mhurhangee/ep-ind-claims huggingface dataset:
A power control method for a cellular communication system, wherein the power control method is performed periodically and unsynchronized between different cells of the cellular communication system, the method comprising: determining, at a cell, a first performance (412; FOM 1) of the cell; varying, at the cell, an uplink power control parameter (422; P 0) for the cell to maximize the first performance; determining, at the cell, a second performance (432, FOM 2) of one or more cells adjacent to the cell; and varying, at the cell, a target interference level (442; IoT) to maximize the second performance. determining, at a cell, a first performance (412; FOM 1) of the cell; varying, at the cell, an uplink power control parameter (422; P 0) for the cell to maximize the first performance; determining, at the cell, a second performance (432, FOM 2) of one or more cells adjacent to the cell; and varying, at the cell, a target interference level (442; IoT) to maximize the second performance.
Bathtub or whirlpool tub with a rectangular cross section that is equipped with panelling surrounding the tub on the sides having a support in an uninstalled state on at least one of its side walls (13, 14, 15, 16) for an assembly (3, 4) in each case of at least two connected panels (5, 6, 7, 8), characterised in that the support is formed by at least two extendable rods (18, 19).
A synthetic calcium phosphate-based biomedical material comprising gadolinium, wherein the phase purity of the biomedical material, as measured by X-ray diffraction, is at least 95%, and wherein at least some of the gadolinium is in the form of Gd 3+ ions substituted in the calcium phosphate lattice, and wherein the material comprises a compound having the general chemical formula: Ca 10-y Gd y (PO 4) 6-x (SiO 4) x 2-x+y where 0.5 < x < 1.1 and 0 < y < 1.3.
A device comprising: a semiconductor structure comprising a light emitting layer between an n-type region and a p-type region; a p-electrode on a portion of the p-type region, the p-electrode comprising: a reflective first material comprising silver in direct contact with a first portion of the p-type region; and a second material, different from the first material and comprising aluminum, in direct contact with a second portion of the p-type region adjacent to the first portion; wherein the first material and the second material are planar layers of the same thickness. a semiconductor structure comprising a light emitting layer between an n-type region and a p-type region; a p-electrode on a portion of the p-type region, the p-electrode comprising: a reflective first material comprising silver in direct contact with a first portion of the p-type region; and a second material, different from the first material and comprising aluminum, in direct contact with a second portion of the p-type region adjacent to the first portion; a reflective first material comprising silver in direct contact with a first portion of the p-type region; and a second material, different from the first material and comprising aluminum, in direct contact with a second portion of the p-type region adjacent to the first portion; wherein the first material and the second material are planar layers of the same thickness.
A combined vegetable and fruit peeler, comprising: a handle; at least one leg (24, 26) extending from said handle; a slotted blade mounted to said at least one leg; and a citrus slicer extending from said at least one leg, said citrus slicer including a sharp edge extending outward from said at least one leg, characterized in that said at least one leg forms a peeling blade including a protrusion with reduced thickness toward a sharpened edge thereof, said protrusion being an area of said at least one leg having a greater width than the remainder of said at least one leg. a handle; at least one leg (24, 26) extending from said handle; a slotted blade mounted to said at least one leg; and a citrus slicer extending from said at least one leg, said citrus slicer including a sharp edge extending outward from said at least one leg, characterized in that said at least one leg forms a peeling blade including a protrusion with reduced thickness toward a sharpened edge thereof, said protrusion being an area of said at least one leg having a greater width than the remainder of said at least one leg.
A device comprising a first fixing element, a further fixing element and a folded planar composite; wherein the first fixing element comprises a first fixing surface and the further fixing element comprises a further fixing surface; wherein the folded planar composite is at least partially fixed between the first fixing surface and the further fixing surface; wherein the folded planar composite comprises a first composite region; wherein the first composite region comprises a first layer sequence comprising as layers overlapping one another in the direction from the further fixing surface to the first fixing surface a first composite layer, a second composite layer, a third composite layer and a fourth composite layer; wherein in the first composite region the second composite layer is joined to the third composite layer and the third composite layer is joined to the fourth composite layer; wherein the first composite layer comprises a first carrier layer; wherein the second composite layer comprises a second carrier layer; wherein the third composite layer comprises a third carrier layer; wherein the fourth composite layer comprises a fourth carrier layer; wherein in the first composite region the third carrier layer is characterised by a smaller layer thickness than in each case one selected from the group consisting of the first carrier layer, the second carrier layer and the fourth carrier layer or a combination of at least two of these; wherein the first fixing surface or the further fixing surface or both comprises a recess comprising a first recess region; wherein the recess has a first maximum depth in the first recess region; wherein the first composite region is located at least partially between the first recess region and the first fixing surface or the further fixing surface.
