mhurhangee/ep-ind-claims huggingface dataset:
Apparatus (4, 5) for checking the inflation pressure of a vehicle tyre whilst moving the tyre in a direction of travel, comprising a sensor array extending in a lateral direction with respect to the direction of travel, wherein the sensor array includes a plurality of laterally spaced sensor members (14, 19) each of which is elongate and extends from a first end to a second end in a longitudinal direction which extends sideways from said lateral direction, so that loads are applied to different positions along the sensor member (14, 19) as the tyre moves over the array; wherein each sensor member (14, 19) is provided with a respective load sensing system which provides an output representing the load on the sensor member (14, 19) as a tyre moves over the array, the apparatus further comprising a processing module which processes outputs from the load sensing systems of the sensor members (14, 19) and provides data representing the pressure of the tyre; characterised in that, the sensitivity of each sensor member (14, 19) increases from a minimum for a load applied at the first end of the sensor member, to a maximum for a load applied at the second end of the sensor member.
A method for protecting against unauthorized memory dump modification, the method comprising: producing, by a hardware processor, a memory dump of a computing device; identifying, by the hardware processor, a current kernel function used for producing the memory dump; determining, by the hardware processor, that the current kernel function is not authorized to produce the memory dump by: comparing an on-disk kernel image of the computing device with an in-memory kernel image of the computing device; identifying modified kernel fragments used to produce the memory dump based on the comparison; and determining that the modified kernel fragments are caused by malware; in response to determining that the current kernel function is not authorized to produce the memory dump: determining, by the hardware processor, that the produced memory dump has been modified; analyzing, by the hardware processor, a call tree to identify an original kernel function authorized to produce memory dumps; and calling, by the hardware processor, the original kernel function to produce an authentic memory dump. producing, by a hardware processor, a memory dump of a computing device; identifying, by the hardware processor, a current kernel function used for producing the memory dump; determining, by the hardware processor, that the current kernel function is not authorized to produce the memory dump by: comparing an on-disk kernel image of the computing device with an in-memory kernel image of the computing device; identifying modified kernel fragments used to produce the memory dump based on the comparison; and determining that the modified kernel fragments are caused by malware; comparing an on-disk kernel image of the computing device with an in-memory kernel image of the computing device; identifying modified kernel fragments used to produce the memory dump based on the comparison; and determining that the modified kernel fragments are caused by malware; in response to determining that the current kernel function is not authorized to produce the memory dump: determining, by the hardware processor, that the produced memory dump has been modified; analyzing, by the hardware processor, a call tree to identify an original kernel function authorized to produce memory dumps; and calling, by the hardware processor, the original kernel function to produce an authentic memory dump. determining, by the hardware processor, that the produced memory dump has been modified; analyzing, by the hardware processor, a call tree to identify an original kernel function authorized to produce memory dumps; and calling, by the hardware processor, the original kernel function to produce an authentic memory dump.
An optical assembly (1500, 1600) comprising: an adapter; a connector assembly (1510, 1610) comprising: a housing received by the adapter, said housing defining a bore; a projection extending from the housing; and a ferrule translatable within the bore of the housing; and a sensor ( 1530, 1630) mounted only on the housing or only on the adapter, the sensor being configured for detecting translation of the ferrule, wherein (i) the sensor is mounted on the projection when the sensor is mounted on the housing or (ii) the sensor is configured for contacting the projection when the sensor is mounted on the adapter, and wherein an electrical characteristic of the sensor changes to indicate translation of the ferrule to a predetermined position. an adapter; a connector assembly (1510, 1610) comprising: a housing received by the adapter, said housing defining a bore; a projection extending from the housing; and a ferrule translatable within the bore of the housing; and a housing received by the adapter, said housing defining a bore; a projection extending from the housing; and a ferrule translatable within the bore of the housing; and a sensor ( 1530, 1630) mounted only on the housing or only on the adapter, the sensor being configured for detecting translation of the ferrule, wherein (i) the sensor is mounted on the projection when the sensor is mounted on the housing or (ii) the sensor is configured for contacting the projection when the sensor is mounted on the adapter, and wherein an electrical characteristic of the sensor changes to indicate translation of the ferrule to a predetermined position.
