mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, wherein the method is performed by an Ethernet physical layer of a transmitting device and comprises: obtaining media access control, MAC, layer data; allocating, according to bandwidth required by the MAC layer data and reference bandwidth of a logical channel, at least one logical channel among N logical channels, wherein multiple logical channels are time division multiplexed to one physical channel, and wherein N is an integer not smaller than 2; generating target physical layer data by encoding the MAC layer data according to the at least one logical channel; and sending the target physical layer data and first indication information to a target receiving device, wherein the first indication information indicates a mapping relationship between the MAC layer data and the at least one logical channel and the first indication information differentiates the MAC layer data carried in each logical channel of the N logical channels. obtaining media access control, MAC, layer data; allocating, according to bandwidth required by the MAC layer data and reference bandwidth of a logical channel, at least one logical channel among N logical channels, wherein multiple logical channels are time division multiplexed to one physical channel, and wherein N is an integer not smaller than 2; generating target physical layer data by encoding the MAC layer data according to the at least one logical channel; and sending the target physical layer data and first indication information to a target receiving device, wherein the first indication information indicates a mapping relationship between the MAC layer data and the at least one logical channel and the first indication information differentiates the MAC layer data carried in each logical channel of the N logical channels.
A fluorinated sulfonamide surfactant composition comprising: a neutral surfactant according to the formula: R f SO 2 N[CH 2 CH(CH 3)OH] 2; R f SO 2 N[CH 2 CH(CH 3)OH][(CH 2 CH 2 O) n H], where n is an integer from 1-6; or R f SO 2 N[(CH 2 CH 2 O) q H][(CH 2 CH 2 O) m H], where q is 1 or 2 and m is 2; and a solvent comprising water; wherein R f is a fluoroalkyl group having 3 to 8 carbon atoms; wherein the neutral surfactant has a pKA > 10. a neutral surfactant according to the formula: R f SO 2 N[CH 2 CH(CH 3)OH] 2; R f SO 2 N[CH 2 CH(CH 3)OH][(CH 2 CH 2 O) n H], where n is an integer from 1-6; or R f SO 2 N[(CH 2 CH 2 O) q H][(CH 2 CH 2 O) m H], where q is 1 or 2 and m is 2; and R f SO 2 N[CH 2 CH(CH 3)OH] 2; R f SO 2 N[CH 2 CH(CH 3)OH][(CH 2 CH 2 O) n H], where n is an integer from 1-6; or R f SO 2 N[(CH 2 CH 2 O) q H][(CH 2 CH 2 O) m H], where q is 1 or 2 and m is 2; and a solvent comprising water; wherein R f is a fluoroalkyl group having 3 to 8 carbon atoms; wherein the neutral surfactant has a pKA > 10.
A composition for producing an egg-free simulated egg food product, the composition comprising: between about 28%w/w and about 70%w/w whey protein; between about 15%w/w and about 50%w/w of a soy material comprising a lipoxygenase inactivated soy flour; and a pH modifying agent effective to alkalinise the composition upon hydration, wherein a simulated egg food product having organoleptic properties similar to those of the egg food product if produced using hen eggs is produced by hydrating and then cooking the composition. between about 28%w/w and about 70%w/w whey protein; between about 15%w/w and about 50%w/w of a soy material comprising a lipoxygenase inactivated soy flour; and a pH modifying agent effective to alkalinise the composition upon hydration, wherein a simulated egg food product having organoleptic properties similar to those of the egg food product if produced using hen eggs is produced by hydrating and then cooking the composition.
A formulation for use in the treatment of Fabry disease, wherein the formulation is an oral dosage form comprising a carrier and 1-deoxygalactonojirimycin or a salt therof, characterized in that the 1-deoxygalactonojirimycin or a salt thereof is administered to a Fabry disease patient in an amount of 150 mg every other day.
Method of measuring in line by the use of at least one ultrasound transmitter and at least one ultrasound receiver acting as an ultrasound sensor the setting characteristics of confectionery/chocolate products placed into moulds in order to determine during the cooling process the optimum time for extracting the finished product from the moulds, wherein no direct contact is made with the confectionery/chocolate product, and wherein the amplitude attenuation (11, 14) of the empty mould is determined from the vibration signal transmitted and received by the ultrasound receiver, wherein a mould-specific calibration signal is stored in a process computer or external computer, whereupon the mould is used for the moulding process of the confectionery/chocolate product and the ultrasound sent out from the ultrasound transmitter through the mould material and the moulding material in the form of a confectionery/chocolate product is detected by the ultrasound receiver and whereupon from the dissipative amplitude attenuation and the phase shift of the ultrasound from maximum the relevant time for completely detaching the confectionery/chocolate product from the mould wall is delimited and whereupon on the basis of the subsequently pronounced, progressive decrease in the amplitude signal the time for demoulding the confectionery/chocolate product is determined.
