mhurhangee/patent-ind-claim-en huggingface dataset:
Method for graphically displaying contents in a motor vehicle having a first sensor configured to capture environmental data, a second sensor configured to capture vehicle data, a communication module and a display system which is configured to display graphical contents and has a screen , the method comprising: • displaying (S100) an initial image section of an image signal with at least one image file on the screen , wherein the initial image section makes up between 70% and 95% of the area of the at least one image file of the image signal; • predicting (S200) a change in a movement state of the motor vehicle on the basis of at least one signal received from the at least one first sensor , from the at least one second sensor and/or from the communication module ; • predicting (S300) a change in a relative position between a user and the initial image section on the basis of the predicted change in the movement state of the motor vehicle ; and • displaying (S400) an adapted image section on the basis of the predicted change in the relative position between the user and the initial image section , wherein the adaptation relates to the position, the orientation and/or the size of the adapted image section within the at least one image file of the image signal. • displaying (S100) an initial image section of an image signal with at least one image file on the screen , wherein the initial image section makes up between 70% and 95% of the area of the at least one image file of the image signal; • predicting (S200) a change in a movement state of the motor vehicle on the basis of at least one signal received from the at least one first sensor , from the at least one second sensor and/or from the communication module ; • predicting (S300) a change in a relative position between a user and the initial image section on the basis of the predicted change in the movement state of the motor vehicle ; and • displaying (S400) an adapted image section on the basis of the predicted change in the relative position between the user and the initial image section , wherein the adaptation relates to the position, the orientation and/or the size of the adapted image section within the at least one image file of the image signal.
A system for testing a wireless terminal, wherein the wireless terminal is configured as a device under test and the system comprises: a plurality of reflecting surfaces , configured to totally reflect one or more first wireless signals emitted by the wireless terminal; a test antenna , configured to receive the one or more first wireless signals reflected by the reflecting surface; and an absorbing screen , configured to absorb one or more second wireless signals emitted by the wireless terminal, wherein the one or more second wireless signals are emitted by the wireless terminal toward a direction of the test antenna; wherein the device under test , the test antenna and the reflecting surfaces correspond to a same ellipsoid, the device under test and the test antenna are arranged at two foci of the ellipsoid respectively, the reflecting surfaces are arranged on the ellipsoidal surface, and the absorbing screen is arranged on a straight line between the device under test and the test antenna ; wherein each of the reflecting surfaces is arranged in a direction whose radiation value exceeds a radiation threshold, so that the system is configured to measure directional radiation from the wireless terminal. a plurality of reflecting surfaces , configured to totally reflect one or more first wireless signals emitted by the wireless terminal; a test antenna , configured to receive the one or more first wireless signals reflected by the reflecting surface; and an absorbing screen , configured to absorb one or more second wireless signals emitted by the wireless terminal, wherein the one or more second wireless signals are emitted by the wireless terminal toward a direction of the test antenna; wherein the device under test , the test antenna and the reflecting surfaces correspond to a same ellipsoid, the device under test and the test antenna are arranged at two foci of the ellipsoid respectively, the reflecting surfaces are arranged on the ellipsoidal surface, and the absorbing screen is arranged on a straight line between the device under test and the test antenna ; wherein each of the reflecting surfaces is arranged in a direction whose radiation value exceeds a radiation threshold, so that the system is configured to measure directional radiation from the wireless terminal.
Drive train having an electric machine (EM), an internal combustion engine (VM), a transmission which consists of two sub-transmissions (TG1, TG2), wherein each sub-transmission (TG1, TG2) is assigned gear sets having fixed gears and idler gears which represent gear stages, and wherein the internal combustion engine (VM) is able to be linked to the transmission by way of a dual clutch having a first and a second clutch (K1, K2), and the electric machine (EM) is able to be linked to the first sub-transmission (TG1), wherein the first sub-transmission (TG1) by a first drive shaft (A1) is able to be linked to the internal combustion engine (VM) by way of the first clutch (K1) and - in the direction away from the internal combustion engine - has a fixed gear for a fifth gear stage (F5) and a fixed gear for a third gear stage (F3), and the second sub-transmission (TG2) by a second drive shaft (A2) is able to be linked to the internal combustion engine (VM) by way of the second clutch (K2) and has the second and the fourth gear stage with the fixed gears (F2, F4); wherein the fifth gear stage with the fixed gear (F5) and the idler gear (L5) is disposed axially between the fourth gear stage with the fixed gear (F4) on the second sub-transmission (TG2) and a bridging clutch (B) which on an output shaft is disposed between the idler gears of the third and the fifth gear stage (L3, L5) and serves to input the drive of the electric machine (EM), characterized in that a gap between the fixed gear of the fourth gear stage (F4) and the bridging clutch (B), into which the fixed gear of the fifth gear stage (F5) plunges, is achieved by axially expanding the structural arrangement of the fixed gears and idler gears along the first and the second drive shaft (A1, A2), said fixed gear of the fifth gear stage (F5) simultaneously serving as an electrical input gear on the first drive shaft (A1), by way of which the electric drive machine (EM) is linked.
