mhurhangee/patent-ind-claim-en huggingface dataset:
An ambient light detection method, applied to a terminal, wherein the terminal comprises a display screen and an ambient light sensor; the ambient light sensor is located under the display screen, and a display area of the display screen comprises a first area and a second area; the first area comprises an area for receiving by the ambient light sensor ambient light, and the second area is a part of an area, other than the first area, in the display area; and the method comprises the steps of: displaying, by the terminal, in the first area a black picture at least two times during a process of refreshing one frame of an image frame picture; displaying, by the terminal when the first area displays the black picture, the image frame picture in the second area; displaying, by the terminal, in the first area the image frame picture in an interval between consecutively displaying the black picture in the first area; and obtaining, by the terminal, an intensity of the ambient light, wherein the intensity of the ambient light is detected by the ambient light sensor when the first area displays the black picture. displaying, by the terminal, in the first area a black picture at least two times during a process of refreshing one frame of an image frame picture; displaying, by the terminal when the first area displays the black picture, the image frame picture in the second area; displaying, by the terminal, in the first area the image frame picture in an interval between consecutively displaying the black picture in the first area; and obtaining, by the terminal, an intensity of the ambient light, wherein the intensity of the ambient light is detected by the ambient light sensor when the first area displays the black picture.
Equipment for transporting a young child in a vehicle, comprising a base intended to be secured to a seat of said vehicle and a carrycot for holding said child in a position lying in the longitudinal direction of the carrycot, and being able to be secured to said base , a first portion of said carrycot then extending substantially above said base , and a second portion of said carrycot extending beyond said base , locking means ensuring that said carrycot and said base are secured together, characterised in that it comprises anti-tilting means , said anti-tilting means being: - active as long as said carrycot is in a cantilever position with respect to said base , and opposing tilting of said carrycot with respect to said base due to said cantilever, but allowing sliding of said carrycot with respect to said base in order to return said carrycot into a position without cantilever with respect to the base, when said locking means are unlocked or in the course of unlocking; and - inactive when said carrycot is in said position without cantilever, and in that said anti-tilting means comprise: - at least one pin extending substantially parallel to the longitudinal axis of the carrycot with respect to the base and coming to bear against a stop provided for this purpose in said base , or respectively said carrycot ; or - at least one holding element formed on said carrycot , and cooperating with at least one locking hook on said base , so as to prevent the opening of said hook as long as said carrycot is in a cantilever position; or - at least one meshing system . - active as long as said carrycot is in a cantilever position with respect to said base , and opposing tilting of said carrycot with respect to said base due to said cantilever, but allowing sliding of said carrycot with respect to said base in order to return said carrycot into a position without cantilever with respect to the base, when said locking means are unlocked or in the course of unlocking; and - inactive when said carrycot is in said position without cantilever, - at least one pin extending substantially parallel to the longitudinal axis of the carrycot with respect to the base and coming to bear against a stop provided for this purpose in said base , or respectively said carrycot ; or - at least one holding element formed on said carrycot , and cooperating with at least one locking hook on said base , so as to prevent the opening of said hook as long as said carrycot is in a cantilever position; or - at least one meshing system .
