mhurhangee/ep-ind-claims huggingface dataset:
A vehicle crash pad coupled to a passenger airbag door having a passenger airbag installed in a passenger seat direction, the vehicle crash pad comprising: a base forming a frame; a scrim coupled to an inside of the base of the passenger airbag door in an insert-injection method; a skin disposed above the base and having a surface exposed to an outside; a foam disposed between the base and the skin; and incision grooves formed in a rear surface of the base in an area of the passenger airbag door characterized in that the incision grooves comprise: a first incision line extending in a width direction of the base formed in the area of the passenger airbag door; second incision lines extending in a vertical direction from both ends of the first incision line; and third incision lines extending from both ends of the second incision lines toward each corner of the passenger airbag door, and fourth incision lines extending in a vertical direction and a horizontal direction from an end of the third incision lines to connect ends of the third incision lines (313 to each other. a base forming a frame; a scrim coupled to an inside of the base of the passenger airbag door in an insert-injection method; a skin disposed above the base and having a surface exposed to an outside; a foam disposed between the base and the skin; and incision grooves formed in a rear surface of the base in an area of the passenger airbag door a first incision line extending in a width direction of the base formed in the area of the passenger airbag door; second incision lines extending in a vertical direction from both ends of the first incision line; and third incision lines extending from both ends of the second incision lines toward each corner of the passenger airbag door, and fourth incision lines extending in a vertical direction and a horizontal direction from an end of the third incision lines to connect ends of the third incision lines (313 to each other.
A tamper sensor comprising: a substrate; a first conductive layer printed on a first side of the substrate; a first insulation layer printed on the first conductive layer; a second conductive layer printed on top of the first insulation layer to form a layered tamper circuit; and wherein the substrate is the only substrate of the tamper sensor, characterised by: a third conductive layer printed on a second side of the substrate; a second insulation layer printed on the third conductive layer; and a fourth conductive layer printed on the second insulation layer. a substrate; a first conductive layer printed on a first side of the substrate; a first insulation layer printed on the first conductive layer; a second conductive layer printed on top of the first insulation layer to form a layered tamper circuit; and wherein the substrate is the only substrate of the tamper sensor, characterised by: a third conductive layer printed on a second side of the substrate; a second insulation layer printed on the third conductive layer; and a fourth conductive layer printed on the second insulation layer. a third conductive layer printed on a second side of the substrate; a second insulation layer printed on the third conductive layer; and a fourth conductive layer printed on the second insulation layer.
A wireless charging system comprising: a charger portion configured to receive one or more portable elements for charging wirelessly using a magnetic field, the charger portion configured to control the amount of power needed to charge the one or more portable elements; and an inband communication module configured to use the magnetic field and to receive communications from one or more portable elements using a random access mode, each communication from a portable element comprising an amount of energy received since the portable element last transmitted a communication; the charger portion further configured to determine how much power is needed to charge the one or more portable elements based on the amounts of energy received by the one or more portable elements; wherein the wireless charging system is not configured to negotiate a unique device identification with any of the portable elements. a charger portion configured to receive one or more portable elements for charging wirelessly using a magnetic field, the charger portion configured to control the amount of power needed to charge the one or more portable elements; and an inband communication module configured to use the magnetic field and to receive communications from one or more portable elements using a random access mode, each communication from a portable element comprising an amount of energy received since the portable element last transmitted a communication; the charger portion further configured to determine how much power is needed to charge the one or more portable elements based on the amounts of energy received by the one or more portable elements; wherein the wireless charging system is not configured to negotiate a unique device identification with any of the portable elements.
Fuel pump for a pump arrangement having a low-pressure pump and a high-pressure pump for fuel injection systems of air-compressing, autoignition internal combustion engines, having a supply duct and a connecting duct on the suction side of the fuel pump, wherein the connecting duct runs in a direction which differs from a direction of the supply duct, wherein the supply duct opens laterally into the connecting duct which is in the form of a blind bore, characterized in that a throttle is provided which adjoins the supply duct in the direction of the supply duct and which opens laterally into the connecting duct and which opens perpendicularly into a cylindrical section of the connecting duct, and in that a cross section of the connecting duct is larger than a cross section of the throttle.
