mhurhangee/patent-ind-claim-en huggingface dataset:
A light concentrating device for inspecting internal quality of fruits and vegetables, characterized by comprising: a housing , a halogen lamp , a diaphragm , a planoconvex lens holder , a first planoconvex lens , a reflector fixing plate , a reflector , a planoconvex lens fixing plate , and a second planoconvex lens , wherein the housing is a sealed opaque shell, the halogen lamp is fixedly mounted on a left end of the housing , the halogen lamp extends into an interior of the housing , a right side of the halogen lamp is provided with a pluggable diaphragm configured to guide a direction of light rays of the halogen lamp , the diaphragm passes through the interior of the housing , the planoconvex lens holder is fixedly mounted in the housing on a right side of the diaphragm , the first planoconvex lens for primary concentration of light rays is mounted on the planoconvex lens holder , the reflector fixing plate is fixedly mounted on a right side of the first planoconvex lens , the reflector configured to reflect light rays is mounted on the reflector fixing plate , the planoconvex lens fixing plate is fixedly mounted under the reflector , the second planoconvex lens for secondary concentration of light rays is mounted on the planoconvex lens fixing plate , and the second planoconvex lens extends out of the housing .
Method for monitoring a bearing clearance of a roller bearing , in particular a bearing clearance of a large bearing, specifically of a wind turbine, and in particular of the bearing clearance of the main bearing of a wind turbine, characterized in that - within the scope of a first measuring series using at least one distance sensor , a distance (a, a 1 , a 2 ) between a rotating part and a stationary part is respectively sensed in at least two different recurring load states, and there is a difference (Δa) between the measured distances (a, a 1 , a 2 ), - at a later time the sensing of the distance (a, a 1 , a 2 ) is repeated in the at least two different recurring load states within the scope of a second measuring series, - changes in the bearing clearance are inferred on the basis of the changes in the difference (Δa) between the measured distances (a, a 1 , a 2 ) in the two measuring series. - within the scope of a first measuring series using at least one distance sensor , a distance (a, a 1 , a 2 ) between a rotating part and a stationary part is respectively sensed in at least two different recurring load states, and there is a difference (Δa) between the measured distances (a, a 1 , a 2 ), - at a later time the sensing of the distance (a, a 1 , a 2 ) is repeated in the at least two different recurring load states within the scope of a second measuring series, - changes in the bearing clearance are inferred on the basis of the changes in the difference (Δa) between the measured distances (a, a 1 , a 2 ) in the two measuring series.
An imaging method, wherein the imaging method is applied to an imaging apparatus comprising a color camera and a black-and-white camera , and resolution of the black-and-white camera is higher than resolution of the color camera; and the imaging method comprises: obtaining a zoom magnification; simultaneously capturing a color image and a black-and-white image of a target scene, wherein resolution of the black-and-white image is higher than resolution of the color image; performing cropping processing on the black-and-white image and the color image separately based on the zoom magnification, wherein the cropped black-and-white image and the cropped color image have a same field of view; and merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene, wherein the merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene comprises: separating the cropped color image into a chroma component image and a luminance component image; replacing only high frequency information of the luminance component image with high frequency information of the cropped black-and-white image to obtain an optical variable luminance component image; and merging the chroma component image and the optical variable luminance component image to obtain the output image. obtaining a zoom magnification; simultaneously capturing a color image and a black-and-white image of a target scene, wherein resolution of the black-and-white image is higher than resolution of the color image; performing cropping processing on the black-and-white image and the color image separately based on the zoom magnification, wherein the cropped black-and-white image and the cropped color image have a same field of view; and merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene, wherein the merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene comprises: separating the cropped color image into a chroma component image and a luminance component image; replacing only high frequency information of the luminance component image with high frequency information of the cropped black-and-white image to obtain an optical variable luminance component image; and merging the chroma component image and the optical variable luminance component image to obtain the output image. separating the cropped color image into a chroma component image and a luminance component image; replacing only high frequency information of the luminance component image with high frequency information of the cropped black-and-white image to obtain an optical variable luminance component image; and merging the chroma component image and the optical variable luminance component image to obtain the output image.
