mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a polyethylene characterized by simultaneously having: a) a very high content of short chain branching of at least 20 short chain branches per 1000 methylene groups; b) an activation energy of less than 50 kJ/mole; and c) a long chain branching index g rheo of less than 1; that comprises the steps of: a) supporting a late transition metal catalyst component onto an activating support that has an aluminium content ranging between 10 and 20 wt%, based on the total weight of the activating support, wherein the catalyst component is BIAcNp(Mes)NiBr2 represented by formula b) injecting said activated catalyst system in the polymerization reactor with ethylene monomer, in the absence of added comonomer; c) injecting a scavenger selected from trialkylaluminium in the polymerization reactor simultaneously with or before or after step b); d) maintaining at a polymerization temperature of at least 70°C; e) retrieving a polyethylene product. a) a very high content of short chain branching of at least 20 short chain branches per 1000 methylene groups; b) an activation energy of less than 50 kJ/mole; and c) a long chain branching index g rheo of less than 1; a) supporting a late transition metal catalyst component onto an activating support that has an aluminium content ranging between 10 and 20 wt%, based on the total weight of the activating support, wherein the catalyst component is BIAcNp(Mes)NiBr2 represented by formula b) injecting said activated catalyst system in the polymerization reactor with ethylene monomer, in the absence of added comonomer; c) injecting a scavenger selected from trialkylaluminium in the polymerization reactor simultaneously with or before or after step b); d) maintaining at a polymerization temperature of at least 70°C; e) retrieving a polyethylene product.
A method (900, 1200) for generating audio object metadata of an audio object corresponding to a sound source, the method comprising: receiving (905, 1205) input audio data comprising sound from the sound source (715a; 715b; 715c), said input audio data including first microphone audio signals and second microphone audio signals output by a pair of coincident, vertically-stacked directional microphones (505e, 505f), forming an XY stereo microphone system; determining (910, 1245), based at least in part on an intensity difference between the first microphone audio signals and the second microphone audio signals, an azimuthal angle corresponding to a sound source location; determining (915, 1250), based at least in part on a temporal difference between the first microphone audio signals and the second microphone audio signals and at least in part on a vertical distance between a first microphone and a second microphone of the pair of coincident, vertically-stacked directional microphones, an elevation angle corresponding to the sound source location; and generating (920, 1275) output audio data including at least one audio object comprising the audio object metadata, the audio object metadata including at least audio object location data corresponding to the sound source location, wherein the audio object location data is based, at least in part, on the azimuthal angle and the elevation angle. receiving (905, 1205) input audio data comprising sound from the sound source (715a; 715b; 715c), said input audio data including first microphone audio signals and second microphone audio signals output by a pair of coincident, vertically-stacked directional microphones (505e, 505f), forming an XY stereo microphone system; determining (910, 1245), based at least in part on an intensity difference between the first microphone audio signals and the second microphone audio signals, an azimuthal angle corresponding to a sound source location; determining (915, 1250), based at least in part on a temporal difference between the first microphone audio signals and the second microphone audio signals and at least in part on a vertical distance between a first microphone and a second microphone of the pair of coincident, vertically-stacked directional microphones, an elevation angle corresponding to the sound source location; and generating (920, 1275) output audio data including at least one audio object comprising the audio object metadata, the audio object metadata including at least audio object location data corresponding to the sound source location, wherein the audio object location data is based, at least in part, on the azimuthal angle and the elevation angle.
A method for forming ceramic matrix composite component, the method comprising: forming a fiber preform; positioning the fiber preform into a chemical vapor infiltration reaction chamber; and densifying the fiber preform, wherein densification comprises: infiltrating the fiber preform with a first gas comprising precursors of silicon carbide; and characterized by infiltrating the fiber preform with a second gas comprising a first rare earth element; wherein the steps of infiltrating the fiber preform with the first gas and infiltrating the fiber preform with the second gas are conducted simultaneously to produce a first rare earth-doped silicon carbide matrix in a first region (86; 92, 96) of the component. forming a fiber preform; positioning the fiber preform into a chemical vapor infiltration reaction chamber; and densifying the fiber preform, wherein densification comprises: infiltrating the fiber preform with a first gas comprising precursors of silicon carbide; and characterized by infiltrating the fiber preform with a second gas comprising a first rare earth element; wherein the steps of infiltrating the fiber preform with the first gas and infiltrating the fiber preform with the second gas are conducted simultaneously to produce a first rare earth-doped silicon carbide matrix in a first region (86; 92, 96) of the component. infiltrating the fiber preform with a first gas comprising precursors of silicon carbide; and characterized by infiltrating the fiber preform with a second gas comprising a first rare earth element; wherein the steps of infiltrating the fiber preform with the first gas and infiltrating the fiber preform with the second gas are conducted simultaneously to produce a first rare earth-doped silicon carbide matrix in a first region (86; 92, 96) of the component.
