mhurhangee/ep-ind-claims huggingface dataset:
A method executed by a computing device (100, 300) including a low power integrated circuit (104, 204, 304) and a processor (118, 318), the method comprising: receiving an audio stream (102, 202, 302); continuously monitoring the audio stream, via the low power integrated circuit; digitizing the audio stream; storing the digitized audio stream (114, 214, 314) in a memory, wherein storing the digitized audio stream comprises replacing a prior digitized audio stream stored in the memory with the digitized audio stream; analyzing, via the low power integrated circuit, the stored digitized audio stream for recognition of a keyword; upon recognition of the keyword within the stored digitized audio stream, transmitting a signal (116, 216, 316) to increase power (122, 322), via the low power integrated circuit (104, 204, 304), to the processor (118, 318); obtaining, by the processor, the stored digitized audio stream from the memory; and analyzing, by the processor, the stored digitized audio stream to determine an action for the computing device, characterized in that the action is determined by analyzing, by the processor, audio occurring before the keyword within the stored digitized audio stream. receiving an audio stream (102, 202, 302); continuously monitoring the audio stream, via the low power integrated circuit; digitizing the audio stream; storing the digitized audio stream (114, 214, 314) in a memory, wherein storing the digitized audio stream comprises replacing a prior digitized audio stream stored in the memory with the digitized audio stream; analyzing, via the low power integrated circuit, the stored digitized audio stream for recognition of a keyword; upon recognition of the keyword within the stored digitized audio stream, transmitting a signal (116, 216, 316) to increase power (122, 322), via the low power integrated circuit (104, 204, 304), to the processor (118, 318); obtaining, by the processor, the stored digitized audio stream from the memory; and analyzing, by the processor, the stored digitized audio stream to determine an action for the computing device,
Method for improved cleaning of a spatially delimited region by means of a robot vacuum cleaner with a fan, in which - the robot vacuum cleaner approaches the region with a first fan rotation speed, - a sensor facility detects an approach of the robot vacuum cleaner to the region and conveys this information to a computer facility, - the computer facility monitors the approach process and, before the region is reached, increases the fan rotation speed to a second, higher fan rotation speed, so that the fan has the second, higher fan rotation speed when the robot vacuum cleaner reaches the region, - the sensor facility detects an onwards movement of the robot vacuum cleaner into and out of the region and conveys this information to the computer facility, - the computer facility, after leaving the region, reduces the second fan rotation speed to the first fan rotation speed. - the robot vacuum cleaner approaches the region with a first fan rotation speed, - a sensor facility detects an approach of the robot vacuum cleaner to the region and conveys this information to a computer facility, - the computer facility monitors the approach process and, before the region is reached, increases the fan rotation speed to a second, higher fan rotation speed, so that the fan has the second, higher fan rotation speed when the robot vacuum cleaner reaches the region, - the sensor facility detects an onwards movement of the robot vacuum cleaner into and out of the region and conveys this information to the computer facility, - the computer facility, after leaving the region, reduces the second fan rotation speed to the first fan rotation speed.
Process for deriving foreign-metal-depleted chlorosilanes from a chlorosilane mixture containing foreign metals and/or foreign metal compounds by filtering the chlorosilane mixture, wherein the chlorosilane mixture traverses at least one membrane, wherein the material of the membrane is selected from polyamides, polyimides, polyamide-polyimides, polyethylene terephthalate or polyphenylene oxide.
A vehicle environment detection system that comprises at least one radar sensor arrangement and at least one processing unit, where the radar sensor arrangement comprises an antenna device that has a physical antenna aperture with a certain field of view, where the radar sensor arrangement is arranged to detect at least two radar detections (9, 10, 11) in a coordinate system during at least two radar cycles, where, for each radar cycle, said processing unit is arranged to generate a detection list D i t t = t 0,..., t 0 − N comprising range (r i), azimuth angle (φ i) and Doppler velocity (v i) for each one of said radar detections (9, 10, 11), and to aggregate and store detection lists D i t t = t 0,..., t 0 − N from said radar cycles in a detection memory, characterized in that said processing unit further is arranged to group the radar detections (9, 10, 11) in the detection lists D i t t = t 0,..., t 0 − N into consistently moving motion subsets (40, 41, 42) in a segmentation procedure, each motion subset (40, 41, 42) corresponding to a certain target object (6, 7, 8) and having a corresponding group motion vector (V 1, V 2, V 3) that is determined by the processing unit, - to determine a relative motion between at least one target object (6, 7, 8) and the antenna device by means of said group motion vector (V 1, V 2, V 3); - to map the coordinate system such that said target object (6, 7, 8) is stationary and such that the antenna device has a determined motion; and - to generate a synthetic antenna aperture by means of acquired radar signals at known intervals in time, and by means of the determined motion of the antenna device, such that the physical antenna aperture is conferred a determined movement over time. - to determine a relative motion between at least one target object (6, 7, 8) and the antenna device by means of said group motion vector (V 1, V 2, V 3); - to map the coordinate system such that said target object (6, 7, 8) is stationary and such that the antenna device has a determined motion; and - to generate a synthetic antenna aperture by means of acquired radar signals at known intervals in time, and by means of the determined motion of the antenna device, such that the physical antenna aperture is conferred a determined movement over time.
