the manual handling signals and the information from the detection module and/or the handling set point signals, - A switching module arranged to select one or more manual handling signals and/or one or more autonomous handling signals, and/or one or more corrected manual handling signals.
A mounting bracket for supporting an electronic flight bag comprising a mounting assembly comprising a base and a support on which the EFB is supported, the support orientation adjustable with respect to the base, a first positioning mechanism that can be selectively activated to secure the position of the support with respect to the base, a frame having a track, the mounting assembly slideably engaging the track to slide on the track and selectively securable in position on the track and a second positioning mechanism that can be selectively actuated to secure the mounting assembly at any of a number of locations within at least a range of motion along the track, characterized in that the first positioning mechanism can be selectively actuated to secure the mounting assembly at any of an infinite number of locations within at least a range of motion along the track, and in that the second positioning mechanism can be selectively actuated to secure the mounting assembly at any of a number of discrete locations within at least a range of motion along the track.
An apparatus for determining the efficacy of a cleaning cycle that is configured to be placed in a wash chamber containing a fluid, the cleaning cycle comprising a wash cycle and a thermal disinfection cycle, the apparatus comprising: a housing, the exterior of the housing configured to be in contact with the fluid; a thermal sensor configured to provide signals indicative of temperature of the fluid, at least part of the thermal sensor disposed in the housing; characterised by a processor disposed in the housing and communicatively coupled to the thermal sensor, the processor configured to receive the signals from the thermal sensor, and based on the received signals: determine an efficacy of the wash cycle; determine an efficacy of the thermal disinfection cycle; and determine the efficacy of the cleaning cycle based on the efficacy of the wash cycle and the efficacy of the thermal disinfection cycle. a housing, the exterior of the housing configured to be in contact with the fluid; a thermal sensor configured to provide signals indicative of temperature of the fluid, at least part of the thermal sensor disposed in the housing; a processor disposed in the housing and communicatively coupled to the thermal sensor, the processor configured to receive the signals from the thermal sensor, and based on the received signals: determine an efficacy of the wash cycle; determine an efficacy of the thermal disinfection cycle; and determine the efficacy of the cleaning cycle based on the efficacy of the wash cycle and the efficacy of the thermal disinfection cycle. receive the signals from the thermal sensor, and based on the received signals: determine an efficacy of the wash cycle; determine an efficacy of the thermal disinfection cycle; and determine the efficacy of the cleaning cycle based on the efficacy of the wash cycle and the efficacy of the thermal disinfection cycle. determine an efficacy of the wash cycle; determine an efficacy of the thermal disinfection cycle; and determine the efficacy of the cleaning cycle based on the efficacy of the wash cycle and the efficacy of the thermal disinfection cycle.
A gas sensor assembling method comprising the steps of: a) placing an element dummy having a shape similar to that of a sensor element such that it has a longitudinal direction in a vertical direction, said sensor element having an elongated shape mainly composed of a ceramic; b) fitting a through hole in an annularly-mounted member to said element dummy from above vertically, said annularly-mounted member having a disk shape or a cylindrical shape, and said through hole having a shape corresponding to a cross-sectional shape of said sensor element, wherein said annularly-mounted member comprises a plurality of members (7, 8a, 9a, 8b, 9b, 8c); c) fitting a tubular body to an outer periphery of said annularly-mounted member from above vertically; d) placing said sensor element in contact with an upper end portion of said element dummy on a single straight line; and e) descending said element dummy downwardly vertically for descending said sensor element and fitting said through hole in said annularly-mounted member to said sensor element. a) placing an element dummy having a shape similar to that of a sensor element such that it has a longitudinal direction in a vertical direction, said sensor element having an elongated shape mainly composed of a ceramic; b) fitting a through hole in an annularly-mounted member to said element dummy from above vertically, said annularly-mounted member having a disk shape or a cylindrical shape, and said through hole having a shape corresponding to a cross-sectional shape of said sensor element, wherein said annularly-mounted member comprises a plurality of members (7, 8a, 9a, 8b, 9b, 8c); c) fitting a tubular body to an outer periphery of said annularly-mounted member from above vertically; d) placing said sensor element in contact with an upper end portion of said element dummy on a single straight line; and e) descending said element dummy downwardly vertically for descending said sensor element and fitting said through hole in said annularly-mounted member to said sensor element.
Pivotable or slidable lamella shutter for a window or a door with an outer frame which comprises one or multiple fields with lamellae arranged pivotably therein, wherein all lamellae of at least one field are respectively mechanically coupled to one another and are synchronously movable by means of an adjusting mechanism, wherein the adjusting mechanism comprises per field one electric motor used in the lamella shutter, wherein one lamella with an electric motor arranged therein is present in each field, wherein the electric motor is itself directly integrally accommodated in the lamella shutter such that the drive pinion, driven by the electric motor, displaces the rack downward or upward corresponding to the direction of rotation of the electric motor or of the drive pinion, depending on the desired adjustment, characterized in that the outer frame comprises a guide recess, and the drive shaft of the electric motor drives a drive pinion which engages in a rack which is mounted into the guide recess to be longitudinally displaceable in the outer frame, while each non-directly driven lamella has, arranged on its pivot axis, a rotationally-fixed entrainment pinion which meshes with the rack, by which means a proportional synchronous rotational adjustment of all lamellae of a field is achieved, corresponding to the distance, by which the rack is displaced.
