mhurhangee/patent-ind-claim-en huggingface dataset:
A monitoring device of biological cells (C) comprising : - a fluidic channel in which a fluid (F) comprising biological cells (C) is made to flow, comprising a first and second glass walls placed in parallel and a reflective surface adjoined to the second wall , and - a piezoelectric transducer , for emitting acoustic waves (W) creating a force acting on the biological cells (C), and configured to make them flow substantially along a single motion plane (P), wherein the external interface of the first glass wall in contact with the exterior of the fluidic channel , for example air, and the reflective surface are configured to function as a Fabry-Perot interferometer , the finesse of which is lower than 10, such that the motion plane (P) is sensibly perpendicular to the optical axis of the Fabry-Perot interferometer , the monitoring device further comprising a detection unit, for detecting a fringe pattern stemming from the Fabry-Perot interferometer, and an analysing device, for analysing said fringe pattern, and configured to output data on physical properties of the cells (C) based on said pattern. - a fluidic channel in which a fluid (F) comprising biological cells (C) is made to flow, comprising a first and second glass walls placed in parallel and a reflective surface adjoined to the second wall , and - a piezoelectric transducer , for emitting acoustic waves (W) creating a force acting on the biological cells (C), and configured to make them flow substantially along a single motion plane (P), wherein the external interface of the first glass wall in contact with the exterior of the fluidic channel , for example air, and the reflective surface are configured to function as a Fabry-Perot interferometer , the finesse of which is lower than 10, such that the motion plane (P) is sensibly perpendicular to the optical axis of the Fabry-Perot interferometer , the monitoring device further comprising a detection unit, for detecting a fringe pattern stemming from the Fabry-Perot interferometer, and an analysing device, for analysing said fringe pattern, and configured to output data on physical properties of the cells (C) based on said pattern.
A terminal comprising: a receiving section configured to receive a system information including first information regarding a PUCCH resource, and to receive a downlink control information for a contention resolution message in a random access procedure, the downlink control information including second information regarding a PUCCH resource; and a control section configured to control a transmission of uplink control information based on the first information regarding the PUCCH resource and the second information regarding the PUCCH resource, wherein the first information regarding the PUCCH resource is configured commonly with terminals, and the second information regarding the PUCCH resource is configured individually for each of the terminals, and the first information regarding the PUCCH resource comprises information that indicates information regarding frequency hopping, and information that indicates a cyclic shift index. a receiving section configured to receive a system information including first information regarding a PUCCH resource, and to receive a downlink control information for a contention resolution message in a random access procedure, the downlink control information including second information regarding a PUCCH resource; and a control section configured to control a transmission of uplink control information based on the first information regarding the PUCCH resource and the second information regarding the PUCCH resource, wherein the first information regarding the PUCCH resource is configured commonly with terminals, and the second information regarding the PUCCH resource is configured individually for each of the terminals, and the first information regarding the PUCCH resource comprises information that indicates information regarding frequency hopping, and information that indicates a cyclic shift index.
A method performed by a computer for blocking command content from being executed by a scripting engine , the method comprising: identifying a host process that runs a scripting engine ; injecting an unmanaged interface module into the host process ; receiving , by the unmanaged interface module, command content that is to be executed by the scripting engine; communicating the command content from a managed interface module to a threat detection component through the unmanaged interface module , wherein the threat detection component is installed as a kernel-mode component; receiving , through the unmanaged interface module from the threat detection component , a reply to block the command content; and in response, blocking the command content. identifying a host process that runs a scripting engine ; injecting an unmanaged interface module into the host process ; receiving , by the unmanaged interface module, command content that is to be executed by the scripting engine; communicating the command content from a managed interface module to a threat detection component through the unmanaged interface module , wherein the threat detection component is installed as a kernel-mode component; receiving , through the unmanaged interface module from the threat detection component , a reply to block the command content; and in response, blocking the command content.
