mhurhangee/patent-ind-claim-en huggingface dataset:
A wheel rim for a vehicle wheel, having a rim body which has a hub portion , a rim well for receiving a tire, multiple carrier portions arranged between the hub portion and the rim well , and at least one gap arranged between the carrier portions , wherein the wheel rim has at least one cover element associated with the gap , wherein the cover element can be transferred, preferably by actuation via an actuating device , at least from a first position (S1) into a second position (S2), and wherein a covering of the gap by the cover element in the first position (S1) is different from a covering of the gap by the cover element in the second position (S2), characterized in that the cover element deforms when it is transferred between the first position (S1) and the second position (S2), and the actuating device is so configured that the cover element can be transferred from the second position into the first position and/or can be transferred from the first position into the second position by pneumatic, electrical or magnetic actuation.
A motor vehicle body , including sheet metal elements assembled to one another, characterized in that the sheet metal elements include one or more first elements assembled by hot-melt adhesive ; and the sheet metal elements include second elements assembled by elastomer adhesive .
Inground lifting device , which is arranged in a pit between two drive-on platforms arranged in a plane (E), comprising - a slider , having a first side and a second side and which is arranged in the pit moveably in a longitudinal axis (X - X), - a first lifting unit and - at least one second lifting unit , - wherein the first lifting unit and the at least one second lifting unit are arranged on the slider , characterized in that a distance (A) between the first lifting unit and the at least one second lifting unit is adjustable along the longitudinal axis (X - X). - a slider , having a first side and a second side and which is arranged in the pit moveably in a longitudinal axis (X - X), - a first lifting unit and - at least one second lifting unit , - wherein the first lifting unit and the at least one second lifting unit are arranged on the slider ,
Assembly kit for the production of a drain assembly for roof drainage, comprising a drain device and an inlet device , wherein the drain device has a pipe socket and at least one retaining element , which latter is preferably in connection with the pipe socket , and wherein the inlet device comprises a cover part for covering the pipe entrance , said cover part having lateral passages through which water can be fed to the pipe entrance , and two functional parts , wherein each functional part can be arranged beneath the cover part , wherein the first functional part is selectively a build-up functional part that defines a build-up height (S), and the second functional part is an emergency overflow functional part having an inlet that defines an infeed height (E), wherein both the build-up functional part and the emergency overflow functional part and the cover part are fastenable to said at least one retaining element , and wherein electively either the build-up functional part or the emergency overflow functional part is inserted in the drain assembly.
A catalyst support material, comprising: anatase titania particles comprising ≥ 85 wt% dry weight of TiO 2 and greater than 0% and ≤ 10 wt% dry weight of SiO 2 , wherein the SiO 2 comprises silicon atoms which are at least 50% in the Q 3 , Q 2 , Q 1 and Q 0 coordination environments, and wherein over 50% of the SiO 2 is in a small nanoparticle form of diameter <5 nm as seen by scanning electron microscopy or by transmission electron microscopy.
A process for modifying a layered double hydroxide (LDH), the process comprising, a. providing a material comprising a layered double hydroxide of formula: [M z+ 1-x M' y+ x (OH) 2 ] q+ (X n- ) q/n .bH 2 O wherein M and M' are metal cations, z is 1 or 2, x is 0.1 to 1, b is 0 to 5, y is 3 or 4, X is an anion, n is 1 to 3 and q is determined by x, y and z, b. optionally washing the material at least once with a mixture of water and a mixing solvent miscible with water, c. washing the material obtained in step a or b at least once with at least one first solvent, the first solvent being miscible with water and having a solvent polarity P' in the range of 3.8 to 9 to obtain a modified layered double hydroxide, and d. dispersing the modified layered double hydroxide obtained in step c in a second, hydrocarbon solvent to form a hydrocarbon-dispersed layered double hydroxide. a. providing a material comprising a layered double hydroxide of formula: [M z+ 1-x M' y+ x (OH) 2 ] q+ (X n- ) q/n .bH 2 O wherein M and M' are metal cations, z is 1 or 2, x is 0.1 to 1, b is 0 to 5, y is 3 or 4, X is an anion, n is 1 to 3 and q is determined by x, y and z, b. optionally washing the material at least once with a mixture of water and a mixing solvent miscible with water, c. washing the material obtained in step a or b at least once with at least one first solvent, the first solvent being miscible with water and having a solvent polarity P' in the range of 3.8 to 9 to obtain a modified layered double hydroxide, and d. dispersing the modified layered double hydroxide obtained in step c in a second, hydrocarbon solvent to form a hydrocarbon-dispersed layered double hydroxide.
