mhurhangee/ep-ind-claims huggingface dataset:
A video decoding device for decoding video using inter prediction, in a scheme defining a coding unit, CU, as a unit of coding, a prediction unit, PU, as a unit of prediction for each CU, and inter-PU partition types, comprising: de-multiplexing means for de-multiplexing an input bitstream and extracting information on a minimum inter-PU size; entropy decoding means; and decoding control means for, with respect to each CU of CUs to be decoded, causing the entropy decoding means to entropy-decode an inter-PU partition type syntax indicating an inter-PU partition type of the CU when the prediction mode of the CU is inter prediction and the CU size of the CU is greater than the minimum inter-PU size, and not to entropy-decode the inter-PU partition type syntax of the CU and to set a predetermined inter-PU partition type when the prediction mode of the CU is inter prediction and the CU size of the CU is less than or equal to the minimum inter-PU size. de-multiplexing means for de-multiplexing an input bitstream and extracting information on a minimum inter-PU size; entropy decoding means; and decoding control means for, with respect to each CU of CUs to be decoded, causing the entropy decoding means to entropy-decode an inter-PU partition type syntax indicating an inter-PU partition type of the CU when the prediction mode of the CU is inter prediction and the CU size of the CU is greater than the minimum inter-PU size, and not to entropy-decode the inter-PU partition type syntax of the CU and to set a predetermined inter-PU partition type when the prediction mode of the CU is inter prediction and the CU size of the CU is less than or equal to the minimum inter-PU size.
A method for equalizing the capacities of blocks, which are computed at a modulator site and show the amount of information reliably transmitted to a receiver, to increase performance and decrease wasted power of a communication system, characterized in that the method comprises the steps of: • computing capacities of modulation symbols to be transmitted over a channel and bits forming these symbols in a transmitter, • computing a block capacity of each block by using the symbol capacities and the distribution of the symbols forming the block, • increasing the capacity of low capacity blocks to a predetermined targeted capacity by increasing the transmitted block power of these blocks, • decreasing the power of blocks having excess capacity in amount to equalize their capacity with the targeted capacity. • computing capacities of modulation symbols to be transmitted over a channel and bits forming these symbols in a transmitter, • computing a block capacity of each block by using the symbol capacities and the distribution of the symbols forming the block, • increasing the capacity of low capacity blocks to a predetermined targeted capacity by increasing the transmitted block power of these blocks, • decreasing the power of blocks having excess capacity in amount to equalize their capacity with the targeted capacity.
An electrode-electrical conductor system for a medical device comprising a) at least one electrical conductor comprising one or more electrically insulated wire(s) or cable(s), wherein the electrical insulation comprises two or more partial openings, which are arranged on one side of the wire(s) or cable(s), and b) two or more electrodes, which are mechanically and electrically connected to the wire(s) or cable(s) via the two or more partial openings arranged on one side of the wire(s) or cable(s) by welding, pressing, swaging, adhesives, brazing, soldering and/or dimples, and characterised in that the electrical conductor is embedded in a polymer substrate, wherein the polymer substrate is a biocompatible polymer substrate, which is selected from the group comprising polyurethane, thermoplastic polyurethane, silicone, polyimide, phenyltrimethoxysilane (PTMS), polymethylmethacrylate (PMMA), parylene, polyetheretherketone (PEEK), liquid-crystal polymer, kapton and mixtures thereof, and comprises one or more opening(s) arranged on the two or more partial openings on one side of the wire(s) or cable(s). a) at least one electrical conductor comprising one or more electrically insulated wire(s) or cable(s), wherein the electrical insulation comprises two or more partial openings, which are arranged on one side of the wire(s) or cable(s), and b) two or more electrodes, which are mechanically and electrically connected to the wire(s) or cable(s) via the two or more partial openings arranged on one side of the wire(s) or cable(s) by welding, pressing, swaging, adhesives, brazing, soldering and/or dimples, and
A method for operating a vehicle with - at least one main sensor unit, of which the measurement signal (MS_H) is characteristic of a main driver desire of a vehicle occupant with regard to an influencing of the driving behaviour of the vehicle, represented by a movement of a hand or foot of the vehicle occupant, - at least one secondary sensor unit, of which the measurement signal (MS_N) is characteristic of a secondary driver desire of the vehicle occupant with regard to the influencing of the driving behaviour of the vehicle, represented other than by the movement of the hand or the foot of the vehicle occupant, - at least one actuator, which influences the driving behaviour of the vehicle depending on a control signal, and in which - depending on the main driver desire represented by the measurement signal (MS_H) of the main sensor and depending on the secondary driver desire represented by the measurement signal (MS_N) of the secondary sensor, a resultant driver desire with regard to the influencing of the driving behaviour of the vehicle is determined, characterised in that, in the event of a neutral value of the main driver desire, the secondary driver desire is associated with the resultant driver desire, and otherwise the main driver desire is associated with