mhurhangee/ep-ind-claims huggingface dataset:
A method of managing IoT-based devices (104A-N) in an Internet-of-Things, IoT, environment (100, 700) including an IoT-cloud platform and a plurality of IoT-based devices (104A-N) connectable to the IoT-cloud platform, comprising: a) determining, by the IoT-cloud platform, a violation of at least one pre-defined security requirement by at least one vulnerable IoT-based device; b) terminating, by the IoT-cloud platform, communication with the vulnerable IoT based device when the violation of the at least one pre-defined security requirement by the at least one vulnerable IoT-based device is determined, characterized in that the method further comprises the following steps: c) generating, by the IoT-cloud platform, a unique signature of the vulnerable IoT-based device based on information associated with the vulnerable IoT-based device; and d) sending, by the IoT-cloud platform, a first notification indicating that the vulnerable IoT-based device violates the at least one pre-defined security requirement to one or more other non-vulnerable IoT-based devices (104B-N) connected to the IoT-cloud platform, wherein the first notification comprises the unique signature of the vulnerable IoT-based device, and e) wherein the one or more other non-vulnerable IoT-based devices (104B-N) terminate communication with the vulnerable IoT-based device based on the unique signature of the vulnerable IoT-based device in the first notification. a) determining, by the IoT-cloud platform, a violation of at least one pre-defined security requirement by at least one vulnerable IoT-based device; b) terminating, by the IoT-cloud platform, communication with the vulnerable IoT based device when the violation of the at least one pre-defined security requirement by the at least one vulnerable IoT-based device is determined, characterized in that the method further comprises the following steps: c) generating, by the IoT-cloud platform, a unique signature of the vulnerable IoT-based device based on information associated with the vulnerable IoT-based device; and d) sending, by the IoT-cloud platform, a first notification indicating that the vulnerable IoT-based device violates the at least one pre-defined security requirement to one or more other non-vulnerable IoT-based devices (104B-N) connected to the IoT-cloud platform, wherein the first notification comprises the unique signature of the vulnerable IoT-based device, and e) wherein the one or more other non-vulnerable IoT-based devices (104B-N) terminate communication with the vulnerable IoT-based device based on the unique signature of the vulnerable IoT-based device in the first notification.
A method for implementing a Multimedia Broadcast Multicast Service, hereafter referred to as MBMS, counting in a wireless communication network environment, wherein a plurality of User Equipments, hereafter referred as UE, and at least one Radio Network Controller, hereafter referred as CRNC, are located in the wireless communication network, the method comprising: setting a threshold in the CRNC to judge whether selecting the point-to-point mode or selecting the point-to-multipoint mode; confirming a counting response from the UE by means of sensing a first message containing a Service ID list and a counting sequence number to the UE when the CRNC receives a connection request from the UE, storing the counting sequence number in the UE and starting a first timer configured in the UE when the UE receives the first message; not responding to a counting when a further counting sequence number and a further Service ID list in a further message received from the CRNC are the same as the counting sequence number and the Service ID list stored in UE and when the first timer does not expire; starting a new counting response by responding to the counting and stopping the first timer when either the further counting sequence number or the further Service ID list in the further message is distinguishing from the counting sequence number or the Service ID list stored in UE and when the first timer does not expire, applying a point-to-point mode if the number of responses does not reach the threshold; and applying a point-to-multipoint mode if the number of responses reaches the threshold. setting a threshold in the CRNC to judge whether selecting the point-to-point mode or selecting the point-to-multipoint mode; confirming a counting response from the UE by means of sensing a first message containing a Service ID list and a counting sequence number to the UE when the CRNC receives a connection request from the UE, storing the counting sequence number in the UE and starting a first timer configured in the UE when the UE receives the first message; not responding to a counting when a further counting sequence number and a further Service ID list in a further message received from the CRNC are the same as the counting sequence number and the Service ID list stored in UE and when the first timer does not expire; starting a new counting response by responding to the counting and stopping the first timer when either the further counting sequence number or the further Service ID list in the further message is distinguishing from the counting sequence number or the Service ID list stored in UE and when the first timer does not expire, applying a point-to-point mode if the number of responses does not reach the threshold; and applying a point-to-multipoint mode if the number of responses reaches the threshold.
