mhurhangee/patent-ind-claim-en huggingface dataset:
An electric vehicle control system , comprising: a domain control unit configured to control an electric vehicle; a current sampling unit configured to sample current of a power battery and a motor driver module of the electric vehicle, and send sampling signals to the domain control unit ; an electrical device , driven by the power battery , configured to sample current flowing through the electrical device and send sampling signals to the domain control unit ; a switch module configured to turn on or off power supply circuits of the electrical device and the motor driver module ; and a voltage sampling unit configured to sample voltage of the switch module and send sampling signals to the domain control unit , wherein the domain control unit is configured to manage the power battery and control the motor driver module and the electrical device according to the sampling signals sent by the electrical device and the current sampling unit , and the domain control unit is configured to perform on or off control of the switch module according to the sampling signals sent by the voltage sampling unit , characterized in that the domain control unit is connected to the electrical device and the current sampling unit with signal wires, and the domain control unit is connected to the switch module with hard wires. a domain control unit configured to control an electric vehicle; a current sampling unit configured to sample current of a power battery and a motor driver module of the electric vehicle, and send sampling signals to the domain control unit ; an electrical device , driven by the power battery , configured to sample current flowing through the electrical device and send sampling signals to the domain control unit ; a switch module configured to turn on or off power supply circuits of the electrical device and the motor driver module ; and a voltage sampling unit configured to sample voltage of the switch module and send sampling signals to the domain control unit , wherein the domain control unit is configured to manage the power battery and control the motor driver module and the electrical device according to the sampling signals sent by the electrical device and the current sampling unit , and the domain control unit is configured to perform on or off control of the switch module according to the sampling signals sent by the voltage sampling unit , characterized in that the domain control unit is connected to the electrical device and the current sampling unit with signal wires, and the domain control unit is connected to the switch module with hard wires.
A method for wireless communication performed by a user equipment, UE, comprising: identifying a first subcarrier spacing for synchronization signals, SSs; receiving (2105; 2205) an indication of a synchronization signal, SS, burst set pattern, comprising receiving a radio resource control, RRC, transmission that indicates the SS burst set pattern; identifying the SS burst set pattern based at least in part on the received indication of the SS burst set pattern and the first subcarrier spacing; and determining (2110; 2210) a time location of one of more SSs based at least in part on the received indication, further comprising: identifying positions to monitor for one or more sets of SS blocks based at least in part on the received indication of the SS burst set pattern; and monitoring the identified positions for the one or more sets of SS blocks; and wherein the SS burst set pattern indicates one or more symbols within one or more occupied slots of a set of slots that contain SS block information. identifying a first subcarrier spacing for synchronization signals, SSs; receiving (2105; 2205) an indication of a synchronization signal, SS, burst set pattern, comprising receiving a radio resource control, RRC, transmission that indicates the SS burst set pattern; identifying the SS burst set pattern based at least in part on the received indication of the SS burst set pattern and the first subcarrier spacing; and determining (2110; 2210) a time location of one of more SSs based at least in part on the received indication, further comprising: identifying positions to monitor for one or more sets of SS blocks based at least in part on the received indication of the SS burst set pattern; and monitoring the identified positions for the one or more sets of SS blocks; and wherein the SS burst set pattern indicates one or more symbols within one or more occupied slots of a set of slots that contain SS block information. identifying positions to monitor for one or more sets of SS blocks based at least in part on the received indication of the SS burst set pattern; and monitoring the identified positions for the one or more sets of SS blocks; and wherein the SS burst set pattern indicates one or more symbols within one or more occupied slots of a set of slots that contain SS block information.
