mhurhangee/ep-ind-claims huggingface dataset:
A 3D scanning device comprising: - a plurality of image acquisition modules connected to one another via connection elements, wherein the connection elements, together with the image acquisition modules, enclose a scanning region of the 3D scanning device, wherein each image acquisition module comprises a plurality of image acquisition devices arranged vertically above one another, and wherein each image acquisition device comprises: - multiple optical sensors arranged on a horizontal axis, - an adjusting apparatus which is configured to vary the angle of inclination of the optical sensors, and - a sensor controller configured to control the adjusting apparatus and configured to adjust and trigger the image acquisition of the optical sensors; and - a control and evaluation apparatus for controlling and evaluating the images of the image acquisition devices, wherein the control and evaluation device is set up to actuate each image acquisition device separately and individually and to align the angle of inclination of its optical sensors, characterized in that - the control and evaluation apparatus is set up to vertically scan an object by sequentially altering the angle of inclination of the optical sensors of the image acquisition devices, and - the 3D scanning device is set up to acquire images of the image acquisition devices for each altered angle of inclination, and - the control and evaluation apparatus is set up to evaluate the individual images of the image acquisition devices in order to form an overall image of the object by means of photogrammetry. - a plurality of image acquisition modules connected to one another via connection elements, wherein the connection elements, together with the image acquisition modules, enclose a scanning region of the 3D scanning device, - multiple optical sensors arranged on a horizontal axis, - an adjusting apparatus which is configured to vary the angle of inclination of the optical sensors, and - a sensor controller configured to control the adjusting apparatus and configured to adjust and trigger the image acquisition of the optical sensors; and - a control and evaluation apparatus for controlling and evaluating the images of the image acquisition devices, wherein the control and evaluation device is set up to actuate each image acquisition device separately and individually and to align the angle of inclination of its optical sensors, characterized in that - the control and evaluation apparatus is set up to vertically scan an object by sequentially altering the angle of inclination of the optical sensors of the image acquisition devices, and - the 3D scanning device is set up to acquire images of the image acquisition devices for each altered angle of inclination, and - the control and evaluation apparatus is set up to evaluate the individual images of the image acquisition devices in order to form an overall image of the object by means of photogrammetry.
Memory device comprising an oxide layer arranged between a first electrode and a second electrode, the oxide layer having a first zone and a second zone, with the first zone surrounding or being located on either side of the second zone, with the minimum distance d2 separating the first and second electrodes (100, 200) on the second zone of the oxide layer being less than the minimum distance d1 separating the first and second electrodes (100, 200) on the first zone of the oxide layer, characterized in that the ratio between the surface of at least one electrode (100, 200) among the first and second electrodes (100, 200) located facing the second zone and the surface of this electrode (100, 200) among the first and second electrodes (100, 200) located facing the first zone is comprised between 0.0001 and 0.5.
A recessed track lighting fixture, optionally attached to a ceiling structure via rods, tubes or cables, the recessed track lighting fixture, comprising: a housing; and an angular adjustment mechanism for a luminaire, the angular adjustment mechanism comprising: a support bracket coupled to the housing, the support bracket including an arcuate slot and a plurality of positioning apertures (100a, 100b), each positioning aperture corresponding to a position along an arc, at least one pin coupled to the luminaire for slidingly supporting the luminaire in the arcuate slot, and at least one positioning nub, preferably two positioning nubs, coupled to the luminaire, wherein each of the at least one positioning nubs has a rounded shape that acts as a cam and wherein the cams of the at least one positioning nubs are received by a corresponding number of the plurality of positioning apertures at a desired position along the arc. a housing; and an angular adjustment mechanism for a luminaire, the angular adjustment mechanism comprising: a support bracket coupled to the housing, the support bracket including an arcuate slot and a plurality of positioning apertures (100a, 100b), each positioning aperture corresponding to a position along an arc, at least one pin coupled to the luminaire for slidingly supporting the luminaire in the arcuate slot, and at least one positioning nub, preferably two positioning nubs, coupled to the luminaire, wherein each of the at least one positioning nubs has a rounded shape that acts as a cam and wherein the cams of the at least one positioning nubs are received by a corresponding number of the plurality of positioning apertures at a desired position along the arc. a support bracket coupled to the housing, the support bracket including an arcuate slot and a plurality of positioning apertures (100a, 100b), each positioning aperture corresponding to a position along an arc, at least one pin coupled to the luminaire for slidingly supporting the luminaire in the arcuate slot, and at least one positioning nub, preferably two positioning nubs, coupled to the luminaire, wherein each of the at least one positioning nubs has a rounded shape that acts as a cam and wherein the cams of the at least one positioning nubs are received by a corresponding number of the plurality of positioning apertures at a desired position along the arc.
