mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: at least one light projector attachable to an aircraft at a first location, the at least one light projector configured to emit a first light beam in a first direction at a first intensity; at least one image sensor attachable to the aircraft at a second location, the at least one image sensor configured to capture a first image of a scene including reflections of the first light beam and a second image of the scene while the at least one light projector is not emitting light; and at least one controller configured to subtract pixel values of the second image from pixel values of the first image to provide a third image; characterised in that pixel coordinates of each pixel, upon which the third image indicates that reflected light is incident at a given angle, is indicative of range to an object or to atmospheric particles by which such light is reflected; wherein a distinct structure of the projected light as imaged in the third image is indicative of an object illuminated in clear air conditions, but a diffused structure of the projected light as imaged in the third image is indicative of degraded visibility conditions; wherein the at least one controller is further configured to determine, if the third image is indicative of degraded visibility conditions, a maximum detection range of the first light beam based upon the light intensity, the first location, and the second location. at least one light projector attachable to an aircraft at a first location, the at least one light projector configured to emit a first light beam in a first direction at a first intensity; at least one image sensor attachable to the aircraft at a second location, the at least one image sensor configured to capture a first image of a scene including reflections of the first light beam and a second image of the scene while the at least one light projector is not emitting light; and at least one controller configured to subtract pixel values of the second image from pixel values of the first image to provide a third image; characterised in that pixel coordinates of each pixel, upon which the third image indicates that reflected light is incident at a given angle, is indicative of range to an object or to atmospheric particles by which such light is reflected; wherein a distinct structure of the projected light as imaged in the third image is indicative of an object illuminated in clear air conditions, but a diffused structure of the projected light as imaged in the third image is indicative of degraded visibility conditions; wherein the at least one controller is further configured to determine, if the third image is indicative of degraded visibility conditions, a maximum detection range of the first light beam based upon the light intensity, the first location, and the second location.
Chassis component for a motor vehicle, in particular transverse control arm , the chassis component having a core part which has at least one first connection point and at least one second connection point , and having an outer sheathing of plastic, preferably fiber-reinforced plastic, which partially or completely encloses the core part , wherein the core part is made of fiber-reinforced plastic by injection molding, characterized in that the core part has a three-dimensional structure with a plurality of wall-shaped and/or pin-shaped ribs (2.1), at least 60%, preferably at least 80%, particularly preferably at least 95% of the ribs (2. 1) each have a thickness of at most 5 mm, wherein the outer shell encloses the ribs (2.1) in that the ribs (2.1) are extrusion-coated and/or moulded in with plastic of the outer sheathing , and wherein the core part has a long fiber content of at least 40 % by volume.
Crystal form III of compound (S)-N-[5-[1-(3-ethoxy-4-methoxyphenyl)-2-(methylsulfone)ethyl]-4,6-dioxo-5,6-dihy dro-4H-thieno[3,4-c]pyrrole-1-yl]acetamide, having characteristic peaks at diffraction angles 2θ of 6.5±0.2°, 7.1±0.2°, 7.4±0.2°, 19.2±0.2°, 19.6±0.2°, 25.8±0.2° and 26.5±0.2° in an X-ray powder diffraction (XRPD) pattern.
Installation frame for a roof passage in a trapezoidal sheet metal roof having two longitudinal trimming joists that are disposed parallel to and at a distance from each other and having two cross-ties that are likewise disposed parallel to and at a distance from each other and join the two longitudinal trimming joists together to form a rectangular frame, wherein the longitudinal trimming joists are aligned with one another symmetrically and are each designed as a metal profile and have an essentially Z-shaped cross-sectional profile, • having an upper horizontal leg , • and a lower horizontal leg , • and having a middle, vertical leg that extends vertically between the horizontal ties , characterised in that the longitudinal trimming joists and the cross-ties , which are likewise designed as metal profiles, are joined together by means of connecting brackets , where each of the connecting brackets incorporates a trimming surface that rests against the longitudinal trimming joist and a tying surface that rests against the cross-tie , and wherein each of the connecting brackets is joined to the longitudinal trimming joist and the cross-tie by separate connecting elements constructed as self-tapping screws . • having an upper horizontal leg , • and a lower horizontal leg , • and having a middle, vertical leg that extends vertically between the horizontal ties ,
An electrode assembly for use in a dielectric barrier discharge plasma source, the electrode assembly comprising - a base metal plate ; - an enamel layer on a surface of the base metal plate; - embedded electrodes embedded in the enamel layer, wherein the enamel layer comprises - a first layer of fused powdered glass on the base metal plate , the embedded electrodes lying on the first layer; - a plurality of second layers of fused powdered glass on top of each other over the first layer and the embedded electrodes . - a base metal plate ; - an enamel layer on a surface of the base metal plate; - embedded electrodes embedded in the enamel layer, wherein the enamel layer comprises - a first layer of fused powdered glass on the base metal plate , the embedded electrodes lying on the first layer; - a plurality of second layers of fused powdered glass on top of each other over the first layer and the embedded electrodes .
