mhurhangee/ep-ind-claims huggingface dataset:
A method for information configuration, comprising: transmitting, by a network device, first configuration information to a terminal device, characterized in that, the first configuration information is used for configuring a set of non-periodic Channel State Information-Reference Signal, non-periodic CSI-RS, resources and configuring a first indication parameter corresponding to the set of non-periodic CSI-RS resources, wherein respective non-periodic CSI-RS resources of the set are quasi co-located with respect to a first Quasi Co-Location, QCL, parameter, the first indication parameter is configured to indicate a usage of the set of non-periodic CSI-RS resources, the usage indicates non-periodic CSI-RS for tracking, and the first indication parameter is a parameter Tracking Reference Signal-Info, TRS-Info, wherein the first QCL parameter comprises QCL-TypeA and QCL-TypeD; QCL-TypeA is QCL parameter about Doppler shift, Doppler spread, average delay, and delay spread; QCL-TypeD is QCL parameter about Spatial Rx parameter. transmitting, by a network device, first configuration information to a terminal device, characterized in that, the first configuration information is used for configuring a set of non-periodic Channel State Information-Reference Signal, non-periodic CSI-RS, resources and configuring a first indication parameter corresponding to the set of non-periodic CSI-RS resources, wherein respective non-periodic CSI-RS resources of the set are quasi co-located with respect to a first Quasi Co-Location, QCL, parameter, the first indication parameter is configured to indicate a usage of the set of non-periodic CSI-RS resources, the usage indicates non-periodic CSI-RS for tracking, and the first indication parameter is a parameter Tracking Reference Signal-Info, TRS-Info, wherein the first QCL parameter comprises QCL-TypeA and QCL-TypeD; QCL-TypeA is QCL parameter about Doppler shift, Doppler spread, average delay, and delay spread; QCL-TypeD is QCL parameter about Spatial Rx parameter.
A method for configuring a number of antennas in an antenna array to use in communicating in a wireless network, comprising: determining, by an access point, a selection of a number of antennas of the antenna array, less than all available antennas for transmission or reception in the antenna array, to achieve a radio frequency, RF, power for the antenna array that results in a certain bits per millijoule effective data rate for communicating in the wireless network, wherein the effective data rate is a function of at least a computed beamforming or antenna array gain with the number of antennas and a utility function of the RF power consumed by the number of antennas; indicating, by the access point over a backhaul connection to one or more other access points of the wireless network, the number of antennas in the selection that are provided power and not including a second number of antennas of the antenna array to which power is terminated, to coordinate using of the number of antennas at a determined time; and communicating, using the number of antennas, with one or more devices in the wireless network. determining, by an access point, a selection of a number of antennas of the antenna array, less than all available antennas for transmission or reception in the antenna array, to achieve a radio frequency, RF, power for the antenna array that results in a certain bits per millijoule effective data rate for communicating in the wireless network, wherein the effective data rate is a function of at least a computed beamforming or antenna array gain with the number of antennas and a utility function of the RF power consumed by the number of antennas; indicating, by the access point over a backhaul connection to one or more other access points of the wireless network, the number of antennas in the selection that are provided power and not including a second number of antennas of the antenna array to which power is terminated, to coordinate using of the number of antennas at a determined time; and communicating, using the number of antennas, with one or more devices in the wireless network.
Method for optimally visualizing a morphologic region of interest of a bone in an X-ray image of a patient, comprising: - receiving a set of 3D medical images of the patient's bone, - creating a 3D bone model of at least part of the bone comprising said region of interest from said set of 3D images, - determining a criterion representative of a visualization of the extent of said morphologic region of interest, - automatically determining from the 3D bone model optimal relative bone and X-ray orientation so as to optimize said criterion for said patient, - creating at least one virtual X-ray image of the bone from said set of 3D images according to said optimal relative bone and virtual X-ray orientation. - receiving a set of 3D medical images of the patient's bone, - creating a 3D bone model of at least part of the bone comprising said region of interest from said set of 3D images, - determining a criterion representative of a visualization of the extent of said morphologic region of interest, - automatically determining from the 3D bone model optimal relative bone and X-ray orientation so as to optimize said criterion for said patient, - creating at least one virtual X-ray image of the bone from said set of 3D images according to said optimal relative bone and virtual X-ray orientation.
