mhurhangee/ep-ind-claims huggingface dataset:
A railway track condition monitoring system for detecting a partial or complete disruption of a rail of the railway track, comprising a plurality of sensors installed on a rail of the track and spaced by a predetermined distance from each other, the sensors having respective signal acquisition and recording means for the acquisition and recording of an acoustic signal being generated by an approaching train and propagated by the rail or by a ground carrying the rail, a signal transfer means for the transfer of an acquired and recorded signal to the passing train by wireless transfer at the time of passing of the train in proximity to sensors, a signal analyzing means for analysing transferred ones of the acquired and recorded signal on-board the passing train, and means adapted to cross-correlating the signals from a first sensor (s n) and an adjacent second sensor (s n+m) and detecting the partial or complete disruption of a rail of the railway track.
A storage cabinet comprising: a first storage section configured to store a supply component which is at least one of an article which is provided on a board by a board work machine configured to perform predetermined board work on the board and the board before the article is provided thereon; a second storage section configured to store a device which is detachably provided on the board work machine for use in the board work; a delivery section configured to deliver the supply component and the device in an associated fashion which are used for a predetermined unit production included in a production plan which prescribes an order of unit productions which each specify a production of an identical type of board products using the board work machine; and a moving section configured to move the supply component stored in the first storage section to the delivery section and moves the device stored in the second storage section to the delivery section, wherein the device and the supply component are accommodated together in an accommodation case. a first storage section configured to store a supply component which is at least one of an article which is provided on a board by a board work machine configured to perform predetermined board work on the board and the board before the article is provided thereon; a second storage section configured to store a device which is detachably provided on the board work machine for use in the board work; a delivery section configured to deliver the supply component and the device in an associated fashion which are used for a predetermined unit production included in a production plan which prescribes an order of unit productions which each specify a production of an identical type of board products using the board work machine; and a moving section configured to move the supply component stored in the first storage section to the delivery section and moves the device stored in the second storage section to the delivery section, wherein the device and the supply component are accommodated together in an accommodation case.
Energy absorber with a force level control for an aircraft, comprising: a housing; an adjustment element; a cover plate arranged within the housing; wherein the energy absorber has an energy absorber element for absorption of an acceleration energy by plastic deformation, which is bent over and arranged at least partially within the housing between the cover plate and a cover layer of the housing; wherein the plastic deformation of the energy absorber element takes place within the housing; wherein, via the adjustment element, a bending radius of the energy absorber element is continuously adjustable in the housing; wherein the cover plate is, by actuation of the adjustment element, displaceable in the direction of the energy absorber element, so that the cover plate presses on the energy absorber element more strongly. a housing; an adjustment element; a cover plate arranged within the housing; wherein the energy absorber has an energy absorber element for absorption of an acceleration energy by plastic deformation, which is bent over and arranged at least partially within the housing between the cover plate and a cover layer of the housing; wherein the plastic deformation of the energy absorber element takes place within the housing; wherein, via the adjustment element, a bending radius of the energy absorber element is continuously adjustable in the housing; wherein the cover plate is, by actuation of the adjustment element, displaceable in the direction of the energy absorber element, so that the cover plate presses on the energy absorber element more strongly.
A reactive sorbent comprising: an activated clay obtained by treating original soil containing montmorillonite with either one or both of sulfuric acid and nitric acid; and an inorganic mixed formulation, wherein the inorganic mixed formulation comprises: at least one sorbent selected from the group consisting of activated carbon, zeolite 13X, γ-alumina and silica; and at least one decomposer which is zirconium hydroxide; an activated clay obtained by treating original soil containing montmorillonite with either one or both of sulfuric acid and nitric acid; and an inorganic mixed formulation, wherein the inorganic mixed formulation comprises: at least one sorbent selected from the group consisting of activated carbon, zeolite 13X, γ-alumina and silica; and at least one decomposer which is zirconium hydroxide; at least one sorbent selected from the group consisting of activated carbon, zeolite 13X, γ-alumina and silica; and at least one decomposer which is zirconium hydroxide;
A precast pavement slab assembly for a route for vehicles driving or standing on a surface of the route, in particular for road automobiles, wherein: - the pavement slab assembly consists at least partially of pavement material, - the pavement slab assembly comprises a cable bearing element (20, 30) adapted to position and/or to hold a plurality of line sections of one or more electric lines (2, 2a, 2b, 2c), - the electric line or lines (2, 2a, 2b, 2c) extend(s) along and/or under the surface of the pavement slab assembly, - wherein the cable bearing element (20, 30) is embedded in the pavement material of the pavement slab assembly, - the cable bearing element (20, 30) is arranged within the pavement slab assembly such that the cable bearing element (20, 30) is enclosed by the pavement material, characterized in that - the cable bearing element or at least one subelement (20d, 20e, 20f, 20g, 20h, 20i) of the cable bearing element has at least one void. - the pavement slab assembly consists at least partially of pavement material, - the pavement slab assembly comprises a cable bearing element (20, 30) adapted to position and/or to hold a plurality of line sections of one or more electric lines (2, 2a, 2b, 2c), - the electric line or lines (2, 2a, 2b, 2c) extend(s) along and/or under the surface of the pavement slab assembly, - wherein the cable bearing element (20, 30) is embedded in the pavement material of the pavement slab assembly, - the cable bearing element (20, 30) is arranged within the pavement slab assembly such that the cable bearing element (20, 30) is enclosed by the pavement material, - the cable bearing element or at least one subelement (20d, 20e, 20f, 20g, 20h, 20i) of the cable bearing element has at least one void.
