mhurhangee/ep-ind-claims huggingface dataset:
A row crop harvesting header operable to be advanced along a forward travel direction to harvest a series of plants in a crop row, said row crop harvesting header comprising: a row crop toolbar that extends laterally relative to the forward travel direction; a crop-gathering row unit assembly supported by the toolbar to define a fore-and-aft extending row path, with the row unit assembly being operable to collect the crop row along the row path and sever crop stalks as the header moves forwardly; said row unit assembly including a row unit bracket supported by and located adjacent to the row crop toolbar along at least one side of the row path to support the row unit assembly; and a plant stalk stomper attached to the toolbar, said plant stalk stomper being laterally aligned with the row path to engage and knock down the severed stalks of the crop row; characterised in that said row unit assembly includes a row unit housing being attached to the row crop toolbar by a forward fastener and an aft fastener located, respectively, forward and aft of the toolbar; and said plant stalk stomper is attached to the toolbar using at least one of the same forward and aft fasteners (76a,b). a row crop toolbar that extends laterally relative to the forward travel direction; a crop-gathering row unit assembly supported by the toolbar to define a fore-and-aft extending row path, with the row unit assembly being operable to collect the crop row along the row path and sever crop stalks as the header moves forwardly; said row unit assembly including a row unit bracket supported by and located adjacent to the row crop toolbar along at least one side of the row path to support the row unit assembly; and a plant stalk stomper attached to the toolbar, said plant stalk stomper being laterally aligned with the row path to engage and knock down the severed stalks of the crop row; characterised in that said row unit assembly includes a row unit housing being attached to the row crop toolbar by a forward fastener and an aft fastener located, respectively, forward and aft of the toolbar; and said plant stalk stomper is attached to the toolbar using at least one of the same forward and aft fasteners (76a,b).
Surveying device, in particular total station, tracker, or scanner, having at least - an optical measuring beam path, - a base for positioning the surveying device, - a yaw component for azimuthally aligning the optical beam path, said yaw component being rotatably mounted on the base about a standing axis, and - a pitch component for elevatively aligning the optical beam path, said pitch component being rotatably mounted in the yaw component about a tilt axis, characterized in that a solid of revolution, in particular a ball, is chucked in a self-centering manner between - a cavity in the yaw component and - a cavity at one end of the pitch component shaft, so that with means of the solid of revolution being chucked in the cavities, the pitch component is at said end rotatably slide-mounted in the yaw component both radially and axially. - an optical measuring beam path, - a base for positioning the surveying device, - a yaw component for azimuthally aligning the optical beam path, said yaw component being rotatably mounted on the base about a standing axis, and - a pitch component for elevatively aligning the optical beam path, said pitch component being rotatably mounted in the yaw component about a tilt axis, - a cavity in the yaw component and - a cavity at one end of the pitch component shaft,
Method for producing microcapsules comprising a core material and a shell comprising the following steps, a) adding at least one crosslinking agent to a composition comprising at least one first solubilised polyelectrolyte (polyelectrolyte A), b) then adding the core material, c) optionally adding further polyelectrolyte A, optionally solubilised, d) then optionally cooling the composition before, e) adding at least one second solubilised polyelectrolyte (polyelectrolyte B) in a next step, f) then fostering a coacervation of the polyelectrolytes, wherein polyelectrolyte A is anionic and polyelectrolyte B is cationic or amphoteric. a) adding at least one crosslinking agent to a composition comprising at least one first solubilised polyelectrolyte (polyelectrolyte A), b) then adding the core material, c) optionally adding further polyelectrolyte A, optionally solubilised, d) then optionally cooling the composition before, e) adding at least one second solubilised polyelectrolyte (polyelectrolyte B) in a next step, f) then fostering a coacervation of the polyelectrolytes,
Device for packaging and dispensing, preferably treatment device using an electric current, comprising: - a refill comprising a product to be dispensed, comprising a vessel defined at least partially by a flexible wall, - a pressing member to press on the flexible wall in order to pressurise the product contained therein, characterised in that the pressing member comprises two flaps hinging with one another, each connected to a mechanical system causing the flap to bear against the refill. - a refill comprising a product to be dispensed, comprising a vessel defined at least partially by a flexible wall, - a pressing member to press on the flexible wall in order to pressurise the product contained therein,
Apparatus for visualizing an image object (30,31,40) relating to an instrument in an extracorporeal image, wherein the apparatus is configured to: receive at least one extracorporeal image of a region of interest comprising a projection of the instrument onto an imaging plane with respect to an extracorporeal image frame from an extracorporeal image acquisition system; determine a projection of a graphical model of the instrument onto the imaging plane, which matches the projection of the instrument, determine a position and/or orientation of the instrument in the extracorporeal image frame based on the determined projection of the graphical model; receive temporal information on positions and/or orientations of the instrument in the region of interest with respect to a tracking frame from a tracking arrangement; register the position and/or orientation of the instrument in the extracorporeal image frame to the position and/or orientation of the instrument in the region of interest with respect to a tracking frame in an initial instance; transform the positions and/or orientations of the instrument from the tracking frame at any later instance into the extracorporeal image frame using a transform; output a visualization of the image object (30,31,40) in the at least one extracorporeal image based on the transform, wherein the image object (30,31,40) relates to a position and/or an orientation of the instrument at a later instance than when the at least one extracorporeal image is acquired. receive at least one extracorporeal image of a region of interest comprising a projection of the instrument onto an imaging plane with respect to an extracorporeal image frame from an extracorporeal image acquisition system; determine a projection of a graphical model of the instrument onto the imaging plane, which matches the projection of the instrument, determine a position and/or orientation of the instrument in the extracorporeal image frame based on the determined projection of the graphical model; receive temporal information on positions and/or orientations of the instrument in the region of interest with respect to a tracking frame from a tracking arrangement; register the position and/or orientation of the instrument in the extracorporeal image frame to the position and/or orientation of the instrument in the region of interest with respect to a tracking frame in an initial instance; transform the positions and/or orientations of the instrument from the tracking frame at any later instance into the extracorporeal image frame using a transform; output a visualization of the image object (30,31,40) in the at least one extracorporeal image based on the transform, wherein the image object (30,31,40) relates to a position and/or an orientation of the instrument at a later instance than when the at least one extracorporeal image is acquired.
A quantum dot device, comprising: a first electrode and a second electrode each having a surface opposite the other; and a quantum dot layer between the first electrode and the second electrode, and further comprising: an electron transport layer between the quantum dot layer and the second electrode, the electron transport layer comprising first inorganic nanoparticles and a first organic material; and an electron injection layer between the electron transport layer and the second electrode, characterized in that the electron injection layer comprising second inorganic nanoparticles and a second organic material, wherein a ratio by weight of an amount of the second organic material to a total amount of the second inorganic nanoparticles and the second organic material in the electron injection layer is less than a ratio by weight of an amount of the first organic material to a total amount of the first inorganic nanoparticles and the first organic material in the electron transport layer. a first electrode and a second electrode each having a surface opposite the other; and a quantum dot layer between the first electrode and the second electrode, and further comprising: an electron transport layer between the quantum dot layer and the second electrode, the electron transport layer comprising first inorganic nanoparticles and a first organic material; and an electron injection layer between the electron transport layer and the second electrode, characterized in that the electron injection layer comprising second inorganic nanoparticles and a second organic material, wherein a ratio by weight of an amount of the second organic material to a total amount of the second inorganic nanoparticles and the second organic material in the electron injection layer is less than a ratio by weight of an amount of the first organic material to a total amount of the first inorganic nanoparticles and the first organic material in the electron transport layer. an electron transport layer between the quantum dot layer and the second electrode, the electron transport layer comprising first inorganic nanoparticles and a first organic material; and an electron injection layer between the electron transport layer and the second electrode, characterized in that the electron injection layer comprising second inorganic nanoparticles and a second organic material, wherein a ratio by weight of an amount of the second organic material to a total amount of the second inorganic nanoparticles and the second organic material in the electron injection layer is less than a ratio by weight of an amount of the first organic material to a total amount of the first inorganic nanoparticles and the first organic material in the electron transport layer.
An electric work machine with cutting blade, comprising: a cutting blade; an electric motor that rotationally drives the cutting blade; a clutch configured to engage and disengage motive power between the electric motor and the cutting blade; operation means configured for operating the clutch such as to switch between a state in which the clutch is disengaged and motive power of the electric motor is not transmitted to the cutting blade and a state in which the clutch is engaged and motive power of the electric motor is transmitted to the cutting blade; a sensor configured to detect movement of the operation means; and a controller configured to control operation of the electric motor and recognise release of the w state in which the clutch is disengaged based on a signal from the sensor, wherein the controller is configured to stop rotation of the electric motor during a period that includes a moment at which the clutch is engaged by stopping energization of the electric motor after the state, in which the clutch is disengaged is released, and restarting the electric motor after a prescribed time period elapses after stopping the energization. a cutting blade; an electric motor that rotationally drives the cutting blade; a clutch configured to engage and disengage motive power between the electric motor and the cutting blade; operation means configured for operating the clutch such as to switch between a state in which the clutch is disengaged and motive power of the electric motor is not transmitted to the cutting blade and a state in which the clutch is engaged and motive power of the electric motor is transmitted to the cutting blade; a sensor configured to detect movement of the operation means; and a controller configured to control operation of the electric motor and recognise release of the w state in which the clutch is disengaged based on a signal from the sensor, wherein the controller is configured to stop rotation of the electric motor during a period that includes a moment at which the clutch is engaged by stopping energization of the electric motor after the state, in which the clutch is disengaged is released, and restarting the electric motor after a prescribed time period elapses after stopping the energization.
