mhurhangee/ep-ind-claims huggingface dataset:
Method for identifying properties of a rail-guided vehicle, wherein • an axle counter (AZ1... AZ2) detects measurement data as the rail-guided vehicle crosses, • the measurement data is analysed in a computer-assisted manner and a speed and distances between axles (A... H) of the vehicle are ascertained, • a property of the rail-guided vehicle is ascertained in a computer-assisted manner on the basis of the ascertained speed and the ascertained distances between axles (A... H), characterised in that in a checking step • a pattern of normal distances between axles (A... H) is ascertained, in that a normal distance between axles calculated by taking into account a predefined normal speed is assigned to each of the ascertained distances between axles, and by taking into account their order, the normal distances between axles are merged to form the pattern, • the pattern is compared with reference patterns, • in the case of an identified conformity of the pattern with a reference pattern a type linked to the reference pattern is assigned to the vehicle as a property. • an axle counter (AZ1... AZ2) detects measurement data as the rail-guided vehicle crosses, • the measurement data is analysed in a computer-assisted manner and a speed and distances between axles (A... H) of the vehicle are ascertained, • a property of the rail-guided vehicle is ascertained in a computer-assisted manner on the basis of the ascertained speed and the ascertained distances between axles (A... H), • a pattern of normal distances between axles (A... H) is ascertained, in that a normal distance between axles calculated by taking into account a predefined normal speed is assigned to each of the ascertained distances between axles, and by taking into account their order, the normal distances between axles are merged to form the pattern, • the pattern is compared with reference patterns, • in the case of an identified conformity of the pattern with a reference pattern a type linked to the reference pattern is assigned to the vehicle as a property.
A non-stationary magnetic field emitter comprising a miniature antenna on a flat carrier, where the emitter has an oblong core with permeability higher than 1, the core is at least partially ferrite, a wire with at least two threads is wound on the core with a thread pitch and forming a coil, and where the emitter forms an element for creating a contactless NFC or RFID communication channel, where the signal transmitted from the emitter is received by a standard NFC or RFID receiving means, said threads are placed on the core in one layer, or most in two layers, said threads are placed on the core tightly next to each other to limit magnetic field emission from the core outside of its ends, characterized in that the effective width w of one thread is identical to said thread pitch and corresponds to 0,25 to 1,75 times the radius of the core if the core has a circular cross-section or corresponds to 0,25 to 1,75 times the equivalent radius for cores of non-circular cross-section whereby the effective width w of one thread is a width of the thread in case the adjacent threads are not interlaced, and a width of the thread minus its overlapping edge in case the adjacent threads are interlaced, the term "equivalent radius for cores of non-circular cross-section" means the radius which a ring should have if it had the same area as the cross-sectional shape of the specific non-circular cross-section.
Machine with a steering axis and a manual controller to control the machine, comprising a) a mounting platform, b) a tracking device with frame and/or housing, which is movably arranged on the mounting platform, c) a control lever, which is mounted to pivot around an axis in a joint, whereby the joint is provided in the frame and/or housing of the tracking device, d) a position sensor, which detects the deflection of the control lever as the guide angle (ω) and generates a signal corresponding to the deflection (ω), e) an evaluation and processing unit, which processes the signal from the position sensor and controls a steering hydraulic system to steer the machine according to the deflection by the guide angle (ω) whereby the machine is steered about the steering axis by a steering angle (a), f) a return mechanism, which always returns the control lever after a control command to a relative starting position in the frame and/or housing of the tracking device, g) a control device, which guides the tracking device through a feedback angle (β) so that the feedback angle (β) corresponds to the steering angle (α), characterized in that h) it is possible using the control lever to steer the steering hydraulic system in both directions at any time and independent of the steering angle (α) and feedback angle (β), whereby the guide angle (ω) can be detected to specify target values for the steering speed and steering direction. a) a mounting platform, b) a tracking device with frame and/or housing, which is movably arranged on the mounting platform, c) a control lever, which is mounted to pivot around an axis in a joint, whereby the joint is provided in the frame and/or housing of the tracking device, d) a position sensor, which detects the deflection of the control lever as the guide angle (ω) and generates a signal corresponding to the deflection (ω), e) an evaluation and processing unit, which processes the signal from the position sensor and controls a steering hydraulic system to steer the machine according to the deflection by the guide angle (ω) whereby the machine is steered about the steering axis by a steering angle (a), f) a return mechanism, which always returns the control lever after a control command to a relative starting position in the frame and/or housing of the tracking device, g) a control device, which guides the tracking device through a feedback angle (β) so that the feedback angle (β) corresponds to the steering angle (α), characterized in that h) it is possible using the control lever to steer the steering hydraulic system in both directions at any time and independent of the steering angle (α) and feedback angle (β), whereby the guide angle (ω) can be detected to specify target values for the steering speed and steering direction.
