mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a network node (26, 400) which implements a Session Management Function in a 5G core network of a wireless communication network, the method comprising: receiving, at the network node (26, 400), a request to establish a session for a device in a 5G Local Area network, 5GLAN, group; determining a user plane security policy for the session, based on a user plane security policy for the 5GLAN group, wherein the user plane security policy for the 5GLAN group specifies a policy for securing a user plane path of a session for any device in the 5GLAN group; and transmitting, from the network node (26, 400) to an access node of the wireless communication network, control signaling indicating the determined user plane security policy. receiving, at the network node (26, 400), a request to establish a session for a device in a 5G Local Area network, 5GLAN, group; determining a user plane security policy for the session, based on a user plane security policy for the 5GLAN group, wherein the user plane security policy for the 5GLAN group specifies a policy for securing a user plane path of a session for any device in the 5GLAN group; and transmitting, from the network node (26, 400) to an access node of the wireless communication network, control signaling indicating the determined user plane security policy.
A method of manufacturing semiconductor chips having a side wall sealing, the method comprising: forming dicing trenches in a semiconductor wafer; anodizing side walls of the dicing trenches to generate an anodic oxide layer at the side walls of the dicing trenches, wherein a temperature of an electrolyte during anodizing is equal to or higher than 70°C; and separating the semiconductor chips from the semiconductor wafer. forming dicing trenches in a semiconductor wafer; anodizing side walls of the dicing trenches to generate an anodic oxide layer at the side walls of the dicing trenches, wherein a temperature of an electrolyte during anodizing is equal to or higher than 70°C; and separating the semiconductor chips from the semiconductor wafer.
A method of encoding a video sequence by an encoder supporting context-based adaptive binary arithmetic coding, CABAC, the method comprising acquiring a first set of image data by an image capturing device, encoding, by an encoder comprising a coding block that performs CABAC, the first set of image data into one or more image frames based on a first value of a compression parameter, wherein the compression parameter comprises: a set of quantization parameter, QP, values indicating a QP value for each image frame macroblock; a frame level QP; or a base QP value and a QP map indicating a macroblock level QP value offset, outputting, by the coding block, a load parameter value which represents a current actual bin count of the coding block, receiving, in a rate controller and from the coding block, the load parameter value, comparing, by the rate controller, the load parameter value with a maximum load parameter value that corresponds to a maximum performance of the CABAC block, determining, by the rate controller, a second value of the compression parameter based on the comparison, wherein the compression parameter is increased from the first value to the second value if the load parameter value differs less than a threshold value from the maximum load parameter value, transmitting the determined second value of the compression parameter to the encoder, acquiring a second set of image data by the image capturing device, and encoding, by the encoder, the second set of image data into one or more image frames based on the second value of the compression parameter. acquiring a first set of image data by an image capturing device, encoding, by an encoder comprising a coding block that performs CABAC, the first set of image data into one or more image frames based on a first value of a compression parameter, wherein the compression parameter comprises: a set of quantization parameter, QP, values indicating a QP value for each image frame macroblock; a frame level QP; or a base QP value and a QP map indicating a macroblock level QP value offset, outputting, by the coding block, a load parameter value which represents a current actual bin count of the coding block, receiving, in a rate controller and from the coding block, the load parameter value, comparing, by the rate controller, the load parameter value with a maximum load parameter value that corresponds to a maximum performance of the CABAC block, determining, by the rate controller, a second value of the compression parameter based on the comparison, wherein the compression parameter is increased from the first value to the second value if the load parameter value differs less than a threshold value from the maximum load parameter value, transmitting the determined second value of the compression parameter to the encoder, acquiring a second set of image data by the image capturing device, and encoding, by the encoder, the second set of image data into one or more image frames based on the second value of the compression parameter.
