mhurhangee/patent-ind-claim-en huggingface dataset:
"Single-phase" tap changer device comprising: at least one switching means , at least one tap , at least one current-limiting element , a first plate of insulating material and a second plate also of insulating material; an actuation element mounted between both plates , wherein said actuation element in turn comprises at least one electrical contact , said actuation element being electrically linked with at least one tap through at least one electrical contact ,; characterized in that the device further comprises at least one protection element , and the actuation element is mechanically linked, as a single part, directly with the switching means , wherein the at least one switching means are installed on the second plate and the taps are installed on the first plate , the taps , the switching means and the actuation element thereby being mounted between both plates . at least one switching means , at least one tap , at least one current-limiting element , a first plate of insulating material and a second plate also of insulating material; an actuation element mounted between both plates , wherein said actuation element in turn comprises at least one electrical contact , said actuation element being electrically linked with at least one tap through at least one electrical contact ,; characterized in that the device further comprises at least one protection element , and the actuation element is mechanically linked, as a single part, directly with the switching means , wherein the at least one switching means are installed on the second plate and the taps are installed on the first plate , the taps , the switching means and the actuation element thereby being mounted between both plates .
A method for decompressing a compressed Higher Order Ambisonics, HOA, representation, said method comprising: perceptually decoding compressed dominant directional signals and compressed residual component signals so as to provide decompressed dominant directional signals and decompressed time domain signals representing a residual HOA component in a spatial domain; re-correlating said decompressed time domain signals to obtain a corresponding reduced-order residual HOA component; extending the order of said reduced-order residual HOA component to an original order so as to provide an original order decompressed residual HOA component; and using said decompressed dominant directional signals, said original order decompressed residual HOA component, and estimated dominant sound source directions, to generate a decompressed and recomposed frame of HOA coefficients, wherein said extending the order comprises appending corresponding zero values to the reduced-order residual HOA component. perceptually decoding compressed dominant directional signals and compressed residual component signals so as to provide decompressed dominant directional signals and decompressed time domain signals representing a residual HOA component in a spatial domain; re-correlating said decompressed time domain signals to obtain a corresponding reduced-order residual HOA component; extending the order of said reduced-order residual HOA component to an original order so as to provide an original order decompressed residual HOA component; and using said decompressed dominant directional signals, said original order decompressed residual HOA component, and estimated dominant sound source directions, to generate a decompressed and recomposed frame of HOA coefficients, wherein said extending the order comprises appending corresponding zero values to the reduced-order residual HOA component.
A preparation method of a wear-resistant layer on the inner wall of a hole in a hook claw of a control rod driving mechanism for increasing the pass rate of a product which comprises the hook claw of a control rod driving mechanism, used to obtain a wear-resistant layer on the surface of a prefabricated hole in a part which comprises the hook claw of a control rod driving mechanism, and finally obtain a hole with an inner diameter of D and a wear-resistant layer on the hole wall on the part, characterized in that , the preparation method comprises the following steps: S1, drilling a hole with an inner diameter of D1 on the part, and D1 > D, to obtain the prefabricated hole ; obtaining a filler core rod for welding, and the outer diameter of the filler core rod is less than D1 and greater than D, leaving a gap between the prefabricated hole and the filler core rod ; S2, embedding the filler core rod into the prefabricated hole, and filling the gap between the filler core rod and the prefabricated hole by filling welding or self-fusion welding; S3, drilling the hole with the inner diameter of D on the filler core rod, therefore, the filler core rod provides all the hole wall for the hole with the inner diameter of D, and the material of the filler core rod is acted as the material of the wear-resistant layer. S1, drilling a hole with an inner diameter of D1 on the part, and D1 > D, to obtain the prefabricated hole ; obtaining a filler core rod for welding, and the outer diameter of the filler core rod is less than D1 and greater than D, leaving a gap between the prefabricated hole and the filler core rod ; S2, embedding the filler core rod into the prefabricated hole, and filling the gap between the filler core rod and the prefabricated hole by filling welding or self-fusion welding; S3, drilling the hole with the inner diameter of D on the filler core rod, therefore, the filler core rod provides all the hole wall for the hole with the inner diameter of D, and the material of the filler core rod is acted as the material of the wear-resistant layer.
