mhurhangee/ep-ind-claims huggingface dataset:
A transmission power allocation method for a transmitter, the transmitter comprising a number of at least two transmitter paths for spatial multiplexing of two or more signals to be transmitted using respective allocated transmission powers to respective ones of two or more users, wherein each transmitter path comprises at least one component causing non-linear distortion and a transmit antenna, the method comprising: determining a respective received distortion power for each of the two or more users as a function of respective hypothesized transmission powers for the two or more users and based on a model of a spatial behavior of the non-linear distortion; and allocating respective transmission powers for the two or more users based on the determined respective received distortion powers, wherein allocating respective transmission powers comprises: determining, for each of the two or more users, a ratio between an estimated received desired signal power and an estimated received disturbance power, wherein the estimated received disturbance power comprises the respective received distortion power; mapping, for each of the two or more users, the ratio to a corresponding achievable data rate; and allocating respective transmission powers based on the ratios and the achievable data rates. determining a respective received distortion power for each of the two or more users as a function of respective hypothesized transmission powers for the two or more users and based on a model of a spatial behavior of the non-linear distortion; and allocating respective transmission powers for the two or more users based on the determined respective received distortion powers, wherein allocating respective transmission powers comprises: determining, for each of the two or more users, a ratio between an estimated received desired signal power and an estimated received disturbance power, wherein the estimated received disturbance power comprises the respective received distortion power; mapping, for each of the two or more users, the ratio to a corresponding achievable data rate; and allocating respective transmission powers based on the ratios and the achievable data rates. determining, for each of the two or more users, a ratio between an estimated received desired signal power and an estimated received disturbance power, wherein the estimated received disturbance power comprises the respective received distortion power; mapping, for each of the two or more users, the ratio to a corresponding achievable data rate; and allocating respective transmission powers based on the ratios and the achievable data rates.
A super-resolution device for converting an image at a first low resolution into an image at a second high resolution, comprising a first network (R 1) of artificial neurons configured to determine, during a learning phase defined according to a predetermined learning rule, a vector (Φ), which evolves during the learning phase, of features representing images at the second high resolution and a second network (R 2) of artificial neurons configured to convert an image at the first low resolution into an image generated at the second high resolution, the second network (R 2) being trained during a learning phase, during which it receives at least one reference image (I BR REF) at the first low resolution, so as to minimise an error between the respective projections, in a space defined by said vector (Φ) of features, of the reference image (I HR REF) at the second high resolution and of the image (I HR GEN) generated by the second network at the second high resolution from the reference image (I BR REF) at the first low resolution, with the learning phase of the first network (R 1) of artificial neurons and the learning phase of the second network (R 2) of artificial neurons being executed at the same time, said vector (Φ) of features being updated during the learning phase of the first network (R 1) of artificial neurons in order to be used during the learning phase of the second network (R 2) of artificial neurons, said vector (Φ) of features being the vector of the synaptic weights of the first layer of the first network (R 1) of artificial neurons.
A lane departure prevention system for a host vehicle, comprising: a detector configured to detect a driving lane, a judgment device configured to determine whether there is a departure tendency of the host vehicle from the driving lane detected by said detector, a yaw moment computing device configured to compute a target yaw moment (Ms) in a departure-avoidance direction when said judgment device determines that there is a lane departure tendency, and a controller configured to apply a different braking force to at least one left wheel and at least one right wheel of the host vehicle based on the target yaw moment (Ms) computed by said yaw moment computing device, characterized in that the yaw moment computing device is further configured to correct said target yaw moment (Ms) by decreasing the target yaw moment when an estimated lateral acceleration (G H) acting on the host vehicle upon an active lane departure prevention control is lower than a threshold, wherein the threshold is based on an estimated longitudinal deceleration (G T) acting on the host vehicle upon an active lane departure prevention control. a detector configured to detect a driving lane, a judgment device configured to determine whether there is a departure tendency of the host vehicle from the driving lane detected by said detector, a yaw moment computing device configured to compute a target yaw moment (Ms) in a departure-avoidance direction when said judgment device determines that there is a lane departure tendency, and a controller configured to apply a different braking force to at least one left wheel and at least one right wheel of the host vehicle based on the target yaw moment (Ms) computed by said yaw moment computing device, characterized in that the yaw moment computing device is further configured to correct said target yaw moment (Ms) by decreasing the target yaw moment when an estimated lateral acceleration (G H) acting on the host vehicle upon an active lane departure prevention control is lower than a threshold, wherein the threshold is based on an estimated longitudinal deceleration (G T) acting on the host vehicle upon an active lane departure prevention control.
