mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: transmitting uplink, UL, transmissions by a user equipment, UE, sequentially over multiple serving cells (221, 222) to different base stations (101, 102) using time domain multiplexing, TDM, wherein the user equipment is configured with the multiple serving cells (221, 222) in a wireless network; selecting a serving cell (221, 222) for an UL transmission subframe based on a TDM selection rule; and performing an UL transmission to the selected serving cell (221, 222) for the subframe; characterized in that the TDM selection rule is dynamic involving: identifying one or more serving cells (221, 222) with a highest UL transmission priority for the UL transmission subframe; selecting a serving cell with the highest UL transmission priority if there is only one identified serving cell; and selecting a serving cell with a highest serving cell priority among the identified serving cells if there are multiple serving cells with the highest UL transmission priority. transmitting uplink, UL, transmissions by a user equipment, UE, sequentially over multiple serving cells (221, 222) to different base stations (101, 102) using time domain multiplexing, TDM, wherein the user equipment is configured with the multiple serving cells (221, 222) in a wireless network; selecting a serving cell (221, 222) for an UL transmission subframe based on a TDM selection rule; and performing an UL transmission to the selected serving cell (221, 222) for the subframe; characterized in that the TDM selection rule is dynamic involving: identifying one or more serving cells (221, 222) with a highest UL transmission priority for the UL transmission subframe; selecting a serving cell with the highest UL transmission priority if there is only one identified serving cell; and selecting a serving cell with a highest serving cell priority among the identified serving cells if there are multiple serving cells with the highest UL transmission priority. identifying one or more serving cells (221, 222) with a highest UL transmission priority for the UL transmission subframe; selecting a serving cell with the highest UL transmission priority if there is only one identified serving cell; and selecting a serving cell with a highest serving cell priority among the identified serving cells if there are multiple serving cells with the highest UL transmission priority.
A reactor for chemical processes involving catalytic reactions of gasses at high temperatures, comprising a reactor shell protected by an insulation layer and having an inlet, an outlet and a gas impermeable basket suitable for operation at elevated temperatures and containing a fixed bed of catalyst for catalytic reaction of a feed gas to reacted gas, the gas impermeable basket being surrounded by insulation layer having a porous inner surface,and insulation layer being surrounded by reactor shell suitable for operation at elevated pressures, characterised in that the gas impermeable basket comprises a grid for transfer of reacted gas from fixed bed of catalyst to the outside of gas impermeable basket, an inlet channel and a wall surrounding the fixed bed of catalyst, and where the inlet channel is connected to the reactor shell at inlet forming a gas leak tight transfer for the feed gas, wherein an electric heater is installed on the outer surface of the wall around the inlet layer of the fixed bed of catalyst, and wherein inner surface of the gas impermeable basket at position of the electric heater is coated with a catalytic material active in partial oxidation.
An information processing device comprising a main processor core having a first memory and incorporating an operating system, and a sub processor core having a second memory and not incorporating an operating system, wherein: the main processor core is configured to control the sub processor core; the main processor core is configured to develop a plurality of processes on the sub processor core and to cause the sub processor core to execute the processes; the main processor core is configured to create a shared memory area on the first memory and to create a shared memory area on the second memory, in response to a request for allocation of shared mapping of a memory mapped file from the sub processor core; and the main processor core includes synchronization means configured to: synchronize the shared memory area created on the first memory with the shared memory area created on the second memory by, when the sub processor core is in a predetermined stopped state, copy data in the shared memory area created on the first memory to the shared memory area created on the second memory, or copy data in the shared memory area created on the second memory to the shared memory area created on the first memory, depending on a cause of the stopped state. the main processor core is configured to control the sub processor core; the main processor core is configured to develop a plurality of processes on the sub processor core and to cause the sub processor core to execute the processes; the main processor core is configured to create a shared memory area on the first memory and to create a shared memory area on the second memory, in response to a request for allocation of shared mapping of a memory mapped file from the sub processor core; and the main processor core includes synchronization means configured to: synchronize the shared memory area created on the first memory with the shared memory area created on the second memory by, when the sub processor core is in a predetermined stopped state, copy data in the shared memory area created on the first memory to the shared memory area created on the second memory, or copy data in the shared memory area created on the second memory to the shared memory area created on the first memory, depending on a cause of the stopped state.