A scrubber apparatus for removing contaminants from a gas stream, comprising: a tank having a ceiling, walls, a floor, a gas inlet, a gas outlet, one or more submerged heads, a scrubbing fluid inlet at an upper end, and a scrubbing fluid outlet in the floor; a first baffle extending horizontally between the four walls of the tank and disposed above the submerged head and below the gas outlet; one or more spray means for spraying scrubbing fluid from an upper end of the tank; characterized in that the one or more submerged head extending horizontally between the four walls of the tank above the scrubbing fluid outlet and below the gas outlet, and further comprising a plate having a plurality of narrow slots extending throughout, four solid joined vertical walls inset from the walls of the tank and extending below the plate to form an open ended box under the plate, and a row of scrubbing fluid openings along each edge of the plate between the walls of the tank and the vertical walls of the submerged head. a tank having a ceiling, walls, a floor, a gas inlet, a gas outlet, one or more submerged heads, a scrubbing fluid inlet at an upper end, and a scrubbing fluid outlet in the floor; a first baffle extending horizontally between the four walls of the tank and disposed above the submerged head and below the gas outlet; one or more spray means for spraying scrubbing fluid from an upper end of the tank; characterized in that the one or more submerged head extending horizontally between the four walls of the tank above the scrubbing fluid outlet and below the gas outlet, and further comprising a plate having a plurality of narrow slots extending throughout, four solid joined vertical walls inset from the walls of the tank and extending below the plate to form an open ended box under the plate, and a row of scrubbing fluid openings along each edge of the plate between the walls of the tank and the vertical walls of the submerged head.
Use of organic oxyimides, comprising at least one structural element of subsequently illustrated formula I as radical generators in plastic materials, wherein the organic oxyimides are mixed with a plastic material or a moulding compound comprising at least one plastic material and activated, wherein the activation is effected thermally or by irradiation and the activation is effected during a shaping process of the plastic material or of the moulding compound comprising at least one plastic material and the shaping process is injection moulding or extrusion.
A door having a device for openable latching of the door, a control device for operating the device, and a connection connecting the device and the control device, wherein the device comprises a latch housing having a latch being adjustable between a protruding position and a retracted position, and a movable arm cooperating with the latch, wherein a first portion of the arm is connected to the control device for operating the latch through the arm, wherein a second portion of the arm is arranged with a blocking surface for engaging a portion of the latch in the protruding position of the latch and thereby forming a blocking function for preventing the latch from being displaced into the latch housing due to a force acting upon an outer side of the latch outside the latch housing, and wherein the device comprises a movable unblocking element having a strike surface for cooperation with an element outside the latch housing, and a portion for cooperation with the arm, wherein the unblocking element is arranged for unblocking the blocking function when a force is applied on the strike surface of the unblocking element, characterised in that the latch is spring biased towards its protruding position through the arm, the connection and the control device.
A composition comprising an inactivated pestivirus comprising a nucleic acid sequence that has at least 95% identity to SEQ ID NO: 1 as defined on pages 9 to 13.
A surgical apparatus configured and dimensioned to create an internal surgical worksite, the surgical apparatus comprising: an expandable dissection element; and wherein the surgical apparatus further comprises a restrictor in contact with the dissection element to restrict expansion of the dissection element in at least one direction, wherein the restrictor is less resilient than the dissection element, the restrictor comprising: a first portion (402 A) including a first arm (404 A1) and a second arm (404 A2); and a second portion (402 B) connected to the first portion, the second portion including a first arm (404 B1) and a second arm (404 B2), wherein the first arm of the first portion is connected to the first arm of the second portion, and the second arm of the first portion is secured to the second arm of the second portion whereby the restrictor element extends around the expandable dissection element and divides the surface of the expandable dissection element intermediate the restrictor element into three separate areas. an expandable dissection element; and wherein the surgical apparatus further comprises a restrictor in contact with the dissection element to restrict expansion of the dissection element in at least one direction, wherein the restrictor is less resilient than the dissection element, the restrictor comprising: a first portion (402 A) including a first arm (404 A1) and a second arm (404 A2); and a second portion (402 B) connected to the first portion, the second portion including a first arm (404 B1) and a second arm (404 B2), wherein the first arm of the first portion is connected to the first arm of the second portion, and the second arm of the first portion is secured to the second arm of the second portion whereby the restrictor element extends around the expandable dissection element and divides the surface of the expandable dissection element intermediate the restrictor element into three separate areas. a first portion (402 A) including a first arm (404 A1) and a second arm (404 A2); and a second portion (402 B) connected to the first portion, the second portion including a first arm (404 B1) and a second arm (404 B2), wherein the first arm of the first portion is connected to the first arm of the second portion, and the second arm of the first portion is secured to the second arm of the second portion whereby the restrictor element extends around the expandable dissection element and divides the surface of the expandable dissection element intermediate the restrictor element into three separate areas.