A method for the separation of fibres using the following elements: • A container with a predetermined reception volume; • A vacuum pump , which is connected to the container volume via a vacuum line and a valve; • A ventilation line with a predetermined cross-sectional opening and at least one valve , wherein the valve can be switched from a closed state to an open state within a time period of between 19 msec and 41 msec, and from the open state to the closed state within a time period of between 20 msec and 45 msec; and the method has at least the following steps: i) Filling of the container with a predetermined quantity of water and at least one fibre composite; ii) Gas-tight closure of the container ; iii) Mixing of the water and the fibre composite by means of mechanical energy, in particular by stirring; iv) Generation of kinetic energy in the fibre composite by the steps: v) Reduction of the internal pressure of the container to not more than -950 hPa; vi) Pressure equalisation in the interior of the container for the generation of cavitation in the fibre composite; wherein, step (vi) takes place within a time period of between 0.001 sec and 1 sec. • A container with a predetermined reception volume; • A vacuum pump , which is connected to the container volume via a vacuum line and a valve; • A ventilation line with a predetermined cross-sectional opening and at least one valve , wherein the valve can be switched from a closed state to an open state within a time period of between 19 msec and 41 msec, and from the open state to the closed state within a time period of between 20 msec and 45 msec; i) Filling of the container with a predetermined quantity of water and at least one fibre composite; ii) Gas-tight closure of the container ; iii) Mixing of the water and the fibre composite by means of mechanical energy, in particular by stirring; iv) Generation of kinetic energy in the fibre composite by the steps: v) Reduction of the internal pressure of the container to not more than -950 hPa; vi) Pressure equalisation in the interior of the container for the generation of cavitation in the fibre composite; wherein,
A method of training a segmentation unit for autonomous route determination, wherein the segmentation unit is taught to identify a proposed path within an image that would be likely to be chosen by a driver, the method comprising: obtaining data from a data collection vehicle driven along a path through an environment, the data comprising: vehicle odometry data detailing the path along which the vehicle is driven through the environment, obstacle sensing data detailing obstacles detected in the environment; and images of the environment; creating the training data set by labelling the images , the labelling comprising: using the obstacle sensing data to label one or more portions of the environment represented in at least some of the images as obstacles; using the vehicle odometry data to label one or more portions of the environment represented in at least some of the images as the path along which the vehicle is driven through the environment; and training the segmentation unit using the training dataset to identify the proposed path. obtaining data from a data collection vehicle driven along a path through an environment, the data comprising: vehicle odometry data detailing the path along which the vehicle is driven through the environment, obstacle sensing data detailing obstacles detected in the environment; and images of the environment; vehicle odometry data detailing the path along which the vehicle is driven through the environment, obstacle sensing data detailing obstacles detected in the environment; and images of the environment; creating the training data set by labelling the images , the labelling comprising: using the obstacle sensing data to label one or more portions of the environment represented in at least some of the images as obstacles; using the vehicle odometry data to label one or more portions of the environment represented in at least some of the images as the path along which the vehicle is driven through the environment; and training the segmentation unit using the training dataset to identify the proposed path. using the obstacle sensing data to label one or more portions of the environment represented in at least some of the images as obstacles; using the vehicle odometry data to label one or more portions of the environment represented in at least some of the images as the path along which the vehicle is driven through the environment; and training the segmentation unit using the training dataset to identify the proposed path.
Dicaffeoyl spermidine derivative glycosides having the following structure formula, or pharmaceutically acceptable salts thereof, wherein, - R 1 , R 2 , R 3 and R 4 are hydroxy, methoxy, or optionally substituted glycosyl, and at least one of R 1 , R 2 , R 3 and R 4 is an optionally substituted glycosyl, - R 5 and R 6 are both -CH= or -CH 2 -, wherein the optionally substituted glycosyl is optionally substituted with one or more of the following monosaccharide groups and disaccharide groups or polysaccharide groups formed by the following monosaccharides selected from the group consisting of glucosyl, glucuronyl, mannosyl, galactosyl, allosyl, fructosyl, sorbosyl, furanosyl, rhamnosyl, quinovosyl, arabinosyl, lyxosyl, xylosyl, ribosyl, for use in preventing and/or treating neurodegenerative diseases or for use in preventing and/or treating viral infectious diseases. - R 1 , R 2 , R 3 and R 4 are hydroxy, methoxy, or optionally substituted glycosyl, and at least one of R 1 , R 2 , R 3 and R 4 is an optionally substituted glycosyl, - R 5 and R 6 are both -CH= or -CH 2 -, wherein the optionally substituted glycosyl is optionally substituted with one or more of the following monosaccharide groups and disaccharide groups or polysaccharide groups formed by the following monosaccharides selected from the group consisting of glucosyl, glucuronyl, mannosyl, galactosyl, allosyl, fructosyl, sorbosyl, furanosyl, rhamnosyl, quinovosyl, arabinosyl, lyxosyl, xylosyl, ribosyl, for use in preventing and/or treating neurodegenerative diseases or for use in preventing and/or treating viral infectious diseases.