A backlight system for a display, comprising: a backlight having a plurality of light emitters configured to collectively generate white light, the plurality of light emitters including: a plurality of red emitters configured to emit red light, each red emitter having: a first blue light emitting diode; a red phosphor or nanoparticle photoconverter arranged to convert blue light from the first blue LED to red light; and a casing; a plurality of green emitters configured to emit green light, each green emitter having: a second blue LED; a green phosphor or nanoparticle photoconverter arranged to convert blue light from the second blue LED to green light; and a casing; and a plurality of blue emitters each having a third blue LED and configured to emit blue light, characterised in that: the casing of each red emitter is a yellow polymer casing; and the casing of each green emitter is also the yellow polymer casing as used with the red emitters. a backlight having a plurality of light emitters configured to collectively generate white light, the plurality of light emitters including: a plurality of red emitters configured to emit red light, each red emitter having: a first blue light emitting diode; a red phosphor or nanoparticle photoconverter arranged to convert blue light from the first blue LED to red light; and a casing; a plurality of green emitters configured to emit green light, each green emitter having: a second blue LED; a green phosphor or nanoparticle photoconverter arranged to convert blue light from the second blue LED to green light; and a casing; and a plurality of blue emitters each having a third blue LED and configured to emit blue light, characterised in that: the casing of each red emitter is a yellow polymer casing; and the casing of each green emitter is also the yellow polymer casing as used with the red emitters. a plurality of red emitters configured to emit red light, each red emitter having: a first blue light emitting diode; a red phosphor or nanoparticle photoconverter arranged to convert blue light from the first blue LED to red light; and a casing; a plurality of green emitters configured to emit green light, each green emitter having: a second blue LED; a green phosphor or nanoparticle photoconverter arranged to convert blue light from the second blue LED to green light; and a casing; and a plurality of blue emitters each having a third blue LED and configured to emit blue light, characterised in that: the casing of each red emitter is a yellow polymer casing; and the casing of each green emitter is also the yellow polymer casing as used with the red emitters. the casing of each red emitter is a yellow polymer casing; and the casing of each green emitter is also the yellow polymer casing as used with the red emitters.
A temperature control system comprising a closed refrigerant circuit having: • an evaporator unit configured for absorbing heat via the refrigerant, thereby evaporating it; • a compressor unit configured for increasing the pressure and temperature of refrigerant within the circuit; said compressor unit comprising a mechanical compressor; and • a condenser unit configured for rejecting heat from the refrigerant, thereby liquefying it; the temperature control system being characterized by a first solar collector arranged upstream of said mechanical compressor, and a second solar collector arranged downstream of said mechanical compressor, each of said solar collectors (32a, 32b) being configured for utilizing an external heat source to increase the temperature of the refrigerant, and further comprising a first bypass line for bypassing the first solar collector and a first valve configured associated therewith, and a second bypass line for bypassing the second solar collector and a second valve configured associated therewith, each of said valves being configured to selectively route refrigerant through its associated bypass line or through its respective solar collector, the temperature control system further comprising a controller configured to operate said first and second valves • an evaporator unit configured for absorbing heat via the refrigerant, thereby evaporating it; • a compressor unit configured for increasing the pressure and temperature of refrigerant within the circuit; said compressor unit comprising a mechanical compressor; and • a condenser unit configured for rejecting heat from the refrigerant, thereby liquefying it;