A conduit fitting, comprising: a first fitting component and a second fitting component that can be joined to said first fitting component to form a fitting assembly, a ferrule cartridge that can be assembled with said first fitting component and said second fitting component on a conduit to provide a fluid tight mechanical connection, said ferrule cartridge comprising a first conduit gripping device and a second conduit gripping device, said first conduit gripping device comprising a camming surface at a back surface portion thereof, said second conduit gripping device comprising a frusto-conical contact surface at a forward portion thereof that contacts said camming surface when said first conduit gripping device and said second conduit gripping device are axially moved together during pull-up, said first conduit gripping device comprising a retaining member extending from a back end wall of said first conduit gripping device, said retaining member holding a forward portion of said second conduit gripping device to hold said first conduit gripping device and said second conduit gripping device together as a discrete subassembly, wherein said second conduit gripping device disengages from said retaining member during pull-up. a first fitting component and a second fitting component that can be joined to said first fitting component to form a fitting assembly, a ferrule cartridge that can be assembled with said first fitting component and said second fitting component on a conduit to provide a fluid tight mechanical connection, said ferrule cartridge comprising a first conduit gripping device and a second conduit gripping device, said first conduit gripping device comprising a camming surface at a back surface portion thereof, said second conduit gripping device comprising a frusto-conical contact surface at a forward portion thereof that contacts said camming surface when said first conduit gripping device and said second conduit gripping device are axially moved together during pull-up, said first conduit gripping device comprising a retaining member extending from a back end wall of said first conduit gripping device, said retaining member holding a forward portion of said second conduit gripping device to hold said first conduit gripping device and said second conduit gripping device together as a discrete subassembly, wherein said second conduit gripping device disengages from said retaining member during pull-up.
A control system configured to control access to data in a device group, the device group comprising a plurality of devices (100, 200-1 to 200-4), the plurality of devices being configured to communicate with one another, the control system comprising: a first device included in the plurality of devices and configured to receive, in a removable manner, a storage medium in which data is storable; and one or a plurality of second devices included in the plurality of devices, wherein each of members of the plurality of devices (200-1 to 200-4) and the storage medium is configured to: comprise a storage region (1332, 1132, 2162) configured to retain a list (300L, 100L, 200-1L to 200-4L) including relevant information for identification of each of the members; and verify consistency or inconsistency between the relevant information of each of other members included in the list retained in the storage region and the relevant information of each of the other members obtained from each of the other members when the storage medium is inserted in the first device, and the first device is configured to access the data stored in the storage medium when a result of verification, based on said verifying consistency or inconsistency, obtained by each of the other members but the first device satisfies a predetermined condition. a first device included in the plurality of devices and configured to receive, in a removable manner, a storage medium in which data is storable; and one or a plurality of second devices included in the plurality of devices, wherein each of members of the plurality of devices (200-1 to 200-4) and the storage medium is configured to: comprise a storage region (1332, 1132, 2162) configured to retain a list (300L, 100L, 200-1L to 200-4L) including relevant information for identification of each of the members; and verify consistency or inconsistency between the relevant information of each of other members included in the list retained in the storage region and the relevant information of each of the other members obtained from each of the other members when the storage medium is inserted in the first device, and comprise a storage region (1332, 1132, 2162) configured to retain a list (300L, 100L, 200-1L to 200-4L) including relevant information for identification of each of the members; and verify consistency or inconsistency between the relevant information of each of other members included in the list retained in the storage region and the relevant information of each of the other members obtained from each of the other members when the storage medium is inserted in the first device, and the first device is configured to access the data stored in the storage medium when a result of verification, based on said verifying consistency or inconsistency, obtained by each of the other members but the first device satisfies a predetermined condition.
An oil-extracted product of indigo naturalis which is obtainable by a process comprising: extracting indigo naturalis powder with olive oil under heating at a temperature ranging from 100°C to 155°C and at a ratio of indigo naturalis to olive oil in a range of from 1:10 (w/v) to 1:40 (w/v); followed by a refining treatment by filtration. extracting indigo naturalis powder with olive oil under heating at a temperature ranging from 100°C to 155°C and at a ratio of indigo naturalis to olive oil in a range of from 1:10 (w/v) to 1:40 (w/v); followed by a refining treatment by filtration.