A mobile station communicating with a radio base station (eNB), the mobile station comprising: a filtering unit configured to perform filtering on a measurement result of a radio quality of a serving cell and a peripheral cell in the mobile station, by using a filter coefficient; and a notification unit configured to notify, to the radio base station (eNB), the measurement result, when it is determined that the filtered measurement result should be notified, wherein the filtering unit is configured to perform the filtering based on the following equations, after adjusting a filter coefficient "k" or "a", F n = 1 − a ⋅ F n − 1 + a ⋅ M n a = 1 / 2 k / 4 where "n" denotes an index relating to a measurement timing, "F n " denotes a measurement result after filtering, "k" or "a" denotes the filter coefficient for a measurement interval 200 ms, "F n-1 " denotes a measurement result after filtering at a measurement timing one before, and "M n " denotes a measurement result in the measurement unit; and the filtering unit is configured to perform the filtering based on the filter coefficient notified from the radio base station (eNB), in a non-discontinuous reception state, and to perform the filtering based on the adjusted filter coefficient, in a discontinuous reception state. a filtering unit configured to perform filtering on a measurement result of a radio quality of a serving cell and a peripheral cell in the mobile station, by using a filter coefficient; and a notification unit configured to notify, to the radio base station (eNB), the measurement result, when it is determined that the filtered measurement result should be notified, wherein the filtering unit is configured to perform the filtering based on the following equations, after adjusting a filter coefficient "k" or "a", F n = 1 − a ⋅ F n − 1 + a ⋅ M n a = 1 / 2 k / 4 where "n" denotes an index relating to a measurement timing, "F n " denotes a measurement result after filtering, "k" or "a" denotes the filter coefficient for a measurement interval 200 ms, "F n-1 " denotes a measurement result after filtering at a measurement timing one before, and "M n " denotes a measurement result in the measurement unit; and the filtering unit is configured to perform the filtering based on the filter coefficient notified from the radio base station (eNB), in a non-discontinuous reception state, and to perform the filtering based on the adjusted filter coefficient, in a discontinuous reception state.
A vehicle which leans towards a center of the turning, relative to a road surface, comprising: a vehicle body; a first front wheel positioned on a first side in a vehicle width direction; a second front wheel positioned on a second side opposite to the first side in the vehicle width direction; a first mechanism that connects the first front wheel and the second front wheel and vertically vibrates integrally with both of the first front wheel and the second front wheel; and a suspension that is positioned so as to overlap a center of the vehicle in the vehicle width direction, connects the first mechanism to the vehicle body, and reduces vibration transmitted from a road surface to the vehicle body via the first front wheel and the second front wheel, wherein the suspension includes a tubular body, a sliding body that is inserted into the tubular body and slidable relative to the tubular body, and a spring that extends or retracts by sliding the sliding body, characterized in that the suspension has a plurality of tubular suspensions (11, 12, 13), each of the tubular suspensions (11, 12, 13) includes a tubular body, a sliding body, and a spring that are disposed in pairs, and a position of an axis of the spring and a position of an axis of the tubular body is same, and a plurality of the tubular bodies are connected to each other and the plurality of the sliding bodies are connected to each other. a vehicle body; a first front wheel positioned on a first side in a vehicle width direction; a second front wheel positioned on a second side opposite to the first side in the vehicle width direction; a first mechanism that connects the first front wheel and the second front wheel and vertically vibrates integrally with both of the first front wheel and the second front wheel; and a suspension that is positioned so as to overlap a center of the vehicle in the vehicle width direction, connects the first mechanism to the vehicle body, and reduces vibration transmitted from a road surface to the vehicle body via the first front wheel and the second front wheel, wherein the suspension includes a tubular body, a sliding body that is inserted into the tubular body and slidable relative to the tubular body, and a spring that extends or retracts by sliding the sliding body, characterized in that the suspension has a plurality of tubular suspensions (11, 12, 13), each of the tubular suspensions (11, 12, 13) includes a tubular body, a sliding body, and a spring that are disposed in pairs, and a position of an axis of the spring and a position of an axis of the tubular body is same, and a plurality of the tubular bodies are connected to each other and the plurality of the sliding bodies are connected to each other.
