mhurhangee/ep-ind-claims huggingface dataset:
A method of a user equipment of performing transmission/reception through a sidelink with another user equipment, the method comprising: configuring a sidelink bandwidth part; configuring a sidelink numerology for the transmission/reception through the sidelink; and performing the transmission/reception through the sidelink with another user equipment commonly using the configured sidelink bandwidth part wherein the sidelink numerology is configured through configuration information of the sidelink bandwidth part. configuring a sidelink bandwidth part; configuring a sidelink numerology for the transmission/reception through the sidelink; and performing the transmission/reception through the sidelink with another user equipment commonly using the configured sidelink bandwidth part wherein the sidelink numerology is configured through configuration information of the sidelink bandwidth part.
Adhesive compound consisting essentially of an organic phase and inorganic phase, the organic phase comprising an amorphous aliphatic propene based (co)polymer with 30wt% or more polymerized propene units and having a Ring & Ball softening point of between 75 and 180 °C, and a second aliphatic material having a Tg of -5 °C or lower and a kinematic viscosity of 4500 mm 2 /s at 100 °C or less, wherein said organic components are such that the amount of polymer relative to the amount of second aliphatic component is 20 wt% or more and 90 wt% or less; the inorganic phase comprising a filler, the inorganic phase being present in amount of at least 30 wt% in the total composition, the amount of filler in the inorganic phase being 80 wt% or more.
An apparatus configured to: obtain a set of first linear prediction, LP, filter coefficients that represents a spectral envelope of an audio signal in a first channel derived from a multi-channel input audio signal; obtain a set of second LP filter coefficients that represents a spectral envelope of an audio signal in a second channel derived from the multi-channel input audio signal; quantize the set of first LP filter coefficients using a predefined first quantizer; and quantize the set of second LP filter coefficients on basis of the quantized set of first LP filter coefficients, the quantization of the set of second LP filter coefficients comprising: deriving, on basis of the quantized set of first LP filter coefficients by using a predefined predictor, a set of predicted LP filter coefficients to estimate the spectral envelope of the audio signal in said second channel, computing prediction error as a difference between respective LP coefficients of the set of second LP filter coefficients and the set of predicted LP filter coefficients, and quantizing the prediction error using a predefined second quantizer. obtain a set of first linear prediction, LP, filter coefficients that represents a spectral envelope of an audio signal in a first channel derived from a multi-channel input audio signal; obtain a set of second LP filter coefficients that represents a spectral envelope of an audio signal in a second channel derived from the multi-channel input audio signal; quantize the set of first LP filter coefficients using a predefined first quantizer; and quantize the set of second LP filter coefficients on basis of the quantized set of first LP filter coefficients, the quantization of the set of second LP filter coefficients comprising: deriving, on basis of the quantized set of first LP filter coefficients by using a predefined predictor, a set of predicted LP filter coefficients to estimate the spectral envelope of the audio signal in said second channel, computing prediction error as a difference between respective LP coefficients of the set of second LP filter coefficients and the set of predicted LP filter coefficients, and quantizing the prediction error using a predefined second quantizer. deriving, on basis of the quantized set of first LP filter coefficients by using a predefined predictor, a set of predicted LP filter coefficients to estimate the spectral envelope of the audio signal in said second channel, computing prediction error as a difference between respective LP coefficients of the set of second LP filter coefficients and the set of predicted LP filter coefficients, and quantizing the prediction error using a predefined second quantizer.
Substrate locally pre-structured for the production of photonic components (Cp1-Cp4), comprising: - a solid part made of silicon; - a first localised region of the substrate, comprising: ∘ a layer, called heat dissipation layer, produced in a localised manner on the surface of the solid part and made of a material of which the refractive index is less than that of silicon; ∘ a wave guide on the heat dissipation layer; - a second localised region of the substrate, separate from the first region, comprising: ∘ an oxide layer produced in a localised manner on the surface of the solid part, the oxide having a heat conductivity less than that of the material of the heat dissipation layer; ∘ a wave guide on the oxide layer. - a solid part made of silicon; - a first localised region of the substrate, comprising: ∘ a layer, called heat dissipation layer, produced in a localised manner on the surface of the solid part and made of a material of which the refractive index is less than that of silicon; ∘ a wave guide on the heat dissipation layer; ∘ a layer, called heat dissipation layer, produced in a localised manner on the surface of the solid part and made of a material of which the refractive index is less than that of silicon; ∘ a wave guide on the heat dissipation layer; - a second localised region of the substrate, separate from the first region, comprising: ∘ an oxide layer produced in a localised manner on the surface of the solid part, the oxide having a heat conductivity less than that of the material of the heat dissipation layer; ∘ a wave guide on the oxide layer. ∘ an oxide layer produced in a localised manner on the surface of the solid part, the oxide having a heat conductivity less than that of the material of the heat dissipation layer; ∘ a wave guide on the oxide layer.
