mhurhangee/patent-ind-claim-en huggingface dataset:
An electric power tool being operable according to at least one of multiple features associated with functions that the electric power tool is operable to execute depending on licenses being accessible to the electric power tool using a private key ( K ) adapted for providing access to licenses, the private key being stored in a client wallet associated with the electric power tool, wherein the licenses accessible using the private key depends on license transactions successfully validated in a permissioned blockchain network , wherein the client wallet comprises a certificate ( C ) that provides access to the permissioned blockchain network for a client of the electric power tool.
A light structure comprising: a light assembly comprising: at least one light source ; a light guide which is a flexible extension member and has at least one end which faces the at least one light source , and light emitted from the at least one light source is transmitted within the light guide ; and a body ; and a front panel , characterized in that the light assembly further comprises a light transmitting frame on which the at least one light source is supported, the light guide being integrated with the frame , wherein the frame defines an extension path of the light guide ; and wherein when the body and the front panel are mounted with the light assembly , the light assembly being located between the body and the front panel , and the light guide of the light assembly surrounding the inner periphery of the light structure. a light assembly comprising: at least one light source ; a light guide which is a flexible extension member and has at least one end which faces the at least one light source , and light emitted from the at least one light source is transmitted within the light guide ; and at least one light source ; a light guide which is a flexible extension member and has at least one end which faces the at least one light source , and light emitted from the at least one light source is transmitted within the light guide ; and a body ; and a front panel , characterized in that the light assembly further comprises a light transmitting frame on which the at least one light source is supported, the light guide being integrated with the frame , wherein the frame defines an extension path of the light guide ; and wherein when the body and the front panel are mounted with the light assembly , the light assembly being located between the body and the front panel , and the light guide of the light assembly surrounding the inner periphery of the light structure.
A method performed by a user equipment, UE , of distributing throughput amongst a plurality of applications residing at the UE , the method characterized by comprising: receiving , from a network node, recommended bit rate, RBR, information indicating a throughput value allocated to the UE ; allocating a codec rate to at least one voice over internet protocol, VoIP, application among the plurality of applications residing at the UE from the throughput value allocated to the UE ; and allocating a bit rate to each of a plurality of non-VoIP applications among the plurality of applications residing at the UE , based on a throughput requirement respectively associated with the plurality of non-VoIP applications from a throughput value of the throughput value allocated to the UE remaining after allocating the codec rate. receiving , from a network node, recommended bit rate, RBR, information indicating a throughput value allocated to the UE ; allocating a codec rate to at least one voice over internet protocol, VoIP, application among the plurality of applications residing at the UE from the throughput value allocated to the UE ; and allocating a bit rate to each of a plurality of non-VoIP applications among the plurality of applications residing at the UE , based on a throughput requirement respectively associated with the plurality of non-VoIP applications from a throughput value of the throughput value allocated to the UE remaining after allocating the codec rate.
A tandem pumped fiber amplifier for High Energy Laser (HEL) applications (100; 650), the apparatus comprising: an optical fiber (500; 675) including a single active core , wherein a seed laser is optically coupled to the single active core; the optical fiber (500; 675) including a first section to operate as a single active core oscillator and a second different section to operate as a single active core power amplifier; and wherein the seed laser and one or more diode pumps are optically coupled to the first section of the optical fiber, wherein the single active core of the first section is doped to convert the one or more diode pumps into a tandem pump, wherein the one or more diode pumps and the tandem pump bi-chromatically pump the single active core power amplifier; and wherein the first section is configured to also act as a booster amplifier for the seed laser; wherein a selected wavelength associated with the single active core oscillator is less than a center wavelength of the seed laser, wherein the single active core is configured to suppress modal instability when a difference between the selected wavelength and the center wavelength is in a range of 0.1-8% and a greater than 10 kW final amplifier stage is employed as the single active core power amplifier. an optical fiber (500; 675) including a single active core , wherein a seed laser is optically coupled to the single active core; the optical fiber (500; 675) including a first section to operate as a single active core oscillator and a second different section to operate as a single active core power amplifier; and wherein the seed laser and one or more diode pumps are optically coupled to the first section of the optical fiber, wherein the single active core of the first section is doped to convert the one or more diode pumps into a tandem pump, wherein the one or more diode pumps and the tandem pump bi-chromatically pump the single active core power amplifier; and wherein the first section is configured to also act as a booster amplifier for the seed laser; wherein a selected wavelength associated with the single active core oscillator is less than a center wavelength of the seed laser, wherein the single active core is configured to suppress modal instability when a difference between the selected wavelength and the center wavelength is in a range of 0.1-8% and a greater than 10 kW final amplifier stage is employed as the single active core power amplifier.
