mhurhangee/ep-ind-claims huggingface dataset:
A steering force control system, comprising: a steering means for changing the direction of pair of left and right wheels in response to control by a driver of a vehicle; a steering torque detection means for detecting a steering torque when the steering means is controlled; a steering assist means for adding a steering assisting force to the control of the steering means; a wheel speed detection means for detecting wheel speeds of the pair of left and right wheels; a limited slip differential gear for applying an inhibiting torque which is a differential limiting force between the pair of left and right wheels, and a steering assist control means for controlling the steering assisting force by the steering assist means; wherein the steering assist control means includes an additional torque calculation means for calculating an additional torque which is sufficient to suppress a steering reaction force applied in the steering means of a vehicle body which occurs when the limited slip differential gear is actuated, through proportional control and integration control of a steering torque T s detected by the steering torque sensor and a basic assisting torque T e which is determined by the steering assist control means, and the steering assist control means controls the steering assist means so that an additional torque calculated by the additional torque calculation means is used in determining the steering assisting force. a steering means for changing the direction of pair of left and right wheels in response to control by a driver of a vehicle; a steering torque detection means for detecting a steering torque when the steering means is controlled; a steering assist means for adding a steering assisting force to the control of the steering means; a wheel speed detection means for detecting wheel speeds of the pair of left and right wheels; a limited slip differential gear for applying an inhibiting torque which is a differential limiting force between the pair of left and right wheels, and a steering assist control means for controlling the steering assisting force by the steering assist means; wherein the steering assist control means includes an additional torque calculation means for calculating an additional torque which is sufficient to suppress a steering reaction force applied in the steering means of a vehicle body which occurs when the limited slip differential gear is actuated, through proportional control and integration control of a steering torque T s detected by the steering torque sensor and a basic assisting torque T e which is determined by the steering assist control means, and the steering assist control means controls the steering assist means so that an additional torque calculated by the additional torque calculation means is used in determining the steering assisting force.
A nanocomposite composition comprising a mixture containing at least one polypropylene, at least one polyamide, at least one maleic anhydride-grafted polypropylene and sepiolite nanoparticles.
A method of production of a solid electrolyte having an Argyrodite-type crystal structure, comprising steps of: mixing raw materials such that lithium (Li), phosphorus, sulfur, oxygen, and halogen satisfy the following formulas to to obtain a mixture; and heating the mixture: 4.8 ≦ Li / P ≦ 5.3 3.8 ≦ S / P ≦ 4.4 0 < O / P ≦ 0.8 1.0 < X / P ≦ 2.0 wherein the formula represents a molar ratio of Li to P, the formula represents a molar ratio of S to P, the formula represents a molar ratio of O to P, and the formula represents a molar ratio of halogen to P. mixing raw materials such that lithium (Li), phosphorus, sulfur, oxygen, and halogen satisfy the following formulas to to obtain a mixture; and heating the mixture: 4.8 ≦ Li / P ≦ 5.3 3.8 ≦ S / P ≦ 4.4 0 < O / P ≦ 0.8 1.0 < X / P ≦ 2.0 wherein the formula represents a molar ratio of Li to P, the formula represents a molar ratio of S to P, the formula represents a molar ratio of O to P, and the formula represents a molar ratio of halogen to P.
A method of operating a radar sensor system wherein a signal (RF_signal) chirp-modulated with a sequence of chirp ramps (Chirp_1, Chirp_2,.., Chirp_n) is received and frequency down-converted to an intermediate frequency signal and the intermediate frequency signal high-pass filtered (221, 222) to produce therefrom a high-pass filtered signal, wherein the method comprises applying, at each chirp in the chirp modulation of the received signal (RF_signal), to the intermediate frequency signal high-pass filtering starting with first high-pass filtering with a first corner frequency subsequently replaced by second high-pass filtering with a second corner frequency, the first corner frequency being higher than the second corner frequency.