A side vehicle-body structure for a vehicle, the side vehicle-body structure comprising a center pillar in which a lower end side is positioned on a vehicle-width-direction outer side with respect to an upper end thereof, wherein the center pillar includes: a front wall; an outer wall; a breakage inducing portion that is provided to be close to a lower portion of the outer wall of the center pillar and is configured to induce breakage at time of a side collision; and a step-down portion recessed to a vehicle-width-direction inner side provided in a corner portion between a vehicle-width-direction outer portion of the front wall and a front portion of the outer wall of the center pillar of the breakage inducing portion, and an energy absorbing material is disposed between the step-down portion and an inner panel, wherein the vehicle is a front-hinged front door and a rear-hinged rear door vehicle including a front door and a rear door in a form of a front-hinged front door and a rear-hinged rear door structure, and wherein the center pillar is built in a front end portion of the rear door, the step-down portion is formed in the corner portion on a front side of the center pillar, and a rear end portion of the front door is configured to overlap at least partially with an outer side of the step-down portion. the center pillar includes: a front wall; an outer wall; a breakage inducing portion that is provided to be close to a lower portion of the outer wall of the center pillar and is configured to induce breakage at time of a side collision; and a step-down portion recessed to a vehicle-width-direction inner side provided in a corner portion between a vehicle-width-direction outer portion of the front wall and a front portion of the outer wall of the center pillar of the breakage inducing portion, and a front wall; an outer wall; a breakage inducing portion that is provided to be close to a lower portion of the outer wall of the center pillar and is configured to induce breakage at time of a side collision; and a step-down portion recessed to a vehicle-width-direction inner side provided in a corner portion between a vehicle-width-direction outer portion of the front wall and a front portion of the outer wall of the center pillar of the breakage inducing portion, and an energy absorbing material is disposed between the step-down portion and an inner panel, wherein the vehicle is a front-hinged front door and a rear-hinged rear door vehicle including a front door and a rear door in a form of a front-hinged front door and a rear-hinged rear door structure, and wherein the center pillar is built in a front end portion of the rear door, the step-down portion is formed in the corner portion on a front side of the center pillar, and a rear end portion of the front door is configured to overlap at least partially with an outer side of the step-down portion.
A Light Engine Module comprising: - a positive power supply line (LED+) - a common ground line (LED-) - a plurality of series connected LEDs connected between the positive power supply line (LED+) and the common ground line (LED-) - a communication line where signals on the communication line are measured against the common ground line, characterised in that is further comprises - a Pulse Generation Unit generating pulses on the communication line with the number of pulses proportional to the current demand of the Light Engine Module. - a positive power supply line (LED+) - a common ground line (LED-) - a plurality of series connected LEDs connected between the positive power supply line (LED+) and the common ground line (LED-) - a communication line where signals on the communication line are measured against the common ground line, characterised in that is further comprises - a Pulse Generation Unit generating pulses on the communication line with the number of pulses proportional to the current demand of the Light Engine Module.
Vibratory insert comprising a body having a first end adapted to be mechanically coupled rigidly with a surgical handpiece generating vibrations and a second end to which there is fixed a tool holder intended to reproduce the vibrations transmitted by the handpiece, said insert furthermore comprising a tool mounted able to rotate freely with the tool holder, characterised in that the tool comprises in its lower part at least one guide pin for limiting the depth of penetration of said tool.