the resultant driver desire, and - the control signal is generated depending on the resultant driver desire. - at least one main sensor unit, of which the measurement signal (MS_H) is characteristic of a main driver desire of a vehicle occupant with regard to an influencing of the driving behaviour of the vehicle, represented by a movement of a hand or foot of the vehicle occupant, - at least one secondary sensor unit, of which the measurement signal (MS_N) is characteristic of a secondary driver desire of the vehicle occupant with regard to the influencing of the driving behaviour of the vehicle, represented other than by the movement of the hand or the foot of the vehicle occupant, - at least one actuator, which influences the driving behaviour of the vehicle depending on a control signal, and in which - depending on the main driver desire represented by the measurement signal (MS_H) of the main sensor and depending on the secondary driver desire represented by the measurement signal (MS_N) of the secondary sensor, a resultant driver desire with regard to the influencing of the driving behaviour of the vehicle is determined, characterised in that, in the event of a neutral value of the main driver desire, the secondary driver desire is associated with the resultant driver desire, and otherwise the main driver desire is associated with the resultant driver desire, and - the control signal is generated depending on the resultant driver desire.
A controller having means to control an actuator that is driven by a brushless motor wherein the actuator is an electric oil pump, wherein, the controller is configured to limit the current flowing through the brushless motor according to a temperature of a magnet in the brushless motor and to estimate the temperature of a magnet in the brushless motor on the basis of a saturation rotation speed and a phase current value during saturation rotation of the brushless motor which are obtained by supplying power thereto while the electric oil pump is caused to run idle with oil drained out of an oil pipe by rotating the brushless motor in a direction reversal of a rotational direction thereof for driving the actuator, the actuator controller is adapted to limit the current flowing through the brushless motor while the brushless motor is driving the actuator, wherein the saturation rotation speed is the rotation speed of the brushless motor, while electric oil pump is running idle.
A flexible passive electronic component, in particular a sensor, comprising - a substrate, which comprises an insulating layer and optionally an inorganic layer with an upper side and a lower side, whereby the insulating layer at least partially covering the upper side of the optional inorganic layer, and - an electrical structure, the electrical structure at least partially covering the insulating layer, whereby the substrate has a thickness which is at most 50 μm, preferably at most 35 μm, particularly preferably at most 20 μm, and the flexible passive electronic component has a height which is at most 150 μm, preferably at most 70 μm, particularly preferably at most 40 μm, characterized in that the insulating layer is made of metal oxides and/or metal nitrides. - a substrate, which comprises an insulating layer and optionally an inorganic layer with an upper side and a lower side, whereby the insulating layer at least partially covering the upper side of the optional inorganic layer, and - an electrical structure, the electrical structure at least partially covering the insulating layer, whereby the substrate has a thickness which is at most 50 μm, preferably at most 35 μm, particularly preferably at most 20 μm, and the flexible passive electronic component has a height which is at most 150 μm, preferably at most 70 μm, particularly preferably at most 40 μm, characterized in that the insulating layer is made of metal oxides and/or metal nitrides.
A transceiver comprising: an echo cancellation apparatus, a transmit link (Tx), a receive link (Rx), and a hybrid circuit, wherein the transmit link and the receive link are coupled to a transmission line by using the hybrid circuit, and the echo cancellation apparatus comprises: a first signal converter, configured to generate an echo reference signal based on a digital transmit signal on the transmit link; a slicer configured to obtain a first cancellation reference signal whose amplitude is greater than a first threshold from the echo reference signal; a first subtractor, configured to subtract the first cancellation reference signal from the echo reference signal to obtain a second cancellation reference signal; digital-to-analog converter, configured to perform digital-to-analog conversion on the first cancellation reference signal to generate a first echo cancellation signal; a second subtractor, configured to subtract the first echo cancellation signal from an analog receive signal received by the receive link; and a third subtractor, configured to subtract the second cancellation reference signal from a digital receive signal on the receive link. a first signal converter, configured to generate an echo reference signal based on a digital transmit signal on the transmit link; a slicer configured to obtain a first cancellation reference signal whose amplitude is greater than a first threshold from the echo reference signal; a first subtractor, configured to subtract the first cancellation reference signal from the echo reference signal to obtain a second cancellation reference signal; digital-to-analog converter, configured to perform digital-to-analog conversion on the first cancellation reference signal to generate a first echo cancellation signal; a second subtractor, configured to subtract the first echo cancellation signal from an analog receive signal received by the receive link; and a third subtractor, configured to subtract the second cancellation reference signal from a digital receive signal on the receive link.