Prosthetic porous knit based on a monofilament of a biocompatible polymer material, characterized in that the pattern followed for the knitting of said monofilament on a knitting machine having two guide bars (B1, B2) is the following, according to the ISO 11676 standard: - Bar B1: 1.2/4.5/4.3/4.5/4.3/1.0/1.2/1.0// - Bar B2: 4.3/1.0/1.2/1.0/1.2/4.5/4.3/4.5// - Bar B1: 1.2/4.5/4.3/4.5/4.3/1.0/1.2/1.0// - Bar B2: 4.3/1.0/1.2/1.0/1.2/4.5/4.3/4.5//
A hearing device comprising a microphone for provision of an audio signal in response to ambient sound received at the microphone, a signal processor that is adapted to process the audio signal in accordance with a predetermined signal processing algorithm to generate a processed audio signal, a first subtractor having a first input that is connected for reception of the processed audio signal and a second input and an output for provision of a first combined audio signal that is equal to the signal received at the first input minus the signal received at the second input of the first subtractor, a receiver connected for reception of the first combined audio signal for converting the combined audio signal into an output sound signal for emission towards an eardrum of a user, a housing that is adapted to be positioned in an ear canal of a user of the hearing device and accommodating an ear canal microphone that is positioned in the housing for provision of an ear canal audio signal in response to an ear canal sound pressure, when the housing is positioned in its intended operating position in the ear canal, a second subtractor having a first input that is connected for reception of the ear canal audio signal and a second input and an output for provision of a second combined audio signal that is equal to the difference between the signal received at the first input and the signal received at the second input of the second subtractor, a first filter having an input that is connected for reception of the second combined audio signal for provision of a filtered second combined audio signal to the second input of the first subtractor, and a second filter having an input that is connected for reception of the processed audio signal generated by the signal processor and an output for provision of a filtered processed audio signal to the second input of the second subtractor characterized in that the signal processor and the second filter is adapted for operation in blocks of samples, the first filter is adapted to perform filtering sequentially sample by sample, and the second filter has filter coefficients which are adapted so that the difference between the ear canal audio signal and the output of the second filter is minimized.
A computing device, comprising: first and second portions (102, 104); a hinge shaft that is fixedly secured to the first portion and rotationally secured to the second portion; the second portion defining a first contact surface spaced apart from a second contact surface; and, multiple friction clips friction fit around the hinge shaft characterized in that the multiple friction clips rotate with the hinge shaft between the first contact surface and the second contact surface, individual friction clips having different free ranges of rotation as defined by the first contact surface and the second contact surface; and rotation of the hinge shaft beyond the free range of rotation of an individual friction clip causes slippage between the hinge shaft and the individual friction clip. first and second portions (102, 104); a hinge shaft that is fixedly secured to the first portion and rotationally secured to the second portion; the second portion defining a first contact surface spaced apart from a second contact surface; and, multiple friction clips friction fit around the hinge shaft characterized in that the multiple friction clips rotate with the hinge shaft between the first contact surface and the second contact surface, individual friction clips having different free ranges of rotation as defined by the first contact surface and the second contact surface; and rotation of the hinge shaft beyond the free range of rotation of an individual friction clip causes slippage between the hinge shaft and the individual friction clip.