An additive manufacturing system comprising: a surface holding a particulate; a focused energy source configured to generate at least one beam that moves along said surface to heat the particulate to a melting point creating a melt path; and a camera configured to generate an image (200, 300, 302) of said surface as the at least one beam moves along said surface, said camera having a field of view, said camera positioned in relation to said surface such that the field of view encompasses a portion of the melt path defining a plurality of rasters, wherein said camera is configured to generate a time exposure image of at least the portion of the melt path defining the plurality of rasters; the additive manufacturing system further comprising a shutter positionable between an open position that allows light to travel through an aperture and a closed position that inhibits light traveling through the aperture, wherein the shutter controls the exposure time of the camera; wherein the shutter is configured to be maintained in an open position for a period of time longer than 1 minute, or the shutter is moveable between the open position and the closed position in a sequence of exposures that are configured to generate the time exposure image (200, 300, 302), wherein the total time the shutter is in the open position during the sequence of exposures is longer than 1 minute. a surface holding a particulate; a focused energy source configured to generate at least one beam that moves along said surface to heat the particulate to a melting point creating a melt path; and a camera configured to generate an image (200, 300, 302) of said surface as the at least one beam moves along said surface, said camera having a field of view, said camera positioned in relation to said surface such that the field of view encompasses a portion of the melt path defining a plurality of rasters, wherein said camera is configured to generate a time exposure image of at least the portion of the melt path defining the plurality of rasters; the additive manufacturing system further comprising a shutter positionable between an open position that allows light to travel through an aperture and a closed position that inhibits light traveling through the aperture, wherein the shutter controls the exposure time of the camera; wherein the shutter is configured to be maintained in an open position for a period of time longer than 1 minute, or the shutter is moveable between the open position and the closed position in a sequence of exposures that are configured to generate the time exposure image (200, 300, 302), wherein the total time the shutter is in the open position during the sequence of exposures is longer than 1 minute.
A photocatalyst-coated body comprising a substrate and a photocatalyst layer provided on the substrate, the photocatalyst layer comprising: photocatalyst particles being not less than 1 parts by mass and not more than 20 parts by mass, preferably, not less than 1 parts by mass and not more than 15 parts by mass, silica particles being not less than 30 parts by mass and not more than 98 parts by mass, and zirconia particles being not less than 1 parts by mass and not more than 50 parts by mass, preferably, not less than 5 parts by mass and not more than 50 parts by mass, wherein the total content of the photocatalyst particles, the silica particles and the zirconia particles is 100 parts by mass, wherein the zirconia particles are at least one kind of particles selected from the group consisting of crystalline zirconia particles that have an average crystallite diameter of 10 nm or less and amorphous zirconia particles wherein the content of the particulate components in the photocatalyst layer is not less than 85% by mass and not more than 100% by mass, wherein the number average particle diameter of the zirconia particles as determined by measuring the length of 100 randomly selected particles in a visual field at a magnification of 200,000 times under a scanning electron microscope is more than 5 nm and not more than 50 nm. photocatalyst particles being not less than 1 parts by mass and not more than 20 parts by mass, preferably, not less than 1 parts by mass and not more than 15 parts by mass, silica particles being not less than 30 parts by mass and not more than 98 parts by mass, and zirconia particles being not less than 1 parts by mass and not more than 50 parts by mass, preferably, not less than 5 parts by mass and not more than 50 parts by mass, wherein the total content of the photocatalyst particles, the silica particles and the zirconia particles is 100 parts by mass, wherein the zirconia particles are at least one kind of particles selected from the group consisting of crystalline zirconia particles that have an average crystallite diameter of 10 nm or less and amorphous zirconia particles wherein the content of the particulate components in the photocatalyst layer is not less than 85% by mass and not more than 100% by mass, wherein the number average particle diameter of the zirconia particles as determined by measuring the length of 100 randomly selected particles in a visual field at a magnification of 200,000 times under a scanning electron microscope is more than 5 nm and not more than 50 nm.
Process for preparing branched polyethers, characterized in that it has the following steps: (a) reaction of a starter of the general formula Z(X-H) j where X = independently at each occurrence O, NH, N-alkyl, N-aryl or S, j = 1-10, and Z = any organic radical, with each X being linked to a carbon atom of the organic radical, with one or more reactants suitable for ring-opening polymerization, selected from alkylene oxides, glycidyl ethers, lactones and cyclic acid anhydrides, preferably epoxide(s), (b) reaction of the reaction mixture obtained in step (a) with glycerol carbonate, wherein the addition of the glycerol carbonate is effected at a rate of 0.1 to 10 mol/h, in each case per mole of in the starters used, (c) reaction of the reaction mixture obtained in step (b) with one or more for characterized in that the branched polyethers have at least one structural unit -O-C -O-. (a) reaction of a starter of the general formula Z(X-H) j where X = independently at each occurrence O, NH, N-alkyl, N-aryl or S, j = 1-10, and Z = any organic radical, with each X being linked to a carbon atom of the organic radical, with one or more reactants suitable for ring-opening polymerization, selected from alkylene oxides, glycidyl ethers, lactones and cyclic acid anhydrides, preferably epoxide(s), X = independently at each occurrence O, NH, N-alkyl, N-aryl or S, j = 1-10, and Z = any organic radical, with each X being linked to a carbon atom of the organic radical, (b) reaction of the reaction mixture obtained in step (a) with glycerol carbonate, wherein the addition of the glycerol carbonate is effected at a rate of 0.1 to 10 mol/h, in each case per mole of in the starters used, (c) reaction of the reaction mixture obtained in step (b) with one or more for characterized in that the branched polyethers have at least one structural unit -O-C -O-.
