mhurhangee/patent-ind-claim-en huggingface dataset:
A display unit comprising: a first display panel having a plurality of first light emitting elements , wherein the plurality of first light emitting elements are configured to provide a first color light (L1); a second display panel having a plurality of second light emitting elements , wherein the plurality of second light emitting elements are configured to provide a second color light (L2); and a light combining element , characterized in that the display unit further comprising: a wavelength conversion element ; the wavelength conversion element is located on a transmission path of the first color light (L1) and has a conversion region (QR) and a non-conversion region (NR), wherein a quantum dot conversion material (QD) is disposed on the conversion region (QR), part of the first color light (L1) is converted into a third color light (L3) after passing through the conversion region (QR), and another part of the first color light (L1) passes through the non-conversion region (NR); and the light combining element is located on transmission paths of the first color light (L1), the second color light (L2) and the third color light (L3), and is configured to guide the third color light (L3), the second color light (L2) and the first color light (L1) that passes through the non-conversion region (NR) to form an image beam. a first display panel having a plurality of first light emitting elements , wherein the plurality of first light emitting elements are configured to provide a first color light (L1); a second display panel having a plurality of second light emitting elements , wherein the plurality of second light emitting elements are configured to provide a second color light (L2); and a light combining element , a wavelength conversion element ; the wavelength conversion element is located on a transmission path of the first color light (L1) and has a conversion region (QR) and a non-conversion region (NR), wherein a quantum dot conversion material (QD) is disposed on the conversion region (QR), part of the first color light (L1) is converted into a third color light (L3) after passing through the conversion region (QR), and another part of the first color light (L1) passes through the non-conversion region (NR); and the light combining element is located on transmission paths of the first color light (L1), the second color light (L2) and the third color light (L3), and is configured to guide the third color light (L3), the second color light (L2) and the first color light (L1) that passes through the non-conversion region (NR) to form an image beam.
Method for networking a first time-sensitive field bus with a second time-sensitive field bus , wherein the first time-sensitive field bus comprises a first subscriber device and has a first dedicated time domain , and wherein the second time-sensitive field bus comprises a second subscriber device and has a second dedicated time domain , wherein the first time domain and the second time domain are frequency-synchronized, wherein the first and the second field bus are connected to one another by means of a gateway , wherein the method has the following steps: - storing in the memory of the gateway a first subscriber device identifier (ID14'a), wherein the first subscriber device identifier (ID14'a) identifies a virtual image (14'a) of the associated first subscriber device of the first field bus ; - storing in the memory of the gateway a second subscriber device identifier (ID22'), wherein the second subscriber device identifier (ID22') identifies a virtual image of the associated second subscriber device of the second field bus ; - determining a first cycle time duration (TC1) of the first field bus and a second cycle time duration (TC2) of the second field bus by the gateway at a reference time (TRef); and - determining a time offset between the first time domain and the second time domain by the gateway at the reference time (TRef). - storing in the memory of the gateway a first subscriber device identifier (ID14'a), wherein the first subscriber device identifier (ID14'a) identifies a virtual image (14'a) of the associated first subscriber device of the first field bus ; - storing in the memory of the gateway a second subscriber device identifier (ID22'), wherein the second subscriber device identifier (ID22') identifies a virtual image of the associated second subscriber device of the second field bus ; - determining a first cycle time duration (TC1) of the first field bus and a second cycle time duration (TC2) of the second field bus by the gateway at a reference time (TRef); and - determining a time offset between the first time domain and the second time domain by the gateway at the reference time (TRef).
Vehicle (100; 200; 300) comprising: - a station for manual driving by a driver, - an on-board system for autonomous driving in an autonomous driving mode, by sending driving instructions to at least one component (104 1 -104 n ) of a rolling base of said vehicle, via a digital communication bus , said autonomous driving system remaining functional and continuing to send driving instructions in manual driving mode, and - a driving mode control unit ; characterized in that said driving mode control unit is configured to inhibit the driving instructions sent by said autonomous driving system , in manual driving mode. - a station for manual driving by a driver, - an on-board system for autonomous driving in an autonomous driving mode, by sending driving instructions to at least one component (104 1 -104 n ) of a rolling base of said vehicle, via a digital communication bus , said autonomous driving system remaining functional and continuing to send driving instructions in manual driving mode, and - a driving mode control unit ; characterized in that said driving mode control unit is configured to inhibit the driving instructions sent by said autonomous driving system , in manual driving mode.