A flame-retardant polycarbonate composition comprising the following components, relative to the total weight of the composition: A) 30-70 wt.% of at least one aromatic polycarbonate, B) 20-60 wt.% of at least one polysiloxane-polycarbonate copolymer, C) 0.5-5 wt.% of at least one cyclic phosphazene, D) 1-5 wt.% of at least one silicone-acrylate rubber based impact modifier, E) 0.3-3 wt % of kaolin, F) 0.1-1 wt.% of at least one anti-dripping agent, and G) 0.1- 1 wt.% of at least one UV absorber. A) 30-70 wt.% of at least one aromatic polycarbonate, B) 20-60 wt.% of at least one polysiloxane-polycarbonate copolymer, C) 0.5-5 wt.% of at least one cyclic phosphazene, D) 1-5 wt.% of at least one silicone-acrylate rubber based impact modifier, E) 0.3-3 wt % of kaolin, F) 0.1-1 wt.% of at least one anti-dripping agent, and G) 0.1- 1 wt.% of at least one UV absorber.
An apparatus comprising: means for determining a first data rate supported by a first user and a second data rate supported by a second user, based on channel state information, wherein the second data rate is a highest data rate and the first data rate is a lower data rate; means for encoding first input data for transmission to the first user in accordance with a first code rate to obtain first coded data; and means for encoding both second input data for transmission to the second user and the first coded data, in accordance with a second code rate to obtain second coded data, wherein the second code rate is selected to achieve the second data rate and the first code rate is selected such that the combination of the first and second code rates achieves the first data rate, so that the first input data is sent at the first data rate determined by the first and second code rates and the second input data is sent at the second data rate determined by the second code rate; means for transmitting the second coded data to the first and second users in a single multicast message. means for determining a first data rate supported by a first user and a second data rate supported by a second user, based on channel state information, wherein the second data rate is a highest data rate and the first data rate is a lower data rate; means for encoding first input data for transmission to the first user in accordance with a first code rate to obtain first coded data; and means for encoding both second input data for transmission to the second user and the first coded data, in accordance with a second code rate to obtain second coded data, wherein the second code rate is selected to achieve the second data rate and the first code rate is selected such that the combination of the first and second code rates achieves the first data rate, so that the first input data is sent at the first data rate determined by the first and second code rates and the second input data is sent at the second data rate determined by the second code rate; means for transmitting the second coded data to the first and second users in a single multicast message.
A track system, comprising: a plurality of rotatable track segments configured to guide travel of a vehicle, wherein each rotatable track segment of the plurality of rotatable track segments is configured to individually rotate between a first orientation along a first direction of vehicle travel and a second orientation along a second direction of vehicle travel, the system further comprising: a first set of tracks extending along the first direction of vehicle travel; and a second set of tracks extending along the second direction of vehicle travel; wherein each rotatable track segment of the plurality of rotatable track segments is configured to align with the first set of tracks in the first orientation and align with the second set of tracks in the second orientation to further define the first set of tracks and the second set of tracks, respectively, wherein the first direction of vehicle travel is in a horizontal direction relative to the vehicle, and wherein the second direction of vehicle travel is in a vertical direction having a component along a gravity vector relative to the vehicle. a first set of tracks extending along the first direction of vehicle travel; and a second set of tracks extending along the second direction of vehicle travel; wherein each rotatable track segment of the plurality of rotatable track segments is
An article of footwear, comprising an upper secured to an outsole in combination having three toe pockets, wherein a first toe pocket has a configuration to separately receive within a big toe of a wearer, and wherein a second toe pocket has a configuration to separately receive within a second toe of said wearer, and wherein a third toe pocket has a configuration to receive within the remaining third toe, fourth toe and fifth toe of said wearer; an insole secured to said outsole in combination having at least one aperture which fluidly communicates between inside of and outside of said article of footwear; and a mesh material disposed between said outsole and said insole, said mesh material having mesh openings sufficient in area to allow an amount of fluid to pass through said at least one aperture.