Pneumatic vehicle tyre having a profiled tread with a tread depth defined in the case of a new tyre and having profile blocks or profile ribs with in each case at least one incision (2, 2', 2", 2′′′, 2ʺʺ) on the outer surfaces of the tread periphery; which in top view extends at an angle of up to 50° to the axial direction, in at least one portion (2a, 2b, 2'a, 2'b, 2"a, 2"b, 2′′′a, 2′′′b, 2ʺʺa, 2ʺʺb) has a depth (t) of at least 60% of the profile depth and is delimited by two incision walls (3a, 3b, 3'a, 3'b, 3"a, 3"b, 3′′′a, 3′′′b, 3ʺʺa, 3ʺʺb), wherein in this portion (2a, 2b, 2'a, 2'b, 2"a, 2"b, 2′′′a, 2′′′b, 2ʺʺa, 2ʺʺb) the one incision wall (3a, 3'a, 3"a, 3′′′a, 3ʺʺa, or 3b, 3'b, 3"b, 3′′′b, 3""b) extends in the radial direction and the other incision wall (3a, 3'a, 3"a, 3′′′a, 3""a or 3b, 3'b, 3"b, 3′′′b, 3""b) extends straight and at a constant acute angle (a) of 1° to 6° to the radial direction in such a way that the width of the incision (2, 2', 2", 2′′′, 2ʺʺ) in this portion (2a, 2b, 2'a, 2'b, 2"a, 2"b, 2′′′a, 2′′′b, 2ʺʺa, 2ʺʺb) continuously decreases in the radial direction between the outer surface and the incision base (3′′′c, 3ʺʺc), characterized in that the incision (2, 2', 2", 2′′′, 2"") has an in particular constant width (b 1) of 0.40 mm to 1.50 mm on the respective outer surface of the profile block or the profile rib, wherein the incision (2, 2', 2", 2′′′, 2"") in its direction of extent has a plurality of incision portions (2a, 2b, 2'a, 2'b, 2"a, 2"b, 2′′′a, 2′′′b, 2""a, 2""b), in which it is delimited by the two incision walls (3a, 3'a, 3"a, 3′′′a, 3""a or 3b, 3'b, 3"b, 3′′′b, 3""b) in such a manner that within each incision portion (2a, 2b, 2'a, 2'b, 2"a, 2"b, 2′′′a, 2′′′b, 2""a, 2""b) at least in portions the one extends in the radial direction, and the other extends at the acute angle (α) to the radial direction, and wherein in the direction of extent of the incision (2, 2', 2", 2′′′, 2ʺʺ) in successive incision portions (2a, 2b, 2'a, 2'b, 2"a, 2"b, 2′′′a, 2′′′b, 2""a, 2""b) the inclination of the incision walls (3a, 3'a, 3"a, 3′′′a, 3""a or 3b, 3'b, 3"b, 3′′′b, 3""b) alternates to the radial direction.
Method for overburden thickness measurement, in particular in the case of gas and oil pipelines laid underground, characterised in that the device to be covered is measured and its coordinates are recorded with reference to a specified coordinate system, that after the overburden has been applied the terrain profile over the device is measured and a terrain model is determined therefrom and recorded in the specified coordinate system, and that the thickness of the overburden is determined from the coordinates of the device and from the terrain model.