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked, a module frame that wraps the battery cell stack, a busbar frame that covers a portion of the battery cell stack exposed from the module frame, a busbar that is connected to an electrode lead protruding from the battery cell stack via a first slot formed in the busbar frame, and a cooling fin that is located between battery cells adjacent to each other among the plurality of battery cells, wherein the busbar is connected to the cooling fin. a battery cell stack in which a plurality of battery cells are stacked, a module frame that wraps the battery cell stack, a busbar frame that covers a portion of the battery cell stack exposed from the module frame, a busbar that is connected to an electrode lead protruding from the battery cell stack via a first slot formed in the busbar frame, and a cooling fin that is located between battery cells adjacent to each other among the plurality of battery cells, wherein the busbar is connected to the cooling fin.
A method for video decoding in a decoder, comprising: decoding (S1601) prediction information for a current block in a current picture that is a part of a coded video sequence, the prediction information indicating a prediction mode for the current block and an access order for an affine history-based motion vector predictor, HMVP, buffer, wherein the access order is included in the prediction information and is signaled at a sequence level, such as in a sequence parameter set, and wherein the access order for an affine merge mode and the access order for an affine advanced motion vector prediction, AMVP, mode are separately included in the prediction information; constructing (S1602) a motion vector predictor, MVP, list including an affine HMVP candidate from the affine HMVP buffer according to the access order; and reconstructing the current block based on the MVP list. decoding (S1601) prediction information for a current block in a current picture that is a part of a coded video sequence, the prediction information indicating a prediction mode for the current block and an access order for an affine history-based motion vector predictor, HMVP, buffer, wherein the access order is included in the prediction information and is signaled at a sequence level, such as in a sequence parameter set, and wherein the access order for an affine merge mode and the access order for an affine advanced motion vector prediction, AMVP, mode are separately included in the prediction information; constructing (S1602) a motion vector predictor, MVP, list including an affine HMVP candidate from the affine HMVP buffer according to the access order; and reconstructing the current block based on the MVP list.
A method of reading and editing images in real time with an electronic rear-view mirror, in which rear-view mirror at least three video cameras supply images as a serial digital signal in the form of an SDI signal, which video cameras correspond to a left exterior mirror, a right exterior mirror and an interior mirror, wherein the images are saved in a memory , wherein the images are assembled and delivered to at least one monitor , wherein all images in the video cameras are provided with a timestamp in the least significant bit of the digital signal, wherein the timestamps are deserialised together with the images by an image processing unit realised by an FPGA and the timestamps are saved in the memory together with the images, wherein a control is provided, by which the FPGA can be controlled, wherein the images are straightened out and seamlessly assembled and then the assembled image is serialised, wherein the timestamp of all rendered images is then read and compared to the current time and a signal for transmitting the images to the at least one monitor is only delivered to the at least one monitor if all timestamps do not date back further then a predefined maximum timespan. in which rear-view mirror at least three video cameras supply images as a serial digital signal in the form of an SDI signal, which video cameras correspond to a left exterior mirror, a right exterior mirror and an interior mirror, wherein the images are saved in a memory , wherein the images are assembled and delivered to at least one monitor , wherein all images in the video cameras are provided with a timestamp in the least significant bit of the digital signal, wherein the timestamps are deserialised together with the images by an image processing unit realised by an FPGA and the timestamps are saved in the memory together with the images, wherein a control is provided, by which the FPGA can be controlled, wherein the images are straightened out and seamlessly assembled and then the assembled image is serialised, wherein the timestamp of all rendered images is then read and compared to the current time and a signal for transmitting the images to the at least one monitor is only delivered to the at least one monitor if all timestamps do not date back further then a predefined maximum timespan.
A radio transceiver for communicating with one or more transceiver equipped targets , the transceiver comprising; a transmitter for transmitting radio signals (TX) in a transmit frequency band (f1), wherein the transmitter is arranged to transmit a data signal in case a transceiver equipped target is present and to transmit a dummy signal at least in case a transceiver equipped target is not present, a receiver for receiving radio signals (RX) in a receive frequency band (f2), and a detector for detecting backscattered radio signals (DET) in the transmit frequency band (f1), wherein the detector is arranged to estimate a distance to at least one target object based on the backscattered radio signals (DET). a transmitter for transmitting radio signals (TX) in a transmit frequency band (f1), wherein the transmitter is arranged to transmit a data signal in case a transceiver equipped target is present and to transmit a dummy signal at least in case a transceiver equipped target is not present, a receiver for receiving radio signals (RX) in a receive frequency band (f2), and a detector for detecting backscattered radio signals (DET) in the transmit frequency band (f1), wherein the detector is arranged to estimate a distance to at least one target object based on the backscattered radio signals (DET).
