mhurhangee/ep-ind-claims huggingface dataset:
An optical system for an automotive vehicle, the optical system comprises: a number of first light sources, a number of first optical elements that are configured to reflect light emitted from the number of first light sources; a second optical element configured to project light transmitted from the number of first optical elements, the first light sources, the first optical elements and the second optical element being configured to perform a first lighting function; and a number of secondary light sources, wherein the second optical element is configured to receive light emitted from the number of secondary light sources and is configured to perform a second lighting function by scattering light received from the number of secondary light sources characterized in that at least a portion of the second optical element is made of a diffusive material; wherein the second optical element is a diffusive projection lens produced by multi-shot injection process formed from various opalescent or diffusive materials with different zones (210, 220, 230) having different levels of diffusivity form application of various grades of opalescent or diffusive materials. a number of first light sources, a number of first optical elements that are configured to reflect light emitted from the number of first light sources; a second optical element configured to project light transmitted from the number of first optical elements, the first light sources, the first optical elements and the second optical element being configured to perform a first lighting function; and a number of secondary light sources, wherein the second optical element is configured to receive light emitted from the number of secondary light sources and is configured to perform a second lighting function by scattering light received from the number of secondary light sources characterized in that at least a portion of the second optical element is made of a diffusive material; wherein the second optical element is a diffusive projection lens produced by multi-shot injection process formed from various opalescent or diffusive materials with different zones (210, 220, 230) having different levels of diffusivity form application of various grades of opalescent or diffusive materials.
A pressure relief valve having: a first tubing connectable to a fuel tank of a vehicle, the vehicle including a vehicle computer; a second tubing connectable to a fuel vapor treating device a controller, configured for receiving an actuation signal from the vehicle computer, wherein the controller includes a circuit board which forms a pulsed signal as required; an externally actuated, EA, valve disposed between the first tubing and the second tubing and being configured for pulsed actuation by said controller, thereby allowing pulsed fluid flow through a primary port disposed between said first tubing and said second tubing. a first tubing connectable to a fuel tank of a vehicle, the vehicle including a vehicle computer; a second tubing connectable to a fuel vapor treating device a controller, configured for receiving an actuation signal from the vehicle computer, wherein the controller includes a circuit board which forms a pulsed signal as required; an externally actuated, EA, valve disposed between the first tubing and the second tubing and being configured for pulsed actuation by said controller, thereby allowing pulsed fluid flow through a primary port disposed between said first tubing and said second tubing.
A fiber optic assembly, comprising: first and second fiber optic ribbons (112, 114), each comprising a plurality of optical fibers coupled in a substantially flat arrangement where the optical fibers are aligned side-by-side with one another, wherein the optical fibers of the first ribbon are fusion spliced together with the optical fibers of the second ribbon such that the spliced ribbons at the splice have a common lengthwise axis, widthwise axis orthogonal to the lengthwise axis, and thickness axis orthogonal to the lengthwise and widthwise axes; and a splice protector supporting the optical fibers of the first and second fiber optic ribbons (112, 114) that are spliced to one another at the splice, wherein the splice protector comprises an ultra-violet light curable adhesive that provides a flexible support for the splice, wherein the splice protector comprises a translucent, flexible substrate, wherein the translucent, flexible substrate is a separate body in addition to the adhesive and is a thin, flexible glass sheet, wherein the thin, flexible glass sheet is less than 0.25 mm thick, wherein the splice protector is at least half as flexible when cured over the splice as the first and second ribbons (112, 114) in bending about the widthwise axis, wherein flexibility corresponds to the stiffness coefficient and is observed with the moment required to bend the splice protector about the widthwise axis and an equal length of one of the ribbons (112, 114) in a cantilever arrangement by a vertical deflection of the free end that is ten percent of the length. first and second fiber optic ribbons (112, 114), each comprising a plurality of optical fibers coupled in a substantially flat arrangement where the optical fibers are aligned side-by-side with one another, wherein the optical fibers of the first ribbon are fusion spliced together with the optical fibers of the second ribbon such that the spliced ribbons at the splice have a common lengthwise axis, widthwise axis orthogonal to the lengthwise axis, and thickness axis orthogonal to the lengthwise and widthwise axes; and a splice protector supporting the optical fibers of the first and second fiber optic ribbons (112, 114) that are spliced to one another at the splice, wherein the splice protector comprises an ultra-violet light curable adhesive that provides a flexible support for the splice, wherein the splice protector comprises a translucent, flexible substrate, wherein the translucent, flexible substrate is a separate body in addition to the adhesive and is a thin, flexible glass sheet, wherein the thin, flexible glass sheet is less than 0.25 mm thick, wherein the splice protector is at least half as flexible when cured over the splice as the first and second ribbons (112, 114) in bending about the widthwise axis, wherein flexibility corresponds to the stiffness coefficient and is observed with the moment required to bend the splice protector about the widthwise axis and an equal length of one of the ribbons (112, 114) in a cantilever arrangement by a vertical deflection of the free end that is ten percent of the length.