A method for assigning Physical Resource Blocks, PRBs, to a User Equipment, UE, in a wireless communication network having a plurality of cells, the method comprising: determining a Physical Cell Identifier, PCI, of a cell from the plurality of cells; selecting a power level pattern of a plurality of PRBs for allocation, wherein a power level of a PRB is a power level that is at the most to be used for the PRB and, in the power level pattern, power levels are pre-defined discrete levels, wherein a first value is an indication that the PRB should not be used, a second value indicates the power level assigned to the PRB should be at most 1/4 of a maximum power level, a third value indicates the power level assigned to the PRB should be at most 1/2 of the maximum power level and a fourth value indicates the power level assigned to the PRB should be at most the maximum power level; and assigning at least one of the plurality of PRBs to the UE. determining a Physical Cell Identifier, PCI, of a cell from the plurality of cells; selecting a power level pattern of a plurality of PRBs for allocation, wherein a power level of a PRB is a power level that is at the most to be used for the PRB and, in the power level pattern, power levels are pre-defined discrete levels, wherein a first value is an indication that the PRB should not be used, a second value indicates the power level assigned to the PRB should be at most 1/4 of a maximum power level, a third value indicates the power level assigned to the PRB should be at most 1/2 of the maximum power level and a fourth value indicates the power level assigned to the PRB should be at most the maximum power level; and assigning at least one of the plurality of PRBs to the UE.
A process for preparing an aqueous solution of oxycodone acid adduct, said process comprising hydrogenating an aqueous solution of 14-hydroxycodeinone and an acid to form an aqueous solution of the oxycodone acid adduct, wherein: • the hydrogenation is carried out at one or more temperatures in the range of ≥ 55°C to ≤ 100°C in the presence of a hydrogenation catalyst and hydrogen gas, • the aqueous solution of 14-hydroxycodeinone and acid is heated to said one or more temperatures in the range of ≥ 55°C to ≤ 100°C before it is exposed to the hydrogen gas, and wherein the formed aqueous solution of oxycodone acid adduct comprises 6α-oxycodol in an amount ≤ 0.800 area % as determined by HPLC. • the hydrogenation is carried out at one or more temperatures in the range of ≥ 55°C to ≤ 100°C in the presence of a hydrogenation catalyst and hydrogen gas, • the aqueous solution of 14-hydroxycodeinone and acid is heated to said one or more temperatures in the range of ≥ 55°C to ≤ 100°C before it is exposed to the hydrogen gas, and
A lighting circuit, comprising: a plurality of series-connected light-emitting diodes, wherein the series-connected light-emitting diodes are coupled between an input voltage source and an input voltage return associated with the input voltage source; a switching power converter having an inductor and a switching element for controlling a current supplied through the plurality of series-connected light-emitting diodes; a control circuit for controlling the switching element of the switching power converter, wherein a power supply input of the control circuit is provided by a power supply voltage generated from a terminal of the plurality of series-connected light-emitting diodes having a voltage substantially less than a voltage of the input voltage source; a switching circuit (S1, S2) coupled in series with the plurality of series-connected light-emitting diodes and the input voltage source, wherein the switching circuit alternatively shunts current to the input voltage return in a first switching state and to the power supply input of the control circuit in a second switching state; and a second plurality of series-connected light-emitting diodes coupled between the switching circuit and the input voltage return, wherein the switching circuit alternatively supplies current to the second plurality of series-connected light-emitting diodes and to the power supply input. a plurality of series-connected light-emitting diodes, wherein the series-connected light-emitting diodes are coupled between an input voltage source and an input voltage return associated with the input voltage source; a switching power converter having an inductor and a switching element for controlling a current supplied through the plurality of series-connected light-emitting diodes; a control circuit for controlling the switching element of the switching power converter, wherein a power supply input of the control circuit is provided by a power supply voltage generated from a terminal of the plurality of series-connected light-emitting diodes having a voltage substantially less than a voltage of the input voltage source; a switching circuit (S1, S2) coupled in series with the plurality of series-connected light-emitting diodes and the input voltage source, wherein the switching circuit alternatively shunts current to the input voltage return in a first switching state and to the power supply input of the control circuit in a second switching state; and a second plurality of series-connected light-emitting diodes coupled between the switching circuit and the input voltage return, wherein the switching circuit alternatively supplies current to the second plurality of series-connected light-emitting diodes and to the power supply input.
A method for manufacturing sausages with a filling machine, wherein pasty mass is ejected through a filling tube into a sausage casing ruffled on the filling tube, and a brake force is exerted on the sausage casing by means of a sausage casing brake by a braking area of a brake ring pressing onto the sausage casing, characterized in that the sausage casing brake comprises a drive via which the brake ring is rotated, the braking area extends around the longitudinal axis of the filling tube in such a manner that in a plane perpendicular to the longitudinal axis of the filling tube, the braking area of the brake ring only presses onto a part of the circumference of the sausage casing, and the brake force the braking area exerts on the surface of the sausage casing is distributed in a direction along the longitudinal axis of the filling tube.