A method of fabricating a rack, the method comprising: supporting a first rack bar having a first toothed part on a shaft of the first rack bar; supporting a second rack bar having a second toothed part on a shaft of the second rack bar such that an axial center line of the second rack bar coincides with an axial center line of the first rack bar; supporting a joint member (15, 16) between the first and second rack bars (12A, 12B) such that an axial center line of the joint member (15, 16) coincides with the axial center lines of the first and second rack bars (12A, 12B); rotating the joint member (15, 16) about the axial center lines of the first and second rack bars (12A, 12B) relative to the first and second rack bars (12A, 12B); and simultaneously bringing an end of the first rack bar and an end of the second rack bar into friction pressure welding with the joint member (15, 16). supporting a first rack bar having a first toothed part on a shaft of the first rack bar; supporting a second rack bar having a second toothed part on a shaft of the second rack bar such that an axial center line of the second rack bar coincides with an axial center line of the first rack bar; supporting a joint member (15, 16) between the first and second rack bars (12A, 12B) such that an axial center line of the joint member (15, 16) coincides with the axial center lines of the first and second rack bars (12A, 12B); rotating the joint member (15, 16) about the axial center lines of the first and second rack bars (12A, 12B) relative to the first and second rack bars (12A, 12B); and simultaneously bringing an end of the first rack bar and an end of the second rack bar into friction pressure welding with the joint member (15, 16).
A method comprising: detecting a change in a multiple-switch configuration in a data communications network comprising a plurality of packet data switches configured as roots of multicast trees; characterized in that the method comprises: in response to detecting that the multiple-switch configuration has changed: retrieving a first value, a second value and a third value representing limits on a number of multicast trees supported in the network and prioritization of the switches; determining (420, 430,440) a type of the multiple-switch configuration change; in response to determining that the type indicates that a first switch was added to the multiple-switch configuration, determining, using at least the first, second and third values,. whether to configure the first switch as a first root in the multiple-switch configuration; wherein the first value indicates a maximum quantity of multi-destination trees that the network supports; wherein the second value indicates a minimum quantity of the multi-destination trees that the network supports; wherein the third value indicates a minimum priority value used to determine whether a particular node becomes a particular root and is not lesser than an edge default priority value and not greater than a core default priority value; and wherein the method is performed by one or more computing devices. detecting a change in a multiple-switch configuration in a data communications network comprising a plurality of packet data switches configured as roots of multicast trees; in response to detecting that the multiple-switch configuration has changed: retrieving a first value, a second value and a third value representing limits on a number of multicast trees supported in the network and prioritization of the switches; determining (420, 430,440) a type of the multiple-switch configuration change; in response to determining that the type indicates that a first switch was added to the multiple-switch configuration, determining, using at least the first, second and third values,. whether to configure the first switch as a first root in the multiple-switch configuration; wherein the first value indicates a maximum quantity of multi-destination trees that the network supports; wherein the second value indicates a minimum quantity of the multi-destination trees that the network supports; wherein the third value indicates a minimum priority value used to determine whether a particular node becomes a particular root and is not lesser than an edge default priority value and not greater than a core default priority value; and wherein the method is performed by one or more computing devices.
An electronic device (201, 400) comprising: an infrared rays, IR, sensor; a memory (130, 230); and a processor (120, 210) electrically connected to the IR sensor and the memory (130, 230), wherein the memory (130, 230) stores instructions which, when executed, cause the processor (120, 210) to: receive an image using the IR sensor, determine at least one region of interest, ROI, (811, 821, 831, 841) for measuring a heart rate, HR, in the received image, and determine the HR based on the at least one determined ROI (811, 821, 831, 841), CHARACTERISED IN THAT the instructions further cause the processor (120, 210) to: receive a request for user authentication; recognise an iris of a user using the IR sensor; determine whether measurement of the HR is possible in the ROI (811, 821, 831, 841); and complete the user authentication based on the recognised iris if the measurement of the HR is possible. an infrared rays, IR, sensor; a memory (130, 230); and a processor (120, 210) electrically connected to the IR sensor and the memory (130, 230), wherein the memory (130, 230) stores instructions which, when executed, cause the processor (120, 210) to: receive an image using the IR sensor, determine at least one region of interest, ROI, (811, 821, 831, 841) for measuring receive an image using the IR sensor, determine at least one region of interest, ROI, (811, 821, 831, 841) for measuring a heart rate, HR, in the received image, and determine the HR based on the at least one determined ROI (811, 821, 831, 841), CHARACTERISED IN THAT the instructions further cause the processor (120, 210) to: receive a request for user authentication; recognise an iris of a user using the IR sensor; determine whether measurement of the HR is possible in the ROI (811, 821, 831, 841); and complete the user authentication based on the recognised iris if the measurement of the HR is possible. receive a request for user authentication; recognise an iris of a user using the IR sensor; determine whether measurement of the HR is possible in the ROI (811, 821, 831, 841); and complete the user authentication based on the recognised iris if the measurement of the HR is possible.