Method for supporting attack detection in a distributed system, wherein a message being sent within said distributed system from a source entity to one or more target entities is transmitted via one or more intermediate entities, and wherein at least one of said one or more intermediate entities - tagging entity - appends an attack information tag to said message indicating whether said message constitutes or is part of an attack, wherein a reputation system is provided, said reputation system being configured to receive said attack information tag generated by said tagging entity, and to generate a rating of said attack information tag, wherein at least one of said intermediate entities located between said tagging entity and said one or more target entities functions as evaluating entity that evaluates said tagged message by querying said reputation system for said rating of said attack information tag, and characterised in that said reputation system performs a mapping of said attack information tag appended to said message by said tagging entity to an information of which the definition is agreed upon between said reputation system and said evaluating entity.
Aroma container for adding an aroma substance to an air flow flowing through the aroma container, wherein the aroma container can be attached to a drinking device, and - an upper wall, a lower wall and at least one side wall enclosing an aroma chamber, - at least one air inlet opening into the aroma chamber; as well as - at least one air outlet opening from the aroma chamber; wherein - there is a carrier substance for the aroma substance in the aroma chamber; characterised in that - the carrier substance comprises a nonwoven material; wherein - the air permeability L of the nonwoven material at 100 Pa differential pressure is L > 200 1/(m 2 •s), and preferably between 220 1/(m 2 •s) and 280 l/(m 2 •s); - the aroma container further comprises a headspace which represents a cavity in the aroma chamber that is not filled with carrier substance; wherein - the headspace is provided between the carrier substance and the side of the upper wall facing the aroma chamber; - the at least one air inlet opening is located in the region of the lower wall of the aroma container; and the at least one air outlet opening is arranged in a side wall of the aroma container; and - the at least one air inlet opening and the at least one air outlet opening are arranged in such a way that a defined path of the air flow flowing through the aroma container comprises the headspace and the carrier substance. - an upper wall, a lower wall and at least one side wall enclosing an aroma chamber, - at least one air inlet opening into the aroma chamber; as well as - at least one air outlet opening from the aroma chamber; wherein - there is a carrier substance for the aroma substance in the aroma chamber; - the carrier substance comprises a nonwoven material; wherein - the air permeability L of the nonwoven material at 100 Pa differential pressure is L > 200 1/(m 2 •s), and preferably between 220 1/(m 2 •s) and 280 l/(m 2 •s); - the aroma container further comprises a headspace which represents a cavity in the aroma chamber that is not filled with carrier substance; wherein - the headspace is provided between the carrier substance and the side of the upper wall facing the aroma chamber; - the at least one air inlet opening is located in the region of the lower wall of the aroma container; and the at least one air outlet opening is arranged in a side wall of the aroma container; and - the at least one air inlet opening and the at least one air outlet opening are arranged in such a way that a defined path of the air flow flowing through the aroma container comprises the headspace and the carrier substance.
Mechatronic assembly for linearly driving a member comprising a control unit and an actuator, the control unit comprising a servo-control algorithm and a power bridge, said algorithm controlling said power bridge, the power bridge providing a bifilar electrical signal consisting of a torque signal and a direction signal, the actuator comprising a multiphase, brushless electric motor having N phases, binary sensors for detecting the position of the rotor of said motor, and a device for transforming the rotary movement of the rotor into a linear movement of the control member, characterized in that the actuator is linear, self-switching and reversible and has bifilar control, the actuator comprising power switches which are suitable for supplying the N phases of the motor from the bifilar electrical signal, the state of the power switches being controlled directly by the signals from the detection sensors which are electrically connected to the power switches, and the electrical signals delivered to the switches are the signals output from the detection sensors, with only electrical components placed between a sensor and a switch being passive components the control unit comprising a servo-control algorithm and a power bridge, said algorithm controlling said power bridge, the power bridge providing a bifilar electrical signal consisting of a torque signal and a direction signal, the actuator comprising a multiphase, brushless electric motor having N phases, binary sensors for detecting the position of the rotor of said motor, and a device for transforming the rotary movement of the rotor into a linear movement of the control member, characterized in that the actuator is linear, self-switching and reversible and has bifilar control, the actuator comprising power switches which are suitable for supplying the N phases of the motor from the bifilar electrical signal, the state of the power switches being controlled directly by the signals from the detection sensors which are electrically connected to the power switches, and the electrical signals delivered to the switches are the signals output from the detection sensors, with only electrical components placed between a sensor and a switch being passive components
Mobile crane comprising a main jib which is mounted in a luffable manner thereon and can be raised by means of a luffing cylinder, and comprising a main jib extension which is releasably connected to a main jib head of the main jib by means of upper and lower bolts, the main jib extension, proceeding from a basic position after release of the upper or lower bolts, can be angled relative to the main jib about a luffing axis (w) by means of an angling drive, the angling drive is a component of an angling plate in the form of a combi-angling plate, the angling drive engages the main jib head on the one hand and engages the main jib extension on the other hand the angling drive engages a foot of the main jib extension, a maximum angling angle (b) is limited by an adjustable angling plate and the angling plate engages the foot of the main jib extension and the main jib head and the combi-angling plate consists of a sliding plate, a guiding plate and the angling drive, characterised in that the angling drive drivingly engages the sliding plate on the one hand and the guiding plate on the other hand and the sliding plate can be displaced relative to the guiding plate by means of the angling drive.
