mhurhangee/ep-ind-claims huggingface dataset:
Fuel injection nozzle for internal combustion engines, in particular auto-ignition internal combustion engines, with a longitudinal bore which accommodates a nozzle needle, runs in a nozzle body and tapers off from a guide section for the nozzle needle via a region expanded to form a pressure space onto at least one injection opening, wherein the nozzle needle has a guided shank section which corresponds to the guide section and which is adjoined, as a bridge to a shank part tapering off onto the nozzle needle seat, by a shank section which has a constricted diameter and passes through the pressure space, to which at least one fuel supply means leads asymmetrically on the circumferential side, characterized in that that shank section of the nozzle needle which is located in the guide section of the nozzle body ends, in relation to the closed position of said nozzle needle, at a distance from the transition of the longitudinal bore into the pressure space within the longitudinal bore, which transition is located at a third of the diameter of the longitudinal bore, and in that the constricted shank section adjoins the guided shank section at an angle of taper of around 70°, wherein the fuel supply means leads to the pressure space in a radial overlap with the waist of the constricted shank section.
Process for the manufacture of food flakes of biscuits or plant food type comprising: - mix materials to form a nonfermented food mixture, - arrange on a support the nonfermented food mixture in the form of sheets strips of pastry, or in the form of individual pieces, - cook the nonfermented food mixture in an oven or a stove until an intermediate moisture content of between 7% and 24% is achieved, in order to obtain a cooked composition, then - cooling the cooked composition so that the texture of the cooked composition is suitable for granulation, the cooling being carried out at a temperature of between 0°C and 35°C for a period of time of between 1 h and 48 h, then - granulating the cooked composition by virtue of a granulator in order to obtain food flakes, in which the granulator comprises a rotor and a sieve, the rotor being provided with fins or vanes or slats to press the cooked composition against the sieve, and in which the rotor carries out an oscillating or rotating movement, in which the sieve exhibits a mesh size of between 0.2 mm and 25 mm, in which the food flakes exhibit a dimension of less than or equal to 25 mm, - drying the food flakes in an oven or a stove to reduce the moisture content in the food flakes. - mix materials to form a nonfermented food mixture, - arrange on a support the nonfermented food mixture in the form of sheets strips of pastry, or in the form of individual pieces, - cook the nonfermented food mixture in an oven or a stove until an intermediate moisture content of between 7% and 24% is achieved, in order to obtain a cooked composition, then - cooling the cooked composition so that the texture of the cooked composition is suitable for granulation, the cooling being carried out at a temperature of between 0°C and 35°C for a period of time of between 1 h and 48 h, then - granulating the cooked composition by virtue of a granulator in order to obtain food flakes, in which the granulator comprises a rotor and a sieve, the rotor being provided with fins or vanes or slats to press the cooked composition against the sieve, and in which the rotor carries out an oscillating or rotating movement, in which the sieve exhibits a mesh size of between 0.2 mm and 25 mm, in which the food flakes exhibit a dimension of less than or equal to 25 mm, - drying the food flakes in an oven or a stove to reduce the moisture content in the food flakes.
A bone fixation device for mounting a fixation rod on a bone screw, comprising a plurality of brackets (6; 8; 42; 44; 46; 48), each defining a surface formed with at least one recess (56; 58); part-balls (12; 14; 16; 18; 52; 54) mounted in each recess (56; 58) having each an exposed face formed with a groove (24; 26) for receiving a said rod or screw; the brackets (6; 8; 42; 44; 46; 48) being held such that at least one pair of exposed ball faces (62; 64) are in juxtaposition to define a sleeve for a said rod or screw; and means (20;60) for urging the brackets (6; 8; 42; 44; 46; 48) and the exposed ball faces (62; 64) towards each other to clamp a said rod or screw between at least one pair of juxtaposed ball faces.
A packaged device having a front surface, a back surface, opposite to the front surface, and a side surface extending between the front surface and the back surface, the packaged device comprising: a carrying base; an accommodation cavity in the carrying base; a semiconductor die in the accommodation cavity, the semiconductor die having die pads; a protective layer, covering the semiconductor die and the carrying base; first vias in the protective layer, at the die pads; and connection terminals of conductive material, the connection terminals having first connection portions in the first vias, in electrical contact with the die pads, characterized by second connection portions (46B, 55), extending on the protective layer, along the side surface of the packaged device. a carrying base; an accommodation cavity in the carrying base; a semiconductor die in the accommodation cavity, the semiconductor die having die pads; a protective layer, covering the semiconductor die and the carrying base; first vias in the protective layer, at the die pads; and connection terminals of conductive material, the connection terminals having first connection portions in the first vias, in electrical contact with the die pads, characterized by second connection portions (46B, 55), extending on the protective layer, along the side surface of the packaged device.
