mhurhangee/ep-ind-claims huggingface dataset:
A load-receiving member of a vehicle for directly receiving a collision load, comprising a frame member of the vehicle and a shock-absorbing mechanism disposed between the load-receiving member and the frame member in order to reduce the collision load applied to the frame member, which shock-absorbing mechanism includes a cylindrical member that is configured to axially receive the collision load applied thereto via the load-receiving member so as to be axially compressed, and a load absorbing member that is received in the cylindrical member so as to be axially compressed with the cylindrical member when the collision load is applied thereto and that is capable of expanding from its compressed condition by a certain amount in a restoring direction when the collision load is released, wherein at least one of a pressing portion of the load-receiving member and a pressing portion of the frame member for axially pressing the load absorbing member when the collision load is applied thereto has a space which a portion of the compressed load absorbing member enters, and characterized in that the load absorbing member comprises a wood member that is received in the cylindrical member while an axis direction of annular rings of the wood member corresponds to an axial direction of the cylindrical member. wherein at least one of a pressing portion of the load-receiving member and a pressing portion of the frame member for axially pressing the load absorbing member when the collision load is applied thereto has a space which a portion of the compressed load absorbing member enters, and characterized in that the load absorbing member comprises a wood member that is received in the cylindrical member while an axis direction of annular rings of the wood member corresponds to an axial direction of the cylindrical member.
Binding apparatus for a round baler in order to bind a pressed bale with a binding yarn (22, 24), having at least one binding yarn guide, at least one binding yarn (22, 24) guided by the binding yarn guide and at least one cutting device for severing the binding yarn (22, 24) after a binding operation, wherein the cutting device comprises a cutting element guide and, formed on the cutting element guide, a cutting element holder to which there is fastened a cutting element which has a cutting edge and which, in order to sever the binding yarn (22, 24), is guided to the binding yarn (22, 24) by the cutting element guide and can be brought into contact with the binding yarn (22, 24), wherein a deflecting edge is formed on the cutting element guide between the cutting element and the binding yarn (22, 24), said deflecting edge displacing the binding yarn (22, 24) in a deflecting movement, with binding yarn tension being built up, before the binding yarn (22, 24) can be brought into contact with the cutting edge, characterized in that the deflecting edge is formed such that the binding yarn (22, 24) is moved along the deflecting edge towards the cutting edge, with binding yarn tension being increasingly built up, wherein the deflecting edge comprises an indentation, by way of which the movement of the binding yarn (22, 24) along the deflecting edge towards the cutting edge can be slowed down, with the binding yarn tension being increasingly built up.
Apparatus for controlling the operation of a motor (1; 34), comprising a signal processor, microcontroller or signal processing module configured at least to: receive signaling containing information about a measured change of a magnetic field created by a magnetic circuit driving a motor (1; 34); and determine corresponding signaling containing information about the speed of rotation of the motor (1; 34), based upon the signaling received a Hall Effect Sensor (6, 36) configured to sense the magnetic flux and provide the signaling in the form of a feedback signal for implementing motor control characterized by being mounted on an external surface of the motor housing and configured to sense some part of the magnetic field that leaves the motor housing, the motor housing is configured or formed with a slot therein that is cut into the motor housing to allow magnetic flux leakage through the motor housing, and the Hall Effect sensor (6; 36) is configured, mounted or placed in relation to the slot to detect the magnetic flux leakage passing through the slot in the motor housing. receive signaling containing information about a measured change of a magnetic field created by a magnetic circuit driving a motor (1; 34); and determine corresponding signaling containing information about the speed of rotation of the motor (1; 34), based upon the signaling received a Hall Effect Sensor (6, 36) configured to sense the magnetic flux and provide the signaling in the form of a feedback signal for implementing motor control characterized by being mounted on an external surface of the motor housing and configured to sense some part of the magnetic field that leaves the motor housing, the motor housing is configured or formed with a slot therein that is cut into the motor housing to allow magnetic flux leakage through the motor housing, and the Hall Effect sensor (6; 36) is configured, mounted or placed in relation to the slot to detect the magnetic flux leakage passing through the slot in the motor housing.
