mhurhangee/patent-ind-claim-en huggingface dataset:
A data-processing-circuit comprising: a clock-input-terminal configured to receive a clock-signal; a data-output-terminal configured to provide a data-output-signal; an adjustable-driver-buffer configured to: receive a data-signal ; and apply a driver-strength-value to the data-signal in order to provide a data-output-signal , wherein the current level of the data-output-signal is based on the driver-strength-value; and a driver-control-module comprising: a time-alignment-module configured to: process the clock-signal and the data-output-signal in order to determine a timing-delay-signal that is representative of a time delay between: (i) a transition in the clock-signal; and (ii) a transition in the data-output-signal; and provide the driver-strength-value for the adjustable-driver-buffer based on the timing-delay-signal and a target-delay-signal, wherein the driver-strength-value is for reducing a difference between: (i) the timing-delay-signal; and (ii) the target-delay-signal by varying the current level of the data-output-signal based on the driver-strength-value. a clock-input-terminal configured to receive a clock-signal; a data-output-terminal configured to provide a data-output-signal; an adjustable-driver-buffer configured to: receive a data-signal ; and apply a driver-strength-value to the data-signal in order to provide a data-output-signal , wherein the current level of the data-output-signal is based on the driver-strength-value; and receive a data-signal ; and apply a driver-strength-value to the data-signal in order to provide a data-output-signal , wherein the current level of the data-output-signal is based on the driver-strength-value; and a driver-control-module comprising: a time-alignment-module configured to: process the clock-signal and the data-output-signal in order to determine a timing-delay-signal that is representative of a time delay between: (i) a transition in the clock-signal; and (ii) a transition in the data-output-signal; and provide the driver-strength-value for the adjustable-driver-buffer based on the timing-delay-signal and a target-delay-signal, wherein the driver-strength-value is for reducing a difference between: (i) the timing-delay-signal; and (ii) the target-delay-signal by varying the current level of the data-output-signal based on the driver-strength-value. process the clock-signal and the data-output-signal in order to determine a timing-delay-signal that is representative of a time delay between: (i) a transition in the clock-signal; and (ii) a transition in the data-output-signal; and provide the driver-strength-value for the adjustable-driver-buffer based on the timing-delay-signal and a target-delay-signal, wherein the driver-strength-value is for reducing a difference between: (i) the timing-delay-signal; and (ii) the target-delay-signal by varying the current level of the data-output-signal based on the driver-strength-value.
A bearing assembly for a drivetrain of a wind turbine , the bearing assembly comprising: at least one shaft comprising a circumferential outer surface, the at least one shaft comprising at least one of a pin shaft, a low-speed shaft, or a high-speed shaft of the drivetrain; a bearing secured circumferentially around the circumferential outer surface of the at least one shaft , the bearing comprising at least one of a journal bearing, a thrust bearing, an axial bearing, or a radial bearing; and, an elastomer support arranged on an inner surface of the bearing , wherein the elastomer support is secured to the inner surface of the bearing and comprises a generally arcuate shape, the elastomer support being constructed, at least in part, of an elastomeric material, characterised in that the elastomer support is further constructed, at least in part, of at least one reinforcement material and the elastomer support comprises one or more voids . at least one shaft comprising a circumferential outer surface, the at least one shaft comprising at least one of a pin shaft, a low-speed shaft, or a high-speed shaft of the drivetrain; a bearing secured circumferentially around the circumferential outer surface of the at least one shaft , the bearing comprising at least one of a journal bearing, a thrust bearing, an axial bearing, or a radial bearing; and, an elastomer support arranged on an inner surface of the bearing , wherein the elastomer support is secured to the inner surface of the bearing and comprises a generally arcuate shape, the elastomer support being constructed, at least in part, of an elastomeric material, characterised in that the elastomer support is further constructed, at least in part, of at least one reinforcement material and the elastomer support comprises one or more voids .
An extensible shell for constructing a support pier in ground, the extensible shell being continuous and defining an interior for holding granular construction material and defining a first end having a first opening and a second end having a second opening for receiving the granular construction material into the interior, wherein the shell is flexible such that the shell expands laterally outward in ground when granular construction material is compacted in the interior of the shell, characterized by the shell has a hexagon-shaped cross-section and a tapered tip at the first end.