An RF system able to generate a voltage for accelerating charged particles in a synchrocyclotron, the RF system including a resonant cavity comprising a conducting enclosure within which are placed: - a conducting pillar of which a first end is linked to an accelerating electrode able to accelerate the charged particles, - a rotary variable capacitor coupled between a second end opposite from the first end of the pillar and the conducting enclosure, the said capacitor comprising fixed electrodes and a rotor comprising mobile electrodes, the fixed electrodes and the mobile electrodes forming a variable capacitance able to vary a resonant frequency of the resonant cavity in a cyclic manner over time, an exterior layer of the rotor having a conductivity of greater than 20.000.000 S/m at 300 K, characterized in that at least one part of an exterior surface of the rotor facing an interior surface of the conducting enclosure possesses a normal total emissivity of greater than or equal to 0.5 and less than 1, at 300 K. - a conducting pillar of which a first end is linked to an accelerating electrode able to accelerate the charged particles, - a rotary variable capacitor coupled between a second end opposite from the first end of the pillar and the conducting enclosure, the said capacitor comprising fixed electrodes and a rotor comprising mobile electrodes, the fixed electrodes and the mobile electrodes forming a variable capacitance able to vary a resonant frequency of the resonant cavity in a cyclic manner over time, an exterior layer of the rotor having a conductivity of greater than 20.000.000 S/m at 300 K, characterized in that at least one part of an exterior surface of the rotor facing an interior surface of the conducting enclosure possesses a normal total emissivity of greater than or equal to 0.5 and less than 1, at 300 K.
A storage and mixing system for pasty two-component polymethyl methacrylate bone cements, said storage and mixing system comprising a tubular cartridge with a cylindrical interior, a cartridge head that closes one end of the tubular cartridge, a partition wall axially disposed in the cylindrical interior of the cartridge, wherein said partition wall is connected to the circumferential surface of the cylindrical interior of the cartridge and wherein the partition wall divides the cylindrical interior of the cartridge delimited by the cartridge head into two spatially separate cavities (3, 4), wherein the first cavity includes a first pasty cement component and the separate second cavity includes a second pasty cement component, two delivery plungers (5, 6) disposed movably in the axial direction in the two cavities (3, 4) of the cartridge, wherein said delivery plungers (5, 6) close the two cavities (3, 4) on the side of the cavities (3, 4) opposite the cartridge head, wherein the delivery plungers (5, 6) on the back side opposite the cartridge head are connected to one another via a sleeve-shaped connecting means, wherein at least two cutting edges are disposed on the front side of the sleeve-shaped connecting means facing the cartridge head, such that the at least two cutting edges cut off the partition wall from the cylindrical inner wall of the cartridge as at least one cut-off strip when the delivery plungers (5, 6) are advanced towards the cartridge head in the cavities (3, 4) with the connecting means, and wherein the sleeve-shaped connecting means comprises a deflecting surface which is inclined to the axis of the connecting means which, when the connecting means is advanced, presses the at least one cut-off strip of the partition wall towards the inner wall of the cartridge, wherein the inclined deflecting surface is in certain areas enclosed by the sleeve wall of the sleeve-shaped connecting means, such that the at least one cut-off strip of the partition wall running through the connecting means is curved by the sleeve wall of the connecting means which encloses the inclined deflecting surface about the longitudinal axis of the at least one cut-off strip.
An apparatus for damping vibrations within a physical object, said apparatus comprising: a flexible enclosure substantially and loosely filled with a granulated damping material in particle form, said flexible enclosure being made from a pair of sheets commonly made from a fluid impermeable material and disposed in overlaying relation and secured to one another, the enclosure configured to be entirely wrapped about the physical object, the flexible enclosure having a pair of opposing outer edges (731, 735) disposed about a center seam that defines sides (708, 712) of the enclosure wherein the opposing outer edges (731, 735) are releasably secured to one another to retain said flexible enclosure onto said physical object when wrapped thereabout, and in which the flexible enclosure includes at least one interior cavity (717, 719) defined in each side (708, 712), each said at least one interior cavity (717, 719) being bounded by the pair of sheets, one of the outer edges (731, 735) and the center seam, wherein at least one interior cavity (717, 719) is substantially filled with the granulated damping material.