A liquid composition comprising: a) surfactant, and b) microfibrillated cellulose derived from wood, wherein the composition comprises enzymes selected from the group consisting of: cellulases, endoglucanase with activity towards xyloglucan, and mixtures thereof. a) surfactant, and b) microfibrillated cellulose derived from wood,
A delivery device comprising: a handle assembly ; a piston mount having a distal portion, the distal portion including a stop extending radially from and fixed to the distal portion; and a capsule assembly including a helical compression spring and a plurality of retraction members secured about a distal end of the compression spring; wherein tensioning of the retraction members compresses the compression spring against the stop. a handle assembly ; a piston mount having a distal portion, the distal portion including a stop extending radially from and fixed to the distal portion; and a capsule assembly including a helical compression spring and a plurality of retraction members secured about a distal end of the compression spring; wherein tensioning of the retraction members compresses the compression spring against the stop.
Locking device for locking a dovetail plate admitted into a track of the locking device , comprising: - a base delimiting one face of the track ; - a clamping block , arranged laterally displaceably on the base and comprising a locking face facing the track and a clamping face opposite the locking face , a distance between the locking face of the clamping block and the clamping face of the clamping block varying in a direction parallel to a longitudinal extension of the track ; - a clamping lever , arranged rotatably on the base and comprising a handle part and a cam part , the cam part of the clamping lever acting on the clamping face of the clamping block to displace the clamping block , characterised in that - the base and the clamping block are arranged displaceably parallel to the longitudinal extension of the track and with respect to an axis of the cam part of the clamping lever . - a base delimiting one face of the track ; - a clamping block , arranged laterally displaceably on the base and comprising a locking face facing the track and a clamping face opposite the locking face , a distance between the locking face of the clamping block and the clamping face of the clamping block varying in a direction parallel to a longitudinal extension of the track ; - a clamping lever , arranged rotatably on the base and comprising a handle part and a cam part , the cam part of the clamping lever acting on the clamping face of the clamping block to displace the clamping block , - the base and the clamping block are arranged displaceably parallel to the longitudinal extension of the track and with respect to an axis of the cam part of the clamping lever .
A pneumatic tire comprising: a tread ; one pair of shoulders respectively continued to both sides of the tread with the tread as a center; one pair of sidewalls respectively continued to the shoulders ; one pair of beads respectively continued to the sidewalls ; a body ply formed on the inner side of the tread , shoulders , sidewalls and beads ; a belt and a cap ply sequentially stacked between the inner side of the tread and the body ply ; and an inner liner bonded to the inner side of the body ply , wherein in the inner liner , a sheet including a rubber component is positioned at the part of the body ply corresponding to the shoulders and the sidewalls , and a polymer film including a polyamide-based component is positioned at the part of the body ply corresponding to the tread , and characterized in that the polymer film including a polyamide-based component includes a polyamide-based resin and two or more kinds of copolymers including polyamide-based segments and polyether-based segments. a tread ; one pair of shoulders respectively continued to both sides of the tread with the tread as a center; one pair of sidewalls respectively continued to the shoulders ; one pair of beads respectively continued to the sidewalls ; a body ply formed on the inner side of the tread , shoulders , sidewalls and beads ; a belt and a cap ply sequentially stacked between the inner side of the tread and the body ply ; and an inner liner bonded to the inner side of the body ply , wherein in the inner liner , a sheet including a rubber component is positioned at the part of the body ply corresponding to the shoulders and the sidewalls , and a polymer film including a polyamide-based component is positioned at the part of the body ply corresponding to the tread , and characterized in that the polymer film including a polyamide-based component includes a polyamide-based resin and two or more kinds of copolymers including polyamide-based segments and polyether-based segments.
