mhurhangee/ep-ind-claims huggingface dataset:
A data processing apparatus comprising: obtain circuitry to obtain a stream of instructions, the stream of instructions comprising a barrier creation instruction and a barrier inhibition instruction; and track circuitry to order sending each instruction in the stream of instructions to processing circuitry based on one or more dependencies, wherein the track circuitry is responsive to the barrier creation instruction to cause the one or more dependencies to include one or more barrier dependencies in which pre-barrier instructions, occurring before the barrier creation instruction in the stream, are sent before post-barrier instructions, occurring after the barrier creation instruction in the stream, are sent; and the track circuitry is responsive to the barrier inhibition instruction to relax the barrier dependencies to permit post-inhibition instructions, occurring after the barrier inhibition instruction in the stream, to be sent before the pre-barrier instructions. obtain circuitry to obtain a stream of instructions, the stream of instructions comprising a barrier creation instruction and a barrier inhibition instruction; and track circuitry to order sending each instruction in the stream of instructions to processing circuitry based on one or more dependencies, wherein the track circuitry is responsive to the barrier creation instruction to cause the one or more dependencies to include one or more barrier dependencies in which pre-barrier instructions, occurring before the barrier creation instruction in the stream, are sent before post-barrier instructions, occurring after the barrier creation instruction in the stream, are sent; and the track circuitry is responsive to the barrier inhibition instruction to relax the barrier dependencies to permit post-inhibition instructions, occurring after the barrier inhibition instruction in the stream, to be sent before the pre-barrier instructions.
Metal cord consisting of two layers (Ci, Ce) of 3+N construction, rubberized in situ, comprising an inner layer (Ci) formed from three core wires of diameter d 1 wound together in a helix with a pitch p 1 and an outer layer (Ce) of N wires, N varying from 6 to 12, of diameter d 2, which are wound together in a helix with a pitch p 2 around the inner layer (Ci), said cord being characterized in that it has the following characteristics (d 1, d 2, p 1 and p 2 being expressed in mm): - 0.08 < d 1 < 0.30; - 0.08 < d 2 ≤ 0.20; - p 1 / p 2 ≤ 1; - 3 < p 1 < 30; - 6 < p 2 < 30; - the inner layer is sheathed with a diene rubber composition called a "filling rubber " which, for any length of cord of 2 cm or more, is present in the central channel formed by the three core wires and in each of the gaps lying between the three core wires and the N wires of the outer layer (Ce); - the content of filling rubber in the cord is between 5 and 35 mg per g of cord; - the cord has no filling rubber on its periphery. - 0.08 < d 1 < 0.30; - 0.08 < d 2 ≤ 0.20; - p 1 / p 2 ≤ 1; - 3 < p 1 < 30; - 6 < p 2 < 30; - the inner layer is sheathed with a diene rubber composition called a "filling rubber " which, for any length of cord of 2 cm or more, is present in the central channel formed by the three core wires and in each of the gaps lying between the three core wires and the N wires of the outer layer (Ce); - the content of filling rubber in the cord is between 5 and 35 mg per g of cord; - the cord has no filling rubber on its periphery.
A ceramic substrate, comprising: a silicon nitride crystal phase containing a plurality of silicon nitride crystals, and grain boundaries between the silicon nitride crystals; and a silicate phase containing magnesium silicate crystals and rare earth silicate crystals, respective maximum particle sizes of the magnesium silicate crystals and the rare earth silicate crystals being smaller than that of the silicon nitride crystals, the silicate phase being positioned in the grain boundaries; wherein the rare earth silicate crystals contain at least one of erbium silicate crystals and yttrium silicate crystals, respective minimum particle sizes of which are smaller than that of the magnesium silicate crystals. a silicon nitride crystal phase containing a plurality of silicon nitride crystals, and grain boundaries between the silicon nitride crystals; and a silicate phase containing magnesium silicate crystals and rare earth silicate crystals, respective maximum particle sizes of the magnesium silicate crystals and the rare earth silicate crystals being smaller than that of the silicon nitride crystals, the silicate phase being positioned in the grain boundaries; wherein the rare earth silicate crystals contain at least one of erbium silicate crystals and yttrium silicate crystals, respective minimum particle sizes of which are smaller than that of the magnesium silicate crystals.