Heat engine comprising a turbomachine , in particular a gas turbine, which has at least one compressor , a combustion chamber , at least one turbine and at least one free-piston compressor , the at least one free-piston compressor which is coupled to the turbomachine having at least one compressor piston and at least one cylinder comprising a cylinder chamber and at least one engine piston , part of the fluid, in particular air, which is required by the compressor piston being supplied to the cylinder chamber and another part of the fluid being provided for controlling the temperature of the combustion chamber and/or turbine , characterized by a cylinder line which connects a compression chamber of the free-piston compressor to the cylinder chamber , and a turbomachine line which connects the free-piston compressor to at least one turbomachine part, at least part of the fluid in the cylinder line cooling the free-piston compressor , in particular the cylinder, a cylinder head, an inlet and/or outlet valve and/or the engine piston , and then being conveyed around the combustion chamber and/or around the turbine via the turbomachine line .
A board comprising: a set gypsum core disposed between two cover sheets, the core formed from a slurry comprising stucco, water, and at least one extruded pregelatinized starch formed from a wet starch having a water content less than about 25%; the extruded pregelatinized starch having a cold water solubility greater than about 30% when measured at 25°C, according to the method set forth in the description, and a cold water viscosity of a 10% slurry of the starch in water when measured at 25°C and at a shear rate of 100 s-1 for 1 min, as measured with the cold-water viscosity assay method (CWVA), as set forth in the description, being from about 0,02 Pa.s to about 0,3 Pa.s (about 20 centipoise to about 300 centipoise); the set gypsum core having a compressive strength greater than a set gypsum core made with a starch having a cold water solubility less than about 30% when measured at 25°C. a set gypsum core disposed between two cover sheets, the core formed from a slurry comprising stucco, water, and at least one extruded pregelatinized starch formed from a wet starch having a water content less than about 25%; the extruded pregelatinized starch having a cold water solubility greater than about 30% when measured at 25°C, according to the method set forth in the description, and a cold water viscosity of a 10% slurry of the starch in water when measured at 25°C and at a shear rate of 100 s-1 for 1 min, as measured with the cold-water viscosity assay method (CWVA), as set forth in the description, being from about 0,02 Pa.s to about 0,3 Pa.s (about 20 centipoise to about 300 centipoise); the set gypsum core having a compressive strength greater than a set gypsum core made with a starch having a cold water solubility less than about 30% when measured at 25°C.
A parameter configuration method , comprising: receiving an indication of a first mapping relationship, wherein the first mapping relationship is a mapping relationship in a preconfigured first mapping relationship group, the first mapping relationship group comprises at least one mapping relationship, and the at least one mapping relationship is used to indicate at least one correspondence between a reporting quantity of spatial domain vectors and a reporting quantity of frequency domain vectors; and determining the reporting quantity L 0 of spatial domain vectors and the reporting quantity M 0 of frequency domain vectors based on the first mapping relationship, wherein the L 0 spatial domain vectors and the M 0 frequency domain vectors are used to construct a precoding vector of one or more frequency domain units, and both L 0 and M 0 are positive integers. receiving an indication of a first mapping relationship, wherein the first mapping relationship is a mapping relationship in a preconfigured first mapping relationship group, the first mapping relationship group comprises at least one mapping relationship, and the at least one mapping relationship is used to indicate at least one correspondence between a reporting quantity of spatial domain vectors and a reporting quantity of frequency domain vectors; and determining the reporting quantity L 0 of spatial domain vectors and the reporting quantity M 0 of frequency domain vectors based on the first mapping relationship, wherein the L 0 spatial domain vectors and the M 0 frequency domain vectors are used to construct a precoding vector of one or more frequency domain units, and both L 0 and M 0 are positive integers.