A heat exchanger comprising: a core portion that includes a flow path through which each of a first fluid and a second fluid flows, and exchanges heat between the first fluid and the second fluid; a header portion (2; 2a; 2b; 2c; 2d) that is mounted on the core portion and allows the first fluid or the second fluid to flow into the flow path or flow out of the flow path; and an intermediate member (3; 3a; 3b; 3c; 3d) that is provided between the core portion and the header portion (2; 2a; 2b; 2c; 2d), has a substantially rectangular frame shape, and bonds the core portion and the header portion (2; 2a; 2b; 2c; 2d) to each other, characterised by a curvature radius, at a core portion side, of a corner (31a; 31b; 31c; 31d) of the intermediate member (3; 3a; 3b; 3c; 3d) is smaller than a curvature radius (R1; R2; R3), at a header portion side, of the corner (31a; 31b; 31c; 31d) of the intermediate member (3; 3a; 3b; 3c; 3d). a core portion that includes a flow path through which each of a first fluid and a second fluid flows, and exchanges heat between the first fluid and the second fluid; a header portion (2; 2a; 2b; 2c; 2d) that is mounted on the core portion and allows the first fluid or the second fluid to flow into the flow path or flow out of the flow path; and an intermediate member (3; 3a; 3b; 3c; 3d) that is provided between the core portion and the header portion (2; 2a; 2b; 2c; 2d), has a substantially rectangular frame shape, and bonds the core portion and the header portion (2; 2a; 2b; 2c; 2d) to each other, characterised by a curvature radius, at a core portion side, of a corner (31a; 31b; 31c; 31d) of the intermediate member (3; 3a; 3b; 3c; 3d) is smaller than a curvature radius (R1; R2; R3), at a header portion side, of the corner (31a; 31b; 31c; 31d) of the intermediate member (3; 3a; 3b; 3c; 3d).
A method of controlling the angular orientation of at least one variable fluidfoil (54, 54a, 54b, 54c), the method comprising the steps of: a) receiving detected fluidfoil angular orientation data for the at least one fluidfoil (54, 54a, 54b, 54c); b) receiving data regarding the operating point of the variable fluidfoil (54, 54a, 54b, 54c) and/or of all or part of a broader system in which the variable fluidfoil (54, 54a, 54b, 54c) is employed; c) receiving a fluidfoil angular orientation demand; d) selecting a modification algorithm for calculating a modified demand, the selection of the modification algorithm being made according to the operating point of the variable fluidfoil (54, 54a, 54b, 54c) and/or of all or part of the broader system in which the variable fluidfoil (54, 54a, 54b, 54c) is employed; e) generating the modified angular orientation demand by modifying the fluidfoil angular orientation demand before it is used to control adjustment of the at least one fluidfoil (54, 54a, 54b, 54c), the modification being performed using the detected fluidfoil angular orientation data; and f) outputting the modified demand and controlling the at least one fluidfoil angular orientation in accordance with the modified demand. a) receiving detected fluidfoil angular orientation data for the at least one fluidfoil (54, 54a, 54b, 54c); b) receiving data regarding the operating point of the variable fluidfoil (54, 54a, 54b, 54c) and/or of all or part of a broader system in which the variable fluidfoil (54, 54a, 54b, 54c) is employed; c) receiving a fluidfoil angular orientation demand; d) selecting a modification algorithm for calculating a modified demand, the selection of the modification algorithm being made according to the operating point of the variable fluidfoil (54, 54a, 54b, 54c) and/or of all or part of the broader system in which the variable fluidfoil (54, 54a, 54b, 54c) is employed; e) generating the modified angular orientation demand by modifying the fluidfoil angular orientation demand before it is used to control adjustment of the at least one fluidfoil (54, 54a, 54b, 54c), the modification being performed using the detected fluidfoil angular orientation data; and f) outputting the modified demand and controlling the at least one fluidfoil angular orientation in accordance with the modified demand.