A random access method, comprising: after obtaining downlink synchronization with a cell, determining , by a user equipment, UE, a preamble sequence of the UE in the cell, wherein the UE has not obtained uplink synchronization with the cell; obtaining , by the UE, service data; determining , by the UE, a scrambling code, wherein the scrambling code is in a one-to-one correspondence with the preamble sequence; scrambling , by the UE, the service data based on the scrambling code, to obtain scrambled service data; determining , by the UE based on a predetermined resource mapping relationship, time-frequency resources respectively occupied by the preamble sequence and the scrambled service data; sending , by the UE on the determined time-frequency resources, the preamble sequence and the scrambled service data to a base station to which the cell belongs; and receiving , by the UE, a random access response from the base station. after obtaining downlink synchronization with a cell, determining , by a user equipment, UE, a preamble sequence of the UE in the cell, wherein the UE has not obtained uplink synchronization with the cell; obtaining , by the UE, service data; determining , by the UE, a scrambling code, wherein the scrambling code is in a one-to-one correspondence with the preamble sequence; scrambling , by the UE, the service data based on the scrambling code, to obtain scrambled service data; determining , by the UE based on a predetermined resource mapping relationship, time-frequency resources respectively occupied by the preamble sequence and the scrambled service data; sending , by the UE on the determined time-frequency resources, the preamble sequence and the scrambled service data to a base station to which the cell belongs; and receiving , by the UE, a random access response from the base station.
A crystallizer for continuous casting comprising a tubular body defining a longitudinal axis X and having a wall with at least one inner face defining a longitudinal through casting cavity , a plurality of longitudinal grooves produced on at least a portion of an outer surface of said wall and open towards the outside thereof, the production of said plurality of longitudinal grooves defining a corresponding plurality of longitudinal fins on the tubular body , a covering winding made of composite material wound directly about the outer surface of said wall to close said longitudinal grooves forming corresponding longitudinal cooling channels adapted to make a cooling liquid flow therein, wherein the portion of the outer surface of said wall occupied by said longitudinal grooves and said longitudinal fins is at least 70% of said outer surface, characterized in that the width of the longitudinal grooves , which corresponds to the width of the longitudinal cooling channels , is greater than the width of the longitudinal fins . a tubular body defining a longitudinal axis X and having a wall with at least one inner face defining a longitudinal through casting cavity , a plurality of longitudinal grooves produced on at least a portion of an outer surface of said wall and open towards the outside thereof, the production of said plurality of longitudinal grooves defining a corresponding plurality of longitudinal fins on the tubular body , a covering winding made of composite material wound directly about the outer surface of said wall to close said longitudinal grooves forming corresponding longitudinal cooling channels adapted to make a cooling liquid flow therein, wherein the portion of the outer surface of said wall occupied by said longitudinal grooves and said longitudinal fins is at least 70% of said outer surface, characterized in that the width of the longitudinal grooves , which corresponds to the width of the longitudinal cooling channels , is greater than the width of the longitudinal fins .
A cleaning device comprising: a holding part holding an imaging element; a translucent body disposed in a visual field of the imaging element; a vibrating element configured to vibrate the translucent body ; a control unit configured to control the vibrating element ; a monitor part configured to detect an electrical characteristic value associated with a vibration of the vibrating element ; and a storage part configured to store determination criteria based on which the control unit evaluates the electrical characteristic value detected by the monitor part , wherein the control unit is configured to evaluate the electrical characteristic value based on a plurality of the determination criteria stored in the storage part and clean a surface of the translucent body by controlling the vibrating element according to the determination, characterized in that the plurality of determination criteria includes a threshold with which the electrical characteristic value detected by the monitor part is compared, and a duration of control, and the control unit is configured to when the electrical characteristic value detected by the monitor part is greater than the threshold, cause the translucent body to vibrate at a first level, and even after a lapse of the duration of vibration at the first level, when the electrical characteristic value detected by the monitor part exceeds the threshold, control the vibrating element to cause the translucent body to vibrate at a second level different from the first level. a holding part holding an imaging element; a translucent body disposed in a visual field of the imaging element; a vibrating element configured to vibrate the translucent body ; a control unit configured to control the vibrating element ; a monitor part configured to detect an electrical characteristic value associated with a vibration of the vibrating element ; and a storage part configured to store determination criteria based on which the control unit evaluates the electrical characteristic value detected by the monitor part , wherein the control unit is configured to evaluate the electrical characteristic value based on a plurality of the determination criteria stored in the storage part and clean a surface of the translucent body by controlling the vibrating element according to the determination, characterized in that the plurality of determination criteria includes a threshold with which the electrical characteristic value detected by the monitor part is compared, and a duration of control, and the control unit is configured to when the electrical characteristic value detected by the monitor part is greater than the threshold, cause the translucent body to vibrate at a first level, and even after a lapse of the duration of vibration at the first level, when the electrical characteristic value detected by the monitor part exceeds the threshold, control the vibrating element to cause the translucent body to vibrate at a second level different from the first level.