The use of whey protein micelles in combination with a source of casein for controlling the viscosity of a liquid or semi-liquid spoonable nutritional composition comprising 12 to 20 weight % total protein, the composition preferably having a pH of 6 to 8, wherein the obtained spoonable nutritional composition is a liquid or semi-liquid composition having a viscosity of between 400 and 4000 mPa.s at 20°C measured at a shear rate of 100 s -1.
An abrasive belt polishing finisher comprising a finishing wheel transform mechanism, whereas the finishing wheel transform mechanism includes a motor and a connection support, the central section of the connection support is fixedly connected with the output shaft of the motor, several self-rotable support finishing wheels are provided around the connection support, the curve surface of the rim of each of the support finishing wheels has a different curvature, each support finishing wheel is distributed on the same circle centered on the output shaft of the motor, and the connection support is driven by the motor into rotation to press and position one of the support finishing wheels against the back of the abrasive belt, characterized in that it further comprises a frame, a driving wheel and a driven wheel provided on the frame, and an abrasive belt covered on the driving wheel and the driven wheel, a driving mechanism connected with the finishing wheel transform mechanism is further provided on the frame, the connection support in the finishing wheel transform mechanism could move between a first position and a second position along the axis of the support finishing wheels, in the first position, the driving mechanism drives the connection support in movement to disengage the support finishing wheels from the abrasive belt and locate the support finishing wheels out of an area surrounded by the abrasive belt, and in the second position, the driving mechanism drives the connection support to move into the area surrounded by the abrasive belt and makes the support finishing wheels right toward the back of the abrasive belt, and the support finishing wheels could be in contact with the abrasive belt driven by the finishing wheel transform mechanism.
A component mounting machine comprising: a mounting head; a suction nozzle which is held on the mounting head that sucks and mounts a supplied component to an object; and a nozzle orientation change member, wherein the suction nozzle includes a nozzle holder section which is held on the mounting head and a nozzle section adapted to suck the component and swingably provided on the nozzle holder section, and the nozzle section is configured to suck the component from above in a state in which an orientation of the nozzle section is the downward orientation in a component suction operation, characterized in that the component mounting machine is configured to change the orientation of the nozzle section by 90° to the downward orientation or a lateral orientation by swinging the nozzle section by moving the mounting head horizontally or downwardly while contacting the nozzle section with the nozzle orientation change member, and to mount the component on the object in a state in which the orientation of the component that is sucked by the nozzle section is set to the lateral orientation by the nozzle section the orientation of which is changed by 90° to the lateral orientation by swinging the nozzle section in the component mounting operation. a mounting head; a suction nozzle which is held on the mounting head that sucks and mounts a supplied component to an object; and a nozzle orientation change member, wherein the suction nozzle includes a nozzle holder section which is held on the mounting head and a nozzle section adapted to suck the component and swingably provided on the nozzle holder section, and the nozzle section is configured to suck the component from above in a state in which an orientation of the nozzle section is the downward orientation in a component suction operation, characterized in that the component mounting machine is configured to change the orientation of the nozzle section by 90° to the downward orientation or a lateral orientation by swinging the nozzle section by moving the mounting head horizontally or downwardly while contacting the nozzle section with the nozzle orientation change member, and to mount the component on the object in a state in which the orientation of the component that is sucked by the nozzle section is set to the lateral orientation by the nozzle section the orientation of which is changed by 90° to the lateral orientation by swinging the nozzle section in the component mounting operation.
A turf surface, wherein the turf surface comprises one or more natural turf portions comprising natural grass plants and at least one hybrid turf portion comprising an artificial turf visual marking element and the natural grass plants; wherein the artificial turf visual marking element comprises: - an artificial turf backing, wherein the artificial turf backing is divided into at least one visual marking region and a structural support region at least partially surrounding each of the at least one visual marking region, wherein the artificial turf backing comprises holes throughout the visual marking region, wherein the artificial turf backing comprises the holes throughout the structural support region, wherein the natural grass plants of the hybrid turf portion comprise roots growing through the holes; - contrasting artificial turf fibers attached to the artificial turf backing only within the visual marking region, wherein the contrasting artificial turf fibers provide a visual contrast to the natural grass plants within the visual marking region and the support region. - an artificial turf backing, wherein the artificial turf backing is divided into at least one visual marking region and a structural support region at least partially surrounding each of the at least one visual marking region, wherein the artificial turf backing comprises holes throughout the visual marking region, wherein the artificial turf backing comprises the holes throughout the structural support region, wherein the natural grass plants of the hybrid turf portion comprise roots growing through the holes; - contrasting artificial turf fibers attached to the artificial turf backing only within the visual marking region, wherein the contrasting artificial turf fibers provide a visual contrast to the natural grass plants within the visual marking region and the support region.