A rolled copper alloy for electronic materials, comprising 1.0% to 2.5% by mass of Ni, 0.5% to 2.5% by mass of Co, and 0.3% to 1.2% by mass of Si, optionally 0.03% to 0.5% by mass of Cr, optionally 0.01% to 0.5% by mass of at least one selected from Mg, Mn, Ag and P, optionally 0.05% to 2.0% by mass of at least one selected from Sn and Zn, optionally 0.001% to 2.0% by mass of at least one selected from As, Sb, Be, B, Ti, Zr, Al and Fe, with the proviso that if one or more of Mg, P, As, Sb, Be, B, Mn, Sn, Ti, Zr, Al, Fe, Zn and Ag is/are present in the alloy, then the total amount of the one or more of Mg, P, As, Sb, Be, B, Mn, Sn, Ti, Zr, Al, Fe, Zn and Ag present in the alloy is 2.0% by mass or less, with the balance being Cu and unavoidable impurities, wherein from the results obtainable by an X-ray diffraction pole figure analysis using a rolled surface as a base, among the diffraction peak intensities of the Cu plane with respect to the Cu plane obtained by β scanning at α = 35°, the peak height at a β angle of 90° of the copper alloy is at least 2.5 times the peak height of a standard 99.5% pure copper powder having a size of 325 mesh in accordance with JIS Z8801, wherein in the measurement of the diffraction peak intensities, the intensity of α = 35° is plotted against the β angle, and the peak value at β = 90° is read, and wherein the rolled copper alloy satisfies the following formulae: - 14.6 × Ni concentration + Co concentration 2 + 165 × Ni concentration + Co concentration + 544 ≥ YS ≥ - 14.6 × Ni concentration + Co concentration 2 + 165 × Ni concentration + Co concentration + 512.3, and 20 × Ni concentration + Co concentration + 625 ≥ Kb ≥ 20 × Ni concentration + Co concentration + 520, wherein the unit of the Ni concentration and the Co concentration is percent (%) by mass; YS represents 0.2% yield strength; and Kb represents spring bending elastic limit.
A polycarbonate resin composition comprising 3 to 30 mass parts of a phosphazene compound and 0.001 to 1 mass parts of a fluoropolymer per 100 mass parts of the total of a component and a component formed of 40 to 95 mass% of a polycarbonate resin and 5 to 60 mass% of a filler selected from glass fillers and carbon fibers, wherein the phosphazene compound is a granular phosphazene compound that has a percentage retained on a sieve with an aperture of 400 μm of at least 55 mass% and that has a bulk density of 0.3 to 1.5 g/mL.
A wireless station that belongs to a communication cell, the wireless station comprising: a receiver configured to receive a trigger frame transmitted from an access point that belongs to an interference cell; and characterized by a controller configured to determine based on a target Receiver Signal Strength Indicator, RSSI, of the trigger frame and a transmit power value, AP Tx, Power of the access point included in the trigger frame and an estimated received signal strength indicator, RSSI, measurable at the access point, whether the wireless station is allowed to perform a transmission to other wireless station that belongs to the communication cell, wherein the estimated RSSI measurable at the access point is an RSSI value estimated by the wireless station if the wireless station performs transmission of data a receiver configured to receive a trigger frame transmitted from an access point that belongs to an interference cell; and characterized by a controller configured to determine based on a target Receiver Signal Strength Indicator, RSSI, of the trigger frame and a transmit power value, AP Tx, Power of the access point included in the trigger frame and an estimated received signal strength indicator, RSSI, measurable at the access point, whether the wireless station is allowed to perform a transmission to other wireless station that belongs to the communication cell, wherein the estimated RSSI measurable at the access point is an RSSI value estimated by the wireless station if the wireless station performs transmission of data
A method for training a neural network to calculate an output characterizing how strongly a particular aptamer binds to a particular target molecule for each of a plurality of SELEX rounds in an iterative SELEX process, the method comprising: obtaining data defining a plurality of sequences for aptamers, each aptamer comprising a string of nucleobases, each sequence having a respective label comprising characteristics of how strongly the respective aptamer binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process; encoding the data to generate training data for a neural network; and training the neural network on the training data, the neural network configured to output characteristics of how strongly a particular input sequence binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process, wherein the output characteristics of how strongly the aptamer binds comprises a plurality of SELEX round outputs, each SELEX round output corresponding to a respective round in the iterative SELEX process, wherein each SELEX round output characterizes how strongly the aptamer binds to the particular target molecule for the corresponding SELEX round. obtaining data defining a plurality of sequences for aptamers, each aptamer comprising a string of nucleobases, each sequence having a respective label comprising characteristics of how strongly the respective aptamer binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process; encoding the data to generate training data for a neural network; and training the neural network on the training data, the neural network configured to output characteristics of how strongly a particular input sequence binds to the particular target molecule for each of the plurality of SELEX rounds in the iterative SELEX process, wherein the output characteristics of how strongly the aptamer binds comprises a plurality of SELEX round outputs, each SELEX round output corresponding to a respective round in the iterative SELEX process, wherein each SELEX round output characterizes how strongly the aptamer binds to the particular target molecule for the corresponding SELEX round.
