mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: a camera ; an image analysis module comprising an input adapted to receive image data representing light captured by the camera , the camera having an exposure time and the light being captured over a sequence of exposures each lasting for an instance of the exposure time, the image analysis module being adapted to detect a coded light component modulated into the light with a modulation frequency, there being a frequency blind spot in said detection due to an effect of said exposure time; a controller comprising an output adapted to control one or more parameters of the camera which vary a length of the exposure time; the device characterized in that : the controller is configured to control the one or more parameters to avoid that the modulation frequency corresponds to the frequency blind spot, wherein the controller is configured to perform said control by: varying the one or more parameters to try out two or more different lengths of the exposure time, and operating the image analysis module to attempt said detection under each of the different lengths of the exposure time. a camera ; an image analysis module comprising an input adapted to receive image data representing light captured by the camera , the camera having an exposure time and the light being captured over a sequence of exposures each lasting for an instance of the exposure time, the image analysis module being adapted to detect a coded light component modulated into the light with a modulation frequency, there being a frequency blind spot in said detection due to an effect of said exposure time; a controller comprising an output adapted to control one or more parameters of the camera which vary a length of the exposure time; the device characterized in that : the controller is configured to control the one or more parameters to avoid that the modulation frequency corresponds to the frequency blind spot, wherein the controller is configured to perform said control by: varying the one or more parameters to try out two or more different lengths of the exposure time, and operating the image analysis module to attempt said detection under each of the different lengths of the exposure time. the controller is configured to control the one or more parameters to avoid that the modulation frequency corresponds to the frequency blind spot, wherein the controller is configured to perform said control by: varying the one or more parameters to try out two or more different lengths of the exposure time, and operating the image analysis module to attempt said detection under each of the different lengths of the exposure time.
High-pressure pump for a direct injection system of liquid fuel for a motor vehicle, comprising a pump body comprising an inlet of liquid fuel at low pressure, an outlet of liquid fuel at high pressure and a compression chamber provided with a plunger movable in translation in the pump body and connecting the inlet of liquid fuel at low pressure to the outlet of liquid fuel at high pressure, characterized in that the high pressure pump comprises at least one intermediate piston delimiting with the plunger an intermediate chamber of variable volume, said intermediate piston being of generally cylindrical shape, concentric with the plunger and guided in translation on the latter .
A composition for cleaning a combustion engine system, wherein the composition comprises: a lubricant having a flash point, measured according to ASTM D93, of less than 80°C, wherein the lubricant is odourless kerosene; xylene; butyl acetate; and methoxy propanol, wherein the composition comprises 5 to 15% by volume lubricant, 40 to 60% by volume xylene, 10 to 30% by volume butyl acetate, and 10 to 30% by volume methoxy propanol. a lubricant having a flash point, measured according to ASTM D93, of less than 80°C, wherein the lubricant is odourless kerosene; xylene; butyl acetate; and methoxy propanol, wherein the composition comprises 5 to 15% by volume lubricant, 40 to 60% by volume xylene, 10 to 30% by volume butyl acetate, and 10 to 30% by volume methoxy propanol.
A mixture comprising 22.0 to 32.0 wt.% of water and 15 to 19 wt.% of 3,4-dimethylpyrazole, based on the total mixture that adds up to 100 wt.%, and phosphoric acid in a molar ratio to 3,4-dimethylpyrazole of at least 2:1.