Plant comprising at least two apparatuses for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, which plant comprises at least one powder module (6, 12 - 14) separably connected or connectable with the apparatuses , wherein the at least one powder module (6, 12 - 14) is moveable in a loading direction into the apparatus and in an unloading direction out of the apparatus , wherein the powder module (6, 12 - 14) is moved into a work position along the loading direction and out of the work position along the unloading direction , wherein the loading direction and the unloading direction comprise at least one directional component extending in the same direction, wherein the loading direction and the unloading direction define an angle between 90° and 180°, wherein the plant comprises multiple apparatuses , wherein at least two apparatuses are arranged in series and one lane connects two corresponding work positions of two apparatuses , wherein at least one apparatus is connected via at least one lane (3 - 5) with at least one pre-processing and/or post-processing device , wherein at least one powder module (6, 12 - 14) is movable along the at least one lane (3 - 5) from the pre-processing and/or post-processing device to the work position of the apparatus and/or from the work position of the apparatus to the pre-processing and/or post-processing device , characterised in that at least one pre-processing and/or post-processing device is arranged between two apparatuses that are arranged in series.
An in vitro method for evaluating Huntington's disease in a subject, the method comprising: providing a biological sample from a subject having an expanded trinucleotide repeat in a Huntingtin gene, or providing RNA extracted therefrom, determining the presence or absence of the sRNA predictors according to SEQ ID NO: 6 or SEQ ID NO: 1 in the sample, wherein the presence of the sRNA predictors is indicative of Huntington's disease activity, optionally wherein the relative or absolute amount of the sRNA predictors is determined. providing a biological sample from a subject having an expanded trinucleotide repeat in a Huntingtin gene, or providing RNA extracted therefrom, determining the presence or absence of the sRNA predictors according to SEQ ID NO: 6 or SEQ ID NO: 1 in the sample, wherein the presence of the sRNA predictors is indicative of Huntington's disease activity, optionally wherein the relative or absolute amount of the sRNA predictors is determined.
A cleaning bin mountable to an autonomous cleaning robot operable to receive debris from a floor surface, the cleaning bin comprising: an inlet positioned between lateral sides of the cleaning bin; an outlet configured to connect to a vacuum assembly of the autonomous cleaning robot, the vacuum assembly operable to direct an airflow from the inlet of the cleaning bin to the outlet of the cleaning bin; a debris chamber to receive debris from the airflow; a filter socket configured to receive a filter and provide the airflow through the filter to the outlet of the cleaning bin , characterized by : an airflow chamber separated from the debris chamber by a prefilter , the prefilter forming at least a portion of a top surface of the debris chamber and at least a portion of a bottom surface of the airflow chamber, wherein the filter is positioned substantially perpendicular to the prefilter when the filter is positioned in the filter socket. an inlet positioned between lateral sides of the cleaning bin; an outlet configured to connect to a vacuum assembly of the autonomous cleaning robot, the vacuum assembly operable to direct an airflow from the inlet of the cleaning bin to the outlet of the cleaning bin; a debris chamber to receive debris from the airflow; a filter socket configured to receive a filter and provide the airflow through the filter to the outlet of the cleaning bin , characterized by : an airflow chamber separated from the debris chamber by a prefilter , the prefilter forming at least a portion of a top surface of the debris chamber and at least a portion of a bottom surface of the airflow chamber, wherein the filter is positioned substantially perpendicular to the prefilter when the filter is positioned in the filter socket. an airflow chamber separated from the debris chamber by a prefilter , the prefilter forming at least a portion of a top surface of the debris chamber and at least a portion of a bottom surface of the airflow chamber, wherein the filter is positioned substantially perpendicular to the prefilter when the filter is positioned in the filter socket.
