mhurhangee/ep-ind-claims huggingface dataset:
Method for calibrating a spectroradiometer, comprising the following method steps: - recording light measurement data by measuring the radiation from at least one standard light source by means of the spectroradiometer to be calibrated, - deriving calibration data from the light measurement data by comparing the recorded light measurement data with known data of the standard light source, and - calibrating the spectroradiometer in accordance with the calibration data, wherein - the standard light source is calibrated on the basis of one or more industry-standard light sources, at the latest after expiry of a predetermined time interval, characterised in that the validity, i.e. the usability, of the standard light source for the calibration is checked by virtue of - the light measurement data of the standard light source being compared to light measurement data of one or more further standard light sources of the same type, wherein the validity of the standard light source is determined if the deviations of the light measurement data of the standard light sources from one another lie below predetermined thresholds, and wherein otherwise the standard light source is calibrated earlier, i.e. before expiry of the predetermined time interval. - recording light measurement data by measuring the radiation from at least one standard light source by means of the spectroradiometer to be calibrated, - deriving calibration data from the light measurement data by comparing the recorded light measurement data with known data of the standard light source, and - calibrating the spectroradiometer in accordance with the calibration data, wherein - the standard light source is calibrated on the basis of one or more industry-standard light sources, at the latest after expiry of a predetermined time interval, - the light measurement data of the standard light source being compared to light measurement data of one or more further standard light sources of the same type, wherein the validity of the standard light source is determined if the deviations of the light measurement data of the standard light sources from one another lie below predetermined thresholds, and wherein otherwise the standard light source is calibrated earlier, i.e. before expiry of the predetermined time interval.
A power supply device, comprising: a chassis; a control board, disposed in the chassis; an input connector, disposed in the chassis and electrically connected to the control board; an output connector, disposed in the chassis and electrically connected to the control board; a fan module, disposed in the chassis, comprising a fan frame and a fan connector disposed on an outer surface thereof; a flexible printed circuit board, comprising a conducting section, a fan connecting section and a lighting connecting section, one end of the conducting section electrically connected to the control board, another end of the conducting section electrically connected to the fan connecting section and the lighting connecting section, and the fan connecting section electrically connected to the fan connector; a light-guiding handle, coupled to the chassis; and a lighting component, disposed on the lighting connecting section and facing the light-guiding handle. a chassis; a control board, disposed in the chassis; an input connector, disposed in the chassis and electrically connected to the control board; an output connector, disposed in the chassis and electrically connected to the control board; a fan module, disposed in the chassis, comprising a fan frame and a fan connector disposed on an outer surface thereof; a flexible printed circuit board, comprising a conducting section, a fan connecting section and a lighting connecting section, one end of the conducting section electrically connected to the control board, another end of the conducting section electrically connected to the fan connecting section and the lighting connecting section, and the fan connecting section electrically connected to the fan connector; a light-guiding handle, coupled to the chassis; and a lighting component, disposed on the lighting connecting section and facing the light-guiding handle.
A photocatalytic dissociation device of an aqueous phase for producing gaseous hydrogen, said device being arranged such that at least one photocatalytic system in contact with said aqueous phase can be irradiated by a light source for producing, through an oxidation reaction of said aqueous phase, at the level of a means for capturing electrons, gaseous oxygen, electrons and protons, said device comprising: - a first zone comprising said aqueous phase, and - a means for reducing said protons arranged to carry out a reaction for reducing said protons by said electrons in order to produce gaseous hydrogen, said means for reducing protons is a proton exchange interface having a front side facing said means for capturing electrons and a back side, said back side of said proton exchange interface comprising at least one catalyst and/or at least one catalytic system, said device being characterised in that said proton exchange interface constitutes a separation between said first zone comprising said aqueous phase and a second non-aqueous zone, said separation is a separation that does not allow said aqueous phase to pass but allows the protons to pass to said second non-aqueous zone. - a first zone comprising said aqueous phase, and - a means for reducing said protons arranged to carry out a reaction for reducing said protons by said electrons in order to produce gaseous hydrogen,