A homogenous, color-changing composition comprising: a matrix-forming component selected from one or more water-insoluble, film-forming polymers and copolymers; a leuco dye; a metal salt-based Lewis Acid; a neutral surfactant; and an organic solvent; wherein a weight ratio of the neutral surfactant to leuco dye is less than 10. a matrix-forming component selected from one or more water-insoluble, film-forming polymers and copolymers; a leuco dye; a metal salt-based Lewis Acid; a neutral surfactant; and an organic solvent;
An ultrasound welding device for ultrasonic processing of a material with a sonotrode which is mounted in vibration-decoupled relationship and which has a sealing surface in the shape of a cylinder surface, and a counterpart tool, wherein a converter is connected to the sonotrode optionally by way of a first amplitude transformation portion and the sonotrode and the first converter are so designed that the sonotrode can be caused to vibrate with a natural vibration of the ultrasonic frequency fs, wherein the counterpart tool has a natural vibration of the ultrasonic frequency f G and is mounted in vibration-decoupled relationship in such a way that it can be excited with the ultrasonic frequency f G, wherein a second converter is connected to the counterpart tool optionally by way of a second amplitude transformation portion and the counterpart tool and the converter are so designed that the counterpart tool can be caused to vibrate with a natural vibration of the frequency f G, characterised in that the natural frequency f G is not equal to the frequency f S and is not an integral multiple thereof.
Method of adapting noise emission configuration of plural wind turbines, the method comprising: determining total wind turbine related noise levels (9,13) at plural locations; selecting a critical location from the plurality of locations that has a highest difference between the total wind turbine related noise level of a considered location and a noise threshold for the considered location, among all of based on which location of the plurality of locations has a most critical total wind turbine related noise level; determining that the most critical total wind turbine related noise exceeds the noise threshold; selecting a wind turbine from the plurality of wind turbines that is closest to the critical location and has a highest noise to power impact ratio for reducing a noise level at the critical location; and reducing a rotational speed setpoint of the selected wind turbine; and diverting a main noise radiation of the selected wind turbine away from the critical location introducing a yaw offset which yaws the selected turbine. determining total wind turbine related noise levels (9,13) at plural locations; selecting a critical location from the plurality of locations that has a highest difference between the total wind turbine related noise level of a considered location and a noise threshold for the considered location, among all of based on which location of the plurality of locations has a most critical total wind turbine related noise level; determining that the most critical total wind turbine related noise exceeds the noise threshold; selecting a wind turbine from the plurality of wind turbines that is closest to the critical location and has a highest noise to power impact ratio for reducing a noise level at the critical location; and reducing a rotational speed setpoint of the selected wind turbine; and diverting a main noise radiation of the selected wind turbine away from the critical location introducing a yaw offset which yaws the selected turbine.
A data communications system, comprising a first chassis and a second chassis, characterised in that: the first chassis comprises a first high-performance switching module and a first low-performance switching module; the second chassis comprises a second high-performance switching module and a second low-performance switching module; the first high-performance switching module is connected to the second low-performance switching module, and the first low-performance switching module is connected to the second high-performance switching module; the first high-performance switching module is configured to connect to a third low-performance switching module in a third chassis that is to be added to the communications system, and the second high-performance switching module is configured to connect to a fourth low-performance switching module in the third chassis that is to be added to the communications system; wherein a high-performance module is connected to one or more low-performance modules, and a low-performance module is connected to one high-performance module but cannot be connected to a plurality of high-performance modules; and wherein in a same chassis, a high-performance module has a higher bandwidth requirement than a low-performance module. the first chassis comprises a first high-performance switching module and a first low-performance switching module; the second chassis comprises a second high-performance switching module and a second low-performance switching module; the first high-performance switching module is connected to the second low-performance switching module, and the first low-performance switching module is connected to the second high-performance switching module; the first high-performance switching module is configured to connect to a third low-performance switching module in a third chassis that is to be added to the communications system, and the second high-performance switching module is configured to connect to a fourth low-performance switching module in the third chassis that is to be added to the communications system; wherein a high-performance module is connected to one or more low-performance modules, and a low-performance module is connected to one high-performance module but cannot be connected to a plurality of high-performance modules; and wherein in a same chassis, a high-performance module has a higher bandwidth requirement than a low-performance module.