A gas turbine plant comprising: a gas turbine ; a heat recovery steam generator that generates steam by exchanging heat between an exhaust gas of the gas turbine and water; a quencher that cools the exhaust gas discharged from the heat recovery steam generator ; an absorber that recovers carbon dioxide contained in the exhaust gas cooled by the quencher ; an EGR line (L2) that extracts a part of the exhaust gas and guides the exhaust gas to an intake side of the gas turbine ; an exhaust gas heater that heats the exhaust gas by exchanging heat between a heat medium and the exhaust gas passed through the absorber using steam extracted from the heat recovery steam generator as the heat medium; and an EGR heater that is provided on the EGR line (L2) and heats the exhaust gas circulating through the EGR line (L2) by exchanging heat between the exhaust gas circulating through the EGR line (L2) and the heat medium discharged from the exhaust gas heater , wherein the EGR line (L2) extracts a part of the exhaust gas discharged from the quencher and guides the exhaust gas to the intake side of the gas turbine . a gas turbine ; a heat recovery steam generator that generates steam by exchanging heat between an exhaust gas of the gas turbine and water; a quencher that cools the exhaust gas discharged from the heat recovery steam generator ; an absorber that recovers carbon dioxide contained in the exhaust gas cooled by the quencher ; an EGR line (L2) that extracts a part of the exhaust gas and guides the exhaust gas to an intake side of the gas turbine ; an exhaust gas heater that heats the exhaust gas by exchanging heat between a heat medium and the exhaust gas passed through the absorber using steam extracted from the heat recovery steam generator as the heat medium; and an EGR heater that is provided on the EGR line (L2) and heats the exhaust gas circulating through the EGR line (L2) by exchanging heat between the exhaust gas circulating through the EGR line (L2) and the heat medium discharged from the exhaust gas heater , wherein the EGR line (L2) extracts a part of the exhaust gas discharged from the quencher and guides the exhaust gas to the intake side of the gas turbine .
An apparatus for delivery of a lens component into an eye , comprising: a nozzle ; a bay adjacent to the nozzle, wherein the bay is configured to contain the lens component and comprises a recess in a shape of a haptic extension ; and a cam-actuated mechanism comprising: a slider configured to move in a direction toward the nozzle; and a side arm moveably disposed within the bay, wherein the side arm is positioned at an end of the slider, the end of the slider comprising a groove aligned with the side arm, wherein the groove extends from an outer edge of the slider into an interior portion of the slider, and wherein the groove is angled to receive the side arm as the slider moves. a nozzle ; a bay adjacent to the nozzle, wherein the bay is configured to contain the lens component and comprises a recess in a shape of a haptic extension ; and a cam-actuated mechanism comprising: a slider configured to move in a direction toward the nozzle; and a side arm moveably disposed within the bay, wherein the side arm is positioned at an end of the slider, the end of the slider comprising a groove aligned with the side arm, wherein the groove extends from an outer edge of the slider into an interior portion of the slider, and wherein the groove is angled to receive the side arm as the slider moves. a slider configured to move in a direction toward the nozzle; and a side arm moveably disposed within the bay, wherein the side arm is positioned at an end of the slider, the end of the slider comprising a groove aligned with the side arm, wherein the groove extends from an outer edge of the slider into an interior portion of the slider, and wherein the groove is angled to receive the side arm as the slider moves.
A base for a powder coating booth, the base comprising: • a base structure , through which the booth is intended to rest on a floor , the base structure being configured to support a powder coating compartment of the booth; and • a floor , which is supported by the base structure and is configured to delimit the bottom of the powder coating compartment ; wherein: • the floor comprises two oblique panels , which are inclined with respect to the horizontal (X4, Y4) and which is configured to delimit the bottom of the powder coating compartment of the booth, these oblique panels each having an upper edge and being joined to their respective upper edge ; and • the two oblique panels are porous so as to be air permeable and impermeable to residual powder from a powder coating of an article within the powder coating compartment. • a base structure , through which the booth is intended to rest on a floor , the base structure being configured to support a powder coating compartment of the booth; and • a floor , which is supported by the base structure and is configured to delimit the bottom of the powder coating compartment ; • the floor comprises two oblique panels , which are inclined with respect to the horizontal (X4, Y4) and which is configured to delimit the bottom of the powder coating compartment of the booth, these oblique panels each having an upper edge and being joined to their respective upper edge ; and • the two oblique panels are porous so as to be air permeable and impermeable to residual powder from a powder coating of an article within the powder coating compartment.