A printing system comprising: a print head in association with a platen roller for printing; a media configured to follow a media supply path which passes between said platen roller and said print head; a ribbon , comprising a substrate layer and a thermal transfer layer comprising ink, configured to follow a ribbon path which passes between said print head and said platen roller; a ribbon sensor , positioned so as to face a surface of the ribbon and configured to detect, before starting printing, a reflectance value from a ribbon to be utilized by the printing system for ascertaining an orientation of the ribbon; wherein the printing system is configured to ascertain that the substrate layer faces the ribbon sensor when the reflectance value corresponds to a substantially specular reflectance, and/or to ascertain that the thermal transfer layer faces the ribbon sensor when the reflectance value corresponds to a substantially diffuse reflectance. a print head in association with a platen roller for printing; a media configured to follow a media supply path which passes between said platen roller and said print head; a ribbon , comprising a substrate layer and a thermal transfer layer comprising ink, configured to follow a ribbon path which passes between said print head and said platen roller; a ribbon sensor , positioned so as to face a surface of the ribbon and configured to detect, before starting printing, a reflectance value from a ribbon to be utilized by the printing system for ascertaining an orientation of the ribbon; wherein the printing system is configured to ascertain that the substrate layer faces the ribbon sensor when the reflectance value corresponds to a substantially specular reflectance, and/or to ascertain that the thermal transfer layer faces the ribbon sensor when the reflectance value corresponds to a substantially diffuse reflectance.
Circuit board arrangement , having a circuit board that comprises a first soldering region and a second soldering region that is galvanically separated from said first soldering region and said circuit board further comprises a separator that is arranged between the soldering regions and is raised from the soldering regions , having a power semiconductor component that comprises a housing having an output connector side and at least one control connector and a plurality of output connectors protrude from said output connector side and said plurality of output connectors are arranged essentially adjacent to one another on the output connector side, wherein the control connector is connected to the first soldering region and the output connectors are connected to the second soldering region and wherein the control connector is separated from the output connectors via the raised separator , wherein at least one dummy output connector is provided that is embodied as shortened with respect to the output connectors and that is decoupled from the second soldering region , and wherein the dummy output connector is arranged adjacent to the control connector and in the region of the separator . having a circuit board that comprises a first soldering region and a second soldering region that is galvanically separated from said first soldering region and said circuit board further comprises a separator that is arranged between the soldering regions and is raised from the soldering regions , having a power semiconductor component that comprises a housing having an output connector side and at least one control connector and a plurality of output connectors protrude from said output connector side and said plurality of output connectors are arranged essentially adjacent to one another on the output connector side, wherein the control connector is connected to the first soldering region and the output connectors are connected to the second soldering region and wherein the control connector is separated from the output connectors via the raised separator , wherein at least one dummy output connector is provided that is embodied as shortened with respect to the output connectors and that is decoupled from the second soldering region , and wherein the dummy output connector is arranged adjacent to the control connector and in the region of the separator .
An isolated cod trypsin ZT isoform comprising an amino acid sequence according to SEQ ID NO:1.
Method for applying at least one perforated protective film to a surface of at least one component using an apparatus which comprises a base frame , a receptacle (3.01) for a supply roller comprising a protective film , at least one component receptacle for receiving the at least one component and a pressure roller , comprising the following steps: a) configuring the at least one component receptacle at a setting angle with respect to the base frame ; b) arranging the supply roller comprising the protective film in such a way that the unrolled protective film is at approximately the same setting angle with respect to the base frame ; c) placing and fixing the at least one component ; d) unrolling the protective film via at least one deflecting roller which spans the protective film , and positioning and fixing the unrolled protective film so as not to contact the at least one component ; e) applying the protective film to the at least one component by means of the pressure roller , which is guided over the at least one component and is kept in position by at least one counterweight (6.04); f) severing the protective film above the at least one component and removing excess parts of the protective film ; g) removing the component with applied film from the component receptacle . a) configuring the at least one component receptacle at a setting angle with respect to the base frame ; b) arranging the supply roller comprising the protective film in such a way that the unrolled protective film is at approximately the same setting angle with respect to the base frame ; c) placing and fixing the at least one component ; d) unrolling the protective film via at least one deflecting roller which spans the protective film , and positioning and fixing the unrolled protective film so as not to contact the at least one component ; e) applying the protective film to the at least one component by means of the pressure roller , which is guided over the at least one component and is kept in position by at least one counterweight (6.04); f) severing the protective film above the at least one component and removing excess parts of the protective film ; g) removing the component with applied film from the component receptacle .