A system for use in inspecting the blade tips of rotor blades, said system comprising: a probe holder assembly; and a probe assembly comprising an electromagnetic probe, said electromagnetic probe is sized for insertion into said probe holder assembly and is configured to emit electromagnetic energy from said probe holder assembly for use in inspecting a tip clearance defined between the rotor blades and a casing extending outward from the rotor blades, said probe holder assembly removably coupled to the casing to facilitate inspection of the blade tip clearance using said electromagnetic probe; characterized in that said probe holder assembly comprises a magnetic portion (466, 468) configured to removably couple said probe assembly to said probe holder assembly. a probe holder assembly; and a probe assembly comprising an electromagnetic probe, said electromagnetic probe is sized for insertion into said probe holder assembly and is configured to emit electromagnetic energy from said probe holder assembly for use in inspecting a tip clearance defined between the rotor blades and a casing extending outward from the rotor blades, said probe holder assembly removably coupled to the casing to facilitate inspection of the blade tip clearance using said electromagnetic probe; characterized in that said probe holder assembly comprises a magnetic portion (466, 468) configured to removably couple said probe assembly to said probe holder assembly.
A two-dimensional position map correcting method used when detecting radiation with radiation detectors each formed of a plurality of scintillator elements arranged in two dimensions or three dimensions, and a light sensor optically coupled thereto, for preparing a look-up table from a two-dimensional position map presenting, in two dimensions, signal strengths obtained with the light sensor as corresponding to incident positions of the radiation incident on the scintillator elements, the two-dimensional position map correcting method comprising a first adding step for adding the signal strengths in a portion of the two-dimensional position map, wherein the first adding step is executed to add the signal strengths of each portion of the two-dimensional position map; the method comprising a first boundary drawing step for drawing respective first boundaries (B 1) wherein the first boundary drawing step is executed to obtain respective local minimal or maximal values by comparing results of addition of the each portion in the first adding step and to draw the first boundaries (B 1) along positions of these local minimal or maximal values, the first boundaries (B 1) dividing the two-dimensional position map into a plurality of belts; a second adding step for adding the signal strengths of respective areas of the two-dimensional position map, each area comprising two belts adjacent to one another; an area setting step for setting one of the areas as a reference area (T 1, T 2) based on results of addition in the second adding step; a delimiting reference point determining step for determining respective delimiting reference points (D 1, D 2) based on respective signal strengths in the reference area (T 1, T 2) set in the area setting step, wherein the delimiting reference point determining step is executed to obtain respective local minimal or maximal values by comparing the signal strengths in the reference area (T 1, T 2), and to determine positions of these local minimal or maximal values to be the delimiting reference points (D 1, D 2); and a second boundary drawing step for drawing respective second boundaries (B 2) along the respective delimiting reference points (D 1, D 2) determined in the delimiting reference point determining step; the two-dimensional position map being corrected based on signal strengths enclosed by the first boundaries (B 1) and the second boundaries (B 2).
A deployable vehicle rear wing comprising: a rear mounted moveable element constructed from a main upper surface and a hinged lower surface, that in a first configuration closely conforms to the surrounding styled surface of the vehicle body and in a second configuration provides an airfoil section with an integrated Gurney flap; a lift mechanism including an arrangement of rotating linkages and sliding components such that a first actuator is configured to drive a pair of fixed arms to move the moveable element between a stowed position and a deployed position, the lift mechanism includes a second pair of actuators interconnected to the moveable element and the rotating linkages, the second actuators configured to move the moveable element between the deployed position and an air brake position; and a flap linkage packaged within the moveable element and coupled between the main upper surface and the hinged lower surface, the flap linkage incorporating a cam affixed with respect to the fixed arm so that the flap linkage is configured to move the hinged lower surface to the second configuration with the Gurney flap in an extended position in response to a change in relative position between the cam and the flap linkage. a rear mounted moveable element constructed from a main upper surface and a hinged lower surface, that in a first configuration closely conforms to the surrounding styled surface of the vehicle body and in a second configuration provides an airfoil section with an integrated Gurney flap; a lift mechanism including an arrangement of rotating linkages and sliding components such that a first actuator is configured to drive a pair of fixed arms to move the moveable element between a stowed position and a deployed position, the lift mechanism includes a second pair of actuators interconnected to the moveable element and the rotating linkages, the second actuators configured to move the moveable element between the deployed position and an air brake position; and a flap linkage packaged within the moveable element and coupled between the main upper surface and the hinged lower surface, the flap linkage incorporating a cam affixed with respect to the fixed arm so that the flap linkage is configured to move the hinged lower surface to the second configuration with the Gurney flap in an extended position in response to a change in relative position between the cam and the flap linkage.