Glazing comprising: - a glass sheet between 0.5 mm and 2.6 mm thick, - a glass sheet between 0.5 mm and 1.6 mm thick, - an interlayer according to any one of Claims 1 to 6, the interlayer being between the glass sheets (1, 2), in which the total thickness of the glass sheets (1, 2) is strictly less than 3.7 mm, the interlayer being a viscoelastic plastic interlayer intended to be incorporated between two glass sheets to form a laminated glazing with vibro-acoustic damping properties, the interlayer comprising at least one layer made of viscoelastic plastic with vibro-acoustic damping properties two outer layers (4, 5) made of standard PVB, the layer being between the two outer layers (4, 5), the layer is based on polyvinyl butyral and plasticizer, and the interlayer comprising particles with an infrared radiation-screening function, the interlayer being such that the resonant frequency f 2 of the second resonance mode of a laminated glazing bar with a surface area of 25 mm × 300 mm composed of two glass sheets each 2.1 mm thick, between which is incorporated the interlayer, determined by measuring the mechanical impedance at 20°C according to standard ISO 16940, is between 760 Hz and 1000 Hz and the loss factor η 2 of the second resonance mode of the same bar, determined by MIM under the same conditions, is greater than or equal to 0.25. - a glass sheet between 0.5 mm and 2.6 mm thick, - a glass sheet between 0.5 mm and 1.6 mm thick, - an interlayer according to any one of Claims 1 to 6, the interlayer being between the glass sheets (1, 2), in which the total thickness of the glass sheets (1, 2) is strictly less than 3.7 mm, the interlayer being a viscoelastic plastic interlayer intended to be incorporated between two glass sheets to form a laminated glazing with vibro-acoustic damping properties, the interlayer comprising at least one layer made of viscoelastic plastic with vibro-acoustic damping properties two outer layers (4, 5) made of standard PVB, the layer being between the two outer layers (4, 5), the layer is based on polyvinyl butyral and plasticizer, and the interlayer comprising particles with an infrared radiation-screening function, the interlayer being such that the resonant frequency f 2 of the second resonance mode of a laminated glazing bar with a surface area of 25 mm × 300 mm composed of two glass sheets each 2.1 mm thick, between which is incorporated the interlayer, determined by measuring the mechanical impedance at 20°C according to standard ISO 16940, is between 760 Hz and 1000 Hz and the loss factor η 2 of the second resonance mode of the same bar, determined by MIM under the same conditions, is greater than or equal to 0.25.
A dual slip cut unit for severing an extension panel web into discrete pieces, said dual slip cut unit comprising: a rotating anvil; a first rotating knife engageable with the rotating anvil to cut a plurality of severed pieces from an extension panel web; and a second rotating knife engageable with the rotating anvil to cut each severed piece into first and second subdivided pieces, characterized in that: (a) the dual slip cut unit further comprises a first transfer roll operable to rotate faster than the rotating anvil and configured to receive the first and second subdivided pieces (2102") from the rotating anvil, (b) a rotating speed of the rotating anvil creates a first gap between adjacent severed pieces, and (c) a rotating speed of the transfer drum creates a second gap between adjacent first and second subdivided pieces and increases the first gap. a rotating anvil; a first rotating knife engageable with the rotating anvil to cut a plurality of severed pieces from an extension panel web; and a second rotating knife engageable with the rotating anvil to cut each severed piece into first and second subdivided pieces, characterized in that: (a) the dual slip cut unit further comprises a first transfer roll operable to rotate faster than the rotating anvil and configured to receive the first and second subdivided pieces (2102") from the rotating anvil, (b) a rotating speed of the rotating anvil creates a first gap between adjacent severed pieces, and (c) a rotating speed of the transfer drum creates a second gap between adjacent first and second subdivided pieces and increases the first gap. (a) the dual slip cut unit further comprises a first transfer roll operable to rotate faster than the rotating anvil and configured to receive the first and second subdivided pieces (2102") from the rotating anvil, (b) a rotating speed of the rotating anvil creates a first gap between adjacent severed pieces, and (c) a rotating speed of the transfer drum creates a second gap between adjacent first and second subdivided pieces and increases the first gap.
A method comprising: initializing a first apparatus for transmission of data to or reception of data from a second apparatus,wherein the first apparatus includes a reference oscillator circuit; enabling an interface for the first apparatus initially in a first mode for a parallel interface with the second apparatus, the parallel interface including a first plurality of pins, wherein the parallel interface has a first voltage swing; transmitting parallel data to the second apparatus or receiving parallel data from the second apparatus in the first mode via the first plurality of pins; enabling the reference oscillator circuit and enabling the interface of the first apparatus in a second mode for a serial interface with the second apparatus, the serial interface including a second plurality of pins, the first plurality of pins and the second plurality of pins both including an overlapping set of pins, characterised in that the serial interface has a second voltage swing, the second voltage swing being smaller than the first voltage swing; and transmitting serial data to the second apparatus or receiving serial data from the second apparatus in the second mode via the second plurality of pins. initializing a first apparatus for transmission of data to or reception of data from a second apparatus,wherein the first apparatus includes a reference oscillator circuit; enabling an interface for the first apparatus initially in a first mode for a parallel interface with the second apparatus, the parallel interface including a first plurality of pins, wherein the parallel interface has a first voltage swing; transmitting parallel data to the second apparatus or receiving parallel data from the second apparatus in the first mode via the first plurality of pins; enabling the reference oscillator circuit and enabling the interface of the first apparatus in a second mode for a serial interface with the second apparatus, the serial interface including a second plurality of pins, the first plurality of pins and the second plurality of pins both including an overlapping set of pins, characterised in that the serial interface has a second voltage swing, the second voltage swing being smaller than the first voltage swing; and transmitting serial data to the second apparatus or receiving serial data from the second apparatus in the second mode via the second plurality of pins.