mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving, at a transmission control protocol, TCP, spoofer , a message from a local host including a request to initiate a TCP connection with a remote host ; determining from the message an IP address of the local host ; based on the determined IP address of the local host , determining: characteristics of applications in use by the local host over a time window or packet loss conditions of the local host over the time window; determining spoofing resource conditions of the TCP spoofer; and determining at the TCP spoofer whether to spoof the TCP connection from the local host to the remote host using at least: the determined spoofing resource conditions of the TCP spoofer ; and the characteristics of applications in use by the local host over the time window or the packet loss conditions of the local host over the time window. receiving, at a transmission control protocol, TCP, spoofer , a message from a local host including a request to initiate a TCP connection with a remote host ; determining from the message an IP address of the local host ; based on the determined IP address of the local host , determining: characteristics of applications in use by the local host over a time window or packet loss conditions of the local host over the time window; determining spoofing resource conditions of the TCP spoofer; and determining at the TCP spoofer whether to spoof the TCP connection from the local host to the remote host using at least: the determined spoofing resource conditions of the TCP spoofer ; and the characteristics of applications in use by the local host over the time window or the packet loss conditions of the local host over the time window. the determined spoofing resource conditions of the TCP spoofer ; and the characteristics of applications in use by the local host over the time window or the packet loss conditions of the local host over the time window.
A request processing method, comprising: receiving a content delivery network, CDN, request; acquiring a dynamic code corresponding to the CDN request, wherein the dynamic code is a pre-configured code; wherein the acquiring the dynamic code corresponding to the CDN request comprises: acquiring the dynamic code from a CDN edge node corresponding to domain name information in the CDN request; compiling the dynamic code in the real time to obtain a compiled code; and executing the compiled code; wherein the compiling the dynamic code in real time to obtain the compiled code comprises: determining whether the dynamic code comprises an unsafe feature by performing static detection on the dynamic code; and performing dynamic calculation on the dynamic code to generate the compiled code in a case that a result of the static detection does not comprise the unsafe feature; wherein the performing the dynamic calculation on the dynamic code to generate the compiled code further comprises: creating a Java Script, JS, virtual machine for executing the CDN request; adding the dynamic code into the JS virtual machine; and compiling the dynamic code in the real time to generate the compiled code. receiving a content delivery network, CDN, request; acquiring a dynamic code corresponding to the CDN request, wherein the dynamic code is a pre-configured code; wherein the acquiring the dynamic code corresponding to the CDN request comprises: acquiring the dynamic code from a CDN edge node corresponding to domain name information in the CDN request; compiling the dynamic code in the real time to obtain a compiled code; and executing the compiled code; wherein the compiling the dynamic code in real time to obtain the compiled code comprises: determining whether the dynamic code comprises an unsafe feature by performing static detection on the dynamic code; and performing dynamic calculation on the dynamic code to generate the compiled code in a case that a result of the static detection does not comprise the unsafe feature; wherein the performing the dynamic calculation on the dynamic code to generate the compiled code further comprises: creating a Java Script, JS, virtual machine for executing the CDN request; adding the dynamic code into the JS virtual machine; and compiling the dynamic code in the real time to generate the compiled code. determining whether the dynamic code comprises an unsafe feature by performing static detection on the dynamic code; and performing dynamic calculation on the dynamic code to generate the compiled code in a case that a result of the static detection does not comprise the unsafe feature; wherein the performing the dynamic calculation on the dynamic code to generate the compiled code further comprises: creating a Java Script, JS, virtual machine for executing the CDN request; adding the dynamic code into the JS virtual machine; and compiling the dynamic code in the real time to generate the compiled code. creating a Java Script, JS, virtual machine for executing the CDN request; adding the dynamic code into the JS virtual machine; and compiling the dynamic code in the real time to generate the compiled code.
Water dispersible granules comprising at least one algae and at least one of agrochemical excipient comprising at least one or more of surfactant, binder or disintegrant wherein, the weight ratio of algae to at least one of surfactant, binder or disintegrant is 99:1 to 1:99 wherein the algae comprises 0.1% to 90% by weight of the total composition, and wherein the composition has a particle size in the range of 0.1 microns to 60 microns, wherein the algae is Spirulina Sp, and wherein when present, the surfactants are present in an amount of 0.1 to 10% w/w of the total composition.