A method for a wireless device, the method being characterized in that it comprises: - determining whether a number of bursts to be received in the timeslots assigned to the wireless device in a given downlink time division multiple access frame exceeds a threshold number of bursts for which single antenna interference cancellation can be performed, the time division multiple access frame comprising a plurality of timeslots; and - when the number of bursts is determined to exceed the threshold number (N SAIC) of bursts for which single antenna interference cancellation can be performed, determining for which bursts single antenna interference cancellation is to be enabled and performing single antenna interference cancellation for a subset of the bursts received in the time division multiple access frame; wherein performing single antenna interference cancellation for the subset of the bursts comprises disabling single antenna interference cancellation on any burst other than the selected subset of bursts in the time division multiple access frame. - determining whether a number of bursts to be received in the timeslots assigned to the wireless device in a given downlink time division multiple access frame exceeds a threshold number of bursts for which single antenna interference cancellation can be performed, the time division multiple access frame comprising a plurality of timeslots; and - when the number of bursts is determined to exceed the threshold number (N SAIC) of bursts for which single antenna interference cancellation can be performed, determining for which bursts single antenna interference cancellation is to be enabled and performing single antenna interference cancellation for a subset of the bursts received in the time division multiple access frame;
Valve for controlling a fluid flow, comprising at least: a valve housing with at least one inlet side and one outlet side, and a valve insert for controlling the fluid flow between the inlet side and the outlet side, which is arranged within the valve housing, wherein the valve insert comprises at least a first element in the form of a hollow body and a second element and wherein the second element is arranged within the first hollow body-shaped element, and wherein the valve insert is arranged within the valve housing in such a way that the first element is axially fixed in the valve housing and the second element is arranged in the valve housing so as to be secured against rotation, and wherein the first element has at least one opening (14.3) along the circumference of the first element for passing the fluid flow and is designed to be rotatable relative to the second element, and wherein the second element is designed to be axially movable relative to the first element, wherein the first element on a first section of its inner surface or the second element on a first section of its surface has flow-guiding structures (14.8), characterised in that the flow-guiding structures (14.8) are depressions and/or elevations incorporated on the inner surface of the first element or the surface of the second element.
An arrangement in an articulated joint of a work machine, comprising fastening means for joining at least two machine parts (7, 8) rotatably to each other, which fastening means comprise a conical sleeve shaft, at one end of which there is a conical end portion; a lubricant channel in the conical sleeve shaft; a conical sleeve to be slidably arranged in the conical end portion of the conical sleeve shaft; an intermediate plate to be mounted against the conical sleeve arranged on the conical sleeve shaft; at least one tightening member to be joined to the conical sleeve shaft to press the intermediate plate by a counter-surface thereof against the conical sleeve the conical sleeve hereby being pressed to slide along the conical end portion of the conical sleeve shaft, characterized in that the intermediate plate comprises members (14, 18) for receiving a channel means and for connecting the channel means to the lubricant channel, which members for receiving the channel means are formed on the intermediate plate's outer casing to provide a continuous passage to the conical sleeve shaft of the articulated joint, said outer casing connecting the counter-surface to a pressing surface on the side of the conical sleeve. a conical sleeve shaft, at one end of which there is a conical end portion; a lubricant channel in the conical sleeve shaft; a conical sleeve to be slidably arranged in the conical end portion of the conical sleeve shaft; an intermediate plate to be mounted against the conical sleeve arranged on the conical sleeve shaft; at least one tightening member to be joined to the conical sleeve shaft to press the intermediate plate by a counter-surface thereof against the conical sleeve the conical sleeve hereby being pressed to slide along the conical end portion of the conical sleeve shaft, characterized in that the intermediate plate comprises members (14, 18) for receiving a channel means and for connecting the channel means to the lubricant channel, which members for receiving the channel means are formed on the intermediate plate's outer casing to provide a continuous passage to the conical sleeve shaft of the articulated joint, said outer casing connecting the counter-surface to a pressing surface on the side of the conical sleeve.