A gas turbine engine comprising: a fuel nozzle comprising a head and a stem, the stem configured to supply fuel to the head positioned at a proximate end of the stem; a combustion system comprising an outer wall defining at least part of a chamber, a distal end of the stem configured to couple with the outer wall and the stem configured to extend through the outer wall into the chamber so as to rigidly hold the head in position at an entrance to a combustor included in the chamber; a compressed air source configured to provide a pressurized flow of air into the chamber along an inner surface of the outer wall; and a cowl positioned in the chamber to direct at least part of the pressurized flow of air to the head, the cowl formed to include a notch through which at least part of the stem extends; characterised in that an edge of the cowl defining the notch comprises a collar formed to extend from a surface of the cowl to direct the flow of air around the notch and to an inlet of the head. a fuel nozzle comprising a head and a stem, the stem configured to supply fuel to the head positioned at a proximate end of the stem; a combustion system comprising an outer wall defining at least part of a chamber, a distal end of the stem configured to couple with the outer wall and the stem configured to extend through the outer wall into the chamber so as to rigidly hold the head in position at an entrance to a combustor included in the chamber; a compressed air source configured to provide a pressurized flow of air into the chamber along an inner surface of the outer wall; and a cowl positioned in the chamber to direct at least part of the pressurized flow of air to the head, the cowl formed to include a notch through which at least part of the stem extends; characterised in that an edge of the cowl defining the notch comprises a collar formed to extend from a surface of the cowl to direct the flow of air around the notch and to an inlet of the head.
Combustion engine coolant pump for pumping a coolant to an internal combustion engine, with a driving wheel which is driven by the combustion engine, a pump wheel which is driven by the driving wheel, a switchable friction clutch for coupling the driving wheel with the pump wheel, and the friction clutch comprising: an axial preload spring preloading the clutch into a disengaged state with a preload force, a permanent magnet being magnetized axially or radially and causing an axial magnetic attraction force forcing the friction clutch into an engaged state, and an electromagnet arranged in a magnetic circuit together with the permanent magnet, the energized electromagnet acting with a polarization generating an opposite polarization to the polarization of the permanent magnet thereby reducing the total magnetic attraction force of the permanent magnet with respect to the clutch, so that the clutch is pushed by the preload spring into the disengaged position, whereby the attraction force of the permanent magnet is higher than the preload force of the preload spring, if the electromagnet is not energized. an axial preload spring preloading the clutch into a disengaged state with a preload force, a permanent magnet being magnetized axially or radially and causing an axial magnetic attraction force forcing the friction clutch into an engaged state, and an electromagnet arranged in a magnetic circuit together with the permanent magnet, the energized electromagnet acting with a polarization generating an opposite polarization to the polarization of the permanent magnet thereby reducing the total magnetic attraction force of the permanent magnet with respect to the clutch, so that the clutch is pushed by the preload spring into the disengaged position, whereby the attraction force of the permanent magnet is higher than the preload force of the preload spring, if the electromagnet is not energized.
A securing ring comprising several layers of ring shaped surface sections (24, 26, 28), wherein the outermost ring shaped surface section is fixed to at least one of the layers below, said securing ring having a circumference, characterised in that the ring shaped surface sections (24, 26, 28) are formed from surface sections of a flat tubular element made of braided material and having a first circumferential edge (16, 18) and a second circumferential edge (16, 18), said surface sections (24, 26, 28) being folded or rolled upon one another starting from the first circumferential edge (16, 18) and ending at the second circumferential edge (16, 18).
