mhurhangee/patent-ind-claim-en huggingface dataset:
A forward engine mounting system (110; 310) comprising: a frame (124; 318) having an elongated shape and having a first end (132; 324) configured to be connected to a forward end of a support structure (108; 306) for an engine (102; 208, 210) of an aircraft (100; 200), the frame (124; 318) being configured to extend forward of the support structure (108; 306); a first linking system (126; 320) connected to a second end (134; 326) of the frame (124; 318) and configured to be connected to a fan case (116; 302) in the engine (102; 208, 210); and a second linking system (128; 322) connected to the first end (132; 324) of the frame (124; 318) and configured to be connected to an engine core case (118; 304) in the engine (102; 208, 210); wherein the first linking system (126; 320) is configured to support a side load in a first direction that is substantially perpendicular to an axis extending centrally through the fan case (116; 302); and wherein the second linking system (128; 322) is configured to support a vertical load in a second direction that is substantially perpendicular to the axis extending centrally through the fan case (116; 302). a frame (124; 318) having an elongated shape and having a first end (132; 324) configured to be connected to a forward end of a support structure (108; 306) for an engine (102; 208, 210) of an aircraft (100; 200), the frame (124; 318) being configured to extend forward of the support structure (108; 306); a first linking system (126; 320) connected to a second end (134; 326) of the frame (124; 318) and configured to be connected to a fan case (116; 302) in the engine (102; 208, 210); and a second linking system (128; 322) connected to the first end (132; 324) of the frame (124; 318) and configured to be connected to an engine core case (118; 304) in the engine (102; 208, 210); wherein the first linking system (126; 320) is configured to support a side load in a first direction that is substantially perpendicular to an axis extending centrally through the fan case (116; 302); and wherein the second linking system (128; 322) is configured to support a vertical load in a second direction that is substantially perpendicular to the axis extending centrally through the fan case (116; 302).
A jack connector mountable on a patch panel comprising: a housing having a single receiving cavity configured to receive a communication plug of a known standard ; and resilient conductive pins bent such that a first end of the resilient conductive pins extends through and beyond the external rear wall of the housing and a second end of the resilient conductive pins is positioned between the external rear wall of the housing and the internal rear wall of the housing, characterized in that the housing further comprises a slot , wherein the slot is defined between an external rear wall of the housing and an internal rear wall of the housing; and wherein the slot is configured to receive a first end of a connecting element, such that the resilient conductive pins are electrically connected to contacts of the connecting element and when a communication plug is inserted to the receiving cavity, the resilient conductive pins are moved away from the connecting element. a housing having a single receiving cavity configured to receive a communication plug of a known standard ; and resilient conductive pins bent such that a first end of the resilient conductive pins extends through and beyond the external rear wall of the housing and a second end of the resilient conductive pins is positioned between the external rear wall of the housing and the internal rear wall of the housing, characterized in that the housing further comprises a slot , wherein the slot is defined between an external rear wall of the housing and an internal rear wall of the housing; and wherein the slot is configured to receive a first end of a connecting element, such that the resilient conductive pins are electrically connected to contacts of the connecting element and when a communication plug is inserted to the receiving cavity, the resilient conductive pins are moved away from the connecting element.
An anhydrous oral care composition, comprising: an orally acceptable vehicle; a peroxide whitening agent comprising a source of hydrogen peroxide, which source of hydrogen peroxide is a cross-linked polyvinylpyrrolidone (PVP) hydrogen peroxide complex; and an abrasive system, wherein the abrasive system comprises anhydrous dicalcium phosphate and sodium metaphosphate, wherein the abrasive system is present in an amount of from 18 weight % to 22 weight %, based on a total weight of the oral care composition; and wherein the weight ratio of the sodium metaphosphate to the anhydrous dicalcium phosphate is from 2.8:1 to 3.4:1. an orally acceptable vehicle; a peroxide whitening agent comprising a source of hydrogen peroxide, which source of hydrogen peroxide is a cross-linked polyvinylpyrrolidone (PVP) hydrogen peroxide complex; and an abrasive system, wherein the abrasive system comprises anhydrous dicalcium phosphate and sodium metaphosphate, wherein the abrasive system is present in an amount of from 18 weight % to 22 weight %, based on a total weight of the oral care composition; and wherein the weight ratio of the sodium metaphosphate to the anhydrous dicalcium phosphate is from 2.8:1 to 3.4:1.