A method of controlling a wind turbine , the method comprising: obtaining data identifying, based on forecast data, one or more future periods of time during which the wind turbine is to be over-rated; determining measures of the fatigue life consumed by one or more turbine components; and over-rating the wind turbine during the one or more periods; characterised in that the method further comprises determining whether at least one of the fatigue life consumed by the one or more components and a rate of consumption of fatigue life for the one or more components exceeds respective threshold values; and limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time by controlling the power output of the wind turbine, in advance of the one or more periods of time, based upon the measure of the fatigue life consumed by the one or more turbine components; wherein limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time is applied when at least one of the fatigue life consumed by the one or more components and the rate of consumption of fatigue life for the one or more components exceeds the respective threshold values. obtaining data identifying, based on forecast data, one or more future periods of time during which the wind turbine is to be over-rated; determining measures of the fatigue life consumed by one or more turbine components; and over-rating the wind turbine during the one or more periods; characterised in that the method further comprises determining whether at least one of the fatigue life consumed by the one or more components and a rate of consumption of fatigue life for the one or more components exceeds respective threshold values; and limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time by controlling the power output of the wind turbine, in advance of the one or more periods of time, based upon the measure of the fatigue life consumed by the one or more turbine components; wherein limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time is applied when at least one of the fatigue life consumed by the one or more components and the rate of consumption of fatigue life for the one or more components exceeds the respective threshold values.
Accessory socket layout structure of a saddle-ride type vehicle comprising: a housing box which is provided under a seat for an occupant, which is provided with a front wall , a rear wall , a pair of left and right side walls and a bottom wall and an upper part of which is closed by the seat ; a body cover that covers the housing box from the outside in a direction of vehicle width; and an accessory socket which is provided with a power supply port and a main body and which is provided to the housing box , wherein: the housing box is provided with a helmet housing part that can house a helmet (H); the main body is provided between the housing box and the body cover ; and characterised in that the power supply port is arranged in the housing box in the helmet housing part and the accessory socket is provided to the side wall of the housing box , and is arranged closer to the rear wall part than the front wall part in the longitudinal direction and is located in front of a curved wall part in the rear of the housing part . a housing box which is provided under a seat for an occupant, which is provided with a front wall , a rear wall , a pair of left and right side walls and a bottom wall and an upper part of which is closed by the seat ; a body cover that covers the housing box from the outside in a direction of vehicle width; and an accessory socket which is provided with a power supply port and a main body and which is provided to the housing box , wherein: the housing box is provided with a helmet housing part that can house a helmet (H); the main body is provided between the housing box and the body cover ; and characterised in that the power supply port is arranged in the housing box in the helmet housing part and the accessory socket is provided to the side wall of the housing box , and is arranged closer to the rear wall part than the front wall part in the longitudinal direction and is located in front of a curved wall part in the rear of the housing part .
A vacuum cooking appliance for cooking food, comprising: an outer case being in a form of a box having a hexahedral shape, in which an accommodating space is formed, and having an open upper surface; a housing comprising a housing mounting part and a vacuum packing module mounting part , configured to accommodate an upper portion of the outer case ; a first container providing a space for accommodating fluid and being coupled to the container mounting part and being accommodated inside the outer case ; a heating part configured to heat the fluid accommodated inside the first container ; a vacuum packing module having a vacuum pressure generator coupled to the vacuum packing module mounting part and configured to suction air inside a food packing container (p); and a sealer installed adjacent to the vacuum pressure generator and configured to heat and seal the food packing container (p), wherein the accommodating space for accommodating the housing and the first container and an electronic component space (a) for accommodating components to operate a control panel are formed inside the outer case , the vacuum packing module mounting part is located in front of the first container , bottom surfaces of the vacuum packing module mounting part and the vacuum packing module are located above a bottom surface of the first container and the electronic component space (a) covers a space located in front of the first container and a space located below the vacuum packing module mounting part and the vacuum packing module . an outer case being in a form of a box having a hexahedral shape, in which an accommodating space is formed, and having an open upper surface; a housing comprising a housing mounting part and a vacuum packing module mounting part , configured to accommodate an upper portion of the outer case ; a first container providing a space for accommodating fluid and being coupled to the container mounting part and being accommodated inside the outer case ; a heating part configured to heat the fluid accommodated inside the first container ; a vacuum packing module having a vacuum pressure generator coupled to the vacuum packing module mounting part and configured to suction air inside a food packing container (p); and a sealer installed adjacent to the vacuum pressure generator and configured to heat and seal the food packing container (p), wherein the accommodating space for accommodating the housing and the first container and an electronic component space (a) for accommodating components to operate a control panel are formed inside the outer case , the vacuum packing module mounting part is located in front of the first container , bottom surfaces of the vacuum packing module mounting part and the vacuum packing module are located above a bottom surface of the first container and the electronic component space (a) covers a space located in front of the first container and a space located below the vacuum packing module mounting part and the vacuum packing module .
