mhurhangee/patent-ind-claim-en huggingface dataset:
A method for intelligent data compression in a portable computing device, PCD, the method comprising: defining a threshold value for a key performance indicator within the PCD; receiving a first data block into a compression module and compressing the first data block according to a lossless compression algorithm, wherein the compression module is operable to toggle between a lossless compression algorithm and a lossy compression algorithm; after receiving the first data block into the compression module and compressing the first data block according to the lossless compression algorithm, and before receiving a second data block into the compression module, monitoring an active level for the key performance indicator and comparing the active level to the defined threshold value; based on the comparison of the active level for the key performance indicator to the defined threshold value, toggling the compression module to the lossy compression mode; and receiving the second data block into the compression module and compressing the second data block according to the lossy compression algorithm. defining a threshold value for a key performance indicator within the PCD; receiving a first data block into a compression module and compressing the first data block according to a lossless compression algorithm, wherein the compression module is operable to toggle between a lossless compression algorithm and a lossy compression algorithm; after receiving the first data block into the compression module and compressing the first data block according to the lossless compression algorithm, and before receiving a second data block into the compression module, monitoring an active level for the key performance indicator and comparing the active level to the defined threshold value; based on the comparison of the active level for the key performance indicator to the defined threshold value, toggling the compression module to the lossy compression mode; and receiving the second data block into the compression module and compressing the second data block according to the lossy compression algorithm.
A Form-II crystal of 2-{4-[N-(5,6-diphenylpyrazin-2-yl)-N-isopropylamino]butyloxy}-N-(methylsulfonyl)acetamide showing diffraction peaks in its powder X-ray diffraction spectrum at least at the following angles of diffraction 20: 9.0 degrees, 12.9 degrees, 20.7 degrees and 22.6 degrees , wherein the X-ray diffraction diagram is obtained using CuKα radiation.
A method for monitoring an operational characteristic of a data communication device within a network, the method comprising: Obtaining fine-grain samples of an operational characteristic of a data communication device, wherein the fine-grain samples are produced by sampling the operational characteristic of the data communication device at a fine-grain sample rate over a first sampling interval; Training a machine learning algorithm using the fine-grain samples of the operational characteristic of the data communication device, the fine-grain sample rate, and a coarse-grain sample rate that is less than the fine-grain sample rate; Obtaining coarse-grain samples of the operational characteristic of the data communication device, wherein the coarse-grain samples are produced by sampling the operational characteristic of the data communication device at the coarse-grain sample rate over a second sampling interval; and Using the machine learning algorithm to process the coarse-grain samples to produce accuracy-enhanced samples of the operational characteristic of the data communication device. Obtaining fine-grain samples of an operational characteristic of a data communication device, wherein the fine-grain samples are produced by sampling the operational characteristic of the data communication device at a fine-grain sample rate over a first sampling interval; Training a machine learning algorithm using the fine-grain samples of the operational characteristic of the data communication device, the fine-grain sample rate, and a coarse-grain sample rate that is less than the fine-grain sample rate; Obtaining coarse-grain samples of the operational characteristic of the data communication device, wherein the coarse-grain samples are produced by sampling the operational characteristic of the data communication device at the coarse-grain sample rate over a second sampling interval; and Using the machine learning algorithm to process the coarse-grain samples to produce accuracy-enhanced samples of the operational characteristic of the data communication device.
Valve attachment that is attachable to a valve to adjust a flow through the valve , the valve attachment comprising a housing , fixing means connected to the housing to fix the attachment to the valve and detecting means detecting whether the valve attachment is in a predetermined position with respect to the valve , wherein the fixing means are movable from a releasing condition into a locking condition, wherein the detecting means block a movement of the fixing means into the locking condition as long as the valve attachment is not in the predetermined position with respect to the valve, wherein the valve attachment comprises actuation means to actuate the valve when the attachment is mounted to the valve , characterized in that , the actuation means form the detection means and the valve attachment comprises drive means for moving the fixing means into the locking position, wherein the detecting means are operatively connected to blocking means preventing an activation of the drive means as long as the valve attachment is not in the predetermined position with respect to the valve .
