mhurhangee/ep-ind-claims huggingface dataset:
A computer-readable medium comprising instructions stored thereon, that when executed by at least one processor, cause the at least one processor to perform a network functions virtualization, NFV, Security Services Agent, NFV SSA, configured to: receive a security monitoring policy from an NFV security services controller arranged to initially instantiate the NFV SSA; collect telemetry data of a platform that comprises the processor via a first secure channel; monitor the telemetry data based on the security monitoring policy, wherein the security monitoring policy comprises monitoring rules to indicate to the NFV SSA which telemetry data of the platform to monitor; package the telemetry data; and transmit the packaged telemetry data to a Security Monitoring Analytics System via a second secure channel for analysis to enable detection of threats and/or anomalies based on the collected telemetry data, wherein the packaged telemetry data is transmitted based on the security monitoring policy; and wherein a remediation security policy is received from the Security Monitoring Analytics System, in response to a detected threat and/or anomaly. receive a security monitoring policy from an NFV security services controller arranged to initially instantiate the NFV SSA; collect telemetry data of a platform that comprises the processor via a first secure channel; monitor the telemetry data based on the security monitoring policy, wherein the security monitoring policy comprises monitoring rules to indicate to the NFV SSA which telemetry data of the platform to monitor; package the telemetry data; and transmit the packaged telemetry data to a Security Monitoring Analytics System via a second secure channel for analysis to enable detection of threats and/or anomalies based on the collected telemetry data, wherein the packaged telemetry data is transmitted based on the security monitoring policy; and wherein a remediation security policy is received from the Security Monitoring Analytics System, in response to a detected threat and/or anomaly.
An inkjet printing method for forming an inkjet-printed image on a surface of a molded article, comprising: forming an ink receiving layer on a portion, where the printed image is to be formed, by inkjet printing in correspondence with the printed image prior to formation of the printed image with an inkjet using an oil-based ink, wherein the ink receiving layer is formed by inkjet printing using the ink for a receiving layer, the ink comprising a wet type resin and inorganic fine particles dispersed in a solvent, wherein the inorganic fine particles have a volume average particle diameter (D 50) of 5μm or less and the wet type resin is one in which an increase in volume is observed due to penetration of the solvent when immersed at 25°C in the solvent contained in the oil-based ink; wherein the printed image formed with the inkjet is a local image, wherein the local image is a character, a line, a point, or dots, wherein the molded article is a cap, and wherein the inkjet-printed image is formed on a top face of the cap. forming an ink receiving layer on a portion, where the printed image is to be formed, by inkjet printing in correspondence with the printed image prior to formation of the printed image with an inkjet using an oil-based ink, wherein the ink receiving layer is formed by inkjet printing using the ink for a receiving layer, the ink comprising a wet type resin and inorganic fine particles dispersed in a solvent, wherein the inorganic fine particles have a volume average particle diameter (D 50) of 5μm or less and the wet type resin is one in which an increase in volume is observed due to penetration of the solvent when immersed at 25°C in the solvent contained in the oil-based ink; wherein the printed image formed with the inkjet is a local image, wherein the local image is a character, a line, a point, or dots, wherein the molded article is a cap, and wherein the inkjet-printed image is formed on a top face of the cap.
Two-component mortar composition comprising a resin component which contains at least one radically curable resin as a curable constituent, and a hardener component which contains a curing agent for the radically curable resin of the resin component, characterized in that the resin component and/or the hardener component contains at least CaO and at least one additional inorganic solid as further constituents, characterized in that the total amount of inorganic solids plus CaO in the mortar composition is 40 to 75 wt.%, based on the total weight of the mortar composition, and the weight ratio of the total weight of CaO in the mortar composition to the total weight of the additional inorganic solids in the mortar composition is at least 0.1.