Extendable plant tray assembly comprising a plurality of plant holders in a grid structure, wherein in a first direction (A) said plant holders are movably connected through an extension system arranged to move said assembly between a retracted position and an extended position, the assembly including at least one grid structure element comprising a central rib in a second direction (B) transverse to said first direction (A), wherein a plurality of plant holders is mounted to said rib in a staggered manner, alternating a plant holder with a plant holder receiving space , including at least one grid structure end element , arranged to be located at an end position of said assembly in said first direction (A), comprising a rib in said second direction (B), characterized in that in said grid structure end element plant holders are only mounted to a single side of said rib , alternating a plant holder with a plant holder receiving space .
A method comprising: storing electrical data (18; 58; 88; 170) representing electrical activity measured non-invasively at a plurality of surface measurement locations on a patient's body; storing geometry data (20; 56; 86; 172) representing the surface measurement locations and geometry of patient anatomy including an anatomic envelope within the patient's body; analyzing supplemental information associated with at least one selected location associated with the anatomic envelope within the patient's body, the supplemental information including a pre-recorded electrical signal (128; 159) that has been applied or measured invasively within the patient's body; determining a validity of the supplemental information for use as at least one boundary condition depending on at least one of a value and/or associated location of the electrical signal (128; 159); selecting the at least one boundary condition to include the electrical signal (128; 159) based on the analysis of the supplemental information determining that the electrical signal (128; 159) is valid for use as the at least one boundary condition ; and computing reconstructed electrical activity for a plurality of locations residing on the anatomic envelope within the patient's body based on each selected at least one boundary condition , the electrical data (18; 58; 88; 170) and the geometry data (20; 56; 86; 172), the at least one boundary condition being imposed to improve the computing of the reconstructed electrical activity. storing electrical data (18; 58; 88; 170) representing electrical activity measured non-invasively at a plurality of surface measurement locations on a patient's body; storing geometry data (20; 56; 86; 172) representing the surface measurement locations and geometry of patient anatomy including an anatomic envelope within the patient's body; analyzing supplemental information associated with at least one selected location associated with the anatomic envelope within the patient's body, the supplemental information including a pre-recorded electrical signal (128; 159) that has been applied or measured invasively within the patient's body; determining a validity of the supplemental information for use as at least one boundary condition depending on at least one of a value and/or associated location of the electrical signal (128; 159); selecting the at least one boundary condition to include the electrical signal (128; 159) based on the analysis of the supplemental information determining that the electrical signal (128; 159) is valid for use as the at least one boundary condition ; and computing reconstructed electrical activity for a plurality of locations residing on the anatomic envelope within the patient's body based on each selected at least one boundary condition , the electrical data (18; 58; 88; 170) and the geometry data (20; 56; 86; 172), the at least one boundary condition being imposed to improve the computing of the reconstructed electrical activity.
Method for determining braking-relevant actual values and for carrying out deceleration-controlled braking of a train consisting of a plurality of carriages (1a to 1e), in which method the longitudinal deceleration (a L ) and the longitudinal inclination (a L ) are taken into account as actual values, from which by virtue of a deceleration regulator/deceleration force regulator , in accordance with a predetermined set-point value of a desired braking deceleration, a manipulated variable that compensates the control deviation is determined for an actuator of the brake, characterised in that - the detection and/or calculation of the braking-relevant actual values is carried out for the train as a whole by a central measured-value determination unit which is located in the foremost part of the train and comprises a number of sensors , wherein - the length of the train (Lz) is also taken into account as an additional centrally determined actual value by the deceleration regulator/deceleration force regulator , in such manner that - in calculating the manipulated variable for compensating the control deviation, a braking demand which varies as a function of the length of the train is taken into account on the basis of the gradient profile along the length of the train (Lz) indicated by the longitudinal inclination (a L ) of the foremost part of the train. - the detection and/or calculation of the braking-relevant actual values is carried out for the train as a whole by a central measured-value determination unit which is located in the foremost part of the train and comprises a number of sensors , wherein - the length of the train (Lz) is also taken into account as an additional centrally determined actual value by the deceleration regulator/deceleration force regulator , in such manner that - in calculating the manipulated variable for compensating the control deviation, a braking demand which varies as a function of the length of the train is taken into account on the basis of the gradient profile along the length of the train (Lz) indicated by the longitudinal inclination (a L ) of the foremost part of the train.
