mhurhangee/ep-ind-claims huggingface dataset:
A counter-rotating turbine of a turbomachine, extending about an axis of rotation and comprising: - an inner rotor configured to rotate about the axis of rotation, and comprising at least one inner movable blade rotatably supported by a first shaft, - an outer rotor configured to rotate about the axis of rotation in a direction opposite to the inner rotor, and comprising at least one outer movable blade rotatably supported by a second shaft coaxial with the first shaft, the first and second shafts (24, 26) extending axially from upstream to downstream of the turbine, wherein the first shaft is guided in rotation by a first bearing disposed between the first shaft and an upstream casing of the turbine, and the second shaft is guided in rotation by a second bearing disposed between the second shaft and said upstream casing of the turbine, the counter-rotating turbine being characterized in that it comprises an outer casing at least partially surrounding the outer rotor, the outer casing extending axially from an upstream end of the turbine, over a length of less than 50%, preferably less than 30%, more preferably less than 15% of the length of the turbine. - an inner rotor configured to rotate about the axis of rotation, and comprising at least one inner movable blade rotatably supported by a first shaft, - an outer rotor configured to rotate about the axis of rotation in a direction opposite to the inner rotor, and comprising at least one outer movable blade rotatably supported by a second shaft coaxial with the first shaft, the first and second shafts (24, 26) extending axially from upstream to downstream of the turbine,
A method of manufacturing a flame-retardant magnesium alloy comprising a step of melting a flame-retardant magnesium alloy which contains a atomic% of Zn, b atomic% of Y, x atomic% of Ca and a residue of Mg, wherein a, b and x satisfy formulae 1 to 4 below, wherein the flame-retardant magnesium alloy optionally contains y atomic% of Al, and y satisfies formula 5 below, wherein the flame-retardant magnesium alloy optionally contains, in total, c atomic% of at least one element selected from a group consisting of La, Ce, Pr, Eu, Mm and Gd, and c satisfies formula 6 and formula 7 below or formula 7 and formula 8 below, or optionally contains, in total, c' atomic% of at least one element selected from a group consisting of Yb, Tb, Sm and Nd, and c' satisfies formula 8' and formula 9 below, or optionally contains, in total, c" atomic% of at least one element selected from a group consisting of Yb, Tb, Sm and Nd, contains, in total, d atomic% of at least one element selected from a group consisting of La, Ce, Pr, Eu, Mm and Gd, and c" and d satisfy formulae 6" to 8" or formulae 8" and 9" below, and wherein the flame-retardant magnesium alloy optionally contains, in total, more than 0 atomic% and not more than 2.5 atomic% of at least one element selected from a group consisting of Th, Si, Mn, Zr, Ti, Hf, Nb, Ag, Sr, Sc, B, C, Sn, Au, Ba, Ge, Bi, Ga, In, Ir, Li, Pd, Sb and V, 0.5 ≤ a ≤ 5.0 0.5 < b < 5.0 2 / 3 a − 5 / 6 ≤ b 0.1 ≤ x ≤ 0.5 0 < y ≤ 0.5 0 ≤ c < 2.0 0.2 ≤ b + c ≤ 6.0 c / b ≤ 1.5 0 ≤ c ′ ≤ 3.0 0.2 ≤ b + c ′ ≤ 6.0 0 ≤ c " ≤ 3.0 0 ≤ d < 2.0 0.2 ≤ b + c " + d ≤ 6.0 d / b ≤ 1.5.
An external fixator for fixing bone segments into a construct comprising a frame and a plurality of bone pins, wherein the frame consists of two bars (1a, 1b) opposed to each other in a clamshell fashion and clamped together by a multitude of fastening means, e.g. bolts and nuts, and characterized in that the external fixator is configured so that the clamping of the two bars results in clamping of some, but not all of the bone pins interposed between the bars (1a, 1b) at a multitude of pre-set positions, and in that the external fixator further comprises fixing elements configured to be inserted so as to clamp the pins not directly clamped between the two bars (1a, 1b).