Process for the manufacture of a polyamide composite article by injection moulding, comprising at least the following steps: a) at least one reinforcing cloth is introduced into a preheated mould exhibiting a temperature of between 120 and 350°C, and the mould is closed; b) a step of rise in temperature of the mould to a temperature greater than 10°C with respect to the melting point of the semicrystalline polyamides and to a temperature greater than 10°C with respect to the glass transition temperature for the amorphous polyamides; c) optionally a step of temperature maintenance of the mould before injection of a polyamide composition; d) a step of injection of a molten polyamide composition into the mould making possible the flow of the resin through the reinforcing cloth; the molten polyamide composition exhibiting a melt viscosity η of between 0.5 and 30 Pa.s, measured using a plate-plate rheometer d=50 mm, under a stepwise shear sweep ranging from 1 to 160 1/s, the polymer being in the form of a film with a thickness of 150 μm or of granules and the measurements being carried out at 30°C above the melting point of the semicrystalline polyamides and at a temperature of 250°C for amorphous polyamides; this step, followed by the consecutive maintenance of temperature and at a pressure of between 0.1 and 10 bar, is carried out in a sufficient time, according to the geometry of the article manufactured, of between 10 seconds and 15 minutes; e) a step of cooling to a temperature of between 20 and 150°C, carried out in a time of between 30 seconds and 10 minutes; and f) a step of recovery of the composite article obtained. a) at least one reinforcing cloth is introduced into a preheated mould exhibiting a temperature of between 120 and 350°C, and the mould is closed; b) a step of rise in temperature of the mould to a temperature greater than 10°C with respect to the melting point of the semicrystalline polyamides and to a temperature greater than 10°C with respect to the glass transition temperature for the amorphous polyamides; c) optionally a step of temperature maintenance of the mould before injection of a polyamide composition; d) a step of injection of a molten polyamide composition into the mould making possible the flow of the resin through the reinforcing cloth; the molten polyamide composition exhibiting a melt viscosity η of between 0.5 and 30 Pa.s, measured using a plate-plate rheometer d=50 mm, under a stepwise shear sweep ranging from 1 to 160 1/s, the polymer being in the form of a film with a thickness of 150 μm or of granules and the measurements being carried out at 30°C above the melting point of the semicrystalline polyamides and at a temperature of 250°C for amorphous polyamides; this step, followed by the consecutive maintenance of temperature and at a pressure of between 0.1 and 10 bar, is carried out in a sufficient time, according to the geometry of the article manufactured, of between 10 seconds and 15 minutes; e) a step of cooling to a temperature of between 20 and 150°C, carried out in a time of between 30 seconds and 10 minutes; and f) a step of recovery of the composite article obtained.
A system for processing microspheres comprising: a vessel containing a suspension of solidified microspheres in a suspending medium; a hydrocyclone (HC) having a fluid inlet , a first fluid outlet and a second fluid outlet , wherein said fluid inlet is in fluid communication with said vessel and receives said suspension, said second fluid outlet discharges a flow of said suspension having an increased concentration of said microspheres relative to said suspension in said vessel , and said first fluid outlet discharges a flow of said suspending medium having a lower concentration of said microspheres relative to said suspension in said vessel ; characterized in that the system further comprises a hollow fiber filter having an inlet in fluid communication with said second fluid outlet ; and, a solvent removal vessel (SRV) interposed between and in fluid communication with said inlet of said hollow fiber filter and said second fluid outlet of said hydrocyclone HC , said solvent removal vessel SRV capable of receiving and washing said microspheres in said suspension discharged from said second fluid outlet of said hydrocyclone HC to remove solvent from said suspension. a vessel containing a suspension of solidified microspheres in a suspending medium; a hydrocyclone (HC) having a fluid inlet , a first fluid outlet and a second fluid outlet , wherein said fluid inlet is in fluid communication with said vessel and receives said suspension, said second fluid outlet discharges a flow of said suspension having an increased concentration of said microspheres relative to said suspension in said vessel , and said first fluid outlet discharges a flow of said suspending medium having a lower concentration of said microspheres relative to said suspension in said vessel ; characterized in that the system further comprises a hollow fiber filter having an inlet in fluid communication with said second fluid outlet ; and, a solvent removal vessel (SRV) interposed between and in fluid communication with said inlet of said hollow fiber filter and said second fluid outlet of said hydrocyclone HC , said solvent removal vessel SRV capable of receiving and washing said microspheres in said suspension discharged from said second fluid outlet of said hydrocyclone HC to remove solvent from said suspension.