Method for controlling the voltage (V) at the load terminals specific to being supplied by a supply system according to a voltage setpoint (V setpoint ) to be supplied by the supply system to the load terminals , the load having a resistance (Rc, Pc) and an inductance (Lc), the voltage (V) at the load terminals comprising a resistive component (V R ) and an inductive component (V L ), the supply system comprising a plurality M of converters of a direct current into another direct current connected in series to the load terminals , consisting of N1 load converter(s) connected to the output of a supply of direct current , N1 being greater than or equal to 1, and of N2 floating converter(s) , the floating converter(s) not being connected to the output of said supply , N2 being greater than or equal to 1, the sum of N1 and N2 being equal to M, and at least one storage condenser mounted in parallel of each respective converter on the side opposite the load , the method comprising the following steps: - calculating control signals of each of the M converters along a control law, the control law being a function of the voltage setpoint (V setpoint ), and - applying control signals to the respective converters , characterised in that the control law is such that the resistive component (V R ) of the voltage at the load terminals is delivered uniquely by the load converter(s) . - calculating control signals of each of the M converters along a control law, the control law being a function of the voltage setpoint (V setpoint ), and - applying control signals to the respective converters ,
An elevator door coupling system comprising: a car door lock having a coupling element and a lock element , the lock element operably connected to a latch for locking the car door lock ; and a landing door lock having a movable plate , a first contact element mounted to the movable plate and configured to engage with the coupling element and a second contact element configured to engage with the lock element , wherein, in operation, the coupling element is operable to apply force to the first contact element and cause the movable plate to rotate and as the movable plate rotates, the second contact element applies force to the lock element to urge the latch from a locked position to an unlocked position; characterised in that , the movable plate includes an extension arm , wherein the second contact element is located on the extension arm ; and further comprising an unlocking screw located on the extension arm . a car door lock having a coupling element and a lock element , the lock element operably connected to a latch for locking the car door lock ; and a landing door lock having a movable plate , a first contact element mounted to the movable plate and configured to engage with the coupling element and a second contact element configured to engage with the lock element , wherein, in operation, the coupling element is operable to apply force to the first contact element and cause the movable plate to rotate and as the movable plate rotates, the second contact element applies force to the lock element to urge the latch from a locked position to an unlocked position; characterised in that , the movable plate includes an extension arm , wherein the second contact element is located on the extension arm ; and further comprising an unlocking screw located on the extension arm .
Motor vehicle auxiliary unit vacuum pump , which is configured as an electromotively driven and dry-running vane pump, with a housing assembly which comprises an electric motor section and a pump section as well as a pump inlet opening and a pump outlet opening, wherein the electric motor section comprises a motor rotor which is radially and axially-distally surrounded by a motor housing pot , which motor housing pot is proximally closed by a bearing shield that holds a bearing , wherein the pump section comprises a pump housing which defines a pump chamber and comprises an end element , wherein the pump housing is defined at least by an axially-proximal thrust washer , an axially-distal thrust washer and a radial stroke ring , wherein the pump housing comprises at least one pump chamber inlet opening and at least one pump chamber outlet opening , wherein the motor rotor is aligned coaxially with a pump rotor which is arranged in the pump chamber and the rotor body of which comprises at least three rotor blades displaceably supported on the rotor body , characterized in that only the bearing shield and the axially-proximal thrust washer are implemented as a single-piece flange element and are defined by a single disc body , wherein one side of the disc body defines the bearing shield and the other side of the disc body defines the adjacent thrust washer , wherein the pump inlet opening is provided in the bearing shield and the corresponding pump chamber inlet opening is provided in the axially-proximal thrust washer . the electric motor section comprises a motor rotor which is radially and axially-distally surrounded by a motor housing pot , which motor housing pot is proximally closed by a bearing shield that holds a bearing , wherein the pump section comprises a pump housing which defines a pump chamber and comprises an end element , wherein the pump housing is defined at least by an axially-proximal thrust washer , an axially-distal thrust washer and a radial stroke ring , wherein the pump housing comprises at least one pump chamber inlet opening and at least one pump chamber outlet opening , wherein the motor rotor is aligned coaxially with a pump rotor which is arranged in the pump chamber and the rotor body of which comprises at least three rotor blades displaceably supported on the rotor body , characterized in that only the bearing shield and the axially-proximal thrust washer are implemented as a single-piece flange element and are defined by a single disc body , wherein one side of the disc body defines the bearing shield and the other side of the disc body defines the adjacent thrust washer , wherein the pump inlet opening is provided in the bearing shield and the corresponding pump chamber inlet opening is provided in the axially-proximal thrust washer .