An inline power controller, comprising: at least one analog interface circuit module, the analog interface circuit module having: a first analog input node for receiving an inline power port voltage; a second analog input node for receiving an inline power port current; a first analog output for effecting an inline power port voltage; a second analog output for effecting an inline power port current; a digital interface converting the received inline power port voltage to a first digital value, the inline power port current to a second digital value, a third digital value to the first analog output and a fourth digital value to the second analog output; a digital serial bus, DSB, connected to the digital interface to receive the first, second, third and fourth digital values; a digital controller responsive to a series of instructions stored in a programmable memory associated with the digital controller; and the digital controller coupled to communicate with the at least one analog interface circuit module via the DSB. at least one analog interface circuit module, the analog interface circuit module having: a first analog input node for receiving an inline power port voltage; a second analog input node for receiving an inline power port current; a first analog output for effecting an inline power port voltage; a second analog output for effecting an inline power port current; a digital interface converting the received inline power port voltage to a first digital value, the inline power port current to a second digital value, a third digital value to the first analog output and a fourth digital value to the second analog output; a digital serial bus, DSB, connected to the digital interface to receive the first, second, third and fourth digital values; a digital controller responsive to a series of instructions stored in a programmable memory associated with the digital controller; and the digital controller coupled to communicate with the at least one analog interface circuit module via the DSB. a first analog input node for receiving an inline power port voltage; a second analog input node for receiving an inline power port current; a first analog output for effecting an inline power port voltage; a second analog output for effecting an inline power port current; a digital interface converting the received inline power port voltage to a first digital value, the inline power port current to a second digital value, a third digital value to the first analog output and a fourth digital value to the second analog output; a digital serial bus, DSB, connected to the digital interface to receive the first, second, third and fourth digital values; a digital controller responsive to a series of instructions stored in a programmable memory associated with the digital controller; and the digital controller coupled to communicate with the at least one analog interface circuit module via the DSB.
An integrated controller configured to operate in a field, the integrated controller comprising: a network interface module configured to receive, from a remote host via a communication link, a setpoint for a process variable; a sensor configured to generate a measurement of the process variable; one or more function modules communicatively coupled to the sensor, the one or more function modules being configured to i) receive the measurement of a process variable and ii) execute logic for a control loop including a field device based at least in part on the measurement of the process variable and the setpoint for the process variable, to generate an output signal independently of the remote host, wherein the output signal is for controlling the field device; an output module to directly apply the generated output signal to the field device; and a memory readable by the one or more function modules; wherein the field device is a valve; characterised in that the memory further stores a valve signature specifying a set of pressure values and a set of corresponding travel positions for the valve, and wherein the one or more function modules are further configured to: receive, during operation of the control loop in real time, pressure values and indications of travel positions for the valve, and compare the received pressure values and indications of the travel positions to the valve signature to determine a set of tuning parameters for the control loop. a network interface module configured to receive, from a remote host via a communication link, a setpoint for a process variable; a sensor configured to generate a measurement of the process variable; one or more function modules communicatively coupled to the sensor, the one or more function modules being configured to i) receive the measurement of a process variable and ii) execute logic for a control loop including a field device based at least in part on the measurement of the process variable and the setpoint for the process variable, to generate an output signal independently of the remote host, wherein the output signal is for controlling the field device; an output module to directly apply the generated output signal to the field device; and a memory readable by the one or more function modules; wherein the field device is a valve; characterised in that the memory further stores a valve signature specifying a set of pressure values and a set of corresponding travel positions for the valve, and wherein the one or more function modules are further configured to: receive, during operation of the control loop in real time, pressure values and indications of travel positions for the valve, and compare the received pressure values and indications of the travel positions to the valve signature to determine a set of tuning parameters for the control loop. receive, during operation of the control loop in real time, pressure values and indications of travel positions for the valve, and compare the received pressure values and indications of the travel positions to the valve signature to determine a set of tuning parameters for the control loop.
A temperature adjusting structure which adjusts a temperature of an electric storage module mounted on a vehicle, comprising: an intake path (14, 31, 32) configured to take in air in a vehicle interior from an intake port and guide the air to the electric storage module located below a horizontal plane on which the intake port is located, wherein a bottom face of the intake path (17, 31, 32) has an inclined face extending upward from a lower end portion (32a1) of the intake port and facing the intake port, and an opening plane of the intake port is substantially orthogonal to the horizontal plane or is inclined with respect to the horizontal plane to be directed upward. an intake path (14, 31, 32) configured to take in air in a vehicle interior from an intake port and guide the air to the electric storage module located below a horizontal plane on which the intake port is located, wherein a bottom face of the intake path (17, 31, 32) has an inclined face extending upward from a lower end portion (32a1) of the intake port and facing the intake port, and an opening plane of the intake port is substantially orthogonal to the horizontal plane or is inclined with respect to the horizontal plane to be directed upward.