An encoding apparatus, comprising: an image changing section configured to divide an image into a plurality of division regions and generate a plurality of division images (11-13, 41-43) including the respective division regions; an encoding section configured to encode the plurality of division images (11-13, 41-43) generated by the image changing section and the image as a plurality of access units and to generate a plurality of encoded streams corresponding to the plurality of access units; and a setting section configured to set non-display information indicating that a decoded division image (41-43) obtained by decoding an encoded stream from the plurality of encoded streams corresponding to an access unit other than a final access unit, which corresponds to the image , from among the plurality of encoded streams of the plurality of access units generated by the encoding section is not to be displayed; characterized in that the encoding section is configured such that, where a difference in pixel values between the image and a previous image preceding the image by one frame is greater than a threshold value, the encoding section divides the image into the plurality of access units and then encodes the plurality of access units. an image changing section configured to divide an image into a plurality of division regions and generate a plurality of division images (11-13, 41-43) including the respective division regions; an encoding section configured to encode the plurality of division images (11-13, 41-43) generated by the image changing section and the image as a plurality of access units and to generate a plurality of encoded streams corresponding to the plurality of access units; and a setting section configured to set non-display information indicating that a decoded division image (41-43) obtained by decoding an encoded stream from the plurality of encoded streams corresponding to an access unit other than a final access unit, which corresponds to the image , from among the plurality of encoded streams of the plurality of access units generated by the encoding section is not to be displayed; characterized in that the encoding section is configured such that, where a difference in pixel values between the image and a previous image preceding the image by one frame is greater than a threshold value, the encoding section divides the image into the plurality of access units and then encodes the plurality of access units.
An air conditioning indoor unit comprising an airflow direction adjusting blade configured to adjust an airflow direction of blow-out air, wherein the airflow direction adjusting blade is configured to be in a state where the airflow direction adjusting blade allows cool air to flow along one of an upper surface and a lower surface, the airflow direction adjusting blade includes a heat insulator filled with gas or a heat insulating material, a blade member surrounding the heat insulator and constituting an outer contour, and a concave portion provided in least one of an upstream-side end and a downstream-side end of the blade member in a flow direction of the blow-out air and formed by reducing a thickness of the blade member in the surface followed by the blow-out air, wherein the blade member has a surface followed by the blow-out air and cooled by cool air during a cooling operation, and the concave portion is configured to inhibit heat transfer, characterized in that the concave portion has a minimum thickness set to be within a range from 40% to 65% of the thickness of the blade member excluding the concave portion . the airflow direction adjusting blade is configured to be in a state where the airflow direction adjusting blade allows cool air to flow along one of an upper surface and a lower surface, the airflow direction adjusting blade includes a heat insulator filled with gas or a heat insulating material, a blade member surrounding the heat insulator and constituting an outer contour, and a concave portion provided in least one of an upstream-side end and a downstream-side end of the blade member in a flow direction of the blow-out air and formed by reducing a thickness of the blade member in the surface followed by the blow-out air, wherein the blade member has a surface followed by the blow-out air and cooled by cool air during a cooling operation, and the concave portion is configured to inhibit heat transfer, characterized in that the concave portion has a minimum thickness set to be within a range from 40% to 65% of the thickness of the blade member excluding the concave portion .
A dual-color laser light source, wherein, the laser light source comprises a first blue laser transmitter , a second blue laser transmitter , a first red laser transmitter , a second red laser transmitter , a fluorescent wheel , a light collecting component and a light combining component , wherein the fluorescent wheel is provided with a green fluorescent region and a transmission region, and wherein the second red laser transmitter and the second blue laser transmitter are arranged on a same side of the fluorescent wheel ; the light combining component is arranged on light path between the first blue laser transmitter and the fluorescent wheel ; the fluorescent wheel is arranged on light path between the light combining component and the second blue laser transmitter ; the light collecting component and the first red laser transmitter are respectively arranged on both sides of the light combining component ; the light combining component is used to reflect a green fluorescence to the light collecting component , after receiving the green fluorescence generated by the first blue laser irradiating the green fluorescent region, and to transmit first blue laser emitted by the first blue laser transmitter to the fluorescent wheel ; the light combining component is also used to receive a first red laser emitted by the first red laser transmitter , and to transmit the first red laser to the light collecting component ; the light combining component is also used to reflect a second red laser to the light collecting component , wherein the second red laser is emitted by the second red laser transmitter and transmitted through the transmission region; wherein, a polarization direction of the first red laser is perpendicular to a polarization direction of the second red laser.
