mhurhangee/ep-ind-claims huggingface dataset:
A method for adjusting a calibrated phased array, comprising: receiving conditions data describing conditions at a phased array, the conditions data including temperature data and current operating conditions of the phased array, the phased array comprising a plurality of antenna element sets, an antenna element set comprising one or more antenna elements, an antenna element set associated with a calibration value; performing the following for each antenna element set of the plurality of antenna element sets: predicting a temperature value for a future time for the each antenna element set according to the conditions data by calculating the temperature value in accordance with a temperature model; establishing a temperature-dependent correction value corresponding to the temperature value; determining a correction value for the each antenna element set according to the temperature-dependent correction value and the calibration value associated with the each antenna element set; and adjusting at least one antenna element of the each antenna element set according to the correction value. receiving conditions data describing conditions at a phased array, the conditions data including temperature data and current operating conditions of the phased array, the phased array comprising a plurality of antenna element sets, an antenna element set comprising one or more antenna elements, an antenna element set associated with a calibration value; performing the following for each antenna element set of the plurality of antenna element sets: predicting a temperature value for a future time for the each antenna element set according to the conditions data by calculating the temperature value in accordance with a temperature model; establishing a temperature-dependent correction value corresponding to the temperature value; determining a correction value for the each antenna element set according to the temperature-dependent correction value and the calibration value associated with the each antenna element set; and adjusting at least one antenna element of the each antenna element set according to the correction value. predicting a temperature value for a future time for the each antenna element set according to the conditions data by calculating the temperature value in accordance with a temperature model; establishing a temperature-dependent correction value corresponding to the temperature value; determining a correction value for the each antenna element set according to the temperature-dependent correction value and the calibration value associated with the each antenna element set; and adjusting at least one antenna element of the each antenna element set according to the correction value.
A fungicidal mixture comprising, as active components: 1) triticonazole of the formula I and 2) difenoconazole of the formula II in a synergistically effective amount. 1) triticonazole of the formula I and 2) difenoconazole of the formula II in a synergistically effective amount.
A coupling system for receiving a push rod, the coupling system comprising: a housing defining an internal channel having a sloped wall; and a piston received within the internal channel, the piston including at least one flexible member arranged within the internal channel to be acted upon by the sloped wall to engage the push rod, wherein the sloped wall acts on the at least one flexible member of the piston to deflect/compress the at least one flexible member into engagement with the push rod, and said coupling system being characterized in that the piston is configured to reciprocate within the channel to pump fluid.
A disk package for a centrifuge rotor of a centrifugal separator adapted for separation of components in a supplied medium, wherein the disk package comprises a plurality of separating disks, which are provided on each other in the disk package, wherein each separating disk extends around an axis (x) of rotation and has a tapering shape with an inner surface and an outer surface along the axis (x) of rotation, wherein each separating disk is manufactured of at least a material, wherein the separating disks in the disk package are pre-tensioned against each other with a pre-tensioning force, wherein the separating disks comprise a plurality of first separating disks, which each comprises a number of distance members, and wherein each separating disk comprises at least a portion without distance members, wherein the first separating disks are polar-positioned in such a way that said distance members of one separating disk abut said portion of an adjacent separating disk, characterized in that the distance members comprise a number of pairs of distance members, which pairs each comprises a first distance member extending away from the outer surface and a second distance member extending away from the inner surface, wherein the first and second distance members are displaced in relation to each other seen in a normal direction with respect to the outer surface and provided after each other in a peripheral direction of the first separating disk, that the pre-tensioning force provides an abutment force between the distance members and the adjacent separating disk and an elastic deformation of said portion of at least of the separating disks, and that this elastic deformation during the rotation of the disk package ensures an increase of the abutment force between the distance members and the adjacent separating disk.
A metering unit comprising a diaphragm pump, two valves (18, 22), and a fluid housing, the fluid housing including two ports, pump channels, valve channels, and a pump chamber, wherein - the fluid housing is substantially cuboid, - the two ports are located next to each other on a side face of the fluid housing, - the diaphragm pump is mounted on the pump chamber, and - the pump channels (50, 50a, 50b, 52, 52a, 52b) communicate with the pump chamber and the valves (18, 22), and the valve channels (54, 54a, 54b, 56, 56a, 56b) communicate with the valves (18, 22) and the ports, characterized in that - the diaphragm pump and the two valves (18, 22) are mounted next to each other on the same side of the fluid housing, and - sections of the pump channels and valve channels (50b, 52b, 54a, 56a) extend in the fluid housing on the side opposite the pump and the two valves (18, 22) and are closed by means of a flat gasket and an end plate. - the fluid housing is substantially cuboid, - the two ports are located next to each other on a side face of the fluid housing, - the diaphragm pump is mounted on the pump chamber, and - the pump channels (50, 50a, 50b, 52, 52a, 52b) communicate with the pump chamber and the valves (18, 22), and the valve channels (54, 54a, 54b, 56, 56a, 56b) communicate with the valves (18, 22) and the ports, characterized in that - the diaphragm pump and the two valves (18, 22) are mounted next to each other on the same side of the fluid housing, and - sections of the pump channels and valve channels (50b, 52b, 54a, 56a) extend in the fluid housing on the side opposite the pump and the two valves (18, 22) and are closed by means of a flat gasket and an end plate.