Containment assembly for a pump provided with at least one pumping group and with at least one power transmission system for transmitting power to said pumping group, the containment assembly comprising: - a substantially cylindrical containment vessel provided with an opening at one of its two ends, said containment vessel being configured to at least partially enclose the pumping group and the respective power transmission system ; and - at least one closure plate , sealably coupled with the containment vessel at the open end thereof and configured to hermetically enclose, in cooperation with said containment vessel , the pumping group and the respective power transmission system , the containment assembly being characterised in that on a predetermined contact portion between the containment vessel and the closure plate at least one wave spring is provided, configured to keep the pumping group dynamically under compression by means of the closure plate , said wave spring thus making it possible to absorb possible thermal dilations of the components of the pumping group , wherein on said predetermined contact portion between the containment vessel and the closure plate a contrast ring is also provided, said contrast ring being arranged in direct contact with the wave spring and being in abutment against a specific wall of the containment vessel to ensure a rigid support for said wave spring , wherein a circumferential edge of said open end of said containment vessel is bent over said closure plate about said contrast ring . - a substantially cylindrical containment vessel provided with an opening at one of its two ends, said containment vessel being configured to at least partially enclose the pumping group and the respective power transmission system ; and - at least one closure plate , sealably coupled with the containment vessel at the open end thereof and configured to hermetically enclose, in cooperation with said containment vessel , the pumping group and the respective power transmission system ,
An apparatus for additive manufacturing printing, comprising: a solution dispenser comprising a print solution having embedded therein particles having a size of 1-5 μm; a jet configured to disperse the print solution from the dispenser; and a tunable heat filter configured to generate a heat filtering zone to burn off the print solution , and melt the particles , as the print solution passes through the heat filtering zone ; wherein the tunable heat filter is configured to deliver heat energy at a selected frequency or frequencies, or at a selected temperature or temperatures, wherein the apparatus is configured to jet the molten particles onto an additive manufacturing print build , characterized in that , the tunable heat filter is provided as a heat block filter having one or more levels of suitably-sized filtering holes along a heated substrate. a solution dispenser comprising a print solution having embedded therein particles having a size of 1-5 μm; a jet configured to disperse the print solution from the dispenser; and a tunable heat filter configured to generate a heat filtering zone to burn off the print solution , and melt the particles , as the print solution passes through the heat filtering zone ; wherein the tunable heat filter is configured to deliver heat energy at a selected frequency or frequencies, or at a selected temperature or temperatures, wherein the apparatus is configured to jet the molten particles onto an additive manufacturing print build ,
Three-dimensional tread for a tire, the tread comprising: a kerf opening formed in a block of a tire tread , and formed into a zigzag wave (W1, W2) shape along a tire circumferential direction in the tread block, and the zigzag wave (W1, W2) is formed such that an amplitude (D1) decreases downward along the depth direction of the block; a tubular-shaped flow channel formed in the lower part of the kerf and having a width (D3) larger than the width of the kerf opening ; and a connecting gap connecting the kerf opening and the flow channel ; and, in some parts of the zigzag wave, a water-discharging columnar cavity capable of discharging water from the vicinity of the kerf at the tire surface is formed, and the water-discharging columnar cavity has a width or diameter (D2) larger than the width (T1) of the connecting gap , and in that the water-discharging columnar cavity is formed in the depth direction of the tread block, characterised in that an apex of the zigzag wave at which the water-discharging columnar cavity is formed is located at a position on a center line (C) of the zigzag wave (W1, W2). a kerf opening formed in a block of a tire tread , and formed into a zigzag wave (W1, W2) shape along a tire circumferential direction in the tread block, and the zigzag wave (W1, W2) is formed such that an amplitude (D1) decreases downward along the depth direction of the block; a tubular-shaped flow channel formed in the lower part of the kerf and having a width (D3) larger than the width of the kerf opening ; and a connecting gap connecting the kerf opening and the flow channel ; and, in some parts of the zigzag wave, a water-discharging columnar cavity capable of discharging water from the vicinity of the kerf at the tire surface is formed, and the water-discharging columnar cavity has a width or diameter (D2) larger than the width (T1) of the connecting gap , and in that the water-discharging columnar cavity is formed in the depth direction of the tread block, characterised in that an apex of the zigzag wave at which the water-discharging columnar cavity is formed is located at a position on a center line (C) of the zigzag wave (W1, W2).
A method for obtaining information on the cardiovascular system non-invasively, continuously and beat by beat, the method comprising: a) injecting an alternating current and measuring potential differences between two limbs, using a total of four electrodes which are, for each of the two limbs, one injector electrode and one measuring electrode close to each other and located on a distal segment thereof; b) obtaining an electrocardiogram, ECG, from the measurement between the two limbs; c) obtaining an impedance plethysmogram, IPG, from the same measurement between the two limbs; d) identifying specific predefined elements in the ECG and the pulsing component of the IPG; e) measuring time intervals between the identified specific predefined elements; and f) estimating the pulse propagation time from said time intervals. a) injecting an alternating current and measuring potential differences between two limbs, using a total of four electrodes which are, for each of the two limbs, one injector electrode and one measuring electrode close to each other and located on a distal segment thereof; b) obtaining an electrocardiogram, ECG, from the measurement between the two limbs; c) obtaining an impedance plethysmogram, IPG, from the same measurement between the two limbs; d) identifying specific predefined elements in the ECG and the pulsing component of the IPG; e) measuring time intervals between the identified specific predefined elements; and f) estimating the pulse propagation time from said time intervals.
