mhurhangee/patent-ind-claim-en huggingface dataset:
Bottle attachment for handling liquids with - a cylinder-piston arrangement for precisely taking up and dispensing partial volumes of liquid, having a cylinder and a piston running in a sealedoff manner in the cylinder , - a displacement measuring strip , - a sensor arrangement with a sensor aligned with the measuring strip and separated from the measuring strip only by a narrow gap, the sensor arrangement being arranged in a receiving pocket which is completely closed towards the measuring strip , - an indicator for the quantity of liquid handled or to be handled, and - an electronic evaluation circuit for evaluating the output signals of the sensor , characterized in that the piston has a piston rod extending upwards out of the cylinder , in that the displacement measuring strip is arranged directly on the piston rod and extends axially in the direction of movement of the piston rod , and that the sensor arrangement is arranged in a fixed position in the device adjacent to the piston rod . - a cylinder-piston arrangement for precisely taking up and dispensing partial volumes of liquid, having a cylinder and a piston running in a sealedoff manner in the cylinder , - a displacement measuring strip , - a sensor arrangement with a sensor aligned with the measuring strip and separated from the measuring strip only by a narrow gap, the sensor arrangement being arranged in a receiving pocket which is completely closed towards the measuring strip , - an indicator for the quantity of liquid handled or to be handled, and - an electronic evaluation circuit for evaluating the output signals of the sensor , the piston has a piston rod extending upwards out of the cylinder , in that the displacement measuring strip is arranged directly on the piston rod and extends axially in the direction of movement of the piston rod , and that the sensor arrangement is arranged in a fixed position in the device adjacent to the piston rod .
An assembly comprising: a wheel configured to rotate around a wheel axis (A); a brake system comprising: a disc stack comprising a rotor disc and a stator disc , wherein the rotor disc is rotationally coupled to the wheel , and wherein the wheel is configured to rotate relative to the stator disc ; and an actuator defining an actuator housing and configured to compress the disc stack , wherein the brake system is configured to compress the disc stack by limiting the linear movement of the disc stack by exerting a reaction force on the disc stack when the actuator compresses the disc stack , and wherein a portion of the brake system is configured to linearly deform when the brake system exerts the reaction force; and a mechanical stop configured to reduce the reaction force exerted by the brake system when the linear deformation of the portion of the brake system causes the mechanical stop to encounter the brake system , such that the mechanical stop limits a linear displacement of the disc stack relative to the actuator housing, characterized in that the mechanical stop is rotationally coupled to the wheel . a wheel configured to rotate around a wheel axis (A); a brake system comprising: a disc stack comprising a rotor disc and a stator disc , wherein the rotor disc is rotationally coupled to the wheel , and wherein the wheel is configured to rotate relative to the stator disc ; and an actuator defining an actuator housing and configured to compress the disc stack , wherein the brake system is configured to compress the disc stack by limiting the linear movement of the disc stack by exerting a reaction force on the disc stack when the actuator compresses the disc stack , and wherein a portion of the brake system is configured to linearly deform when the brake system exerts the reaction force; and a disc stack comprising a rotor disc and a stator disc , wherein the rotor disc is rotationally coupled to the wheel , and wherein the wheel is configured to rotate relative to the stator disc ; and an actuator defining an actuator housing and configured to compress the disc stack , wherein the brake system is configured to compress the disc stack by limiting the linear movement of the disc stack by exerting a reaction force on the disc stack when the actuator compresses the disc stack , and wherein a portion of the brake system is configured to linearly deform when the brake system exerts the reaction force; and a mechanical stop configured to reduce the reaction force exerted by the brake system when the linear deformation of the portion of the brake system causes the mechanical stop to encounter the brake system , such that the mechanical stop limits a linear displacement of the disc stack relative to the actuator housing, characterized in that the mechanical stop is rotationally coupled to the wheel .
Operating device for a household appliance , which has a recessed holder which has a surface and comprises a separate operating element , which has a lower side and with this can be positioned detachably in the holder and in order to set operating conditions of the household appliance can be freely moved in the holder relative to the holder , wherein the surface is embodied to be concave at least in regions and the lower side is embodied to be convex at least in regions and is adjusted to the curvature of the concave surface , and the operating element is free rocking and can be moved rotatably in the holder , characterised in that at least one light outlet region is embodied in the region of the surface of the holder , by way of which light can be coupled in at least one light inlet region embodied on the lower side of the operating element and the light outlet region is embodied in the manner of a ring about the minimum of the surface .