An atmospheric corrosion monitor, ACM, sensor placement device comprising: a holder comprising: a main body with two opposite surfaces, including two claw portions (622, 623), each of which being provided at each of two facing sides of a first one of the two surfaces of the main body, the claw portions each being provided with a sensor fitting groove (651, 652); a cover portion being provided on the second one of the two surfaces of the main body, characterized in that two band insertion holes (661, 662) configured to receive an insertable band are provided in the cover portion, a first one of the band insertion holes extending in the direction in which the two claw portions (622, 623) face each other, and the second one of the band insertion holes extending perpendicular to the direction in which the two claw portions (622, 623) face each other, wherein the band insertion holes (661, 662) are connected to each other, and form a cross shape as a whole, the main body comprises penetrating stopper insertion holes (681, 682, 683) each configured for insertion of a stopper, and provided on opposite end sides of the main body, as seen perpendicular to the direction in which the two claw portions (622, 623) face each other, and the two claw portions (622, 623) and the stopper insertion holes (681, 682, 683) are configured for securing an ACM sensor in the holder. a main body with two opposite surfaces, including two claw portions (622, 623), each of which being provided at each of two facing sides of a first one of the two surfaces of the main body, the claw portions each being provided with a sensor fitting groove (651, 652); a cover portion being provided on the second one of the two surfaces of the main body, two band insertion holes (661, 662) configured to receive an insertable band are provided in the cover portion, a first one of the band insertion holes extending in the direction in which the two claw portions (622, 623) face each other, and the second one of the band insertion holes extending perpendicular to the direction in which the two claw portions (622, 623) face each other, wherein the band insertion holes (661, 662) are connected to each other, and form a cross shape as a whole, the main body comprises penetrating stopper insertion holes (681, 682, 683) each configured for insertion of a stopper, and provided on opposite end sides of the main body, as seen perpendicular to the direction in which the two claw portions (622, 623) face each other, and the two claw portions (622, 623) and the stopper insertion holes (681, 682, 683) are configured for securing an ACM sensor in the holder.
A food heat treatment monitoring method, comprising - recording a pixel image by a camera, wherein current pixel data of a current pixel image of the camera corresponds to current sensor data; - calibrating the current sensor data by setting white balance and color temperatures to a common level on the basis of reference colors observed by the camera in a calibration process; - determining current sensor data of food to be heated; - determining current feature data from the current sensor data; - determining a current heating process state in a current heating process of monitored food by comparing the current feature data with reference feature data of a reference heating process, wherein determining a current heating process state comprises - determining distances in a feature space of the current feature data to the reference feature data for each time point of the reference heating program, and - determining a current time point in the reference heating program by determining the time point of reference feature data of the reference heating program having the nearest distance to the current feature data, and wherein determining current feature data from the current sensor data comprises - applying a linear or nonlinear mapping to map the current sensor data to current feature data being reduced in dimensionality, wherein the mapping is derived by means of a variance analysis of at least one training heating process, in which sensor data of the at least one training heating process with the highest variance over time in the at least one training heating process is weighted most. - recording a pixel image by a camera, wherein current pixel data of a current pixel image of the camera corresponds to current sensor data; - calibrating the current sensor data by setting white balance and color temperatures to a common level on the basis of reference colors observed by the camera in a calibration process; - determining current sensor data of food to be heated; - determining current feature data from the current sensor data; - determining a current heating process state in a current heating process of monitored food by comparing the current feature data with reference feature data of a reference heating process, wherein determining a current heating process state comprises - determining distances in a feature space of the current feature data to the reference feature data for each time point of the reference heating program, and - determining a current time point in the reference heating program by determining the time point of reference feature data of the reference heating program having the nearest distance to the current feature data, and wherein determining current feature data from the current sensor data comprises - applying a linear or nonlinear mapping to map the current sensor data to current feature data being reduced in dimensionality, wherein the mapping is derived by means of a variance analysis of at least one training heating process, in which sensor data of the at least one training heating process with the highest variance over time in the at least one training heating process is weighted most.
