mhurhangee/ep-ind-claims huggingface dataset:
An input device for inputting information corresponding to a touch operation on a detection surface, comprising: a sensor unit configured to detect a proximity degree of an object with respect to the detection surface and generate a detection value corresponding to the proximity degree of the object as a result of the detection; a change amount calculation unit configured to calculate a temporal change amount of the generated detection value, wherein a difference between a base value and the generated detection value is calculated as the change amount; and a determination unit configured to determine a touch operation based on the calculated change amount; characterized in that the base value is initially set to an initial value which is a detection value immediately after turning on a power of the input device and the base value is updated based on a weighted average value of detection values in a state in which an object is not close to the detection surface, and the input device further comprises a reset unit configured to perform resetting the base value to the initial value in a case where a duration of a state in which the touch operation is determined is equal to or longer than a first predetermined time, two or more peak values that are spatial maximum values of the change amount on the detection surface are present, and a difference between a first peak value, which is a largest peak value, and a second peak value, which is a second largest peak value, is equal to or greater than a predetermined value. a sensor unit configured to detect a proximity degree of an object with respect to the detection surface and generate a detection value corresponding to the proximity degree of the object as a result of the detection; a change amount calculation unit configured to calculate a temporal change amount of the generated detection value, wherein a difference between a base value and the generated detection value is calculated as the change amount; and a determination unit configured to determine a touch operation based on the calculated change amount; characterized in that the base value is initially set to an initial value which is a detection value immediately after turning on a power of the input device and the base value is updated based on a weighted average value of detection values in a state in which an object is not close to the detection surface, and the input device further comprises a reset unit configured to perform resetting the base value to the initial value in a case where a duration of a state in which the touch operation is determined is equal to or longer than a first predetermined time, two or more peak values that are spatial maximum values of the change amount on the detection surface are present, and a difference between a first peak value, which is a largest peak value, and a second peak value, which is a second largest peak value, is equal to or greater than a predetermined value.
A fusion protein comprised of truncated TACI and immunoglobulin Fc, characterized in that the TACI portion of the fusion protein consists of a sequence of the amino terminal region of extracellular region starting from the 13th amino acid residue, the whole sequence of cysteine-rich region, and a partial sequence of stalk region from TACI; the immunoglobulin Fc portion of the fusion protein comprises hinge region, CH2 region and CH3 region; and the TACI portion and the Fc portion are fused either directly or via a linker sequence, wherein the PC cleavage sites at the position of 9 th, 12 th, 120 th and 135 th amino acids have been removed through truncation in the TACI portion of the fusion protein, and wherein the fusion protein has the function of blocking BLyS and APRIL. wherein the PC cleavage sites at the position of 9 th, 12 th, 120 th and 135 th amino acids have been removed through truncation in the TACI portion of the fusion protein, and wherein the fusion protein has the function of blocking BLyS and APRIL.
Method for controlling a graphic processing unit, GPU, in a control unit the control unit comprising at least one central processing unit, CPU, the at least one CPU having access to at least one memory; the GPU being connected to and controlled by the at least one CPU, wherein the GPU is adapted to provide frames to at least one display having a predetermined output display frame rate, the method comprising: receiving, by a GPU server running on the CPU, a low priority graphical output from a first application, providing, by the GPU server, the low priority graphical output to the GPU to render and provide one or more frames to the at least one display, starting, by the GPU, the rendering of the low priority graphical output, receiving, by the GPU server, a time critical graphical output from a second application, wherein the time critical graphical output is received after the low priority graphical output; determining a first point in time before a next frame (n+2) to be provided to the at least one display based on second point in time, when the next frame (n+2) is to be provided to the at least one display, such that the time between the first point in time and the second point in time corresponds to the time required to finalize and send the time critical graphical output to the at least one display using the GPU; and forcing, at the determined first point in time, by the GPU server, the GPU to render the time critical graphical output, if at the determined first point in time the GPU still renders the low priority graphical output. receiving, by a GPU server running on the CPU, a low priority graphical output from a first application, providing, by the GPU server, the low priority graphical output to the GPU to render and provide one or more frames to the at least one display, starting, by the GPU, the rendering of the low priority graphical output, receiving, by the GPU server, a time critical graphical output from a second application, wherein the time critical graphical output is received after the low priority graphical output; determining a first point in time before a next frame (n+2) to be provided to the at least one display based on second point in time, when the next frame (n+2) is to be provided to the at least one display, such that the time between the first point in time and the second point in time corresponds to the time required to finalize and send the time critical graphical output to the at least one display using the GPU; and forcing, at the determined first point in time, by the GPU server, the GPU to render the time critical graphical output, if at the determined first point in time the GPU still renders the low priority graphical output.