A simulator projection or display system comprising: a projector; a display screen (12, 14, 16) for receiving images from the projector; and, a free-form fold mirror interposed between the projector and the display screen (12, 14, 16), characterized in that the free-form fold mirror includes a first curved portion, a second curved portion spaced from the first curved portion and a first flat portion. a projector; a display screen (12, 14, 16) for receiving images from the projector; and, a free-form fold mirror interposed between the projector and the display screen (12, 14, 16),
A method of forming an electrochemical cell, the method comprising: providing an electrochemical cell comprising: a first electrode and a second electrode, wherein at least the first electrode comprises at least about 20% to about 99% by weight of silicon; a separator between the first electrode and the second electrode; and an electrolyte in contact with the first electrode, the second electrode, and the separator, wherein the electrochemical cell has a rated capacity of 1C; and providing a formation process comprising a charge step, a rest step, and a discharge step, the charge step comprising providing a formation charge current at greater than about 1C to the electrochemical cell, wherein the formation process is completed in approximately 10 minutes to 120 minutes. providing an electrochemical cell comprising: a first electrode and a second electrode, wherein at least the first electrode comprises at least about 20% to about 99% by weight of silicon; a separator between the first electrode and the second electrode; and an electrolyte in contact with the first electrode, the second electrode, and the separator, wherein the electrochemical cell has a rated capacity of 1C; and a first electrode and a second electrode, wherein at least the first electrode comprises at least about 20% to about 99% by weight of silicon; a separator between the first electrode and the second electrode; and an electrolyte in contact with the first electrode, the second electrode, and the separator, wherein the electrochemical cell has a rated capacity of 1C; and providing a formation process comprising a charge step, a rest step, and a discharge step, the charge step comprising providing a formation charge current at greater than about 1C to the electrochemical cell, wherein the formation process is completed in approximately 10 minutes to 120 minutes.
Aerodynamic deflector intended to be fixed under a floor of motor vehicle, including: - a panel to cover the floor; and - means of attachment to the floor, in solidarity with the panel; characterized by the means of attachment include, at a longitudinal end of the panel and at each lateral edge of the panel, a cage protruding from the panel, opening laterally inward and having a notch, so that each of the two cages can engage, via the notch, with a hook on the vehicle, extending laterally, and allowing the deflector to rotate for mounting. - a panel to cover the floor; and - means of attachment to the floor, in solidarity with the panel;
An agricultural harvesting machine, in particular a combine harvester, with a control system which comprises a camera which records a series of images of a passing flow of harvested material, an evaluation unit which determines the "damaged grain fraction" harvested material parameter of the flow of harvested material and/or the "non-grain fraction" harvested material parameter of the flow of harvested material on the basis of an image analysis of the recorded series of images, a visualisation device which displays the determined harvested material parameter(s) "damaged grain fraction" and/or "non-grain fraction" and a camera setting device which enables an operator to vary at least one camera parameter of the camera, characterized in that the camera parameter(s) can be varied in a manner such that the visualisation device simultaneously displays the actual image of the flow of harvested material, the actual determined harvested material parameter(s) "damaged grain fraction" and/or "non-grain fraction" and a camera parameter variation module of the camera setting device in a manner such that a variation in the camera parameter(s) can be coupled with a real time comparison of the harvested material parameter(s) "damaged grain fraction" and/or "non-grain fraction" determined by the evaluation unit with the actual conditions displayed in the actual image.
A method for teaching an industrial robot to pick parts (120, 122), the method comprising the steps of: - placing a reference part on a picking surface; - providing a reference image comprising information about the reference part; - placing a gripping tool of the industrial robot in relation to the reference part so that the gripping tool is in a grasp configuration in relation to the reference part; and - storing the grasp configuration, characterized in that the reference image is a 2D image from below. - placing a reference part on a picking surface; - providing a reference image comprising information about the reference part; - placing a gripping tool of the industrial robot in relation to the reference part so that the gripping tool is in a grasp configuration in relation to the reference part; and - storing the grasp configuration,
A centrifugal fan, comprising a volute body and a centrifugal fan blade disposed inside the volute body, wherein the volute body comprises a base plate, a front plate, and a side plate disposed between the base plate and the front plate; an air inlet of the centrifugal fan blade is disposed in the front plate; a volute tongue is defined by the side plate; the volute tongue is inclined from a side of the base plate toward a side of the front plate, and a volute tongue gap being a minimum gap between an outer periphery of an impeller on a cross-section perpendicular to an impeller axis and the volute tongue is gradually reduced from the side of the base plate to the side of the front plate; a volute tongue gap C at the front plate is smaller than a volute tongue gap D at the base plate; and a difference between the volute tongue gap D and the volute tongue gap C is E; characterized in that: E is 4% to 6% of a diameter of the impeller of the centrifugal fan blade; a curved surface of the volute tongue is a conic curved surface, and radii of circular arcs corresponding to the volute tongue gap of the volute tongue are gradually reduced from the side of the base plate to the side of the front plate.
A humanized antibody capable of binding to human Tim-3, comprising: a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO 28, and a light chain variable domain having the amino acid sequence of SEQ ID NO 36. a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO 28, and a light chain variable domain having the amino acid sequence of SEQ ID NO 36.