Integrated magnetic component , comprising a) a common mode inductance formed by a common mode core surrounding a winding window and at least two windings wound around the common mode core and through the winding window , with each winding of the at least two windings having two terminals , and b) a differential mode inductance formed by the at least two windings and a differential mode core being spaced from the common mode core by a gap , the common mode core and the differential mode core being configured for directing a magnetic field, wherein c) the differential mode core comprises at least one surface being adjacent to each of the at least two windings , d) the differential mode core comprises a plate, with the plate being arranged on top of the common mode core . e) and (i) the common mode core is a toroidal core and the differential mode core comprises a rod or a pipe combined with the plate, with the rod or the pipe arranged in the winding window of the toroidal core, or (ii) the common mode core is a rectangular core and the differential mode core comprises a cuboid or a hollow cuboid combined with the plate, with the cuboid or the hollow cuboid arranged in the winding window of the rectangular core. a) a common mode inductance formed by a common mode core surrounding a winding window and at least two windings wound around the common mode core and through the winding window , with each winding of the at least two windings having two terminals , and b) a differential mode inductance formed by the at least two windings and a differential mode core being spaced from the common mode core by a gap , the common mode core and the differential mode core being configured for directing a magnetic field, wherein c) the differential mode core comprises at least one surface being adjacent to each of the at least two windings , d) the differential mode core comprises a plate, with the plate being arranged on top of the common mode core . e) and (i) the common mode core is a toroidal core and the differential mode core comprises a rod or a pipe combined with the plate, with the rod or the pipe arranged in the winding window of the toroidal core, or (ii) the common mode core is a rectangular core and the differential mode core comprises a cuboid or a hollow cuboid combined with the plate, with the cuboid or the hollow cuboid arranged in the winding window of the rectangular core.
A method for a User Equipment, UE, configured to transmit data to a base station in subframes of a Time Division Duplex system, wherein a predetermined number of symbol intervals is utilized in a normal subframe, the method comprising: determining that less symbol intervals will be utilized in an uplink subframe than in the normal subframe based on an uplink grant message scheduling the uplink subframe; and in response to said determining, transmitting the uplink subframe by not transmitting in one or more symbol intervals at the beginning of the subframe interval for the uplink subframe and transmitting in symbol intervals of the remainder of the subframe interval. determining that less symbol intervals will be utilized in an uplink subframe than in the normal subframe based on an uplink grant message scheduling the uplink subframe; and in response to said determining, transmitting the uplink subframe by not transmitting in one or more symbol intervals at the beginning of the subframe interval for the uplink subframe and transmitting in symbol intervals of the remainder of the subframe interval.
A backlight unit comprising: a waveguide plate ; a light source disposed on one side of the waveguide plate, and configured to emit light toward the waveguide plate ; a cholesteric liquid crystal layer disposed on a front surface of the waveguide plate, and configured to transit between states to transmit as it is without polarizing or circularly polarize light emitted from the waveguide plate; a polarizing portion disposed on a front surface of the cholesteric liquid crystal layer, and configured to polarize and transmit the transmitted light in a front direction, and to block the circularly polarized light, characterized in that the polarizing portion comprises a waveplate disposed on the front surface of the cholesteric liquid crystal layer, and configured to linearly polarize the circularly polarized light, and to transmit the light transmitted through the cholesteric liquid crystal layer in the front direction; and a polarizing film disposed on a front surface of the wave plate, and configured to block the linearly polarized light, and to linearly polarize the light transmitted through the waveplate; and in that a quantum dot sheet is disposed on a front surface of the polarizing portion. a waveguide plate ; a light source disposed on one side of the waveguide plate, and configured to emit light toward the waveguide plate ; a cholesteric liquid crystal layer disposed on a front surface of the waveguide plate, and configured to transit between states to transmit as it is without polarizing or circularly polarize light emitted from the waveguide plate; a polarizing portion disposed on a front surface of the cholesteric liquid crystal layer, and configured to polarize and transmit the transmitted light in a front direction, and to block the circularly polarized light, characterized in that the polarizing portion comprises a waveplate disposed on the front surface of the cholesteric liquid crystal layer, and configured to linearly polarize the circularly polarized light, and to transmit the light transmitted through the cholesteric liquid crystal layer in the front direction; and a polarizing film disposed on a front surface of the wave plate, and configured to block the linearly polarized light, and to linearly polarize the light transmitted through the waveplate; and in that a quantum dot sheet is disposed on a front surface of the polarizing portion.