A method for providing an application service through a distribution server for geographically targeted message distribution to a client, the method comprising: an interworking device connecting to the distribution server; the interworking device connecting via an ad-hoc network connection to the client; on behalf of the client, the interworking device performing registration for the application service at the distribution server; on the basis of the registration, the interworking device forwarding at least one message of the application service between the distribution server and the client; via a first network connection, the distribution server connecting to the client and performing registration of the client for the application service; via a second network connection, the distribution server connecting to the interworking device; the distribution server sending at least one message of the application service via the first network connection to the client; the distribution server sending at least one message of the application service via the second network connection, the interworking device, and the ad-hoc network connection to the client; via the first network connection, the distribution server receiving an indication from the client; and in response to the indication, the distribution server pausing distribution of messages of the application service via the first network connection to the client. an interworking device connecting to the distribution server; the interworking device connecting via an ad-hoc network connection to the client; on behalf of the client, the interworking device performing registration for the application service at the distribution server; on the basis of the registration, the interworking device forwarding at least one message of the application service between the distribution server and the client; via a first network connection, the distribution server connecting to the client and performing registration of the client for the application service; via a second network connection, the distribution server connecting to the interworking device; the distribution server sending at least one message of the application service via the first network connection to the client; the distribution server sending at least one message of the application service via the second network connection, the interworking device, and the ad-hoc network connection to the client; via the first network connection, the distribution server receiving an indication from the client; and in response to the indication, the distribution server pausing distribution of messages of the application service via the first network connection to the client.
A method for judging abnormal loading of vehicles adopted for use on a vehicle which includes a plurality of tires each including at least one tire parameter to represent tire characteristics and being equipped with a tire pressure detection unit which detects interior status of the tire in regular conditions and outputs a tire pressure after elapse of an inspection time period, the method comprising the steps of: step 1: receiving tire pressures generated by the tire pressure detection unit at a plurality of inspection time periods and calculating variation amount of the tire pressure within each inspection time period, characterizedin that in step 1 the calculated variation amount is converted to a gradient data; and that the method further comprises: step 2: judging whether the gradient data is positive in value; entering the next step if positive; renewing execution of step 1 if negative; step 3: calculating the tire pressure obtained at the last time and the tire parameter through a tire sinking amount calculation formula to get a tire deformation amount (f), and calculating the tire pressure obtained at the last time and the tire parameter via a loading calculation formula to get a tire loading data; and step 4: comparing the tire loading data and the tire deformation amount (f) via a tire abnormal condition, and judging the vehicle in abnormal loading when the comparing outcome coincides with the tire abnormal condition. step 1: receiving tire pressures generated by the tire pressure detection unit at a plurality of inspection time periods and calculating variation amount of the tire pressure within each inspection time period, characterizedin that in step 1 the calculated variation amount is converted to a gradient data; and that the method further comprises: step 2: judging whether the gradient data is positive in value; entering the next step if positive; renewing execution of step 1 if negative; step 3: calculating the tire pressure obtained at the last time and the tire parameter through a tire sinking amount calculation formula to get a tire deformation amount (f), and calculating the tire pressure obtained at the last time and the tire parameter via a loading calculation formula to get a tire loading data; and step 4: comparing the tire loading data and the tire deformation amount (f) via a tire abnormal condition, and judging the vehicle in abnormal loading when the comparing outcome coincides with the tire abnormal condition.
An apparatus comprising: means for searching for feasible component carriers by interference measurements, and if at least one feasible component carrier is found, take it into use; characterized in that the apparatus further comprises: means for selecting at least one home node for negotiations for obtaining resources, the selection being based on the measurements, and negotiating for obtaining resources, if no feasible component carriers are found; means for taking into use at least one feasible component carrier obtained based on the negotiations, if at least one feasible component carrier is obtained; and means for taking into use at least one component carrier which is closest feasible, if no feasible component carriers are obtained. means for searching for feasible component carriers by interference measurements, and if at least one feasible component carrier is found, take it into use; characterized in that the apparatus further comprises: means for selecting at least one home node for negotiations for obtaining resources, the selection being based on the measurements, and negotiating for obtaining resources, if no feasible component carriers are found; means for taking into use at least one feasible component carrier obtained based on the negotiations, if at least one feasible component carrier is obtained; and means for taking into use at least one component carrier which is closest feasible, if no feasible component carriers are obtained. means for selecting at least one home node for negotiations for obtaining resources, the selection being based on the measurements, and negotiating for obtaining resources, if no feasible component carriers are found; means for taking into use at least one feasible component carrier obtained based on the negotiations, if at least one feasible component carrier is obtained; and means for taking into use at least one component carrier which is closest feasible, if no feasible component carriers are obtained.