Plastic bracket for binding toolboxes, consisting of a first flat rectangular-section portion, which gradually tapers until coupling with a second portion, the latter being of smaller section and elongated shape, said bracket characterized in that it centrally consists, in its inner part and along its entire length, of an ordered set of hollow sectors and, above and below the latter, of respective ordered sets of crosslinked sectors.
Fuel supply system for internal combustion engine comprising: - a main supply conduit provided with a throttle valve of a carburetor configured to provide an air/fuel mix to a combustion chamber the internal combustion engine; - an additional air conduit provided with a second valve configured to provide an additional portion of air to the internal combustion engine; wherein said second valve is controlled by the pressure in the main supply conduit downstream said throttle valve and/or by the position of said throttle valve, wherein a by-pass conduit branching from said additional air conduit is provided, wherein an inlet of said by-pass conduit is connected to said main air filter and an opposite end of said by-pass conduit is directly connected to said main supply conduit or to said combustion chamber. - a main supply conduit provided with a throttle valve of a carburetor configured to provide an air/fuel mix to a combustion chamber the internal combustion engine; - an additional air conduit provided with a second valve configured to provide an additional portion of air to the internal combustion engine; wherein said second valve is controlled by the pressure in the main supply conduit downstream said throttle valve and/or by the position of said throttle valve, wherein a by-pass conduit branching from said additional air conduit is provided, wherein an inlet of said by-pass conduit is connected to said main air filter and an opposite end of said by-pass conduit is directly connected to said main supply conduit or to said combustion chamber.
An adaptive cruise control system for maintaining driving times, the system comprising a cruise control regulator for regulating the cruise control of a motor vehicle, characterised in that the system for maintaining driving times comprises: - an input unit for indicating desired speed values v set for the adaptive cruise control; and - a computing unit adapted to - identify a section S i of a driven run S during which the driving time is to be determined; - calculate the time t cc it would have taken to drive the section S i when using a conventional non-adaptive cruise control; - determine the time t adapt actually taken to drive the section S i with the adaptive cruise control; - calculate the time difference between t cc and t adapt; - calculate an adjusted control signal v setkorr to be used as control signal to the cruise control regulator so that said time difference disappears as the vehicle continues its journey; v setkorr being used as control signal to the adaptive system's cruise control regulator. - an input unit for indicating desired speed values v set for the adaptive cruise control; and - a computing unit adapted to - identify a section S i of a driven run S during which the driving time is to be determined; - calculate the time t cc it would have taken to drive the section S i when using a conventional non-adaptive cruise control; - determine the time t adapt actually taken to drive the section S i with the adaptive cruise control; - calculate the time difference between t cc and t adapt; - calculate an adjusted control signal v setkorr to be used as control signal to the cruise control regulator so that said time difference disappears as the vehicle continues its journey; v setkorr being used as control signal to the adaptive system's cruise control regulator. - identify a section S i of a driven run S during which the driving time is to be determined; - calculate the time t cc it would have taken to drive the section S i when using a conventional non-adaptive cruise control; - determine the time t adapt actually taken to drive the section S i with the adaptive cruise control; - calculate the time difference between t cc and t adapt; - calculate an adjusted control signal v setkorr to be used as control signal to the cruise control regulator so that said time difference disappears as the vehicle continues its journey; v setkorr being used as control signal to the adaptive system's cruise control regulator.
An expression vector for use in a method of modifying the response of an individual to protein or peptide antigen(s) wherein said expression vector is a DNA vaccine vector which contains one or more immunostimulatory RNA elements that do not collectively activate protein kinase R; and has one or more genes that encode said protein or peptide antigen(s) cloned into it and wherein said method comprises delivery of the expression vector to a eukaryotic cell and the subsequent evaluation of the immune response or protection.