An X-Ray guided focused ultrasound treatment apparatus, the apparatus comprising: an articulated arm having a base and a distal end, the articulated arm is attached at the base to a procedure platform; a cradle affixed to the distal end of the arm; an aiming apparatus (130,150) affixable within the cradle; and a FUS transducer removably affixable within the cradle and configured to transmit a FUS therapeutic energy beam to a treatment location, wherein the FUS transducer is connected to a controller to control the FUS therapeutic energy beam being transmitted by the FUS transducer; wherein the aiming apparatus comprises one of: a mock-up removably affixable within the cradle and replaceable by the FUS transducer, and at least one optical marker holder comprising two or more x-ray markers (133,134) having different size and placed along a vertical axis of the at least one optical marker holder, or an x-ray aim placed in a socket of the FUS transducer and comprising at least two x-ray aiming markers (133,134) of different size placed along a vertical axis of the FUS transducer, wherein a difference between the sizes of the at least two x-ray aiming markers is indicative of an alignment within an error limit of the apparatus. an articulated arm having a base and a distal end, the articulated arm is attached at the base to a procedure platform; a cradle affixed to the distal end of the arm; an aiming apparatus (130,150) affixable within the cradle; and a FUS transducer removably affixable within the cradle and configured to transmit a FUS therapeutic energy beam to a treatment location, wherein the FUS transducer is connected to a controller to control the FUS therapeutic energy beam being transmitted by the FUS transducer; wherein the aiming apparatus comprises one of: a mock-up removably affixable within the cradle and replaceable by the FUS transducer, and at least one optical marker holder comprising two or more x-ray markers (133,134) having different size and placed along a vertical axis of the at least one optical marker holder, or an x-ray aim placed in a socket of the FUS transducer and comprising at least two x-ray aiming markers (133,134) of different size placed along a vertical axis of the FUS transducer, wherein a difference between the sizes of the at least two x-ray aiming markers is indicative of an alignment within an error limit of the apparatus.
A method for video decoding in a decoder, comprising: decoding prediction information of a current block from a coded video bitstream, the prediction information being indicative of an intra block copy mode; determining a block vector predictor for the current block based on the prediction information; determining a block vector difference for the current block based on the prediction information; selecting a first candidate resolution as a first resolution for a first component of the block vector difference for the current block in a case that the first magnitude of the first component of the block vector predictor is determined to be greater than a threshold; selecting a second candidate resolution as the first resolution for the first component of the block vector difference in a case that the first magnitude of the first component of the block vector predictor is determined to be not greater than the threshold, the second candidate resolution being a higher precision resolution than the first candidate resolution; determining a block vector for the current block according to the block vector predictor, the block vector difference, and the first resolution for the first component of the block vector difference for the current block; and reconstructing at least one sample of the current block according to the block vector. decoding prediction information of a current block from a coded video bitstream, the prediction information being indicative of an intra block copy mode; determining a block vector predictor for the current block based on the prediction information; determining a block vector difference for the current block based on the prediction information; selecting a first candidate resolution as a first resolution for a first component of the block vector difference for the current block in a case that the first magnitude of the first component of the block vector predictor is determined to be greater than a threshold; selecting a second candidate resolution as the first resolution for the first component of the block vector difference in a case that the first magnitude of the first component of the block vector predictor is determined to be not greater than the threshold, the second candidate resolution being a higher precision resolution than the first candidate resolution; determining a block vector for the current block according to the block vector predictor, the block vector difference, and the first resolution for the first component of the block vector difference for the current block; and reconstructing at least one sample of the current block according to the block vector.
Active system comprising at least one active element as a trip flare having an active mass (7.1), at least one trigger unit which triggers this active mass (7.1), a trigger wire and at least two anchors, wherein the at least one active element and the at least one trigger unit are structurally separated from one another and are functionally connected to one another via connections, wherein the at least one trigger unit is connected to the trigger wire, which is used to trigger the at least one trigger unit, wherein the trigger wire is attached to the at least two anchors, and wherein the at least one trigger unit is located between these at least two anchors, wherein the trigger wire has a mechanism, wherein the mechanical trigger unit comprises at least one striking mechanism element, a striking element, a striking spring, a clamping lever, and a percussion cap holder and a trigger slider having a trigger slider lug, which form the mechanism of the trigger unit, wherein the trigger wire is secured in the trigger slider, wherein the trigger slider lug is in contact with the striking element when no triggering occurs, and wherein a movement of the trigger slider releases the striking element upon triggering.
