mhurhangee/patent-ind-claim-en huggingface dataset:
An organic composite gas storage tank comprising: a hollow central portion which is substantially cylindrical and formed integrally with first and second end portions and which defines a longitudinal tank axis ; the first end portion comprising a hollow truncated conical region which meets the hollow central portion at a first end thereof, the outer and inner radii of the hollow truncated conical region decreasing in a direction along the longitudinal tank axis away from the hollow central portion; characterised by an organic fibre winding extending at least between first and second positions along the length of the tank which coincide with the hollow truncated conical region of the first end portion and the hollow cylindrical portion respectively, the organic fibre winding having windings in planes which are inclined to the longitudinal tank axis and in that the hollow truncated conical region of the firstend portion has a wall thickness, defined at a given position along the longitudinal tank axis by the difference between the outer and inner radii of the tank at that position, which decreases in a direction along the longitudinal tank axis away from the hollow central portion . a hollow central portion which is substantially cylindrical and formed integrally with first and second end portions and which defines a longitudinal tank axis ; the first end portion comprising a hollow truncated conical region which meets the hollow central portion at a first end thereof, the outer and inner radii of the hollow truncated conical region decreasing in a direction along the longitudinal tank axis away from the hollow central portion; characterised by an organic fibre winding extending at least between first and second positions along the length of the tank which coincide with the hollow truncated conical region of the first end portion and the hollow cylindrical portion respectively, the organic fibre winding having windings in planes which are inclined to the longitudinal tank axis and in that the hollow truncated conical region of the firstend portion has a wall thickness, defined at a given position along the longitudinal tank axis by the difference between the outer and inner radii of the tank at that position, which decreases in a direction along the longitudinal tank axis away from the hollow central portion .
A video signal processing apparatus, comprising: a first processing circuit section that includes a tone controller that imparts tone curve characteristics for tone adjustment to an input video signal having linear characteristics; and a second processing circuit section that includes a first curve characteristics imparting section that imparts, to the video signal processed by the first processing circuit section, first curve characteristics for output, and generates a first output video signal; wherein the second processing circuit section further includes a second curve characteristics imparting section that imparts, to the video signal processed by the first processing circuit section, second curve characteristics for output, and generates a second output video signal; wherein the first curve characteristics for output are one of curve characteristics for optical-electro transfer function (OETF) conversion and curve characteristics for display gamma processing, and the second curve characteristics for output are the other curve characteristics. a first processing circuit section that includes a tone controller that imparts tone curve characteristics for tone adjustment to an input video signal having linear characteristics; and a second processing circuit section that includes a first curve characteristics imparting section that imparts, to the video signal processed by the first processing circuit section, first curve characteristics for output, and generates a first output video signal; wherein the second processing circuit section further includes a second curve characteristics imparting section that imparts, to the video signal processed by the first processing circuit section, second curve characteristics for output, and generates a second output video signal; wherein the first curve characteristics for output are one of curve characteristics for optical-electro transfer function (OETF) conversion and curve characteristics for display gamma processing, and the second curve characteristics for output are the other curve characteristics.
A method of deposition on a substrate used for the manufacture of a solar cell , comprising: depositing a first conductive pattern on a first side of the substrate, the first conductive pattern being one of a plurality of busbars and a plurality of fingers ; providing a screen over the substrate, the screen comprising: a set of openings ; and a bottom side having a varying vertical profile including low portions and high portions ; transferring a printing material from the screen to the substrate through the set of openings to print a second conductive pattern on the first side of the substrate, the second conductive pattern being the other one of the plurality of busbars and the plurality of fingers, wherein, during the printing of the second conductive pattern, the first conductive pattern is substantially wet and the screen is disposed over the substrate in a manner such that the high portions are elevated above the first conductive pattern, and wherein the first conductive pattern has a first shape, wherein the high portions form a pattern having a second shape encompassing the first shape. depositing a first conductive pattern on a first side of the substrate, the first conductive pattern being one of a plurality of busbars and a plurality of fingers ; providing a screen over the substrate, the screen comprising: a set of openings ; and a bottom side having a varying vertical profile including low portions and high portions ; a set of openings ; and a bottom side having a varying vertical profile including low portions and high portions ; transferring a printing material from the screen to the substrate through the set of openings to print a second conductive pattern on the first side of the substrate, the second conductive pattern being the other one of the plurality of busbars and the plurality of fingers, wherein, during the printing of the second conductive pattern, the first conductive pattern is substantially wet and the screen is disposed over the substrate in a manner such that the high portions are elevated above the first conductive pattern, and wherein the first conductive pattern has a first shape, wherein the high portions form a pattern having a second shape encompassing the first shape.