A sensor , comprising a first electrode and a second electrode ; and an infrared photoelectric conversion layer between the first electrode and the second electrode, the infrared photoelectric conversion layer being configured to absorb light in at least a portion of an infrared wavelength spectrum and convert the absorbed light into an electrical signal, wherein the infrared photoelectric conversion layer includes a first material having a maximum absorption wavelength in the infrared wavelength spectrum, a second material forming a pn junction with the first material, and a third material being an organic material and having an energy band gap greater than an energy band gap of the first material by greater than or equal to 1.0 eV, wherein the first material, the second material, and the third material are different from each other, wherein each of the first material, the second material, and the third material is a non-polymeric material, and characterized in that the infrared photoelectric conversion layer comprises a mixture of the first material, the second material, and the third material. an infrared photoelectric conversion layer between the first electrode and the second electrode, the infrared photoelectric conversion layer being configured to absorb light in at least a portion of an infrared wavelength spectrum and convert the absorbed light into an electrical signal, wherein the infrared photoelectric conversion layer includes a first material having a maximum absorption wavelength in the infrared wavelength spectrum, a second material forming a pn junction with the first material, and a third material being an organic material and having an energy band gap greater than an energy band gap of the first material by greater than or equal to 1.0 eV, a first material having a maximum absorption wavelength in the infrared wavelength spectrum, a second material forming a pn junction with the first material, and a third material being an organic material and having an energy band gap greater than an energy band gap of the first material by greater than or equal to 1.0 eV, wherein the first material, the second material, and the third material are different from each other, wherein each of the first material, the second material, and the third material is a non-polymeric material, and characterized in that the infrared photoelectric conversion layer comprises a mixture of the first material, the second material, and the third material.
An apparatus for detecting anti-skimming electromagnetic interference from an electromagnetic interference source to be tested, the apparatus comprising: a controller , a magnetic strip signal generating module , an electromagnetic interference receiver , a signal combining module and a magnetic strip decoding module ; the magnetic strip signal generating module is connected to the controller and is configured to generate an original magnetic strip signal from original information of the card number of a magnetic card and send the original magnetic strip signal to the signal combining module ; the electromagnetic interference receiver is configured to acquire the interference signal generated by the electromagnetic interference source to be tested and send the interference signal to the signal combining module ; the signal combining module is connected to the magnetic strip signal generating module and the electromagnetic interference receiver respectively, and is configured to interfere the original magnetic strip signal with the interference signal received so as to acquire an interfered magnetic strip signal and send the interfered magnetic strip signal to the magnetic strip decoding module ; the magnetic strip decoding module is connected to the signal combining module , and is configured to receive the interfered magnetic strip signal, decode the interfered magnetic strip signal to obtain decoded information of the card number of the magnetic card and then send the decoded information of the card number of the magnetic card to the controller ; the controller is connected to the magnetic strip decoding module , and is configured to receive the decoded information of the card number of the magnetic card and determine whether the original information of the card number of the magnetic card corresponding to the original magnetic strip signal is consistent with the decoded information of the card number of the magnetic card; if so, generating a first test result that the electromagnetic interference source is unqualified to satisfy a magnetic card reading device's requirement for electromagnetic interference, otherwise, generating a second test result that the electromagnetic interference source is qualified to satisfy the magnetic card reading device's requirement for electromagnetic interference.
A method, comprising: at a computer system with a display, a housing, and an attachment mechanism: detecting attachment of an accessory to the computer system, characterized in that : attaching the accessory causes the accessory to have a predetermined orientation relative to the attachment mechanism; and in response to detecting the attachment of the accessory to the computer system: in accordance with a determination that the accessory is a first accessory with first physical dimensions, displaying, on the display, a first visual indication that the accessory has been attached to the computer system, wherein the first visual indication includes a first graphical element having a first graphical dimension that indicates at least one property of the first physical dimensions of the first accessory; and in accordance with a determination that the accessory is a second accessory with second physical dimensions that are different from the first physical dimensions, displaying, on the display a second visual indication that the accessory has been attached to the computer system, wherein: the second visual indication includes a second graphical element having a second graphical dimension that indicates at least one property of the second physical dimensions of the second accessory; and the second graphical element is different from the first graphical element. in accordance with a determination that the accessory is a first accessory with first physical dimensions, displaying, on the display, a first visual indication that the accessory has been attached to the computer system, wherein the first visual indication includes a first graphical element having a first graphical dimension that indicates at least one property of the first physical dimensions of the first accessory; and in accordance with a determination that the accessory is a second accessory with second physical dimensions that are different from the first physical dimensions, displaying, on the display a second visual indication that the accessory has been attached to the computer system, wherein: the second visual indication includes a second graphical element having a second graphical dimension that indicates at least one property of the second physical dimensions of the second accessory; and the second graphical element is different from the first graphical element. the second visual indication includes a second graphical element having a second graphical dimension that indicates at least one property of the second physical dimensions of the second accessory; and the second graphical element is different from the first graphical element.