A supporting frame structure for a utility vehicle, in particular heavy goods vehicle, preferably semitrailer tractor, having: - a first longitudinally running supporting construction and a second longitudinally running supporting construction, said supporting constructions being spaced apart from one another in a transverse direction of the supporting frame structure, - wheel suspension units for front wheels (Rv) for the utility vehicle, and - a tank unit for accommodating fluid, wherein - the supporting frame structure comprises a third, longitudinally running supporting construction, characterized in that - the third supporting construction runs between the front wheels for the utility vehicle and projects forwards beyond the wheel central points (Rmv) thereof, serves for supporting the tank unit and/or a motor unit for driving the utility vehicle and is connected to steering elements of the wheel suspension units. - a first longitudinally running supporting construction and a second longitudinally running supporting construction, said supporting constructions being spaced apart from one another in a transverse direction of the supporting frame structure, - wheel suspension units for front wheels (Rv) for the utility vehicle, and - a tank unit for accommodating fluid, wherein - the supporting frame structure comprises a third, longitudinally running supporting construction, characterized in that - the third supporting construction runs between the front wheels for the utility vehicle and projects forwards beyond the wheel central points (Rmv) thereof, serves for supporting the tank unit and/or a motor unit for driving the utility vehicle and is connected to steering elements of the wheel suspension units.
A color developing compound represented by the following Formula, wherein, in the Formula, R 1 is a group represented by the following formula, R 2 and R 3 each independently represent a hydrogen atom or an alkyl group, or R 2 and R 3 may be linked to each other to form a ring, Ar 1 and Ar 2 each independently represent a group forming a benzene ring or a naphthalene ring, Y 1 and Y 2 each independently represent an oxygen atom, a sulfur atom, -NR 0 -, or a dialkyl methylene group, R 4 and R 5 each independently represent an alkyl group or a group represented by one of the following Formulae to, R 6 to R 9 each independently represent a hydrogen atom or an alkyl group, R 0 represents a hydrogen atom, an alkyl group, or an aryl group, and Za represents a counter ion for neutralizing a charge; provided that the compound represented by the Formula has at least one of groups represented by the Formulae to as R 4 or R 5 or in R 1, Ar 1, or Ar 2, in the Formulae to, R 10 represents an alkylene group having 2 to 6 carbon atoms, W represents a single bond, n1 represents an integer of 1 to 45, R 11 represents an alkyl group having 1 to 12 carbon atoms or -C(=O)-R R 14 represents an alkyl group having 1 to 12 carbon atoms, R 12 and R 13 each independently represent a single bond or an alkylene group having 1 to 12 carbon atoms, and M represents a hydrogen atom, a Na atom, a K atom, or an onium group selected from an ammonium group, an iodonium group, a phosphonium group and a sulfonium group, in the Formula, R 15 and R 16 each independently represent a hydrogen atom, an alkyl group, or an aryl group, E is a pyridinium group represented by the following Formula, in the Formula, R 17 represents a halogen atom, an alkyl group, an aryl group, a hydroxy group, or an alkoxy group; in a case in which a plurality of R 17 's is present, the plurality of R 17 's may be identical to or different from each other or the plurality of R 17 's may be linked to each other to form a ring, n2 represents an integer of 0 to 4, R 18 represents an alkyl group, an aryl group, or a group represented by any of Formulae to, and Z b represents a counter ion for neutralizing a charge, and * represents a bonding site, provided that the color developing compound is not selected from the following compounds (X-1) to (X-16): X-1 X-2 X-3 X-4 X-5 X-6 X-7 X-8 X-9 X-10 X-11 X-12 X-13 X-14 X-15 X-16
A laser apparatus, comprising: a cavity configured to include an output mirror (103, 903) and a reflective mirror (104, 204, 304, 307, 404, 904); a laser medium (101, 902) disposed inside the cavity; an excitation lamp (102, 901) for exciting the laser medium; a wavelength selector (106, 906) configured to allow selection of at least two wavelengths for laser light pulses to be emitted from among a plurality of wavelengths; characterized by a controller configured to control emission timing of the excitation lamp, emission energy of the excitation lamp that is determined depending on at which of the at least two wavelengths of the plurality of wavelengths the pulses are to be emitted, and emission of the pulses, such that the laser apparatus repeatedly emits a pulse train formed of a plurality of pulses including pulses of the at least two wavelengths, and such that energies of the laser light pulses emitted at different wavelengths are substantially the same. a cavity configured to include an output mirror (103, 903) and a reflective mirror (104, 204, 304, 307, 404, 904); a laser medium (101, 902) disposed inside the cavity; an excitation lamp (102, 901) for exciting the laser medium; a wavelength selector (106, 906) configured to allow selection of at least two wavelengths for laser light pulses to be emitted from among a plurality of wavelengths; characterized by a controller configured to control emission timing of the excitation lamp, emission energy of the excitation lamp that is determined depending on at which of the at least two wavelengths of the plurality of wavelengths the pulses are to be emitted, and emission of the pulses, such that the laser apparatus repeatedly emits a pulse train formed of a plurality of pulses including pulses of the at least two wavelengths, and such that energies of the laser light pulses emitted at different wavelengths are substantially the same.
