mhurhangee/patent-ind-claim-en huggingface dataset:
A bending device for a system for the continuous production of a lattice, in which a diagonal chord wire (3 or 3') running to and fro in a zigzag shape in the lattice can be produced in a production direction, having three bending mandrels (9-11) arranged transversely to the production direction, two of which bending mandrels being located at a variable distance from one another and constantly at the height level of the supplied diagonal chord wire (3 or 3 '), and the third bending mandrel being located between the two other bending mandrels and being movable up and down from an initial position along the diagonal wire (3 or 3') and actively effecting the bending with an upper return height which can be set, characterised in that, for the purpose of bending the individual points of the diagonal chord wire (3 or 3'), the bending mandrel which can be moved up and down is movable along an approximately circular path, which lies in a vertical plane running through the respective diagonal wire (3 or 3'), and additionally along the radius of the circular path, so that the points of the diagonal chords can be formed either with identical sides or with sides having different lengths and inclinations, which is effected in that the bending mandrel which can be moved up and down is fastened to one end of a pivot arm , on the other end of which a roller acts, the shaft of which is mounted at both ends on the end of a first of two parallel control arms in each case, wherein the other end of the one control arm is fixed laterally on a rotationally drivable first gearwheel , the rotationally drivable shaft of which is coaxial with the second, stationary bending mandrel which remains constantly at the height level of the supplied diagonal wire (3 or 3'), wherein the two control arms , together with the roller and the pivot arm abutting thereon and supporting the bending mandrel which can be moved up and down, are pivotable by means of the rotation of the gearwheel , and wherein, by rotating a further rotationally drivable shaft , which is likewise coaxial with the second, stationary bending mandrel which remains constantly at the height level of the supplied diagonal wire (3 or 3'), the two control arms , together with the shaft and a second gearwheel , which meshes with the first, driven gearwheel and is mounted at the end of the shaft , which also supports the rear end of the first of the two parallel control arms , are pivotable, as a result of which the effective length of the pivot arm acting on the bending mandrel which can be moved up and down is adjustable, so that the movable bending mandrel is movable along an approximately circular path, which lies in a vertical plane running through the respective diagonal wire , and additionally along the radius of the circular path.
Artificial turf , comprising: a backing layer , and a plurality of rows of individual tufts tufted into the backing layer, characterized in that : each tuft comprises at least first , second , and third distinct yarns per tuft, wherein each one of the first, second, and third yarns varies from the other yarns of the first, second and third yarns in at least one of material, color, texture, tuft denier, denier per filament, and cross-section; and wherein the first yarn is a texturized yarn, wherein the second yarn is a slit tape yarn, and wherein the third yarn is a monofilament yarn. a backing layer , and a plurality of rows of individual tufts tufted into the backing layer, characterized in that : each tuft comprises at least first , second , and third distinct yarns per tuft, wherein each one of the first, second, and third yarns varies from the other yarns of the first, second and third yarns in at least one of material, color, texture, tuft denier, denier per filament, and cross-section; and wherein the first yarn is a texturized yarn, wherein the second yarn is a slit tape yarn, and wherein the third yarn is a monofilament yarn. each tuft comprises at least first , second , and third distinct yarns per tuft, wherein each one of the first, second, and third yarns varies from the other yarns of the first, second and third yarns in at least one of material, color, texture, tuft denier, denier per filament, and cross-section; and wherein the first yarn is a texturized yarn, wherein the second yarn is a slit tape yarn, and wherein the third yarn is a monofilament yarn.
A method of shear wave elastography comprising: identifying muscle fiber structures ; selecting at least one of the identified muscle fiber structures; determining a target measurement plane based on an orientation of the selected muscle fiber structure; and transmitting ultrasound pulses in accordance with a sequence configured to perform shear wave imaging in the target measurement plane, wherein the transmitting ultrasound pulses comprises transmitting a push pulse and tracking pulses , characterized in that the identifying muscle fiber structures is from a 3D ultrasound image dataset, and wherein the method further comprises providing a representation of the identified muscle fiber structures relative to a surface of a transducer . identifying muscle fiber structures ; selecting at least one of the identified muscle fiber structures; determining a target measurement plane based on an orientation of the selected muscle fiber structure; and transmitting ultrasound pulses in accordance with a sequence configured to perform shear wave imaging in the target measurement plane, wherein the transmitting ultrasound pulses comprises transmitting a push pulse and tracking pulses , characterized in that the identifying muscle fiber structures is from a 3D ultrasound image dataset, and wherein the method further comprises providing a representation of the identified muscle fiber structures relative to a surface of a transducer .