A method of obtaining paraffinic hydrocarbons from natural fat, specifically from waste vegetable oils, animal fat or algal oils, wherein the process is performed in two stages, in a coupled flow-type system, under atmospheric pressure conditions, in the presence of heterogeneous catalysts, following their thermal activation, preferably at a temperature of 450°C in a stream of air for 1 hour, so that in Stage I the fat and/or waste fat is heated at a temperature range of 100-500°C, in the presence of an inert gas, in the presence of a catalyst in the form of a metal oxide on an oxide support or in the form of a mixture of at least two metal oxides on an oxide support, whereafter the product obtained in Stage I is treated, in the presence of an inert gas, at a temperature range of 100-500°C, in the presence of a metallic catalyst on an oxide support, with hydrogen gas or with a mixture of hydrogen and carbon monoxide, obtained by the selective decomposition of methanol.
Method for adjusting the noise-damping property of a brake, in which the apparatus comprises: a frame part of the brake; a counterpart to be pressed against the frame part; an elastic damping member for damping the noise of the brake, which damping member is fitted into the air gap (Ag) between the countersurfaces (5, 6) of the frame part and of the counterpart; and which damping member is configured to be pressed against a countersurface (5,6) when the frame part and the counterpart are pressed against each other; and which damping member, when being pressed against a countersurface (5, 6), is configured to exert a damping force (F d) on the countersurface (5, 6) that increases as the air gap (Ag) decreases; and which apparatus comprises an adjustment means for adjusting the damping force (F d) of the damping member; characterized in that the apparatus comprises a sensor for measuring the force effect being exerted on a countersurface (5, 6) of the brake; and that in the method: - the frame part and the counterpart are pressed against each other, - the force effect being exerted on a countersurface (5, 6) of the brake is measured, - the force effect being exerted on the countersurface (5, 6) of the brake is adjusted towards the reference value for the force effect by adjusting the damping force (F d) of a damping member. a frame part of the brake; a counterpart to be pressed against the frame part; an elastic damping member for damping the noise of the brake, which damping member is fitted into the air gap (Ag) between the countersurfaces (5, 6) of the frame part and of the counterpart; and which damping member is configured to be pressed against a countersurface (5,6) when the frame part and the counterpart are pressed against each other; and which damping member, when being pressed against a countersurface (5, 6), is configured to exert a damping force (F d) on the countersurface (5, 6) that increases as the air gap (Ag) decreases; and which apparatus comprises an adjustment means for adjusting the damping force (F d) of the damping member; characterized in that the apparatus comprises a sensor for measuring the force effect being exerted on a countersurface (5, 6) of the brake; - the frame part and the counterpart are pressed against each other, - the force effect being exerted on a countersurface (5, 6) of the brake is measured, - the force effect being exerted on the countersurface (5, 6) of the brake is adjusted towards the reference value for the force effect by adjusting the damping force (F d) of a damping member.
A method for wireless communications, comprising: obtaining at least one extended Golay code of at least length 2 m + 2 n, wherein the at least one extended Golay code comprises at least a first Golay code of length 2 m and a second Golay code of length 2 n, and wherein the length 2 m is different than the length 2 n, wherein the first Golay code is pre-pended to the second Golay code; and generating a packet using the at least one extended Golay code, wherein at least the first Golay code and the second Golay code are positioned according to a pattern selected from a defined set of patterns. obtaining at least one extended Golay code of at least length 2 m + 2 n, wherein the at least one extended Golay code comprises at least a first Golay code of length 2 m and a second Golay code of length 2 n, and wherein the length 2 m is different than the length 2 n, wherein the first Golay code is pre-pended to the second Golay code; and generating a packet using the at least one extended Golay code, wherein at least the first Golay code and the second Golay code are positioned according to a pattern selected from a defined set of patterns.