A gas engine fuel gas supply device for supplying a fuel gas into an inlet path by a vertical movement of an inlet valve rod caused by opening and closing of an inlet valve, the device comprising: a projection formed at a part in an axial direction of the inlet valve rod, and larger in an outer diameter than a vicinity thereof; a sleeve into which the projection is slidably fitted; a suction hole formed in the sleeve, and opening in an inner circumferential surface of the sleeve; and a fuel gas injection hole opening; wherein in response to a downward movement of the projection of the inlet valve rod, the suction hole and the fuel gas injection hole establish communication between an inside of the sleeve and the inlet path characterized in that the fuel gas injection hole opening is in a bottom end face of the sleeve and the bottom end face of the sleeve is disposed not to protrude from a wall surface forming the inlet path. a projection formed at a part in an axial direction of the inlet valve rod, and larger in an outer diameter than a vicinity thereof; a sleeve into which the projection is slidably fitted; a suction hole formed in the sleeve, and opening in an inner circumferential surface of the sleeve; and a fuel gas injection hole opening; wherein in response to a downward movement of the projection of the inlet valve rod, the suction hole and the fuel gas injection hole establish communication between an inside of the sleeve and the inlet path characterized in that the fuel gas injection hole opening is in a bottom end face of the sleeve and the bottom end face of the sleeve is disposed not to protrude from a wall surface forming the inlet path.
A method for determining parallax errors between multiple light field images comprising: receiving NLF images at different angles, each LF image represents M views, and said LF images overlapping its adjacent LF image; characterized by selecting a view image among the M views of the LF image i as a reference view image for the LF image i; registering M view images of the adjacent LF image (i+1) with the selected reference view image of the LF image i by calculating perspectivity of the pairs of each view image of the adjacent LF image (i+1) and the reference view image and embedding each perspectivity in a registration matrix; warping each of said view images of the adjacent LF image (i+1), based on their registration matrix, to get the view images aligned; determining parallax error for each of the view images of the adjacent LF image (i+1) as a sum of absolute difference between each warped view image of the adjacent LF image (i+1) and the reference view image of the LF image i in an overlap region; and storing the parallax error between the reference view image of the LF image i and each view of the adjacent LF image (i+1) in a three-dimensional trellis. receiving NLF images at different angles, each LF image represents M views, and said LF images overlapping its adjacent LF image; characterized by selecting a view image among the M views of the LF image i as a reference view image for the LF image i; registering M view images of the adjacent LF image (i+1) with the selected reference view image of the LF image i by calculating perspectivity of the pairs of each view image of the adjacent LF image (i+1) and the reference view image and embedding each perspectivity in a registration matrix; warping each of said view images of the adjacent LF image (i+1), based on their registration matrix, to get the view images aligned; determining parallax error for each of the view images of the adjacent LF image (i+1) as a sum of absolute difference between each warped view image of the adjacent LF image (i+1) and the reference view image of the LF image i in an overlap region; and storing the parallax error between the reference view image of the LF image i and each view of the adjacent LF image (i+1) in a three-dimensional trellis.
A vibration motor comprising: a housing (310, 510) having a top surface, a bottom surface, and first to fourth side surfaces joining the top surface to the bottom surface, the first to fourth surfaces defining an inner circumferential surface of the housing; a coil (360, 560) provided in the housing; a moving portion (320, 520) provided in the housing, the moving portion being configured to reciprocate between the first and third side surfaces arranged opposite to each other; elastic members (351, 352) provided between the moving portion and the housing, wherein elastic members are formed in plural numbers between the first surface and the moving portion and between the third surface and the moving portion; and a roller member (340, 514) provided in the housing and arranged to come into rolling contact with the top or bottom surface of the housing, characterized in that the roller member (340, 514) has a cylindrical body and shaft coupling portions protruding respectively from both ends of the body, and in that the diameter of the cylindrical body is formed greater than the thickness of the moving portion. a housing (310, 510) having a top surface, a bottom surface, and first to fourth side surfaces joining the top surface to the bottom surface, the first to fourth surfaces defining an inner circumferential surface of the housing; a coil (360, 560) provided in the housing; a moving portion (320, 520) provided in the housing, the moving portion being configured to reciprocate between the first and third side surfaces arranged opposite to each other; elastic members (351, 352) provided between the moving portion and the housing, wherein elastic members are formed in plural numbers between the first surface and the moving portion and between the third surface and the moving portion; and a roller member (340, 514) provided in the housing and arranged to come into rolling contact with the top or bottom surface of the housing, characterized in that the roller member (340, 514) has a cylindrical body and shaft coupling portions protruding respectively from both ends of the body, and in that the diameter of the cylindrical body is formed greater than the thickness of the moving portion.