An abnormality detection method, comprising: calculating (S145), for a detection target packet stream made up of a plurality of detection target packets that are consecutive, a plurality of distances between the plurality of detection target packets; extracting (S150) a feature amount of the detection target packet stream using the plurality of distances calculated; and calculating (S160) information about a degree of abnormality in the detection target packet stream using the feature amount extracted. calculating (S145), for a detection target packet stream made up of a plurality of detection target packets that are consecutive, a plurality of distances between the plurality of detection target packets; extracting (S150) a feature amount of the detection target packet stream using the plurality of distances calculated; and calculating (S160) information about a degree of abnormality in the detection target packet stream using the feature amount extracted.
A smear resistant solvent-based ink comprising an elastomeric polyurethane resin, a styrene maleic anhydride copolymer, a polyurethane polyol resin, a pigment, and a group IV metal chelating agent adhesion promoter, wherein the ink provides smear resistance to polyol containing adhesives such as polyurethane adhesives.
An illumination unit, in particular a motor vehicle headlight, with at least one light-guiding element for the illumination unit as well as with at least one light-coupling element, which is configured as an illumination rod , wherein the light-guiding element comprises a light-guiding body with at least one light inlet area and at least one light outlet area , wherein the at least one light inlet area has a plurality of inlet subareas that are offset with respect to one another at least in the direction of light propagation (-x), wherein the inlet subareas are oriented substantially normally to the direction of light propagation (-x), wherein adjacent inlet subareas border one another, wherein the inlet subareas bordering one another are offset in relation to one another by means of wall areas oriented parallel to the direction of light propagation (-x), wherein the illumination rod is arranged before the light inlet area .
Apparatus for generating a decorrelation signal using an input signal, comprising: a complex subband filterbank for subband-filtering a block of a predetermined number of input samples of the input signal and for providing a plurality of oversampled complex-valued subband signals, wherein a subband signal is oversampled and includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, the number of subband samples in a subband signal is smaller than the number of input samples; and a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the filtering of the reverberation filter having an all-pass characteristic, the reverberation filter being operative to apply a delay to each subband signal and being adapted to have different sets of filter coefficients for each subband signal, wherein the plurality of reverberated subband signals together represent the decorrelation signal. a complex subband filterbank for subband-filtering a block of a predetermined number of input samples of the input signal and for providing a plurality of oversampled complex-valued subband signals, wherein a subband signal is oversampled and includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, the number of subband samples in a subband signal is smaller than the number of input samples; and a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the filtering of the reverberation filter having an all-pass characteristic, the reverberation filter being operative to apply a delay to each subband signal and being adapted to have different sets of filter coefficients for each subband signal, wherein the plurality of reverberated subband signals together represent the decorrelation signal.
A probe for photoacoustic measurement comprising: two light emission units adapted to emit measurement light to a subject (M); and a transducer array adapted to detect a photoacoustic wave generated in the subject (M) by the emission of the measurement light, wherein emission end surfaces of the light emission units are positioned to a side where the transducer array is located, with respect to a contact plane of the probe , and the two light emission units are disposed on both sides of the transducer array in an elevation direction so as to face each other with the transducer array sandwiched therebetween and the two light emission units are disposed separately from the contact plane including a detection surface of the transducer array such that the light emission units are placed at a distance from the subject, an optical axis in each of the emission end surfaces is inclined to a side opposite to the side on which the transducer array is positioned with respect to a normal direction of the detection surface of the transducer array . two light emission units adapted to emit measurement light to a subject (M); and a transducer array adapted to detect a photoacoustic wave generated in the subject (M) by the emission of the measurement light, wherein emission end surfaces of the light emission units are positioned to a side where the transducer array is located, with respect to a contact plane of the probe , and the two light emission units are disposed on both sides of the transducer array in an elevation direction so as to face each other with the transducer array sandwiched therebetween and the two light emission units are disposed separately from the contact plane including a detection surface of the transducer array such that the light emission units are placed at a distance from the subject, an optical axis in each of the emission end surfaces is inclined to a side opposite to the side on which the transducer array is positioned with respect to a normal direction of the detection surface of the transducer array .