A wireless test system , comprising: a load board having an upper surface and a lower surface , wherein the load board comprises a testing antenna disposed on the load board ; a socket for receiving a device under test, in the following also referred to as DUT , said DUT having an antenna structure therein, said socket being disposed on the upper surface of the load board , wherein the antenna structure is corresponding to the testing antenna ; a handler for picking up and delivering the DUT to the socket , wherein the handler comprises a clamp for holding and pressing the DUT , wherein the clamp functions as a ground reflector that reflects and reverses radiation pattern of the DUT from an upward direction to a downward direction toward the testing antenna , wherein the load board comprises a first connection pad and a second connection pad on the upper surface of the load board ; and the wireless test system further comprises a plurality of second pogo pins provided in a vertical wall portion of the socket , wherein a lower end of each of the plurality of second pogo pins is electrically connected to the second connection pad on the load board characterized in that the clamp is grounded during testing and an upper end of each of the plurality of second pogo pins is electrically connected to the clamp ; and the second connection pad is a ground pad and the clamp is grounded through the second connection pad and the plurality of second pogo pins . a load board having an upper surface and a lower surface , wherein the load board comprises a testing antenna disposed on the load board ; a socket for receiving a device under test, in the following also referred to as DUT , said DUT having an antenna structure therein, said socket being disposed on the upper surface of the load board , wherein the antenna structure is corresponding to the testing antenna ; a handler for picking up and delivering the DUT to the socket , wherein the handler comprises a clamp for holding and pressing the DUT , wherein the clamp functions as a ground reflector that reflects and reverses radiation pattern of the DUT from an upward direction to a downward direction toward the testing antenna , wherein the load board comprises a first connection pad and a second connection pad on the upper surface of the load board ; and the wireless test system further comprises a plurality of second pogo pins provided in a vertical wall portion of the socket , wherein a lower end of each of the plurality of second pogo pins is electrically connected to the second connection pad on the load board characterized in that the clamp is grounded during testing and an upper end of each of the plurality of second pogo pins is electrically connected to the clamp ; and the second connection pad is a ground pad and the clamp is grounded through the second connection pad and the plurality of second pogo pins .
A user equipment comprising: at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the user equipment to obtain a conditional handover command, the conditional handover command indicating a multiple cell target for handover from a source cell and at least one performance margin, each of the at least one performance margin associated with a cell neighboring a first cell in the multiple cell target, determine whether to initiate a handover to the first cell based on the at least one performance margin, and transmit data to the first cell based on the determination of whether to initiate the handover, wherein the at least one performance margin is either a permitted signal offset for a first frequency or a permitted difference between a measured signal strength of the first cell and a measured signal strength of the cell neighboring the first cell. at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the user equipment to obtain a conditional handover command, the conditional handover command indicating a multiple cell target for handover from a source cell and at least one performance margin, each of the at least one performance margin associated with a cell neighboring a first cell in the multiple cell target, determine whether to initiate a handover to the first cell based on the at least one performance margin, and transmit data to the first cell based on the determination of whether to initiate the handover, obtain a conditional handover command, the conditional handover command indicating a multiple cell target for handover from a source cell and at least one performance margin, each of the at least one performance margin associated with a cell neighboring a first cell in the multiple cell target, determine whether to initiate a handover to the first cell based on the at least one performance margin, and transmit data to the first cell based on the determination of whether to initiate the handover, wherein the at least one performance margin is either a permitted signal offset for a first frequency or a permitted difference between a measured signal strength of the first cell and a measured signal strength of the cell neighboring the first cell.