A telecommunications node which comprises: a communication interface through which the node acquires timing advance information and angle of arrival (AoA) information based on uplink signals received over a radio interface from one or more wireless terminals that are involved or have been involved in handover; characterized by: a controller configured to use the timing advance information, the angle of arrival (AoA) information and a mapping table to make a determination of size and shape of a cell of a radio access network. a communication interface through which the node acquires timing advance information and angle of arrival (AoA) information based on uplink signals received over a radio interface from one or more wireless terminals that are involved or have been involved in handover; characterized by: a controller configured to use the timing advance information, the angle of arrival (AoA) information and a mapping table to make a determination of size and shape of a cell of a radio access network.
A process comprising forming a pressurized, molten mixture of a combustible polymer, at least one blowing agent and a phosphorus-sulfur compound, and then extruding the molten mixture through a die to a region of reduced pressure such that the molten mixture expands and cools to form a polymer foam, wherein the phosphorus-sulfur compound is a compound represented by the structure:- wherein X is oxygen or sulfur, T is sulfur or -NR 4 -, wherein R 4 is hydrogen, alkyl or inertly substituted alkyl, provided that at least one of X and T is sulfur, each X' is independently oxygen or sulfur, n is at least 2, each R 2 is independently hydrogen, alkyl or inertly substituted alkyl, R 3 is a covalent bond or a divalent linking group and A is an organic linking group.
A data transmission method, wherein the method comprises: receiving, by a receive end by using secondary radio, a feature narrowband signal sent by a transmit end; enabling, by the receive end, primary radio based on the feature narrowband signal, wherein a receiving bandwidth of the secondary radio is less than a receiving bandwidth and a sending bandwidth of the primary radio; and sending, by the receive end, a first broadband signal to the transmit end by using the primary radio, wherein the first broadband signal is used to notify the transmit end that the receive end has enabled the primary radio, characterised in that, before receiving, by the receive end by using secondary radio, a feature narrowband signal sent by the transmit end, the method further comprises: receiving, by the receive end, a beacon narrowband signal sent by the transmit end; sending, by the receive end, a measurement report to the transmit end, wherein the measurement report is used to notify of at least one of a signal measurement result or a channel measurement result; and receiving, by the receive end, wake-up configuration information sent by the transmit end based on the measurement report, wherein the wake-up configuration information is used to indicate feature information of the feature narrowband signal. receiving, by a receive end by using secondary radio, a feature narrowband signal sent by a transmit end; enabling, by the receive end, primary radio based on the feature narrowband signal, wherein a receiving bandwidth of the secondary radio is less than a receiving bandwidth and a sending bandwidth of the primary radio; and sending, by the receive end, a first broadband signal to the transmit end by using the primary radio, wherein the first broadband signal is used to notify the transmit end that the receive end has enabled the primary radio, receiving, by the receive end, a beacon narrowband signal sent by the transmit end; sending, by the receive end, a measurement report to the transmit end, wherein the measurement report is used to notify of at least one of a signal measurement result or a channel measurement result; and receiving, by the receive end, wake-up configuration information sent by the transmit end based on the measurement report, wherein the wake-up configuration information is used to indicate feature information of the feature narrowband signal.