A functional building material for a window, the functional building material comprising: a transparent glass substrate; and a low-emissivity coating formed on the transparent glass substrate, characterised in that the low-emissivity coating includes a vertical sequential stack on the transparent glass substrate of a lowest barrier player, a first dielectric layer, a lower barrier layer, a second dielectric layer, a first low-emissivity protective layer, a low-emissivity layer, a second low-emissivity protective (layer, a third dielectric layer, an upper barrier layer, and a fourth dielectric layer in this order, wherein the lowest barrier layer includes one selected from a group consisting of a first metal, a first complex metal, a first metal oxide, a first complex metal oxide, a first metal oxynitride, a first complex metal oxynitride, and combination thereof, wherein each of the lower barrier layer and the upper barrier layer includes one selected from a group consisting of a second metal, a second complex metal, a second metal nitride, a second complex metal nitride, and combinations thereof, wherein each of the lowest barrier layer the lower barrier layer and the upper barrier layer is single-layered,or multi-layered. a transparent glass substrate; and a low-emissivity coating formed on the transparent glass substrate, characterised in that the low-emissivity coating includes a vertical sequential stack on the transparent glass substrate of a lowest barrier player, a first dielectric layer, a lower barrier layer, a second dielectric layer, a first low-emissivity protective layer, a low-emissivity layer, a second low-emissivity protective (layer, a third dielectric layer, an upper barrier layer, and a fourth dielectric layer in this order, wherein the lowest barrier layer includes one selected from a group consisting of a first metal, a first complex metal, a first metal oxide, a first complex metal oxide, a first metal oxynitride, a first complex metal oxynitride, and combination thereof, wherein each of the lower barrier layer and the upper barrier layer includes one selected from a group consisting of a second metal, a second complex metal, a second metal nitride, a second complex metal nitride, and combinations thereof, wherein each of the lowest barrier layer the lower barrier layer and the upper barrier layer is single-layered,or multi-layered.
A braiding machine (100, 800, 900), comprising: a support structure (102, 802, 902); a spool system (104, 804, 904), comprising: a set of rotor metals (210, 223, 225, 227, 228, 270, 290, 380, 387, 511, 512, 513, 514, 515, 516, 517, 531, 532, 533, 534, 535, 536, 537) arranged in a first ring (170, 190) on the support structure (102, 802, 902); a set of horn gears (230, 280, 384, 521, 522, 523, 524, 525, 526, 527) arranged in a second ring on the support structure (102, 802, 902); and a spool (260, 540, 542, 590, 592) with thread, the spool (260, 540, 542, 590, 592) being mounted to a carrier element (250, 372), wherein the spool (260, 540, 542, 590, 592) mounted to the carrier element (250, 372) can be passed between the set of rotor metals in the first ring (170, 190) and the set of horn gears (230, 280, 384, 521, 522, 523, 524, 525, 526, 527) in the second ring, characterised in that the horn gears (230, 280, 384, 521, 522, 523, 524, 525, 526, 527) sit at a different axial distance from a surface of the braiding machine (100, 800, 900) formed by the first ring of rotor metals (210, 223, 225, 227, 228, 270, 290, 380, 387, 511, 512, 513, 514, 515, 516, 517, 531, 532, 533, 534, 535, 536, 537) than the rotor metals (210, 223, 225, 227, 228, 270, 290, 380, 387, 511, 512, 513, 514, 515, 516, 517, 531, 532, 533, 534, 535, 536, 537).
A pharmaceutical composition comprising Polymyxin B and a 4-oxoquinolizine compound of formula IIIc: or a pharmaceutically acceptable salt thereof, wherein R 1 is hydrogen, halogen, cyano, C 1-8 alkyl, C 1-8 haloalkyl, -OR X, -N(R X) 2, -C R X, -C OR X, or -C N(R X) 2, wherein each R X is independently hydrogen, C 1-8 alkyl, or C 1-8 haloalkyl; and Y is aryl, or heteroaryl, each substituted with one to five groups that are either - N(R Y1) 2 or -C 1-8 alkyl-R Y where R Y is -N(R Y1) 2 and further optionally substituted by one to four groups that are each independently halogen, C 1-8 alkyl, C 1-8 haloalkyl, C 3-8 cycloalkyl, heterocyclyl, aryl, heteroaryl, C 3-8 cycloalkyl(C 1-8) alkyl, heterocyclyl(C 1-8)alkyl, aryl(C 1-8)alkyl, heteroaryl(C 1-8)alkyl, -R Y, or -C 1-8 alkyl-R Y, wherein R Y is nitro, cyano, -OR Y1, -SR Y1, -N(R Y1) 2, -C R Y1, -C OR Y1, -C N(R Y1) 2, -OC R Y1, -OC OR Y1, -OC N(R Y1) 2, -N(R Y1)C R Y1, -N(R Y1)C OR Y1, -N(R Y1)C N(R Y1) 2, -S 2 R Y1, -S 2 OR Y1, -S 2 N(R Y1) 2, -OS 2 R Y1, -OS 2 OR Y1, -OS 2 N(R Y1) 2, -N(R Y1)S 2 R Y1, -N(R Y1)S 2 OR Y1, or -N(R Y1)S 2 N(R Y1) 2, wherein each R Y1 is independently hydrogen, C 1-8 alkyl, or C 1-8 haloalkyl.