Organic light emitting diode comprising an anode electrode , a transparent cathode electrode , at least one emission layer and at least one organic semiconductor layer , wherein the at least one emission layer and the at least one organic semiconductor layer is arranged between the anode electrode and the transparent cathode electrode wherein the organic semiconductor layer comprises a first zero-valent metal dopant and a first matrix compound wherein the first matrix compound comprises at least two phenanthrolinyl groups; characterised in that the first zero-valent metal dopant is selected from the group consisting of alkali metal, alkaline earth metal, rare earth metal, Group 3 transition metal and mixtures thereof; wherein the organic semiconductor layer has a thickness of 100 to 500 nm; and wherein the organic semiconductor layer is in direct contact with the transparent cathode electrode layer .
A muscle trainer comprising a first curved, elongate spring element and a second curved, elongate spring element , the two spring elements being arranged with their concave sides facing each other, having joint elements at their respective end areas and being connected to each other at their two end areas via joints formed from the joint elements , wherein the muscle trainer is designed in one piece, the two spring elements of the one-piece muscle trainer being connected to each other by resilient arcs arranged on each of the convex sides, or is composed of the first spring element and the second spring element , and wherein the joint elements of the first spring element are designed as brackets , the brackets being bent in the direction of the concave side of the first spring element and partially enclosing the joint elements of the second spring element , the joint elements of the second spring element being rollers or having a rounded configuration, and a bracket in each case forming a bearing in which the joint element of the second spring element is mounted rotatably.
A method for cleaning a region of a pool, the method comprising: moving a pool cleaning robot along a cleaning path that covers the region while acquiring, at first different points of time and by a sensing unit of the pool cleaning robot, first images of first scenes, at least one first scene at each first point of time; wherein the acquiring of the first images is executed while illuminating the first scenes by the pool cleaning robot; wherein the method further comprises the following steps: detecting , in at least one first image, illumination reflected or scattered as a result of the illuminating of the first scenes; determining , based at least in part on the first images, first locations of the pool cleaning robot; and wherein the moving is responsive to the first locations of the pool cleaning robot, characterized in that the method comprises a step of removing from the at least one first image information about the illumination reflected or scattered. moving a pool cleaning robot along a cleaning path that covers the region while acquiring, at first different points of time and by a sensing unit of the pool cleaning robot, first images of first scenes, at least one first scene at each first point of time; wherein the acquiring of the first images is executed while illuminating the first scenes by the pool cleaning robot; wherein the method further comprises the following steps: detecting , in at least one first image, illumination reflected or scattered as a result of the illuminating of the first scenes; determining , based at least in part on the first images, first locations of the pool cleaning robot; and wherein the moving is responsive to the first locations of the pool cleaning robot, characterized in that the method comprises a step of removing from the at least one first image information about the illumination reflected or scattered. detecting , in at least one first image, illumination reflected or scattered as a result of the illuminating of the first scenes; determining , based at least in part on the first images, first locations of the pool cleaning robot; and wherein the moving is responsive to the first locations of the pool cleaning robot, characterized in that the method comprises a step of removing from the at least one first image information about the illumination reflected or scattered.
A method for dynamically adjusting a size of a buffer of a media consumption device, the method comprising: buffering a first segment of the media asset in a buffer having a first buffer size; retrieving metadata associated with a second segment of the media asset; determining, based on the retrieved metadata, whether a rewind request is likely to be received during the second segment of the media asset; in response to determining that the rewind request is likely to be received: increasing the size of the buffer to a second buffer size; and buffering the second segment of the media asset in the buffer having the second buffer size; and in response to detecting an end of the second segment, reducing the size of the buffer to the first buffer size; wherein determining whether the rewind request is likely to be received comprises one of: comparing an audio level of the second segment to a predefined audio level; comparing a language spoken in the second segment to a preferred language indicated in a user profile; comparing a genre of the second segment to a preferred genre indicated in the user profile; comparing a complexity score in the metadata with a complexity tolerance, the complexity tolerance being based on an average complexity score of media assets previously viewed by a user. buffering a first segment of the media asset in a buffer having a first buffer size; retrieving metadata associated with a second segment of the media asset; determining, based on the retrieved metadata, whether a rewind request is likely to be received during the second segment of the media asset; in response to determining that the rewind request is likely to be received: increasing the size of the buffer to a second buffer size; and buffering the second segment of the media asset in the buffer having the second buffer size; and increasing the size of the buffer to a second buffer size; and buffering the second segment of the media asset in the buffer having the second buffer size; and in response to detecting an end of the second segment, reducing the size of the buffer to the first buffer size; wherein determining whether the rewind request is likely to be received comprises one of: comparing an audio level of the second segment to a predefined audio level; comparing a language spoken in the second segment to a preferred language indicated in a user profile; comparing a genre of the second segment to a preferred genre indicated in the user profile; comparing a complexity score in the metadata with a complexity tolerance, the complexity tolerance being based on an average complexity score of media assets previously viewed by a user. comparing an audio level of the second segment to a predefined audio level; comparing a language spoken in the second segment to a preferred language indicated in a user profile; comparing a genre of the second segment to a preferred genre indicated in the user profile; comparing a complexity score in the metadata with a complexity tolerance, the complexity tolerance being based on an average complexity score of media assets previously viewed by a user.