Method for determining a number of vehicle crossings (N tot) on at least one road portion of a road network, by way of at least two fixed traffic measurement sensors positioned at a plurality of measurement points that are arranged within said road network, and by way of measurements during at least one movement of at least one vehicle, characterized in that the following steps are implemented: a. Measuring a first number of vehicle crossings (N cap) at said measurement points by way of said fixed sensors; b. Measuring the geolocation of said at least one vehicle during said at least one movement within said road network, and deducing therefrom a second number of vehicle crossings (N geo) on each road of said road network taken by said at least one vehicle during said at least one movement; c. Determining said number of vehicle crossings (N tot) on said at least one road portion of said road network by way of said second number of vehicle crossings (N geo) and by way of a spatial scalar field that depends on said first number of vehicle crossings (N cap). a. Measuring a first number of vehicle crossings (N cap) at said measurement points by way of said fixed sensors; b. Measuring the geolocation of said at least one vehicle during said at least one movement within said road network, and deducing therefrom a second number of vehicle crossings (N geo) on each road of said road network taken by said at least one vehicle during said at least one movement; c. Determining said number of vehicle crossings (N tot) on said at least one road portion of said road network by way of said second number of vehicle crossings (N geo) and by way of a spatial scalar field that depends on said first number of vehicle crossings (N cap).
A method for a communication network node of achieving an optimal Initial shaping rate for a new packet flow on a transport network between said communication network node and a second communication network node in a communication network system, characterized In that, the method comprises the steps of: - determining shaping rates of ongoing packet flows on said transport network, the said shaping rate of said new packet flow being determined by calculating a fairness optimal initial shaping rate from capacity allocations "CA" of ongoing flows; - selecting, based on said determined shaping rates of ongoing packet flows, an initial shaping rate for said new packet flow so as to obtain a maximized fairness among all shaping rates, the fairness optimal initial shaping rate being calculated using the formula Y* = Avg + Var /Avg, wherein Avg Is an average shaping rate of ongoing flows and Var /Avg Is the relative variance of a shaping rate of ongoing flows. - determining shaping rates of ongoing packet flows on said transport network, the said shaping rate of said new packet flow being determined by calculating a fairness optimal initial shaping rate from capacity allocations "CA" of ongoing flows; - selecting, based on said determined shaping rates of ongoing packet flows, an initial shaping rate for said new packet flow so as to obtain a maximized fairness among all shaping rates, the fairness optimal initial shaping rate being calculated using the formula Y* = Avg + Var /Avg, wherein Avg Is an average shaping rate of ongoing flows and Var /Avg Is the relative variance of a shaping rate of ongoing flows.
A system for cycling a battery pack, comprising: an air supplying device configured to output pressurized air; and a vortex tube device configured to receive the pressurized air from the air supplying device and to output cooled air at a first temperature level utilizing the pressurized air; and a battery pack comprising at least one heat exchanger configured to receive the cooled air from the vortex tube and to cool the battery pack, wherein the heat exchanger includes a housing, an inlet port, an outlet port, and an internal flow path defined by the housing; characterized in that the system further comprises a first pressure regulator configured to adjust a pressure level of the air being supplied to the vortex tube; a filter in fluid communication with the air supplying device through a first conduit and with the pressure regulator through a second conduit, the filter being configured to remove particulates in the air flowing through the filter; a battery cycling device electrically being coupled to the battery pack, the battery cycling device configured to charge and discharge the battery pack when the battery pack is being cooled; and a second pressure regulator fluidly coupled between the vortex tube and the battery pack, the second pressure regulator configured to maintain a pressure level of the cooled air below a threshold pressure level; wherein the vortex tube device is in fluid communication with the first pressure regulator through a third conduit, an air supplying device configured to output pressurized air; and a vortex tube device configured to receive the pressurized air from the air supplying device and to output cooled air at a first temperature level utilizing the pressurized air; and a battery pack comprising at least one heat exchanger configured to receive the cooled air from the vortex tube and to cool the battery pack, wherein the heat exchanger includes a housing, an inlet port, an outlet port, and an internal flow path defined by the housing; characterized in that the system further comprises a filter in fluid communication with the air supplying device through a first conduit and with the pressure regulator through a second conduit, the filter being configured to remove particulates in the air flowing through the filter; a battery cycling device electrically being coupled to the battery pack, the battery cycling device configured to charge and discharge the battery pack when the battery pack is being cooled; and a second pressure regulator fluidly coupled between the vortex tube and the battery pack, the second pressure regulator configured to maintain a pressure level of the cooled air below a threshold pressure level; wherein the vortex tube device is in fluid communication with the first pressure regulator through a third conduit,
Glass plate, in particular single-pane safety glass, one edge section of which is suitable for applying at least one light source emitting light in a first wavelength range (λ 1 +/- Δλ 1) such that the light emitted from it is radiated into the interior of the glass plate essentially in the direction of an edge section of the glass plate opposite the one edge section, and, along the radiation direction of the light source, having a wavelength conversion luminescent material that at least partially converts radiated light of the first wavelength range (λ 1 +/- Δλ 1) to light of a second wavelength range (λ 2 +/- Δ λ 2) and emits this light of a second wavelength range (λ 2 +/Δ λ 2), wherein the wavelength conversion luminescent material is provided in the area of a surface engraving that is applied along an outer side of the glass plate delimited by the edge sections (1c, Id), characterised in that the wavelength conversion luminescent material in the area of the surface engraving is burnt into the glass plate with pulverised glass.