A draw texturing machine comprising a plurality of false-twisting devices each configured to twist first and second different yarns (Y) in opposite directions to each other, each of the false-twisting devices comprising: a disc configured to rotate; a first belt unit provided close to a first surface of the disc and including a first twister belt configured to allow the first yarn (Y) to be interposed between the disc and the first twister belt ; and a second belt unit provided close to a second surface of the disc and including a second twister belt configured to allow the second yarn (Y) to be interposed between the disc and the second twister belt ; characterized in that a belt driving source , pulleys and a power transmission belt are provided for each of the false-twisting devices and configured to drive the first twister belt and the second twister belt . a disc configured to rotate; a first belt unit provided close to a first surface of the disc and including a first twister belt configured to allow the first yarn (Y) to be interposed between the disc and the first twister belt ; and a second belt unit provided close to a second surface of the disc and including a second twister belt configured to allow the second yarn (Y) to be interposed between the disc and the second twister belt ; characterized in that a belt driving source , pulleys and a power transmission belt are provided for each of the false-twisting devices and configured to drive the first twister belt and the second twister belt .
A fiber-optic sensor system , the fiber-optic system comprising: a structure having a fiber-optic cable operatively connected thereto, the structure being a component of an aircraft ; characterized by a network controller having an interrogator operatively connected to the fiber-optic cable adapted to receive optical energy indicative of a characteristic of the structure therefrom and convert optical energy to electrical energy and electrical energy to optical energy for data communication; a sensing element inserted within the fiber-optic cable to modify optical energy in a way that is indicative of the characteristic of the structure and transmit the modified optical energy to the network controller ; and at least one data source , wherein the data source is an avionics system adapted to provide data through the fiber-optic cable to the network controller and to receive data through the fiber-optic cable from the network controller , wherein the avionics system includes a rotor state feedback system and the rotor state feedback system includes a separate fiber-optic sensor and a communication system. a structure having a fiber-optic cable operatively connected thereto, the structure being a component of an aircraft ; characterized by a network controller having an interrogator operatively connected to the fiber-optic cable adapted to receive optical energy indicative of a characteristic of the structure therefrom and convert optical energy to electrical energy and electrical energy to optical energy for data communication; a sensing element inserted within the fiber-optic cable to modify optical energy in a way that is indicative of the characteristic of the structure and transmit the modified optical energy to the network controller ; and at least one data source , wherein the data source is an avionics system adapted to provide data through the fiber-optic cable to the network controller and to receive data through the fiber-optic cable from the network controller , wherein the avionics system includes a rotor state feedback system and the rotor state feedback system includes a separate fiber-optic sensor and a communication system.
A door or a window, comprising a door leaf or a window leaf, preferably for fire protection purposes, comprising at least three individual elements (2a, 2b, 2c,) arranged next to each other in horizontal and/or vertical alignment, wherein at last one individual element of the at least three individual elements is a glass pane , preferably a fire protection pane , at least two individual elements of the at least three individual elements are a non-flammable construction material plate and/or a fireproof wood element , the horizontally and/or vertically extending abutting surfaces (S) of two individual elements arranged next to each other are essentially blunted, and individual elements arranged next to each other are glued to each other in a fireproof, flush-mounted and positive-locking manner, wherein the at least one individual element configured as a glass pane , preferably a fire protection pane is only held on two sides with the at least two individual elements that are configured as non-flammable construction material plate and/or fireproof wood element and that extend horizontally with respect to the underground or with the at least two individual elements that are configured as non-flammable construction material plate and/or fireproof wood element and that extend vertically with respect to the underground.
An offshore platform for power generation, comprising: a structural jacket ; a module support frame positioned on the structural jacket ; a utility module supported on the module support frame , the utility module disposed in a first housing ; and one or more rectifier modules (206a;206b) supported on the module support frame adjacent to the utility module , each of the one or more rectifier modules (206a;206b) disposed in a respective second housing positioned laterally from the first housing and horizontally along the module support frame, each rectifier module comprising equipment for converting AC power to DC power; wherein the utility module is configured to function as the AC-incoming and DC-outgoing cable termination and distribution connection, and the utility module comprises two transformer blocks and a switchgear upstream of the transformer blocks , which are configured such that AC power coming from the switchgear is split between the two transformer blocks . a structural jacket ; a module support frame positioned on the structural jacket ; a utility module supported on the module support frame , the utility module disposed in a first housing ; and one or more rectifier modules (206a;206b) supported on the module support frame adjacent to the utility module , each of the one or more rectifier modules (206a;206b) disposed in a respective second housing positioned laterally from the first housing and horizontally along the module support frame, each rectifier module comprising equipment for converting AC power to DC power; wherein the utility module is configured to function as the AC-incoming and DC-outgoing cable termination and distribution connection, and the utility module comprises two transformer blocks and a switchgear upstream of the transformer blocks , which are configured such that AC power coming from the switchgear is split between the two transformer blocks .