A microporous battery separator for a lithium battery comprising: a polyolefin layer which comprises at least one membrane of polypropylene; at least one non-woven layer on each side of the polyolefin layer; wherein the non-woven layer comprises polypropylene, and a surfactant coating or treatment therein or thereon the separator, and wherein the surfactant comprises a lithium salt. a polyolefin layer which comprises at least one membrane of polypropylene; at least one non-woven layer on each side of the polyolefin layer; wherein the non-woven layer comprises polypropylene, and a surfactant coating or treatment therein or thereon the separator, and wherein the surfactant comprises a lithium salt.
A vibration damper (200, 300, 400) with four torsion spring elements, wherein each torsion spring element has an inner part, an outer part and at least one elastic element, wherein the inner part is arranged in the outer part, wherein the elastic element is arranged between the inner part and the outer part, and supports the inner part relative to the outer part in such a way that, when the inner part and the outer part are deflected relative to each other, a restoring force is produced between the inner part and the outer part, wherein the torsion spring elements are arranged one on top of the other in relation to a first direction, wherein a second torsion spring element is arranged above a first torsion spring element, wherein a third torsion spring element is arranged above the second torsion spring element, wherein a fourth torsion spring element is arranged above the third torsion spring element, wherein the outer part of the first torsion spring element is designed for rigidly securing the vibration damper (200, 300, 400), characterized in that the inner part of the first torsion spring element is rigidly connected with the inner part of the third torsion spring element, that the second torsion spring element is rigidly connected with the third torsion spring element that the inner part of the second torsion spring element is rigidly connected with the inner part of the fourth torsion spring element, and that the outer part of the fourth torsion spring element is designed for rigidly securing the vibration damper (200, 300, 400). with four torsion spring elements, wherein each torsion spring element has an inner part, an outer part and at least one elastic element, wherein the inner part is arranged in the outer part, wherein the elastic element is arranged between the inner part and the outer part, and supports the inner part relative to the outer part in such a way that, when the inner part and the outer part are deflected relative to each other, a restoring force is produced between the inner part and the outer part, wherein the torsion spring elements are arranged one on top of the other in relation to a first direction, wherein a second torsion spring element is arranged above a first torsion spring element, wherein a third torsion spring element is arranged above the second torsion spring element, wherein a fourth torsion spring element is arranged above the third torsion spring element, wherein the outer part of the first torsion spring element is designed for rigidly securing the vibration damper (200, 300, 400), characterized in that the inner part of the first torsion spring element is rigidly connected with the inner part of the third torsion spring element, that the second torsion spring element is rigidly connected with the third torsion spring element that the inner part of the second torsion spring element is rigidly connected with the inner part of the fourth torsion spring element, and that the outer part of the fourth torsion spring element is designed for rigidly securing the vibration damper (200, 300, 400).
An apparatus for additive manufacturing of an object, the apparatus comprising: a build plate having a build face; a build unit facing the build face, the build unit comprising: a foil delivery unit, and a radiation emission directing device, wherein the build unit is configured to move foil from the foil delivery unit into contact with the build plate, or an object thereon, so that the foil may be irradiated and incorporated into the object; and wherein the build unit is coupled to a positioning system (375a, 375b); and one or more detectors (288, 289, 291) configured to inspect one or more of the foil, the object, and radiation emitted or received by the radiation emission directing device, characterized in that the positioning system is capable of providing independent movement of the build unit in at least three dimensions with respect to the build surface. a build plate having a build face; a build unit facing the build face, the build unit comprising: a foil delivery unit, and a radiation emission directing device, wherein the build unit is configured to move foil from the foil delivery unit into contact with the build plate, or an object thereon, so that the foil may be irradiated and incorporated into the object; and wherein the build unit is coupled to a positioning system (375a, 375b); and one or more detectors (288, 289, 291) configured to inspect one or more of the foil, the object, and radiation emitted or received by the radiation emission directing device, characterized in that the positioning system is capable of providing independent movement of the build unit in at least three dimensions with respect to the build surface. a foil delivery unit, and a radiation emission directing device, wherein the build unit is coupled to a positioning system (375a, 375b); and one or more detectors (288, 289, 291) configured to inspect one or more of the foil, the object, and radiation emitted or received by the radiation emission directing device,