A tone synthesis apparatus for outputting a continuous tone waveform by time-serially combining rendition style modules, defining rendition-style-related waveform characteristics for individual tone portions, and sequentially crossfade-synthesizing a plurality of waveforms (A-G) in accordance with the combination of the rendition style modules by use of at least two channels, said tone synthesis apparatus comprising: an acquisition section (5, 100) that acquires performance information (NOTE-ON,NOTE-OFF); a determination section that makes a determination (S41,S42), in accordance with the performance information acquired by said acquisition section, as to whether a crossfade characteristic should be changed or not; characterized by a change section that, in accordance with a result of the determination by said determination section, automatically changes a crossfade characteristic of crossfade synthesis having already been started at a time point when the performance information was acquired by said acquisition section, so as to allow said crossfade synthesis to be completed earlier than the previously set completion time, wherein a time position of a succeeding one of rendition style modules to be time-serially combined in accordance with the acquired performance information is controlled by said change section automatically changing the crossfade characteristic of the crossfade synthesis having already been started at the time point when the performance information was acquired by said acquisition section. an acquisition section (5, 100) that acquires performance information (NOTE-ON,NOTE-OFF); a determination section that makes a determination (S41,S42), in accordance with the performance information acquired by said acquisition section, as to whether a crossfade characteristic should be changed or not; characterized by a change section that, in accordance with a result of the determination by said determination section, automatically changes a crossfade characteristic of crossfade synthesis having already been started at a time point when the performance information was acquired by said acquisition section, so as to allow said crossfade synthesis to be completed earlier than the previously set completion time, wherein a time position of a succeeding one of rendition style modules to be time-serially combined in accordance with the acquired performance information is controlled by said change section automatically changing the crossfade characteristic of the crossfade synthesis having already been started at the time point when the performance information was acquired by said acquisition section.
A method for synchronising content between two or more digital content renderers, the method comprising the steps of: receiving over a first communication channel a first communication indicating a change in content rendered on a first digital content renderer; transmitting over the first communication channel to a second digital content renderer, a second communication indicating the change in content rendered on the first digital content renderer; receiving over a second communication channel a request from the second digital content renderer for the changed content; transmitting over the second communication channel to the second digital content renderer data enabling the changed content to be rendered on the second digital content renderer; and receiving over the second communication channel the data enabling the changed content to be rendered, wherein the data is received from the first digital content renderer. receiving over a first communication channel a first communication indicating a change in content rendered on a first digital content renderer; transmitting over the first communication channel to a second digital content renderer, a second communication indicating the change in content rendered on the first digital content renderer; receiving over a second communication channel a request from the second digital content renderer for the changed content; transmitting over the second communication channel to the second digital content renderer data enabling the changed content to be rendered on the second digital content renderer; and receiving over the second communication channel the data enabling the changed content to be rendered, wherein the data is received from the first digital content renderer.
Crosslinkable composition based on organosilicon compounds having a content of fillers of at least 85% by weight, with the proviso that component consists at least in part of coarse-grained fillers with grain sizes of from 0.2 mm to 10 mm.
An array substrate comprising: a plurality of pixel units arranged in an array, each pixel unit comprising a reflection region and a transmission region, and for any pixel unit, the array substrate comprising a substrate; a thin film transistor provided on the substrate; and a reflection electrode and a first transparent electrode which are electrically connected with each other, the reflection electrode being located in the reflection region, and the first transparent electrode being located in the transmission region, characterized in that, a first transparent insulation layer is provided between the reflection electrode and the first transparent electrode, and the reflection electrode is located on a side of the first transparent insulation layer which is closer to the substrate; and the dielectric constant and the thickness of the first transparent insulation layer are selected so that the phase delay in the transmission region is two times of the phase delay in the reflection region. a plurality of pixel units arranged in an array, each pixel unit comprising a reflection region and a transmission region, and for any pixel unit, the array substrate comprising a substrate; a thin film transistor provided on the substrate; and a reflection electrode and a first transparent electrode which are electrically connected with each other, the reflection electrode being located in the reflection region, and the first transparent electrode being located in the transmission region, characterized in that, a first transparent insulation layer is provided between the reflection electrode and the first transparent electrode, and the reflection electrode is located on a side of the first transparent insulation layer which is closer to the substrate; and the dielectric constant and the thickness of the first transparent insulation layer are selected so that the phase delay in the transmission region is two times of the phase delay in the reflection region.
