mhurhangee/ep-ind-claims huggingface dataset:
A measurement system for a tank, the tank being configured to contain material received from an aircraft system; the measurement system comprising: a plurality of support mechanisms to support the tank within an aircraft, wherein each of the plurality of support mechanisms comprises a support rod and includes a load measurement sensor; wherein the load measurement sensor comprises a load cell or a strain gauge arranged in each of the support rods; and a weight measurement circuit configured to determine an amount of material contained in the tank in response to the load measurement sensor, the measurement system being characterized in that: the tank is further configured to hang from the plurality of support rods; the weight measurement circuit comprises a sensor conditioner (710, 712, 714, 716) for each load measurement sensor, wherein each signal conditioner (710, 712, 714, 716) is configured to output a built-in test equipment - BITE - status signal, the BITE status signal indicating a faulty load measurement sensor; and wherein the weight measurement circuit is further configured to compensate for the faulty load measurement sensor. a plurality of support mechanisms to support the tank within an aircraft, wherein each of the plurality of support mechanisms comprises a support rod and includes a load measurement sensor; wherein the load measurement sensor comprises a load cell or a strain gauge arranged in each of the support rods; and a weight measurement circuit configured to determine an amount of material contained in the tank in response to the load measurement sensor, the measurement system being characterized in that: the tank is further configured to hang from the plurality of support rods; the weight measurement circuit comprises a sensor conditioner (710, 712, 714, 716) for each load measurement sensor, wherein each signal conditioner (710, 712, 714, 716) is configured to output a built-in test equipment - BITE - status signal, the BITE status signal indicating a faulty load measurement sensor; and wherein the weight measurement circuit is further configured to compensate for the faulty load measurement sensor. the tank is further configured to hang from the plurality of support rods; the weight measurement circuit comprises a sensor conditioner (710, 712, 714, 716) for each load measurement sensor, wherein each signal conditioner (710, 712, 714, 716) is configured to output a built-in test equipment - BITE - status signal, the BITE status signal indicating a faulty load measurement sensor; and wherein the weight measurement circuit is further configured to compensate for the faulty load measurement sensor.
A heater for an image forming apparatus, comprising: a plurality of resistive members, arranged in a first direction; and a first pole-side electrode to connected to one ends of the resistive members in a second direction perpendicular to the first direction and configured to divide the plurality of resistive members into a plurality of blocks to and to cause the plurality of resistive members to generate heat by the block, the first pole-side electrode including a first pole-side first electrode provided in a first block including some of the resistive members arranged successively in the first direction, extending across the one ends of the resistive members in the first block, and connected to the one ends, characterized in that, in the resistive members, in the first block, an amount of heat generation in each of the resistive members disposed at both ends in the first direction is greater than an amount of heat generation in each of the other resistive members; the width of the resistive members in the first direction, positioned at the both ends of each of the blocks to, is set larger than the width of the other resistive members of each of the blocks; and a gap between adjacent ones of the blocks to is larger than a gap between adjacent ones of the resistive members, in the first block. a plurality of resistive members, arranged in a first direction; and a first pole-side electrode to connected to one ends of the resistive members in a second direction perpendicular to the first direction and configured to divide the plurality of resistive members into a plurality of blocks to and to cause the plurality of resistive members to generate heat by the block, the first pole-side electrode including a first pole-side first electrode provided in a first block including some of the resistive members arranged successively in the first direction, extending across the one ends of the resistive members in the first block, and connected to the one ends, characterized in that, in the resistive members, in the first block, an amount of heat generation in each of the resistive members disposed at both ends in the first direction is greater than an amount of heat generation in each of the other resistive members; the width of the resistive members in the first direction, positioned at the both ends of each of the blocks to, is set larger than the width of the other resistive members of each of the blocks; and a gap between adjacent ones of the blocks to is larger than a gap between adjacent ones of the resistive members, in the first block.
An image compensating apparatus comprising: an input unit to receive input of a photo image of which chromaticity is distributed in a non-uniform manner; a Gaussian filtering unit to perform Gaussian filtering on the photo image; a converting unit to convert the photo image on which the Gaussian filtering is performed into a C-M-Y color space; a division-map generating unit to convert the photo image on which Gaussian filtering is performed into an L-Cyb-Crg color space, and generate the chromaticity division-map based on a Cyb-Crg color coordinate value; a calculating unit to calculate average chromaticity of each respective region by using the chromaticity division-map; and a compensating unit to compensate the chromaticity by using a CMY value converted by the converting unit and the average chromaticity of each respective region.. an input unit to receive input of a photo image of which chromaticity is distributed in a non-uniform manner; a Gaussian filtering unit to perform Gaussian filtering on the photo image; a converting unit to convert the photo image on which the Gaussian filtering is performed into a C-M-Y color space; a division-map generating unit to convert the photo image on which Gaussian filtering is performed into an L-Cyb-Crg color space, and generate the chromaticity division-map based on a Cyb-Crg color coordinate value; a calculating unit to calculate average chromaticity of each respective region by using the chromaticity division-map; and a compensating unit to compensate the chromaticity by using a CMY value converted by the converting unit and the average chromaticity of each respective region..