A method of transmitting data from a passive radio device (100; 1700), the method comprising or initiating: exposing an antenna of the passive radio device (100; 1700) to an incident radio signal , a frequency domain representation of the incident radio signal comprising at least one muted gap between active subcarriers within a bandwidth of the incident radio signal ; and backscattering the incident radio signal from the antenna by modulating an impedance of the antenna according to the data using at least two different modulation frequencies that differ by less than the bandwidth . exposing an antenna of the passive radio device (100; 1700) to an incident radio signal , a frequency domain representation of the incident radio signal comprising at least one muted gap between active subcarriers within a bandwidth of the incident radio signal ; and backscattering the incident radio signal from the antenna by modulating an impedance of the antenna according to the data using at least two different modulation frequencies that differ by less than the bandwidth .
Device for braking, as a result of damping, a movement of a furniture part which is movable relative to a furniture carcass, comprising at least two damper parts , wherein a first damper part is movable relative to a second damper part , and wherein a damping element with a deforming element is mounted on one of the two damper parts , wherein a dilatant viscous fluid is contained in the deforming element , wherein the deforming element comprises an elastically deformable container, in which the viscous fluid is enclosed in a sealed manner, characterised in that an opening is formed on the deforming element which is designed for guiding through one of the two damper parts .
A method for controlling a door system , in particular a sliding door system, wherein the door system has a door drive which is used to carry out a movement of at least one leaf element of the door system , and wherein at least one sensor unit is configured to provide sensor data and has a sensor detection region , wherein persons within the sensor detection region are detected by means of the sensor unit and their position and/or movement and/or contour are output as sensor data , wherein a control system is configured which is used to receive the sensor data , wherein the control system - has a first control module which is used to continuously and dynamically regulate on an ongoing basis the movement of the at least one leaf element of the door system as a function of the position, the movement and/or the contour of the at least one person , and - has a second control module which is used to configure closing edge protection of the at least one leaf element of the door system based on the sensor data , wherein using the second control module , the sensor data is evaluated and travel movements of the at least one leaf element determined by the first control module are verified such that a collision of the at least one leaf element with the person is avoided and the closing edge protection is provided, wherein the first control module transmits to the second control module control data for activating the door drive of the at least one leaf element , wherein the control data is evaluated by the second control module in correlation with the sensor data , characterised in that the door drive of the at least one leaf element is activated by the first control module only after the control data has passed through the second control module . - has a first control module which is used to continuously and dynamically regulate on an ongoing basis the movement of the at least one leaf element of the door system as a function of the position, the movement and/or the contour of the at least one person , and - has a second control module which is used to configure closing edge protection of the at least one leaf element of the door system based on the sensor data , wherein using the second control module , the sensor data is evaluated and travel movements of the at least one leaf element determined by the first control module are verified such that a collision of the at least one leaf element with the person is avoided and the closing edge protection is provided, wherein the first control module transmits to the second control module control data for activating the door drive of the at least one leaf element , wherein the control data is evaluated by the second control module in correlation with the sensor data , characterised in that the door drive of the at least one leaf element is activated by the first control module only after the control data has passed through the second control module .
A method for producing an insulation element for a stator base body or rotor base body or single tooth base body, including the steps: • providing an insulation material , and • processing the insulation material to produce the insulation element from the insulation material , and • receiving or generating or retrieving of processing data using a control unit , by which the insulation material has to be processed in order to produce the insulation element before the insulation element can be inserted into a groove in the stator base body or rotor base body or single tooth base body, wherein • the step of processing the insulation material is performed using a laser device and in accordance with the processing data, • the processing data define at least one weakening area of the insulation material for weakening the insulation material or at least one cutting area of the insulation material for cutting the insulation material and at least one weakening area of the insulation material for weakening the insulation material , and • processing includes weakening the insulation material along the weakening point , or cutting the insulation material along the interface and weakening the insulation material along the weakening point . • providing an insulation material , and • processing the insulation material to produce the insulation element from the insulation material , and • receiving or generating or retrieving of processing data using a control unit , by which the insulation material has to be processed in order to produce the insulation element before the insulation element can be inserted into a groove in the stator base body or rotor base body or single tooth base body, • the step of processing the insulation material is performed using a laser device and in accordance with the processing data, • the processing data define at least one weakening area of the insulation material for weakening the insulation material or at least one cutting area of the insulation material for cutting the insulation material and at least one weakening area of the insulation material for weakening the insulation material , and • processing includes weakening the insulation material along the weakening point , or cutting the insulation material along the interface and weakening the insulation material along the weakening point .
