mhurhangee/ep-ind-claims huggingface dataset:
A method for estimating a path-length difference between two paths followed by a signal transmitted by a spacecraft or aircraft, referred to as "target signal", to arrive respectively on a first receiving antenna and a second receiving antenna of a receiving base, said method comprising a step of measuring a phase difference, referred to as "useful phase difference", between signals corresponding to the target signal received respectively on the first receiving antenna and the second receiving antenna, and a step for estimating the path-length difference as a function of useful phase difference measurements, said method also comprising the steps of: - transmitting a signal, referred to as "calibration signal", to the receiving base, by means of a transmitting antenna, - measuring a phase difference, referred to as "calibration phase difference", between signals corresponding to the calibration signal received respectively on the first receiving antenna and the second receiving antenna, - compensating variations of the calibration phase difference measurements on the useful phase difference measurements and wherein the step of measuring the useful phase difference comprises either the correlation of the signals received respectively on the first receiving antenna and the second receiving antenna with a reference target signal, or the analysis of said signals received respectively on the first receiving antenna and the second receiving antenna by means of an FFT or of a PLL. - transmitting a signal, referred to as "calibration signal", to the receiving base, by means of a transmitting antenna, - measuring a phase difference, referred to as "calibration phase difference", between signals corresponding to the calibration signal received respectively on the first receiving antenna and the second receiving antenna, - compensating variations of the calibration phase difference measurements on the useful phase difference measurements
A furniture hinge, comprising a first stop part on the door side and a second stop part on the wall side, which are pivotably connected to each other by means of a support lever and a guide lever, wherein a spacer element is arranged between the two levers (4, 5) for limiting the opening angle of the furniture hinge, wherein the spacer element is arranged on the support lever and is formed as a variably adjustable limiter of the opening angle (α, β, γ) of the furniture hinge, characterized in that the spacer element, on its side facing the guide lever, comprises several wedge surfaces (64, 65, 66) formed as contact surfaces to the guide lever and having different wedge angles or a contact surface with a continuously rising contact surface, which is wound at least partly around the rotational axis.
A cellular structure comprising a plurality of interconnected cells (2, 5, 6) of fabric material, said cells (2, 5, 6) being formed from a single strip of fabric material folded back and forth on itself, adjacent parts of the strips being bonded to each other at spaced apart locations characterised in that said cells (2, 5, 6) are filled with (i) at least partially a composite fill material comprising a particulate material and a bonding agent, wherein the bonding agent bonds together the particulate material and/or bonds the composite fill material to the fabric material, wherein the composite fill material forms a base and/or upper fill layer for the cells (2, 5, 6); wherein ii) the rest of the cells are filled with another fill material which does not comprise a bonding agent. (i) at least partially a composite fill material comprising a particulate material and a bonding agent, wherein the bonding agent bonds together the particulate material and/or bonds the composite fill material to the fabric material, wherein the composite fill material forms a base and/or upper fill layer for the cells (2, 5, 6); wherein wherein the bonding agent bonds together the particulate material and/or bonds the composite fill material to the fabric material, wherein the composite fill material forms a base and/or upper fill layer for the cells (2, 5, 6); wherein ii) the rest of the cells are filled with another fill material which does not comprise a bonding agent.
A control device for a hydraulic machine including a plurality of hydraulic actuators (20, 21, 23, 24, 25) that are driven by oil ejected from a variable displacement type hydraulic pump driven by an engine, the control device being configured to: in driving each hydraulic actuator (20, 21, 23, 24, 25), control a flow rate of oil ejected from the hydraulic pump such that the flow rate satisfies a required flow rate (Q R) for the hydraulic actuator (20, 21, 23, 24, 25); and correct a target value (Rq) for a ratio (Q/Q R) of a supply flow rate to the required flow rate (Q R) for each hydraulic actuator (20, 21, 23, 24, 25), in accordance with a change in an engine rotation number, the plurality of hydraulic actuators (20, 21, 23, 24, 25) including a hydraulic motor (23, 24) for traveling of the hydraulic machine, the hydraulic motor (23, 24) being configured such that its capacity setting is switchable between at least two different capacity settings, characterized in that the control device being configured to correct the target value (Rq) for the ratio (Q/Q R) of the supply flow rate to the required flow rate (Q R) for each hydraulic actuator (20, 21, 23, 24, 25), in accordance with not only a change in the engine rotation number but also switching of the capacity of the hydraulic motor (24, 25). the control device being configured to: in driving each hydraulic actuator (20, 21, 23, 24, 25), control a flow rate of oil ejected from the hydraulic pump such that the flow rate satisfies a required flow rate (Q R) for the hydraulic actuator (20, 21, 23, 24, 25); and correct a target value (Rq) for a ratio (Q/Q R) of a supply flow rate to the required flow rate (Q R) for each hydraulic actuator (20, 21, 23, 24, 25), in accordance with a change in an engine rotation number, the plurality of hydraulic actuators (20, 21, 23, 24, 25) including a hydraulic motor (23, 24) for traveling of the hydraulic machine, the hydraulic motor (23, 24) being configured such that its capacity setting is switchable between at least two different capacity settings, characterized in that the control device being configured to correct the target value (Rq) for the ratio (Q/Q R) of the supply flow rate to the required flow rate (Q R) for each hydraulic actuator (20, 21, 23, 24, 25), in accordance with not only a change in the engine rotation number but also switching of the capacity of the hydraulic motor (24, 25).