A steel sheet for hot press, comprising: a chemical composition containing, in mass%, C: 0.180 % or more and less than 0.300 %, Mn: 3.50 % or more and less than 11.0 %, Si: 0.01 % to 1.5 %, P: 0.05 % or less, S: 0.05 % or less, Al: 0.005 % to 0.1 %, N: 0.01 % or less, and C group: one or more selected from REM: 0.0005 % to 0.01 %, Ca: 0.0005 % to 0.01 %, and Mg: 0.0005 % to 0.01 %, optionally one or more groups selected from A group: one or more selected from Ni: 0.01 % to 5.0 %, Cu: 0.01 % to 5.0 %, Cr: 0.01 % to 5.0 %, and Mo: 0.01 % to 3.0 %, B group: one or more selected from Ti: 0.005 % to 3.0 %, Nb: 0.005 % to 3.0 %, V: 0.005 % to 3.0 %, and W: 0.005 % to 3.0 %, D group: Sb: 0.002 % to 0.03 %, and E group: B: 0.0005 % to 0.05 %, and with a balance consisting of Fe and inevitable impurities; and a microstructure that includes ferrite and cementite and in which Mnθ/Mnα is 1.4 or more, where Mnα is a Mn concentration of the ferrite and Mnθ is a Mn concentration of the cementite. a chemical composition containing, in mass%, C: 0.180 % or more and less than 0.300 %, Mn: 3.50 % or more and less than 11.0 %, Si: 0.01 % to 1.5 %, P: 0.05 % or less, S: 0.05 % or less, Al: 0.005 % to 0.1 %, N: 0.01 % or less, and C group: one or more selected from REM: 0.0005 % to 0.01 %, Ca: 0.0005 % to 0.01 %, and Mg: 0.0005 % to 0.01 %, optionally one or more groups selected from A group: one or more selected from Ni: 0.01 % to 5.0 %, Cu: 0.01 % to 5.0 %, Cr: 0.01 % to 5.0 %, and Mo: 0.01 % to 3.0 %, B group: one or more selected from Ti: 0.005 % to 3.0 %, Nb: 0.005 % to 3.0 %, V: 0.005 % to 3.0 %, and W: 0.005 % to 3.0 %, D group: Sb: 0.002 % to 0.03 %, and E group: B: 0.0005 % to 0.05 %, and with a balance consisting of Fe and inevitable impurities; and a microstructure that includes ferrite and cementite and in which Mnθ/Mnα is 1.4 or more, where Mnα is a Mn concentration of the ferrite and Mnθ is a Mn concentration of the cementite.
An extension ladder, comprising a ladder leg locking device which comprises a locking pin, a control member, an indication member and a display member, wherein the locking pin is horizontally slidably disposed in a rung of the extension ladder, the control member is pivotally connected to the rung and one end of the control member is engaged with the locking pin, which controls the locking pin to lock or unlock nested upper ladder leg and lower ladder leg of the extension ladder, the display member is fixed to an outer side of the rung and provided with at least two display areas, the control member is provided with a pressing portion which is exposed form a bottom of the rung, the indication member comprises a fixing portion, one end of the fixing portion is fixed to the pressing portion, and the other end of the fixing portion is bent and extended to an outer side of the rung to form an indication portion indicated the display area; and the indication member is moved as the control member or the locking pin moves and indicated on the corresponding display area.