An apparatus for transmitting and receiving a data in Near Field Communications, NFC, the apparatus being adapted to: initiate a communication between an initiator and a target that perform NFC (110,120,130;511,512,513); characterised in that the apparatus is adapted to aggregate a plurality of data packet units for transmission to form an aggregated frame; wherein a length information field is inserted in front of each of the data packet units; and transmit the aggregated frame to one of the target and the initiator (300,301,700), wherein the aggregated frame comprises an identifier of a frame type indicating whether the plurality of data packet units included in the aggregated frame is aggregated, wherein the aggregated frame (200,201,600) comprises a data payload (43,53) that includes the plurality of aggregated data packet units without the plurality of sequence numbers associated with transmission of the plurality of data packet units and reception thereof. initiate a communication between an initiator and a target that perform NFC (110,120,130;511,512,513); characterised in that the apparatus is adapted to aggregate a plurality of data packet units for transmission to form an aggregated frame; wherein a length information field is inserted in front of each of the data packet units; and transmit the aggregated frame to one of the target and the initiator (300,301,700), wherein the aggregated frame comprises an identifier of a frame type indicating whether the plurality of data packet units included in the aggregated frame is aggregated, wherein the aggregated frame (200,201,600) comprises a data payload (43,53) that includes the plurality of aggregated data packet units without the plurality of sequence numbers associated with transmission of the plurality of data packet units and reception thereof.
A build platform for a three-dimensional printer, the build platform comprising: a platform; at least three posts (306, 308, 310) that each extends from a respective first end thereof, at which the respective post is connected to a bottom side of the platform, to a respective second end thereof, wherein a respective height of each of the at least three posts (306, 308, 310) is adjustable; and an adjusting component that is configured to connect the at least three posts to each other, lock the respective heights of the posts (306, 308, 310), and release the posts (306, 308, 310) for adjustment of their respective heights, wherein two of the at least three posts (306, 308, 310) are front posts (306, 308) that are proximate to a front side of the platform and one of the at least three posts (306, 308, 310) is a rear post that is proximate to a rear side of the platform, characterized in that the adjusting component includes: (i) a first arm by which the adjusting component is configured to connect a first one of the front posts (306, 308) and the rear post, and (ii) a second arm by which the connecting component is configured to connect a second one of the front posts (306, 308) and the rear post. a platform; at least three posts (306, 308, 310) that each extends from a respective first end thereof, at which the respective post is connected to a bottom side of the platform, to a respective second end thereof, wherein a respective height of each of the at least three posts (306, 308, 310) is adjustable; and an adjusting component that is configured to connect the at least three posts to each other, lock the respective heights of the posts (306, 308, 310), and release the posts (306, 308, 310) for adjustment of their respective heights, wherein two of the at least three posts (306, 308, 310) are front posts (306, 308) that are proximate to a front side of the platform and one of the at least three posts (306, 308, 310) is a rear post that is proximate to a rear side of the platform, characterized in that the adjusting component includes: (i) a first arm by which the adjusting component is configured to connect a first one of the front posts (306, 308) and the rear post, and (ii) a second arm by which the connecting component is configured to connect a second one of the front posts (306, 308) and the rear post.
Method for determining an estimation of a Sampling Frequency Offset of an OFDM signal sent by an emitter to a receiver over a transmission channel, said signal being constituted of symbols; said method comprising: - sending symbols by said emitter through a first path of said transmission channel; - sending said symbols by said emitter through a second path of said transmission channel; said second path having a different ratio between the durations of a total OFDM symbol and a useful data portion of it; - determining said estimation according to a division of a symbol received via said firstpath by the same symbol received via the second path. - sending symbols by said emitter through a first path of said transmission channel; - sending said symbols by said emitter through a second path of said transmission channel; said second path having a different ratio between the durations of a total OFDM symbol and a useful data portion of it; - determining said estimation according to a division of a symbol received via said firstpath by the same symbol received via the second path.