An electronic device, comprising: a housing including a front plate, a rear plate, and a side member that surrounds a space between the front plate and the rear plate; a touch screen display disposed between the front plate and the rear plate; at least one through-hole formed, when seen from the front plate, through the front plate between a portion of the side member and the touch screen display; a speaker module disposed between the front plate and the rear plate, including an acoustic generation surface which, when seen from the front plate, faces the front plate; and an internal structure disposed between the front plate and the acoustic generation surface configured to receive the speaker module, wherein the internal structure and the acoustic generation surface together form a space, acoustically connected to the through-hole, wherein the internal structure comprises a surface facing the acoustic generation surface, and wherein the surface of the internal structure comprises a plurality of areas, each of the plurality of areas including a different clearance from the acoustic generation surface. a housing including a front plate, a rear plate, and a side member that surrounds a space between the front plate and the rear plate; a touch screen display disposed between the front plate and the rear plate; at least one through-hole formed, when seen from the front plate, through the front plate between a portion of the side member and the touch screen display; a speaker module disposed between the front plate and the rear plate, including an acoustic generation surface which, when seen from the front plate, faces the front plate; and an internal structure disposed between the front plate and the acoustic generation surface configured to receive the speaker module, wherein the internal structure and the acoustic generation surface together form a space, acoustically connected to the through-hole, wherein the internal structure comprises a surface facing the acoustic generation surface, and wherein the surface of the internal structure comprises a plurality of areas, each of the plurality of areas including a different clearance from the acoustic generation surface.
A beverage meeting the following conditions: a mass ratio RebM/RebA is 0.52 to 1.58; and the total content of RebA and RebM corresponds to sweetness of 5 to 10 in terms of sucrose Brix. a mass ratio RebM/RebA is 0.52 to 1.58; and the total content of RebA and RebM corresponds to sweetness of 5 to 10 in terms of sucrose Brix.
An impact mitigating membrane conformable to the surface of an object, comprising: a laminar core, comprising: a first lamina; a second lamina coupled to the first lamina and configured to shift relative to the first lamina; and a lubricating layer disposed between the first lamina and the second lamina configured to reduce friction between the first lamina and the second lamina; characterized by a first encapsulating layer positioned adjacent the first lamina; a second encapsulating layer positioned adjacent the second lamina; and an anchoring attachment associated with the laminar core and coupled to at least one of the first encapsulating layer and the second encapsulating layer, the anchoring attachment configured to constrain relative lateral motion between the laminar core and at least one of the first and second encapsulating layers, wherein the first encapsulating layer and the second encapsulating layer together surround the laminar core, and wherein the shift of the first lamina relative to the second lamina dissipates kinetic energy resulting from an impact force to the impact mitigating membrane, thereby reducing acceleration transferred to the object. a first lamina; a second lamina coupled to the first lamina and configured to shift relative to the first lamina; and a lubricating layer disposed between the first lamina and the second lamina configured to reduce friction between the first lamina and the second lamina; characterized by a first encapsulating layer positioned adjacent the first lamina; a second encapsulating layer positioned adjacent the second lamina; and an anchoring attachment associated with the laminar core and coupled to at least one of the first encapsulating layer and the second encapsulating layer, the anchoring attachment configured to constrain relative lateral motion between the laminar core and at least one of the first and second encapsulating layers, wherein the first encapsulating layer and the second encapsulating layer together surround the laminar core, and wherein the shift of the first lamina relative to the second lamina dissipates kinetic energy resulting from an impact force to the impact mitigating membrane, thereby reducing acceleration transferred to the object.