An image processing method, wherein the method is applied to an electronic device, and the method comprises: drawing, by the electronic device, a first layer, rendering the first layer, and buffering the rendered first layer in an SF buffer queue (S301); and finishing drawing, by the electronic device, the first layer before a first time, and before the first time, starting drawing, by the electronic device, a second layer comprising either: finishing drawing, by the electronic device, the first layer before the first time, and in response to finishing drawing the first layer, starting drawing, by the electronic device, the second layer (S302a); or finishing drawing, by the electronic device, the first layer before a second time, and at the second time, starting drawing, by the electronic device, the second layer (S302b); and rendering the second layer, and buffering the rendered second layer in the SF buffer queue (S302), wherein the first time is a time of arrival of a first vertical synchronization signal for triggering the electronic device to draw the second layer, and the second time preceds the first time. drawing, by the electronic device, a first layer, rendering the first layer, and buffering the rendered first layer in an SF buffer queue (S301); and finishing drawing, by the electronic device, the first layer before a first time, and before the first time, starting drawing, by the electronic device, a second layer comprising either: finishing drawing, by the electronic device, the first layer before the first time, and in response to finishing drawing the first layer, starting drawing, by the electronic device, the second layer (S302a); or finishing drawing, by the electronic device, the first layer before a second time, and at the second time, starting drawing, by the electronic device, the second layer (S302b); and rendering the second layer, and buffering the rendered second layer in the SF buffer queue (S302), wherein the first time is a time of arrival of a first vertical synchronization signal for triggering the electronic device to draw the second layer, and the second time preceds the first time. finishing drawing, by the electronic device, the first layer before the first time, and in response to finishing drawing the first layer, starting drawing, by the electronic device, the second layer (S302a); or finishing drawing, by the electronic device, the first layer before a second time, and at the second time, starting drawing, by the electronic device, the second layer (S302b); and rendering the second layer, and buffering the rendered second layer in the SF buffer queue (S302), wherein the first time is a time of arrival of a first vertical synchronization signal for triggering the electronic device to draw the second layer, and the second time preceds the first time.
A fine particle analyzer comprising: [a] a cyclone dust collection unit ; [b] a filter portion connected downstream of the cyclone dust collection unit and configured to be heated; [c] a gas analysis unit connected to the filter portion and adapted to analyze fine particles in an analysis mode; and [d] a gas pipe portion connecting the cyclone dust collection unit with the gas analysis unit and provided with the filter portion; characterized by : [e] a cleaning gas introduction unit provided to the gas pipe portion and configured to introduce an internal standard substance or a sensitizer as a cleaning gas into a space in the gas pipe portion downstream of the filter portion or into the cyclone dust collection unit; and a gas nozzle portion for jetting the cleaning gas from above the filter portion into the cyclone dust collection unit, the gas nozzle portion being connected to the cleaning gas introduction unit, being disposed inside a suction pipe portion connected to the cyclone dust collection unit, and being disposed at an exhaust side of the cyclone dust collection unit; wherein at least the filter portion is cleaned in a cleaning mode, and wherein the cleaning gas introduced from the cleaning gas introduction unit has a flow rate which is increased in the cleaning mode, so that the flow rate in the cleaning mode is larger than in the analysis mode. [a] a cyclone dust collection unit ; [b] a filter portion connected downstream of the cyclone dust collection unit and configured to be heated; [c] a gas analysis unit connected to the filter portion and adapted to analyze fine particles in an analysis mode; and [d] a gas pipe portion connecting the cyclone dust collection unit with the gas analysis unit and provided with the filter portion; [e] a cleaning gas introduction unit provided to the gas pipe portion and configured to introduce an internal standard substance or a sensitizer as a cleaning gas into a space in the gas pipe portion downstream of the filter portion or into the cyclone dust collection unit; and a gas nozzle portion for jetting the cleaning gas from above the filter portion into the cyclone dust collection unit, the gas nozzle portion being connected to the cleaning gas introduction unit, being disposed inside a suction pipe portion connected to the cyclone dust collection unit, and being disposed at an exhaust side of the cyclone dust collection unit; wherein at least the filter portion is cleaned in a cleaning mode, and wherein the cleaning gas introduced from the cleaning gas introduction unit has a flow rate which is increased in the cleaning mode, so that the flow rate in the cleaning mode is larger than in the analysis mode.