A micro-extrusion printhead for a micro-extrusion system capable of printing parallel gridlines on a substrate such that the gridlines extend in a process direction, the printhead comprising: a printhead body defining a first input port and a second input port; a plurality of first nozzle channels (162-11 - 162-18) and a plurality of first outlet orifices, each first nozzle channel communicating between the first inlet port and an associated one of said first outlet orifices, and a second plurality of second nozzle channels (162-211, 162-212, 162-221, 162-222) and a plurality of second outlet orifices (169-211, 169-222, 169-221, 169-222), each second nozzle channel communicating between the second inlet port and an associated one of said second outlet orifices, characterised in that the first outlet orifices and the second outlet orifices being aligned in the cross-process direction, wherein the first outlet orifices are offset in the process direction from said second outlet orifices by an offset distance, wherein all of the first outlet orifices are disposed in a central cross-process region (X1C) of said printhead assembly, and wherein the second outlet orifices (169-211, 169-222, 169-221, 169-222) include at least two second outlet orifices disposed in a first cross-process side region (X2-51) and at least two second outlet orifices disposed in a second cross-process side region (X2-52), the first and second cross-process side regions being separated in the cross-process direction by said central cross-process region (X1C). a printhead body defining a first input port and a second input port; a plurality of first nozzle channels (162-11 - 162-18) and a plurality of first outlet orifices, each first nozzle channel communicating between the first inlet port and an associated one of said first outlet orifices, and a second plurality of second nozzle channels (162-211, 162-212, 162-221, 162-222) and a plurality of second outlet orifices (169-211, 169-222, 169-221, 169-222), each second nozzle channel communicating between the second inlet port and an associated one of said second outlet orifices, characterised in that the first outlet orifices and the second outlet orifices being aligned in the cross-process direction, wherein the first outlet orifices are offset in the process direction from said second outlet orifices by an offset distance, wherein all of the first outlet orifices are disposed in a central cross-process region (X1C) of said printhead assembly, and wherein the second outlet orifices (169-211, 169-222, 169-221, 169-222) include at least two second outlet orifices disposed in a first cross-process side region (X2-51) and at least two second outlet orifices disposed in a second cross-process side region (X2-52), the first and second cross-process side regions being separated in the cross-process direction by said central cross-process region (X1C).
A method,comprising: encoding a data packet to be transmitted from a source station to a destination station over a resource unit, hereinafter RU, in a wireless local area network; modulating encoded bits to a first set of modulated symbols using a first modulation scheme, and modulating the same encoded bits to a second set of modulated symbols using a second modulation scheme if dual carrier modulation, hereinafter DCM, is applied; mapping the first set of modulated symbols onto a first half of frequency subcarriers of the RU by a tone mapper, and mapping the second set of modulated symbols onto a second half of frequency subcarriers of the RU by the same tone mapper; and transmitting the data packet to the destination station, characterized in that the tone mapper is used for low density parity check, hereinafter LDPC, channel control coding; and using LDPC encoding for encoding the data packet. encoding a data packet to be transmitted from a source station to a destination station over a resource unit, hereinafter RU, in a wireless local area network; modulating encoded bits to a first set of modulated symbols using a first modulation scheme, and modulating the same encoded bits to a second set of modulated symbols using a second modulation scheme if dual carrier modulation, hereinafter DCM, is applied; mapping the first set of modulated symbols onto a first half of frequency subcarriers of the RU by a tone mapper, and mapping the second set of modulated symbols onto a second half of frequency subcarriers of the RU by the same tone mapper; and transmitting the data packet to the destination station, characterized in that the tone mapper is used for low density parity check, hereinafter LDPC, channel control coding; and using LDPC encoding for encoding the data packet.
