mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: circuitry configured to input, to a first trained model third projection data to generate fourth projection data, receive the third projection data, said third projection data obtained from a computed tomography, CT, scan, and reconstruct a first image based on the fourth projection data, wherein the first trained model has been trained using first projection data as an input and second projection data or first subtraction data between the first projection data and the second projection data as an output, the first projection data being acquired using an X-ray source having a first focal spot size, the second projection data being acquired using an X-ray source having a second focal spot size that is smaller than the first focal spot size, and the third projection data being acquired using an X-ray source having a third focal spot size that is larger than the second focal spot size, characterised in that the first trained model is a trained model on which further training is performed by using data acquired using a detector array having detection elements of a first size as an input and using data acquired using detection elements of a second size as an output, the second size being smaller than the first size. circuitry configured to input, to a first trained model third projection data to generate fourth projection data, receive the third projection data, said third projection data obtained from a computed tomography, CT, scan, and reconstruct a first image based on the fourth projection data, wherein the first trained model has been trained using first projection data as an input and second projection data or first subtraction data between the first projection data and the second projection data as an output, input, to a first trained model third projection data to generate fourth projection data, receive the third projection data, said third projection data obtained from a computed tomography, CT, scan, and reconstruct a first image based on the fourth projection data, wherein the first trained model has been trained using first projection data as an input and second projection data or first subtraction data between the first projection data and the second projection data as an output, the first projection data being acquired using an X-ray source having a first focal spot size, the second projection data being acquired using an X-ray source having a second focal spot size that is smaller than the first focal spot size, and the third projection data being acquired using an X-ray source having a third focal spot size that is larger than the second focal spot size, characterised in that the first trained model is a trained model on which further training is performed by using data acquired using a detector array having detection elements of a first size as an input and using data acquired using detection elements of a second size as an output, the second size being smaller than the first size.
A slot die having a slit-shaped discharge port in which a length of a discharge passage in a width direction based on a cross section of a discharge port is greater than a thickness perpendicular to the width direction, the slot die comprising: a lower body configured to form a lower surface of the discharge passage and has an internal space recessed in a concave shape to accommodate the slurry; an upper body configured to be disposed opposite the lower body to determine the thickness of the discharge passage and to have a slit-shaped through path formed in the width direction; a stripe shim configured to be positioned on the discharge passage of the slot die and to divide the discharge port in the width direction; a cover shim configured to be located on the stripe shim and to include a through hole formed in a central part; characterised by a choke bar configured to open and close a part of the discharge passage of the slot die while moving in a direction perpendicular to the discharge direction through the through path of the upper body, wherein a length of the through hole formed in the cover shim in a width direction is the same as a length of the through path formed in the upper body in a width direction, and wherein a discharge direction length of the through hole formed in the cover shim is greater than or equal to a sum of a discharge direction length of the through path and a discharge direction length of the internal space. a lower body configured to form a lower surface of the discharge passage and has an internal space recessed in a concave shape to accommodate the slurry; an upper body configured to be disposed opposite the lower body to determine the thickness of the discharge passage and to have a slit-shaped through path formed in the width direction; a stripe shim configured to be positioned on the discharge passage of the slot die and to divide the discharge port in the width direction; a cover shim configured to be located on the stripe shim and to include a through hole formed in a central part; a choke bar configured to open and close a part of the discharge passage of the slot die while moving in a direction perpendicular to the discharge direction through the through path of the upper body, wherein a length of the through hole formed in the cover shim in a width direction is the same as a length of the through path formed in the upper body in a width direction, and wherein a discharge direction length of the through hole formed in the cover shim is greater than or equal to a sum of a discharge direction length of the through path and a discharge direction length of the internal space.