A method for operating a ventilation device for an area, wherein exhaust air is removed from the area during a ventilation process by means of the ventilation device at a certain exhaust air mass flow rate, and/or ambient air is removed from the outside environment at a certain ambient air mass flow rate and is supplied to the area in the form of supply air, wherein an exhaust air relative humidity and an exhaust air temperature of the exhaust air as well as an ambient air temperature of the ambient air are measured, characterised in that an ambient air temperature threshold value is determined from the exhaust air relative humidity, the exhaust air temperature, as well as a constant and manually predeterminable assumed ambient air relative humidity by means of the equation θ AU , max = θ 1 ln x AB − θ 2 wherein θ 1 is a constant first temperature variable, x AB is an absolute humidity of the exhaust air determined from the exhaust air relative humidity and the exhaust air temperature, and θ 2 is a second temperature variable determined from the assumed ambient air relative humidity, wherein the exhaust air mass flow rate and/or the ambient air mass flow rate are/is increased when the exhaust air relative humidity exceeds an exhaust air relative humidity threshold value and the ambient air temperature is smaller than the ambient air temperature threshold value.
A method of managing a cellular radio network, the method comprising: an access node (100-A; 500; 1000) controlling switching of a further access node (100-B, 100-C; 700; 1000) to an energy saving mode; the access node (100-A; 500; 1000) monitoring energy consumption of the access node (100-A; 500; 1000); the access node (100-A; 500; 1000) receiving a report from the further access node (100-B, 100-C; 700; 1000), the report indicating energy consumption of the further access node (100-B, 100-C; 700; 1000) while the further access node (100-B, 100-C; 700; 1000) was in the energy saving mode; and based on the monitored energy consumption of the access node (100-A; 500; 1000) and the indicated energy consumption of the further access node (100-B, 100-C; 700; 1000), the access node (100-A; 500; 1000) determining energy saving information representing energy saving associated with said switching of the further access node (100-B, 100-C; 700; 1000) to the energy saving mode. an access node (100-A; 500; 1000) controlling switching of a further access node (100-B, 100-C; 700; 1000) to an energy saving mode; the access node (100-A; 500; 1000) monitoring energy consumption of the access node (100-A; 500; 1000); the access node (100-A; 500; 1000) receiving a report from the further access node (100-B, 100-C; 700; 1000), the report indicating energy consumption of the further access node (100-B, 100-C; 700; 1000) while the further access node (100-B, 100-C; 700; 1000) was in the energy saving mode; and based on the monitored energy consumption of the access node (100-A; 500; 1000) and the indicated energy consumption of the further access node (100-B, 100-C; 700; 1000), the access node (100-A; 500; 1000) determining energy saving information representing energy saving associated with said switching of the further access node (100-B, 100-C; 700; 1000) to the energy saving mode.
Device for creating functional 3D models consisting of a casing of the device which houses an extruder and a drive mechanism, as well as display units and control units, all interconnected, wherein the casing of the device is provided with a mechanism for inserting and fastening individual attachments on its front side, characterised in that , each attachment is provided with a chip for transmitting information to a connector located on the casing of the device.
A device for measuring a length of a wear indicator on a brake assembly , the device comprising: a plurality of bearings configured to move based on contact with the wear indicator ; a sensor configured to detect a displacement of the plurality of bearings ; processing circuitry configured to determine the length of the wear indicator based on the displacement of the plurality of bearings detected by the sensor ; a measurement tube including a track and an opening , wherein the opening is configured to receive the wear indicator ; and a spring configured to compress in response to inserting the wear indicator into the measurement tube , wherein the spring and plurality of bearings are configured to move along the track. a plurality of bearings configured to move based on contact with the wear indicator ; a sensor configured to detect a displacement of the plurality of bearings ; processing circuitry configured to determine the length of the wear indicator based on the displacement of the plurality of bearings detected by the sensor ; a measurement tube including a track and an opening , wherein the opening is configured to receive the wear indicator ; and a spring configured to compress in response to inserting the wear indicator into the measurement tube , wherein the spring and plurality of bearings are configured to move along the track.