A method for producing a structure including a plurality of fibers, the method comprising: providing a collector with a predefined pattern, the collector including at least one of a plurality of ribs and a plurality of seams that are interconnected to form the predefined pattern, the collector further including at least one surface which is a filling of a void formed between the at least one of the plurality of ribs and the plurality of seams; charging the collector with a first polarity; providing a spinneret, the spinneret configured to dispense a polymer on the provided collector; charging of the spinneret to a second polarity substantially opposite of the first polarity; and dispensing the polymer on the collector via a focusing device, such that the polymer forms the plurality of fibers defining the structure, wherein the structure has at least two densities formed by the plurality of fibers. providing a collector with a predefined pattern, the collector including at least one of a plurality of ribs and a plurality of seams that are interconnected to form the predefined pattern, the collector further including at least one surface which is a filling of a void formed between the at least one of the plurality of ribs and the plurality of seams; charging the collector with a first polarity; providing a spinneret, the spinneret configured to dispense a polymer on the provided collector; charging of the spinneret to a second polarity substantially opposite of the first polarity; and dispensing the polymer on the collector via a focusing device, such that the polymer forms the plurality of fibers defining the structure, wherein the structure has at least two densities formed by the plurality of fibers.
A displacement sensor system mounted to a door , door frame , window or window frame, comprising: an analyzing sensor for, in response to being activated, determining a range to a measuring point , wherein the analyzing sensor is a range measurement sensor configured to transmit infrared light to measure the range from the analyzing sensor to the measuring point, and the measuring point is a frame member adjacent to the door or the window when the system is mounted on a door or window respectively, or a part of a door or a window when the system is mounted on a door frame or window frame respectively; and a trigger sensor for determining a movement of the door relative to the door frame , or a movement of the window relative to the window frame, and activating the analyzing sensor in response to determining the movement. an analyzing sensor for, in response to being activated, determining a range to a measuring point , wherein the analyzing sensor is a range measurement sensor configured to transmit infrared light to measure the range from the analyzing sensor to the measuring point, and the measuring point is a frame member adjacent to the door or the window when the system is mounted on a door or window respectively, or a part of a door or a window when the system is mounted on a door frame or window frame respectively; and a trigger sensor for determining a movement of the door relative to the door frame , or a movement of the window relative to the window frame, and activating the analyzing sensor in response to determining the movement.
A refrigeration system , for use with a volume containing a cargo having a thermal mass, the refrigeration system comprising: at least one temperature sensor associated with the cargo to provide at least one temperature associated with the thermal mass; a refrigeration unit associated with the volume; and a controller configured to control the refrigeration unit in response to the at least one temperature associated with the thermal mass and a temperature set point, characterized in that the controller is configured to model a temperature characteristic of the thermal mass of the cargo to allow the controller to determine if the thermal mass of the cargo has low or high thermal accumulation characteristics. at least one temperature sensor associated with the cargo to provide at least one temperature associated with the thermal mass; a refrigeration unit associated with the volume; and a controller configured to control the refrigeration unit in response to the at least one temperature associated with the thermal mass and a temperature set point, characterized in that the controller is configured to model a temperature characteristic of the thermal mass of the cargo to allow the controller to determine if the thermal mass of the cargo has low or high thermal accumulation characteristics.