A method (600, 700) of detecting fluid flow through a solenoid valve (36, 300, 400) of an agrochemical fluid application system, the solenoid valve being coupled in fluid communication with a nozzle of the agrochemical fluid application system and including a solenoid coil (308, 408, 508) and a poppet (312, 412), the method (600, 700) comprising: dispensing agrochemical fluid through the solenoid valve (36, 300, 400); de-energizing the solenoid coil (308, 408, 508) to close the solenoid valve (36, 300, 400) and control a fluid flow through the solenoid valve (36, 300, 400); determining a closing time of the solenoid valve (36, 300, 400) based on a signal from a poppet measuring device (338, 438); and determining a fluid flow value based on a time delay between the de-energizing the solenoid coil (308, 408, 508) and the closing time, wherein a determined fluid flow value below a target flow value is indicative of the nozzle being clogged. dispensing agrochemical fluid through the solenoid valve (36, 300, 400); de-energizing the solenoid coil (308, 408, 508) to close the solenoid valve (36, 300, 400) and control a fluid flow through the solenoid valve (36, 300, 400); determining a closing time of the solenoid valve (36, 300, 400) based on a signal from a poppet measuring device (338, 438); and determining a fluid flow value based on a time delay between the de-energizing the solenoid coil (308, 408, 508) and the closing time, wherein a determined fluid flow value below a target flow value is indicative of the nozzle being clogged.
A hot-rolled steel sheet consisting of, as a chemical composition, by mass%: C: 0.030% to 0.10%; Mn: 0.5% to 2.5%; Si+Al: 0.100% to 2.5%; P: 0.04% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.06%; Ti: 0% to 0.20%; V: 0% to 0.20%; W: 0% to 0.5%; Mo: 0% to 0.40%; Cr: 0% to 1.0%; Cu: 0% to 1.2%; Ni: 0% to 0.6%; B: 0% to 0.005%; REM: 0% to 0.01%; Ca: 0% to 0.01%; and a remainder consisting of Fe and impurities, wherein the steel sheet has a microstructure comprising, by area fraction, ferrite: 80% or more, martensite: 3% to 15.0%, and pearlite: less than 3.0%, in which a number density of martensite having an equivalent circle diameter of 3 μm or more at a position which is at a depth of 1/4 of the steel sheet thickness from the surface of the steel sheet, is 5.0 pieces/10000 μm 2 or less, and the following Expression is satisfied, R / D M 2 ≥ 1.00 here, R is an average martensite interval (μm) defined by the following Expression, and D M is a martensite average diameter (μm), R = 12.5 × π / 6 V M 0.5 − 2 / 3 0.5 × D M here, V M is a martensite area fraction (%) and D M is the martensite average diameter (μm). C: 0.030% to 0.10%; Mn: 0.5% to 2.5%; Si+Al: 0.100% to 2.5%; P: 0.04% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.06%; Ti: 0% to 0.20%; V: 0% to 0.20%; W: 0% to 0.5%; Mo: 0% to 0.40%; Cr: 0% to 1.0%; Cu: 0% to 1.2%; Ni: 0% to 0.6%; B: 0% to 0.005%; REM: 0% to 0.01%; Ca: 0% to 0.01%; and a remainder consisting of Fe and impurities, wherein the steel sheet has a microstructure comprising, by area fraction, ferrite: 80% or more, martensite: 3% to 15.0%, and pearlite: less than 3.0%, in which a number density of martensite having an equivalent circle diameter of 3 μm or more at a position which is at a depth of 1/4 of the steel sheet thickness from the surface of the steel sheet, is 5.0 pieces/10000 μm 2 or less, and the following Expression is satisfied, R / D M 2 ≥ 1.00 here, R is an average martensite interval (μm) defined by the following Expression, and D M is a martensite average diameter (μm), R = 12.5 × π / 6 V M 0.5 − 2 / 3 0.5 × D M here, V M is a martensite area fraction (%) and D M is the martensite average diameter (μm).
A marking projectile configured to be fired through the barrel of a firearm having rifling formed therein, the marking projectile comprising: a polymeric base portion configured to engage the rifling of the barrel; a polymeric front shell portion coupled to the base portion, the polymeric front shell portion having a cavity formed therein for housing a marking compound and having a structure configured to deform on impact and thereby release the marking compound; and a metallic annular sealing component configured to seal the polymeric front shell portion to the polymeric base portion. a polymeric base portion configured to engage the rifling of the barrel; a polymeric front shell portion coupled to the base portion, the polymeric front shell portion having a cavity formed therein for housing a marking compound and having a structure configured to deform on impact and thereby release the marking compound; and a metallic annular sealing component configured to seal the polymeric front shell portion to the polymeric base portion.
A composition for use in the prophylaxis and/or treatment of migraine and or neuropathic pain comprising a sesquiterpene lactone and a diterpenoid lactone in an effective amount and an edible carrier wherein the sesquiterpene lactone is parthenolide and the diterpenoid lactone is selected from andrographolide, neo-andrographolide, deoxyandrographolide and mixtures thereof.