A glove pair holding system for detachably connecting a first and second glove of a glove pair to a first holding element of a holding device , such as a belt, by means of holding elements which the gloves have, wherein the first glove has a second holding element and the second glove has third and fourth holding elements , wherein the holding elements are designed such that both the gloves are detachably connected to one another, and one glove or the glove pair are detachably connected to the first holding element, characterized in that the first holding element and the second holding element are designed to operate identically such that mutual holding is ruled out, and that the third and fourth holding elements are designed to operate identically such that holding both on the first holding element and on the second holding element is enabled, or that the first holding element and the third or fourth holding elements are designed to operate identically such that mutual holding is ruled out and that the second holding element and the fourth or third holding elements are designed to operate identically such that holding of the second holding element both on the first holding element and on the third or fourth holding elements is enabled.
Exhaust system for an internal combustion engine, comprising: - an oxidation catalytic converter unit with a first catalytic converter housing elongated in the direction of a first housing axis (A 1 ), - an SCR catalytic converter unit with a second catalytic converter housing elongated in the direction of a second housing axis (A 2 ), - a mixer housing adjoining a downstream end of the first catalytic converter housing with an upstream connection area and an upstream end of the second catalytic converter housing with a downstream connection area , wherein the downstream connection area has a downstream connection edge area extending over the second catalytic converter housing on the outer side thereof, - a mixer , which is arranged in the mixer housing and is carried at the mixer housing , and - a reactant release device carried on the mixer housing for releasing reactant into a reactant-receiving duct of the mixer , wherein the mixer housing comprises a first housing part forming the upstream connection area and a second housing part , characterized in that the first housing part and the second housing part are provided as shaped sheet metal parts and are connected to one another by connection in substance, that the first housing part forms the downstream connection area together with the second housing part , wherein a first partial area of the downstream connection edge area is provided at the first housing part and a second partial area of the downstream connection edge area is provided at the second housing part and in that for connecting the mixer and the reactant release device to the mixer housing a carrier wall area extending essentially parallel to the first housing axis (A 1 ) and a transition wall area extending from the carrier wall area in the direction away from the downstream connection area are provided. - an oxidation catalytic converter unit with a first catalytic converter housing elongated in the direction of a first housing axis (A 1 ), - an SCR catalytic converter unit with a second catalytic converter housing elongated in the direction of a second housing axis (A 2 ), - a mixer housing adjoining a downstream end of the first catalytic converter housing with an upstream connection area and an upstream end of the second catalytic converter housing with a downstream connection area , wherein the downstream connection area has a downstream connection edge area extending over the second catalytic converter housing on the outer side thereof, - a mixer , which is arranged in the mixer housing and is carried at the mixer housing , and - a reactant release device carried on the mixer housing for releasing reactant into a reactant-receiving duct of the mixer ,
A method for training a neural network model, wherein the method is applicable to a training system that comprises a server module (101; 307, 301, 302, 303; 800) and N worker modules (102; 308, 304, 305, 306; 801, 802, 80n), each worker module comprises a calculation module and a communications module running in parallel, the server module and the N worker modules are configured to train a model parameter within at least one training period, each of the at least one training period comprises K iterations, and for an i th iteration of one of the N worker modules within each training period, wherein the method comprises: the calculation module calculating a model parameter of an (i+1) th iteration based on a local gradient of the i th iteration and a model parameter of the i th iteration, and if i is less than K, calculating a local gradient of the (i+1) th iteration based on the model parameter of the (i+1) th iteration and sample data of the (i+1) th iteration; and the communications module pulling a global gradient of an r th iteration from the server module and pushing a local gradient of an f th iteration to the server module, wherein r and f each are a positive integer less than or equal to i, wherein N and K each are an integer greater than or equal to 1, and i is an integer greater than or equal to 1 and less than or equal to K. the calculation module calculating a model parameter of an (i+1) th iteration based on a local gradient of the i th iteration and a model parameter of the i th iteration, and if i is less than K, calculating a local gradient of the (i+1) th iteration based on the model parameter of the (i+1) th iteration and sample data of the (i+1) th iteration; and the communications module pulling a global gradient of an r th iteration from the server module and pushing a local gradient of an f th iteration to the server module, wherein r and f each are a positive integer less than or equal to i, wherein N and K each are an integer greater than or equal to 1, and i is an integer greater than or equal to 1 and less than or equal to K.