A flexure based, triaxial dynamometer comprising one monolithic top flexure frame with three flexural arms that meet at a central force exertion point in the proximity of which three light blocking structures exist positioned to one another in a manner so as to represent three-dimensional Euclidean space characterized in that; said top flexure frame is in operationally aligned position with an external sensor stand such that said light blocking structures respectively cooperate with three photointerrupter sensors of said triaxial dynamometer, said photointerrupter sensors being disposed in designated sensor placement slots on said sensor stand, light transmission gaps of said photointerrupter sensors appropriately housing the light blocking structures so that force sensing setup is consolidated in operationally assembled position of the triaxial dynamometer.
A memory system comprising: a memory controller configured to control a memory device; and a sub-buffer memory arranged outside the memory controller, wherein the memory controller comprises: a processor configured to control a memory operation for the memory device; a main buffer memory that is different from the sub-buffer memory and arranged in the memory controller; and a buffer allocation circuit configured to control an allocation ratio between the sub-buffer memory and the main buffer memory, wherein the processor is configured to set an operation mode of the buffer allocation circuit and the buffer allocation circuit is configured to control the allocation ratio based on the operation mode; wherein the main buffer memory is a static random access memory, SRAM, and wherein the sub-buffer memory is a dynamic random access memory, DRAM. a memory controller configured to control a memory device; and a sub-buffer memory arranged outside the memory controller, wherein the memory controller comprises: a processor configured to control a memory operation for the memory device; a main buffer memory that is different from the sub-buffer memory and arranged in the memory controller; and a buffer allocation circuit configured to control an allocation ratio between the sub-buffer memory and the main buffer memory, a processor configured to control a memory operation for the memory device; a main buffer memory that is different from the sub-buffer memory and arranged in the memory controller; and a buffer allocation circuit configured to control an allocation ratio between the sub-buffer memory and the main buffer memory, wherein the processor is configured to set an operation mode of the buffer allocation circuit and the buffer allocation circuit is configured to control the allocation ratio based on the operation mode; wherein the main buffer memory is a static random access memory, SRAM, and wherein the sub-buffer memory is a dynamic random access memory, DRAM.
Blister package for medicinal products, in particular tablets, capsules or coated tablets, having a bottom sheet into which at least one blister cavity which is surrounded by webs of the bottom sheet is formed, wherein the at least one blister cavity has an at least two-stage form in such a way that it has a first recess, which defines a first stage of the blister cavity, and has a second recess, which is arranged in a subportion of an area region spanned by the first recess and which lies deeper than the first recess; a cover sheet which covers the at least one blister cavity and is sealed to webs of the bottom sheet; a strip made of active material, said strip being arranged in the at least one blister cavity and being sealed to the cover sheet; wherein the medicinal product is received in the second recess and the strip made of active material is received in the first recess; characterized in that the first recess has, in a bottom region, a peripheral rib, which runs around the second recess, or at least two projecting nubs, which are arranged alongside the second recess, wherein the strip made of active material rests on the rib or the nubs.
A preparation method of an aqueous binder for a positive electrode of a lithium ion battery, comprising using water as a dispersion medium, adding an acrylate monomer, an amphiphilic reactive emulsifier, a functional monomer having a special functional group for improving the flexibility of a macromolecular chain, and an initiator, stirring and uniformly mixing, heating to initiate polymerization, and reacting to obtain the aqueous binder; wherein the functional monomer is vinyl versatate.