An impeller for a centrifugal compressor, the impeller comprising an impeller hub and an impeller shroud forming an impeller eye, said impeller eye having a radially outer surface and a radially inner surface, characterised in that at least one hole is provided, extending from said outer surface to said inner surface, said hole being arranged for conveying a cooling medium flow through said impeller eye.
An unmanned vehicle, comprising: a navigation system configured to navigate said unmanned vehicle relative to a beam of energy emitted from a beam source; a power receiver configured to receive energy from the beam; an energy storage system configured to store received energy for use in selectively powering said unmanned vehicle; and a position control system configured to enable fine positioning of said unmanned vehicle, wherein said position control system is further configured to measure a power output of said power receiver and a time associated with each power output measurement to calculate the velocity at which the beam source is moving, wherein the unmanned vehicle is configured such that a proximity activation system of the beam source activates the beam source when the unmanned vehicle is within a predefined proximity to the beam source, and wherein the beam source is configured to focus the beam to create a region of intensity at a fixed, finite distance from the beam source, wherein the beam source includes multiple individual beam sources that are positioned and oriented to enable their individual beams to intersect to create the region of intensity at the fixed, finite distance from the beam source, and wherein the unmanned vehicle is configured to align the power receiver with the region of intensity of the beam source. a navigation system configured to navigate said unmanned vehicle relative to a beam of energy emitted from a beam source; a power receiver configured to receive energy from the beam; an energy storage system configured to store received energy for use in selectively powering said unmanned vehicle; and a position control system configured to enable fine positioning of said unmanned vehicle, wherein said position control system is further configured to measure a power output of said power receiver and a time associated with each power output measurement to calculate the velocity at which the beam source is moving, wherein the unmanned vehicle is configured such that a proximity activation system of the beam source activates the beam source when the unmanned vehicle is within a predefined proximity to the beam source, and wherein the beam source is configured to focus the beam to create a region of intensity at a fixed, finite distance from the beam source, wherein the beam source includes multiple individual beam sources that are positioned and oriented to enable their individual beams to intersect to create the region of intensity at the fixed, finite distance from the beam source, and wherein the unmanned vehicle is configured to align the power receiver with the region of intensity of the beam source.
A method for processing contents in a portable terminal, the method comprising: displaying the contents on a contents screen; displaying a tray to display selected information in the contents screen when the information is selected from the contents screen; and displaying information and a recommendation application related with the information on the tray when the selected information is moved to the tray (207-YES); wherein the tray is an area for collecting and keeping contents selected by a user; and wherein the selected information comprises information selected through multiple selections. displaying the contents on a contents screen; displaying a tray to display selected information in the contents screen when the information is selected from the contents screen; and displaying information and a recommendation application related with the information on the tray when the selected information is moved to the tray (207-YES); wherein the tray is an area for collecting and keeping contents selected by a user; and wherein the selected information comprises information selected through multiple selections.
A coolant composition comprising a viscosity improving agent and a base, wherein the viscosity improving agent includes at least one nonionic surfactant and at least one anionic surfactant represented by the following Formula, R 1 O-(R 2 O) m -SO 3 M... where R 1 represents a linear or branched alkyl group having 16 to 24 carbon atoms or a linear or branched alkenyl group having 16 to 24 carbon atoms, R 2 represents an ethylene group or a propylene group, m represents an average addition molar number of R 2 O which is a number of 0.5 to 10, and M represents a cation or a hydrogen atom, the base is formed of water and/or at least one alcohol selected from the group consisting of a monohydric alcohol, a dihydric alcohol, a trihydric alcohol, and a glycol monoalkyl ether, and a shear viscosity of the coolant composition is 8.5 mPa·s or higher at 25°C and is 2.0 mPa·s or lower at 100°C.