Method for controlling a mobile terminal device, said device comprising a smartcard module (200, 600) and a near field communication module, wherein said smartcard module (200, 600) comprises a smartcard control unit and a secure storage area configured to store secure data, the method comprising: starting a smartcard application on said mobile terminal device resulting in activating of said smartcard module (200, 600), wherein said started smartcard application is an application for performing data transactions with external entities using the secure data stored in said secure storage area of said smartcard module (200, 600); switching on a connection between said smartcard module (200, 600) and said near field communication module; starting a timer for measuring elapsed time when the connection between said smartcard module (200, 600) and said near field communication module is switched on; providing by said near field communication module, when connected with said smartcard module (200, 600), a wireless near field communications interface for said started smartcard application for the performing of the data transactions with the external entities using the secure data stored in said secure storage area of said smartcard module (200, 600) and shutting down at least one of the smartcard module (200, 600) and the connection between said smartcard module and said near field communication module when it is determined that the timer has expired. starting a smartcard application on said mobile terminal device resulting in activating of said smartcard module (200, 600), wherein said started smartcard application is an application for performing data transactions with external entities using the secure data stored in said secure storage area of said smartcard module (200, 600); switching on a connection between said smartcard module (200, 600) and said near field communication module; starting a timer for measuring elapsed time when the connection between said smartcard module (200, 600) and said near field communication module is switched on; providing by said near field communication module, when connected with said smartcard module (200, 600), a wireless near field communications interface for said started smartcard application for the performing of the data transactions with the external entities using the secure data stored in said secure storage area of said smartcard module (200, 600) and shutting down at least one of the smartcard module (200, 600) and the connection between said smartcard module and said near field communication module when it is determined that the timer has expired.
A method of printing a print design on a surface of an article, the method comprising: placing the article onto a tray of a printing device; selecting a print design for the article; capturing a digitized image of the article using a sensor system; identifying one or more first regions (138, 438) of the article and one or more second regions (142, 442) of the article represented in the digitized image based on one or more detectable features on the surface of the article using a computing system, the first region (138, 438) representing a print area of the article onto which a print material is to be printed and the second region (142, 442) representing a no-print area of the article onto which the print material is not to be printed; forming a digital mask to identify the no-print area of the article; applying the digital mask to the print design; and printing the print design with the digital mask applied on the article, wherein the one or more detectable features are identified as the one or more second regions of the article represented in the digital image; wherein the one or more detectable features comprise voids, spaces, or gaps in the surface of the article, or wherein the one or more detectable features comprise recesses in the surface of the article. placing the article onto a tray of a printing device; selecting a print design for the article; capturing a digitized image of the article using a sensor system; identifying one or more first regions (138, 438) of the article and one or more second regions (142, 442) of the article represented in the digitized image based on one or more detectable features on the surface of the article using a computing system, the first region (138, 438) representing a print area of the article onto which a print material is to be printed and the second region (142, 442) representing a no-print area of the article onto which the print material is not to be printed; forming a digital mask to identify the no-print area of the article; applying the digital mask to the print design; and printing the print design with the digital mask applied on the article, wherein the one or more detectable features are identified as the one or more second regions of the article represented in the digital image; wherein the one or more detectable features comprise voids, spaces, or gaps in the surface of the article, or wherein the one or more detectable features comprise recesses in the surface of the article.
A power tool, comprising: a housing having at least two housing parts and at least one recess (6, 8), a portion of the recess being provided by each housing part; a bearing located in the recess; and a seal comprising an elongate seal member located between the housing parts to seal at least a portion of the housing; wherein the seal includes at least one polymeric extension part extending from the elongate seal member and in contact with an external part of the bearing, thereby to prevent the external part of the bearing from rotating with respect to the housing during use of the power tool; wherein the bearing comprises inner and outer races with bearing balls or rollers located between the inner and outer races, and the external part of the bearing comprises the outer race of the bearing, characterised in that the at least one polymeric extension part is in contact with the external part of the bearing without extending around the bearing.