An elevator sill assembly, comprising: a sill plate; at least one support arm secured to the sill plate; a mounting bracket configured to be mounted to an elevator car, the at least one support arm being supported on the mounting bracket to allow the at least one support arm to pivot relative to the mounting bracket; and at least one actuator arm having a portion configured to be contacted by a door of the elevator car to cause movement of the at least one actuator arm relative to the mounting bracket as the door moves into an open position, the movement of the at least one actuator arm causing the at least one support arm to pivot relative to the mounting bracket to thereby cause the sill plate to pivot from a stored position to an actuated position, wherein the at least one support arm pivots about a horizontal pivot axis, characterized in that the at least one actuator arm pivots about a vertical pivot axis. a sill plate; at least one support arm secured to the sill plate; a mounting bracket configured to be mounted to an elevator car, the at least one support arm being supported on the mounting bracket to allow the at least one support arm to pivot relative to the mounting bracket; and at least one actuator arm having a portion configured to be contacted by a door of the elevator car to cause movement of the at least one actuator arm relative to the mounting bracket as the door moves into an open position, the movement of the at least one actuator arm causing the at least one support arm to pivot relative to the mounting bracket to thereby cause the sill plate to pivot from a stored position to an actuated position, wherein the at least one support arm pivots about a horizontal pivot axis, characterized in that the at least one actuator arm pivots about a vertical pivot axis.
A method for printing and automatically cutting a textile sheet, said method comprising: - arranging a textile sheet; - printing a plurality of patterns on said textile sheet; - automatically cutting said plurality of patterns on said textile sheet; wherein printing the plurality of patterns comprises printing markings (23, 23', 24, 24') on said textile sheet, said markings representing useful information for said automatic cutting and/or for treatment of said textile sheet and/or of said cut patterns, and wherein the method comprises detecting said printed markings (23, 23', 24, 24'), obtaining said information from said detected markings and carrying out said automatic cutting and/or said treatment as a function of said obtained information, characterized in that said markings (23, 23', 24, 24') are printed using an ink that is substantially invisible to the human eye and having an emission peak at a wavelength greater than 700nm. - arranging a textile sheet; - printing a plurality of patterns on said textile sheet; - automatically cutting said plurality of patterns on said textile sheet;
A method for safeguarding electrical devices using a continuous analysis of background sound, characterised in that - power is supplied to the system protecting the electrical device, - the correct operation of the system for safeguarding the electrical device is verified, wherein - in the event of incorrect operation of the system, this fact is signalled, preferably by means of a lighting and/or acoustic signal, - in the event of correct operation of the safety system, the power of the safeguarded electrical device is turned on, followed by a continuous analysis of the background sound, in which: - continuous monitoring of background sounds is performed, - sounds with a frequency different from the frequency of human voice are filtered out, - the filtered-out background sounds are compared to the sound patterns of human scream caused by pain and/or fear, - in the event of detecting conformance of the recorded sound with the pattern of human scream caused by pain and/or fear, the power is cut off from the safeguarded electrical device. - power is supplied to the system protecting the electrical device, - the correct operation of the system for safeguarding the electrical device is verified, wherein - in the event of incorrect operation of the system, this fact is signalled, preferably by means of a lighting and/or acoustic signal, - in the event of correct operation of the safety system, the power of the safeguarded electrical device is turned on, followed by a continuous analysis of the background sound, in which: - continuous monitoring of background sounds is performed, - sounds with a frequency different from the frequency of human voice are filtered out, - the filtered-out background sounds are compared to the sound patterns of human scream caused by pain and/or fear, - in the event of detecting conformance of the recorded sound with the pattern of human scream caused by pain and/or fear, the power is cut off from the safeguarded electrical device. - continuous monitoring of background sounds is performed, - sounds with a frequency different from the frequency of human voice are filtered out, - the filtered-out background sounds are compared to the sound patterns of human scream caused by pain and/or fear, - in the event of detecting conformance of the recorded sound with the pattern of human scream caused by pain and/or fear, the power is cut off from the safeguarded electrical device.
A microchannel heat exchanger, comprising: a heat exchanger body including a channel layer stack formed in such a manner that a plurality of high-temperature channel layers provided with a channel for a high-temperature fluid and a plurality of low-temperature channels layers provided with a channel for a low-temperature fluid are alternately stacked, an inlet and an outlet for the high-temperature fluid, and an inlet and an outlet for the low-temperature fluid; and a printed board that is fixed in a stacking direction of the heat exchanger body, and characterised in that the printed board at least installs a plurality of temperature sensors (45A, 45B, 45C, 45D) that are inserted in the stacking direction of the heat exchanger body in such a manner that a sensing point is arranged near each of the inlet and the outlet for the high-temperature fluid and the inlet and the outlet for the low-temperature fluid. a heat exchanger body including a channel layer stack formed in such a manner that a plurality of high-temperature channel layers provided with a channel for a high-temperature fluid and a plurality of low-temperature channels layers provided with a channel for a low-temperature fluid are alternately stacked, an inlet and an outlet for the high-temperature fluid, and an inlet and an outlet for the low-temperature fluid; and a printed board that is fixed in a stacking direction of the heat exchanger body, and characterised in that the printed board at least installs a plurality of temperature sensors (45A, 45B, 45C, 45D) that are inserted in the stacking direction of the heat exchanger body in such a manner that a sensing point is arranged near each of the inlet and the outlet for the high-temperature fluid and the inlet and the outlet for the low-temperature fluid.