A flail assembly for a straw chopper shaft with a mounting hole in a bracket comprising: a bolt element which can be passed through the mounting hole of the bracket , an anti-rotation element by means of which the bolt element can be supported on the bracket against rotation, a first flail having a bore with which the first flail is seated on the bolt element , a first fastening element connected to a first free end portion of said bolt element , and a first washer having a bore with which the first washer sits on the bolt element , the first washer being disposed between the first fastening element and the first flail , characterized in that the first washer is radially slotted, and that the bolt element is axially braced with the first fastening element and the first washer with respect to a longitudinal axis (A, A') of the bolt element , and that a smallest cylindrical envelope of the first fastening element , coaxial with the longitudinal axis (A, A') of the bolt element , has a smaller radius than the bore of the first flail . a bolt element which can be passed through the mounting hole of the bracket , an anti-rotation element by means of which the bolt element can be supported on the bracket against rotation, a first flail having a bore with which the first flail is seated on the bolt element , a first fastening element connected to a first free end portion of said bolt element , and a first washer having a bore with which the first washer sits on the bolt element , the first washer being disposed between the first fastening element and the first flail , characterized in that the first washer is radially slotted, and that the bolt element is axially braced with the first fastening element and the first washer with respect to a longitudinal axis (A, A') of the bolt element , and that a smallest cylindrical envelope of the first fastening element , coaxial with the longitudinal axis (A, A') of the bolt element , has a smaller radius than the bore of the first flail .
An elevator system in which an elevator car controlled by an elevator controller can be moved between floors (L, L1), comprising: an elevator operating device that is communicatively connected to the elevator controller and is arranged on a floor (L, L1), wherein the elevator operating device has a first radio device , an audio device and a touch-sensitive screen for inputting a destination floor desired by a passenger (P) and for outputting travel information, and characterized by an activation device which has an actuation device accessible to the passenger (P) and a second radio device for radio communication with the first radio device , and which is arranged on one of the floors (L, L1) within radio range of the elevator operating device arranged there, wherein the second radio device is configured to transmit an activation radio signal when the actuation device is actuated by the passenger (P), and wherein the elevator operating device is configured to switch from a normal operating mode to a special operating mode when the activation radio signal is received by the first radio device , to generate an operating instruction for a call input by the passenger (P) in the special operating mode, and to switch into the normal operating mode when the call input is complete. an elevator operating device that is communicatively connected to the elevator controller and is arranged on a floor (L, L1), wherein the elevator operating device has a first radio device , an audio device and a touch-sensitive screen for inputting a destination floor desired by a passenger (P) and for outputting travel information, and characterized by an activation device which has an actuation device accessible to the passenger (P) and a second radio device for radio communication with the first radio device , and which is arranged on one of the floors (L, L1) within radio range of the elevator operating device arranged there, wherein the second radio device is configured to transmit an activation radio signal when the actuation device is actuated by the passenger (P), and wherein the elevator operating device is configured to switch from a normal operating mode to a special operating mode when the activation radio signal is received by the first radio device , to generate an operating instruction for a call input by the passenger (P) in the special operating mode, and to switch into the normal operating mode when the call input is complete.
A sound field control device comprising: an image information acquisition unit for acquiring three-dimensional display position information of a display object corresponding to a sound source, on a screen displaying the object; a virtual sound source position control unit configured to control a virtual sound source position, a sound control unit configured to output sound to a sound output unit ; and a viewer position information acquisition unit configured to acquire position information of a viewer; wherein when a normal position of a sound corresponding to the display object changes in real time, the sound control unit is configured to dynamically compute an appropriate head related transfer function based on a relative position of the virtual sound source position (SP V ) to the position of the viewer, the position information of the viewer and a reproduced sound source position (SP L , SP R ) corresponding to the display position information of the display object, to maintain the virtual sound source position in response to a motion of the viewer. an image information acquisition unit for acquiring three-dimensional display position information of a display object corresponding to a sound source, on a screen displaying the object; a virtual sound source position control unit configured to control a virtual sound source position, a sound control unit configured to output sound to a sound output unit ; and a viewer position information acquisition unit configured to acquire position information of a viewer; wherein when a normal position of a sound corresponding to the display object changes in real time, the sound control unit is configured to dynamically compute an appropriate head related transfer function based on a relative position of the virtual sound source position (SP V ) to the position of the viewer, the position information of the viewer and a reproduced sound source position (SP L , SP R ) corresponding to the display position information of the display object, to maintain the virtual sound source position in response to a motion of the viewer.