Device for the automatic flushing of liquid lines, in particular drinking water lines, - with at least one connection for a liquid conduit, - with at least one connection for a drainage conduit, and - with a flushing valve that is arranged between the connections (4, 6) for the liquid conduit and drainage conduit, - wherein the flushing valve comprises a multiple valve with parallel valves, wherein the parallel valves are in communication with the fluid path via the connection and allowing a multiplication of the volume flow compared to a single valve, - wherein a control unit is provided, which controls the opening and closing of the individual valves in the flushing valve, wherein the control unit is configured to vary the number of parallel opened valves from the multiple valve in a flushing procedure, to which the device is connected, wherein the number of valves to be opened is adapted to the volume to be drained, characterised in that - a free discharge is arranged between the flushing valve and the connection for a drainage conduit. - with at least one connection for a liquid conduit, - with at least one connection for a drainage conduit, and - with a flushing valve that is arranged between the connections (4, 6) for the liquid conduit and drainage conduit, - wherein the flushing valve comprises a multiple valve with parallel valves, wherein the parallel valves are in communication with the fluid path via the connection and allowing a multiplication of the volume flow compared to a single valve, - wherein a control unit is provided, which controls the opening and closing of the individual valves in the flushing valve, wherein the control unit is configured to vary the number of parallel opened valves from the multiple valve in a flushing procedure, to which the device is connected, wherein the number of valves to be opened is adapted to the volume to be drained, characterised in that - a free discharge is arranged between the flushing valve and the connection for a drainage conduit.
Method for winding a continuously produced metal strip, comprising - guiding a metal strip over a guide roller of a guide roller pair positioned in a first roller position along a first transport path to a first reel, - (S3a, S4b) dividing the metal strip upstream of the guide roller pair, and - (S3b, S4a) repositioning the guide roller of the guide roller pair into a second roller position, in which the metal strip is guided over the guide roller along a second transport path to at least one second reel (S5a, S5b), characterized in that the repositioning of the guide roller takes place depending on a thickness of the metal strip and/or a transport speed of the metal strip either before or after the dividing of the metal strip. - guiding a metal strip over a guide roller of a guide roller pair positioned in a first roller position along a first transport path to a first reel, - (S3a, S4b) dividing the metal strip upstream of the guide roller pair, and - (S3b, S4a) repositioning the guide roller of the guide roller pair into a second roller position, in which the metal strip is guided over the guide roller along a second transport path to at least one second reel (S5a, S5b),
A vehicle, in particular a motorhome or a trailer, having a living area, a sanitary area and a corridor area adjacent to the sanitary area and to the living area, comprising a door element that is mounted so as to swing by means of a door hinge in the corner between the three areas (02, 03, 04), wherein the door element can be closed in a first closed position (10a, 10b), in which it spatially separates the sanitary area and the corridor area and in which the door element (10a, 10b) abuts against a first door frame element (15a, 15b, 30a, 30b), and wherein the door element can be closed in a second closed position, in which it spatially separates the corridor area and the living area and in which the door element abuts against a second door frame element, characterized in that the first door frame element (15, 30) is arranged on a slidable and/or swingable separating element (16, 31), the first door frame element (15, 30) and/or the separating element (16, 31) being adjustable between a retracted idle position (16a, 31a) and an extended use position (16b, 31b), wherein, in the idle position (16a, 31a) and in the use position (16b, 31b), the door element (10a, 10b) can be closed in the first closed position.
A polycyclic carbamoylpyridone derivative, a stereoisomer thereof, or a pharmaceutically acceptable salt thereof, wherein, the polycyclic carbamoylpyridone derivative is selected from the group consisting of:
An outdoor unit for an air conditioning device, comprising: a heat exchanger; and a spray nozzle for spraying water to air flowing toward the heat exchanger, wherein the spray nozzle has: an air guide portion through which air flows; characterized by a water guide portion through which water flows configured to cause the air flowing through the air guide portion to flow into water to form water containing a large number of bubbles; and a spray portion that is located downstream of the water guide portion in a direction of water flow and configured to spray, to the outside, the water containing a large number of bubbles which is formed in the water guide portion. a heat exchanger; and a spray nozzle for spraying water to air flowing toward the heat exchanger, wherein the spray nozzle has: an air guide portion through which air flows; characterized by a water guide portion through which water flows configured to cause the air flowing through the air guide portion to flow into water to form water containing a large number of bubbles; and a spray portion that is located downstream of the water guide portion in a direction of water flow and configured to spray, to the outside, the water containing a large number of bubbles which is formed in the water guide portion. an air guide portion through which air flows; characterized by a water guide portion through which water flows configured to cause the air flowing through the air guide portion to flow into water to form water containing a large number of bubbles; and a spray portion that is located downstream of the water guide portion in a direction of water flow and configured to spray, to the outside, the water containing a large number of bubbles which is formed in the water guide portion.