A method for generating a thumbnail image in an electronic device, the method comprising: displaying an image being obtained via a camera as a preview through a display; in response to detecting an event for storing the displayed image, determining (505; 705) whether the image includes a person or an object representing a place; and in response to determining that the image includes a person, setting first coordinates (913, 915) defining a first area of the image including the person; and in response to determining that the image includes an object representing a place, setting second coordinates (907, 909) defining a second area of the image including the object representing the place; characterised in that if the image includes a person and an object representing a place, the method additionally comprises setting third coordinates (923, 925) defining a third area of the image including the first area and second area, and generating the thumbnail image according to the third coordinates (923, 925). displaying an image being obtained via a camera as a preview through a display; in response to detecting an event for storing the displayed image, determining (505; 705) whether the image includes a person or an object representing a place; and in response to determining that the image includes a person, setting first coordinates (913, 915) defining a first area of the image including the person; and in response to determining that the image includes an object representing a place, setting second coordinates (907, 909) defining a second area of the image including the object representing the place; characterised in that if the image includes a person and an object representing a place, the method additionally comprises setting third coordinates (923, 925) defining a third area of the image including the first area and second area, and generating the thumbnail image according to the third coordinates (923, 925).
A refrigerant composition consisting essentially of: carbon dioxide 10-35% an HFO selected from the group consisting of: R1234yf, R1234ze and mixtures thereof 45-85%; and R227ea 3-15% wherein the percentages are by mass and are selected from the ranges quoted to total 100%.
Use of oil based suspension concentrates containing a) 5 - 30 wt.-% of at least one agrochemical active compound which is solid at room temperature, based on the weight of the suspension concentrate, wherein the at least one agrochemical active compound a) is selected from the group of neonicotinyls or ketoenols, b) 10 - 55 wt.-% of at least one penetration enhancer, based on the weight of the suspension concentrate, c) 15 - 55 wt.-% of at least one vegetable oil or mineral oil or paraffin oil, based on the weight of the suspension concentrate, d) 2.5 - 30 wt.-% of at least one non-ionic surfactant or dispersing agent and / or at least one anionic surfactant or dispersing agent, based on the weight of the suspension concentrate, and e) optionally 0 - 25 wt.-% of one or more other additives for the reduction of the drift of a spray liquid obtained by diluting the oil based suspension concentrate with water during spray application. a) 5 - 30 wt.-% of at least one agrochemical active compound which is solid at room temperature, based on the weight of the suspension concentrate, wherein the at least one agrochemical active compound a) is selected from the group of neonicotinyls or ketoenols, b) 10 - 55 wt.-% of at least one penetration enhancer, based on the weight of the suspension concentrate, c) 15 - 55 wt.-% of at least one vegetable oil or mineral oil or paraffin oil, based on the weight of the suspension concentrate, d) 2.5 - 30 wt.-% of at least one non-ionic surfactant or dispersing agent and / or at least one anionic surfactant or dispersing agent, based on the weight of the suspension concentrate, and e) optionally 0 - 25 wt.-% of one or more other additives
A video encoding method for encoding symbols having a hierarchical structure, the video encoding method comprising: encoding a picture of a video based on data units having a hierarchical structure; determining,based on the data units having the hierarchical structure, symbols of the encoded picture; determining,based on characteristics of symbols, an encoding method of the symbols, the characteristics of the symbols being determined based on the data units having the hierarchical structure; and encoding and outputting the symbols according to the determined encoding method, characterised in that the determining of the encoding method comprises selectively determining a symbol encoding method from among a symbol reverse encoding mode and a non-reverse encoding mode; wherein in the symbol reverse encoding mode, symbol values of symbols of data units in a lowermost level are reversed and encoded; and wherein in the non-reverse encoding mode, symbol values of symbols of data units in a lowermost level are encoded without being reversed, and wherein the selectively determining is performed based on a ratio of symbol values that are 0 from among symbol values of the data units having the hierarchical structure. encoding a picture of a video based on data units having a hierarchical structure; determining,based on the data units having the hierarchical structure, symbols of the encoded picture; determining,based on characteristics of symbols, an encoding method of the symbols, the characteristics of the symbols being determined based on the data units having the hierarchical structure; and encoding and outputting the symbols according to the determined encoding method, characterised in that the determining of the encoding method comprises selectively determining a symbol encoding method from among a symbol reverse encoding mode and a non-reverse encoding mode; wherein in the symbol reverse encoding mode, symbol values of symbols of data units in a lowermost level are reversed and encoded; and wherein in the non-reverse encoding mode, symbol values of symbols of data units in a lowermost level are encoded without being reversed, and wherein the selectively determining is performed based on a ratio of symbol values that are 0 from among symbol values of the data units having the hierarchical structure.
