mhurhangee/patent-ind-claim-en huggingface dataset:
A method for enforcing control-flow integrity, the method comprising: using binary translation to convert unmanaged code in a data processing system into hardened unmanaged code, HUC , by including control-flow integrity, CFI, features in the HUC; using a preprocessor to convert managed code in the data processing system into hardened managed code, HMC , by ensuring that the HMC includes CFI features; executing the HMC in a managed runtime environment, MRE , in the data processing system; transferring control out from the MRE to the HUC, in response to a transfer control statement in the HMC; and using the CFI enforcement features in the HUC for transfers of control initiated by the HUC; and wherein the CFI features provide for hardware enforcement of CFI. using binary translation to convert unmanaged code in a data processing system into hardened unmanaged code, HUC , by including control-flow integrity, CFI, features in the HUC; using a preprocessor to convert managed code in the data processing system into hardened managed code, HMC , by ensuring that the HMC includes CFI features; executing the HMC in a managed runtime environment, MRE , in the data processing system; transferring control out from the MRE to the HUC, in response to a transfer control statement in the HMC; and using the CFI enforcement features in the HUC for transfers of control initiated by the HUC; and wherein the CFI features provide for hardware enforcement of CFI.
Vehicle restraint system comprising at least one upright , wherein the upright comprises a profiled beam and a stiffening beam arranged in the profiled beam , wherein the longitudinal axis of the stiffening beam is arranged essentially parallel to the longitudinal axis of the profiled beam , wherein the profiled beam has two narrow sides and two broad sides , characterized in that the profiled beam and the stiffening beam are detachably fastened to one another by means of a connecting device , in that at least one fastening device is arranged on at least one of the narrow sides of the profiled beam , and in that at least one protective plank is fastened to the at least one upright by means of the fastening device .
A pharmaceutical composition for use in a method of treating lung cancer or pancreatic cancer, the composition comprising nanoparticles encapsulating RNAi molecules, wherein the RNAi molecules are targeted to Hsp47.
A robot configured to exhibit a robot personality at least partly through execution of computer-readable program code, the robot comprising a robot head configured for connection to a face part (9; 9A, 9B) including a display surface, the robot being configured to cause the display of a face image depicting a face of said robot on said display surface, said robot head is configured for detachable connection to said face part to allow detachable connection of different face parts (9; 9A, 9B) to the robot head, the robot being configured to automatically adapt said robot personality based on the face part currently being connected to the robot head , characterised in that the robot further comprising a data receiving unit configured to receive, from the face part (9; 9A, 9B) being brought in the proximity of, or currently connected to, the robot head , a program code sequence stored on a data carrier of the face part, and the robot being configured to automatically adapt the robot personality through execution of said program code sequence received from the face part being brought in the proximity of, or currently connected to the robot head.
A computer-readable storage medium including instructions that upon execution by a processor cause the processor to: instantiate a log for a virtual disk file in random access memory, the log including ordered log entries; identify a log entry in the log, the log entry being the oldest log entry in the log that was generated after a request to commit cached input/output jobs to a storage device was issued; add an identifier for the identified log entry to each newly generated log entry; write the newly generated log entry to the log; and use the added identifiers in an event that the virtual disk file is improperly closed to discover a sequence of log entries to replay. instantiate a log for a virtual disk file in random access memory, the log including ordered log entries; identify a log entry in the log, the log entry being the oldest log entry in the log that was generated after a request to commit cached input/output jobs to a storage device was issued; add an identifier for the identified log entry to each newly generated log entry; write the newly generated log entry to the log; and use the added identifiers in an event that the virtual disk file is improperly closed to discover a sequence of log entries to replay.