An internal combustion engine equipped with a device for purifying exhaust gas, a supercharger and a control unit effecting the supercharging in the operation at a lean air-fuel ratio, wherein a NOx occluding and reducing catalyst is arranged in the exhaust gas passage of the engine, occludes the NOx in the exhaust gas by absorption, adsorption or both when the exhaust gas flowing in has a lean air-fuel ratio, and reduces and purifies the occluded NOx when the exhaust gas flowing in has the stoichiometric air-fuel ratio or a rich air-fuel ratio; wherein when the engine is in operation at a lean air-fuel ratio, a rich spike operation is executed by changing the engine operating air-fuel ratio over to a rich air-fuel ratio for a short period of time to supply the exhaust gas of the rich air-fuel ratio to the NOx occluding and reducing catalyst, in order to reduce and purify the NOx occluded by the NOx occluding and reducing catalyst; characterized in that when the supercharged pressure of the engine becomes higher than a predetermined value at which blow-by occurs at the NOx occluding and reducing catalyst, the richness degree of the engine operating air-fuel ratio during the rich spike operation is varied in accordance with the supercharged pressure of the engine. a NOx occluding and reducing catalyst is arranged in the exhaust gas passage of the engine, occludes the NOx in the exhaust gas by absorption, adsorption or both when the exhaust gas flowing in has a lean air-fuel ratio, and reduces and purifies the occluded NOx when the exhaust gas flowing in has the stoichiometric air-fuel ratio or a rich air-fuel ratio; wherein when the engine is in operation at a lean air-fuel ratio, a rich spike operation is executed by changing the engine operating air-fuel ratio over to a rich air-fuel ratio for a short period of time to supply the exhaust gas of the rich air-fuel ratio to the NOx occluding and reducing catalyst, in order to reduce and purify the NOx occluded by the NOx occluding and reducing catalyst; characterized in that when the supercharged pressure of the engine becomes higher than a predetermined value at which blow-by occurs at the NOx occluding and reducing catalyst, the richness degree of the engine operating air-fuel ratio during the rich spike operation is varied in accordance with the supercharged pressure of the engine.
A refrigerating device, comprising: a cabinet defining a compartment and comprising a rear panel, an inner wall of the compartment defining an air permeable hole; a condenser disposed to the rear panel; and a dehumidifying device configured to remove moisture in air, and comprising a casing and a dehumidifying assembly disposed in the casing, the casing defining a first air through hole and a second air through hole in communication with the casing respectively, the first air through hole being communicated with the air permeable hole via an air communication assembly, and the second air through hole being communicated with an external environment; characterised in that the casing is disposed to the rear panel and located outside the cabinet. a cabinet defining a compartment and comprising a rear panel, an inner wall of the compartment defining an air permeable hole; a condenser disposed to the rear panel; and a dehumidifying device configured to remove moisture in air, and comprising a casing and a dehumidifying assembly disposed in the casing, the casing defining a first air through hole and a second air through hole in communication with the casing respectively, the first air through hole being communicated with the air permeable hole via an air communication assembly, and the second air through hole being communicated with an external environment; characterised in that the casing is disposed to the rear panel and located outside the cabinet.
A biological signal display apparatus comprising: a stimulation unit which performs stimulation on a living body; a measurement unit which measures an evoked response evoked by the stimulations; a calculator which calculates a feature amount of each kind of the evoked response for each simulation; a display unit; and a display controller which displays on the display unit one or more bar-shaped images, each of the bar-shaped images displays the value of the feature amount corresponding to one kind of evoked response of the current stimulation, each time when the stimulation is performed, by stacking a plurality of laterally rectangular segments characterized in that the display controller is adapted to: display and hold, as a single laterally rectangular segment, at least one of: a maximum value of the feature amount; a minimum value of the feature amount; and a value of the feature amount of the evoked response of the previous stimulation; and display simultaneously, the at least one held value of the feature amount and the value of the feature amount of the second stimulation, correspondingly with the kind of the evoked response on the display unit. a stimulation unit which performs stimulation on a living body; a measurement unit which measures an evoked response evoked by the stimulations; a calculator which calculates a feature amount of each kind of the evoked response for each simulation; a display unit; and a display controller which displays on the display unit one or more bar-shaped images, each of the bar-shaped images displays the value of the feature amount corresponding to one kind of evoked response of the current stimulation, each time when the stimulation is performed, by stacking a plurality of laterally rectangular segments display and hold, as a single laterally rectangular segment, at least one of: a maximum value of the feature amount; a minimum value of the feature amount; and a value of the feature amount of the evoked response of the previous stimulation; and display simultaneously, the at least one held value of the feature amount and the value of the feature amount of the second stimulation, correspondingly with the kind of the evoked response on the display unit.