A method of controlling a wind turbine in a partial load operation mode based on a tip-speed ratio (TSR) tracking scheme which based on an estimated wind speed determines a power setpoint, the estimated wind speed being determined based on a power or torque balance between the aerodynamic power or torque of the rotor and the electrical power or torque of the generator, wherein the TSR tracking scheme ensures operation in accordance with an operating power coefficient, and wherein the operating power coefficient has been adjusted in an adjustment process, the method is characterized in that the adjustment process comprises: setting a scaled power coefficient as a predetermined power coefficient multiplied by a scaling factor; adding a time-varying perturbation signal to the power setpoint; determining a transfer function from the perturbation signal to a power error, the power error being determined as the difference between an operating rotor power and an estimated rotor power; evaluate the frequency response of the transfer function over a time period to determine the scaling factor which minimizes the gain of the transfer function; setting the operating power coefficient as the scaled power coefficient. setting a scaled power coefficient as a predetermined power coefficient multiplied by a scaling factor; adding a time-varying perturbation signal to the power setpoint; determining a transfer function from the perturbation signal to a power error, the power error being determined as the difference between an operating rotor power and an estimated rotor power; evaluate the frequency response of the transfer function over a time period to determine the scaling factor which minimizes the gain of the transfer function; setting the operating power coefficient as the scaled power coefficient.
Wearable sensing device , comprising: • a sensor carrier having a sensor at a bottom surface of the sensor carrier , for pressing said sensor against a subject's skin; • an elastic band having two ends; • two fasteners , each fastener attached to opposite ends of the elastic band; • two elongated fastening slots extending from a top side to said bottom surface of the sensor carrier , wherein the elongated fastening slots are located at opposite locations near an edge of the sensor carrier , wherein the elongated fastening slots are arranged for removably receiving the fasteners ; • characterised in that in use, the fasteners are inserted in the fastening slots on the top side of the sensor carrier , and wherein said elastic band emanates at one end from a first one of said two fasteners for bending around a limb or body part of said subject, starting at a first tipping point at said top side of said sensor carrier , and wherein at an opposite end of said the band 102, said band bends back at a second tipping point at said top side of said carrier into a second one of said two fasteners . • a sensor carrier having a sensor at a bottom surface of the sensor carrier , for pressing said sensor against a subject's skin; • an elastic band having two ends; • two fasteners , each fastener attached to opposite ends of the elastic band; • two elongated fastening slots extending from a top side to said bottom surface of the sensor carrier , wherein the elongated fastening slots are located at opposite locations near an edge of the sensor carrier , wherein the elongated fastening slots are arranged for removably receiving the fasteners ; • characterised in that in use, the fasteners are inserted in the fastening slots on the top side of the sensor carrier , and wherein said elastic band emanates at one end from a first one of said two fasteners for bending around a limb or body part of said subject, starting at a first tipping point at said top side of said sensor carrier , and wherein at an opposite end of said the band 102, said band bends back at a second tipping point at said top side of said carrier into a second one of said two fasteners .
A knitted fabric comprising: a first yarn forming a bottom layer; a second yarn forming a middle layer; and a third yarn forming a top layer and comprising polyester, characterised in that the first yarn comprises a fiber blend of modal and polyester, the second yarn comprises spandex and the polyester in the fiber blend has a cross-section that creates a plurality of spaces along the length of the first yarn that facilitate a capillary action. a first yarn forming a bottom layer; a second yarn forming a middle layer; and a third yarn forming a top layer and comprising polyester, characterised in that the first yarn comprises a fiber blend of modal and polyester, the second yarn comprises spandex and the polyester in the fiber blend has a cross-section that creates a plurality of spaces along the length of the first yarn that facilitate a capillary action.
A power control apparatus for a power control system provided with a fuel cell which generates power while a current sensor is detecting forward power flow in a power purchasing direction from a grid, a solar cell , and a storage battery , the power control apparatus comprising: a pseudo-output unit configured to generate a pseudo current to be detected by the current sensor in the same direction as the forward power flow; an acquisition unit configured to acquire a charge level of the storage battery and an output value of the solar cell ; and a controller configured to control the pseudo-output unit , wherein the controller , based on at least one of the charge level and the output value, adjusts the pseudo current detected by the current sensor to control a power generation amount of the fuel cell . a pseudo-output unit configured to generate a pseudo current to be detected by the current sensor in the same direction as the forward power flow; an acquisition unit configured to acquire a charge level of the storage battery and an output value of the solar cell ; and a controller configured to control the pseudo-output unit , wherein the controller , based on at least one of the charge level and the output value, adjusts the pseudo current detected by the current sensor to control a power generation amount of the fuel cell .
