mhurhangee/patent-ind-claim-en huggingface dataset:
Compounds of the general formula (I) in which: R 1 is C 1 -C 6 -alkyl, where the C 1 -C 6 -alkyl group is unsubstituted or mono- or polysubstituted identically or differently by halogen, hydroxyl, an unsubstituted or mono- or poly-halogen-substituted C 3 -C 6 -cycloalkyl, or an R 6 , R 7 SO 2 , R 7 SO or R 8 O group, or a group selected from: where * represents the bonding site of the group to the rest of the molecule; R 2 and R 3 always have the same definition and are both either hydrogen or C 1 -C 6 -alkyl; R 4 group is halogen, cyano, an unsubstituted or a singly or multiply, identically or differently substituted C 1 -C 6 -alkyl or an unsubstituted or a singly or multiply, identically or differently substituted C 3 -C 6 -cycloalkyl, and the substituents are selected from the of halogen and hydroxyl; R 5 is hydrogen, halogen or an unsubstituted or mono- or poly-halogen-substituted C 1 -C 6 -alkyl; R 6 is an unsubstituted or mono- or di-methyl-substituted monocyclic saturated heterocycle having 4 to 6 ring atoms, which contains a heteroatom or a heterogroup from the group of O, S, SO and SO 2 ; R 7 is C 1 -C 6 -alkyl, where the C 1 -C 6 -alkyl group is unsubstituted or mono- or polysubstituted identically or differently by halogen, hydroxyl or C 3 -C 6 -cycloalkyl; or R 7 is C 3 -C 6 -cycloalkyl; R 8 is C 1 -C 6 -alkyl, where the C 1 -C 6 -alkyl group is unsubstituted or mono- or polysubstituted identically or differently by halogen; and the diastereomers, enantiomers, salts, solvates or solvates of the salts thereof, for use in the treatment and/or prophylaxis of allergic and/or inflammatory diseases in animals. R 1 is C 1 -C 6 -alkyl, where the C 1 -C 6 -alkyl group is unsubstituted or mono- or polysubstituted identically or differently by halogen, hydroxyl, an unsubstituted or mono- or poly-halogen-substituted C 3 -C 6 -cycloalkyl, or an R 6 , R 7 SO 2 , R 7 SO or R 8 O group, or a group selected from: where * represents the bonding site of the group to the rest of the molecule; R 2 and R 3 always have the same definition and are both either hydrogen or C 1 -C 6 -alkyl; R 4 group is halogen, cyano, an unsubstituted or a singly or multiply, identically or differently substituted C 1 -C 6 -alkyl or an unsubstituted or a singly or multiply, identically or differently substituted C 3 -C 6 -cycloalkyl, and the substituents are selected from the of halogen and hydroxyl; R 5 is hydrogen, halogen or an unsubstituted or mono- or poly-halogen-substituted C 1 -C 6 -alkyl; R 6 is an unsubstituted or mono- or di-methyl-substituted monocyclic saturated heterocycle having 4 to 6 ring atoms, which contains a heteroatom or a heterogroup from the group of O, S, SO and SO 2 ; R 7 is C 1 -C 6 -alkyl, where the C 1 -C 6 -alkyl group is unsubstituted or mono- or polysubstituted identically or differently by halogen, hydroxyl or C 3 -C 6 -cycloalkyl; or R 7 is C 3 -C 6 -cycloalkyl; R 8 is C 1 -C 6 -alkyl, where the C 1 -C 6 -alkyl group is unsubstituted or mono- or polysubstituted identically or differently by halogen;
An apparatus comprising: a configuration storage to store configuration information for a two-dimensional, 2D, matrix storage, the configuration information to include a first value indicative of a number of rows of the 2D matrix storage and a second value indicative of a number of columns of the 2D matrix storage; fetch circuitry to fetch an instruction , the instruction to specify the 2D matrix storage, a row of the 2D matrix storage, and a 512-bit vector register; decode circuitry, coupled with the fetch circuitry, to decode the instruction ; and execution circuitry , coupled with the decode circuitry, to perform operations corresponding to the instruction , including to store the row of the 2D matrix storage to the 512-bit vector register, the execution circuitry being configured to use the 2D matrix storage as specified by the configuration information, wherein the decode circuitry is to decode a second instruction and the execution circuitry , based on the decode of the second instruction, is to store the configuration information into the configuration storage and configure the configuration storage to indicate that the 2D matrix storage is configured for use. a configuration storage to store configuration information for a two-dimensional, 2D, matrix storage, the configuration information to include a first value indicative of a number of rows of the 2D matrix storage and a second value indicative of a number of columns of the 2D matrix storage; fetch circuitry to fetch an instruction , the instruction to specify the 2D matrix storage, a row of the 2D matrix storage, and a 512-bit vector register; decode circuitry, coupled with the fetch circuitry, to decode the instruction ; and execution circuitry , coupled with the decode circuitry, to perform operations corresponding to the instruction , including to store the row of the 2D matrix storage to the 512-bit vector register, the execution circuitry being configured to use the 2D matrix storage as specified by the configuration information, wherein the decode circuitry is to decode a second instruction and the execution circuitry , based on the decode of the second instruction, is to store the configuration information into the configuration storage and configure the configuration storage to indicate that the 2D matrix storage is configured for use.