A smoking article, comprising: a tobacco rod comprising a column of filler and a wrapper surrounding the column of filler, the tobacco rod having a circumferential direction, a longitudinal direction, a lit end, and a mouth end; the wrapper further including a base web having generally parallel first and second side edges extending in the longitudinal direction and two ends extending in the circumferential direction wherein the base web is disposed around the column of filler such that the first and second side edges of the base web overlap and form a seam, the base web having at least one circumferentially extending banded region of fibrous crystalline cellulosic material thereon, the fibrous crystalline cellulosic material having been gravure printed on the base web as a fibrous crystalline cellulosic slurry comprising water, crystalline cellulose, and chalk wherein the fibrous crystalline cellulosic slurry has a solids content of about 10% or less by weight of the fibrous crystalline cellulosic slurry and the fibrous crystalline cellulosic material consists essentially of about 95% microcrystalline cellulose and about 5% chalk. a tobacco rod comprising a column of filler and a wrapper surrounding the column of filler, the tobacco rod having a circumferential direction, a longitudinal direction, a lit end, and a mouth end; the wrapper further including a base web having generally parallel first and second side edges extending in the longitudinal direction and two ends extending in the circumferential direction wherein the base web is disposed around the column of filler such that the first and second side edges of the base web overlap and form a seam, the base web having at least one circumferentially extending banded region of fibrous crystalline cellulosic material thereon, the fibrous crystalline cellulosic material having been gravure printed on the base web as a fibrous crystalline cellulosic slurry comprising water, crystalline cellulose, and chalk wherein the fibrous crystalline cellulosic slurry has a solids content of about 10% or less by weight of the fibrous crystalline cellulosic slurry and the fibrous crystalline cellulosic material consists essentially of about 95% microcrystalline cellulose and about 5% chalk.
A system for electronic component processing, comprising: a frame configured to hold a printed circuit board; a tool head connected to the frame, the tool head being configured to position an electronic component on top of the printed circuit board; a heater disposed in the tool head, the heater being configured to direct heat towards the electronic component; and a dual-stage pre-heater connected to the frame, the dual-stage pre-heater being configured to direct heat (H2,H3) towards the printed circuit board, wherein the pre-heater comprises: a first stage configured to distribute heat over a wide area; and a second stage configured to distribute heat over a focused area. a frame configured to hold a printed circuit board; a tool head connected to the frame, the tool head being configured to position an electronic component on top of the printed circuit board; a heater disposed in the tool head, the heater being configured to direct heat towards the electronic component; and a dual-stage pre-heater connected to the frame, the dual-stage pre-heater being configured to direct heat (H2,H3) towards the printed circuit board, wherein the pre-heater comprises: a first stage configured to distribute heat over a wide area; and a second stage configured to distribute heat over a focused area. a first stage configured to distribute heat over a wide area; and a second stage configured to distribute heat over a focused area.
A method implemented by a network node in a wireless communication network of transmitting system information to a plurality of wireless terminals, the method characterized by: transmitting a first group of system information blocks, SIBs, via a first physical channel; and transmitting a second group of additional SIBs via a different, second physical channel, wherein the wireless communication network is a Wideband Code Division Multiple Access, WCDMA, network, and wherein the first physical channel is a Primary Common Control Physical Channel, P-CCPCH; and wherein the second physical channel is a Secondary Common Control Physical Channel, S-CCPCH. transmitting a first group of system information blocks, SIBs, via a first physical channel; and transmitting a second group of additional SIBs via a different, second physical channel, wherein the wireless communication network is a Wideband Code Division Multiple Access, WCDMA, network, and wherein the first physical channel is a Primary Common Control Physical Channel, P-CCPCH; and wherein the second physical channel is a Secondary Common Control Physical Channel, S-CCPCH.
An isolated Hibiscus cannabinus (Kenaf) feruloyl-CoA:monolignol transferase nucleic acid with at least 70% sequence identity to nucleic acid sequence SEQ ID NO:8.