A rotary actuator lever apparatus, comprising: a cylindrical body having a first opening and a second opening axially aligned with the first opening and sized larger than the first opening; and a lever arm extending a predetermined distance from the body and having a first arm member spaced from a second arm member, wherein each of the first and second arm members (226, 228) includes an aperture to receive a fastener to operatively couple the lever to a stem of an actuator having a rod end bearing, and two hubs (236,238), and wherein the body has a groove adjacent to the first arm member to enable the first arm member to flex relative to the second arm member and each hub (236, 238) to engage the rod end bearing when the lever couples to the actuator stem via the fastener, allowing the fastener to transmit a greater amount of clamping force to the rod end bearing and lever arm. a cylindrical body having a first opening and a second opening axially aligned with the first opening and sized larger than the first opening; and a lever arm extending a predetermined distance from the body and having a first arm member spaced from a second arm member, wherein each of the first and second arm members (226, 228) includes an aperture to receive a fastener to operatively couple the lever to a stem of an actuator having a rod end bearing, and two hubs (236,238), and wherein the body has a groove adjacent to the first arm member to enable the first arm member to flex relative to the second arm member and each hub (236, 238) to engage the rod end bearing when the lever couples to the actuator stem via the fastener, allowing the fastener to transmit a greater amount of clamping force to the rod end bearing and lever arm.
A helmet, comprising: an outer liner comprising an inward-facing surface; an inner liner positioned at least partially inside the outer liner, the inner liner comprising an outward-facing surface facing the inward-facing surface of the outer liner; at least one chin strap; characterized in that the helmet further comprises: a plurality of return springs comprising an elastomeric material, each return spring having a first end coupled to the inward-facing surface of the outer liner, a second end distal to the first end and coupled to the outward-facing surface of the inner liner, and a body connecting the first end and the second end, the plurality of return springs biasing the inner liner to a first position with respect to the outer liner; and wherein: the at least one chin strap is anchored to the outer liner and passes through an opening in the inner liner; the inner liner is slidably coupled to the inward-facing surface of the outer liner through the plurality of return springs and slidably movable relative to the outer liner between the first position and a second position where the inner liner and outer liner are rotated with respect to each other away from the first position; and the body of each return spring of the plurality of return springs is substantially tangential to at least one of the inward-facing surface of the outer liner and the outward-facing surface of the inner liner. an outer liner comprising an inward-facing surface; an inner liner positioned at least partially inside the outer liner, the inner liner comprising an outward-facing surface facing the inward-facing surface of the outer liner; at least one chin strap; characterized in that the helmet further comprises: a plurality of return springs comprising an elastomeric material, each return spring having a first end coupled to the inward-facing surface of the outer liner, a second end distal to the first end and coupled to the outward-facing surface of the inner liner, and a body connecting the first end and the second end, the plurality of return springs biasing the inner liner to a first position with respect to the outer liner; and wherein: the at least one chin strap is anchored to the outer liner and passes through an opening in the inner liner; the inner liner is slidably coupled to the inward-facing surface of the outer liner through the plurality of return springs and slidably movable relative to the outer liner between the first position and a second position where the inner liner and outer liner are rotated with respect to each other away from the first position; and the body of each return spring of the plurality of return springs is substantially tangential to at least one of the inward-facing surface of the outer liner and the outward-facing surface of the inner liner.
Combustion engine having at least four cylinders and having an exhaust-gas turbocharger having a turbine housing which has four exhaust-gas inlets (4, 5, 6, 7) and in which an exhaust-gas turbine is rotatably disposed, wherein each cylinder has two charge-cycle outlet valves (9, 10), wherein two cylinders are in each case combined so as to form one cylinder group, and each exhaust-gas inlet (4, 5, 6, 7) by way of in each case one charge-cycle outlet valve (9, 10) per cylinder is connectable in an exhaust-gas conducting manner to one cylinder group by one exhaust-gas pipe (11, 12, 13, 14), and the exhaust-gas turbine in terms of the crank angle is able to be impinged with exhaust gas every 180°, wherein a common exhaust-gas pipe (11, 12, 13, 14) per cylinder group, or both common exhaust-gas pipes (11, 12, 13, 14) of one cylinder group, has or have, respectively, one shut-off member that is situated in the exhaust-gas pipe (12, 13, 14).