Tyre for a heavy goods vehicle comprising two beads intended to come into contact with a rim and connected respectively via two sidewalls to a tread strip, this tyre comprising a carcass reinforcement comprising a plurality of reinforcing elements, this carcass reinforcement comprising a main part wrapped within each bead around a bead wire core (171, 172) to form a turned-back portion, each bead comprising an additional reinforcement and a filler profiled element extending the bead wire core radially outwards, this filler profiled element having, in any meridian plane, a triangular cross section and being formed of a stack in the radial direction of at least two polymer materials (11, 12, 13) in contact along a contact surface that intersects any meridian plane along a meridian line (112, 123), the axially outermost end (E 112, E 123) of the meridian line of any contact surface for contact between two polymer materials of the filler profiled element being the radially outermost point on the said meridian line, the axially innermost end (I 112, I 123) of the said meridian line being the radially innermost point of the said meridian line, the said meridian line (112, 123) being at least partially radially on the outside of the straight line that passes through the two ends (E 112, I 112, E 123, I 123) of the said meridian line, characterized in that the radial distance (D 112, D 123) between the ends of the meridian line (112, 123) of any contact surface for contact between two polymer materials of the filler profiled element is at least equal to 5% of the design section height H of the tyre, and in that the elastic modulus of the polymer material of the filler profiled element in contact with the bead wire core is greater than the elastic modulus of any other polymer material (12, 13) of the filler profiled element.
A paging message transmission method, wherein the method comprises: compressing, by an access network device, scheduling information corresponding to a first paging message, wherein the first paging message is a message for terminal paging, and a quantity of bits occupied by compressed scheduling information is not greater than a preset bit quantity; and sending, by the access network device, a second paging message to a terminal device when a first paging occasion arrives, and sending the first paging message on a time-frequency resource corresponding to the compressed scheduling information, wherein the second paging message comprises a first identifier and the compressed scheduling information, and the first identifier is used to identify that the second paging message is a short message. compressing, by an access network device, scheduling information corresponding to a first paging message, wherein the first paging message is a message for terminal paging, and a quantity of bits occupied by compressed scheduling information is not greater than a preset bit quantity; and sending, by the access network device, a second paging message to a terminal device when a first paging occasion arrives, and sending the first paging message on a time-frequency resource corresponding to the compressed scheduling information, wherein the second paging message comprises a first identifier and the compressed scheduling information, and the first identifier is used to identify that the second paging message is a short message.
Heat exchanger of a gas burning oven comprising at least two tube bundles being adapted to extend at opposite sides between an exhaust gases inlet, connectable with a gas burner of said oven, and an exhaust gases outlet, connectable with an exhaust manifold of said oven, each tube bundle comprising at least two tubular portions (12A, 12B, 12C, 12A', 12B'), each formed by at least one tube, said tubular portions lying on planes parallel to each other and perpendicular to an horizontal axis (X-X) and being joined in series through at least one return element (13, 15) such that each tubular portion is adapted to be traversed by the exhaust gases in a flowing direction opposite to a flowing direction of a tubular portion lying on an adjacent plane, characterized in that said tubular portions (12A, 12B, 12C, 12A', 12B') are arranged adjacent to each other, overlapped and axially aligned with respect to said horizontal axis (X-X).