A 9 complex Schnorr-Euchner, SE, expansion method for a multiple-input multiple-output communication system, comprising: receiving, by a plurality of input terminals, a plurality of input signals, each input signal transmitting a symbol; and identifying a list of first 9 possible symbols that may be transmitted by each input signal; checking conditions when identifying 2 nd to 9 th possible symbols of the list of the first 9 possible symbols, the checking conditions being implemented by shifting and addition operations; determining a cost value for each of the first 9 possible symbols based on a cost function, the cost function being implemented without requiring a multiplier, wherein the cost function has a mathematical representation of c = y − rz P , wherein y is the output, r is a system implementing the SE method, z is an input, c is the cost, and an integer p denotes a l p -norm, wherein p = 2; and identifying the possible symbol with a lowest cost value as the transmitted symbol. receiving, by a plurality of input terminals, a plurality of input signals, each input signal transmitting a symbol; and identifying a list of first 9 possible symbols that may be transmitted by each input signal; checking conditions when identifying 2 nd to 9 th possible symbols of the list of the first 9 possible symbols, the checking conditions being implemented by shifting and addition operations; determining a cost value for each of the first 9 possible symbols based on a cost function, the cost function being implemented without requiring a multiplier, wherein the cost function has a mathematical representation of c = y − rz P , wherein y is the output, r is a system implementing the SE method, z is an input, c is the cost, and an integer p denotes a l p -norm, wherein p = 2; and identifying the possible symbol with a lowest cost value as the transmitted symbol.
Sealing device (10a; 10b), in particular cable pass-through sealing device, for sealing an elongate body (12a; 12b) of a cable, with at least one sealing unit (14a; 14b) comprising at least a first sealing element (16a; 16b) and at least a second sealing element (18a; 18b), which contact each other at least partially in at least one mounted state and which together form an entry (20a; 20b) that is configured for an insertion of the elongate body (12a; 12b) in an insertion direction (22a; 22b) that is perpendicular to a longitudinal direction (24a; 24b) of the elongate body (12a; 12b), wherein the second sealing element (18a; 18b) comprises at least one elevation (26a; 26b) which delimits the entry (22a; 22b) at least section-wise, characterised in that the first sealing element forms at least one compensation region , which has a greater deformability than a surrounding region of the compensation region of the first sealing element and which is configured to be at least partially deformed by the second sealing element in the mounted state.
A mass spectrometer provided with: an ion source including an ionization probe configured to spray a liquid sample into an ionization chamber in which an ambience of atmospheric pressure is present; and an ion introduction section configured to send, from the ionization chamber to a vacuum chamber , ions generated by the ion source from a component contained in sample droplets sprayed from the ionization probe, where an arrangement of the ionization probe and the ion introduction section is determined so that a spraying direction of the liquid sample from the ionization probe extends orthogonally to a direction of introducing the ions from the ionization chamber by the ion introduction section, the mass spectrometer comprising: a) an auxiliary electrode provided in the spraying direction of the sample droplets from the ionization probe and at a closer position to the ionization probe than an inlet end of the ion introduction section, the auxiliary electrode having a hollow cylindrical shape concentrically arranged with a central axis of a spray flow from the ionization probe , the hollow cylindrical shape including a hollow circular cylinder or a hollow polygonal cylinder; b) a reflecting electrode provided in the spraying direction of the sample droplets from the ionization probe and at a farther position from the ionization probe than the inlet end of the ion introduction section, the reflecting electrode having the hollow cylindrical shape concentrically arranged with said central axis; c) a heated capillary provided so that its inlet end projects into a space between the auxiliary electrode and the reflecting electrode ; and d) a voltage supplier configured to apply, to the reflecting electrode, a voltage determined with reference to a potential of the auxiliary electrode so that a measurement target ion is reflected by the reflecting electrode. a) an auxiliary electrode provided in the spraying direction of the sample droplets from the ionization probe and at a closer position to the ionization probe than an inlet end of the ion introduction section, the auxiliary electrode having a hollow cylindrical shape concentrically arranged with a central axis of a spray flow from the ionization probe , the hollow cylindrical shape including a hollow circular cylinder or a hollow polygonal cylinder; b) a reflecting electrode provided in the spraying direction of the sample droplets from the ionization probe and at a farther position from the ionization probe than the inlet end of the ion introduction section, the reflecting electrode having the hollow cylindrical shape concentrically arranged with said central axis; c) a heated capillary provided so that its inlet end projects into a space between the auxiliary electrode and the reflecting electrode ; and d) a voltage supplier configured to apply, to the reflecting electrode, a voltage determined with reference to a potential of the auxiliary electrode so that a measurement target ion is reflected by the reflecting electrode.