A method of manufacturing a wind turbine blade shell member with a fastening member provided near a root end of the wind turbine blade shell member, the fastening member being suitable for connecting a wind turbine blade comprising said wind turbine blade shell member to a wind turbine hub, the method comprising the steps of: - providing a rigid outer mould; - positioning the fastening member near the end of the rigid outer mould corresponding to the root end of the wind turbine blade; - positioning at least two layers of pre-fabricated sticks (8,10) near the end of the rigid outer mould corresponding to the root end of the wind turbine blade such that pre-fabricated sticks (8,10) surround a substantial longitudinal part of the fastening member when the fastening member is positioned in the wind turbine blade shell member; - positioning one or more layers of pre-fabricated sticks (8,10) in a substantial longitudinal part of the rigid outer mould; thereafter - providing an inner mould in vacuum-tight connection with the rigid outer mould; - evacuating the volume between the outer and the inner moulds (14,16), infusing a curable resin to secure the fastening member to the enclosing pre-fabricated sticks (8,10) and substantially fill empty space between adjacent sticks, and allowing the resin to cure; - de-moulding the wind turbine blade shell member. - providing a rigid outer mould; - positioning the fastening member near the end of the rigid outer mould corresponding to the root end of the wind turbine blade; - positioning at least two layers of pre-fabricated sticks (8,10) near the end of the rigid outer mould corresponding to the root end of the wind turbine blade such that pre-fabricated sticks (8,10) surround a substantial longitudinal part of the fastening member when the fastening member is positioned in the wind turbine blade shell member; - positioning one or more layers of pre-fabricated sticks (8,10) in a substantial longitudinal part of the rigid outer mould; - providing an inner mould in vacuum-tight connection with the rigid outer mould; - evacuating the volume between the outer and the inner moulds (14,16), infusing a curable resin to secure the fastening member to the enclosing pre-fabricated sticks (8,10) and substantially fill empty space between adjacent sticks, and allowing the resin to cure; - de-moulding the wind turbine blade shell member.
Door handle device for a motor vehicle, including a carrier which can be attached to a door or lid of the motor vehicle, a handle body mounted pivotably about an axis of rotation and manually movable, which is designed to be movable from an idle position into an end position via an intermediate position, and a force amplifying device which is designed to generate a resistance force counteracting the movement of the handle body during a movement of the handle body from the idle position until the attainment of the intermediate position, characterized in that the force increasing device includes an elastically deformable force increasing element which generates the resistance force and is fastened to the handle body, a resistance element, which cooperates with the force increasing element and is mounted on the handle body so as to be movable both linearly and rotatably, and a movement element which cooperates with the resistance element and is designed, during a movement of the handle body from the idle position until attainment of the intermediate position, to move the resistance element against the resistance force generated by the force increasing element translationally towards the force increasing element relative to the axis of rotation of the handle body and, during a movement of the handle body from the end position into the idle position, to move the resistance element rotationally relative to an axis of rotation.
A lift link assembly for coupling a baler needle to a lift arm, the lift link assembly comprising: a hollow lift link; a lift bar slidably received by the lift link; and a block fixed to an end of the lift bar and coupled to a frame of the baler needle; characterized by a plate fixed to an end of the lift link; a first clamping bolt for clamping the plate and the block together; and a second clamping bolt for clamping the plate and the block together, the first and second bolts (32, 34) being in tension. a hollow lift link; a lift bar slidably received by the lift link; and a block fixed to an end of the lift bar and coupled to a frame of the baler needle; characterized by a plate fixed to an end of the lift link; a first clamping bolt for clamping the plate and the block together; and a second clamping bolt for clamping the plate and the block together, the first and second bolts (32, 34) being in tension.
Method of producing a pane with at least one electrical connection element, wherein a) solder material is applied to at least one contact surface of the connection element, and the solder material has at least one recess with a flux, b) the connection element is disposed over the solder material on a portion of an electrically conductive structure on a substrate, wherein the solder material is shaped as a platelet and has two sides (10, 11) opposite each other, wherein the solder material is connected to the contact surface of the connection element via one of the two contact sides and wherein the solder material is brought into contact with the electrically conductive structure on the substrate via the other contact side, and c) the connection element is connected to the electrically conductive structure by means of the solder material under input of heat, wherein in process step (a) the solder material is first formed with at least one recess, the flux is then disposed at least in the recess, and the solder material is then disposed on the contact surface of the connection element, or wherein in process step (a) the solder material is first formed, the solder material is then disposed on the contact surface of the connection element, at least one recess is then introduced into the surface of the solder material facing away from the contact surface, and the flux is then disposed at least in the recess. a) solder material is applied to at least one contact surface of the connection element, and the solder material has at least one recess with a flux, b) the connection element is disposed over the solder material on a portion of an electrically conductive structure on a substrate, wherein the solder material is shaped as a platelet and has two sides (10, 11) opposite each other, wherein the solder material is connected to the contact surface of the connection element via one of the two contact sides and wherein the solder material is brought into contact with the electrically conductive structure on the substrate via the other contact side, and c) the connection element is connected to the electrically conductive structure by means of the solder material under input of heat,
Simulator for the training of at least one person, comprising a training room, whose inner delimiting surface is provided with a color that is suitable for chroma keying, wherein the simulator comprises at least one partially transparent head-mounted display (21; 21'), which is provided with two video cameras for stereoscopic images and a head tracker, which enables determination of the viewing direction of the respective wearer, and the simulator further comprises a simulation computing unit with two image generators for stereoscopic illustration of virtual images on the at least one head-mounted display (21; 21'), and the virtual images to be represented can be generated by a video mixer comprising a means for simultaneous mixing of the images of the video cameras of the at least one head-mounted display (21; 21') with computed virtual images in the respective viewing direction, wherein the images of the video cameras may contain at least one area in the color of the inner delimiting surface of the training room and these areas are overlaid with the corresponding virtual images by means of the video mixer.