A system for controlling harvesting implement height of an agricultural harvester , the system comprising: a harvesting implement ; first and second actuators configured to adjust first and second operating parameters respectively associated with a height or an orientation of the harvesting implement relative to a field surface, respectively; a sensor configured to capture data indicative of the height of the harvesting implement relative to the field surface; and a computing system communicatively coupled to the sensor , the computing system configured to: monitor the height of the harvesting implement relative to the field surface based on the data captured by the sensor ; determine an implement height error signal by comparing the monitored height of the harvesting implement to a predetermined target height; characterized in that , the computing system is further configured to divide the determined implement height error signal into a first frequency portion and a second frequency portion, the second frequency portion having a higher frequency than the first frequency portion; control an operation of the first actuator based on the first frequency portion of the implement height error signal; and control an operation of the second actuator based on the second frequency portion of the implement height error signal. a harvesting implement ; first and second actuators configured to adjust first and second operating parameters respectively associated with a height or an orientation of the harvesting implement relative to a field surface, respectively; a sensor configured to capture data indicative of the height of the harvesting implement relative to the field surface; and a computing system communicatively coupled to the sensor , the computing system configured to: monitor the height of the harvesting implement relative to the field surface based on the data captured by the sensor ; determine an implement height error signal by comparing the monitored height of the harvesting implement to a predetermined target height; monitor the height of the harvesting implement relative to the field surface based on the data captured by the sensor ; determine an implement height error signal by comparing the monitored height of the harvesting implement to a predetermined target height; divide the determined implement height error signal into a first frequency portion and a second frequency portion, the second frequency portion having a higher frequency than the first frequency portion; control an operation of the first actuator based on the first frequency portion of the implement height error signal; and control an operation of the second actuator based on the second frequency portion of the implement height error signal.
A man-in-the-middle detection method, comprising: receiving (S110), by a communication apparatus in a first physical frame, a first radio resource control RRC message from user equipment UE; receiving (S120), by the communication apparatus, a second RRC message from the UE, wherein the second RRC message comprises frame information of a second physical frame, and security protection is performed on the first RRC message and the second RRC message by using an access stratum AS security context established by the UE and the communication apparatus, wherein the security protection comprises RRC confidentiality protection; determining (S130), by the communication apparatus, whether the first physical frame matches the second physical frame, the determining step comprising; when the first physical frame matches the second physical frame, determining that no man-in-the-middle exists in the air interface between the UE and the communication apparatus; and when the first physical frame does not match the second physical frame, determining that a man-in-the-middle exists in the air interface between the UE and the communication apparatus; wherein the receiving, by a communication apparatus in a first physical frame, a first radio resource control RRC message from user equipment UE comprises: if a preset rule is met, receiving, by the communication apparatus in the first physical frame, the first RRC message from the UE, wherein the preset rule comprises the communication apparatus determining that user plane integrity protection between the communication apparatus and the UE is not enabled. receiving (S110), by a communication apparatus in a first physical frame, a first radio resource control RRC message from user equipment UE; receiving (S120), by the communication apparatus, a second RRC message from the UE, wherein the second RRC message comprises frame information of a second physical frame, and security protection is performed on the first RRC message and the second RRC message by using an access stratum AS security context established by the UE and the communication apparatus, wherein the security protection comprises RRC confidentiality protection; determining (S130), by the communication apparatus, whether the first physical frame matches the second physical frame, the determining step comprising; when the first physical frame matches the second physical frame, determining that no man-in-the-middle exists in the air interface between the UE and the communication apparatus; and when the first physical frame does not match the second physical frame, determining that a man-in-the-middle exists in the air interface between the UE and the communication apparatus; wherein the receiving, by a communication apparatus in a first physical frame, a first radio resource control RRC message from user equipment UE comprises: if a preset rule is met, receiving, by the communication apparatus in the first physical frame, the first RRC message from the UE, wherein the preset rule comprises the communication apparatus determining that user plane integrity protection between the communication apparatus and the UE is not enabled.
An adhesive film for metal terminals, interdisposable between a metal terminal electrically connected to an electrode of a battery element and a packaging material for sealing the battery element, the adhesive film for metal terminals comprising a first polyolefin layer, a base material film containing polyethylene naphthalate, and a second polyolefin layer in this order, wherein the base material film is a stretched film, at least one of the first polyolefin layer and the second polyolefin layer contains an acid-modified polyolefin, and when infrared absorption spectra are obtained for a surface of the base material film in a direction perpendicular to a thickness direction, in 18 directions from 0 to 170° in increments of 10°, by means of polarization measurement by Fourier transform infrared spectroscopy using single-reflection ATR, a value obtained by calculating, in each of the 18 directions, a value Y by dividing an absorption peak intensity Y 765 at 765 cm -1 by an absorption peak intensity Y 1181 at 1181 cm -1 in the infrared absorption spectrum, and then by dividing a maximum value Y max of the values Y by a minimum value Y min of the values Y, is 1.0 or more and 1.3 or less. the adhesive film for metal terminals comprising a first polyolefin layer, a base material film containing polyethylene naphthalate, and a second polyolefin layer in this order, wherein the base material film is a stretched film, at least one of the first polyolefin layer and the second polyolefin layer contains an acid-modified polyolefin, and when infrared absorption spectra are obtained for a surface of the base material film in a direction perpendicular to a thickness direction, in 18 directions from 0 to 170° in increments of 10°, by means of polarization measurement by Fourier transform infrared spectroscopy using single-reflection ATR, a value obtained by calculating, in each of the 18 directions, a value Y by dividing an absorption peak intensity Y 765 at 765 cm -1 by an absorption peak intensity Y 1181 at 1181 cm -1 in the infrared absorption spectrum, and then by dividing a maximum value Y max of the values Y by a minimum value Y min of the values Y, is 1.0 or more and 1.3 or less.