Process for the depolymerization of a polyester feedstock comprising opaque PET, said feedstock comprising from 0.1% to 10% by weight of pigment, said process comprising at least the following steps: a) a step of conditioning fed by said polyester feedstock; b) a step of depolymerization by glycolysis fed at least by the stream from step a) and by an addition of diol, operated at a temperature of between 200 and 400°C, with from 1 to 20 mol of diol per mole of diester in said polyester feedstock and a residence time of the polyester of between 0.1 and 5 h, converting the PET into BHET monomer and BHET oligomers; c) a step of separation of the diol fed at least by the stream from step b), operated at a temperature of between 100 and 250°C, at a lower pressure than that of step b) and producing a diol stream and a liquid stream rich in monomers, carried out in 1 to 5 successive gas/liquid separation stages, the liquid stream from the preceding stage feeding the next stage, all of the gas streams being condensed to form the diol stream, the liquid stream resulting from the final gas/liquid separation stage constituting the liquid stream rich in monomers; d) a step of separation of the liquid stream rich in monomers resulting from step c) into a heavy impurities stream and a prepurified monomers stream operated at a temperature of less than 250°C and a pressure of less than 0.001 MPa with a liquid residence time of less than 10 min; and e) a step of decoloration of the prepurified monomers stream, operated at a temperature of between 100 and 250°C and at a pressure of between 0.1 and 1.0 MPa in the presence of an adsorbent and producing a purified monomers stream. a) a step of conditioning fed by said polyester feedstock; b) a step of depolymerization by glycolysis fed at least by the stream from step a) and by an addition of diol, operated at a temperature of between 200 and 400°C, with from 1 to 20 mol of diol per mole of diester in said polyester feedstock and a residence time of the polyester of between 0.1 and 5 h, converting the PET into BHET monomer and BHET oligomers; c) a step of separation of the diol fed at least by the stream from step b), operated at a temperature of between 100 and 250°C, at a lower pressure than that of step b) and producing a diol stream and a liquid stream rich in monomers, carried out in 1 to 5 successive gas/liquid separation stages, the liquid stream from the preceding stage feeding the next stage, all of the gas streams being condensed to form the diol stream, the liquid stream resulting from the final gas/liquid separation stage constituting the liquid stream rich in monomers; d) a step of separation of the liquid stream rich in monomers resulting from step c) into a heavy impurities stream and a prepurified monomers stream operated at a temperature of less than 250°C and a pressure of less than 0.001 MPa with a liquid residence time of less than 10 min; and e) a step of decoloration of the prepurified monomers stream, operated at a temperature of between 100 and 250°C and at a pressure of between 0.1 and 1.0 MPa in the presence of an adsorbent and producing a purified monomers stream.
An optical fiber characteristic measurement device, comprising: a detector configured to detect Brillouin scattered light obtained by causing light to be incident on an optical fiber under test (FUT); a spectrum acquisition unit configured to obtain a Brillouin gain spectrum from the Brillouin scattered light (LS) using a preset frequency range; and a spectrum analyzing controller configured to: measure a characteristic of the optical fiber under test (FUT) by analyzing the Brillouin gain spectrum to obtain a peak frequency of the Brillouin gain spectrum; predict a possible peak frequency likely to be obtained during a subsequent measurement based on the peak frequency; and change the frequency range used by the spectrum acquisition unit to obtain the Brillouin gain spectrum to a new frequency range, based on the possible peak frequency; wherein the spectrum acquisition unit is configured to reobtain the Brillouin gain spectrum in the newly set frequency range. a detector configured to detect Brillouin scattered light obtained by causing light to be incident on an optical fiber under test (FUT); a spectrum acquisition unit configured to obtain a Brillouin gain spectrum from the Brillouin scattered light (LS) using a preset frequency range; and a spectrum analyzing controller configured to: measure a characteristic of the optical fiber under test (FUT) by analyzing the Brillouin gain spectrum to obtain a peak frequency of the Brillouin gain spectrum; predict a possible peak frequency likely to be obtained during a subsequent measurement based on the peak frequency; and change the frequency range used by the spectrum acquisition unit to obtain the Brillouin gain spectrum to a new frequency range, based on the possible peak frequency; measure a characteristic of the optical fiber under test (FUT) by analyzing the Brillouin gain spectrum to obtain a peak frequency of the Brillouin gain spectrum; predict a possible peak frequency likely to be obtained during a subsequent measurement based on the peak frequency; and change the frequency range used by the spectrum acquisition unit to obtain the Brillouin gain spectrum to a new frequency range, based on the possible peak frequency; wherein the spectrum acquisition unit is configured to reobtain the Brillouin gain spectrum in the newly set frequency range.