A photoelectric smoke detector, comprising: an optics cover providing a smoke chamber having a smoke chamber opening; a CO detector mounted to the optics cover; an inner cover providing a first opening and a second opening, wherein the first opening receives a portion of the CO detector and the second opening is aligned with the smoke chamber opening; and an outer cover including an open entry portion; characterized in that the photoelectric smoke detector further comprises: a spoiler including a U-shaped fin arrangement and received against the inner cover, wherein the spoiler is arranged between the inner cover and the outer cover. an optics cover providing a smoke chamber having a smoke chamber opening; a CO detector mounted to the optics cover; an inner cover providing a first opening and a second opening, wherein the first opening receives a portion of the CO detector and the second opening is aligned with the smoke chamber opening; and an outer cover including an open entry portion; characterized in that the photoelectric smoke detector further comprises: a spoiler including a U-shaped fin arrangement and received against the inner cover, wherein the spoiler is arranged between the inner cover and the outer cover.
Stabilized catalyst mould comprising a catalyst body formed of a catalyst material, said catalyst material comprising a catalytically active material or a precursor material of the catalytically active material, with a catalytically active material having a composition according to the general formula VP x O y M z wherein M is a promoter selected from the group formed of chromium, nickel, magnesium, aluminum, silicium, wolfram, niobium, antimony, caesium, and their mixtures, x is a number between 0.1 and 3, y is a number according to the valence of V, P and M, and z is a number between 0 and 1.5, characterized in that at least parts of the surface of the catalyst mould are provided with a protective coating comprising an organic binder, characterized in that the organic binder comprises a copolymer of vinyl acetate and a further monomer, preferably, ethylene, propylene and/or maleic anhydride.
A chair comprising a support shell having a seat portion and a back portion, a transom, and a recline mechanism, the recline mechanism comprising: a resilient front support member having a first end operatively attached to the transom and a second end operatively attached to a front part of the seat portion; and a back support arm having a lower end operatively rigidly attached to the transom, an upper end operatively rigidly attached to the back portion, and a flex region having a rearward flexibility that is greater than the rearward flexibility of the rest of the back support arm; wherein the back portion is reclinable relative to the seat portion and a rear part of the seat portion is configured to lift as the shell back portion reclines. a resilient front support member having a first end operatively attached to the transom and a second end operatively attached to a front part of the seat portion; and a back support arm having a lower end operatively rigidly attached to the transom, an upper end operatively rigidly attached to the back portion, and a flex region having a rearward flexibility that is greater than the rearward flexibility of the rest of the back support arm; wherein the back portion is reclinable relative to the seat portion and a rear part of the seat portion is configured to lift as the shell back portion reclines.