Soundproof self-sealing tyre for vehicle wheels comprising: - a carcass structure; - a tread band in a radially outer position with respect to said carcass structure; - a layer of airtight elastomeric material (liner), applied in a radially inner position with respect to the carcass structure; - a layer of sealing elastomeric composition applied on at least a portion of the radially inner surface of the layer of airtight elastomeric material and extending axially at least at a part of the tread band; - optionally, a self-supporting film, applied on at least a portion of the radially inner surface of the layer of sealing composition; - a noise reducing element applied on at least a portion of the radially inner surface of the layer of sealing elastomeric composition or, if present, of the self-supporting film, wherein said noise reducing element comprises at least one closed-cell foamed polyolefin material, preferably with closed macrocells. - a carcass structure; - a tread band in a radially outer position with respect to said carcass structure; - a layer of airtight elastomeric material (liner), applied in a radially inner position with respect to the carcass structure; - a layer of sealing elastomeric composition applied on at least a portion of the radially inner surface of the layer of airtight elastomeric material and extending axially at least at a part of the tread band; - optionally, a self-supporting film, applied on at least a portion of the radially inner surface of the layer of sealing composition; - a noise reducing element applied on at least a portion of the radially inner surface of the layer of sealing elastomeric composition or, if present, of the self-supporting film,
Fixing device for sanitary items on a wall part and / or on a wall by means of at least one via fastening bolts the fastening device attachable support member to which the Sanitary articles can be screwed on, inserted and / or locked, whereby the supporting part consists of at least one plate which is directly over one or several fastening bolts can be connected to the wall and with one or several openings or also arranged side by side Elongated holes are provided which are open at least to one side and thus form slot openings so that the plate laterally on the Fastening bolt , namely between the wall and the front of Sanitary items , such as wash basins, can be inserted, the fastening bolts provided in the wall extending through the Extend slot openings , and that by means of these fastening bolts also additional devices such as towel holder or soap dish holder, can be connected directly or indirectly to the plate in a fixed or movable manner, characterized, that several slot openings arranged next to one another for receiving of the fastening bolt with one another via at least one slot opening are connected and in the area of the slot openings and / or in the area at least one fastening element of a sanitary object on one Side or on the back of the plate one or more torques Securing elements are provided which, when the plate and / or are loaded counteract the sanitary object from adjusting or rotating the plate , the torque securing elements consisting of at least two Locking elements or beads or knobs exist, one below the other are arranged and at least one locking element, a bead or a Knob with the help of a screw bolt in one in the plate in Installation condition next to each other and additionally provided Slotted hole adjustable and / or slidably received and can be fastened at right angles to the side by side Slot openings are arranged.
A method for producing a III-V fin structure within a gap separating shallow trench isolation (STI) structures and exposing a semiconductor substrate , the method comprising: a) providing a semiconductor substrate , b) providing in the semiconductor substrate at least two identical STI structures separated by a gap exposing the semiconductor substrate, wherein said gap is bounded by said at least two identical STI structures , wherein said at least two identical STI structures are formed of SiO 2 and, c) producing a III-V fin structure within said gap on the exposed semiconductor substrate using a Metal Organic Vapor Phase Epitaxy (MOVPE) process, characterized in that , the method further comprises: before producing said III-V fin structure , providing a diffusion barrier at least on each side wall of said at least two identical STI structures, the diffusion barrier being an amorphous dielectric material, wherein the amorphous dielectric material is an oxide comprising a metal and wherein the metal is aluminum or hafnium, thereby eliminating the interaction of precursors of said MOVPE process, to produce said III-V fin structure, with said at least two identical STI structures, and wherein said semiconductor substrate is a Si substrate. a) providing a semiconductor substrate , b) providing in the semiconductor substrate at least two identical STI structures separated by a gap exposing the semiconductor substrate, wherein said gap is bounded by said at least two identical STI structures , wherein said at least two identical STI structures are formed of SiO 2 and, c) producing a III-V fin structure within said gap on the exposed semiconductor substrate using a Metal Organic Vapor Phase Epitaxy (MOVPE) process,
A method for stabilizing precursor fibers for the carbon fiber production, comprising the following steps: heating the precursor fibers to a first temperature and maintaining the precursor fibers at the first temperature for a predetermined period of time; and subsequently heating the precursor fibers to at least a second temperature higher than the first temperature and maintaining the precursor fibers at the second temperature for a predetermined period of time; wherein the precursor fibers are in a gas atmosphere with a negative pressure in a range between 1.2 × 10 3 PA and 30 × 10 3 PA (12 mBar and 300 mBar) during the respective heating and between the heating steps. heating the precursor fibers to a first temperature and maintaining the precursor fibers at the first temperature for a predetermined period of time; and subsequently heating the precursor fibers to at least a second temperature higher than the first temperature and maintaining the precursor fibers at the second temperature for a predetermined period of time; wherein the precursor fibers are in a gas atmosphere with a negative pressure in a range between 1.2 × 10 3 PA and 30 × 10 3 PA (12 mBar and 300 mBar) during the respective heating and between the heating steps.