Controller for a motor vehicle brake system, including - a first functional assembly (G2, G4, G5) for controlling a service brake, and - a second functional assembly (G3, G4, G5) for controlling a parking brake - wherein the first and the second functional assemblies can be supplied by separate voltage supplies (U1, GND1, U2, GND2), characterized in that the controller is designed in such a way that, in the event of a fault in or affecting the first or the second functional assembly, the respective other functional assembly remains ready for use for at least a defined period of time, and the motor vehicle can be braked by means of the ready-for-use functional assembly within the defined period of time in order to engage a transmission lock of the vehicle and/or in order to hold the vehicle at a standstill using the parking brake. - a first functional assembly (G2, G4, G5) for controlling a service brake, and - a second functional assembly (G3, G4, G5) for controlling a parking brake - wherein the first and the second functional assemblies can be supplied by separate voltage supplies (U1, GND1, U2, GND2),
A method for communicating with a base station , comprising: transmitting , by a user equipment, UE of a plurality of UEs, a sounding reference signal, SRS, during a subframe including an uplink portion and a downlink portion , wherein the SRS is configured using permutation or scrambling in order to avoid collision, wherein the SRS is transmitted using non-orthogonal physical resources via a corresponding uplink channel, and wherein the SRS is elongated over time to exceed the uplink portion of the subframe and is transmitted during at least a portion of the downlink portion of the subframe , wherein the UE transmits the elongated SRS with a low power relative to a remainder of the plurality of UEs; and receiving , by the UE from the base station , beamformed downlink communications based on information obtained from at least the SRS about the uplink channel and applied to a downlink channel. transmitting , by a user equipment, UE of a plurality of UEs, a sounding reference signal, SRS, during a subframe including an uplink portion and a downlink portion , wherein the SRS is configured using permutation or scrambling in order to avoid collision, wherein the SRS is transmitted using non-orthogonal physical resources via a corresponding uplink channel, and wherein the SRS is elongated over time to exceed the uplink portion of the subframe and is transmitted during at least a portion of the downlink portion of the subframe , wherein the UE transmits the elongated SRS with a low power relative to a remainder of the plurality of UEs; and receiving , by the UE from the base station , beamformed downlink communications based on information obtained from at least the SRS about the uplink channel and applied to a downlink channel.
An electrolyte composition comprising: a sulfonylimide compound represented by the following general formula as an electrolyte salt, LiN(X 1 SO 2 )(X 2 SO 2 ) where X 1 and X 2 are identical to or different from each other, and each represents a fluorine atom, an alkyl group with a carbon number of 1 to 6, or a fluoroalkyl group with a carbon number of 1 to 6; and an amidosulfuric acid component, wherein said amidosulfuric acid component includes at least one selected from amidosulfuric acid and a salt thereof, an amidosulfuric acid derivative and a salt thereof, and a taurine, wherein said amidosulfuric acid derivative and a salt thereof is a compound represented by the following formula wherein R 1 and R 2 each represents H, or an alkyl group with a carbon number of 1 to 10, a cycloalkyl group with a carbon number of 3 to 10, an aryl group with a carbon number of 6 to 16, an aralkyl group with a carbon number of 7 to 16, or an alkanoyl group with a carbon number of 2 to 16, each of which may have a hydroxyl group or a substituent, and R 1 and R 2 may each contain a hetero atom and form a ring structure, wherein R 1 and R 2 may be identical to or different from each other with the proviso that when either one of R 1 or R 2 is H, the other one is not H, M represents H or a metal atom; and wherein a proportion of the amidosulfuric acid component relative to said electrolyte composition is 0.1 ppm by mass or more to 10000 ppm by mass or less. where X 1 and X 2 are identical to or different from each other, and each represents a fluorine atom, an alkyl group with a carbon number of 1 to 6, or a fluoroalkyl group with a carbon number of 1 to 6; and an amidosulfuric acid component, wherein said amidosulfuric acid component includes at least one selected from amidosulfuric acid and a salt thereof, an amidosulfuric acid derivative and a salt thereof, and a taurine, wherein said amidosulfuric acid derivative and a salt thereof is a compound represented by the following formula wherein R 1 and R 2 each represents H, or an alkyl group with a carbon number of 1 to 10, a cycloalkyl group with a carbon number of 3 to 10, an aryl group with a carbon number of 6 to 16, an aralkyl group with a carbon number of 7 to 16, or an alkanoyl group with a carbon number of 2 to 16, each of which may have a hydroxyl group or a substituent, and R 1 and R 2 may each contain a hetero atom and form a ring structure, wherein R 1 and R 2 may be identical to or different from each other with the proviso that when either one of R 1 or R 2 is H, the other one is not H, M represents H or a metal atom; and wherein a proportion of the amidosulfuric acid component relative to said electrolyte composition is 0.1 ppm by mass or more to 10000 ppm by mass or less.