A fluid dynamic body having a trailing edge with a pattern formed thereon, the pattern comprising a plurality of smoothly surfaced adjacent members with respective interstices therebetween, wherein at least one of the interstices completely contains a porous barrier , the porous barrier obstructing fluid flow through the respective interstice between a first surface of the fluid dynamic body on a first side of the trailing edge and a second surface of the fluid dynamic body on a second side of the trailing edge , wherein the porous barrier fully occupies a width of the respective interstice .
A combination for use in therapy as an antimicrobial in a subject for inhibiting growth of a microorganism the combination being a synergistic combination comprising a fosfomycin, a sulfonamide, and a diaminopyrimidine, or in each case as a pharmaceutically acceptable salt or ester, being present in said combination to produce synergistic action against the microorganism wherein: • the sulfonamide in the combination is selected from one of: sulfadiazine, sulfadoxin, and sulfisoxazole and the diaminopyrimidine in the combination is trimethoprim; or • the sulfonamide in the combination is selected from one of: sulfadiazine, sulfadoxin, sulfisoxazole, and sulfamethoxazole and the diaminopyrimidine in the combination is pyrimethamine; and wherein the microorganism is resistant to an antibiotic, wherein the microorganism is susceptible to the combination together, and wherein the combination together displays broad spectrum activity against Gram-positive bacteria, and Gram-negative bacteria. • the sulfonamide in the combination is selected from one of: sulfadiazine, sulfadoxin, and sulfisoxazole and the diaminopyrimidine in the combination is trimethoprim; or • the sulfonamide in the combination is selected from one of: sulfadiazine, sulfadoxin, sulfisoxazole, and sulfamethoxazole and the diaminopyrimidine in the combination is pyrimethamine; and wherein the microorganism is resistant to an antibiotic, wherein the microorganism is susceptible to the combination together, and wherein the microorganism is resistant to an antibiotic, wherein the microorganism is susceptible to the combination together, and
A wireless device configured to communicate with a network node , the wireless device comprising: processing circuitry configured to: determine that a transmitted wake up signal has been missed before a discontinuous reception, DRX, ON-duration; and perform at least one action during the DRX ON-duration based at least in part on the determination that the wake signal has been missed; and characterized by the processing circuitry being configured to determine that the wake up signal has been missed based at least in part on a signal quality of a previously received wake up signal. processing circuitry configured to: determine that a transmitted wake up signal has been missed before a discontinuous reception, DRX, ON-duration; and perform at least one action during the DRX ON-duration based at least in part on the determination that the wake signal has been missed; and determine that a transmitted wake up signal has been missed before a discontinuous reception, DRX, ON-duration; and perform at least one action during the DRX ON-duration based at least in part on the determination that the wake signal has been missed; and characterized by the processing circuitry being configured to determine that the wake up signal has been missed based at least in part on a signal quality of a previously received wake up signal.
A computer-implemented method for predicting a marginal performance state of a storage device, the method comprising: collecting performance data for input/output operations executed at a storage device of a group of storage devices that are configured to implement a fault resiliency function; based on the collected performance data, determining a time-based I/O performance profile for the storage device; determining a characteristic time-based I/O performance profile for a representative group of storage devices having common characteristics with the storage device; determining that a difference between the time-based I/O performance profile for the storage device and the characteristic time-based I/O performance profile exceeds a predetermined deviance threshold that is indicative of the storage device entering a marginal performance state; characterized in that : in response to determining that the difference exceeds the predetermined deviance threshold, redirecting selected I/O requests designated for the storage device to another device of the group of storage devices for one of, a timeout period and a probability, that is determined based on a characteristic recovery time for the storage device; wherein the redirecting comprises throttling I/O requests to modify the timing of I/O requests that are sent to the storage device. collecting performance data for input/output operations executed at a storage device of a group of storage devices that are configured to implement a fault resiliency function; based on the collected performance data, determining a time-based I/O performance profile for the storage device; determining a characteristic time-based I/O performance profile for a representative group of storage devices having common characteristics with the storage device; determining that a difference between the time-based I/O performance profile for the storage device and the characteristic time-based I/O performance profile exceeds a predetermined deviance threshold that is indicative of the storage device entering a marginal performance state; characterized in that : in response to determining that the difference exceeds the predetermined deviance threshold, redirecting selected I/O requests designated for the storage device to another device of the group of storage devices for one of, a timeout period and a probability, that is determined based on a characteristic recovery time for the storage device; wherein the redirecting comprises throttling I/O requests to modify the timing of I/O requests that are sent to the storage device. in response to determining that the difference exceeds the predetermined deviance threshold, redirecting selected I/O requests designated for the storage device to another device of the group of storage devices for one of, a timeout period and a probability, that is determined based on a characteristic recovery time for the storage device; wherein the redirecting comprises throttling I/O requests to modify the timing of I/O requests that are sent to the storage device.