A composite marker (100; 500a; 500b; 900; 1000; 1100), comprising: a gel body (104; 504; 604; 704; 804; 1104) having an outer surface; a first plurality of ultrasound reflective elements carried in or on the gel body (104; 504; 604; 704; 804; 1104), each ultrasound reflective element respectively comprising a body having at least one cavity and at least one fluid in the at least one cavity to provide reflectivity of ultrasound imaging signals, wherein the at least one cavity of the ultrasound reflective element contains entrapped gas or liquid to provide reflectivity of ultrasound imaging signals, each ultrasound reflective element is porous, and each ultrasound reflective element (!02) comprises a hydrophobic coating that at least temporarily seals one or more pores thereof; an activated and/or hydrolyzed fluorescent dye carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the activated and/or hydrolyzed fluorescent dye is activated and/or hydrolyzed when the fluorescent dye is exposed to the gel body (104; 504; 604; 704; 804; 1104) when the composite marker is formed; and at least one radiopaque element (110; 510; 910; 1010; 1110) carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the at least one radiopaque element (110; 510; 910; 1010; 1110) is not disposed around the outer surface of the gel body (104; 504; 604; 704; 804; 1104). a gel body (104; 504; 604; 704; 804; 1104) having an outer surface; a first plurality of ultrasound reflective elements carried in or on the gel body (104; 504; 604; 704; 804; 1104), each ultrasound reflective element respectively comprising a body having at least one cavity and at least one fluid in the at least one cavity to provide reflectivity of ultrasound imaging signals, wherein the at least one cavity of the ultrasound reflective element contains entrapped gas or liquid to provide reflectivity of ultrasound imaging signals, each ultrasound reflective element is porous, and each ultrasound reflective element (!02) comprises a hydrophobic coating that at least temporarily seals one or more pores thereof; an activated and/or hydrolyzed fluorescent dye carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the activated and/or hydrolyzed fluorescent dye is activated and/or hydrolyzed when the fluorescent dye is exposed to the gel body (104; 504; 604; 704; 804; 1104) when the composite marker is formed; and at least one radiopaque element (110; 510; 910; 1010; 1110) carried in or on the gel body (104; 504; 604; 704; 804; 1104), wherein the at least one radiopaque element (110; 510; 910; 1010; 1110) is not disposed around the outer surface of the gel body (104; 504; 604; 704; 804; 1104).
A pneumatic braking system for a wheeled cargo trailer, comprising: a set of pneumatically-operated brakes; a glad hands connector coupled to the set of pneumatically-operated brakes; and an adapter operable to provide a pneumatic connection with the pneumatic braking system, wherein the glad hands connector has a first pair of pneumatic couplings (148. 150), a pair of pneumatic conduits extending between the set of pneumatically-operated brakes and the glad hands connector, wherein the adapter further includes a second pair of pneumatic couplings adapted to be attached to a pneumatic source and a third pair of pneumatic couplings adapted to be attached to the first pair of pneumatic couplings of the glad hands connector to provide a pneumatic connection between the adapter and the glad hands connector, characterized in that said pneumatic braking system further comprising a pair of pneumatic conduits that are releasably attachable to the first pair of pneumatic couplings of the glad hands connector and to the third pair of pneumatic couplings of the adapter. a set of pneumatically-operated brakes; a glad hands connector coupled to the set of pneumatically-operated brakes; and an adapter operable to provide a pneumatic connection with the pneumatic braking system, wherein the glad hands connector has a first pair of pneumatic couplings (148. 150), a pair of pneumatic conduits extending between the set of pneumatically-operated brakes and the glad hands connector, wherein the adapter further includes a second pair of pneumatic couplings adapted to be attached to a pneumatic source and a third pair of pneumatic couplings adapted to be attached to the first pair of pneumatic couplings of the glad hands connector to provide a pneumatic connection between the adapter and the glad hands connector, characterized in that said pneumatic braking system further comprising a pair of pneumatic conduits that are releasably attachable to the first pair of pneumatic couplings of the glad hands connector and to the third pair of pneumatic couplings of the adapter.