A method for ejecting fluids having a viscosity ranging from about 20 mPa-sec to about 100 mPa-sec at 22° C from a micro-fluid ejection head, characterized in that the method comprises steps of: applying a heat signal to the ejection head for a first period of time to heat the ejection head to a first temperature that is about 20 °C above a steady state fluid ejection temperature for continuous or intermittent fluid ejection from the ejection head; and applying a firing signal to ejection heaters on the ejection head during which fluid ejection from the ejection head occurs. applying a heat signal to the ejection head for a first period of time to heat the ejection head to a first temperature that is about 20 °C above a steady state fluid ejection temperature for continuous or intermittent fluid ejection from the ejection head; and applying a firing signal to ejection heaters on the ejection head during which fluid ejection from the ejection head occurs.
A video coder for encoding the data in a video frame, the video coder comprising a noise filtering module and being characterized in that: the noise filtering module operates on transformed frame data of a reconstructed video frame in an overcomplete transform domain and filters noise encountered during video encoding in the overcomplete transform domain, the noise filter module performing signal estimation, as part of a denoising process, on a plurality of transform coefficients generated by applying an overcomplete transform to the reconstructed frame data by estimating signal power for each of the plurality of transform coefficients (702, 802), comparing the signal power of said each coefficient with at least one threshold (703, 803), and setting the value of said each transform coefficient based, at least in part, on results of comparing the signal power to the at least one threshold (704, 705; 804, 805, 808), wherein setting the value of said each transform coefficient based, at least in part, on results of comparing the signal power to the at least one threshold comprises, for said each transform coefficient, setting a coefficient to zero if the signal power of the coefficient is less than a first threshold, setting the coefficient to a value based on signal power, noise power and the first threshold if the signal power of the coefficient is not less than a first threshold and is less than a second threshold, and leaving the coefficient unchanged if the signal power of the coefficient is not less than a first threshold and is not less than a second threshold. the noise filtering module operates on transformed frame data of a reconstructed video frame in an overcomplete transform domain and filters noise encountered during video encoding in the overcomplete transform domain, the noise filter module performing signal estimation, as part of a denoising process, on a plurality of transform coefficients generated by applying an overcomplete transform to the reconstructed frame data by estimating signal power for each of the plurality of transform coefficients (702, 802), comparing the signal power of said each coefficient with at least one threshold (703, 803), and setting the value of said each transform coefficient based, at least in part, on results of comparing the signal power to the at least one threshold (704, 705; 804, 805, 808), wherein setting the value of said each transform coefficient based, at least in part, on results of comparing the signal power to the at least one threshold comprises, for said each transform coefficient, setting a coefficient to zero if the signal power of the coefficient is less than a first threshold, setting the coefficient to a value based on signal power, noise power and the first threshold if the signal power of the coefficient is not less than a first threshold and is less than a second threshold, and leaving the coefficient unchanged if the signal power of the coefficient is not less than a first threshold and is not less than a second threshold.
Water-bearing household appliance comprising a water supply system (8, 9), a treatment compartment for receiving items to be treated, a control device and an atomisation device which can be controlled with the control device, wherein the atomisation device comprises a water container for receiving water, an atomiser for atomising water present in the water container, and a heating device, which is arranged in the water container, and wherein the household appliance is a household appliance for cleaning the items, in particular a washing machine, a washer-dryer or a dishwasher, characterised in that the atomiser is arranged between the heating device and a mist channel.
A compressor for refrigeration and air conditioning, characterized by a refrigerator oil containing a polyol ester, which is the base oil of the refrigerator oil, the polyol ester having a structural unit represented by the following general formula: wherein R1 and R2 each independently represent a linear or branched alkyl group; and n represents an integer of 2 or more, and a refrigerant containing difluoromethane are enclosed, and the polyol ester is composed of only one or both of a cyclic polyol ester, which is obtained by cyclically polymerizing a molecular chain having the structural unit, and a crosslinked polyol ester, which is obtained by crosslinking molecular chains having the structural unit with each other through a crosslinkable structural unit polymerized with the structural unit, and in which n in the structural unit is 3 or more and 10 or less, and wherein the kinematic viscosity of the refrigerator oil at 40°C is 30 mm 2 /s or more and 100 mm 2 /s or less.