A computer-implemented method of processing rays in a graphics processing system configured to render a scene, the method comprising: grouping a plurality of rays together into a ray bundle; performing intersection testing on the rays of the ray bundle in the scene; if a ray of the ray bundle does not have matching intersection testing results with other rays in the ray bundle, marking the ray as a tracker ray in the ray bundle; and rendering the scene, wherein said rendering the scene comprises executing one or more shader programs on the rays in the ray bundle, wherein the execution of at least one of the shader programs comprises using the tracker ray to determine differential data for a another ray of the ray bundle, wherein the differential data indicates the rate of change of an attribute for changes in horizontal or vertical pixel or fragment position. grouping a plurality of rays together into a ray bundle; performing intersection testing on the rays of the ray bundle in the scene; if a ray of the ray bundle does not have matching intersection testing results with other rays in the ray bundle, marking the ray as a tracker ray in the ray bundle; and rendering the scene, wherein said rendering the scene comprises executing one or more shader programs on the rays in the ray bundle, wherein the execution of at least one of the shader programs comprises using the tracker ray to determine differential data for a another ray of the ray bundle, wherein the differential data indicates the rate of change of an attribute for changes in horizontal or vertical pixel or fragment position.
A structure part of a land, water or air vehicle having at least one plate-like portion, which is provided with a sleeve for joining an attachment piece, which sleeve includes a threaded hole for being engaged by a screw for securing the attachment piece, wherein the sleeve comprises an insert which is provided with the threaded hole, and which reaches through a corresponding through-hole of the plate-like portion in an axial direction of the threaded hole and, at one end, is limited by a front plate, which rests against the plate-like portion, wherein a punched disc rests against the side of the insert facing away from the front plate, said punched disc resting against the side of the plate-like portion facing away from the front plate, characterised in that the insert and the punched disc rest against the plate-like portion via a connecting material layer.
A sensor assembly comprising: a first sensor package including: a first sensor die; a first set of connector pins (26, 28) electrically connected to the first sensor die; a first housing in which the first sensor die is located, the first housing having first and second surfaces spaced apart from one another by first, second, third, and fourth sidewalls; and a first component positioned in proximity to the second surface of the first housing; a second sensor package adjacent to the first sensor package, the second sensor package including: a second sensor die; a second set of connector pins (52, 54) electrically connected to the second sensor die; a second housing in which the second sensor die is located, the second housing having third and fourth surfaces spaced apart from one another by fifth, sixth, seventh, and eighth sidewalls; and a second component positioned in proximity to the fourth surface of the second housing; and an overmold material overmolded about the first and second sensor packages to form the sensor assembly. a first sensor package including: a first sensor die; a first set of connector pins (26, 28) electrically connected to the first sensor die; a first housing in which the first sensor die is located, the first housing having first and second surfaces spaced apart from one another by first, second, third, and fourth sidewalls; and a first component positioned in proximity to the second surface of the first housing; a first sensor die; a first set of connector pins (26, 28) electrically connected to the first sensor die; a first housing in which the first sensor die is located, the first housing having first and second surfaces spaced apart from one another by first, second, third, and fourth sidewalls; and a first component positioned in proximity to the second surface of the first housing; a second sensor package adjacent to the first sensor package, the second sensor package including: a second sensor die; a second set of connector pins (52, 54) electrically connected to the second sensor die; a second housing in which the second sensor die is located, the second housing having third and fourth surfaces spaced apart from one another by fifth, sixth, seventh, and eighth sidewalls; and a second component positioned in proximity to the fourth surface of the second housing; and a second sensor die; a second set of connector pins (52, 54) electrically connected to the second sensor die; a second housing in which the second sensor die is located, the second housing having third and fourth surfaces spaced apart from one another by fifth, sixth, seventh, and eighth sidewalls; and a second component positioned in proximity to the fourth surface of the second housing; and an overmold material overmolded about the first and second sensor packages to form the sensor assembly.
A cordless welding machine comprising: first and second batteries (B1, B2) being connected to provide a current output of at least 40 amps; a ground clamp connected to the first and second batteries; a first welding electrode connected to the first and second batteries; and a charger circuit electrically connectable to an a.c. source for charging the first and second batteries; characterized in that the first and second batteries (B1, B2) are removable power tool batteries connectable to a power tool and wherein the first and second batteries are connected in parallel. first and second batteries (B1, B2) being connected to provide a current output of at least 40 amps; a ground clamp connected to the first and second batteries; a first welding electrode connected to the first and second batteries; and a charger circuit electrically connectable to an a.c. source for charging the first and second batteries; characterized in that the first and second batteries (B1, B2) are removable power tool batteries connectable to a power tool and wherein the first and second batteries are connected in parallel.