A computer-implemented method comprising: receiving, by a mobile device that is positioned in a first pose , audio data corresponding to a user utterance; determining, by the mobile device, that the mobile device has changed position from a first pose to a second pose; determining a speech energy threshold; endpointing the audio data based on the speech energy threshold and on determining, by the mobile device, that the mobile device has changed position from the first pose to the second pose; generating, by an automated speech recognizer, text corresponding to the endpointed audio data; and providing , for output by the mobile device, the text corresponding to the endpointed audio data. receiving, by a mobile device that is positioned in a first pose , audio data corresponding to a user utterance; determining, by the mobile device, that the mobile device has changed position from a first pose to a second pose; determining a speech energy threshold; endpointing the audio data based on the speech energy threshold and on determining, by the mobile device, that the mobile device has changed position from the first pose to the second pose; generating, by an automated speech recognizer, text corresponding to the endpointed audio data; and providing , for output by the mobile device, the text corresponding to the endpointed audio data.
An automatic brake assist device for an electric two-wheeled vehicle , the electric two-wheeled vehicle comprising an electric motor , the automatic brake assist device comprising: a radar sensor module , used to measure a distance from an opposite object ; an internal main control module , connected to the radar sensor module and the electric motor ; wherein the internal main control module is configured, when the distance is changed from greater than a first braking distance to less than the first braking distance, reducing power output of the electric motor by 5-15% in a first brake braking mode to decelerate the electric two-wheeled vehicle ; when the distance is changed from greater than a second braking distance to less than the second braking distance, reducing power output of the electric motor by 15-50% in a second brake braking mode to decelerate the electric two-wheeled vehicle ; when the distance is changed from greater than a third braking distance to less than the third braking distance, reducing power output of the electric motor by 50-90% in a third braking mode to decelerate the electric two-wheeled vehicle . a radar sensor module , used to measure a distance from an opposite object ; an internal main control module , connected to the radar sensor module and the electric motor ; wherein the internal main control module is configured, when the distance is changed from greater than a first braking distance to less than the first braking distance, reducing power output of the electric motor by 5-15% in a first brake braking mode to decelerate the electric two-wheeled vehicle ; when the distance is changed from greater than a second braking distance to less than the second braking distance, reducing power output of the electric motor by 15-50% in a second brake braking mode to decelerate the electric two-wheeled vehicle ; when the distance is changed from greater than a third braking distance to less than the third braking distance, reducing power output of the electric motor by 50-90% in a third braking mode to decelerate the electric two-wheeled vehicle .
A method of separating oxygen from nitrogen, comprising: coupling a source of air to a first side of a membrane (10;20) comprising a polymer support (12;22) and a layer (14;24) comprising a plurality of zeolite nanosheet particles with thickness of 2 nm to 10 nm and mean diameter of 50 nm to 5000 nm, said layer either excluding a polymer binder or, if a polymer binder is present, the polymer binder is present in an amount below that needed to form a contiguous polymer phase having the zeolite nanosheet particles dispersed therein; wherein the plurality of nanosheets are fused together; delivering the air such that a pressure differential between opposite sides of the membrane (10;20) exists to cause oxygen to diffuse through the polymer support (12;22) and the layer (14;24) comprising zeolite nanosheet particles to a second side of the membrane (10;20), thereby producing nitrogen-enriched air on the first side of the membrane (10;20) and oxygen-enriched air on the second side of the membrane (10;20). coupling a source of air to a first side of a membrane (10;20) comprising a polymer support (12;22) and a layer (14;24) comprising a plurality of zeolite nanosheet particles with thickness of 2 nm to 10 nm and mean diameter of 50 nm to 5000 nm, said layer either excluding a polymer binder or, if a polymer binder is present, the polymer binder is present in an amount below that needed to form a contiguous polymer phase having the zeolite nanosheet particles dispersed therein; wherein the plurality of nanosheets are fused together; delivering the air such that a pressure differential between opposite sides of the membrane (10;20) exists to cause oxygen to diffuse through the polymer support (12;22) and the layer (14;24) comprising zeolite nanosheet particles to a second side of the membrane (10;20), thereby producing nitrogen-enriched air on the first side of the membrane (10;20) and oxygen-enriched air on the second side of the membrane (10;20).