A solid-state imaging device, comprising: a plurality of pixels arranged in a matrix form, each pixel including a photoelectric converter that converts received light into a signal charge, and a first transfer electrode that accumulates and transfers the signal charge read out from the photoelectric converter, and a control line connected in common to the first transfer electrodes of the pixels in a row, the solid-state imaging device being characterized in that one or more of the plurality of pixels in a row are "floating diffusion layer-including pixels" each having a floating diffusion layer that accumulates the transferred signal charge, and one or more of the plurality of pixels in a row adjacent to the row of the floating diffusion layer-including pixels are "second pixels" not having a floating diffusion layer, and in that the control line is connected in common to each of the first transfer electrodes of the floating diffusion layer-including pixels and to the second pixel arranged in a column and sharing the floating diffusion layer with the floating diffusion layer-including pixel. a plurality of pixels arranged in a matrix form, each pixel including a photoelectric converter that converts received light into a signal charge, and a first transfer electrode that accumulates and transfers the signal charge read out from the photoelectric converter, and a photoelectric converter that converts received light into a signal charge, and a first transfer electrode that accumulates and transfers the signal charge read out from the photoelectric converter, and a control line connected in common to the first transfer electrodes of the pixels in a row, the solid-state imaging device being characterized in that one or more of the plurality of pixels in a row are "floating diffusion layer-including pixels" each having a floating diffusion layer that accumulates the transferred signal charge, and one or more of the plurality of pixels in a row adjacent to the row of the floating diffusion layer-including pixels are "second pixels" not having a floating diffusion layer, and in that the control line is connected in common to each of the first transfer electrodes of the floating diffusion layer-including pixels and to the second pixel arranged in a column and sharing the floating diffusion layer with the floating diffusion layer-including pixel.
A method in an eNodeB for adapting link for downlink transmission in type-II relay network, said type-II relay network comprises the eNodeB, one or more relay nodes and a plurality of User Equipments, UE, the method comprises the steps of: - classifying the plurality of UEs into two groups: macro-UEs which are served directly by the eNodeB without the help of the one or more relay nodes, and relay-UEs which are served by the eNodeB and the one or more relay nodes; and - adapting link for the macro-UEs and the relay-UEs separately, characterized in that, the step of adapting link for the relay-UEs comprises: creating a UE list to indicate the association between each of the relay-UEs and its serving relay node, and signaling this list to the one or more relay nodes. - classifying the plurality of UEs into two groups: macro-UEs which are served directly by the eNodeB without the help of the one or more relay nodes, and relay-UEs which are served by the eNodeB and the one or more relay nodes; and - adapting link for the macro-UEs and the relay-UEs separately, characterized in that, the step of adapting link for the relay-UEs comprises: creating a UE list to indicate the association between each of the relay-UEs and its serving relay node, and signaling this list to the one or more relay nodes.
A method of focusing a camera monitoring a scene, the camera being operable in a day mode and in a night mode, wherein an infrared, IR, cut filter blocks IR light from reaching the camera in the day mode, and allows IR light to reach the camera in the night mode, wherein the method comprises i) receiving input on whether the camera is operated in the day mode or the night mode, ii) selecting (204, 206) a focusing day mode if the camera is operated in the day mode and a focusing night mode if the camera is operated in the night mode, wherein a) the focusing day mode comprises controlling an IR laser range meter to continuously measure a reference distance, and b) the focusing night mode comprises controlling the IR laser range meter to only measure the reference distance in response to a focus trigger signal being activated, and during a predetermined time period, iii) setting the focus distance of the camera based on the measured reference distance. i) receiving input on whether the camera is operated in the day mode or the night mode, ii) selecting (204, 206) a focusing day mode if the camera is operated in the day mode and a focusing night mode if the camera is operated in the night mode, wherein a) the focusing day mode comprises controlling an IR laser range meter to continuously measure a reference distance, and b) the focusing night mode comprises controlling the IR laser range meter to only measure the reference distance in response to a focus trigger signal being activated, and during a predetermined time period, a) the focusing day mode comprises controlling an IR laser range meter to continuously measure a reference distance, and b) the focusing night mode comprises controlling the IR laser range meter to only measure the reference distance in response to a focus trigger signal being activated, and during a predetermined time period, iii) setting the focus distance of the camera based on the measured reference distance.