A chassis of a vehicle with a head and neck support and protection device for a driver of the vehicle, wherein the device comprises • an arm , pivotably mounted to a support , comprising a helmet clip , at its end opposite to the pivotable mount, configured to engage a helmet pin ; • wherein the arm has a slidably-mounted element for connecting it to the helmet clip ; • whereas the slidably-mounted element is configured to slide out of the arm , in a controlled manner, when conditions indicating a crash have been met; . wherein the support is a carrying shaft connected to the chassis so that, once connected, it is fixedly positioned parallel to the left-right axis of the vehicle; characterized in that it further comprises: • a resistance block that is fixed to the chassis and configured to transfer energy into the chassis when the arm hits the resistance block ; • wherein the carrying shaft is positioned perpendicularly to the axis of the longer section of the arm . • an arm , pivotably mounted to a support , comprising a helmet clip , at its end opposite to the pivotable mount, configured to engage a helmet pin ; • wherein the arm has a slidably-mounted element for connecting it to the helmet clip ; • whereas the slidably-mounted element is configured to slide out of the arm , in a controlled manner, when conditions indicating a crash have been met; • a resistance block that is fixed to the chassis and configured to transfer energy into the chassis when the arm hits the resistance block ; • wherein the carrying shaft is positioned perpendicularly to the axis of the longer section of the arm .
Control device for an internal combustion engine comprising an intake channel with an inlet and an outlet , a mixing housing , an exhaust gas recirculation channel which opens into the intake channel a control body , an opening of the exhaust gas recirculation channel which serves as a fixed valve seat for the control body in the state closing off the exhaust gas recirculation channel a shaft which serves as the axis of rotation of the control body and to which the control body is eccentrically attached, wherein the control body is movable by rotation of the shaft between a first end position in which the control body at least throttles the intake channel and a second end position in which the control body rests on the valve seat at the opening of the exhaust gas recirculation channel , wherein the control body comprises a flap body via which the intake channel can at least be throttled and comprises a valve body which can be lowered onto the valve seat at the opening of the exhaust gas recirculation channel , wherein the valve body is attached to the flap body via a support axis , characterized in that the axis of rotation of the shaft is arranged in a plane spanned by the valve seat at the opening of the exhaust gas recirculation channel . an intake channel with an inlet and an outlet , a mixing housing , an exhaust gas recirculation channel which opens into the intake channel a control body , an opening of the exhaust gas recirculation channel which serves as a fixed valve seat for the control body in the state closing off the exhaust gas recirculation channel a shaft which serves as the axis of rotation of the control body and to which the control body is eccentrically attached, wherein the control body is movable by rotation of the shaft between a first end position in which the control body at least throttles the intake channel and a second end position in which the control body rests on the valve seat at the opening of the exhaust gas recirculation channel , wherein the control body comprises a flap body via which the intake channel can at least be throttled and comprises a valve body which can be lowered onto the valve seat at the opening of the exhaust gas recirculation channel , wherein the valve body is attached to the flap body via a support axis , characterized in that the axis of rotation of the shaft is arranged in a plane spanned by the valve seat at the opening of the exhaust gas recirculation channel .
A vulcanized rubber composition containing styrene-butadiene rubber and a resin, wherein an amount of the styrene-butadiene rubber contained in 100% by mass of a rubber component is 10 to 100% by mass, 5 to 200 parts by mass of the resin are contained per 100 parts by mass of the rubber component, and, when transmission measurement by Fourier-transform infrared spectroscopy is performed both before and after acetone extraction, a peak around 1600 cm -1 is shifted by not less than 0.6 cm -1 between before and after the acetone extraction. an amount of the styrene-butadiene rubber contained in 100% by mass of a rubber component is 10 to 100% by mass, 5 to 200 parts by mass of the resin are contained per 100 parts by mass of the rubber component, and, when transmission measurement by Fourier-transform infrared spectroscopy is performed both before and after acetone extraction, a peak around 1600 cm -1 is shifted by not less than 0.6 cm -1 between before and after the acetone extraction.