Processing device for processing a radio signal, the processing device comprising: a plurality of receivers (2, 3) designed to receive the radio signal in a predetermined frequency range and to output an individual received signal (4, 5) by each of the receivers (2, 3), wherein the radio signal comprises superposed signal components (12, 13) from different sources (10, 11); a detection apparatus designed to detect, for each individual received signal (4, 5), a number of sources (10, 11) by ascertaining whether the radio signal comprises superposed signal components (12, 13) from different sources (10, 11); a selection apparatus designed, if there is more than one source (10, 11) in at least one of the individual received signals (4, 5), to select one of the receivers (2, 3) on the basis of the detected number of sources (10, 11) in the individual received signals (4, 5), and to forward the individual received signal (4, 5) of said selected receiver (2, 3). a plurality of receivers (2, 3) designed to receive the radio signal in a predetermined frequency range and to output an individual received signal (4, 5) by each of the receivers (2, 3), wherein the radio signal comprises superposed signal components (12, 13) from different sources (10, 11); a detection apparatus designed to detect, for each individual received signal (4, 5), a number of sources (10, 11) by ascertaining whether the radio signal comprises superposed signal components (12, 13) from different sources (10, 11); a selection apparatus designed, if there is more than one source (10, 11) in at least one of the individual received signals (4, 5), to select one of the receivers (2, 3) on the basis of the detected number of sources (10, 11) in the individual received signals (4, 5), and to forward the individual received signal (4, 5) of said selected receiver (2, 3).
A safety belt, comprising an inelastic portion and a resiliently extendable portion attaching two points of the safety belt together, wherein the resiliently extendable portion of the belt is formed by an elasticated material, for exerting tension on a first end of the safety belt; a releasable fastening means attached to the first end of the belt and having a quick release mechanism for releasably retaining a second end of the belt when the belt is around a user; and wherein the resiliently extendable portion is proximal to the releasable fastening means such that, when the releasable fastening means is operated by a user to release the second end, the tension provided by the resiliently extendable portion pulls the releasable fastening means free from the second end; wherein the resiliently extendable portion when in an un-tensioned state is shorter than the inelastic portion such that, under no tension, an effective length of the safety belt, comprising the inelastic portion and a resiliently extendable portion, is determined by the un-tensioned length of the resiliently extendable portion; and under maximum tension, the effective length of the section of the safety belt is the length of the inelastic portion,
A method for producing a nitrobenzene compound represented by the general formula: wherein, in the general formula, R 1 represents a halogen atom, R 2, R 3, and R 4 are the same or different from one another and each represent a hydrogen atom, a halogen atom, or an alkyl group, and R 5 represents a halogen atom or an alkoxycarbonyl group, the method comprising the processes of: (i) reacting an aniline compound represented by the general formula: wherein, in the general formula, R 1, R 2, R 3, R 4, and R 5 are as defined above, in the presence of a metal nitrite and an acid; and (ii) reacting a product of the process (i) in the presence of a metal nitrite and a copper compound, wherein a total amount of water used in the process (ii) is 1.2 to 2.2 L per 1 mol of the compound of the general formula. (i) reacting an aniline compound represented by the general formula: wherein, in the general formula, R 1, R 2, R 3, R 4, and R 5 are as defined above, in the presence of a metal nitrite and an acid; and (ii) reacting a product of the process (i) in the presence of a metal nitrite and a copper compound, wherein a total amount of water used in the process (ii) is 1.2 to 2.2 L per 1 mol of the compound of the general formula.
Process for making up human keratin materials, comprising the steps that consist in: - preparing a support bearing a cosmetic composition to be applied to a human keratin material by applying said composition to the support with the aid of a laser printer that comprises a cartridge of cosmetic toner, comprising a pulverulent cosmetic composition, and the laser printer being arranged to enable the formation, by electrophotography or magnetophotography, of an image on a support starting from at least one cosmetic toner and that is configured to deliver the toner present on the support in a pulverulent state which is a sufficiently free state to enable the removal thereof or transfer thereof by contact with human keratin materials, the laser printer being arranged in order to transfer the toner deposited on a drum of the printer to a substrate in sheet form or in roller form, - applying the composition present on the support to said human keratin materials, the application of the composition taking place by transfer, by applying the support coated with composition to said human keratin materials and/or the application taking place by removing the composition on the support using an applicator. - preparing a support bearing a cosmetic composition to be applied to a human keratin material by applying said composition to the support with the aid of a laser printer that comprises a cartridge of cosmetic toner, comprising a pulverulent cosmetic composition, and the laser printer being arranged to enable the formation, by electrophotography or magnetophotography, of an image on a support starting from at least one cosmetic toner and that is configured to deliver the toner present on the support in a pulverulent state which is a sufficiently free state to enable the removal thereof or transfer thereof by contact with human keratin materials, the laser printer being arranged in order to transfer the toner deposited on a drum of the printer to a substrate in sheet form or in roller form, - applying the composition present on the support to said human keratin materials, the application of the composition taking place by transfer, by applying the support coated with composition to said human keratin materials and/or the application taking place by removing the composition on the support using an applicator.