A method, comprising: performing sector level training prior to any beam refinement processing, the sector level training comprising selecting (1406, 1408) predetermined directions for transmitting one or more forward direction beamforming training frames, wherein each of the one or more forward direction beamforming training frame comprises a forward beam/sector direction identifier; transmitting at least one of the one or more forward direction beamforming training frames in each of the selected predetermined directions; receiving at least one reverse direction beamforming training frame, which includes one of the forward beam/sector direction identifiers, from one of the predetermined directions; and transmitting (1414, 1430) at least one response frame including a reverse beam/sector direction identifier that is received in the at least one reverse direction beamforming training frame. selecting (1406, 1408) predetermined directions for transmitting one or more forward direction beamforming training frames, wherein each of the one or more forward direction beamforming training frame comprises a forward beam/sector direction identifier; transmitting at least one of the one or more forward direction beamforming training frames in each of the selected predetermined directions; receiving at least one reverse direction beamforming training frame, which includes one of the forward beam/sector direction identifiers, from one of the predetermined directions; and transmitting (1414, 1430) at least one response frame including a reverse beam/sector direction identifier that is received in the at least one reverse direction beamforming training frame.
A laundry machine comprising: a tub (100,120, 130); a drum (300, 320, 340) in which laundry is to be placed; a drive assembly including a shaft connected to the drum (300, 320, 340), a bearing housing to rotatably support the shaft, and a motor to rotate the shaft; and a suspension assembly attached to the bearing housing to reduce vibration of the drum (300, 320, 340), the suspension assembly including at least three suspensions (500, 510, 520) which are arranged in triangle,, characterized by a flexible material to prevent the water inside the tub (100, 120, 130) from leaking toward the drive assembly and allow the drive assembly to move relatively to the tub (100, 120, 130); wherein the tub (100, 120, 130) is fixedly supported to a cabinet with a coupling portion; wherein the suspensions (500, 510, 520) include two front suspensions (510, 520) located on a front side of a center of gravity of an assembly of the drum (300, 320, 340) and the drive assembly, and a rear suspension located on a rear side of the center of gravity; and wherein a spring force upward exerted by the rear suspension is greater than a total spring force upward exerted by the two front suspensions (510, 520). a tub (100,120, 130); a drum (300, 320, 340) in which laundry is to be placed; a drive assembly including a shaft connected to the drum (300, 320, 340), a bearing housing to rotatably support the shaft, and a motor to rotate the shaft; and a suspension assembly attached to the bearing housing to reduce vibration of the drum (300, 320, 340), the suspension assembly including at least three suspensions (500, 510, 520) which are arranged in triangle,, characterized by a flexible material to prevent the water inside the tub (100, 120, 130) from leaking toward the drive assembly and allow the drive assembly to move relatively to the tub (100, 120, 130); wherein the tub (100, 120, 130) is fixedly supported to a cabinet with a coupling portion; wherein the suspensions (500, 510, 520) include two front suspensions (510, 520) located on a front side of a center of gravity of an assembly of the drum (300, 320, 340) and the drive assembly, and a rear suspension located on a rear side of the center of gravity; and wherein a spring force upward exerted by the rear suspension is greater than a total spring force upward exerted by the two front suspensions (510, 520).
An electromagnetically actuatable braking arrangement for braking a shaft on which a lining carrier is arranged non-rotatably but axially movably, wherein a brake coil is accommodated in a magnet body to which an armature disc is non-rotatably connected, but is arranged axially movably, wherein the armature disc has an elevation on its side facing the magnet body, wherein a damping plate is arranged axially between the armature disc and magnet body, wherein the damping plate outside the radial clearance region covered by the elevation can be deformed and/or contacted by the magnet body, in particular by the magnet body, characterised in that the armature disc and damping plate are arranged loosely axially next to one another, an angle sensor is arranged on the axial side of the magnet body remote from the armature disc, wherein the angle sensor has a sensor housing which is connected to the magnet body directly or by means of an adapter plate, and wherein a sensor rotor part is arranged, surrounded by the sensor housing, which is connected non-rotatably to the shaft, wherein the adapter plate is manufactured from an amagnetic, diamagnetic or paramagnetic material, in particular aluminium or plastics material.