A method of managing power headroom reporting associated with a wireless transmit/receive unit (WTRU), the method comprising: determining a value of Power Management Power Reduction, P-MPR; determining a backoff value for reducing a maximum transmit power for the WTRU by: comparing the P-MPR value to a further value; responsive to the further value being less than the P-MPR value, calculating the backoff value in accordance with the P-MPR value, exclusive of the further value, and responsive to the further value being greater than the P-MPR, calculating the backoff value in accordance with the further value, exclusive of the P-MPR value; determining a configured maximum output power, P CMAX , of the WTRU that is within specified limits and whether the P CMAX of the WTRU is impacted by the P-MPR value using the determined backoff value; and sending, by the WTRU to a network entity, a power headroom report including the determined P CMAX and an indicator that indicates whether the P CMAX of the WTRU is impacted by the P-MPR value, wherein: the further value is associated with maximum power reduction, MPR, and an additional MPR, A-MPR, as defined by LTE or LTE-A, and the P-MPR value is a value that is in accordance with a specific absorption rate, SAR requirement and that is not related to MPR or A-MPR. determining a value of Power Management Power Reduction, P-MPR; determining a backoff value for reducing a maximum transmit power for the WTRU by: comparing the P-MPR value to a further value; responsive to the further value being less than the P-MPR value, calculating the backoff value in accordance with the P-MPR value, exclusive of the further value, and responsive to the further value being greater than the P-MPR, calculating the backoff value in accordance with the further value, exclusive of the P-MPR value; comparing the P-MPR value to a further value; responsive to the further value being less than the P-MPR value, calculating the backoff value in accordance with the P-MPR value, exclusive of the further value, and responsive to the further value being greater than the P-MPR, calculating the backoff value in accordance with the further value, exclusive of the P-MPR value; determining a configured maximum output power, P CMAX , of the WTRU that is within specified limits and whether the P CMAX of the WTRU is impacted by the P-MPR value using the determined backoff value; and sending, by the WTRU to a network entity, a power headroom report including the determined P CMAX and an indicator that indicates whether the P CMAX of the WTRU is impacted by the P-MPR value, wherein: the further value is associated with maximum power reduction, MPR, and an additional MPR, A-MPR, as defined by LTE or LTE-A, and the P-MPR value is a value that is in accordance with a specific absorption rate, SAR requirement and that is not related to MPR or A-MPR.
An arrangement for handling shared data memory access for a Thick Control Flow, TCF, aware processor supporting TCFs with arbitrary thickness, the arrangement comprising at least a flexible latency handling unit comprising local memory and related control logic, said local memory being provided for storing shared data memory access related data, wherein the arrangement is configured to receive at least one TCF comprising a plurality of fibers, each fiber comprising a plurality of instructions, wherein each TCF is executed one instruction at a time and a step is completed when all fibers of the at least one TCF have executed an instruction, wherein the flexible latency handling unit is configured to - determine if shared data memory access is required by the at least one instruction, - if shared data memory access is required, send a shared data memory access request, - via the flexible latency handling unit, observe, once per clock cycle, if a reply to the shared data memory access request is received, - suspend continued execution of the instruction until all shared data memory references related to the instruction have been received, and - continue execution of the instruction after receiving the shared data memory references so that the delay associated with the shared data memory access, in terms of clock cycles, is dynamically determined by the actual required shared data memory access latency and corresponds to one clock cycle at minimum, such that the shared memory references generated by a previous step are completed before starting of a next step. - determine if shared data memory access is required by the at least one instruction, - if shared data memory access is required, send a shared data memory access request, - via the flexible latency handling unit, observe, once per clock cycle, if a reply to the shared data memory access request is received, - suspend continued execution of the instruction until all shared data memory references related to the instruction have been received, and - continue execution of the instruction after receiving the shared data memory references so that the delay associated with the shared data memory access, in terms of clock cycles, is dynamically determined by the actual required shared data memory access latency and corresponds to one clock cycle at minimum, such that the shared memory references generated by a previous step are completed before starting of a next step.