A folding control apparatus for vehicle seats configured to control folding or unfolding of a first vehicle seat and a second vehicle seat, the folding control apparatus comprising: a first motor configured to generate driving force necessary to fold the first vehicle seat; a second motor configured to generate driving force necessary to fold the second vehicle seat; a first sensor configured to detect at least one of a rotational speed and a rotation amount of the first motor; a second sensor configured to detect at least one of a rotational speed and a rotation amount of the second motor; and at least one control module configured to control at least one of the first motor and the second motor based on detection results of the first sensor and the second sensor, characterized in that the control module controls at least one of the first motor and the second motor through duty ratio control, the control module compares a number of first pulses output from the first sensor for a predetermined time and a number of second pulses output from the second sensor for the predetermined time with each other, and upon determining that a difference between the number of first pulses and the number of second pulses is equal to or greater than a predetermined value a, reduces the duty ratio of a driving signal applied to a motor having a larger number of pulses, and upon determining that a difference between the number of first pulses and the number of second pulses is equal to or greater than a predetermined value b, stops application of a driving signal to a motor having a larger number of pulses; and the predetermined value a is less than the predetermined value b. a first motor configured to generate driving force necessary to fold the first vehicle seat; a second motor configured to generate driving force necessary to fold the second vehicle seat; a first sensor configured to detect at least one of a rotational speed and a rotation amount of the first motor; a second sensor configured to detect at least one of a rotational speed and a rotation amount of the second motor; and at least one control module configured to control at least one of the first motor and the second motor based on detection results of the first sensor and the second sensor, characterized in that the control module controls at least one of the first motor and the second motor through duty ratio control, the control module compares a number of first pulses output from the first sensor for a predetermined time and a number of second pulses output from the second sensor for the predetermined time with each other, and upon determining that a difference between the number of first pulses and the number of second pulses is equal to or greater than a predetermined value a, reduces the duty ratio of a driving signal applied to a motor having a larger number of pulses, and upon determining that a difference between the number of first pulses and the number of second pulses is equal to or greater than a predetermined value b, stops application of a driving signal to a motor having a larger number of pulses; and the predetermined value a is less than the predetermined value b.
Data input device comprising a body intended to be fixed on a workstation, a part that is rotationally mobile in relation to the body, a set of sensors (16, 17) delivering information on the relative position of the mobile part (13; 70) in relation to the body and means for braking the rotational movements of the mobile part (13; 70) in relation to the body, characterized in that the braking means comprise a friction ring encircling the mobile part (13; 70), the ring being split and extending mainly in a plane perpendicular to an axis of symmetry of the mobile part (13; 70), an annular spring extending in the plane and radially compressing the friction ring against the mobile part (13; 70) and means for adjusting the length of the annular spring.
A fall protection device, which is adapted to be connected to a safety belt, comprising: a frame forming a containing space; a shaft lever provided on the frame; a retard member pivotally provided on the shaft lever rotatably, wherein the retard member is received in the containing space, and has a friction surface; and a rotary drum fitted around the retard member, wherein the rotary drum has an outer surface and an inner surface; the outer surface is adapted to be winded by the safety belt, and the inner surface faces to the friction surface of the retard member; wherein, in a first operating state, the retard member and the rotary drum rotate coaxially; in a second operating state, when the safety belt is suddenly stretched, the retard member is fixed, while the rotary drum rotates relative to the retard member, wherein a rotational friction is generated between the friction surface of the retard member and the inner surface of the rotary drum, which slows down the rotational speed of the rotary drum. a frame forming a containing space; a shaft lever provided on the frame; a retard member pivotally provided on the shaft lever rotatably, wherein the retard member is received in the containing space, and has a friction surface; and a rotary drum fitted around the retard member, wherein the rotary drum has an outer surface and an inner surface; the outer surface is adapted to be winded by the safety belt, and the inner surface faces to the friction surface of the retard member; wherein, in a first operating state, the retard member and the rotary drum rotate coaxially; in a second operating state, when the safety belt is suddenly stretched, the retard member is fixed, while the rotary drum rotates relative to the retard member, wherein a rotational friction is generated between the friction surface of the retard member and the inner surface of the rotary drum, which slows down the rotational speed of the rotary drum.