A combination of a plurality of, preferably exactly two individual solutions which are configured such that they form a dialysis solution after their mixing with one another containing bicarbonate, calcium and phosphate, wherein the dialysis solution contains phosphate having a concentration in the range of up to 0.4 mmol/l, preferably in the range of up to 0.375 mmol/l, or in the range of up to 0.25 mmol/l, and particularly preferably in the range of up to 0.2 mmol/l, wherein a first individual solution contains calcium, magnesium, chloride, optionally glucose and optionally potassium and a second individual solution contains sodium, chloride, hydrogen carbonate and phosphate, characterized in that the first individual solution does not contain any sodium; in that the first individual solution has a pH in the range from 2.4 to 3.0 and the second individual solution has a pH in the range from 7.0 to 7.8; and in that the second individual solution is present in a larger volume than the first individual solution.
A genetically engineered bacterium comprising: a) one or more gene(s) encoding a phenylalanine ammonia lyase (PAL), wherein the gene(s) encoding a PAL is operably linked to an inducible promoter that is not associated with the PAL gene in nature, wherein expression of the gene(s) encoding PAL is increased in the presence of an inducer of said promoter; and b) one or more gene(s) encoding a phenylalanine transporter capable of transporting phenylalanine into bacterial cells, wherein the gene(s) encoding the phenylalanine transporter is operably linked to an inducible promoter that is not associated with the phenylalanine transporter gene in nature, wherein expression of the gene(s) encoding the phenylalanine transporter is increased in the presence of an inducer of said promoter. a) one or more gene(s) encoding a phenylalanine ammonia lyase (PAL), wherein the gene(s) encoding a PAL is operably linked to an inducible promoter that is not associated with the PAL gene in nature, wherein expression of the gene(s) encoding PAL is increased in the presence of an inducer of said promoter; and b) one or more gene(s) encoding a phenylalanine transporter capable of transporting phenylalanine into bacterial cells, wherein the gene(s) encoding the phenylalanine transporter is operably linked to an inducible promoter that is not associated with the phenylalanine transporter gene in nature, wherein expression of the gene(s) encoding the phenylalanine transporter is increased in the presence of an inducer of said promoter.
An induction cooker comprising a glass top which includes one or more cooking zones each for inductively heating a cooking utensil at the heating level that is respectively selected by the user, a user-interface for allowing the user to select for each heating zone the heating level from a range of heating levels, one or more optical devices each adapted to project an image onto the circumferential wall of the cooking utensil that is placed on the respective cooking zone , wherein the image shows information which relates to the operational state of the respective cooking zone , characterised in that the image shows the temperature of the respective cooking zone .
A combined fuel tank used particularly in vehicles with diesel motor using adblue being a urea-based chemical substance and made of polymer-based material by using rotational molding technology, characterized by comprising a first chamber ; a second chamber positioned in the vicinity of said first chamber ; a sealed double wall embodied between the first chamber and the second chamber ; and at least one baffle positioned in at least one of the first chamber and the second chamber for providing dampening of noise and vibration; said baffle having two walls and a form which combines at least two surfaces of the fuel tank ; and the combined fuel tank is produced with a single process, wherein polymer-based material is heated by means of free heat pipe or heat rod, positioned in a core, by using rotational molding technology.
A power-transmitting device for performing wireless power supply to a power-receiving device having a relatively movable relationship using coil pairs disposed to be opposable, and supplies power to a load that the power-receiving device includes, the power-transmitting device comprising: a recessed section configured to accommodate at least a part of the power-receiving device with a gap; a first coil configured to constitute the opposable coil pair on first wall portion of the recessed section facing each other; a second coil configured to constitute the opposable coil pair on the second wall portion of the recessed section facing each other, characterized in that the power-transmitting device comprises a controller configured to control power supplied respectively to the first coil and the second coil on the basis of power supply efficiency of the respective coil pairs on one and the second wall portion of the recessed section facing each other, wherein the controller is configured to calculate the power supply efficiency from losses of the respective coil pairs , and wherein the controller is configured to increase power which is supplied to the coil constituting the coil pair with higher power supply efficiency and to decrease power which is supplied to the coil constituting the coil pair with lower power supply efficiency when the power supplied to the load is within a set range. a recessed section configured to accommodate at least a part of the power-receiving device with a gap; a first coil configured to constitute the opposable coil pair on first wall portion of the recessed section facing each other; a second coil configured to constitute the opposable coil pair on the second wall portion of the recessed section facing each other, characterized in that the power-transmitting device comprises a controller configured to control power supplied respectively to the first coil and the second coil on the basis of power supply efficiency of the respective coil pairs on one and the second wall portion of the recessed section facing each other, wherein the controller is configured to calculate the power supply efficiency from losses of the respective coil pairs , and wherein the controller is configured to increase power which is supplied to the coil constituting the coil pair with higher power supply efficiency and to decrease power which is supplied to the coil constituting the coil pair with lower power supply efficiency when the power supplied to the load is within a set range.