A mouse (200, 208) comprising: a housing comprising a plurality of panels (310, 312, 314); a shaft (210, 308) fixedly attached to the housing; and a moveable member coupled to the plurality of panels (310, 312, 314) such that a movement of the moveable member causes a movement of each panel of the plurality of panels (310, 312, 314), the mouse being further characterised in that the moveable member comprises a slider arm assembly comprising a central portion, the central portion slidably attached to the shaft, wherein the slider arm assembly is coupled to the plurality of panels (310, 312, 314) such that a movement of the slider arm assembly along the shaft causes the movement of each panel of the plurality of panels (310, 312, 314), wherein the slider arm assembly further comprises an actuation member configured to move the slider arm assembly along the shaft. a housing comprising a plurality of panels (310, 312, 314); a shaft (210, 308) fixedly attached to the housing; and a moveable member coupled to the plurality of panels (310, 312, 314) such that a movement of the moveable member causes a movement of each panel of the plurality of panels (310, 312, 314), the mouse being further characterised in that the moveable member comprises a slider arm assembly comprising a central portion, the central portion slidably attached to the shaft, wherein the slider arm assembly is coupled to the plurality of panels (310, 312, 314) such that a movement of the slider arm assembly along the shaft causes the movement of each panel of the plurality of panels (310, 312, 314), wherein the slider arm assembly further comprises an actuation member configured to move the slider arm assembly along the shaft.
A computer-implemented method of managing inputs (122, 124, 126), the method comprising: receiving an input from a first input mechanism, wherein the input is directed to a user interface control; causing the first input mechanism to become captured to the user interface control; receiving an input from a second input mechanism, wherein the input is directed to the user interface control; and causing the second input mechanism to become captured to the user interface control, wherein the first and second input mechanisms are simultaneously captured by the user interface control, wherein causing the first and second input mechanisms to become captured comprises directing subsequent events from the respective mechanisms to the user interface control. receiving an input from a first input mechanism, wherein the input is directed to a user interface control; causing the first input mechanism to become captured to the user interface control; receiving an input from a second input mechanism, wherein the input is directed to the user interface control; and causing the second input mechanism to become captured to the user interface control, wherein the first and second input mechanisms are simultaneously captured by the user interface control, wherein causing the first and second input mechanisms to become captured comprises directing subsequent events from the respective mechanisms to the user interface control.
Process for the preparation of triacetone amine, comprising the reaction steps a) reaction of an acetone equivalent with a first base, selected from ammonia, in the presence of a catalyst, giving a product mixture which comprises acetone; b) stopping the catalytic activity of the catalyst used in step a) of the product mixture from step a) by adding at least 1 molar equivalent, based on the amount of catalyst used in step a) of the process, of a further base, giving a triacetone amine crude product which comprises acetone; c) removal of acetone from the triacetone amine crude product from step b), giving an acetone-depleted triacetone amine crude product, an acetone content of below 40 percent by mass being present in the acetone-depleted triacetone amine crude product; d) extraction of the acetone-depleted triacetone amine crude product from step c) by adding a base, whereby the solution obtained according to step c) of the process is desalted, giving an extracted triacetone amine crude product. a) reaction of an acetone equivalent with a first base, selected from ammonia, in the presence of a catalyst, giving a product mixture which comprises acetone; b) stopping the catalytic activity of the catalyst used in step a) of the product mixture from step a) by adding at least 1 molar equivalent, based on the amount of catalyst used in step a) of the process, of a further base, giving a triacetone amine crude product which comprises acetone; c) removal of acetone from the triacetone amine crude product from step b), giving an acetone-depleted triacetone amine crude product, an acetone content of below 40 percent by mass being present in the acetone-depleted triacetone amine crude product; d) extraction of the acetone-depleted triacetone amine crude product from step c) by adding a base, whereby the solution obtained according to step c) of the process is desalted, giving an extracted triacetone amine crude product.