A method of generating an environmental model of an environment in an industrial plant or logistics plant, wherein a plurality of sensors distributed over the environment detect a respective local partial zone of the environment and the environmental model is assembled therefrom,, wherein a plurality of autonomous mobile reconnaissance units, in particular autonomous mobile robots, move in the environment and at least some of the sensors are part of a mobile reconnaissance unit and thus detect the environment at changing locations, characterized in that the reconnaissance units (12 have a weight of at most one kilogram, lateral dimensions of at most 30 cm, and/or a height of at most 30 cm; in that a plurality of mobile work units move in the environment to transport payloads, and in that a work unit has a multiple of the size and/or of the weight of a reconnaissance unit.
A display device comprising: a display panel; a transparent board having a panel installation region in which the display panel is provided, and an outer frame region surrounding the panel installation region; and an attaching member having a fixing portion bonded to the transparent board in the outer frame region, and an outer-side raised portion raised from a side of the fixing portion, the side being adjacent to an outline of the transparent board, characterized in that the fixing portion of the attaching member for fixing the attaching member to a chassis (15, 17, 40) of the display device is a stud (30E, 35E) for attaching a screw (18, 36A). a display panel; a transparent board having a panel installation region in which the display panel is provided, and an outer frame region surrounding the panel installation region; and an attaching member having a fixing portion bonded to the transparent board in the outer frame region, and an outer-side raised portion raised from a side of the fixing portion, the side being adjacent to an outline of the transparent board, characterized in that the fixing portion of the attaching member for fixing the attaching member to a chassis (15, 17, 40) of the display device is a stud (30E, 35E) for attaching a screw (18, 36A).
A microwave packaging material comprising: a first substantially vapor impermeable substrate; a layer of microwave energy interactive material supported by the first substantially vapor impermeable substrate; a dimensionally stable substrate bonded to the layer of microwave interactive material; and a second substantially vapor impermeable substrate bonded to the dimensionally stable substrate, wherein the second substantially vapor impermeable substrate and the dimensionally stable substrate are bonded along bond lines formed in a pattern, the bond lines are substantially vapor impermeable, and the pattern defines a plurality of closed cells bounded by the second substantially vapor impermeable substrate, the dimensionally stable substrate, and the bond lines, wherein upon impingement of the microwave packaging material by microwave energy in a microwave oven, at least one closed cell of the plurality of closed cells is operative for expanding to form an insulating pocket comprising a bulging side and an opposing side, wherein the bulging side comprises a portion of the second substantially vapor impermeable substrate, the opposing side comprises a portion of each of the first substantially vapor impermeable substrate, the microwave energy interactive material layer, and the dimensionally stable substrate, and the bulging side lofts away from the opposing side. a first substantially vapor impermeable substrate; a layer of microwave energy interactive material supported by the first substantially vapor impermeable substrate; a dimensionally stable substrate bonded to the layer of microwave interactive material; and a second substantially vapor impermeable substrate bonded to the dimensionally stable substrate, wherein the second substantially vapor impermeable substrate and the dimensionally stable substrate are bonded along bond lines formed in a pattern, the bond lines are substantially vapor impermeable, and the pattern defines a plurality of closed cells bounded by the second substantially vapor impermeable substrate, the dimensionally stable substrate, and the bond lines, wherein upon impingement of the microwave packaging material by microwave energy in a microwave oven, at least one closed cell of the plurality of closed cells is operative for expanding to form an insulating pocket comprising a bulging side and an opposing side, wherein the bulging side comprises a portion of the second substantially vapor impermeable substrate, the opposing side comprises a portion of each of the first substantially vapor impermeable substrate, the microwave energy interactive material layer, and the dimensionally stable substrate, and the bulging side lofts away from the opposing side.