A method of fabricating a 3D object, which 3D object comprises a plurality of substrate layers (301, 302, 303) that are infiltrated by and bound together by a hardened material, the method comprising the following steps, in combination: selectively positioning powder on a portion of at least one of the plurality of substrate layers, the portion corresponding to a portion of the 3D object; repeating step for remaining layers of the plurality of substrate layers; and transforming at least some of the powder into a substance that flows and subsequently hardens into the hardened material, which hardened material is disposed in a spatial pattern that infiltrates at least one positive region of the plurality of substrate layers and does not infiltrate at least one negative region thereof; wherein the powder is transformed in step after being positioned in steps and, and wherein the substrate layers have at least one material property that is different than any material property of the hardened material. selectively positioning powder on a portion of at least one of the plurality of substrate layers, the portion corresponding to a portion of the 3D object; repeating step for remaining layers of the plurality of substrate layers; and transforming at least some of the powder into a substance that flows and subsequently hardens into the hardened material, which hardened material is disposed in a spatial pattern that infiltrates at least one positive region of the plurality of substrate layers and does not infiltrate at least one negative region thereof;
An ocular implantation device comprising: (a) a housing having a longitudinal axis; (b) a needle extending longitudinally from said housing, said needle having a lumen extending therethrough, said needle lumen configured to receive an implant; (c) a plunger longitudinally positioned within said housing and having a rod extending therefrom, wherein said plunger and said rod are translationally moveable along the longitudinal axis of said housing from an initial position, wherein said rod is receivable within at least a portion of said needle lumen; (d) a guide shaft fixedly positioned within said housing in communication with said needle, said guide shaft cooperatively receiving said plunger and said rod upon translational movement thereof; (e) an actuator communicatively linked to said plunger, said actuator longitudinally moveable from a first position relative to said housing upon application to said actuator of a force aligned with the longitudinal axis of said housing, wherein movement of said actuator corresponds with translational movement of said plunger from said initial position, the device further comprises (f) a window disposed in said housing for visually determining the status of animplant disposed in said housing, characterized in that said actuator is capable of movement in a direction normal to the longitudinal axis of said housing that does not result in movement of said plunger and said rod. (a) a housing having a longitudinal axis; (b) a needle extending longitudinally from said housing, said needle having a lumen extending therethrough, said needle lumen configured to receive an implant; (c) a plunger longitudinally positioned within said housing and having a rod extending therefrom, wherein said plunger and said rod are translationally moveable along the longitudinal axis of said housing from an initial position, wherein said rod is receivable within at least a portion of said needle lumen; (d) a guide shaft fixedly positioned within said housing in communication with said needle, said guide shaft cooperatively receiving said plunger and said rod upon translational movement thereof; (e) an actuator communicatively linked to said plunger, said actuator longitudinally moveable from a first position relative to said housing upon application to said actuator of a force aligned with the longitudinal axis of said housing, wherein movement of said actuator corresponds with translational movement of said plunger from said initial position, (f) a window disposed in said housing for visually determining the status of animplant disposed in said housing,
A method comprising: identifying, by a user equipment, an enhanced physical downlink control channel occasion period, the enhanced physical downlink control channel occasion period including a number of subframes; determining, based on the enhanced physical downlink control channel occasion period, a distribution of enhanced physical downlink control channel candidates corresponding to at least one enhanced physical downlink control channel repetition level in the enhanced physical downlink control channel occasion period, at least one enhanced physical downlink control channel candidate corresponding to multiple subframes; and decoding, each enhanced physical downlink control channel candidate of the at least one enhanced physical downlink control channel repetition level until downlink control information transmitted from a base station is decoded. identifying, by a user equipment, an enhanced physical downlink control channel occasion period, the enhanced physical downlink control channel occasion period including a number of subframes; determining, based on the enhanced physical downlink control channel occasion period, a distribution of enhanced physical downlink control channel candidates corresponding to at least one enhanced physical downlink control channel repetition level in the enhanced physical downlink control channel occasion period, at least one enhanced physical downlink control channel candidate corresponding to multiple subframes; and decoding, each enhanced physical downlink control channel candidate of the at least one enhanced physical downlink control channel repetition level until downlink control information transmitted from a base station is decoded.
A device for welding rod-shaped electrical conductors (28, 29), the device comprising a compression space for receiving two connection regions (26, 27) of the conductors (28, 29) to be connected, the connection regions (26, 27) extending in a first axial direction (x-axis), the compression space being defined by a working surface of a sonotrode, which transmits ultrasonic vibrations, and a counterface of an anvil at two opposite sides in a second axial direction (z-axis) and by a boundary surface of a slider element, which is displaceable in a third axial direction (y-axis), and a boundary surface of a boundary element on two opposite sides in the third axial direction (y-axis), the working surface of the sonotrode having a surface configuration, which differs from a contact zone formed by the remaining working surface, in a special contact zone (31, 50, 51, 52), which is a section of the working surface of the sonotrode and serves to subject at least one connection region (26, 27) to ultrasonic vibrations, the contact zone having a surface configuration comprising profile elevations which extend in the third axial direction (y-axis) and at least some of which have a special profile cross-section in the area of the special contact zone (31, 50, 51, 52) which differs from the profile cross-section in the contact zone in that the special profile cross-section has a reduced profile height h compared to the profile cross-section, characterized in that the special contact zone is disposed adjacent to the boundary element in such a manner that the special contact zone is formed on a working surface edge of the sonotrode parallel to the boundary element.