A patterned substrate for a light emitting diode, comprising: a substrate having recessed depressions; and an anti-reflective layer disposed between the depressions. a substrate having recessed depressions; and an anti-reflective layer disposed between the depressions.
An encrypted-data processing method comprising: generating a first code (15a, r) from first data (14a, w) by using a second error correction encoding method and generating a second code from the first code (15a, r) and a first random number (16a, s*) by using a first error correction encoding method, wherein a Hamming distance of the first random number (16a, s*) does not exceed error correction capability of the second error correction encoding method; generating first masked data by masking registration target data (14b, x) by using the second code and registering the first masked data in a database (11, 120); generating a third code from a second random number (16b, s) by using the first error correction encoding method, wherein a Hamming distance of the second random number (16b, s) does not exceed the error correction capability; generating second masked data by masking matching target data (14c, y) by using the third code; and generating synthesized data (17c, T) by synthesizing the second masked data and the first masked data registered in the database (11, 120) and decoding the synthesized data (17c, T) in accordance with the first error correction encoding method and the second error correction encoding method. generating a first code (15a, r) from first data (14a, w) by using a second error correction encoding method and generating a second code from the first code (15a, r) and a first random number (16a, s*) by using a first error correction encoding method, wherein a Hamming distance of the first random number (16a, s*) does not exceed error correction capability of the second error correction encoding method; generating first masked data by masking registration target data (14b, x) by using the second code and registering the first masked data in a database (11, 120); generating a third code from a second random number (16b, s) by using the first error correction encoding method, wherein a Hamming distance of the second random number (16b, s) does not exceed the error correction capability; generating second masked data by masking matching target data (14c, y) by using the third code; and generating synthesized data (17c, T) by synthesizing the second masked data and the first masked data registered in the database (11, 120) and decoding the synthesized data (17c, T) in accordance with the first error correction encoding method and the second error correction encoding method.
An airfoil (62; 162; 262), optionally a turbine blade, for a gas turbine engine comprising: an airfoil section (62A; 162A; 262A) extending in a radial direction from a root section (62R; 162R) to a tip portion (62T; 162T; 262T), the airfoil section (62A; 162A; 262A) having an external wall and an internal wall, the external wall defining pressure and suction sides (62P, 62S; 162P, 162S) extending in a chordwise direction between a leading edge (62LE; 162LE; 262LE) and a trailing edge (62TE; 162TE; 262TE), and the pressure and suction sides (62P, 62S;162P, 162S) spaced apart in a thickness direction between the leading edge (62LE; 162LE; 262LE) and the trailing edge (62TE; 162TE; 262TE), wherein the airfoil section (62A; 162A; 262A) establishes an internal cooling arrangement (164; 264) comprising: a first cooling passage including a first section (170A; 270A) and a tip flag section (170B; 270B), the first section (170A; 270A) extending in the radial direction from the root section (62R; 162R), and the tip flag section (170B; 270B) extending in the chordwise direction along the tip portion (62T; 162T; 262T) from the first section (170A; 270A) to the trailing edge (62TE; 162TE; 262TE), characterised in that: the first section (170A; 270A) includes a plurality of branched paths established by at least one turning vane (174; 274) that interconnects the internal wall and the external wall, the at least one turning vane (174; 274) having an arcuate profile and arranged such that the plurality of branched paths (171; 271) join together along the tip flag section (170B; 270B); and the internal wall extends in the chordwise direction such that the plurality of branched paths (171; 271) are bounded in the thickness direction between the internal wall and the external wall adjacent the at least one turning vane (174; 274). the first section (170A; 270A) includes a plurality of branched paths established by at least one turning vane (174; 274) that interconnects the internal wall and the external wall, the at least one turning vane (174; 274) having an arcuate profile and arranged such that the plurality of branched paths (171; 271) join together along the tip flag section (170B; 270B); and the internal wall extends in the chordwise direction such that the plurality of branched paths (171; 271) are bounded in the thickness direction between the internal wall and the external wall adjacent the at least one turning vane (174; 274).