A patient-need prediction system comprising: a sensor unit configured to detect electromagnetic radiation from a field of view and provide a sensor signal indicative of a characteristic of a patient in the field of view; a bed sensor unit configured to provide a bed-sensor signal indicative of a status of equipment included in a patient support apparatus supporting the patient, the bed sensor unit comprising at least one of frame position sensors and siderail position sensors; and a controller coupled to the sensor unit and coupled to the bed sensor unit, the controller being configured to: process the sensor signal from the sensor unit and the bed-sensor signal from the bed sensor unit to produce a value related to a stress condition experienced by the patient located in the field of view as detected by the sensor unit; determine whether the value has exceeded a predetermined limit; and perform a predetermined action if the value has exceeded the predetermined limit. a sensor unit configured to detect electromagnetic radiation from a field of view and provide a sensor signal indicative of a characteristic of a patient in the field of view; a bed sensor unit configured to provide a bed-sensor signal indicative of a status of equipment included in a patient support apparatus supporting the patient, the bed sensor unit comprising at least one of frame position sensors and siderail position sensors; and a controller coupled to the sensor unit and coupled to the bed sensor unit, the controller being configured to: process the sensor signal from the sensor unit and the bed-sensor signal from the bed sensor unit to produce a value related to a stress condition experienced by the patient located in the field of view as detected by the sensor unit; determine whether the value has exceeded a predetermined limit; and perform a predetermined action if the value has exceeded the predetermined limit. process the sensor signal from the sensor unit and the bed-sensor signal from the bed sensor unit to produce a value related to a stress condition experienced by the patient located in the field of view as detected by the sensor unit; determine whether the value has exceeded a predetermined limit; and perform a predetermined action if the value has exceeded the predetermined limit.
An alkaline electrochemical cell, comprising: a) a container; and b) an electrode assembly disposed within the container and comprising a cathode, an anode, a separator located between the cathode and the anode, an alkaline electrolyte solution, and a long-chain surfactant in an amount sufficient to delay anode shutdown; wherein the long-chain surfactant has the structure R 1 -(R 2 Y) n -R 3, wherein R 1 is a hydrophobic group, R 2 is selected from the group consisting of ethylene and propylene, Y is selected from the group consisting of O and S, R 3 is a hydrophilic group, and n ≥ 12. a) a container; and b) an electrode assembly disposed within the container and comprising a cathode, an anode, a separator located between the cathode and the anode, an alkaline electrolyte solution, and a long-chain surfactant in an amount sufficient to delay anode shutdown; wherein the long-chain surfactant has the structure R 1 -(R 2 Y) n -R 3, wherein R 1 is a hydrophobic group, R 2 is selected from the group consisting of ethylene and propylene, Y is selected from the group consisting of O and S, R 3 is a hydrophilic group, and n ≥ 12.
An integrated circuit for an electronic pen, the integrated circuit comprising: a first terminal (C1P) that is configured to be connected to a first end of a first capacitor; a second terminal (C1M) that is configured to be connected to a second end of the first capacitor; a plurality of second capacitors (Cb) connected in parallel between the first and second terminals (C1P); a plurality of switches respectively disposed in series with the second capacitors (Cb); a control circuit which, in operation, is adapted to control an on state and an off state of each of the switches; and a memory comprising a capacitor bit area storing values indicating whether each of the switches is to be placed in an on or off state; wherein the integrated circuit is characterized in that each of the switches is formed of a fuse element in a connected state, and in that the control circuit is configured to generate a control signal for cutting the fuse elements to disconnect associated second capacitors (Cb) from the integrated circuit in accordance with the values stored in the capacitor bit area. a first terminal (C1P) that is configured to be connected to a first end of a first capacitor; a second terminal (C1M) that is configured to be connected to a second end of the first capacitor; a plurality of second capacitors (Cb) connected in parallel between the first and second terminals (C1P); a plurality of switches respectively disposed in series with the second capacitors (Cb); a control circuit which, in operation, is adapted to control an on state and an off state of each of the switches; and a memory comprising a capacitor bit area storing values indicating whether each of the switches is to be placed in an on or off state; wherein the integrated circuit is characterized in that each of the switches is formed of a fuse element in a connected state, and in that the control circuit is configured to generate a control signal for cutting the fuse elements to disconnect associated second capacitors (Cb) from the integrated circuit in accordance with the values stored in the capacitor bit area.