A method for characterizing particles using a flow cytometer comprising: a. passing of one or more particles in a fluid stream through a light beam of the flow cytometer, b. detecting radiated light as one or more particles pass through the light beam, c. generating a waveform which is a digital representation of the detected radiated light, and d. transforming said waveform using one or more basis functions and obtaining one or more coefficients characterizing the waveform, characterized in that the waveform is transformed by a wavelet transformation, the one or more basis functions are wavelets and the one or more coefficients characterizing the waveform are wavelet coefficients, wherein the method comprises the step of determining at least one biological and/or physical property of the particles based upon the one or more coefficients characterizing the waveform by comparing the one or more coefficients of analyzed particles to a set of calibration coefficients previously obtained from calibration particles for which the at least one biological and/or physical property was known. a. passing of one or more particles in a fluid stream through a light beam of the flow cytometer, b. detecting radiated light as one or more particles pass through the light beam, c. generating a waveform which is a digital representation of the detected radiated light, and d. transforming said waveform using one or more basis functions and obtaining one or more coefficients characterizing the waveform, the waveform is transformed by a wavelet transformation, the one or more basis functions are wavelets and the one or more coefficients characterizing the waveform are wavelet coefficients, wherein the method comprises the step of determining at least one biological and/or physical property of the particles based upon the one or more coefficients characterizing the waveform by comparing the one or more coefficients of analyzed particles to a set of calibration coefficients previously obtained from calibration particles for which the at least one biological and/or physical property was known.
Caterpillar trap , in particular for pine processionary caterpillars, comprising: - a profile, forming a path floor for the caterpillars, - a caterpillar collection bag connected to the path floor , - a collar in the form of a wall which externally delimits the path floor , and - clamping and fastening means for winding and tightening the collar around a tree trunk such that it is spaced apart therefrom by the path floor , - at least one orienting member projecting from the path floor , the orienting member being designed to extend between the periphery of the tree trunk and the collar or vice versa, so as to separate the caterpillars from the tree trunk and/or from the collar , characterized in that it further comprises a funnel device , a lower mouth of which opens into the caterpillar collection bag , and in that at least one end of the path floor is connected to an upper mouth of this funnel device . - a profile, forming a path floor for the caterpillars, - a caterpillar collection bag connected to the path floor , - a collar in the form of a wall which externally delimits the path floor , and - clamping and fastening means for winding and tightening the collar around a tree trunk such that it is spaced apart therefrom by the path floor , - at least one orienting member projecting from the path floor , the orienting member being designed to extend between the periphery of the tree trunk and the collar or vice versa, so as to separate the caterpillars from the tree trunk and/or from the collar ,
Device for producing filled containers from preforms using liquid filling material introduced into the preform under pressure, comprising a moulding and filling station with a mould , in which a preform can be moulded into a filled container, and a moulding and filling head , which can be supplied with filling material under pressure via a supply line , and which includes a filling valve for controlling the supply of filling material to the preform , wherein the filling valve includes a valve arrangement with a valve body , and wherein the moulding and filling head comprises a horizontal bar , which passes through the valve body of the valve arrangement, characterised in that - the valve arrangement comprises the following: a first and a second pipe socket with substantially the same diameter (D), which are arranged at a distance from one another, wherein the valve body is arranged between the pipe sockets and its biggest diameter at least matches the diameter of the pipe sockets , - as well as a sleeve slidably movable along both pipe sockets , which bridges the gap between the two pipe sockets in a sealing manner, wherein the sleeve has a maximum inside diameter which is bigger than the maximum diameter of the valve body , - and the sleeve is slidable along the pipe sockets in such a way that it is in contact with a sealing surface arranged at the valve body in a closed position of the valve arrangement, - and the sealing surface essentially has the diameter (D) of the pipe sockets . - the valve arrangement comprises the following: a first and a second pipe socket with substantially the same diameter (D), which are arranged at a distance from one another, wherein the valve body is arranged between the pipe sockets and its biggest diameter at least matches the diameter of the pipe sockets , - as well as a sleeve slidably movable along both pipe sockets , which bridges the gap between the two pipe sockets in a sealing manner, wherein the sleeve has a maximum inside diameter which is bigger than the maximum diameter of the valve body , - and the sleeve is slidable along the pipe sockets in such a way that it is in contact with a sealing surface arranged at the valve body in a closed position of the valve arrangement, - and the sealing surface essentially has the diameter (D) of the pipe sockets .