A dynamic multi-organ plate comprising, two or more wells , wherein the wells are configured for cell or tissue culture growth; at least one transwell tube in fluid communication with the two or more wells ; a pump in fluid communication with the at least one transwell tube ; wherein at least one well independently comprises an outer shell and an insert , the insert forming a hollow interior , into which the cell or tissue culture is placed; wherein a space for fluid exists between the outer shell and the insert , wherein as more fluid is introduced into the system, the fluid space becomes larger while the insert shrinks; wherein the insert comprises a semipermeable wall that allows for diffusion of chemicals, gasses, and fluids between the fluid space and the interior of the well ; wherein during use of the multi-organ plate the fluid in the wells is in contact with at least a portion of the semipermeable wall of the insert ; and wherein the hollow interior of each insert is not in direct fluid communication with a transwell tube . two or more wells , wherein the wells are configured for cell or tissue culture growth; at least one transwell tube in fluid communication with the two or more wells ; a pump in fluid communication with the at least one transwell tube ; wherein at least one well independently comprises an outer shell and an insert , the insert forming a hollow interior , into which the cell or tissue culture is placed; wherein a space for fluid exists between the outer shell and the insert , wherein as more fluid is introduced into the system, the fluid space becomes larger while the insert shrinks; wherein the insert comprises a semipermeable wall that allows for diffusion of chemicals, gasses, and fluids between the fluid space and the interior of the well ; wherein during use of the multi-organ plate the fluid in the wells is in contact with at least a portion of the semipermeable wall of the insert ; and wherein the hollow interior of each insert is not in direct fluid communication with a transwell tube .
A mounting bracket assembly for an electrical installation box, comprising: a mounting box having four side walls (11-14) and a circular projection with an open end on its top side , the mounting box having two laterally spaced rails on each side walls (11-14) ; an L shape beam member having a top horizontal plate with a plurality of in-built nails and slots through which the L shape beam member attached to an installation beam and a vertical plate ; an L shaped bracket formed on one side of the vertical plate and a J shaped bracket formed on its other side, the L shaped bracket and the J shaped bracket having a flange on its top side ; wherein the L shaped bracket and the J shaped bracket slide on the rails on one side wall, and the flange is bent to lock the L shape beam member with the mounting box characterized in that the mounting box has two projections on each bottom side of the mounting box , and the vertical plate having an extended portion at its open end with two slots spaced apart from each other, and the slots on the vertical plate are positioned and locked with the projections on the mounting box to firmly hold the mounting box. a mounting box having four side walls (11-14) and a circular projection with an open end on its top side , the mounting box having two laterally spaced rails on each side walls (11-14) ; an L shape beam member having a top horizontal plate with a plurality of in-built nails and slots through which the L shape beam member attached to an installation beam and a vertical plate ; an L shaped bracket formed on one side of the vertical plate and a J shaped bracket formed on its other side, the L shaped bracket and the J shaped bracket having a flange on its top side ; wherein the L shaped bracket and the J shaped bracket slide on the rails on one side wall, and the flange is bent to lock the L shape beam member with the mounting box characterized in that the mounting box has two projections on each bottom side of the mounting box , and the vertical plate having an extended portion at its open end with two slots spaced apart from each other, and the slots on the vertical plate are positioned and locked with the projections on the mounting box to firmly hold the mounting box.