A method for transmission using an interface, applied to an interface variable device , wherein the method comprises the following steps performed by the interface variable device: obtaining a byte block stream, wherein byte blocks in the byte block stream are of a predetermined byte length; determining a timeslot size of timeslots and a quantity of timeslots in one timeslot period based on a transmission rate requirement of an interface type configured for the interface; mapping the byte block stream to corresponding timeslots based on the determined timeslot size and quantity of timeslots, wherein each timeslot corresponds to one byte block; distributing the byte block stream mapped to the timeslots; processing the distributed byte block stream based on the interface type configured for the interface, wherein the processing comprises: determining overhead information and an overhead block format based on the interface type, wherein the overhead information is used to indicate an insertion interval of an overhead block and a quantity of overhead blocks to be inserted each time, and performing overhead processing on the distributed byte block stream based on the overhead information and the overhead block format; and sending the processed byte block stream. wherein the method comprises the following steps performed by the interface variable device: obtaining a byte block stream, wherein byte blocks in the byte block stream are of a predetermined byte length; determining a timeslot size of timeslots and a quantity of timeslots in one timeslot period based on a transmission rate requirement of an interface type configured for the interface; mapping the byte block stream to corresponding timeslots based on the determined timeslot size and quantity of timeslots, wherein each timeslot corresponds to one byte block; distributing the byte block stream mapped to the timeslots; processing the distributed byte block stream based on the interface type configured for the interface, wherein the processing comprises: determining overhead information and an overhead block format based on the interface type, wherein the overhead information is used to indicate an insertion interval of an overhead block and a quantity of overhead blocks to be inserted each time, and performing overhead processing on the distributed byte block stream based on the overhead information and the overhead block format; and sending the processed byte block stream.
Working center (C), for workpieces to be worked made in wood, ceramic, plastic, metal, glass, fiberglass and the like, comprising: a base for standing on the ground; a working plane coupled to said base comprising a plurality of supporting bars , for supporting said workpieces; a working unit movable along said base ; said working center (C) being characterized in that it comprises: taking and moving means movable along said base ; at least one multifunction plane module (4 a, b, k, ..., n ) comprising interface means for coupling with said taking and moving means , so that said at least one multifunction plane module (4 a, b, k, ..., n ) moves from a rest position to a working position, in which it is arranged above said plurality of supporting bars , to form a continuous multifunction plane. a base for standing on the ground; a working plane coupled to said base comprising a plurality of supporting bars , for supporting said workpieces; a working unit movable along said base ; said working center (C) being characterized in that it comprises: taking and moving means movable along said base ; at least one multifunction plane module (4 a, b, k, ..., n ) comprising interface means for coupling with said taking and moving means , so that said at least one multifunction plane module (4 a, b, k, ..., n ) moves from a rest position to a working position, in which it is arranged above said plurality of supporting bars , to form a continuous multifunction plane. taking and moving means movable along said base ; at least one multifunction plane module (4 a, b, k, ..., n ) comprising interface means for coupling with said taking and moving means , so that said at least one multifunction plane module (4 a, b, k, ..., n ) moves from a rest position to a working position, in which it is arranged above said plurality of supporting bars , to form a continuous multifunction plane.