A mobile terminal comprising; a first user identification module configured to be assigned with a first identification number and receive a service from a first service network; a second user identification module configured to be assigned with a second identification number and receive a service from a second service network; and a controller configured to: receive a service request related to the first network using the first identification number from an external mobile terminal, determine that the first user identification module is in an inactive state and the second user identification module is in an active state, request the second service network to perform a predetermined service using the second identification number in response to receiving the service request and the determination that the first user identification module is in the inactive state and the second user identification module is in the active state, characterized by: wherein the controller is further configured to: transmit information to the external mobile terminal, wherein the information indicates that the predetermined service is requested to the first service network using the first identification number although the predetermined service is requested to the second service network using the second identification number. receive a service request related to the first network using the first identification number from an external mobile terminal, determine that the first user identification module is in an inactive state and the second user identification module is in an active state, request the second service network to perform a predetermined service using the second identification number in response to receiving the service request and the determination that the first user identification module is in the inactive state and the second user identification module is in the active state, characterized by: wherein the controller is further configured to: transmit information to the external mobile terminal, wherein the information indicates that the predetermined service is requested to the first service network using the first identification number although the predetermined service is requested to the second service network using the second identification number.
A measurement device comprising: a first acquisition unit configured to acquire, based on a measurement result of a distance to an object by receiving a reflected light of a scanning light reflected by the object, a distance from a vehicle to an edge point of a stationary object and an angle formed by a direction of viewing the edge point from the vehicle and a traveling direction of the vehicle, for a first area and a second area, the first area being an edge point at a first time, the second area being another edge point different from the first area at a second time; a second acquisition unit configured to acquire attribute information including a width of the stationary object; and a speed calculation unit configured to calculate a speed of the vehicle from the first time to the second time based on acquisition results by the first acquisition unit and the second acquisition unit. a first acquisition unit configured to acquire, based on a measurement result of a distance to an object by receiving a reflected light of a scanning light reflected by the object, a distance from a vehicle to an edge point of a stationary object and an angle formed by a direction of viewing the edge point from the vehicle and a traveling direction of the vehicle, for a first area and a second area, the first area being an edge point at a first time, the second area being another edge point different from the first area at a second time; a second acquisition unit configured to acquire attribute information including a width of the stationary object; and a speed calculation unit configured to calculate a speed of the vehicle from the first time to the second time based on acquisition results by the first acquisition unit and the second acquisition unit.
A method for manufacturing an object, the surface of which is reproduced from a surface of at least one existing object or part thereof, wherein negative molds are at least sectionally produced of the existing object, and wherein the negative molds are subsequently filled with a curable mass and the masses in the negative molds are cured, whereupon the object is manufactured of the cured masses, characterized in that miniature moldings of the individual cured masses are produced beforehand by means of the cured masses and assembled into an overall model, based on which the object is then manufactured.
A central nervous system labelling composition for intranasal administration, characterized by suitability for labelling the central nervous system from the olfactory epithelium by way of the olfactory bulb and by means of intranasal administration; and characterized by containing at least one compound expressed by the general formula shown below as effective component: in which general formula R 1 represents an alkyl group, each of R 3 through R 6 independently represents a hydrogen atom, an alkyl group, an aryl group, an alkoxy group, a carboxylic acid group, a sulfonic acid group, a heterocyclic group, an amino group or a halogen atom, of which R 5 and R 6 may be bonded to each other to form a ring, X 1 - represents an anionic group and A represents a general formula or a general formula shown below, and in which general formula R 2 represents an alkyl group and each of R 7 through R 10 independently represents a hydrogen atom, an alkyl group, an aryl group, an alkoxy group, a carboxylic acid group, a sulfonic acid group, a heterocyclic group, an amino group or a halogen atom, of which R 7 and R 8 may be bonded to each other to form a ring and in which general formula Y represents an alkyl group; '*' represents the binding site, wherein the at least one effective component is a compound expressed by the general formula other than compound shown below.
An ultrasound imaging apparatus comprising: a data acquisition unit configured to acquire ultrasound data for an object including a cervix; a controller configured to measure at least one guide line corresponding to the cervix based on the acquired ultrasound data, and determine a shape of the cervix based on the at least one guide line; and a display configured to display an ultrasound image obtained using the ultrasound data and measurement information, including information about the shape of the cervix, obtained from the at least one guide line. a data acquisition unit configured to acquire ultrasound data for an object including a cervix; a controller configured to measure at least one guide line corresponding to the cervix based on the acquired ultrasound data, and determine a shape of the cervix based on the at least one guide line; and a display configured to display an ultrasound image obtained using the ultrasound data and measurement information, including information about the shape of the cervix, obtained from the at least one guide line.