A method for repairing, replacing, and/or inspecting an up-tower modular gearbox assembly for a wind turbine , the modular gearbox assembly comprising a first gear stage module and a second gear stage module, wherein the first gear stage module and the second gear stage module are each independent gear stage modules, each comprising a gear train assembly, the gear train assembly comprising a planetary gear system or a helical gear system , the method comprising: supporting a first gear stage module of the modular gearbox assembly up-tower via a movable support tool ; detaching the first gear stage module from a second gear stage module of the modular gearbox assembly up-tower; moving the first gear stage module to an up-tower inspection location away from the second gear stage module while the second gear stage module remains in place; repairing, replacing, and/or inspecting at least one of the first gear stage module or the second gear stage module while the first and second gear stage modules are detached; and, reattaching the first gear stage module to the second gear stage module after repairing, replacing, and/or inspecting at least one of the first gear stage module or the second gear stage module. supporting a first gear stage module of the modular gearbox assembly up-tower via a movable support tool ; detaching the first gear stage module from a second gear stage module of the modular gearbox assembly up-tower; moving the first gear stage module to an up-tower inspection location away from the second gear stage module while the second gear stage module remains in place; repairing, replacing, and/or inspecting at least one of the first gear stage module or the second gear stage module while the first and second gear stage modules are detached; and, reattaching the first gear stage module to the second gear stage module after repairing, replacing, and/or inspecting at least one of the first gear stage module or the second gear stage module.
Method for controlling slip of at least one wheel of a vehicle , wherein at least one parameter of an action to be performed is read from a matrix using a slip state of the wheel if the slip state is outside a target slip area of the matrix , wherein, for reading, a data field of the matrix that is assigned to the slip state is determined and the at least one parameter is read from the data field , wherein, in order to perform the action , at least one actuator of the vehicle is controlled using the parameter , characterized in that , for the slip state , a pair of values is formed from a relative speed value of the wheel and a relative acceleration value of the wheel , wherein the relative speed value represents a differential speed between the wheel and a substrate.
Device for introducing a grommet into a fastening opening of a wiper device , comprising a pusher for pushing the grommet into the fastening opening of the wiper device , wherein the device is suitable, in the case of production of the wiper device , for use in a serial-production process, characterized by a guide element which has a guide channel for guiding the grommet during the pushing into the fastening opening .
A method of forming a casting with a flow passage according to any of claims 7-10, comprising: forming a core obtained by filling a tubular pipe with a filler ; inserting the core into a mold having a cavity corresponding to a shape of the casting to be formed; performing a casting process by injecting molten metal into the cavity; and removing the filler from the core, wherein the casting process is performed through a die casting process, wherein the forming a core comprises: filling the tubular pipe with the filler , and drawing and extruding the tubular pipe filled with the filler such that the filler is compacted. forming a core obtained by filling a tubular pipe with a filler ; inserting the core into a mold having a cavity corresponding to a shape of the casting to be formed; performing a casting process by injecting molten metal into the cavity; and removing the filler from the core, wherein the casting process is performed through a die casting process, wherein the forming a core comprises: filling the tubular pipe with the filler , and drawing and extruding the tubular pipe filled with the filler such that the filler is compacted. filling the tubular pipe with the filler , and drawing and extruding the tubular pipe filled with the filler such that the filler is compacted.
A hat stiffener for reinforcing an aircraft skin, the hat stiffener comprising: a hat cap having a hat cap length; a plurality of hat flanges along the hat cap length; and a hat web between the hat cap and the plurality of hat flanges , the hat web having a first slope at a first end of the hat cap length and a second slope , wherein the first slope is more gradually sloped than the second slope; characterized in that the hat web further includes a third slope at a second end of the hat cap length, wherein the second slope is between the first slope and the third slope, and wherein the third slope is more gradually sloped than the second slope. a hat cap having a hat cap length; a plurality of hat flanges along the hat cap length; and a hat web between the hat cap and the plurality of hat flanges , the hat web having a first slope at a first end of the hat cap length and a second slope , wherein the first slope is more gradually sloped than the second slope; characterized in that the hat web further includes a third slope at a second end of the hat cap length, wherein the second slope is between the first slope and the third slope, and wherein the third slope is more gradually sloped than the second slope.