Vessel , such as a ship or boat, comprising a hull and a rotatable screw for driving the vessel, wherein the vessel comprises a tunnel , which tunnel is disposed at least partially in the hull, and that the hull comprises a water inlet and water outlet connected to the tunnel, and that the screw is disposed in the tunnel, wherein the tunnel is disposed at least partially in a fore of the vessel, wherein a part of the tunnel lies above the waterline , at least in use of the vessel, wherein the tunnel has a width dimension which, as seen in a direction from the front to the rear, first decreases to a minimum width dimension and then increases again, and a height dimension which, as seen in a direction from the front to the rear, first increases to a maximum height dimension in the area of the minimum width dimension and then decreases again, and wherein the screw is disposed in an area of the tunnel with the minimum width dimension and maximum height dimension, wherein a cross-sectional dimension of the tunnel remains substantially the same as seen from the front to the rear.
An integrated refinery process for the production of high quality gasoline blending components having low volatility comprising: (a) providing a first ethylene-containing refinery stream; (b) separating a C 2+ fraction from said first stream to produce a second refinery stream richer in ethylene than said first stream; (c) providing an isopentane-containing refinery stream; (d) contacting said isopentane-containing refinery stream with said second refinery stream in the presence of an ionic liquid catalyst in an alkylation zone under alkylation conditions, wherein the ionic liquid catalyst comprises a hydrocarbyl substituted pyridinium chloride or hydrocarbyl substituted imidazolium chloride, and wherein the ionic liquid catalyst further comprises an HCI co-catalyst; and (e) recovering high quality gasoline blending components of low volatility from said alkylation zone. (a) providing a first ethylene-containing refinery stream; (b) separating a C 2+ fraction from said first stream to produce a second refinery stream richer in ethylene than said first stream; (c) providing an isopentane-containing refinery stream; (d) contacting said isopentane-containing refinery stream with said second refinery stream in the presence of an ionic liquid catalyst in an alkylation zone under alkylation conditions, wherein the ionic liquid catalyst comprises a hydrocarbyl substituted pyridinium chloride or hydrocarbyl substituted imidazolium chloride, and wherein the ionic liquid catalyst further comprises an HCI co-catalyst; and (e) recovering high quality gasoline blending components of low volatility from said alkylation zone.
An aqueous coating composition comprising: particles comprising an inorganic core, a surface on the outside of the core, an agent comprising a hydrophobic moiety adhering to the surface, and an agent comprising a hydrophilic moiety adhering to the surface, wherein the inorganic core includes a metal oxide particle; and a film forming polymer composition comprising a polymer and water, wherein the polymer is selected from the group consisting of polyurethane, polyacrylate, polyurethane-polyacrylate, epoxide, polyacrylate-epoxide, and combinations thereof; wherein the particles are mixed with the polymer composition. particles comprising an inorganic core, a surface on the outside of the core, an agent comprising a hydrophobic moiety adhering to the surface, and an agent comprising a hydrophilic moiety adhering to the surface, wherein the inorganic core includes a metal oxide particle; and an inorganic core, a surface on the outside of the core, an agent comprising a hydrophobic moiety adhering to the surface, and an agent comprising a hydrophilic moiety adhering to the surface, wherein the inorganic core includes a metal oxide particle; and a film forming polymer composition comprising a polymer and water, wherein the polymer is selected from the group consisting of polyurethane, polyacrylate, polyurethane-polyacrylate, epoxide, polyacrylate-epoxide, and combinations thereof; wherein the particles are mixed with the polymer composition.