A vertical take-off and landing aircraft comprising: a fuselage; at least one wing connected to the fuselage; a plurality of rotors connected to the at least one wing for providing lift for vertical take-off and landing of the aircraft; a plurality of proprotors connected to the at least one wing and tiltable between lift configurations for providing lift for vertical take-off and landing of the aircraft and propulsion configurations for providing forward thrust to the aircraft; wherein each rotor of the plurality of rotors is fixed in position; and characterised in that: a first proprotor of the plurality of proprotors is canted relative to a second proprotor of the plurality of proprotors such that a rotational axis of the first proprotor is non-parallel with a rotational axis of the second proprotor. a fuselage; at least one wing connected to the fuselage; a plurality of rotors connected to the at least one wing for providing lift for vertical take-off and landing of the aircraft; a plurality of proprotors connected to the at least one wing and tiltable between lift configurations for providing lift for vertical take-off and landing of the aircraft and propulsion configurations for providing forward thrust to the aircraft; wherein each rotor of the plurality of rotors is fixed in position; and characterised in that: a first proprotor of the plurality of proprotors is canted relative to a second proprotor of the plurality of proprotors such that a rotational axis of the first proprotor is non-parallel with a rotational axis of the second proprotor.
A respiratory assistance apparatus configured to provide a heated and humidified gases stream comprising a binary gas mixture of atmospheric air blended with supplemental oxygen, the apparatus comprising: a gases inlet or inlets configured to receive atmospheric air; a supplemental gas connection inlet configured to receive a supply of oxygen from a supplemental gas supply for blending with the atmospheric air to form a gases stream comprising the binary gas mixture, and a valve operable to alter or modify the flow rate of the supply of supplemental oxygen; a blower unit configured to pressurise the gases stream; a humidification unit configured to heat and humidify the gases stream; a gases outlet for the gases stream; a flow path for the gases stream through the respiratory assistance apparatus from the gases inlet(s) (22, 24) through the blower unit and humidification unit to the gases outlet; a sensor assembly comprising an ultrasound gas composition sensor system for sensing the oxygen concentration of the gases stream comprising the binary gas mixture; a controller operatively connected to the sensor assembly and which generates a representative oxygen concentration signal indicative of the oxygen fraction of the binary gas mixture; and wherein the controller is configured to adjust the valve based on the oxygen concentration signal. a gases inlet or inlets configured to receive atmospheric air; a supplemental gas connection inlet configured to receive a supply of oxygen from a supplemental gas supply for blending with the atmospheric air to form a gases stream comprising the binary gas mixture, and a valve operable to alter or modify the flow rate of the supply of supplemental oxygen; a blower unit configured to pressurise the gases stream; a humidification unit configured to heat and humidify the gases stream; a gases outlet for the gases stream; a flow path for the gases stream through the respiratory assistance apparatus from the gases inlet(s) (22, 24) through the blower unit and humidification unit to the gases outlet; a sensor assembly comprising an ultrasound gas composition sensor system for sensing the oxygen concentration of the gases stream comprising the binary gas mixture; a controller operatively connected to the sensor assembly and which generates a representative oxygen concentration signal indicative of the oxygen fraction of the binary gas mixture; and wherein the controller is configured to adjust the valve based on the oxygen concentration signal.
Electronic airbag ignition circuit, comprising - a first and a second input (11, 12) for electrically conductive connection to the poles of an energy store, - a first and a second output (15, 16) for electrically conductive connection to a first and a second terminal of a magnetic actuator, - a first switching means, the switching path of which is electrically conductively connected to the first input and the first output, - a second switching means, the switching path of which is electrically conductively connected to the second input and the second output, - a second second drive circuit, which is electrically conductively connected to a control terminal of the second switching means, characterized in that the second drive circuit is configured, in a first trigger mode, to close the second switching means for a first predetermined duration and, in a second trigger mode, to close the second switching means for a second predetermined duration that is different from the first duration, wherein, in the first trigger mode, the second switching means is operated when the flow of current through the switching path of the second switching means at the moment of airbag ignition corresponds to a short-circuit current that flows through the electronic airbag ignition circuit in the event of a short circuit. - a first and a second input (11, 12) for electrically conductive connection to the poles of an energy store, - a first and a second output (15, 16) for electrically conductive connection to a first and a second terminal of a magnetic actuator, - a first switching means, the switching path of which is electrically conductively connected to the first input and the first output, - a second switching means, the switching path of which is electrically conductively connected to the second input and the second output, - a second second drive circuit, which is electrically conductively connected to a control terminal of the second switching means,