An air trapping device configured to remove air from a fluid, the device comprising: a receptacle configured to hold the fluid, a nozzle comprised in the receptacle , the nozzle comprising a body having an input opening configured to receive the fluid and an output opening configured to distribute the fluid along an edge of the output opening , wherein the edge comprises a control element configured to reduce surface tension of the fluid, wherein the receptacle comprises, a lid section , a drainage section comprising a fluid outlet and a fluid inlet , and a tubular section interconnecting the lid section with the drainage section , and wherein the output opening of the nozzle is located in a top quarter of the tubular section ; wherein the body of the nozzle has a funnel shape and an input opening being smaller than the output opening ; wherein the control element is formed as one of a sine shape, a square shape, an edge with slits or an edge with a plurality of holes; a guiding element coupled to the body of the nozzle and configured to guide the fluid distributed along the edge of the output opening in a direction of gravity, wherein the guiding element comprises a tubular element coupled to the input opening of the body of the nozzle and is further couplable to the fluid inlet of the air trapping device (200. a receptacle configured to hold the fluid, a nozzle comprised in the receptacle , the nozzle comprising a body having an input opening configured to receive the fluid and an output opening configured to distribute the fluid along an edge of the output opening , wherein the edge comprises a control element configured to reduce surface tension of the fluid, wherein the receptacle comprises, a lid section , a drainage section comprising a fluid outlet and a fluid inlet , and a lid section , a drainage section comprising a fluid outlet and a fluid inlet , and a tubular section interconnecting the lid section with the drainage section , and wherein the output opening of the nozzle is located in a top quarter of the tubular section ; wherein the body of the nozzle has a funnel shape and an input opening being smaller than the output opening ; wherein the control element is formed as one of a sine shape, a square shape, an edge with slits or an edge with a plurality of holes; a guiding element coupled to the body of the nozzle and configured to guide the fluid distributed along the edge of the output opening in a direction of gravity, wherein the guiding element comprises a tubular element coupled to the input opening of the body of the nozzle and is further couplable to the fluid inlet of the air trapping device (200.
An imaging device of a reconnaissance vehicle , the imaging device comprising an image capturing unit configured when activated to capture photographic or video images of a photographic area, a storage unit configured to store the photographic or video images generated by the imaging device, and a control unit configured to communicate via a universal serial bus, USB, interface with a control body unit of the reconnaissance vehicle, the control unit being configured to operate in an image photographing mode in which the control unit is configured to receive control information from the control body unit of the reconnaissance vehicle via the USB interface in accordance with a picture transfer protocol, PTP, and in an image transfer mode in which the control unit is configured to transfer the photographic or video images from the storage unit to the control body unit of the reconnaissance vehicle via the USB interface in accordance with a mass storage class, MSC, protocol, wherein the control unit is configured in response to detecting mode switching conditions after the imaging device has captured one or more photographic images or video images of a photographic area to switch autonomously from the image photographing mode to the image transfer mode to transfer the one or more photographic or video images to the control body unit of the reconnaissance vehicle, wherein the mode switching conditions comprise one or more of a position of the reconnaissance vehicle, a speed of the reconnaissance vehicle, and an image photographing interval of the imaging device. an image capturing unit configured when activated to capture photographic or video images of a photographic area, a storage unit configured to store the photographic or video images generated by the imaging device, and a control unit configured to communicate via a universal serial bus, USB, interface with a control body unit of the reconnaissance vehicle, the control unit being configured to operate in an image photographing mode in which the control unit is configured to receive control information from the control body unit of the reconnaissance vehicle via the USB interface in accordance with a picture transfer protocol, PTP, and in an image transfer mode in which the control unit is configured to transfer the photographic or video images from the storage unit to the control body unit of the reconnaissance vehicle via the USB interface in accordance with a mass storage class, MSC, protocol, wherein the control unit is configured in response to detecting mode switching conditions after the imaging device has captured one or more photographic images or video images of a photographic area to switch autonomously from the image photographing mode to the image transfer mode to transfer the one or more photographic or video images to the control body unit of the reconnaissance vehicle, wherein the mode switching conditions comprise one or more of a position of the reconnaissance vehicle, a speed of the reconnaissance vehicle, and an image photographing interval of the imaging device.