A field grading member , comprising: a polymeric matrix ; and a particulate filler distributed within the polymeric matrix, particulate bodies of the particulate filler comprising: a core that includes zinc oxide doped with fluoride ions; an oxide mixed layer deposited on the core; and a conducting oxide layer deposited on the oxide mixed layer to provide an electrical percolation path through the polymeric matrix triggered by strength of an electric field extending through the field grading member. a polymeric matrix ; and a particulate filler distributed within the polymeric matrix, particulate bodies of the particulate filler comprising: a core that includes zinc oxide doped with fluoride ions; an oxide mixed layer deposited on the core; and a conducting oxide layer deposited on the oxide mixed layer to provide an electrical percolation path through the polymeric matrix triggered by strength of an electric field extending through the field grading member. a core that includes zinc oxide doped with fluoride ions; an oxide mixed layer deposited on the core; and a conducting oxide layer deposited on the oxide mixed layer to provide an electrical percolation path through the polymeric matrix triggered by strength of an electric field extending through the field grading member.
A method comprising: determining a fullness value for a buffer ; applying a transformation to the fullness value to obtain a transformed fullness within a predetermined transformed buffer fullness range, wherein a number of bits in the buffer at an end of a slice of data are bound to a predetermined maximum number of bits; making a quantization decision responsive to the transformed fullness; and coding pixel data in the buffer according to the quantization decision, wherein the quantization decision is further based upon a flatness determination for a group of pixels; wherein flatness determination for a group of pixels comprises: determining whether a first set of pixels in the group meets a flatness threshold; if the first set of pixels meets the flatness threshold, adjusting a quantization parameter for the group; if the first set of pixels does not meet the flatness threshold, determining whether a second set of pixels in the group meets the flatness threshold; and if the second set of pixels meets the flatness threshold, adjusting the quantization parameter for the group of pixels; wherein the quantization decision comprises, in part, the adjustment to the quantization parameter. determining a fullness value for a buffer ; applying a transformation to the fullness value to obtain a transformed fullness within a predetermined transformed buffer fullness range, wherein a number of bits in the buffer at an end of a slice of data are bound to a predetermined maximum number of bits; making a quantization decision responsive to the transformed fullness; and coding pixel data in the buffer according to the quantization decision, determining whether a first set of pixels in the group meets a flatness threshold; if the first set of pixels meets the flatness threshold, adjusting a quantization parameter for the group; if the first set of pixels does not meet the flatness threshold, determining whether a second set of pixels in the group meets the flatness threshold; and if the second set of pixels meets the flatness threshold, adjusting the quantization parameter for the group of pixels; wherein the quantization decision comprises, in part, the adjustment to the quantization parameter.
A memory controller comprising: a first interface for receiving read response data on a data bus from both a first memory device and a second memory device different from the first memory device; a second interface for sending the read response data to one of a plurality of clients; and control logic; wherein in response to determining a given point in time for receiving read response data is reached, the control logic is configured to: identify, based on the given point in time, a first memory access command that corresponds to the read response data; and in response to determining the read response data is received on the data bus at the given point in time: mark the first memory access command as complete; and send the read response data to a given client that generated the first memory access command. a first interface for receiving read response data on a data bus from both a first memory device and a second memory device different from the first memory device; a second interface for sending the read response data to one of a plurality of clients; and control logic; wherein in response to determining a given point in time for receiving read response data is reached, the control logic is configured to: identify, based on the given point in time, a first memory access command that corresponds to the read response data; and in response to determining the read response data is received on the data bus at the given point in time: mark the first memory access command as complete; and send the read response data to a given client that generated the first memory access command. identify, based on the given point in time, a first memory access command that corresponds to the read response data; and in response to determining the read response data is received on the data bus at the given point in time: mark the first memory access command as complete; and send the read response data to a given client that generated the first memory access command. mark the first memory access command as complete; and send the read response data to a given client that generated the first memory access command.