An ignition plug comprising: an insulator having an axial hole extending therethrough in the direction of an axial line; a center electrode inserted into a forward end portion of the axial hole; and a metallic shell disposed externally of the insulator, the insulator including a step portion engaged with an inner circumferential portion of the metallic shell and a leg portion extending forward from a forward end of the step portion, wherein the porosity of the leg portion of the insulator is 3.0% or less, and characterized in that the porosity of a first region is equal to or more than 1.20 times the porosity of a second region, where the first region is an outermost region of three regions of the leg portion obtained by radially trisecting the leg portion in a cross section perpendicular to the axial line, and the second region is an innermost region of the three regions. an insulator having an axial hole extending therethrough in the direction of an axial line; a center electrode inserted into a forward end portion of the axial hole; and a metallic shell disposed externally of the insulator, the insulator including a step portion engaged with an inner circumferential portion of the metallic shell and a leg portion extending forward from a forward end of the step portion, wherein the porosity of the leg portion of the insulator is 3.0% or less, and characterized in that the porosity of a first region is equal to or more than 1.20 times the porosity of a second region, where the first region is an outermost region of three regions of the leg portion obtained by radially trisecting the leg portion in a cross section perpendicular to the axial line, and the second region is an innermost region of the three regions.
A method comprising: monitoring a plurality of peripheral devices (14A to 14I) in a system for a plurality of events that indicate that a user is potentially engaged with the system, wherein the plurality of peripheral devices (14A to 14I) include a first one or more peripheral devices (14A to 14I) and a second one or more peripheral devices (14A to 14I), and wherein each of the first one or more peripheral devices (14A to 14I) consumes more power during use than each of the second one or more peripheral devices (14A to 14I), and wherein, during a sample timeout interval, the first one or more peripheral devices (14A to 14I) are not sampled; responsive to a first event of the plurality of events from one of the second one or more peripheral devices (14A to 14I), communicating an indication of the potential user engagement to one or more clients of a plurality of clients (20A to 20N) executable on the system; responsive to an expiration of the sample timeout interval without detecting events from the second one or more peripheral devices (14A to 14I), sampling the first one or more peripheral devices (14A to 14I); detecting a third event from one of the first one or more peripheral devices (14A to 14I) indicating potential user engagement during the sampling, and responsive to detecting the third event indicating potential user engagement, communicating an indication of potential user engagement to the one or more clients (20A to 20N). monitoring a plurality of peripheral devices (14A to 14I) in a system for a plurality of events that indicate that a user is potentially engaged with the system, wherein the plurality of peripheral devices (14A to 14I) include a first one or more peripheral devices (14A to 14I) and a second one or more peripheral devices (14A to 14I), and wherein each of the first one or more peripheral devices (14A to 14I) consumes more power during use than each of the second one or more peripheral devices (14A to 14I), and wherein, during a sample timeout interval, the first one or more peripheral devices (14A to 14I) are not sampled; responsive to a first event of the plurality of events from one of the second one or more peripheral devices (14A to 14I), communicating an indication of the potential user engagement to one or more clients of a plurality of clients (20A to 20N) executable on the system; responsive to an expiration of the sample timeout interval without detecting events from the second one or more peripheral devices (14A to 14I), sampling the first one or more peripheral devices (14A to 14I); detecting a third event from one of the first one or more peripheral devices (14A to 14I) indicating potential user engagement during the sampling, and responsive to detecting the third event indicating potential user engagement, communicating an indication of potential user engagement to the one or more clients (20A to 20N).
A device for supporting cables for articulated vehicles, in particular articulated buses, designed for installation in an intercommunicating compartment between two adjacent cabins (200, 300) of an articulated vehicle, comprising at least one cable-holder element defining internally at least one channel for housing at least one cable, said cable-holder element extending along a line of extension lying substantially in a plane and being flexible on said plane; said device further comprisin: - two anchoring plates connected or connectable to respective ends of the cable-holder element and each configured for the stable mounting to an end portion (200a, 300a) of a respective frame structure of said articulated vehicle, in particular of a respective cabin (200, 300); - at least one connecting element, positioned for connecting between at least one of said ends of the cable-holder element and the respective anchoring plate, comprising at least one joint configured to allow a reciprocal movement, between the respective end of the cable-holder element and the respective anchoring plate, at least about two axes of rotation (A, B) which are not parallel and preferably perpendicular, the device being characterized in that said at least one cable-holder element is defined by a chain with articulated links, comprising a plurality of links connected in succession along said line of extension by means of joining pins defining axes of rotation perpendicular to said lying plane. - two anchoring plates connected or connectable to respective ends of the cable-holder element and each configured for the stable mounting to an end portion (200a, 300a) of a respective frame structure of said articulated vehicle, in particular of a respective cabin (200, 300); - at least one connecting element, positioned for connecting between at least one of said ends of the cable-holder element and the respective anchoring plate, comprising at least one joint configured to allow a reciprocal movement, between the respective end of the cable-holder element and the respective anchoring plate, at least about two axes of rotation (A, B) which are not parallel and preferably perpendicular,