A display device comprising: a base having a plate shape; and a stand frame installed on the base; a center frame (30; 31) including a curved front surface and a curved rear surface opposite to the front surface and fixed to an upper portion of the stand frame; a frame bar spaced above the base and coupled to the stand frame; characterized in that the display device further comprises: a front display panel (10; 11) curved along the front surface of the center frame (30; 31) and coupled to the front surface of the center frame (30; 31); and a rear display panel (20; 27) curved along the rear surface of the center frame (30; 31) and coupled to the rear surface of the center frame (30; 31), wherein the stand frame comprises: a first stand frame positioned in front of the frame bar and coupled to the frame bar; and a second stand frame positioned behind the frame bar and coupled to the frame bar, and wherein the center frame (30; 31) is positioned between the first stand frame and the second stand frame. a base having a plate shape; and a stand frame installed on the base; a center frame (30; 31) including a curved front surface and a curved rear surface opposite to the front surface and fixed to an upper portion of the stand frame; a frame bar spaced above the base and coupled to the stand frame; characterized in that the display device further comprises: a front display panel (10; 11) curved along the front surface of the center frame (30; 31) and coupled to the front surface of the center frame (30; 31); and a rear display panel (20; 27) curved along the rear surface of the center frame (30; 31) and coupled to the rear surface of the center frame (30; 31), wherein the stand frame comprises: a first stand frame positioned in front of the frame bar and coupled to the frame bar; and a second stand frame positioned behind the frame bar and coupled to the frame bar, and wherein the center frame (30; 31) is positioned between the first stand frame and the second stand frame. a front display panel (10; 11) curved along the front surface of the center frame (30; 31) and coupled to the front surface of the center frame (30; 31); and a rear display panel (20; 27) curved along the rear surface of the center frame (30; 31) and coupled to the rear surface of the center frame (30; 31), wherein the stand frame comprises: a first stand frame positioned in front of the frame bar and coupled to the frame bar; and a second stand frame positioned behind the frame bar and coupled to the frame bar, and wherein the center frame (30; 31) is positioned between the first stand frame and the second stand frame. a first stand frame positioned in front of the frame bar and coupled to the frame bar; and a second stand frame positioned behind the frame bar and coupled to the frame bar, and wherein the center frame (30; 31) is positioned between the first stand frame and the second stand frame.
A method for decoding a depth map, comprising: obtaining prediction data of a current block of the depth map, determining a preset step according to a size of the current block, obtaining predicted pixel values by downsampling the prediction data according to the preset step, wherein the determining a preset step according to a size of the current block comprises determining different preset steps for different sizes of the current block so that a number of the obtained predicted pixel values for the different sizes of the current block are the same, and obtaining a first average value of the prediction data by calculating an average value of the predicted pixel values, wherein the preset step is a positive integer that is not 1; obtaining a residual of the current block; and obtaining a pixel value of a pixel of the current block by adding the first average value of the prediction data and the residual of the current block. obtaining prediction data of a current block of the depth map, determining a preset step according to a size of the current block, obtaining predicted pixel values by downsampling the prediction data according to the preset step, wherein the determining a preset step according to a size of the current block comprises determining different preset steps for different sizes of the current block so that a number of the obtained predicted pixel values for the different sizes of the current block are the same, and obtaining a first average value of the prediction data by calculating an average value of the predicted pixel values, wherein the preset step is a positive integer that is not 1; obtaining a residual of the current block; and obtaining a pixel value of a pixel of the current block by adding the first average value of the prediction data and the residual of the current block.