A tool body for a milling tool having a central rotation axis (C) around which the tool body is rotatable, including: - a front end , - a rear end comprising a central recess configured to receive coolant from a spindle of a machine, - an envelope surface extending between the front end and the rear end of the tool body , - at least one insert seat in which a cutting insert can be securely mounted formed in a transition between the front end and the envelope surface , - a chip pocket provided in front of each insert seat , - a coolant passage system for passage of coolant from the central recess to each chip pocket , comprising at least one coolant passageway , said coolant passageway comprising a rear portion extending outward and forward into the tool body from the central recess , and a front portion extending from the rear portion and into said chip pocket , in which an outlet is provided, wherein the rear portion of said at least one coolant passageway is wider than the front portion of said coolant passageway , and wherein the rear portion has a width of at least twice a width of the front portion , characterised in that said coolant passageway comprises at least two separate front portions sharing a common rear portion and extending into the same chip pocket , in which at least two outlets are provided. - a front end , - a rear end comprising a central recess configured to receive coolant from a spindle of a machine, - an envelope surface extending between the front end and the rear end of the tool body , - at least one insert seat in which a cutting insert can be securely mounted formed in a transition between the front end and the envelope surface , - a chip pocket provided in front of each insert seat , - a coolant passage system for passage of coolant from the central recess to each chip pocket , comprising at least one coolant passageway , said coolant passageway comprising a rear portion extending outward and forward into the tool body from the central recess , and a front portion extending from the rear portion and into said chip pocket , in which an outlet is provided, wherein the rear portion of said at least one coolant passageway is wider than the front portion of said coolant passageway , and wherein the rear portion has a width of at least twice a width of the front portion , characterised in that said coolant passageway comprises at least two separate front portions sharing a common rear portion and extending into the same chip pocket , in which at least two outlets are provided.
A noise-attenuation apparatus (300; 400) for use with a pressure regulator, the noise-attenuation apparatus comprising: a body defining a fluid passageway between an inlet and an outlet , the body having a wall ; a first noise attenuator (312; 402) disposed at a first position in the fluid passageway; an annular ring (330; 416) comprising an outer edge (340; 434) defining a groove (342; 436), the groove configured to receive a protruding edge of the wall of the body to position the first noise attenuator (312; 402) at the first position; a second noise attenuator (314; 404) disposed at a second position in the fluid passageway, the second position spaced apart from the first position along the fluid passageway; and fasteners (328; 414) coupled to the annular ring and extending between the first noise attenuator and the second noise attenuator to position the first noise attenuator at the first position and the second noise attenuator at the second position, the fasteners coupled to peripheral portions of the first and second noise attenuators. a body defining a fluid passageway between an inlet and an outlet , the body having a wall ; a first noise attenuator (312; 402) disposed at a first position in the fluid passageway; an annular ring (330; 416) comprising an outer edge (340; 434) defining a groove (342; 436), the groove configured to receive a protruding edge of the wall of the body to position the first noise attenuator (312; 402) at the first position; a second noise attenuator (314; 404) disposed at a second position in the fluid passageway, the second position spaced apart from the first position along the fluid passageway; and fasteners (328; 414) coupled to the annular ring and extending between the first noise attenuator and the second noise attenuator to position the first noise attenuator at the first position and the second noise attenuator at the second position, the fasteners coupled to peripheral portions of the first and second noise attenuators.
A method comprising: receiving a selection by a first user of at least one first service identifier associated with a second service , wherein the second service comprises a content delivery service; generating an opaque identifier associated with the first user, a first service , and the second service, wherein the opaque identifier is associated with known user information accessible to the first service and anonymous to the second service, wherein the first service comprises a data collection service, and wherein the first service processes demographic information about the first user; transmitting the opaque identifier to the second service to allow access to the second service, wherein the opaque identifier facilitates anonymous gathering of first data by the second service relating to consumption of content from the second service; receiving the anonymously gathered first data from the second service, wherein the anonymously gathered first data is associated with the opaque identifier by the second service; and generating information by performing a demographic analysis on the anonymously gathered first data. receiving a selection by a first user of at least one first service identifier associated with a second service , wherein the second service comprises a content delivery service; generating an opaque identifier associated with the first user, a first service , and the second service, wherein the opaque identifier is associated with known user information accessible to the first service and anonymous to the second service, wherein the first service comprises a data collection service, and wherein the first service processes demographic information about the first user; transmitting the opaque identifier to the second service to allow access to the second service, wherein the opaque identifier facilitates anonymous gathering of first data by the second service relating to consumption of content from the second service; receiving the anonymously gathered first data from the second service, wherein the anonymously gathered first data is associated with the opaque identifier by the second service; and generating information by performing a demographic analysis on the anonymously gathered first data.