A human GDNF variant comprising the amino acid sequence of SEQ ID NO: 23: wherein: i) Xaa 84 is K or A; ii) Xaa 88 is R or K; iii) Xaa 90 is R or K; iv) Xaa 125 is K or E; and v) Xaa 130 is R or E. i) Xaa 84 is K or A; ii) Xaa 88 is R or K; iii) Xaa 90 is R or K; iv) Xaa 125 is K or E; and v) Xaa 130 is R or E.
A current-voltage, IV, curve scan method for a photovoltaic module, applied in an optimizer in a photovoltaic generation system, wherein the optimizer comprises a direct current/direct current, DC/DC, converting circuit configured to control output power of the photovoltaic module connected to the optimizer, an input end of the optimizer is connected to at least one photovoltaic module, output ends of a plurality of the optimizers are connected in series with each other and then connected to an inverter, the IV curve scan method comprises: receiving an IV curve scan signal; detecting a current of an inductor in the DC/DC converting circuit; calculating an output current of the photovoltaic module based on the current of the inductor and a duty ratio of a switch transistor between the inductor in the DC/DC converting circuit and the photovoltaic module; controlling an output voltage of the photovoltaic module corresponding to the IV curve scan signal to change from an open-circuit voltage to a preset minimum voltage according to a preset rule, to complete an IV curve scan; and recording IV curve data of the photovoltaic module corresponding to the IV curve scan signal. receiving an IV curve scan signal; detecting a current of an inductor in the DC/DC converting circuit; calculating an output current of the photovoltaic module based on the current of the inductor and a duty ratio of a switch transistor between the inductor in the DC/DC converting circuit and the photovoltaic module; controlling an output voltage of the photovoltaic module corresponding to the IV curve scan signal to change from an open-circuit voltage to a preset minimum voltage according to a preset rule, to complete an IV curve scan; and recording IV curve data of the photovoltaic module corresponding to the IV curve scan signal.
A compound comprising a phenothiazine residue covalently attached via a stable or degradable linkage to a water-soluble, non-peptidic oligomer, wherein the compound is of Formula Ib-C: R 1, R 2, R 3, and R 4, each independently are selected from the group consisting of hydrogen, unsubstituted alkyl, and substituted alkyl; or R 3 and R 4 together with the nitrogen form a heterocycle; n is an integer equal to or greater than one; X is a spacer moiety; and POLY is a poly(alkylene oxide) oligomer. R 1, R 2, R 3, and R 4, each independently are selected from the group consisting of hydrogen, unsubstituted alkyl, and substituted alkyl; or R 3 and R 4 together with the nitrogen form a heterocycle; n is an integer equal to or greater than one; X is a spacer moiety; and POLY is a poly(alkylene oxide) oligomer.
A particle collection panel configured to be disposed between a combustor shell and a combustor panel of a combustor of a gas turbine engine, the particle collection panel comprising: a plurality of particle collection chambers (122A, 122B); and a plurality of impingement holes, characterised in that each particle collection chamber (122A, 122B) is a cavity or a closed aperture defined in the body of the particle collection panel. a plurality of particle collection chambers (122A, 122B); and a plurality of impingement holes, characterised in that each particle collection chamber (122A, 122B) is a cavity or a closed aperture defined in the body of the particle collection panel.
A spring structure comprising: a substrate having an upper surface defining a plane; and a spring finger formed from a stress-engineered film deposited over the substrate, the spring finger having an anchor portion attached to the substrate and defining a second plane that is parallel the first plane, the spring finger also having a curved free portion extending from the anchor portion and bending out of the second plane away from the substrate, characterised in that the anchor portion of the spring finger includes at least one layer (126,127) having an isotropic internal stress. a substrate having an upper surface defining a plane; and a spring finger formed from a stress-engineered film deposited over the substrate, the spring finger having an anchor portion attached to the substrate and defining a second plane that is parallel the first plane, the spring finger also having a curved free portion extending from the anchor portion and bending out of the second plane away from the substrate, characterised in that the anchor portion of the spring finger includes at least one layer (126,127) having an isotropic internal stress.