A process for the oligomerization of an olefinic feed comprising olefins containing at least 3 carbon atoms.employing a catalyst comprising at least one aluminosilicate type zeolite having pore openings containing 10 or 12 oxygen atoms (10MR or 12MR) with an overall Si/Al ratio of more than 10 selected from ferrierite, ZSM-5, ZSM-12, NU-86, mordenite, ZSM-22, NU-10, ZBM-30, ZSM-11, ZSM-57, IZM-2, ITQ-6 and IM-5, used alone or as a mixture, shaped with an alumina binder selected from hydrates of alumina selected from hydrargillite, gibbsite, nordstrandite, bayerite, boehmite or pseudo-boehmite and amorphous alumina gels, used alone or as a mixture, and transition aluminas selected from chi, kappa, rho, eta, theta, gamma and delta aluminas, alone or as a mixture, said catalyst comprising 20% to 70% by weight of zeolite having pore openings containing 10 or 12 oxygen atoms (10MR or 12MR) and 30% to 80% by weight of alumina binder, the percentages by weight being expressed with respect to the total mass of said catalyst, said catalyst having undergone at least one heat treatment step before being used in said oligomerization process carried out in a stream of moist air containing in the range 1% to 20% by weight of water, at a flow rate of moist air in the range 0.1 to 10 NL/h/g cat , at a temperature in the range 450°C to 700°C and for a period in the range 1 to 10 h, said heat treatment step being carried out after the step for shaping the zeolite with the alumina binder, said oligomerization process being carried out at a temperature in the range 150°C to 350°C, at a pressure in the range 0.2 to 10 MPa and at a weight hourly space velocity in the range 0.1 to 8 h -1 .
Device for retaining and for the commanded release of an element to be released in a release direction , the device having at least two retaining elements which can be displaced between a retaining position and a release position, the retaining elements being held in the retaining position by a tensioning element which wraps around them, wherein a separating element which is acted upon by a force is set against the retaining elements in the release direction in order to actively drive the retaining elements apart transversely with respect to the release direction , wherein the separating element is arranged displaceably on a guide mandrel mounted coaxially to the release direction and wherein the guide mandrel has a stop surface for retaining the separating element in the release position.
Device (10; 110) for rotatable mounting of a camshaft of an internal combustion engine, comprising: a first bearing body (14; 14A) with a receiver (22; 22A) for rotatable mounting of the camshaft ; a cylinder head or a fixing frame for fixing the first bearing body (14; 14A); and a first fixing means which fixes the first bearing body (14; 14A) to the cylinder head or fixing frame , wherein the first fixing means is the sole fixing means which fixes the first bearing body (14; 14A) to the cylinder head or fixing frame , characterized by: a rocker arm shaft for rotatable mounting of a rocker arm, wherein the first fixing means additionally fixes the rocker arm shaft to the cylinder head or fixing frame . a first bearing body (14; 14A) with a receiver (22; 22A) for rotatable mounting of the camshaft ; a cylinder head or a fixing frame for fixing the first bearing body (14; 14A); and a first fixing means which fixes the first bearing body (14; 14A) to the cylinder head or fixing frame , wherein the first fixing means is the sole fixing means which fixes the first bearing body (14; 14A) to the cylinder head or fixing frame ,
A strain sensor comprising: a base ; a plurality of supports provided in a state of protruding from the base and around which an optical fiber is wound; one or a plurality of the optical fibers provided in a state of having parts directed to different directions each other between the supports as viewed from an opposite direction to the base , the parts detecting strain respectively; and fixing materials to fix the optical fiber to the supports in a state in which tension is applied to the parts between the supports , wherein the base comprises a plurality of island-shaped members on which each of the supports is provided respectively, and a connection to separably connect the island-shaped members ; wherein the connection is adapted to be removed such that after removal each of the island-shaped members is independent respectively so as not to be affected by other island-shaped members . a base ; a plurality of supports provided in a state of protruding from the base and around which an optical fiber is wound; one or a plurality of the optical fibers provided in a state of having parts directed to different directions each other between the supports as viewed from an opposite direction to the base , the parts detecting strain respectively; and fixing materials to fix the optical fiber to the supports in a state in which tension is applied to the parts between the supports , wherein the base comprises a plurality of island-shaped members on which each of the supports is provided respectively, and a connection to separably connect the island-shaped members ; wherein the connection is adapted to be removed such that after removal each of the island-shaped members is independent respectively so as not to be affected by other island-shaped members .