A braking system for a vehicle having handlebars provided with at least one gripping handle having a longitudinal axis, and at least one brake that can be actuated by a brake cable, said braking system comprising: • a support having a first portion designed to be fastened to the handlebars and a second portion provided with a guide member for the brake cable; • a pivoting body pivotably mounted relative to the support around a pivot axis that is substantially parallel to the longitudinal axis of the gripping handle when the braking system is fastened to the handlebars; the pivoting body including: ∘ a brake lever protruding, in a direction substantially parallel to the pivot axis, from a first end of the pivoting body opposite the pivot axis; and ∘ a fastening area for one end (Ca) of the brake cable, ∘ said fastening area being positioned between the pivot axis and said first end of the body opposite the pivot axis, and in that the guide member of the brake cable extends along an axis that passes into the volume defined by the first portion of the support designed to be fastened to the handlebars. • a support having a first portion designed to be fastened to the handlebars and a second portion provided with a guide member for the brake cable; • a pivoting body pivotably mounted relative to the support around a pivot axis that is substantially parallel to the longitudinal axis of the gripping handle when the braking system is fastened to the handlebars; the pivoting body including: ∘ a brake lever protruding, in a direction substantially parallel to the pivot axis, from a first end of the pivoting body opposite the pivot axis; and ∘ a fastening area for one end (Ca) of the brake cable, ∘ said fastening area being positioned between the pivot axis and said first end of the body opposite the pivot axis, and in that the guide member of the brake cable extends along an axis that passes into the volume defined by the first portion of the support designed to be fastened to the handlebars. ∘ a brake lever protruding, in a direction substantially parallel to the pivot axis, from a first end of the pivoting body opposite the pivot axis; and ∘ a fastening area for one end (Ca) of the brake cable, ∘ said fastening area being positioned between the pivot axis and said first end of the body opposite the pivot axis, and in that the guide member of the brake cable extends along an axis that passes into the volume defined by the first portion of the support designed to be fastened to the handlebars.
Process for preparing an alpha-olefin polymerization catalyst composition comprising - in a first stage, the formation of a Mg-M liquid complex (M is a transition metal) in the absence of halogen containing compound by reacting at least one organic oxygen-comprising compound of magnesium with at least one organic oxygen-comprising compound of a transition metal, - in a second stage, the impregnation of a silica support by means of the said Mg-M liquid complex, and - in a subsequent stage, the precipitation of the said Mg-M liquid complex on the silica by means of an halogenated organoaluminium compound, wherein - during the first stage reaction, the molar amount of the transition metal M added per mole of magnesium is comprised between 0.06 and 4, and - the said silica support has, prior to the Mg-M liquid complex impregnation, a residual surface hydroxyl content comprised between 0.6 and 2 mmole/g of silica, preferably between 1 and 1.6 mmole/g of silica. - in a first stage, the formation of a Mg-M liquid complex (M is a transition metal) in the absence of halogen containing compound by reacting at least one organic oxygen-comprising compound of magnesium with at least one organic oxygen-comprising compound of a transition metal, - in a second stage, the impregnation of a silica support by means of the said Mg-M liquid complex, and - in a subsequent stage, the precipitation of the said Mg-M liquid complex on the silica by means of an halogenated organoaluminium compound, - during the first stage reaction, the molar amount of the transition metal M added per mole of magnesium is comprised between 0.06 and 4, and - the said silica support has, prior to the Mg-M liquid complex impregnation, a residual surface hydroxyl content comprised between 0.6 and 2 mmole/g of silica, preferably between 1 and 1.6 mmole/g of silica.