A preparation method of a quantum dot (QD), wherein comprising: preparing a QD solution; preparing an ion-containing organic ligand precursor; adding the ion-containing organic ligand precursor into the QD solution, and making a surface-modification to the QDs, before obtaining the QDs having the surfaces modified, wherein the ion-containing organic ligand precursor is at least one cation-containing organic ligand precursor, a cation in the cation-containing organic ligand precursor is at least a cation in a group of IIB, a group of IVA, a group of IB, a group of IIIA, a transition metal cation, a rare-earth metal cation, and an organic ligand in the ion-containing organic ligand precursor is at least one of trioctylphosphine (TOP), tributylphosphine (TBP), octadecylphosphonic acid (ODPA), octadecylamine (ODA), trioctylamine (TOA), oleylamine (OAm), and an alkyl mercaptan. preparing a QD solution; preparing an ion-containing organic ligand precursor; adding the ion-containing organic ligand precursor into the QD solution, and making a surface-modification to the QDs, before obtaining the QDs having the surfaces modified, wherein the ion-containing organic ligand precursor is at least one cation-containing organic ligand precursor, a cation in the cation-containing organic ligand precursor is at least a cation in a group of IIB, a group of IVA, a group of IB, a group of IIIA, a transition metal cation, a rare-earth metal cation, and an organic ligand in the ion-containing organic ligand precursor is at least one of trioctylphosphine (TOP), tributylphosphine (TBP), octadecylphosphonic acid (ODPA), octadecylamine (ODA), trioctylamine (TOA), oleylamine (OAm), and an alkyl mercaptan.
Machining centre for cutting an object in the form of a slab, said machining centre comprising: - a support plane arranged to support said object; - a machining unit provided with a cutting tool which can be actuated in rotation for cutting said object and a fluid jet cutting device which can be actuated for cutting said object, said machining unit being movable with respect to said support plane along a first axis (Y), a second axis (Z) and a third axis (X) of a triad of transversal axes (Y, Z, X) to approach/remove said cutting tool and said fluid jet cutting device to/from said support plane , said machining unit being further rotatable about a first rotation axis (R) to rotate said cutting tool and said fluid jet cutting device with respect to said support plane ; characterised in that said machining unit is provided with a handling device arranged to support said fluid jet cutting device and to move said fluid jet cutting device with respect to said cutting tool along at least one direction transverse to said first rotation axis (R). - a support plane arranged to support said object; - a machining unit provided with a cutting tool which can be actuated in rotation for cutting said object and a fluid jet cutting device which can be actuated for cutting said object, said machining unit being movable with respect to said support plane along a first axis (Y), a second axis (Z) and a third axis (X) of a triad of transversal axes (Y, Z, X) to approach/remove said cutting tool and said fluid jet cutting device to/from said support plane , said machining unit being further rotatable about a first rotation axis (R) to rotate said cutting tool and said fluid jet cutting device with respect to said support plane ;
An optical sensor, comprising: an optical assembly comprising a sensor element , a spacer and a lens arranged along an optical axis, the sensor element spaced from the lens by the spacer; an optical fibre coupled to the optical assembly for illuminating the sensor element; a housing to provide mechanical protection to the optical assembly, wherein the optical assembly is resiliently mounted in the housing such that the optical assembly is insulated from shock to the housing, characterised in that the optical assembly is coupled to the housing by a resilient ring and the optical assembly is not coupled to the housing at another point. an optical assembly comprising a sensor element , a spacer and a lens arranged along an optical axis, the sensor element spaced from the lens by the spacer; an optical fibre coupled to the optical assembly for illuminating the sensor element; a housing to provide mechanical protection to the optical assembly, wherein the optical assembly is resiliently mounted in the housing such that the optical assembly is insulated from shock to the housing, characterised in that the optical assembly is coupled to the housing by a resilient ring and the optical assembly is not coupled to the housing at another point.