Method for producing three-dimensional work pieces, the method comprising the following steps: - supplying gas to a process chamber accommodating a carrier and a powder application device, - applying a layer of raw material powder onto the carrier by means of the powder application device, - selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier by means of an irradiation device, - discharging gas containing particulate impurities from the process chamber by means of a conveying device, - filtering the particulate impurities from the gas stream discharged from the process chamber by means of a filter device, characterized by the steps of: - detecting an actual flow rate of the gas stream flowing through the process chamber, - comparing the detected actual flow rate with a predetermined set flow rate, and - controlling the conveying device in dependence on the result of the comparison between the detected actual flow rate and the predetermined set flow rate such that the detected actual flow rate converges to the predetermined set flow rate independent of an operational state of the filter device during selectively irradiating electromagnetic or particle radiation onto the raw material powder. - supplying gas to a process chamber accommodating a carrier and a powder application device, - applying a layer of raw material powder onto the carrier by means of the powder application device, - selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier by means of an irradiation device, - discharging gas containing particulate impurities from the process chamber by means of a conveying device, - filtering the particulate impurities from the gas stream discharged from the process chamber by means of a filter device, characterized by the steps of: - detecting an actual flow rate of the gas stream flowing through the process chamber, - comparing the detected actual flow rate with a predetermined set flow rate, and - controlling the conveying device in dependence on the result of the comparison between the detected actual flow rate and the predetermined set flow rate such that the detected actual flow rate converges to the predetermined set flow rate independent of an operational state of the filter device during selectively irradiating electromagnetic or particle radiation onto the raw material powder. - detecting an actual flow rate of the gas stream flowing through the process chamber, - comparing the detected actual flow rate with a predetermined set flow rate, and - controlling the conveying device in dependence on the result of the comparison between the detected actual flow rate and the predetermined set flow rate such that the detected actual flow rate converges to the predetermined set flow rate independent of an operational state of the filter device during selectively irradiating electromagnetic or particle radiation onto the raw material powder.
A light emitting device comprising: a conductive support substrate; a protection layer on the conductive support substrate, the protection layer having an inclined top surface; a light emitting structure layer comprising a first conductive type semiconductor layer, a second conductive type semiconductor layer, and an active layer between the first conductive type semiconductor layer and the second conductive type semiconductor layer on the conductive support substrate and the protection layer; an electrode on the light emitting structure layer; and a passivation layer on the light emitting structure layer and the protection layer, wherein a portion of the protection layer is disposed between the conductive support substrate and the light emitting structure layer, wherein the protection layer has a flat top surface at a portion which vertically overlaps the light emitting structure layer, the inclined top surface of the protection layer contacts the passivation layer, the inclined top surface of the protection layer is not vertically overlapped with the light emitting structure, the passivation layer has an inclined top surface at a portion vertically overlapping the inclined top surface of the protection layer, the inclined top surface of the protection layer has a height gradually decreasing toward the outside, the passivation layer is disposed on a side surface of the light emitting structure layer, and wherein a portion of the protection layer having the inclined top surface has a thickness gradually decreasing toward the outside. a conductive support substrate; a protection layer on the conductive support substrate, the protection layer having an inclined top surface; a light emitting structure layer comprising a first conductive type semiconductor layer, a second conductive type semiconductor layer, and an active layer between the first conductive type semiconductor layer and the second conductive type semiconductor layer on the conductive support substrate and the protection layer; an electrode on the light emitting structure layer; and a passivation layer on the light emitting structure layer and the protection layer, wherein a portion of the protection layer is disposed between the conductive support substrate and the light emitting structure layer, wherein the protection layer has a flat top surface at a portion which vertically overlaps the light emitting structure layer, the inclined top surface of the protection layer contacts the passivation layer, the inclined top surface of the protection layer is not vertically overlapped with the light emitting structure, the passivation layer has an inclined top surface at a portion vertically overlapping the inclined top surface of the protection layer, the inclined top surface of the protection layer has a height gradually decreasing toward the outside, the passivation layer is disposed on a side surface of the light emitting structure layer, and wherein a portion of the protection layer having the inclined top surface has a thickness gradually decreasing toward the outside.