An adapter for connecting an embedded system (ECU), namely a motor vehicle control device, to a workstation (RCP, PC), comprising a standard interface (NET), a first partial circuit (TS1), and a second partial circuit (TS2), the first partial circuit (TS1) being set up for communicating with the workstation (RCP, PC) via the standard interface (NET) by means of a standard protocol, the first partial circuit (TS1) being connected to the second partial circuit (TS2) via an internal interface (INT), the second partial circuit (TS2) comprising a programmable calculating block configured for providing at least one elementary function from an overall set of elementary functions able to be invoked via the internal interface (INT) by means of a call, the first partial circuit (TS1) being set up for translating one or more values received via the internal interface (INT) into a protocol format of the standard protocol, the second partial circuit (TS2) being able to be connected to the embedded system (ECU) via an individual interface (IDS), and the second partial circuit (TS2) comprising a memory writeable by the user in which binary code of the programmable calculating block can be saved, characterized in that the first partial circuit (TS1) comprises a programmable logic device and a non-volatile memory in which a fixed configuration of the programmable logic device is saved, wherein the first partial circuit (TS1) is set up for translating a protocol functionality from a plurality of supported protocol functionalities requested in the standard protocol via the standard interface (NET) into the call of one or more elementary functions from a predefined overall set of elementary functions, and in that the second partial circuit (TS2) is implemented separately from the first partial circuit (TS1), wherein the second partial circuit (TS2) as a calculating block comprises an independent, programmable logic device and/or a microcontroller, wherein the memory writeable by the user comprises a logic configuration and/or program instructions for providing the at least one elementary function from the overall set of elementary functions, wherein the adapter comprises at least two boards, at least one flexible conductor being disposed between the same, wherein the first partial circuit (TS1) is implemented on the first board and the second partial circuit (TS2) is implemented on the second board.
A valve arrangement for a shock absorber, said valve arrangement comprising: - a valve housing comprising a first and a second port - a pilot chamber being in fluid communication with said first and/or second port, wherein a pilot pressure (Pp) is defined by a hydraulic pressure in said pilot chamber; - a main valve member being axially movably arranged in said valve housing and being arranged to interact with a main valve seat member in order to restrict a main fluid flow between said first and second ports in response to said pilot pressure (Pp) acting on said main valve member ; characterized in that , - the main valve seat member is movable between a first compression stroke position and a second rebound stroke position so that, during the compression stroke, the main fluid flow is restricted at a first restriction (R1) and a cooperating serially arranged second restriction (R2), and, during the rebound stroke, the main fluid flow is restricted at a third restriction (R3), wherein orifices (O R1 , O R2 ) of said first restriction (R1) and second restriction (R2) are controlled by means of the axial position of the main valve member relative the valve housing . - a valve housing comprising a first and a second port - a pilot chamber being in fluid communication with said first and/or second port, wherein a pilot pressure (Pp) is defined by a hydraulic pressure in said pilot chamber; - a main valve member being axially movably arranged in said valve housing and being arranged to interact with a main valve seat member in order to restrict a main fluid flow between said first and second ports in response to said pilot pressure (Pp) acting on said main valve member ; characterized in that , - the main valve seat member is movable between a first compression stroke position and a second rebound stroke position so that, during the compression stroke, the main fluid flow is restricted at a first restriction (R1) and a cooperating serially arranged second restriction (R2), and, during the rebound stroke, the main fluid flow is restricted at a third restriction (R3), wherein orifices (O R1 , O R2 ) of said first restriction (R1) and second restriction (R2) are controlled by means of the axial position of the main valve member relative the valve housing .