A signal branch, in particular a turnstile branch, for use in a communication system, in particular in a reflector antenna, for transmitting microwave signals, comprising: - a common signal waveguide for transmitting a transmission signal and a reception signal, including a first end and a second end, and an exterior and an interior (5, 6); - a plurality of reception signal waveguides (11, 12, 13, 14) for transmitting the reception signal, the reception signal waveguides being situated in a receiving port at the second end of the signal waveguide and extending in the receiving port in the axial direction of the common signal waveguide, away from the signal waveguide; - four transmission signal waveguides (7, 8, 9, 10) for feeding the transmission signal, the transmission signal waveguides (7, 8, 9, 10) lying in a plane, distributed in the form of a cross at the second end on the exterior of the common signal waveguide, and opening into the common signal waveguide, characterized in that - a cone extending in the direction of the first end is provided in the common signal wave guide on the second end; - the reception signal waveguides (11, 12, 13, 14) are separated from one another in each case by uniformly distributed webs (20, 21, 22, 23), the webs (20, 21, 22, 23) radially extending from a base of the cone and into the receiving port. - a common signal waveguide for transmitting a transmission signal and a reception signal, including a first end and a second end, and an exterior and an interior (5, 6); - a plurality of reception signal waveguides (11, 12, 13, 14) for transmitting the reception signal, the reception signal waveguides being situated in a receiving port at the second end of the signal waveguide and extending in the receiving port in the axial direction of the common signal waveguide, away from the signal waveguide; - four transmission signal waveguides (7, 8, 9, 10) for feeding the transmission signal, the transmission signal waveguides (7, 8, 9, 10) lying in a plane, distributed in the form of a cross at the second end on the exterior of the common signal waveguide, and opening into the common signal waveguide, characterized in that - a cone extending in the direction of the first end is provided in the common signal wave guide on the second end; - the reception signal waveguides (11, 12, 13, 14) are separated from one another in each case by uniformly distributed webs (20, 21, 22, 23), the webs (20, 21, 22, 23) radially extending from a base of the cone and into the receiving port.
A continuously transposed conductor comprising a plurality of individual, electrically insulated single conductors, wherein each single conductor has a rectangular cross section with edges (13, 15) extending along said single conductor, and wherein in each case two or more single conductors, which are arranged next to each other, are combined to single conductor groups and the single conductor groups are transposed, wherein the edges (13, 15) of each single conductor have been rounded, characterized in that the rounding of at least one edge of a single conductor of a single conductor group, which delimits a contact surface between two single conductors of this single conductor group, which are lying next to each other, is realized with a smaller radius (r 2) than the radii (r 1) of the rounded outer edges of the single conductor group.
A contactless smart ring device, which contains a microchip formed on a substrate, and a frame antenna, the frame antenna having leads connected with leads of the microchip, a capacitor placed in parallel with the frame antenna and forming with the latter the antenna of the contactless smart device in the form of a resonance circuit, characterized in that the substrate is rolled up in the form of a ring, an outer surface of the substrate carrying an electrically conductive strip that forms the frame antenna, the substrate together with the microchip being coated with a protective coating that forms a hermetically sealed body, and in that an end of an inner coil of the substrate carries a projection folded towards an outer coil of the substrate, and an electrically conductive strip deposited on a surface of the projection is electrically connected with the electrically conductive strip deposited on the end of the outer coil of the substrate, wherein disks of the capacitor are formed by expanded areas of the electrically conductive material on both sides of the electrically conductive strip under the projection at the end of the inner coil of the substrate. the substrate is rolled up in the form of a ring, an outer surface of the substrate carrying an electrically conductive strip that forms the frame antenna, the substrate together with the microchip being coated with a protective coating that forms a hermetically sealed body, and in that an end of an inner coil of the substrate carries a projection folded towards an outer coil of the substrate, and an electrically conductive strip deposited on a surface of the projection is electrically connected with the electrically conductive strip deposited on the end of the outer coil of the substrate, wherein disks of the capacitor are formed by expanded areas of the electrically conductive material on both sides of the electrically conductive strip under the projection at the end of the inner coil of the substrate.