A consumer product comprising, based on total consumer product weight, from 0.0001 % to 25% of one or more perfume raw material selected from 4-(2,4-dimethyl-cyclohex-3-enylidene)-butan-2-one; 2-(3-methyl-butyl)-3-vinyl-cyclopentanone; 1-(2,4,6-trimethyl-cyclohex-3-enyl)-propan-1-one; and 1-(6-isopropyl-2-methyl-cyclohex-3-enyl)-ethanone; and an adjunct ingredient.
A method for preparing a dairy mousse comprising the steps of: - providing an ideal whey protein solution, which is a microfiltration permeate obtained from microfiltration of a milk raw material, - treating the ideal whey protein solution with a protein modifying enzyme, - optionally mixing the treated solution with an acidified dairy product and/or food product, - optionally adding a stabilizing agent to the solution or the mixture, - adjusting the pH to the range of 3.5 - 6.5, - heat-treating the solution or the mixture at a temperature ranging from about 70°C to about 95°C, - subjecting the solution or the mixture to an aeration treatment for providing an aerated dairy product. - providing an ideal whey protein solution, which is a microfiltration permeate obtained from microfiltration of a milk raw material, - treating the ideal whey protein solution with a protein modifying enzyme, - optionally mixing the treated solution with an acidified dairy product and/or food product, - optionally adding a stabilizing agent to the solution or the mixture, - adjusting the pH to the range of 3.5 - 6.5, - heat-treating the solution or the mixture at a temperature ranging from about 70°C to about 95°C, - subjecting the solution or the mixture to an aeration treatment for providing an aerated dairy product.
A method of operating a rotorcraft, the method comprising: receiving a plurality of first height data signals from a plurality of first height sensors (404A-B) on the rotorcraft, wherein the first height sensors (404A-B) measure height using a first technique; receiving a plurality of second height data signals from a plurality of second height sensors (402A-C) on the rotorcraft, wherein the second height sensors (402A-C) measure height using a second technique that is different than the first technique; determining a first height signal from the plurality of first height data signals based on a selection scheme; determining a second height signal from the plurality of second height data signals; selecting the first height signal or the second height signal to determine a selected height signal; and generating a flight control signal and controlling operation of the rotorcraft according to the flight control signal, the flight control signal based on the selected height signal. receiving a plurality of first height data signals from a plurality of first height sensors (404A-B) on the rotorcraft, wherein the first height sensors (404A-B) measure height using a first technique; receiving a plurality of second height data signals from a plurality of second height sensors (402A-C) on the rotorcraft, wherein the second height sensors (402A-C) measure height using a second technique that is different than the first technique; determining a first height signal from the plurality of first height data signals based on a selection scheme; determining a second height signal from the plurality of second height data signals; selecting the first height signal or the second height signal to determine a selected height signal; and generating a flight control signal and controlling operation of the rotorcraft according to the flight control signal, the flight control signal based on the selected height signal.