An apparatus, comprising: a processor; a plurality of network interfaces, each of the network interfaces configured as one of either a network-to-network interface, NNI, or a user-to-network interface, UNI, wherein each NNI is configured to communicate with network devices (A, B, C, D) in a first computer network and each UNI is configured to provide access to the first computer network for user devices; and a memory configured to store a process, the process when executed by the processor operable to: determine at least one NNI for forwarding upstream traffic to an aggregation device of the first network that connects the first network to a second network, wherein any NNI that is not used for forwarding upstream traffic is an NNI alternate, NNI-ALT; deny traffic forwarding between UNIs and NNI-ALTs; deny traffic forwarding between UNIs and UNIs; deny traffic forwarding between NNI-ALTs and NNI-ALTs; permit traffic forwarding between NNIs and NNI-ALTs; and permit traffic forwarding between NNIs and UNIs. a processor; a plurality of network interfaces, each of the network interfaces configured as one of either a network-to-network interface, NNI, or a user-to-network interface, UNI, wherein each NNI is configured to communicate with network devices (A, B, C, D) in a first computer network and each UNI is configured to provide access to the first computer network for user devices; and a memory configured to store a process, the process when executed by the processor operable to: determine at least one NNI for forwarding upstream traffic to an aggregation device of the first network that connects the first network to a second network, wherein any NNI that is not used for forwarding upstream traffic is an NNI alternate, NNI-ALT; deny traffic forwarding between UNIs and NNI-ALTs; deny traffic forwarding between UNIs and UNIs; deny traffic forwarding between NNI-ALTs and NNI-ALTs; permit traffic forwarding between NNIs and NNI-ALTs; and permit traffic forwarding between NNIs and UNIs. determine at least one NNI for forwarding upstream traffic to an aggregation device of the first network that connects the first network to a second network, wherein any NNI that is not used for forwarding upstream traffic is an NNI alternate, NNI-ALT; deny traffic forwarding between UNIs and NNI-ALTs; deny traffic forwarding between UNIs and UNIs; deny traffic forwarding between NNI-ALTs and NNI-ALTs; permit traffic forwarding between NNIs and NNI-ALTs; and permit traffic forwarding between NNIs and UNIs.
A method for isomerizing a bis(aminomethyl)cyclohexane, comprising isomerizing a bis(aminomethyl)cyclohexane while introducing an inert gas in a reaction solution containing a bis(aminomethyl)cyclohexane, at least one selected from the group consisting of an alkali metal, an alkali metal-containing compound, an alkaline earth metal and an alkaline earth metal-containing compound, and a benzylamine compound.
Winding device for winding a material web (101, 201) that travels in a direction of travel (102, 202, 304), with at least one blade (105, 205) for cutting the material web (101, 201) in the direction of travel (102, 202, 304) into multiple partial material webs (106-109, 206-209, 305-308), with multiple folding elements for folding the edges of the partial material webs (106-109, 206-209, 305-308), wherein one folding element is provided for each edge of the partial material webs, with a first oscillating device with which the at least one blade (105, 205) can be moved transversely to the direction of travel (102, 202, 304), characterised in that the winding device is further provided with a second oscillating device with which the folding elements for the left-hand edges of the partial material webs (106-109, 206-209, 305-308), as viewed in the direction of travel (102, 202, 304), can be moved transversely to the direction of travel (102, 202, 304), with a third oscillating device with which the folding elements (313- 316) for the right-hand edges of the partial material webs (106-109, 206-209, 305-308), as viewed in the direction of travel (102, 202, 304), can be moved transversely to the direction of travel (102, 202, 304), with a controller for controlling the first oscillating device, the second oscillating device and the third oscillating device, in such a way that the folded edges of the partial material webs (106-109, 206-209, 305-308) can be wound at an offset. with at least one blade (105, 205) for cutting the material web (101, 201) in the direction of travel (102, 202, 304) into multiple partial material webs (106-109, 206-209, 305-308), with multiple folding elements for folding the edges of the partial material webs (106-109, 206-209, 305-308), wherein one folding element is provided for each edge of the partial material webs, with a first oscillating device with which the at least one blade (105, 205) can be moved transversely to the direction of travel (102, 202, 304), characterised in that the winding device is further provided with a second oscillating device with which the folding elements for the left-hand edges of the partial material webs (106-109, 206-209, 305-308), as viewed in the direction of travel (102, 202, 304), can be moved transversely to the direction of travel (102, 202, 304), with a third oscillating device with which the folding elements (313- 316) for the right-hand edges of the partial material webs (106-109, 206-209, 305-308), as viewed in the direction of travel (102, 202, 304), can be moved transversely to the direction of travel (102, 202, 304), with a controller for controlling the first oscillating device, the second oscillating device and the third oscillating device, in such a way that the folded edges of the partial material webs (106-109, 206-209, 305-308) can be wound at an offset.