A method for quality assessment of a sealing section of a package , wherein the package comprises at least a robustness layer and a plastic layer , wherein the sealing section is formed by holding a first section and a second section of the package against each other while providing heat such that the plastic layer of the first and second section melt and thereby provide for that the first and second section adhere to each other, the method comprising capturing image data depicting the sealing section using a camera , the method being characterised by the steps of: identifying a reference line in the image data, identifying a sealing section boundary line in the image data, determining a sealing section assessment feature set based on the reference line and the sealing section boundary line , and comparing the sealing section assessment feature set with a reference feature set. identifying a reference line in the image data, identifying a sealing section boundary line in the image data, determining a sealing section assessment feature set based on the reference line and the sealing section boundary line , and comparing the sealing section assessment feature set with a reference feature set.
A method in a computer system having an operating system providing isolation between software processes executable in the operating system such that a first process executing in the operating system is prevented from accessing resources of a second process executing in the operating system, the method comprising: receiving a software component for execution as an isolated process in the operating system; receiving a baseline profile for the software component defining one or more characteristics of the software component at a runtime for identifying performance of the software component; generating a runtime profile of the software component in execution in the operating system defining characteristics of the component in execution; flagging the software component in execution based on a comparison of the baseline profile and the runtime profile so as to identify an undesirabe performance of the software component; suspending or terminating execution of the flagged software component; and transitioning execution of the flagged software component to an alternative computer system, wherein the baseline profile is generated based on profiling of one or more executions of the software component, and wherein the baseline profile is learned by a machine learning algorithm from multiple executions of the software component. receiving a software component for execution as an isolated process in the operating system; receiving a baseline profile for the software component defining one or more characteristics of the software component at a runtime for identifying performance of the software component; generating a runtime profile of the software component in execution in the operating system defining characteristics of the component in execution; flagging the software component in execution based on a comparison of the baseline profile and the runtime profile so as to identify an undesirabe performance of the software component; suspending or terminating execution of the flagged software component; and transitioning execution of the flagged software component to an alternative computer system, wherein the baseline profile is generated based on profiling of one or more executions of the software component, and wherein the baseline profile is learned by a machine learning algorithm from multiple executions of the software component.
A seaplane comprising: a float attached to a lower part of a main body of the seaplane, characterized in that the seaplane further comprises: a device for suppressing pitch angle fluctuations in the seaplane the device comprising: a base member provided by dividing the float in its length direction, the base member being a central part of the float and linked to the seaplane main body; a turning member connected at a lengthwise end of the base member, the turning member being capable of turning between a normal position at which the turning member is positioned along a length direction of the base member and an active position at which the turning member is positioned higher than the length direction of the base member; and a linking means (K) disposed between the base member and the turning member, the linking means linking the two members together in such a way as to allow them to rotate relative to each other and urging the turning member to toward the normal position, wherein the linking means forms a center of turn of the turning member on an upper part of the float. a base member provided by dividing the float in its length direction, the base member being a central part of the float and linked to the seaplane main body; a turning member connected at a lengthwise end of the base member, the turning member being capable of turning between a normal position at which the turning member is positioned along a length direction of the base member and an active position at which the turning member is positioned higher than the length direction of the base member; and a linking means (K) disposed between the base member and the turning member, the linking means linking the two members together in such a way as to allow them to rotate relative to each other and urging the turning member to toward the normal position, wherein the linking means forms a center of turn of the turning member on an upper part of the float.