A method for controlling the operation of a spark ignition internal combustion engine , wherein the engine 100) comprises: - a combustion chamber , - an intake duct suitable to place the combustion chamber in communication with the external, - a throttle valve arranged in the intake duct , - a carburettor suitable to introduce fuel into the intake duct to form an air and fuel mixture intended to be intaken into the combustion chamber , and - a spark plug arranged inside the combustion chamber to generate a spark suitable to ignite the combustion of the air and fuel mixture, the method comprises the steps of: - monitoring the opening degree (G) of the throttle valve , - monitoring the speed (V) of the engine , characterized in that the method further comprises the steps of: - preventing the spark plug from generating the spark, if the opening degree (G) of the throttle valve drops below a first opening degree threshold value (GM) and the speed (V) of the engine is greater than a first engine speed threshold value (VF) - adjusting the instant when the spark plug triggers the spark depending on the opening degree (G) of the throttle valve and the speed (V) of the engine , if the opening degree (G) of the throttle valve is comprised between a second and a third opening degree threshold value (GA, GC), wherein said second threshold value (GA) is below said third opening degree threshold value (GC), - monitoring the ionisation current in the combustion chamber and using the ionisation current to adjust the ratio between air and fuel in the mixture formed by the carburettor , if the opening degree (G) of the throttle valve exceeds said third opening degree threshold value (GC). - a combustion chamber , - an intake duct suitable to place the combustion chamber in communication with the external, - a throttle valve arranged in the intake duct , - a carburettor suitable to introduce fuel into the intake duct to form an air and fuel mixture intended to be intaken into the combustion chamber , and - a spark plug arranged inside the combustion chamber to generate a spark suitable to ignite the combustion of the air and fuel mixture, - monitoring the opening degree (G) of the throttle valve , - monitoring the speed (V) of the engine , - preventing the spark plug from generating the spark, if the opening degree (G) of the throttle valve drops below a first opening degree threshold value (GM) and the speed (V) of the engine is greater than a first engine speed threshold value (VF) - adjusting the instant when the spark plug triggers the spark depending on the opening degree (G) of the throttle valve and the speed (V) of the engine , if the opening degree (G) of the throttle valve is comprised between a second and a third opening degree threshold value (GA, GC), wherein said second threshold value (GA) is below said third opening degree threshold value (GC), - monitoring the ionisation current in the combustion chamber and using the ionisation current to adjust the ratio between air and fuel in the mixture formed by the carburettor , if the opening degree (G) of the throttle valve exceeds said third opening degree threshold value (GC).
A nicotine electronic vaping device comprising: a nicotine pod assembly including a nicotine reservoir to hold nicotine pre-vapor formulation, and a heater configured to vaporize nicotine pre-vapor formulation drawn from the nicotine reservoir; and a device body configured to engage with the nicotine pod assembly , the device body including a controller configured to detect a fault event at the nicotine electronic vaping device , classify the fault event as one of a plurality of types of fault events, and perform at least one consequent action based on the classification of the fault event. a nicotine pod assembly including a nicotine reservoir to hold nicotine pre-vapor formulation, and a heater configured to vaporize nicotine pre-vapor formulation drawn from the nicotine reservoir; and a device body configured to engage with the nicotine pod assembly , the device body including a controller configured to detect a fault event at the nicotine electronic vaping device , classify the fault event as one of a plurality of types of fault events, and perform at least one consequent action based on the classification of the fault event.
Method for pressing a press material mat during the process of producing wood based boards, more particularly fibreboards, in a continuous press, wherein the press comprises a press frame , at least one upper press plate and at least one lower press plate , wherein in order to adjust a press gap arranged between the press plates, the upper press plate and/or the lower press plate are acted upon by press cylinders supported at the press frame , wherein on the inlet side, the press plates form an inlet area in which the press material mat (M) entering into the press gap is compressed during a compression phase, characterised in that at least in the inlet area, the upper plate and/or the lower press plate is at least in parts lowered and raised in a cyclically pulsating manner so that by means of the press cylinders connected to the upper press plate and/or the lower press plate in the inlet area, the press material mat entering the inlet gap consecutively passes through several pulsating, varying compression phases and decompression phases, wherein in several compression phases, the press material mat is on multiple occasions cyclically compressed to nominal size or over-compressed to under nominal size and each time between the compression phases is unpressurised above nominal size in the decompression phases. wherein the press comprises a press frame , at least one upper press plate and at least one lower press plate , wherein in order to adjust a press gap arranged between the press plates, the upper press plate and/or the lower press plate are acted upon by press cylinders supported at the press frame , wherein on the inlet side, the press plates form an inlet area in which the press material mat (M) entering into the press gap is compressed during a compression phase, characterised in that at least in the inlet area, the upper plate and/or the lower press plate is at least in parts lowered and raised in a cyclically pulsating manner so that by means of the press cylinders connected to the upper press plate and/or the lower press plate in the inlet area, the press material mat entering the inlet gap consecutively passes through several pulsating, varying compression phases and decompression phases, wherein in several compression phases, the press material mat is on multiple occasions cyclically compressed to nominal size or over-compressed to under nominal size and each time between the compression phases is unpressurised above nominal size in the decompression phases.