A processor implemented method comprising: receiving a feature set of a plurality of features associated with non-stationary audio signals; receiving a training set comprising a plurality of non-stationary clean audio signals and non-stationary noisy audio signals; generating a unique and distinctive feature set based on the training set and the feature set; dynamically generating an unbiased threshold of unique feature attribute value (UFAV) and polarity associated with each of the unique and distinctive features of the unique and distinctive feature set; identifying a test signal as non-stationary noisy test signal or non-stationary clean test signal by statistical isolation based on (i) the unique feature attribute value (UFAV) and the polarity associated with each of the unique and distinctive features of the test signal and (ii) the dynamically generated unbiased threshold of the unique feature attribute value (UFAV) and the polarity; and classifying the non-stationary noisy test signal further as one of lightly noisy test signal and highly noisy test signal based on one or more pre-defined conditions with respect to the unique and distinctive features of the test signal. receiving a feature set of a plurality of features associated with non-stationary audio signals; receiving a training set comprising a plurality of non-stationary clean audio signals and non-stationary noisy audio signals; generating a unique and distinctive feature set based on the training set and the feature set; dynamically generating an unbiased threshold of unique feature attribute value (UFAV) and polarity associated with each of the unique and distinctive features of the unique and distinctive feature set; identifying a test signal as non-stationary noisy test signal or non-stationary clean test signal by statistical isolation based on (i) the unique feature attribute value (UFAV) and the polarity associated with each of the unique and distinctive features of the test signal and (ii) the dynamically generated unbiased threshold of the unique feature attribute value (UFAV) and the polarity; and classifying the non-stationary noisy test signal further as one of lightly noisy test signal and highly noisy test signal based on one or more pre-defined conditions with respect to the unique and distinctive features of the test signal.
A method for visible light communication between a transmitter and a receiver, wherein the transmitter comprises a light source and the receiver is configured to interpret light received from the light source in a first plurality of intervals as data and to ignore light received from the light source in a second plurality of intervals, wherein the number of intervals in the first plurality of intervals equals the number of intervals in the second plurality of intervals, the method comprising: defining two intensity levels of the light source for use in transmitting data symbols to the receiver during the first plurality of intervals; and in each one of the first plurality of intervals, selecting one of the intensity levels to transmit in order to transmit a data symbol, and in each one of the second plurality of intervals, selecting one of the intensity levels to transmit, wherein within each one of the second plurality of intervals, the intensity level is chosen to compensate for the intensity level transmitted in a respective one of the first plurality of intervals, so as to achieve a perceived average intensity level across the first and second plurality of intervals, wherein the duration of the individual intervals in the first and second plurality of intervals and the maximum number of consecutive intervals having the same intensity level are set to mitigate an ability of a human eye to detect changes in the intensity levels transmitted in the first and second plurality of intervals. defining two intensity levels of the light source for use in transmitting data symbols to the receiver during the first plurality of intervals; and in each one of the first plurality of intervals, selecting one of the intensity levels to transmit in order to transmit a data symbol, and in each one of the second plurality of intervals, selecting one of the intensity levels to transmit, wherein within each one of the second plurality of intervals, the intensity level is chosen to compensate for the intensity level transmitted in a respective one of the first plurality of intervals, so as to achieve a perceived average intensity level across the first and second plurality of intervals, wherein the duration of the individual intervals in the first and second plurality of intervals and the maximum number of consecutive intervals having the same intensity level are set to mitigate an ability of a human eye to detect changes in the intensity levels transmitted in the first and second plurality of intervals.
A packet processing method, wherein the method comprises: when determining that there are multiple service nodes in a next hop of a packet of a packet flow, and when a topology status of service nodes has changed compared to a topology status of service nodes at a time when the packet flow was generated, wherein a change of the topology status of service nodes refers to an increase or decrease of a number of service nodes in the service and a status value is updated for identifying a topology status of service nodes after a quantity of service nodes changes, determining, according to a status value that is carried in the packet and that is used to identify the topology status of service nodes at the time when the packet flow was generated, the service nodes in the next hop; and selecting one service node from the determined service nodes in the next hop, and sending the packet to the selected service node, wherein status values carried in all packets in a same packet flow are the same. when determining that there are multiple service nodes in a next hop of a packet of a packet flow, and when a topology status of service nodes has changed compared to a topology status of service nodes at a time when the packet flow was generated, wherein a change of the topology status of service nodes refers to an increase or decrease of a number of service nodes in the service and a status value is updated for identifying a topology status of service nodes after a quantity of service nodes changes, determining, according to a status value that is carried in the packet and that is used to identify the topology status of service nodes at the time when the packet flow was generated, the service nodes in the next hop; and selecting one service node from the determined service nodes in the next hop, and sending the packet to the selected service node, wherein status values carried in all packets in a same packet flow are the same.