A receiver circuit for receiving an incoming bit stream obtained from an electronic communication bus-system and for processing said incoming bit stream, the receiver circuit comprising: - a bit stream processing unit for bit stream synchronization and bit sampling of said incoming bit stream to provide a sampled output signal, - a frame decoding unit for decoding a data frame encoded in said sampled output signal, - a clock signal generator for generating a first clock signal and for supplying said first clock signal to said bit stream processing unit such that said bit stream processing unit operates at the frequency of the first clock signal, wherein said bit stream processing unit is adapted for synchronizing the first clock signal to an external protocol timing of said incoming bit stream, characterized in that said receiver circuit further comprises: - a clock signal downsampler for generating a second clock signal having a lower frequency than the first clock signal, said second clock signal being generated based on a co-occurrence of a clock pulse in the first clock signal and the emission of a bit in the sampled output signal provided by the bit stream processing unit, and for providing said second clock signal to said frame decoding unit, such that said frame decoding unit operates at the frequency of said second clock signal. - a bit stream processing unit for bit stream synchronization and bit sampling of said incoming bit stream to provide a sampled output signal, - a frame decoding unit for decoding a data frame encoded in said sampled output signal, - a clock signal generator for generating a first clock signal and for supplying said first clock signal to said bit stream processing unit such that said bit stream processing unit operates at the frequency of the first clock signal, - a clock signal downsampler for generating a second clock signal having a lower frequency than the first clock signal, said second clock signal being generated based on a co-occurrence of a clock pulse in the first clock signal and the emission of a bit in the sampled output signal provided by the bit stream processing unit, and for providing said second clock signal to said frame decoding unit, such that said frame decoding unit operates at the frequency of said second clock signal.
A method of identifying a patient suffering from asthma as likely to respond to a therapy comprising lebrikizumab, the method comprising: (a) measuring the mRNA level of marker CSF1 in a biological sample from the patient; (b) comparing the mRNA level measured in (a) to a reference level; and (c) identifying the patient as more likely to respond to the therapy comprising lebrikizumab when the mRNA level measured in (a) is above the reference level. (a) measuring the mRNA level of marker CSF1 in a biological sample from the patient; (b) comparing the mRNA level measured in (a) to a reference level; and (c) identifying the patient as more likely to respond to the therapy comprising lebrikizumab when the mRNA level measured in (a) is above the reference level.
A method of molding a single-phase polymer and gas solution, the method comprising: mixing a polymer composition above a glass transition temperature of the polymer composition with a gas above atmospheric pressure to form the single-phase solution; pressurizing a first mold cavity of a mold above atmospheric pressure to a mold pressure, wherein the mold pressure is at least a pressure to maintain the single-phase solution as a homogeneous solution; while maintaining the first mold cavity at least at the mold pressure, injecting the single-phase solution into the first mold cavity; and depressurizing the first mold cavity below the molding pressure, characterized in that the method comprises: cooling the single-phase solution below the glass transition temperature to form a single-phase, solid article in the first mold cavity.
A continuous fastener element formed by molding thermoplastic synthetic resinous monofilament in a coil shape or a zigzag shape, the continuous fastener element including: a coupling head; upper and lower leg portions (12, 13) which extend from the coupling head in the width direction; and a connecting portion which connects the leg portions (12, 13) adjacent to each other in the longitudinal direction, wherein surfaces of the coupling head, the leg portions (12, 13) and the connecting portion are each formed as a rough surface with a plurality of recesses, the continuous fastener element being characterized in that entire outer peripheral surfaces of the coupling head, the leg portions (12, 13) and the connecting portion are rough surfaces, the outer peripheral surfaces of the leg portions (12, 13) are each formed to have the average roughness Ra equal to or more than 0.1 μm and equal to or less than 100μm, and a head surface of the coupling head is formed to have an average roughness Ra which is 90% or less of the average roughnesses Ra of the outer peripheral surfaces of the leg portions (12, 13). a coupling head; upper and lower leg portions (12, 13) which extend from the coupling head in the width direction; and a connecting portion which connects the leg portions (12, 13) adjacent to each other in the longitudinal direction, wherein surfaces of the coupling head, the leg portions (12, 13) and the connecting portion are each formed as a rough surface with a plurality of recesses, the continuous fastener element being characterized in that entire outer peripheral surfaces of the coupling head, the leg portions (12, 13) and the connecting portion are rough surfaces, the outer peripheral surfaces of the leg portions (12, 13) are each formed to have the average roughness Ra equal to or more than 0.1 μm and equal to or less than 100μm, and a head surface of the coupling head is formed to have an average roughness Ra which is 90% or less of the average roughnesses Ra of the outer peripheral surfaces of the leg portions (12, 13).