An exhaust gas emission purifying device comprising: an exhaust manifold which collects an exhaust gas discharged from exhaust connection pipes connected to exhaust ports of an engine, and which leads the exhaust gas into an exhaust passageway upstream of a turbine of a turbocharger; a denitration catalyst apparatus disposed in the exhaust passageway; an evaporation tube provided inside of the exhaust manifold, the evaporation tube having one end connected to the exhaust passageway and the other end opening into the exhaust manifold; and a nozzle that sprays an aqueous solution containing at least one of a reducing agent and a reducing agent precursor into the exhaust gas as it passes through the evaporation tube, characterized in that the evaporation tube comprises: a flow regulator configured to regulate the flow of exhaust gas within the evaporation tube; and a static mixer. an exhaust manifold which collects an exhaust gas discharged from exhaust connection pipes connected to exhaust ports of an engine, and which leads the exhaust gas into an exhaust passageway upstream of a turbine of a turbocharger; a denitration catalyst apparatus disposed in the exhaust passageway; an evaporation tube provided inside of the exhaust manifold, the evaporation tube having one end connected to the exhaust passageway and the other end opening into the exhaust manifold; and a nozzle that sprays an aqueous solution containing at least one of a reducing agent and a reducing agent precursor into the exhaust gas as it passes through the evaporation tube, characterized in that the evaporation tube comprises: a flow regulator configured to regulate the flow of exhaust gas within the evaporation tube; and a static mixer. a flow regulator configured to regulate the flow of exhaust gas within the evaporation tube; and a static mixer.
A waveguide assembly (22, 24) for a radio frequency, RF, signal network, comprising a plurality of waveguides, wherein at least two of the plurality of waveguides are integrally formed with each other; wherein a wall of a first waveguide of the at least two waveguides is common with a wall of a second waveguide of the at least two waveguides; the waveguide assembly further comprising: one or more waveguide connectors, each waveguide connector coupled to at least three waveguides of the plurality of waveguides and having a flange and at least three ports (32, 33, 34), each respective port (32, 33, 34) configured to interface with a respective one of the at least three waveguides, wherein the flange is integrally formed with the at least three waveguides.
An in vitro method for determining whether an antisense oligonucleotide of 14-40 nucleotides comprising complementarity to a part of a human dystrophin exon 51 is capable of specifically inhibiting an exon recognition sequence of said exon, comprising: Providing a cell having a pre-mRNA containing said exon with said antisense oligonucleotide, Culturing said cell to allow the formation of an mRNA from said pre-mRNA and Determining whether said exon is absent from said mRNA. Providing a cell having a pre-mRNA containing said exon with said antisense oligonucleotide, Culturing said cell to allow the formation of an mRNA from said pre-mRNA and Determining whether said exon is absent from said mRNA.
An electric vehicle control system, comprising: a domain control unit configured to control an electric vehicle; a current sampling unit configured to sample current of a power battery and a motor driver module of the electric vehicle, and send sampling signals to the domain control unit; an electrical device, driven by the power battery, configured to sample current flowing through the electrical device and send sampling signals to the domain control unit; a switch module configured to turn on or off power supply circuits of the electrical device and the motor driver module; and a voltage sampling unit configured to sample voltage of the switch module and send sampling signals to the domain control unit, wherein the domain control unit is configured to manage the power battery and control the motor driver module and the electrical device according to the sampling signals sent by the electrical device and the current sampling unit, and the domain control unit is configured to perform on or off control of the switch module according to the sampling signals sent by the voltage sampling unit, characterized in that the domain control unit is connected to the electrical device and the current sampling unit with signal wires, and the domain control unit is connected to the switch module with hard wires. a domain control unit configured to control an electric vehicle; a current sampling unit configured to sample current of a power battery and a motor driver module of the electric vehicle, and send sampling signals to the domain control unit; an electrical device, driven by the power battery, configured to sample current flowing through the electrical device and send sampling signals to the domain control unit; a switch module configured to turn on or off power supply circuits of the electrical device and the motor driver module; and a voltage sampling unit configured to sample voltage of the switch module and send sampling signals to the domain control unit, wherein the domain control unit is configured to manage the power battery and control the motor driver module and the electrical device according to the sampling signals sent by the electrical device and the current sampling unit, and the domain control unit is configured to perform on or off control of the switch module according to the sampling signals sent by the voltage sampling unit, characterized in that the domain control unit is connected to the electrical device and the current sampling unit with signal wires, and the domain control unit is connected to the switch module with hard wires.