A separation container (10, 11), comprising: a separation tube configured to receive a sample therein; a first sedimentation part connected to an end portion of the tube, the separation container (10, 11) being configured such that a particle in the sample will be deposited in the first sedimentation part by a centrifugal or agitating force; and a separating part provided in the tube and including first and second separating layers (50a, 50b) being installed to be movable along the tube, operative to selectively open the tube to an open state and close the tube to a closed state for controlling a flow of the sample therethrough, and movable relative to each other in the sample within the tube to adjust a distance between the first and second separating layers (50a, 50b), characterized in that the first and second separating layers (50a, 50b) are adapted to be stationary in the open state within the tube during application of the centrifugal or agitating force, the first and second separating layers (50a, 50b) are operable to move toward a target layer in the open state after the centrifugal or agitating force, the first and second separating layers (50a, 50b) are operable to change from the open state into the closed state when the target layer is between the first and second separating layers (50a, 50b), and the first and second separating layers (50a, 50b) are configured to close the tube to block the flow of the sample therethrough in the closed state respectively such that the target layer in the sample is isolated and surrounded between the first and second separating layers (50a, 50b). a separation tube configured to receive a sample therein; a first sedimentation part connected to an end portion of the tube, the separation container (10, 11) being configured such that a particle in the sample will be deposited in the first sedimentation part by a centrifugal or agitating force; and a separating part provided in the tube and including first and second separating layers (50a, 50b) being installed to be movable along the tube, operative to selectively open the tube to an open state and close the tube to a closed state for controlling a flow of the sample therethrough, and movable relative to each other in the sample within the tube to adjust a distance between the first and second separating layers (50a, 50b), characterized in that the first and second separating layers (50a, 50b) are adapted to be stationary in the open state within the tube during application of the centrifugal or agitating force, the first and second separating layers (50a, 50b) are operable to move toward a target layer in the open state after the centrifugal or agitating force, the first and second separating layers (50a, 50b) are operable to change from the open state into the closed state when the target layer is between the first and second separating layers (50a, 50b), and the first and second separating layers (50a, 50b) are configured to close the tube to block the flow of the sample therethrough in the closed state respectively such that the target layer in the sample is isolated and surrounded between the first and second separating layers (50a, 50b).
A trimmer head comprising: a rotation axis (A-A); a housing; a spool insertable in the housing, configured and arranged for winding a stock of cutting line therearound, the spool comprising at least a first flange extending around a spool axis; at least two cutting line passage holes for the passage of the cutting line from the inside to the outside of the housing; characterized in that the spool comprises a plurality of cutting line anchoring elements, angularly spaced from one another to form a space for insertion of the cutting line between consecutively arranged cutting line anchoring elements, said cutting line anchoring elements extending from the first flange and being spaced from the spool axis.
A drilling end effector for drilling a workpiece having a workpiece surface, the drilling end effector comprising: a chuck configured to hold a drilling tool; and a nosepiece configured to at least partially surround the drilling tool when the drilling tool is held by the chuck, the nosepiece comprising an end portion, the nosepiece comprising at least one suction cup and at least one suction feed line, the at least one suction cup being fluidly connected to the at least one suction feed line, the at least one suction feed line being configured to be fluidly connected to a suction system, wherein the at least one suction cup is configured to be engaged in physical contact with the workpiece surface and pulled under suction by the suction system such that the at least one suction cup adheres to the workpiece surface to thereby hold the end portion of the nosepiece on the workpiece surface, characterised in that: the end portion of the nosepiece comprises an end surface that is configured to engage in physical contact with the workpiece surface of the workpiece during drilling of the workpiece; and the end surface of the nosepiece comprising the at least one suction cup, wherein the at least one suction cup is at least partially recessed into the end surface. a chuck configured to hold a drilling tool; and a nosepiece configured to at least partially surround the drilling tool when the drilling tool is held by the chuck, the nosepiece comprising an end portion, the nosepiece comprising at least one suction cup and at least one suction feed line, the at least one suction cup being fluidly connected to the at least one suction feed line, the at least one suction feed line being configured to be fluidly connected to a suction system, wherein the at least one suction cup is configured to be engaged in physical contact with the workpiece surface and pulled under suction by the suction system such that the at least one suction cup adheres to the workpiece surface to thereby hold the end portion of the nosepiece on the workpiece surface, characterised in that: the end portion of the nosepiece comprises an end surface that is configured to engage in physical contact with the workpiece surface of the workpiece during drilling of the workpiece; and the end surface of the nosepiece comprising the at least one suction cup, wherein the at least one suction cup is at least partially recessed into the end surface. the end portion of the nosepiece comprises an end surface that is configured to engage in physical contact with the workpiece surface of the workpiece during drilling of the workpiece; and the end surface of the nosepiece comprising the at least one suction cup, wherein the at least one suction cup is at least partially recessed into the end surface.