a hydraulic braking system on the trailer side comprising a) a coupling assembly which comprises at least one connecting device with three separate connections (2.1; 2.2; 2.3), the second connection serving the direct actuation of a three-way valve ; b) a valve assembly , which comprises at least one pressure accumulator , at least one accumulator drain valve and at least the three-way valve c) a pressure control group which comprises at least one pressure control valve and at least one pressure connection for the brake cylinder , wherein d) the third connection (2.3) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic brake system on the trailer side by means of a brake line (9.1) with couplings detachable on both sides; e) the second connection (2.2) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic trailer-side brake system by means of an additional line (9.2) with couplings releasable on both sides: f) the first connection (2.1) serves to receive one of the detachable couplings of the auxiliary line (9.2) when the hydraulic trailer-side braking system is used in combination with a towing vehicle with a single-conductor braking system; g) the first and third connections (2.1; 2.3) are each provided with a presence sensor (19; 20) for detecting the physical presence of a releasable coupling in the connection (2.1; 2.3); and h) the signal from the presence sensors (19; 20) is used as a control value for the three-way valve for an emergency braking function via the pressure accumulator . a) a coupling assembly which comprises at least one connecting device with three separate connections (2.1; 2.2; 2.3), the second connection serving the direct actuation of a three-way valve ; b) a valve assembly , which comprises at least one pressure accumulator , at least one accumulator drain valve and at least the three-way valve c) a pressure control group which comprises at least one pressure control valve and at least one pressure connection for the brake cylinder , wherein d) the third connection (2.3) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic brake system on the trailer side by means of a brake line (9.1) with couplings detachable on both sides; e) the second connection (2.2) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic trailer-side brake system by means of an additional line (9.2) with couplings releasable on both sides: f) the first connection (2.1) serves to receive one of the detachable couplings of the auxiliary line (9.2) when the hydraulic trailer-side braking system is used in combination with a towing vehicle with a single-conductor braking system; g) the first and third connections (2.1; 2.3) are each provided with a presence sensor (19; 20) for detecting the physical presence of a releasable coupling in the connection (2.1; 2.3); and h) the signal from the presence sensors (19; 20) is used as a control value for the three-way valve for an emergency braking function via the pressure accumulator .
A method for displaying a shortcut operation panel, comprising: displaying , by a terminal having a folding display screen , a user interface of a target application on a home screen , wherein the home screen is part of the folding display screen ; and when an auxiliary screen is in an expanded state, displaying a shortcut operation panel on the auxiliary screen , wherein the auxiliary screen is part of the folding display screen , wherein the shortcut operation panel comprises an icon of at least one shortcut operation function related to the target application characterized in that the folding display screen has two auxiliary screens, a first auxiliary screen and a second auxiliary screen , and the home screen is connected to the first auxiliary screen and the second auxiliary screen respectively, the method further comprises: when receiving a selection signal corresponding to an icon of a target shortcut operation function in the shortcut operation panel after the shortcut operation panel is displayed on the first auxiliary screen , displaying a user interface corresponding to the target shortcut operation function in the second auxiliary screen . displaying , by a terminal having a folding display screen , a user interface of a target application on a home screen , wherein the home screen is part of the folding display screen ; and when an auxiliary screen is in an expanded state, displaying a shortcut operation panel on the auxiliary screen , wherein the auxiliary screen is part of the folding display screen , wherein the shortcut operation panel comprises an icon of at least one shortcut operation function related to the target application characterized in that the folding display screen has two auxiliary screens, a first auxiliary screen and a second auxiliary screen , and the home screen is connected to the first auxiliary screen and the second auxiliary screen respectively, the method further comprises: when receiving a selection signal corresponding to an icon of a target shortcut operation function in the shortcut operation panel after the shortcut operation panel is displayed on the first auxiliary screen , displaying a user interface corresponding to the target shortcut operation function in the second auxiliary screen .