A first integrated circuit comprising: a transmitter having circuitry (310, 315, 320, 335) to equalize first data to be transmitted to a second integrated circuit; and a receiver having a decision-feedback equalizer with one or more taps to equalize second data to be received from the second integrated circuit; characterized in that the first integrated circuit comprises a controller for controlling the DFE such that the integrated circuit supports at least two different equalization modes, including a first high-power mode where the decision-feedback equalizer is operated wherein a first number of taps is enabled, and a second low-power mode where the circuitry (310, 315, 320, 335) is operated to save power and at least one of the taps of the decision-feedback equalizer is deactivated such that a second number, smaller than the first number, of taps is enabled and in that the controller is configured to transmit control signals over a backchannel to a transmitter of the second integrated circuit. a transmitter having circuitry (310, 315, 320, 335) to equalize first data to be transmitted to a second integrated circuit; and a receiver having a decision-feedback equalizer with one or more taps to equalize second data to be received from the second integrated circuit; characterized in that the first integrated circuit comprises a controller for controlling the DFE such that the integrated circuit supports at least two different equalization modes, including a first high-power mode where the decision-feedback equalizer is operated wherein a first number of taps is enabled, and a second low-power mode where the circuitry (310, 315, 320, 335) is operated to save power and at least one of the taps of the decision-feedback equalizer is deactivated such that a second number, smaller than the first number, of taps is enabled and in that the controller is configured to transmit control signals over a backchannel to a transmitter of the second integrated circuit.
Seat adjustment device, in particular for motor vehicles, having a spindle which is able to be attached to a first of two rails (3, 4) which can be adjusted relative to each other by means of at least one bracket located on the end side of the spindle and belonging to the seat adjustment device, and having a gear which is able be driven by a motor, said gear being able to be arranged on the second rail, wherein the bracket has one part as a base plate, from which two walls (92a, 92b) which are distanced apart from each other extend upwards, and wherein at least one end of the spindle is fixed between these two walls (92a, 92b), characterised in that the two walls (92a, 92b) are two longitudinal legs of a U-bolt which belongs to the bracket, the base plate has two slots (82a, 82b) which are distanced apart from each other and run at least approximately axially parallel to a spindle axis of the spindle, and the U-bolt is pushed from below the base plate with its two longitudinal legs (92a, 92b) through the slots (82a, 82b) in such a way that a transverse leg of the U-bolt is in contact with the lower side of the base plate.
A method for connecting sheet metal parts to form a lamination stack in which sheet metal parts are stamped out from an electric strip that is coated with an activatable adhesive layer (8, 9), more particularly a hot-melt adhesive layer, on at least one of its flat sides (6, 7) and the stamped-out sheet metal parts are stacked and glued to form lamination stacks, wherein before the sheet metal parts are stamped out, the electric strip is embossed in a first sub-region (5.1), which produces multiple protruding spacers (20.1, 20.2) on at least one flat side (6, 7) of the electrical strip, which spacers (20.1, 20.2), after a first sheet metal part is stamped out from this first sub-region (5.1), facilitate a detachment of the stacked and glued sheet metal parts into lamination stacks, characterized in that in the first sub-region (5.1), spacers (20.1, 20.2) protruding from both flat sides (6, 7) of the electric strip are produced by means of embossing, and in that the first sheet metal part with the spacers (20.1, 20.2) protruding from both sides is provided as a dividing element (10.1, 10.2, 10.3) that is separate from the lamination stacks and is positioned between the sheet metal parts that are glued to one another. sheet metal parts are stamped out from an electric strip that is coated with an activatable adhesive layer (8, 9), more particularly a hot-melt adhesive layer, on at least one of its flat sides (6, 7) and the stamped-out sheet metal parts are stacked and glued to form lamination stacks, wherein before the sheet metal parts are stamped out, the electric strip is embossed in a first sub-region (5.1), which produces multiple protruding spacers (20.1, 20.2) on at least one flat side (6, 7) of the electrical strip, which spacers (20.1, 20.2), after a first sheet metal part is stamped out from this first sub-region (5.1), facilitate a detachment of the stacked and glued sheet metal parts into lamination stacks,
A device for the selective positioning of the pivot of a wheel of a bicycle comprising a frame composed of a rear stay provided with a first pair of first oblique rear chainstays (3a, 3b) which are each connected, respectively by means of a triangular support (5a, 5b), to a second pair of second horizontal rear chainstays (4a, 4b), a derailleur hook being associable with one of said first chainstays and one of said second chainstays on a first side of the bicycle frame, wherein first external seats and second internal seats are provided at the first internal surface and at the first external surface of the triangular support on said first side of the frame for the axial and removable positioning respectively of a first external adapter and of a second internal adapter, wherein said first external adapter and said second internal adapter have respectively a second hole and a third hole, both of which are smooth and are adapted to determine two different axial arrangements of said derailleur hook and consequently of said pivot of said wheel with respect to said two first and second chainstays (3a, 4a), characterised in that said device is adapted to keep said derailleur hook locked in clockwise rotation and free to rotate counterclockwise only through a chosen arc.