Delivering tap for delivering liquids from a container , said delivering tap comprising: a cam seal ; a plug ; - a main body comprising a connecting element (3.20) having fitting means (3.1) for connecting to the container, and a supporting body (3.21) adapted to be closed by said plug , said plug cooperating with a cam seal separated from the supporting body (3.21), a rotation of the plug having a linear movement effect of the plug itself, said supporting body (3.21) comprising a first opening (3.2) for exiting liquid, and sealing means (3.3) cooperating with the first opening (3.2) and adapted to be connected to the plug , said supporting body (3.21) further comprising external guiding means (3.7) obtained on its external surface and adapted to guide the plug in the opening and closing steps of the plug cooperating with a cam profile; - wherein said plug comprises a central cylinder (2.3) having lower sealing means (2.1) obtained at its lower end and adapted to be coupled with the sealing means (3.3) of the main body to determine the seal of the plug next to the first opening (3.2); characterized in that said cam profile is made of two parts, the first part (2.6) of the cam profile being made on the plug and the second part (4.2) of the cam profile being made on the cam seal , so that when the plug is rotated, the external guiding means (3.7), moving in the groove formed of the first part (2.6) and of the second part (4.2) of the cam profile, generate a linear movement of the plug . - a main body comprising a connecting element (3.20) having fitting means (3.1) for connecting to the container, and a supporting body (3.21) adapted to be closed by said plug , said plug cooperating with a cam seal separated from the supporting body (3.21), a rotation of the plug having a linear movement effect of the plug itself, said supporting body (3.21) comprising a first opening (3.2) for exiting liquid, and sealing means (3.3) cooperating with the first opening (3.2) and adapted to be connected to the plug , said supporting body (3.21) further comprising external guiding means (3.7) obtained on its external surface and adapted to guide the plug in the opening and closing steps of the plug cooperating with a cam profile; - wherein said plug comprises a central cylinder (2.3) having lower sealing means (2.1) obtained at its lower end and adapted to be coupled with the sealing means (3.3) of the main body to determine the seal of the plug next to the first opening (3.2);
A method for operating a wind turbine comprising several rotor blades , wherein the method comprises several measurements by means of at least one first lidar sensor for obtaining lidar data , wherein the at least one first lidar sensor is a solid-state lidar sensor, the at least one first lidar sensor is arranged on the outside of the wind turbine in such a way that the first lidar sensor rotates together with the rotor blades of the wind turbine , wherein an actual structural state of at least one point of a rotor blade of the wind turbine is observed on the basis of the lidar data , wherein a point whose actual structural state is observed is designated as a point to be observed , wherein the actual structural state of the point to be observed comprises a deflection of the point with respect to a normal position and/or a velocity of the point and/or an acceleration of the point, wherein the method comprises determining an actual shape of the rotor blade , wherein the determining comprises an approximation of the actual shape of the rotor blade based on at least one approximation function, wherein the first and/or second and/or third eigenform of the rotor blade is used as the approximation function, wherein the method comprises defining the at least one point to be observed based on the actual shape. wherein the method comprises several measurements by means of at least one first lidar sensor for obtaining lidar data , wherein the at least one first lidar sensor is a solid-state lidar sensor, the at least one first lidar sensor is arranged on the outside of the wind turbine in such a way that the first lidar sensor rotates together with the rotor blades of the wind turbine , wherein an actual structural state of at least one point of a rotor blade of the wind turbine is observed on the basis of the lidar data , wherein a point whose actual structural state is observed is designated as a point to be observed , wherein the actual structural state of the point to be observed comprises a deflection of the point with respect to a normal position and/or a velocity of the point and/or an acceleration of the point, wherein the method comprises determining an actual shape of the rotor blade , wherein the determining comprises an approximation of the actual shape of the rotor blade based on at least one approximation function, wherein the first and/or second and/or third eigenform of the rotor blade is used as the approximation function, wherein the method comprises defining the at least one point to be observed based on the actual shape.