A transmitting apparatus for transmitting monitoring information as a current signal in a photovoltaic string including a plurality of photovoltaic elements connected to each other in series via a power line , the transmitting apparatus comprising: a current source ; a controller ; and a bypass capacitor , wherein the current source is connected to the power line in parallel with each of the photovoltaic elements , the controller is configured to control a current value of the current source such that the current signal is generated, and the bypass capacitor is connected to the power line in parallel with the each of the photovoltaic elements and the current source so that a current signal transmitted through the bypass capacitor from a negative electrode side in the photovoltaic string is transmitted to a positive electrode side. a current source ; a controller ; and a bypass capacitor , wherein the current source is connected to the power line in parallel with each of the photovoltaic elements , the controller is configured to control a current value of the current source such that the current signal is generated, and the bypass capacitor is connected to the power line in parallel with the each of the photovoltaic elements and the current source so that a current signal transmitted through the bypass capacitor from a negative electrode side in the photovoltaic string is transmitted to a positive electrode side.
A measuring device , comprising: - A measuring tube for conducting a flowable medium, wherein the measuring tube has an inner lateral surface , wherein the inner lateral surface is designed to be electrically insulating at least in sections, - at least one monitoring electrode , wherein the at least one monitoring electrode is arranged on the electrically insulating section of the inner lateral surface in such a way that it is contact with the media, - a measuring apparatus for determining a process property of the medium; - an abrasion detection device , which is configured to determine at least one variable on the at least one monitoring electrode , which corresponds to an abrasion of the monitoring electrode , wherein the at least one monitoring electrode is configured as a selectively applied conductive layer system ; characterized in that the layer system comprises at least two electrically conductive layers each having different materials. - A measuring tube for conducting a flowable medium, wherein the measuring tube has an inner lateral surface , wherein the inner lateral surface is designed to be electrically insulating at least in sections, wherein the measuring tube has an inner lateral surface , wherein the inner lateral surface is designed to be electrically insulating at least in sections, - at least one monitoring electrode , wherein the at least one monitoring electrode is arranged on the electrically insulating section of the inner lateral surface in such a way that it is contact with the media, - a measuring apparatus for determining a process property of the medium; - an abrasion detection device , which is configured to determine at least one variable on the at least one monitoring electrode , which corresponds to an abrasion of the monitoring electrode , wherein the at least one monitoring electrode is configured as a selectively applied conductive layer system ; characterized in that the layer system comprises at least two electrically conductive layers each having different materials. wherein the at least one monitoring electrode is configured as a selectively applied conductive layer system ; characterized in that the layer system comprises at least two electrically conductive layers each having different materials.
A system for cooperative control of a surgical tool, comprising: a surgical tool for use in vitreoretinal surgery and being adapted to be held by a robot and a surgeon , a tool holder for receiving said surgical tool ; a sensor for detecting a force applied on a target area of interest of an eye by said surgical tool ; a controller for limiting velocity of said robot based upon the force detected so as to provide a haptic feedback; a selector for automatically selecting an audio feedback based upon the force applied on the target area of interest of said eye by said surgical tool , the audio feedback comprising a modulating playback of audio that varies in tempo based on the relative intensity of the force applied on said target area of interest of said eye by said surgical tool ; and an audio device for providing the audio feedback together with the haptic feedback. a surgical tool for use in vitreoretinal surgery and being adapted to be held by a robot and a surgeon , a tool holder for receiving said surgical tool ; a sensor for detecting a force applied on a target area of interest of an eye by said surgical tool ; a controller for limiting velocity of said robot based upon the force detected so as to provide a haptic feedback; a selector for automatically selecting an audio feedback based upon the force applied on the target area of interest of said eye by said surgical tool , the audio feedback comprising a modulating playback of audio that varies in tempo based on the relative intensity of the force applied on said target area of interest of said eye by said surgical tool ; and an audio device for providing the audio feedback together with the haptic feedback.
A method for producing a high tensile strength nanofiber yarn by wet-extrusion, characterized in that individual nanocellulose fibers are aligned together and form a nanofiber network first by in-nozzle-alignment, wherein a nanocellulose hydrogel is prepared from natural and nonmodified nanofibrillated cellulose, wherein the in-nozzle alignment comprises flow of the nanocellulose hydrogel from a syringe into a nozzle that is smaller than the syringe, and the nanocellulose hydrogel is extruded through the nozzle at a jet speed between 4 and 32 m/s, wherein the nozzle has an inner diameter between 10 and 150 μm, after which the nanofiber network is stretched by on-surface-alignment, wherein a hydrogel jet from the nozzle is applied on a moving slippery surface and the nanofiber yarn formed by a combination of the in-nozzle alignment and on-surface alignment is air dried on the moving surface after the on-surface alignment.