A method for work cell and factory level automation, comprising: making one or more distance measurements of one or more objects within a work cell using at least one laser scanner sensor on an automated guided vehicle (AGV) ; filtering the distance measurements of the objects that are not target features on a cradle fixture or workstand within the work cell ; removing systematic or bias errors of the laser scanner sensor from the filtered distance measurements; applying a mathematical filter or estimator to the filtered distance measurements using random errors of the laser scanner sensor to generate estimated distance measurements; constructing a map of the target features on the cradle fixture or workstand within the work cell using the estimated distance measurements; and using the constructed map for path planning and navigation control of the AGV relative to the cradle fixture or workstand within the work cell , wherein the filtering step comprises defining a convex zone around at least one of the target features to exclude the objects that are not the target features , and wherein a distance margin between a perimeter of the target features and a perimeter of the defined convex zone is sufficiently small, such that no other static or dynamic objects occupy an annulus space formed between the perimeter of the target features and the perimeter of the defined convex zone . making one or more distance measurements of one or more objects within a work cell using at least one laser scanner sensor on an automated guided vehicle (AGV) ; filtering the distance measurements of the objects that are not target features on a cradle fixture or workstand within the work cell ; removing systematic or bias errors of the laser scanner sensor from the filtered distance measurements; applying a mathematical filter or estimator to the filtered distance measurements using random errors of the laser scanner sensor to generate estimated distance measurements; constructing a map of the target features on the cradle fixture or workstand within the work cell using the estimated distance measurements; and using the constructed map for path planning and navigation control of the AGV relative to the cradle fixture or workstand within the work cell , wherein the filtering step comprises defining a convex zone around at least one of the target features to exclude the objects that are not the target features , and wherein a distance margin between a perimeter of the target features and a perimeter of the defined convex zone is sufficiently small, such that no other static or dynamic objects occupy an annulus space formed between the perimeter of the target features and the perimeter of the defined convex zone .
A non-volatile memory, NVM, bitcell , comprising: a first NVM one-time-write element directly coupled to a write bitline (322, 430, WBL0); a first write access transistor coupling the first NVM one-time-write element to a ground, a gate of the first write access transistor coupled to a write wordline (316, 410, 420, WWL0); a first read access transistor directly coupled to the first NVM one-time-write element and directly coupled to a read bitline (324, 442, 444, RBL0), a gate of the first read access transistor coupled to a read wordline (314, 408, 418, RWL0); the NVM bitcell being characterised by further comprising: a second NVM one-time-write element coupled to the write bitline (322, 430, WBL0); a second write access transistor coupling the second NVM one-time-write element to the ground, a gate of the second write access transistor coupled to an odd write wordline (316, 410, 420, WWL0); and a second read access transistor coupling the second NVM one-time-write element to an odd read bitline (324, 442, 444, RBL0), a gate of the second read access transistor coupled to an odd read wordline (314, 408, 418, RWL0), in which the first NVM one-time-write element is coupled to an even read bitline (324, 442, 444, RBLO) and the gate of the first read access transistor is coupled to an even read wordline (314, 408, 418, RWL0). a first NVM one-time-write element directly coupled to a write bitline (322, 430, WBL0); a first write access transistor coupling the first NVM one-time-write element to a ground, a gate of the first write access transistor coupled to a write wordline (316, 410, 420, WWL0); a first read access transistor directly coupled to the first NVM one-time-write element and directly coupled to a read bitline (324, 442, 444, RBL0), a gate of the first read access transistor coupled to a read wordline (314, 408, 418, RWL0); the NVM bitcell being characterised by further comprising: a second NVM one-time-write element coupled to the write bitline (322, 430, WBL0); a second write access transistor coupling the second NVM one-time-write element to the ground, a gate of the second write access transistor coupled to an odd write wordline (316, 410, 420, WWL0); and a second read access transistor coupling the second NVM one-time-write element to an odd read bitline (324, 442, 444, RBL0), a gate of the second read access transistor coupled to an odd read wordline (314, 408, 418, RWL0), a second NVM one-time-write element coupled to the write bitline (322, 430, WBL0); a second write access transistor coupling the second NVM one-time-write element to the ground, a gate of the second write access transistor coupled to an odd write wordline (316, 410, 420, WWL0); and a second read access transistor coupling the second NVM one-time-write element to an odd read bitline (324, 442, 444, RBL0), a gate of the second read access transistor coupled to an odd read wordline (314, 408, 418, RWL0), in which the first NVM one-time-write element is coupled to an even read bitline (324, 442, 444, RBLO) and the gate of the first read access transistor is coupled to an even read wordline (314, 408, 418, RWL0).