A gas turbine for an aircraft, the turbine extending about an axis (X) and comprising a first rotor comprising first impellers and a second rotor comprising second impellers , the first and second rotors being rotatably mounted about said axis (X), the first rotor and the second rotor being configured to rotate in opposite directions, with at least some of the second impellers being axially interposed between at least some of the first impellers , characterised in that : - the turbine further comprises a ring to which an abradable material is secured, the ring extending around one of the first impellers with which the abradable material is to cooperate, and - axially between an upstream end and a downstream end of the ring , the ring is held with the second rotor . - the turbine further comprises a ring to which an abradable material is secured, the ring extending around one of the first impellers with which the abradable material is to cooperate, and - axially between an upstream end and a downstream end of the ring , the ring is held with the second rotor .
A non-naturally occurring microbial organism comprising a genetic alteration of attenuation of cydA or cydB , and one or more of a genetic alteration that increases expression of a protein encoded by pntAB.
A method comprising: disposing a preform and a diaphragm assembly above a tool housing ; disposing the diaphragm assembly on an upper perimeter surface of the tool housing , the tool housing defining a cavity , the tool housing including a docking station and a modular tool insert removably coupled to the docking station , the modular tool insert including a mold disposed within the cavity ; forming the preform onto the mold by applying a vacuum within the cavity that pulls the diaphragm assembly , along with the preform , into the cavity such that the preform conforms to a shape of the mold ; removing excess portions of the diaphragm assembly from around the modular tool insert ; and removing the modular tool insert , along with the diaphragm assembly and the preform , from the docking station . disposing a preform and a diaphragm assembly above a tool housing ; disposing the diaphragm assembly on an upper perimeter surface of the tool housing , the tool housing defining a cavity , the tool housing including a docking station and a modular tool insert removably coupled to the docking station , the modular tool insert including a mold disposed within the cavity ; forming the preform onto the mold by applying a vacuum within the cavity that pulls the diaphragm assembly , along with the preform , into the cavity such that the preform conforms to a shape of the mold ; removing excess portions of the diaphragm assembly from around the modular tool insert ; and removing the modular tool insert , along with the diaphragm assembly and the preform , from the docking station .
A layer stack for growing graphene or carbon nanotubes (CNTs), wherein the layer stack comprises a substrate, a catalyst layer, a protective layer, and an attachment surface disposed between the catalyst layer and the protective layer, wherein the catalyst layer is capable of catalysing the growth of the graphene and/or the CNTs characterised in that the protective layer comprises a material selected from a group consisting of: Titanium Nitride (TiN), Titanium (Ti), Tantalum (Ta), Tantalum Nitride (TaN), Gold (Au), Silver (Ag), Palladium (Pd), Chromium (Cr), and a 2D layered material, wherein the 2D layered material is BN, M0S2, MoSe or WS 2 , is between 1 nm and 500 nm in cross-section and is configured to allow carbon diffusion therethrough to the attachment surface, such that graphene or CNTs grow therefrom and the substrate comprises a material selected from a group consisting of: Silicon (Si), Aluminium Oxide (Al 2 O 3 ), Silicon Carbide (SiC), steel, Copper (Cu), Nickel (Ni), plastics, polymers, glass, Gallium Arsenide (GaAs), Aluminium (Al) and zeolite or the substrate comprises a material coated with a 2D layered material, which is BN, MoS 2 or WS 2 .
A process for the production of a crude solder product and a copper product comprising the step of a) providing a black copper composition comprising at least 50%wt of copper together with at least 1.0%wt of tin and/or at least 1.0%wt of lead, the process further comprising the steps of (i) refining a first portion of the black copper composition obtained from step a) to obtain a refined copper product together with at least one copper refining slag , (ii) recovering a first crude solder metal composition , as a first crude solder product, from the at least one copper refining slag , thereby forming a second solder refining slag in equilibrium with the first crude solder metal composition , characterised in that the process further comprises the step of f) contacting a second portion of the black copper composition from step a), different from the first portion , with the second solder refining slag thereby forming a second spent slag and a second lead-tin based metal composition , followed by separating the second spent slag from the second lead-tin based metal composition. a) providing a black copper composition comprising at least 50%wt of copper together with at least 1.0%wt of tin and/or at least 1.0%wt of lead, (i) refining a first portion of the black copper composition obtained from step a) to obtain a refined copper product together with at least one copper refining slag , (ii) recovering a first crude solder metal composition , as a first crude solder product, from the at least one copper refining slag , thereby forming a second solder refining slag in equilibrium with the first crude solder metal composition ,