A pharmaceutical package comprising: a glass container comprising a first surface and a second surface opposite the first surface, wherein the first surface is an outer surface of the glass container; and a coating positioned over at least a portion of the first surface of the glass container, the coating comprising: one or more polyimide compositions; and one or more metal oxide compositions; wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating, and wherein a weight ratio of the one or more metal oxide compositions to the one or more polyimide compositions is from 20/80 to 95/5. a glass container comprising a first surface and a second surface opposite the first surface, wherein the first surface is an outer surface of the glass container; and a coating positioned over at least a portion of the first surface of the glass container, the coating comprising: one or more polyimide compositions; and one or more metal oxide compositions; wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating, and wherein a weight ratio of the one or more metal oxide compositions to the one or more polyimide compositions is from 20/80 to 95/5. one or more polyimide compositions; and one or more metal oxide compositions; wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating, and wherein a weight ratio of the one or more metal oxide compositions to the one or more polyimide compositions is from 20/80 to 95/5.
A calender, comprising a calendering roller rack and a set of calendering rollers arranged on the calendering roller rack, the set of calendering rollers comprises a plurality of calendering rollers arranged transversely in a horizontal direction and has total four calendering rollers, i.e., in a processing direction, a calendering roller at a feed end, a second calendering roller, a third calendering roller and an embossing roller; the calender, is characterized in that, further comprises a film laminating assembly and a film laminating assembly rack for mounting the film laminating assembly; the calendering roller rack and the film laminating assembly rack are arranged in relative motion to each other, and the calendering roller rack is capable of moving relatively to the ground; the film laminating assembly comprises a first film laminating assembly and a second film laminating assembly, and a first film from the first film laminating assembly and a second film from the second film laminating assembly are guided to different calendering rollers, respectively, to laminate the first film and the second film onto a blank; the first film laminating assembly is a printing film assembly configured to guide a printing film, and the second film laminating assembly is a wear-resistant film assembly configured to guide a wear-resistant film, the printing film assembly and the wear-resistant film assembly are arranged on an operating platform side by side; the printing film is guided to the calendering roller at the feed end, via a first guide mechanism, and the wear-resistant film is guided to the third calendering roller via a second guide mechanism; the first guide mechanism comprises a first preliminary guide wheel arranged on the operating platform; along an exported direction of the printing film, the first guide mechanism further comprises a first extended guide wheel set arranged at a rear end of the first preliminary guide wheel, and the first extended guide wheel set at least comprises one guide wheel; the first guide mechanism further comprises a first flattening roller arranged at a rear end of the first extended guide wheel set; to mount the first extended guide wheel set, a first guide rack arranged to extend toward the set of calendering rollers from the operating platform is further provided; the second guide mechanism comprises a second preliminary guide wheel arranged on the operating platform; along an exported direction of the wear-resistant film, a second extended guide wheel set and a second flattening roller are arranged at a rear end of the second preliminary guide wheel; and, a second guide rack is further provided, on which the second extended guide wheel set is mounted.
Drive motor for at least one wiper arm intended to wipe a glazed surface of a motor vehicle, the motor comprising a cam surface linked in concentric rotation with a rotary shaft of the drive motor, and static cam reading means able to cooperate with said cam according to the angular positions occupied by said cam to generate electrical control signals varying as a function of the angular position of the wiper arm on the glazed surface, the cam having a first circular conductive track, a second circular arc conductive track concentric to the first conductive track, characterized in that the second conductive track is connected to the first circular conductive track via a conductive bridge, and in that the static reading means are formed by three sliding contacts (46, 48, 50) able to make and break electrical contact with respectively the first and second conductive tracks and the conductive bridge depending on the angular positions occupied by said cam.