A dehumidification system for use with an aqueous/liquid cooling system used to cool a heating load and including a circulating supply of aqueous/liquid coolant in a recirculating line (5a-5c), said dehumidification system including: a desiccant material for removing moisture from a supply/process air stream; a direct expansion refrigeration means for cooling the aqueous/liquid coolant in the aqueous/liquid cooling system, said direct expansion refrigeration means including at least one condenser for supplying heat through the condenser to a regeneration air stream (7a, 7b) before the regeneration air stream enters the desiccant material and an evaporator heat exchanger for cooling the aqueous liquid coolant in the aqueous/liquid cooling system, the regeneration air stream flowing directly through the condenser; and another heat exchanger directly fluidly connected to said evaporator heat exchanger of the direct expansion refrigeration means, said another heat exchanger being located in the supply/process air stream and arranged to receive the aqueous/liquid coolant from the aqueous/liquid cooling system and cool the supply process air stream. a desiccant material for removing moisture from a supply/process air stream; a direct expansion refrigeration means for cooling the aqueous/liquid coolant in the aqueous/liquid cooling system, said direct expansion refrigeration means including at least one condenser for supplying heat through the condenser to a regeneration air stream (7a, 7b) before the regeneration air stream enters the desiccant material and an evaporator heat exchanger for cooling the aqueous liquid coolant in the aqueous/liquid cooling system, the regeneration air stream flowing directly through the condenser; and another heat exchanger directly fluidly connected to said evaporator heat exchanger of the direct expansion refrigeration means, said another heat exchanger being located in the supply/process air stream and arranged to receive the aqueous/liquid coolant from the aqueous/liquid cooling system and cool the supply process air stream.
An image processing method comprising: acquiring a feature defining a distribution of similar forms in a first image, wherein the acquiring comprises: determining a main direction of edges detected from a background region of the first image; and determining the feature by comparing, based on the main direction, a plurality of blocks dividing the first image, wherein the determining of the feature comprises: dividing the first image into the plurality of blocks; sampling a first block and other blocks positioned in the main direction relative to the first block among the plurality of blocks; comparing the first block to the other blocks, and detecting a second block having a similar form to the first block from among the other blocks; accumulating a frequency value of a relative position between the first block and the second block; and generating the feature based on the frequency value; and restoring a hole included in a second image based on the feature. acquiring a feature defining a distribution of similar forms in a first image, wherein the acquiring comprises: determining a main direction of edges detected from a background region of the first image; and determining the feature by comparing, based on the main direction, a plurality of blocks dividing the first image, wherein the determining of the feature comprises: dividing the first image into the plurality of blocks; sampling a first block and other blocks positioned in the main direction relative to the first block among the plurality of blocks; comparing the first block to the other blocks, and detecting a second block having a similar form to the first block from among the other blocks; accumulating a frequency value of a relative position between the first block and the second block; and generating the feature based on the frequency value; and determining a main direction of edges detected from a background region of the first image; and determining the feature by comparing, based on the main direction, a plurality of blocks dividing the first image, wherein the determining of the feature comprises: dividing the first image into the plurality of blocks; sampling a first block and other blocks positioned in the main direction relative to the first block among the plurality of blocks; comparing the first block to the other blocks, and detecting a second block having a similar form to the first block from among the other blocks; accumulating a frequency value of a relative position between the first block and the second block; and generating the feature based on the frequency value; and dividing the first image into the plurality of blocks; sampling a first block and other blocks positioned in the main direction relative to the first block among the plurality of blocks; comparing the first block to the other blocks, and detecting a second block having a similar form to the first block from among the other blocks; accumulating a frequency value of a relative position between the first block and the second block; and generating the feature based on the frequency value; and restoring a hole included in a second image based on the feature.