Robot control panel, comprising: - a first holder (2.1) which is designed to hold, in a form-fitting manner, a separately portable handheld robot control device, which can be removed from the robot control panel, - a second holder (2.2) which differs from the first holder (2.1) and which is designed to hold, in a form-fitting manner, a separately portable tablet computer which can be removed from the robot control panel, and - a communication device which is designed to connect a handheld control unit of the handheld robot control device and a tablet computer control (36.1) of the tablet computer with a robot controller in terms of control technology, characterized in that: - a sensor which is designed to identify an individual robot control device and / or tablet computer inserted into the robot control panel, and the communication device is designed, the handheld control unit of the handheld robot control device and / or the tablet computer used depending on the individual handheld robot control unit and / or tablet computer identified by the sensor 36) to be connected in terms of control technology to a robot controller assigned to the individual robot control device and / or the individual tablet computer. - a first holder (2.1) which is designed to hold, in a form-fitting manner, a separately portable handheld robot control device, which can be removed from the robot control panel, - a second holder (2.2) which differs from the first holder (2.1) and which is designed to hold, in a form-fitting manner, a separately portable tablet computer which can be removed from the robot control panel, and - a communication device which is designed to connect a handheld control unit of the handheld robot control device and a tablet computer control (36.1) of the tablet computer with a robot controller in terms of control technology, - a sensor which is designed to identify an individual robot control device and / or tablet computer inserted into the robot control panel, and the communication device is designed, the handheld control unit of the handheld robot control device and / or the tablet computer used depending on the individual handheld robot control unit and / or tablet computer identified by the sensor 36) to be connected in terms of control technology to a robot controller assigned to the individual robot control device and / or the individual tablet computer.
A compound according to the following formula: wherein the compound is selected from the group consisting of the compounds represented by formulas I-VII or salts thereof: wherein R 1 is H, monophosphate, diphosphate, or triphosphate, R 2 is H or OH, R 3 and R 4 are selected from H, a C 1 -C 12 straight chain or branched alkyl, a C 2 -C 12 straight chain or branched alkenyl or polyenyl, a C 2 -C 12 straight chain or branched alkynyl or polyalkynyl, and an aromatic group such as a phenyl, naphthyl, or pyridinyl ring, with the proviso that at least one of R 3 and R 4 is H, R 5, R 6, R 7, and R 8 are each independently selected from H, OCH 3, NO 2, CN, a halide, a C 1 -C 12 straight chain or branched alkyl, a C 2 -C 12 straight chain or branched alkenyl or polyenyl, a C 2 -C 12 straight chain or branched alkynyl or polyalkynyl, an aromatic group such as a phenyl, naphthyl, or pyridinyl ring, and/or a linker group of the general structure: wherein X = CH 2, CH=CH, C≡C, O, S, or NH, Y = CH 2, O, or NH, n and m are each an integer from 0-12, and Dye is a fluorophore. R 1 is H, monophosphate, diphosphate, or triphosphate, R 2 is H or OH, R 3 and R 4 are selected from H, a C 1 -C 12 straight chain or branched alkyl, a C 2 -C 12 straight chain or branched alkenyl or polyenyl, a C 2 -C 12 straight chain or branched alkynyl or polyalkynyl, and an aromatic group such as a phenyl, naphthyl, or pyridinyl ring, with the proviso that at least one of R 3 and R 4 is H, R 5, R 6, R 7, and R 8 are each independently selected from H, OCH 3, NO 2, CN, a halide, a C 1 -C 12 straight chain or branched alkyl, a C 2 -C 12 straight chain or branched alkenyl or polyenyl, a C 2 -C 12 straight chain or branched alkynyl or polyalkynyl, an aromatic group such as a phenyl, naphthyl, or pyridinyl ring, and/or a linker group of the general structure: wherein X = CH 2, CH=CH, C≡C, O, S, or NH, Y = CH 2, O, or NH, n and m are each an integer from 0-12, and X = CH 2, CH=CH, C≡C, O, S, or NH, Y = CH 2, O, or NH, n and m are each an integer from 0-12, and
A ball launcher for launching a ball into a playing area, comprising an airstream generator, at least one launch tube (6, 7) and a ball gate for gating the ball into the launch tube (6, 7) and the airstream flowing therethrough, wherein said airflow generator is connectable to a pair of launch tubes (6, 7) defining different launching directions, wherein said ball gate includes a ball shuttle adapted to be moveable from a ball-receiving station between said pair of launch tubes (6, 7) to each of said pair of launch tubes (6, 7) to transport the ball from the ball-receiving station to one of said launch tubes (6, 7), characterized in that said ball shuttle includes a shuttle rotor having a ball-receiving seat and being rotatably supported about a shuttle rotor axis, wherein said ball-receiving seat and openings of said launch tubes (6, 7) are positioned on a circular path around said shuttle rotor axis.
An oral and dental care and cleaning agent, containing a) a polyol derivative of arginine of formula in which P denotes a polyol group selected from the group consisting of glycerol, sorbitol, hexanediol, xylitol, erythritol and mixtures thereof, and b) 500 to 1600 ppm fluoride. a) a polyol derivative of arginine of formula in which P denotes a polyol group selected from the group consisting of glycerol, sorbitol, hexanediol, xylitol, erythritol and mixtures thereof, and b) 500 to 1600 ppm fluoride.