An in vitro method for determining a differentiated state of a cell comprising: detecting an expression of FOXB2 gene of an iPS or an ES cell derived from a mammal, and determining the differentiated state based on the result. detecting an expression of FOXB2 gene of an iPS or an ES cell derived from a mammal, and determining the differentiated state based on the result.
A method comprising: generating, by a processor, a message-authentication code for a block of data associated with an application; characterized by: providing, in a processor, a plurality of counters (150, 201), each counter associated with one of a plurality of MAC cache lines in an external memory; encrypting, by the processor, the MAC, the MAC being encrypted using a tweak, the tweak including a cache line identifier for the MAC cache line to store the MAC and a timestamp value read from the counter associated with the MAC cache line; storing, by the processor, the block of data in a cache line of a replay protected region of the external memory; and storing, by the processor, the encrypted MAC in the MAC cache line in the external memory, the external memory separate from the processor. generating, by a processor, a message-authentication code for a block of data associated with an application; characterized by: providing, in a processor, a plurality of counters (150, 201), each counter associated with one of a plurality of MAC cache lines in an external memory; encrypting, by the processor, the MAC, the MAC being encrypted using a tweak, the tweak including a cache line identifier for the MAC cache line to store the MAC and a timestamp value read from the counter associated with the MAC cache line; storing, by the processor, the block of data in a cache line of a replay protected region of the external memory; and storing, by the processor, the encrypted MAC in the MAC cache line in the external memory, the external memory separate from the processor. providing, in a processor, a plurality of counters (150, 201), each counter associated with one of a plurality of MAC cache lines in an external memory; encrypting, by the processor, the MAC, the MAC being encrypted using a tweak, the tweak including a cache line identifier for the MAC cache line to store the MAC and a timestamp value read from the counter associated with the MAC cache line; storing, by the processor, the block of data in a cache line of a replay protected region of the external memory; and storing, by the processor, the encrypted MAC in the MAC cache line in the external memory, the external memory separate from the processor.
Mapping apparatus, comprising: a transmitter, which is configured to emit at least two beams comprising pulses of light along respective beam axes (87, 88); a scanner, which is configured to scan the at least two beams over a scene and comprises at least one rotating mirror, which rotates, so as to generate a raster pattern by scanning in a first direction at a first speed and at second speed in a second direction, perpendicular to the first direction, wherein the second speed is lower than the first speed, while the transmitter directs the at least two beams to reflect from the at least one rotating mirror; a receiver, which comprises a detector, which receives, via reflection from the at least one mirror, the light reflected from the scene as the at least one mirror rotates and is configured to generate an output indicative of a time of flight of the pulses to and from points in the scene; and a processor, which is coupled to process the output of the receiver so as to generate a 3D map of the scene, wherein the scanner scans the at least two beams in a raster pattern, and the transmitter emits the at least two beams in alternation, while the beam axes are mutually offset transversely relative to a direction of the lines of the raster pattern, thereby creating a 2D scan of each of the beams. a transmitter, which is configured to emit at least two beams comprising pulses of light along respective beam axes (87, 88); a scanner, which is configured to scan the at least two beams over a scene and comprises at least one rotating mirror, which rotates, so as to generate a raster pattern by scanning in a first direction at a first speed and at second speed in a second direction, perpendicular to the first direction, wherein the second speed is lower than the first speed, while the transmitter directs the at least two beams to reflect from the at least one rotating mirror; a receiver, which comprises a detector, which receives, via reflection from the at least one mirror, the light reflected from the scene as the at least one mirror rotates and is configured to generate an output indicative of a time of flight of the pulses to and from points in the scene; and a processor, which is coupled to process the output of the receiver so as to generate a 3D map of the scene, wherein the scanner scans the at least two beams in a raster pattern, and the transmitter emits the at least two beams in alternation, while the beam axes are mutually offset transversely relative to a direction of the lines of the raster pattern, thereby creating a 2D scan of each of the beams.
A cover part for an accumulator, wherein the cover part is made of plastic and comprises at least one sleeve-like connector socket for making electrical contact with the accumulator, wherein a lower section of the connector socket is embedded in the plastic material of the cover part, characterized in that a plurality of strip-shaped friction-reducing sliding elements are arranged at the inner side of the connector socket spaced at a distance from one another over the inner circumference of said connector socket.