An in vitro method of diagnosing hypoxia or hypoxia - induced injury in a subject, comprising steps of: measuring level of L-2-hydroxyglutarate ((S)-2-hydroxyglutarate or "L-2HG")) a sample obtained from the subject, wherein the sample comprised 2-hydroxyglutarate that was reacted with a chiral derivatizing agent, and wherein the sample is selected from the group comprising blood, urine, serum, lymph and cerebrospinal fluid; and comparing the measured level with a reference level correlated with normoxia, where tissue hypoxia or hypoxia-induced injury is diagnosed when the measured level is at least two-fold higher compared to the reference level. measuring level of L-2-hydroxyglutarate ((S)-2-hydroxyglutarate or "L-2HG")) a sample obtained from the subject, wherein the sample comprised 2-hydroxyglutarate that was reacted with a chiral derivatizing agent, and wherein the sample is selected from the group comprising blood, urine, serum, lymph and cerebrospinal fluid; and comparing the measured level with a reference level correlated with normoxia, where tissue hypoxia or hypoxia-induced injury is diagnosed when the measured level is at least two-fold higher compared to the reference level.
A method for communication, the method comprising: performing by one or more circuits and/or processors in a network device (102 1 ): determining an amount that a clock of said network device (102 1 ) drifts during a time interval between consecutive communications of synchronization packets , wherein said synchronization packets are communicated between said network device (102 1 ) and a link partner (102 2 ) to which said network device (102 1 ) is communicatively coupled; and controlling transitions of said network device (102 1 ) into and/or out-of an energy-saving mode of operation based on said determined amount; characterized by calculating a minimum number of said consecutive communications of said synchronization packets that said network device (102 1 ) participates in to ensure that a difference between said clock (109 1 ) of said network device (102 1 ) and a reference clock (109 2 ) is below a threshold; and controlling said transitions based on said calculated minimum number. determining an amount that a clock of said network device (102 1 ) drifts during a time interval between consecutive communications of synchronization packets , wherein said synchronization packets are communicated between said network device (102 1 ) and a link partner (102 2 ) to which said network device (102 1 ) is communicatively coupled; and controlling transitions of said network device (102 1 ) into and/or out-of an energy-saving mode of operation based on said determined amount; characterized by calculating a minimum number of said consecutive communications of said synchronization packets that said network device (102 1 ) participates in to ensure that a difference between said clock (109 1 ) of said network device (102 1 ) and a reference clock (109 2 ) is below a threshold; and controlling said transitions based on said calculated minimum number.
A body structure for a utility vehicle, having a roof outer skin and a side outer skin , which in each case have front transverse flanges , which form a common windshield flange for a windshield and are connected in an overlapping manner at a first three-layer connection point (A1), in particular, a welding point and are supported on a cross-member flange of a cross-member profile , wherein at the first three-layer connection point (A1) the transverse flanges of the roof- and side outer skin converge with their longitudinal flanges , which form a roof channel , and wherein the cross-member profile is constructed from a cross-member center part and at least one cross-member console part , which lie one above the other in an overlapping manner at a second three-layer connection point (A2), in particular, a welding point and are connected with one of the front transverse flanges of the roof- and the side outer skin , characterized in that both in a first vehicle variant (I) as well as in a second vehicle variant (II) the two three-layer connection points (A1, A2) are spaced apart from one another by a transverse offset (Δy 1 , Δy 2 ).
A method of producing a metal strip, comprising: providing a molten metal; continuously casting to form a cast metal article from the molten metal, wherein the continuous casting step comprises injecting the molten metal from a molten metal injector nozzle into a casting cavity defined between a pair of moving opposed casting surfaces to form the continuously cast metal article, wherein the molten metal injector nozzle is configured and positioned such that the distal most end of the molten metal injector nozzle is at a vertical distance of 1.4 mm or less from at least one of the moving casting surfaces in the pair of moving opposed casting surfaces; and hot rolling the cast metal article after casting at a hot rolling temperature of at least 350 °C to produce a metal strip, wherein the hot rolling step results in a thickness reduction of the cast metal article by at least 50%, wherein the cast metal article is an aluminum alloy sheet, wherein a first surface of the aluminum alloy sheet comprises a width, wherein the first surface comprises an average of exudates in an amount of 50 exudates or less per cm 2 across the width of the first surface determined using a digital image taken from the width of the first surface. providing a molten metal; continuously casting to form a cast metal article from the molten metal, wherein the continuous casting step comprises injecting the molten metal from a molten metal injector nozzle into a casting cavity defined between a pair of moving opposed casting surfaces to form the continuously cast metal article, wherein the molten metal injector nozzle is configured and positioned such that the distal most end of the molten metal injector nozzle is at a vertical distance of 1.4 mm or less from at least one of the moving casting surfaces in the pair of moving opposed casting surfaces; and hot rolling the cast metal article after casting at a hot rolling temperature of at least 350 °C to produce a metal strip, wherein the hot rolling step results in a thickness reduction of the cast metal article by at least 50%, wherein the cast metal article is an aluminum alloy sheet, wherein a first surface of the aluminum alloy sheet comprises a width, wherein the first surface comprises an average of exudates in an amount of 50 exudates or less per cm 2 across the width of the first surface determined using a digital image taken from the width of the first surface.