An electronic device comprising: a registration interface configured to register device data corresponding to a plurality of remote controllable devices; a position locator configured to determine position data corresponding to a position of the electronic device; an orientation interface configured to receive, from a headset worn by a user, orientation data corresponding to an orientation of the headset as detected by a sensor of the headset and indicative of which one of the plurality of remote controllable devices the user is facing; and a controller configured to select a remote controlled device to be controlled from among the plurality of remote controllable devices (20a-c), the selection being based on the device data, the position data, and the orientation data. a registration interface configured to register device data corresponding to a plurality of remote controllable devices; a position locator configured to determine position data corresponding to a position of the electronic device; an orientation interface configured to receive, from a headset worn by a user, orientation data corresponding to an orientation of the headset as detected by a sensor of the headset and indicative of which one of the plurality of remote controllable devices the user is facing; and a controller configured to select a remote controlled device to be controlled from among the plurality of remote controllable devices (20a-c), the selection being based on the device data, the position data, and the orientation data.
A corona igniter for providing a corona discharge, comprising: a central electrode formed of an electrically conductive material for receiving a high radio frequency voltage and emitting a radio frequency electric field to ionize a fuel-air mixture and provide a corona discharge, said central electrode extending from an electrode terminal end receiving the high radio frequency voltage to an electrode firing end emitting the radio frequency electric field, an insulator formed of an electrically insulating material disposed around said central electrode and extending longitudinally from an insulator upper end past said electrode terminal end to an insulator nose end, said insulator being spaced from said central electrode at said insulator nose end to provide an electrode gap therebetween, a shell formed of an electrically conductive metal material disposed around said insulator and extending longitudinally from a shell upper end to a shell lower end, said shell being spaced from said insulator along at least one of said shell ends (44,92) to provide a shell gap therebetween, characterised by a filler material extending continuously across at least one of said gaps (28, 30) for preventing corona discharge in said gap (28,30). a central electrode formed of an electrically conductive material for receiving a high radio frequency voltage and emitting a radio frequency electric field to ionize a fuel-air mixture and provide a corona discharge, said central electrode extending from an electrode terminal end receiving the high radio frequency voltage to an electrode firing end emitting the radio frequency electric field, an insulator formed of an electrically insulating material disposed around said central electrode and extending longitudinally from an insulator upper end past said electrode terminal end to an insulator nose end, said insulator being spaced from said central electrode at said insulator nose end to provide an electrode gap therebetween, a shell formed of an electrically conductive metal material disposed around said insulator and extending longitudinally from a shell upper end to a shell lower end, said shell being spaced from said insulator along at least one of said shell ends (44,92) to provide a shell gap therebetween, characterised by a filler material extending continuously across at least one of said gaps (28, 30) for preventing corona discharge in said gap (28,30).
A method for controlling a display apparatus, the method comprising: sensing one or more touch points touched by a digital pen on a display screen; when the number of touch points touched by the digital pen is one, operating the display apparatus in a coordinate calculating mode, calculating a coordinate value of the touch point touched by the digital pen and controlling the display apparatus according to the calculated coordinate value; when a number of touch points simultaneously touched by the digital pen is a plural number, operating the display apparatus in a touch gesture mode and displaying a touch gesture region for receiving the touch gesture using the digital pen, wherein the touch gesture region is a portion of the display screen displayed to be different from another region on the display screen; and when the touch gesture using the digital pen is sensed in the touch gesture region during the touch gesture mode, controlling the display apparatus according to the sensed touch gesture; wherein the touch gesture mode and the coordinate calculating mode sense the one or more touch points touched by the digital pen by using different touch sensing methods. sensing one or more touch points touched by a digital pen on a display screen; when the number of touch points touched by the digital pen is one, operating the display apparatus in a coordinate calculating mode, calculating a coordinate value of the touch point touched by the digital pen and controlling the display apparatus according to the calculated coordinate value; when a number of touch points simultaneously touched by the digital pen is a plural number, operating the display apparatus in a touch gesture mode and displaying a touch gesture region for receiving the touch gesture using the digital pen, wherein the touch gesture region is a portion of the display screen displayed to be different from another region on the display screen; and when the touch gesture using the digital pen is sensed in the touch gesture region during the touch gesture mode, controlling the display apparatus according to the sensed touch gesture; wherein the touch gesture mode and the coordinate calculating mode sense the one or more touch points touched by the digital pen by using different touch sensing methods.