A method of manufacturing a plurality of elongate tower segments for forming a wind turbine tower section, the tower section constructed by connecting the plurality of tower segments along their respective longitudinal edges, the method comprising the steps of: forming each of a plurality of cans by rolling a metal sheet into a tube having a longitudinal seam formed by welding first and second opposed edges of the rolled sheet; forming the tower section by connecting the plurality of cans end to end; and cutting along two or more cut lines extending along the length of the tower section to divide the tower section into a plurality of elongate tower segments, characterized in that at least some of the welded seams comprise tack welds, and wherein the step of cutting along two or more cut lines comprises cutting along the longitudinal seams through the tack welds. forming each of a plurality of cans by rolling a metal sheet into a tube having a longitudinal seam formed by welding first and second opposed edges of the rolled sheet; forming the tower section by connecting the plurality of cans end to end; and cutting along two or more cut lines extending along the length of the tower section to divide the tower section into a plurality of elongate tower segments, characterized in that at least some of the welded seams comprise tack welds, and wherein the step of cutting along two or more cut lines comprises cutting along the longitudinal seams through the tack welds.
Method for operating a gas turbine plant in combination with a thermal water preparation plant, having the following steps: - generating a first exhaust gas using the gas turbine, - using a waste heat steam generator to cool the first exhaust gas to give a second exhaust gas at a temperature of 70°C to 250°C, - supplying a first warm water from a condenser to a vaporizer within the water preparation plant, - feeding the second exhaust gas to a heater to pass on the exhaust gas heat to the first warm water, characterized in that air is made to circulate by means of a fan from the condenser to the vaporizer and back to the condenser, and the first warm water, heated by the heater, and the air exchange heat in counter-flow within the vaporizer. - generating a first exhaust gas using the gas turbine, - using a waste heat steam generator to cool the first exhaust gas to give a second exhaust gas at a temperature of 70°C to 250°C, - supplying a first warm water from a condenser to a vaporizer within the water preparation plant, - feeding the second exhaust gas to a heater to pass on the exhaust gas heat to the first warm water,
A virtual image display apparatus comprising: a video element which generates video light; a light guide member which includes two or more non-axisymmetric curved surfaces and is a part of an optical system, an intermediate image being formed inside the light guide member; and a projection lens which makes video light from the video element enter the light guide member, wherein a first surface and a third surface among a plurality of surfaces constituting the light guide member are arranged to face each other, and when an external scene is visually recognized through the first surface and the third surface, diopter substantially becomes 0, the light guide member has a fourth surface which is arranged on a light incidence side from the third surface and reflects video light toward the third surface, and a fifth surface which reflects video light toward the fourth surface; video light from the video element is totally reflected by the third surface, is totally reflected by the first surface, is reflected by the second surface, is transmitted through the first surface, and reaches an observation side; and the second surface, the fourth surface, and the fifth surface are non-axisymmetric curved surfaces, characterised in that the first surface and the third surface are flat surfaces substantially in parallel with each other, and the projection lens includes at least one non-axisymmetric aspheric surface. a video element which generates video light; a light guide member which includes two or more non-axisymmetric curved surfaces and is a part of an optical system, an intermediate image being formed inside the light guide member; and a projection lens which makes video light from the video element enter the light guide member, wherein a first surface and a third surface among a plurality of surfaces constituting the light guide member are arranged to face each other, and when an external scene is visually recognized through the first surface and the third surface, diopter substantially becomes 0, a projection lens which makes video light from the video element enter the light guide member, wherein a first surface and a third surface among a plurality of surfaces constituting the light guide member are arranged to face each other, and when an external scene is visually recognized through the first surface and the third surface, diopter substantially becomes 0, the light guide member has a fourth surface which is arranged on a light incidence side from the third surface and reflects video light toward the third surface, and a fifth surface which reflects video light toward the fourth surface; video light from the video element is totally reflected by the third surface, is totally reflected by the first surface, is reflected by the second surface, is transmitted through the first surface, and reaches an observation side; and the second surface, the fourth surface, and the fifth surface are non-axisymmetric curved surfaces,