A method for producing acetic acid comprising: A) combining, in a carbonylation reactor, a carbonylation catalyst, methanol, carbon monoxide, and water, to form a reactor mixture; B) introducing a feed stream comprising methyl acetate and methanol into the carbonylation reactor, and C) measuring a concentration of methyl acetate and/or methanol in the feed stream by Raman spectroscopic analysis or by infrared spectroscopic analysis; and D) adjusting at least one feed stream comprising water in response to the concentration measured by Raman spectroscopic analysis or infrared spectroscopic analysis. A) combining, in a carbonylation reactor, a carbonylation catalyst, methanol, carbon monoxide, and water, to form a reactor mixture; B) introducing a feed stream comprising methyl acetate and methanol into the carbonylation reactor, and C) measuring a concentration of methyl acetate and/or methanol in the feed stream by Raman spectroscopic analysis or by infrared spectroscopic analysis; and D) adjusting at least one feed stream comprising water in response to the concentration measured by Raman spectroscopic analysis or infrared spectroscopic analysis.
A method for the computer-aided training of an artificial neural network for recognizing structural features on objects, namely on plants or on plant constituents for the cloning of these plants, wherein the structural features represent particularly suitable cutting positions on the plant, wherein the network used is a convolutional neural network (CNN), in particular a regional convolutional neural network (R-CNN), having a multiplicity of neurons, said network comprising a multiplicity of convolutional and/or pooling layers for the extraction of information from images of the objects having the structural features to be recognized for a classification of the features by further layers, wherein the images are scaled up and down from layer to layer and wherein during the scaling of the images from layer to layer information about the structural features of the objects is obtained, specifically independently of the scaling of the images, wherein a plurality of images from different perspectives of the same object for recognizing the structural features are transferred simultaneously to the neural network, and wherein computer-aided operations for recognizing the structural features of the object are carried out on the images in parallel on a plurality of GPUs.
A method of operating a multi-cell power supply comprising a plurality of series-connected power cells (16a1-16c5) in each of a plurality of legs (A, B, C), each power cell (16a1-16c5) comprising a bypass device that may be used to selectively bypass and de-bypass the power cell (16a1-16c5), wherein after a first power cell (16a1-16c5) faults and is bypassed as a result of the fault, the method comprises: de-bypassing the first power cell (16a1-16c5) without stopping the multi-cell power supply if the first power cell (16a1-16c5) fault was caused by a predetermined operating condition, wherein the predetermined operating condition comprises any of an overvoltage condition, an over-temperature condition, and a line disturbance, determining if the predetermined operating condition no longer exists prior to de-bypassing the first power cell (16a1-16c5), and determining if the bypassed power cell (16a1-16c5) is functional prior to de-bypassing the first power cell (16a1-16c5). de-bypassing the first power cell (16a1-16c5) without stopping the multi-cell power supply if the first power cell (16a1-16c5) fault was caused by a predetermined operating condition, wherein the predetermined operating condition comprises any of an overvoltage condition, an over-temperature condition, and a line disturbance, determining if the predetermined operating condition no longer exists prior to de-bypassing the first power cell (16a1-16c5), and determining if the bypassed power cell (16a1-16c5) is functional prior to de-bypassing the first power cell (16a1-16c5).
An omnidirectional vector electrostatic levitation geophone, comprising: a regular tetrahedron hollowed-out structure, and an inner hollowed-out base and an outer hollowed-out base that are provided inside and outside the regular tetrahedron hollowed-out structure and at equal distance from the regular tetrahedron hollowed-out structure, and have the same structure as and different size from the regular tetrahedron hollowed-out structure; the regular tetrahedron hollowed-out structure has a solid part and a hollowed-out part of each surface thereof, the solid part is a quadrangle divided from angular bisectors of two angles on each surface and an isosceles triangle that abuts the solid part by a surface central point, and the hollowed-out part is two triangles that are divided from the angular bisectors of the two angles and abut each other by a surface central point; an outer surface of each surface of the inner hollowed-out base is plated with a metal layer; wherein a size of the metal layer is smaller than that of the quadrangle and the isosceles triangle of the inner hollowed-out base, and the metal layer on the quadrangle of the inner hollowed-out base and the metal layer on the isosceles triangle do not contact each other; an inner surface of each surface of the outer hollowed-out base is plated with a metal layer; wherein a size of the metal layer is smaller than that of the quadrangle and the isosceles triangle of the outer hollowed-out base, and the metal layer on the quadrangle of the outer hollowed-out base and the metal layer on the isosceles triangle do not contact each other; a first circuit is connected between the metal layers on the quadrangle on surfaces that are symmetric on the outer hollowed-out base and the inner hollowed-out base; a second circuit is connected between the metal layers on the isosceles triangles on surfaces that are symmetric on the outer hollowed-out base and the inner hollowed-out base.