Device for producing packing units, wherein, from a wide container flow, by means of channel division, containers are converted into a plurality of single-track container flows (4.1 to 4.6), and with at least one compartmenting unit and/or compacter unit for the compartmenting and compacting of a predetermined number of containers, part packing units (5.1, 5.2) are formed and subsequently, in each case, brought together to form the later packing unit, wherein application elements (13, 14) are provided, such that, on at least one of the containers of the packing unit (2; 5.1, 5.2), an adherent or adhesive means and/or an adherent or adhesive application can be applied at least at one contact or touch surface, characterised by a linear transporter, which comprises three sections (10, 11, 12), wherein the first section of the linear transporter comprises three part regions (10.1 to 10.3), wherein, in the first part region (10.1) transport surfaces (16.1 to 16.6) are parallel to one another, wherein the transport surfaces (16.1 to 16.3 and 16.4 to 16.6) in the second part region (10.2) are brought together to form the respective part packing unit (5.1, 5.2), and wherein the respective part packing units (5.1, 5.2) in the third part region (10.3) are aligned transverse to the transport direction and are transported in the direction to the second section of the linear transporter, wherein, in its first and second sections (10, 11), the application elements (13, 14) are provided for the application of adherent or adhesive means, wherein transversedisplaceable head guides are provided for the individual container transport in the first section of the linear transporter, and wherein the second section is configured as a rotating and feed section of part packing units (5.1, 5.2), and wherein the part packing units (5.1, 5.2), aligned in a third section in the transport direction, are brought together to form the total packing unit and are transported in the direction towards a discharge side.
A system, comprising: a current generator that generates a direct current; and a high-charge capacity electrode, coupled to the current generator, that delivers the DC to block conduction in a nerve without generating damaging electrochemical reaction products; wherein the high-charge capacity electrode comprises: an electrically conductive substrate; and a coating covering at least a portion of the substrate; wherein the coating comprises active particles held together by a biocompatible binder material; and wherein the coating provides an electronic double layer capacitor (EDLC) to charge and discharge the DC. a current generator that generates a direct current; and a high-charge capacity electrode, coupled to the current generator, that delivers the DC to block conduction in a nerve without generating damaging electrochemical reaction products; wherein the high-charge capacity electrode comprises: an electrically conductive substrate; and a coating covering at least a portion of the substrate; wherein the coating comprises active particles held together by a biocompatible binder material; and wherein the coating provides an electronic double layer capacitor (EDLC) to charge and discharge the DC. an electrically conductive substrate; and a coating covering at least a portion of the substrate; wherein the coating comprises active particles held together by a biocompatible binder material; and wherein the coating provides an electronic double layer capacitor (EDLC) to charge and discharge the DC.
System for storing an additive and injecting it into the exhaust gases of an internal combustion engine, the said system comprising a reservoir for storing the additive, an injector and a pump for conveying the additive from the reservoir to the injector via an injection duct, the said system also comprising a purge device mounted between the pump and the injection duct, characterized in that the purge device comprises a chamber (52; 72) and moving gear comprising a piston (53, 54; 73, 74) slidably mounted in the chamber, the purge device being designed so that: - the movement of the moving gear in one of the directions of sliding (S1; S11) causes a passage for the additive leading towards the injection duct to open in the chamber, and - the movement of the moving gear in the other direction of sliding (S2; S12) creates suction within the chamber which results in at least some of the additive contained in the injection duct to return to the chamber. - the movement of the moving gear in one of the directions of sliding (S1; S11) causes a passage for the additive leading towards the injection duct to open in the chamber, and - the movement of the moving gear in the other direction of sliding (S2; S12) creates suction within the chamber which results in at least some of the additive contained in the injection duct to return to the chamber.