A vehicle hybrid drive device (10, 100, 150, 160) having an EV running mode enabling a vehicle to run only with a second rotating machine used as a drive power source while an engine is disconnected from a drive power transmission path, a series HEV running mode enabling the vehicle to run only with the second rotating machine used as the drive power source while a first rotating machine is rotationally driven to generate electricity by the engine disconnected from the drive power transmission path, and a parallel HEV running mode enabling the vehicle to run with the engine and at least one of the first and second rotating machines used as the drive power sources while the engine is connected to the drive power transmission path, the running modes being selected in accordance with a mode switching condition defined based on at least one of a required drive power and a vehicle speed, wherein a range for selecting the series HEV running mode in accordance with the mode switching condition is changed depending on a driver's intention.
A memory array, comprising: vertically-alternating tiers (12, 14) of insulative material and memory cells, the memory cells individually comprising: a transistor comprising first and second source/drain regions having a channel region there-between and a gate (26, 27) operatively proximate the channel region; and a capacitor comprising first and second electrodes having a capacitor insulator there-between, the first electrode being electrically coupled to the first source/drain region, the second capacitor electrodes of multiple of the capacitors in the array being electrically connected with one another; and a sense-line structure extending elevationally through the vertically-alternating tiers (12, 14), characterised in that at least a portion of the channel region is horizontally-oriented for horizontal current flow in the portion between the first and second source/drain regions; and in that individual of the second source/drain regions of individual of the transistors that are in different memory cell tiers (12, 14) are directly electrically coupled to the elevationally-extending sense-line structure. vertically-alternating tiers (12, 14) of insulative material and memory cells, the memory cells individually comprising: a transistor comprising first and second source/drain regions having a channel region there-between and a gate (26, 27) operatively proximate the channel region; and a capacitor comprising first and second electrodes having a capacitor insulator there-between, the first electrode being electrically coupled to the first source/drain region, the second capacitor electrodes of multiple of the capacitors in the array being electrically connected with one another; and a transistor comprising first and second source/drain regions having a channel region there-between and a gate (26, 27) operatively proximate the channel region; and a capacitor comprising first and second electrodes having a capacitor insulator there-between, the first electrode being electrically coupled to the first source/drain region, the second capacitor electrodes of multiple of the capacitors in the array being electrically connected with one another; and a sense-line structure extending elevationally through the vertically-alternating tiers (12, 14), characterised in that at least a portion of the channel region is horizontally-oriented for horizontal current flow in the portion between the first and second source/drain regions; and in that individual of the second source/drain regions of individual of the transistors that are in different memory cell tiers (12, 14) are directly electrically coupled to the elevationally-extending sense-line structure.
A portable electric lamp comprising: - a light source generating at least one light beam, preferably narrow; - a glass sheet disposed in front of said light source, said glass sheet comprising an electro-optical device driven by an electric signal for producing an electrically adjustable diffusion, characterized in that it further includes: - a sensor configured for sensing part of the light being reflected on an object which is lighted by said light source; - a control unit coupled to said sensor and said electro-optical device, wherein said control unit generates said electric signal from the reflected light being sensed by said sensor. - a light source generating at least one light beam, preferably narrow; - a glass sheet disposed in front of said light source, said glass sheet comprising an electro-optical device driven by an electric signal for producing an electrically adjustable diffusion, - a sensor configured for sensing part of the light being reflected on an object which is lighted by said light source; - a control unit coupled to said sensor and said electro-optical device, wherein said control unit generates said electric signal from the reflected light being sensed by said sensor.
A weighing chamber forming a superstructure of a weighing device, outlining a weighing section and protecting it against ambient conditions impact, in particular against air movement and air drafts, in a shape of a transparent cuboid that comprises side panels (1,2,3,4), a top panel, a fastening lock, vertical columns (6,7) in the rear part of the weighing chamber and a weighing chamber structure supported on columns (6, 7), where the said weighing chamber is locked using the fastening lock, located in the structure comprising the guides for the top and side panels, characterised in that the said lock blocks the top panel and provides access to a determined disassembling order of other chamber components wherein said top panel unlocks the back panel, and after removing the back panel it is possible to remove the left and right panel (2,4).
A vasopressin analogue for use in inhibiting the proliferation of cancer cells in the treatment of prostate cancer, wherein the vasopressin analogue is desmopressin, synthetic arginine vasopressin, lysine vasopressin, terlipressin, felypressin, or ornipressin.