A shape memory alloy actuated fluidic subassembly (10; 20; 40) comprising: • a base (11; 21) with an inlet channel (12; 22) and an outlet channel (13; 23), • a compressible fluid-tight reservoir in communication with said inlet channel (12; 22) and with said outlet channel (13; 23), • at least one shape memory alloy wire (16, 16'; 26; 461, 462, 463, 464) arranged so as to compress, upon activation, said fluid-tight reservoir from a maximum volume Vo to a minimum volume V1, • elastic return means (17, 17', 17"; 28, 281) to restore the compressible fluid-tight reservoir volume from V1 to Vo upon deactivation of said at least one shape memory alloy wire (16, 16'; 26; 461, 462, 463, 464), characterized in that a wall (14; 24) separates the inlet channel (12; 22) and the outlet channel (13; 23), the fluid-tight reservoir communicates with said inlet channel (12; 22) through an inlet port (12'; 22') closed by an inlet flap (12"; 22") and with said outlet channel (13; 23) through an outlet port (13'; 23') closed by an outlet flap (13"; 23"), the at least one shape memory alloy wire (16; 16'; 26; 461; 462; 463; 464) compresses said fluid-tight reservoir by acting on a fluid-tight reservoir lid (18; 28) and the overall return force F of said elastic return means (17, 17', 17"; 28, 281), expressed in Newton, is given by Vo V 1 * 0.1 N ≤ F ≤ Vo V 1 ∗ 0.75 N wherein Vo/V1 is comprised between 2 and 5. • a base (11; 21) with an inlet channel (12; 22) and an outlet channel (13; 23), • a compressible fluid-tight reservoir in communication with said inlet channel (12; 22) and with said outlet channel (13; 23), • at least one shape memory alloy wire (16, 16'; 26; 461, 462, 463, 464) arranged so as to compress, upon activation, said fluid-tight reservoir from a maximum volume Vo to a minimum volume V1, • elastic return means (17, 17', 17"; 28, 281) to restore the compressible fluid-tight reservoir volume from V1 to Vo upon deactivation of said at least one shape memory alloy wire (16, 16'; 26; 461, 462, 463, 464),
An in vitro method of producing virus-receptive pluripotent stem cell-derived hepatocytes comprising: (a) obtaining pluripotent stem cell (PSC)-derived hepatocytes; and (b) culturing the PSC-derived hepatocytes in media comprising cyclic adenosine monophosphate (cAMP) and a Janus kinase inhibitor (JAKi), thereby producing virus receptive hepatocytes. (a) obtaining pluripotent stem cell (PSC)-derived hepatocytes; and (b) culturing the PSC-derived hepatocytes in media comprising cyclic adenosine monophosphate (cAMP) and a Janus kinase inhibitor (JAKi), thereby producing virus receptive hepatocytes.
A preparation, containing the mycoparasitic microorganism Pythium oligandrum strain DV74, for use in the treatment of dermatophytoses and yeast infections on the skin and mucous membranes, where the preparation in a form of aqueous suspension at a site of application, obtained from a dry mixture containing 0.1 to 99.9 % weight mycoparasitic microorganism Pythium oligandrum strain DV74 and 0.1 to 99.9 weight auxiliary substances, containing at least one component from a group comprising adsorbent, buffer, moisturizer, deodorant and aroma, wherein the preparation contains of 1 to 10 × 10 6 viable cells of the said microorganism Pythium oligandrum strain DV74 per 1 ml of aqueous suspension at the site of application, and wherein the viable cells of the microorganism Pythium oligandrum comprises dormant oospores, encysted zoospores and viable coenocytic mycelium. obtained from a dry mixture containing 0.1 to 99.9 % weight mycoparasitic microorganism Pythium oligandrum strain DV74 and 0.1 to 99.9 weight auxiliary substances, containing at least one component from a group comprising adsorbent, buffer, moisturizer, deodorant and aroma, wherein the preparation contains of 1 to 10 × 10 6 viable cells of the said microorganism Pythium oligandrum strain DV74 per 1 ml of aqueous suspension at the site of application, and wherein the viable cells of the microorganism Pythium oligandrum comprises dormant oospores, encysted zoospores and viable coenocytic mycelium.
A system for actuating a flap coupled to a wing of an aircraft in a streamwise direction , the system comprising: a geared rotary actuator , comprising a drive gear that is rotatable about a first rotational axis ; a crank shaft , comprising a driven gear in gear meshing engagement with the drive gear of the geared rotary actuator to rotate the crank shaft about a second rotational axis , wherein the second rotational axis is angled relative to the first rotational axis ; and a crank arm , co-rotatably coupled to the crank shaft and configured to be coupled to the flap , wherein rotation of the crank shaft about the second rotational axis rotates the crank arm in a direction perpendicular to the second rotational axis . a geared rotary actuator , comprising a drive gear that is rotatable about a first rotational axis ; a crank shaft , comprising a driven gear in gear meshing engagement with the drive gear of the geared rotary actuator to rotate the crank shaft about a second rotational axis , wherein the second rotational axis is angled relative to the first rotational axis ; and a crank arm , co-rotatably coupled to the crank shaft and configured to be coupled to the flap , wherein rotation of the crank shaft about the second rotational axis rotates the crank arm in a direction perpendicular to the second rotational axis .