Motion detection plate for detecting movements of a person positioned on the motion detection plate , comprising at least three partial plates which are arranged to form a common standing surface, at least three independent force sensors being arranged on each partial plate for dynamically detecting local pressure distributions, the force sensors being configured in such a way that the partial plates have a sensitivity of 1 kg with respect to weight changes, the motion detection plate further comprising a feedback device for generating an auditory and/or visual and/or tactile and/or haptic feedback and a control device for controlling the force sensors and/or the feedback device .
Cutterbar for attachment to a harvesting machine , having a frame extending at least substantially over the working width of the cutterbar , which has a mounting frame with mounting means for connection to a feeder housing of the harvesting machine , wherein the frame has swing arms pointing in the working direction, at the front ends of which cutting elements for cutting the crop are attached, characterized in that several or all of the swing arms are each designed as a leaf spring package composed of several leaf springs , several or all leaf springs lying flat on top of one another are held together as a leaf spring package at their frame-side end between tensioning elements on the frame , only one or more of the leaf springs arranged in the upper region of the leaf spring package are connected with the cutting elements and one or more of the leaf springs held between the tensioning elements on the frame and arranged in the lower region of the leaf spring package end in front of the connection zone of the leaf springs arranged in the upper region of the leaf spring package with the cutting elements , as viewed in the working direction.
Oval printing machine comprising: a) a) a guide , defining a closed path (P); b) one or more supports (20a-20d) movable on said guide , said one or more supports (20a-20d) being adapted to support items to be printed; c) one or more operating stations (30a-30c) positioned along said path (P) for processing said items to be printed, said one or more operating stations (30a-30c) comprising at least one silkscreen printing station; d) at least one digital printing station positioned along said path (P), for printing the items supported by said one or more supports (20a-20d), wherein said digital printing station comprises a structure substantially integral with said guide , and a first printing element associated with said structure and movable relative to said structure , wherein said first printing element is movable in a first direction (D1) that is transversal to a second direction (D2) in which said guide extends at said digital printing station , wherein said first printing element is movable between a first position (XI), in which it executes a printing operation at a first tract (T1) of said guide , and a second position (X2), in which it executes a printing operation at a second tract (T2) of said guide , wherein said first tract (T1) is substantially parallel to said second tract (T2), wherein said one or more supports (20a-20d) are moved on said first tract (T1) in a first direction, wherein said one or more supports (20a-20d) are moved on said second tract (T2) in a second direction, opposite to said first direction. a) a) a guide , defining a closed path (P); b) one or more supports (20a-20d) movable on said guide , said one or more supports (20a-20d) being adapted to support items to be printed; c) one or more operating stations (30a-30c) positioned along said path (P) for processing said items to be printed, said one or more operating stations (30a-30c) comprising at least one silkscreen printing station; d) at least one digital printing station positioned along said path (P), for printing the items supported by said one or more supports (20a-20d), wherein said digital printing station comprises a structure substantially integral with said guide , and a first printing element associated with said structure and movable relative to said structure , wherein said first printing element is movable in a first direction (D1) that is transversal to a second direction (D2) in which said guide extends at said digital printing station , wherein said first printing element is movable between a first position (XI), in which it executes a printing operation at a first tract (T1) of said guide , and a second position (X2), in which it executes a printing operation at a second tract (T2) of said guide , wherein said first tract (T1) is substantially parallel to said second tract (T2), wherein said one or more supports (20a-20d) are moved on said first tract (T1) in a first direction, wherein said one or more supports (20a-20d) are moved on said second tract (T2) in a second direction, opposite to said first direction.
A method for preparing an inhibited starch, wherein it comprises the steps of a) providing a slurry containing a granular starch obtained from a starch containing raw material, b) alkalizing the slurry by adding ammonia or by adding one or more compounds having the ability to release or produce ammonia in the slurry, c) adjusting the pH of the slurry to a value above 10.0, preferably up to 12.0, and d) adding at least one oxidant being a source of active chlorine to the slurry for a reaction with said ammonia, or wherein step c) is replaced with the step of adjusting the pH of the slurry to a value of between 7.0 and 10.0, and wherein step d) is followed by a step of adjusting the pH of the slurry to a value above 10.0, preferably up to 12.0. a) providing a slurry containing a granular starch obtained from a starch containing raw material, b) alkalizing the slurry by adding ammonia or by adding one or more compounds having the ability to release or produce ammonia in the slurry, c) adjusting the pH of the slurry to a value above 10.0, preferably up to 12.0, and d) adding at least one oxidant being a source of active chlorine to the slurry for a reaction with said ammonia,