A baffle assembly , comprising: a collar having a central axis and an inner circumferential surface ; and, a plurality of vanes secured to the inner circumferential surface of the collar, each vane comprising: a leg extending from the collar at a first angle with respect to the central axis, the first angle of the leg configured to impart rotation to a flow of fluid through the baffle assembly; and an impingement plate extending from the leg at a second angle with respect to the central axis, wherein the second angle is greater than the first angle; wherein the baffle assembly is configured such that the flow of fluid through the baffle assembly first passes through the collar and encounters the leg of each of the plurality of vanes and thereafter encounters the impingement plate of the respective vanes , such that fluid flow encountering each of the impingement plates is urged in a substantially radial direction. a collar having a central axis and an inner circumferential surface ; and, a plurality of vanes secured to the inner circumferential surface of the collar, each vane comprising: a leg extending from the collar at a first angle with respect to the central axis, the first angle of the leg configured to impart rotation to a flow of fluid through the baffle assembly; and an impingement plate extending from the leg at a second angle with respect to the central axis, wherein the second angle is greater than the first angle; a leg extending from the collar at a first angle with respect to the central axis, the first angle of the leg configured to impart rotation to a flow of fluid through the baffle assembly; and an impingement plate extending from the leg at a second angle with respect to the central axis, wherein the second angle is greater than the first angle; wherein the baffle assembly is configured such that the flow of fluid through the baffle assembly first passes through the collar and encounters the leg of each of the plurality of vanes and thereafter encounters the impingement plate of the respective vanes , such that fluid flow encountering each of the impingement plates is urged in a substantially radial direction.
A method for acquiring a scheduled throughput, comprising the following steps: buffering a user service request message received (S501); allocating a downlink data scheduling resource according to a data size of the user service request message (S503), wherein a scheduling type of a current scheduling is determined as non-full scheduling in response to a size of the allocated downlink data scheduling resource allocated being greater than or equal to the data size of the user service request message buffered, and the scheduling type of the current scheduling is determined as full scheduling in response to the size of the downlink data scheduling resource allocated being less than the data size of the user service request message buffered; and acquiring a scheduled throughput according to a downlink data scheduling resource allocation result and the scheduling type (S505). buffering a user service request message received (S501); allocating a downlink data scheduling resource according to a data size of the user service request message (S503), wherein a scheduling type of a current scheduling is determined as non-full scheduling in response to a size of the allocated downlink data scheduling resource allocated being greater than or equal to the data size of the user service request message buffered, and the scheduling type of the current scheduling is determined as full scheduling in response to the size of the downlink data scheduling resource allocated being less than the data size of the user service request message buffered; and acquiring a scheduled throughput according to a downlink data scheduling resource allocation result and the scheduling type (S505).
A method for controlling transmission power of a downlink CDMA signal by determining a mode of a base station as primary or non-primary, wherein the base station is connected with a mobile station for soft handover, comprising the steps of: receiving a base station identification code from the mobile station; characterized by measuring an amount of loss of the received base station identification code (S602); determining the mode of the base station as non-primary (S607) when the received base station identification code is not identical to the base station identification code of the receiving base station (S606) and if the amount of loss of the received base station identification code is less than a threshold (S603); determining the mode of the base station as primary (S604) when the received base station identification code is identical to the base station identification code of the receiving base station or if the amount of loss of the base station identification code exceeds the threshold; controlling downlink CDMA signal transmission by setting the downlink CDMA signal transmission to a normally controlled level if the mode is determined as primary; and controlling downlink CDMA signal transmission by stopping the downlink CDMA signal transmission or restricting the transmission power of the downlink CDMA signal to a predetermined minimum transmission power value if the mode is determined as non-primary. receiving a base station identification code from the mobile station; characterized by measuring an amount of loss of the received base station identification code (S602); determining the mode of the base station as non-primary (S607) when the received base station identification code is not identical to the base station identification code of the receiving base station (S606) and if the amount of loss of the received base station identification code is less than a threshold (S603); determining the mode of the base station as primary (S604) when the received base station identification code is identical to the base station identification code of the receiving base station or if the amount of loss of the base station identification code exceeds the threshold; controlling downlink CDMA signal transmission by setting the downlink CDMA signal transmission to a normally controlled level if the mode is determined as primary; and controlling downlink CDMA signal transmission by stopping the downlink CDMA signal transmission or restricting the transmission power of the downlink CDMA signal to a predetermined minimum transmission power value if the mode is determined as non-primary.