Use of a feeder insert (24, 24'), having a volumetric center of gravity which is offset in relation to the opening axis of the passage opening of said feeder insert (24, 24'), in the manufacture of a casting mold having a vertical mold separation and a feeder insert (24, 24') which for dense feeding of the mold cavity during the casting procedure is attached to the casting mold, wherein the feeder insert (24, 24') is positioned in a prefabricated mold part (20, 22, 34) of the casting mold such that the opening axis of said feeder insert (24, 24') runs below the volumetric center of gravity of the latter.
Use of an aminosilane as stabilizer for an adhesive, sealant or coating composition, where the aminosilane has at least one secondary amino group, and where the stabilizer increases the thermal stability of the composition in the fully cured state.
An iron-based sprayed coating for coating a bore inner surface of a cylinder block for an internal combustion engine, wherein a surface of the coating contains pits, and the amount of the pits is within a range of 0.01% to 0.21%, wherein the amount of pits means a total sum (percentage) of an area occupied by all the pits present in a unit coating surface area when observing the sprayed coating by plane observation; an average roughness Ra of the coating surface is within a range of 0.01 μm to 0.15 μm; the iron-based sprayed coating has pores, and whose cross section porosity is within a range of 0.01% to 0.75%, wherein the cross-section porosity means a total sum (percentage) of an area occupied by all the pores present in the unit cross-section area when observing the sprayed coating as a cross-section; an average hardness of the iron-based sprayed coating is within a range of HV280 to HV500; and the iron-based sprayed coating, comprises: iron as its main component; and carbon in an amount of 0.05 mass% to 0.25 mass%. a surface of the coating contains pits, and the amount of the pits is within a range of 0.01% to 0.21%, wherein the amount of pits means a total sum (percentage) of an area occupied by all the pits present in a unit coating surface area when observing the sprayed coating by plane observation; an average roughness Ra of the coating surface is within a range of 0.01 μm to 0.15 μm; the iron-based sprayed coating has pores, and whose cross section porosity is within a range of 0.01% to 0.75%, wherein the cross-section porosity means a total sum (percentage) of an area occupied by all the pores present in the unit cross-section area when observing the sprayed coating as a cross-section; an average hardness of the iron-based sprayed coating is within a range of HV280 to HV500; and the iron-based sprayed coating, comprises: iron as its main component; and carbon in an amount of 0.05 mass% to 0.25 mass%.
A vehicle-sensitive sensor for a self-locking belt retractor, comprising - a ball-shaped sensor mass, - a sensor housing comprising a nest, in which the sensor mass is moveable and kept, and - a sensor lever comprising - a locking pawl which is adapted to engage in a steering disc of the belt retractor, - a resting pin which protrudes through the nest, and - a bearing portion, - wherein the bearing portion of the sensor lever is pivot-mounted at a bearing support of the sensor housing creating a pivot axis, - wherein the sensor lever is adapted to pivot about the pivot axis and to engage the locking pawl by force applied to the mass of the sensor lever at its center of gravity when the sensor mass is moved away from the resting pin, characterized in that - in a mounting position the sensor lever has two sections separated by a vertical plane through the pivot axis, wherein - a first section is on a first side of the vertical plane and a second section is on a second side opposite to the first side, wherein - the resting pin is in the first section of the sensor lever, and - the locking pawl and the center of gravity of the sensor lever are in the second section. - a ball-shaped sensor mass, - a sensor housing comprising a nest, in which the sensor mass is moveable and kept, and - a sensor lever comprising - a locking pawl which is adapted to engage in a steering disc of the belt retractor, - a resting pin which protrudes through the nest, and - a bearing portion, - a locking pawl which is adapted to engage in a steering disc of the belt retractor, - a resting pin which protrudes through the nest, and - a bearing portion, - wherein the bearing portion of the sensor lever is pivot-mounted at a bearing support of the sensor housing creating a pivot axis, - wherein the sensor lever is adapted to pivot about the pivot axis and to engage the locking pawl by force applied to the mass of the sensor lever at its center of gravity when the sensor mass is moved away from the resting pin, - in a mounting position the sensor lever has two sections separated by a vertical plane through the pivot axis, wherein - a first section is on a first side of the vertical plane and a second section is on a second side opposite to the first side, wherein - the resting pin is in the first section of the sensor lever, and - the locking pawl and the center of gravity of the sensor lever are in the second section.