A brake test stand for motor vehicles, comprising - at least one drive roller mounted rotatably in a test stand frame and adapted to drive a wheel of a motor vehicle, - at least one drive means adapted to drive said drive roller and arranged in a fixed position on said test stand frame, and - at least one first shaft connected to said drive roller for rotation therewith, by means of which the torque is transmittable between said drive roller and said drive means, and characterized in that said first shaft includes at least one end portion or central portion which has been magnetically encoded by applying current pulses via current supply and discharge lines, and said brake test stand for motor vehicles further comprises a detection device which is adapted to detect the transmitted torque based on a magnetic change in response to a change in the mechanical stress on said end and central portions or a deformation thereof. - at least one drive roller mounted rotatably in a test stand frame and adapted to drive a wheel of a motor vehicle, - at least one drive means adapted to drive said drive roller and arranged in a fixed position on said test stand frame, and - at least one first shaft connected to said drive roller for rotation therewith, by means of which the torque is transmittable between said drive roller and said drive means, and
Aircraft landing gear strut including: a main part extending along a main axis (X-X) of the strut and including an axle shaft extending in a plane perpendicular to the main axis of the strut, this axle shaft being adapted to support at least one landing gear wheel (2a, 2b) equipped with brakes (3a, 3b) for braking the wheel, said axle shaft being made of steel, characterized in that the axle shaft has at least one zinc nickel alloy coating layer, this zinc nickel alloy including, as a percentage by weight of the alloy, between 12% and 18% of nickel, at most 0.5% of elements other than nickel and zinc, the rest being zinc, the axle shaft including at least one bearing seat (5a, 5b) adapted to receive at least one wheel bearing race, each said at least one seat (5a, 5b) being formed by an annular layer of chrome formed on an external surface made of steel of the axle shaft, said at least one zinc nickel alloy coating layer extending at least over all the steel surfaces of the axle shaft that are situated outside said at least one bearing seat (5a, 5b) made of chrome, and each at least one bearing seat (5a, 5b) made of chrome extending between two chrome annular edges specific to it, said at least one zinc nickel alloy coating layer extending over the annular edges made of chrome of each at least one bearing seat.
Method for fixing the compensating ropes of an elevator to an elevator car and/or to a counterweight, which elevator comprises at least a hoisting machine and hoisting roping, on which the elevator car arranged to travel essentially in the vertical direction as well as the counterweight are suspended, and between which elevator car and counterweight said compensating ropes are fixed such that the first ends of the compensating ropes are fixed to the counterweight, from where the compensating ropes are led downwards, if necessary to pass below a compensating pulley, after which upwards again to the elevator car, where the second ends of the compensating ropes are fixed in connection with the elevator car by means of wedge housings, characterized in that when fixing the ends (8a, 8b) of the compensating ropes in connection with the elevator car and/or with the counterweight, the wedge housings are turned into an inclined attitude, before disposing the ends (8a, 8b) of the compensating ropes in the wedge housings.
An apparatus for generating at least one audio signal associated with a sound scene, the apparatus comprising means configured to: receive at least one audio signal; analyse (101, 111) the at least one audio signal to determine at least one attribute parameter, wherein the at least one attribute parameter is at least one of: a detection of voice activity within the at least one audio signal; a determination of peakiness within the at least one audio signal in the time domain; and a determination of impulsiveness within the at least one audio signal by comparing energy values of different time windows; determine at least one control signal based on the at least one attribute parameter; generate a spatially extended audio signal from the at least one audio signal based on the at least one control signal; and combine, based on the at least one control signal, the at least one audio signal and the spatially extended audio signal to generate the at least one audio signal associated with the sound scene. receive at least one audio signal; analyse (101, 111) the at least one audio signal to determine at least one attribute parameter, wherein the at least one attribute parameter is at least one of: a detection of voice activity within the at least one audio signal; a determination of peakiness within the at least one audio signal in the time domain; and a determination of impulsiveness within the at least one audio signal by comparing energy values of different time windows; determine at least one control signal based on the at least one attribute parameter; generate a spatially extended audio signal from the at least one audio signal based on the at least one control signal; and combine, based on the at least one control signal, the at least one audio signal and the spatially extended audio signal to generate the at least one audio signal associated with the sound scene.