Method for thermochemical conversion of a charge of carbonated material into a synthesis gas with a view to producing a fuel, particularly a liquid fuel, or another synthesis product, according to which: - a stage for gasification of the charge of carbonated material in a reactor, - a stage for cleaning the synthesis gas produced by gasification, - synthesis according to the Fischer-Tropsch process downstream from cleaning the synthesis gas to produce liquid diesel oil, and - a stage for reforming the head gases coming from Fischer-Tropsch synthesis are carried out, the hydrogen produced by reforming being reinjected into the synthesis gas upstream from Fischer-Tropsch synthesis and/or during hydrocracking of the hydrocarbons produced by Fischer-Tropsch synthesis, the steam (H 2 O) recovered downstream from gasification and the carbon dioxide (CO 2) produced by cleaning being injected into the gasification reactor as sole gasifying agents. - a stage for gasification of the charge of carbonated material in a reactor, - a stage for cleaning the synthesis gas produced by gasification, - synthesis according to the Fischer-Tropsch process downstream from cleaning the synthesis gas to produce liquid diesel oil, and - a stage for reforming the head gases coming from Fischer-Tropsch synthesis
A method of quantifying an amount of activated factor IX protein in a test sample, the method comprising: measuring thrombin generation activity for the test sample (i) in the presence of FIX-deficient plasma or FIX-deficient blood, and (ii) in the presence of exogenous thrombin, wherein the exogenous thrombin is present at a concentration of not more than about 90 nM; and comparing the thrombin generation activity to a standard curve plotting known activated FIX protein levels to thrombin generation activity; wherein the measuring is performed in the absence of exogenous tissue factor. measuring thrombin generation activity for the test sample (i) in the presence of FIX-deficient plasma or FIX-deficient blood, and (ii) in the presence of exogenous thrombin, wherein the exogenous thrombin is present at a concentration of not more than about 90 nM; and (i) in the presence of FIX-deficient plasma or FIX-deficient blood, and (ii) in the presence of exogenous thrombin, wherein the exogenous thrombin is present at a concentration of not more than about 90 nM; and comparing the thrombin generation activity to a standard curve plotting known activated FIX protein levels to thrombin generation activity; wherein the measuring is performed in the absence of exogenous tissue factor.
Addition-curable silicone rubber composition, comprising: at least one polyorganosiloxane having at least two unsaturated hydrocarbyl residues, at least one polyorganohydrogensiloxane, at least one hydrosilylation catalyst, comprising a transition metal, at least one organosilicon compound containing at least one polyvalent aromatic group, which is not directly attached to a silicon atom, and at least one Si-H group, different from compound B), at least one aromatic compound with at least two unsaturated hydrocarbyl groups, which aromatic compound does not contain a siloxane group, at least one silicone oil having at least one alkyl group having at least two carbon atoms, optionally one or more reinforcing fillers, and optionally one or more auxiliary additives. at least one polyorganosiloxane having at least two unsaturated hydrocarbyl residues, at least one polyorganohydrogensiloxane, at least one hydrosilylation catalyst, comprising a transition metal, at least one organosilicon compound containing at least one polyvalent aromatic group, which is not directly attached to a silicon atom, and at least one Si-H group, different from compound B), at least one aromatic compound with at least two unsaturated hydrocarbyl groups, which aromatic compound does not contain a siloxane group, at least one silicone oil having at least one alkyl group having at least two carbon atoms, optionally one or more reinforcing fillers, and optionally one or more auxiliary additives.
Method for cleaning a metallic surface in a vacuum chamber of a coating plant, in particular in a PECVD coating plant, wherein an electrode and a counter electrode are present inside the coating plant, a laser is located outside the vacuum chamber and the vacuum chamber has a window through which a laser beam of the laser can suitably pass into the vacuum chamber, wherein the metallic surface of an electrode is cleaned by means of laser light, wherein the surface to be cleaned is irradiated with laser light.