A wear-resistant steel plate, which consists of the following chemical components in weight percentages: C:0.22-0.35%, Si: 0.10-0.40%, Mn: 0.60-1.35%, P≤0.015%, S≤0.010%, Nb: 0.010-0.040%, Al: 0.010-0.080%, B: 0.0006-0.0014%, Ti: 0.005-0.050%, Ca: 0.0010-0.0080%, V≤0.080%, Cr≤50.60%, W≤1.00%, N≤50.0080%, O≤0.0060%, H≤0.0004%, wherein 0.025%≤Nb+Ti≤0.080%, 0.030%≤5Al+Ti≤0.12%, and the balance of Fe and unavoidable impurities.
Inductor for the inductive hardening of rod-shaped workpieces, in particular toothed racks, comprising an annular induction coil (2, 2a) for surrounding the workpiece, the inductor having a receiving space within the induction coil (2, 2a) for the workpiece, which space has an imaginary drawn cylinder, the circumference of which is surrounded by the induction coil (2, 2a) and the longitudinal axis of which is perpendicular to a cross-sectional plane of the receiving space, the height of the induction coil (2, 2a), measured parallel to the longitudinal cylinder axis, corresponding to at most three times, in particular at most 1.5 times, the cylinder diameter, the induction coil (2, 2a) surrounding the receiving space with two loops (7, 7a), which each substantially cover one half of the circumference of the receiving space, characterized in that the loops each have an outward guide and a return guide, which are offset substantially in parallel with the longitudinal cylinder axis.
A surgical device (100, 200, 300) comprising: a housing (110, 210, 310) defining a filter chamber (130, 230, 330) and a pump chamber (140, 240a, 340) therein, the filter chamber in fluid communication with the pump chamber; a filter assembly disposed within the filter chamber; a pump (142, 342) disposed within the pump chamber; and an elongate body (120, 220, 320) extending distally from the housing, the elongate body defining first and second lumens (122, 124, 322, 324) therethrough, the elongate body including at least one first opening (123, 223, 323) in fluid communication with the first lumen and at least one second opening (125, 225, 325) in fluid communication with the second lumen, the first lumen in fluid communication with the filter chamber of the housing and the second lumen in fluid communication with the pump chamber of the housing thereby forming a filtration loop through the surgical device, characterized in that: the filtration loop is a closed filtration loop, and the elongate body (120, 220, 320) is an elongate shaft extending along a longitudinal axis. a housing (110, 210, 310) defining a filter chamber (130, 230, 330) and a pump chamber (140, 240a, 340) therein, the filter chamber in fluid communication with the pump chamber; a filter assembly disposed within the filter chamber; a pump (142, 342) disposed within the pump chamber; and an elongate body (120, 220, 320) extending distally from the housing, the elongate body defining first and second lumens (122, 124, 322, 324) therethrough, the elongate body including at least one first opening (123, 223, 323) in fluid communication with the first lumen and at least one second opening (125, 225, 325) in fluid communication with the second lumen, the first lumen in fluid communication with the filter chamber of the housing and the second lumen in fluid communication with the pump chamber of the housing thereby forming a filtration loop through the surgical device, characterized in that: the filtration loop is a closed filtration loop, and the elongate body (120, 220, 320) is an elongate shaft extending along a longitudinal axis.
A power supply system comprising: a magnetic energy recovery switch; a frequency setting device; a control device; and a pseudo-resonant element, the system converting direct-current power into alternating-current power, and supplying the alternating-current power to an inductive load, wherein the magnetic energy recovery switch comprises: one or a plurality of first capacitors; and a plurality of switches (U, X, V, Y), wherein the frequency setting device sets an output frequency of the magnetic energy recovery switch, wherein the control device controls an on and off operation of the plurality of switches (U, X, V, Y) based on an output frequency set by the frequency setting device, wherein the magnetic energy recovery switch recovers magnetic energy stored in the inductive load and stores the magnetic energy as electrostatic energy in the first capacitor, and supplies the stored electrostatic energy to the inductive load, by on and off of the plurality of switches (U, X, V, Y), wherein the pseudo-resonant element is constituted of at least one passive element including a second capacitor, and wherein the plurality of switches (U, X, V, Y) switch on and off when a voltage of both ends of the first capacitor is zero; the power supply system being characterized in that the first capacitor is disposed in series with respect to the inductive load, wherein the second capacitor is connected in series with respect to the inductive load on the inductive load side, and wherein a value of an inductive reactance on the inductive load side exceeds a value of a capacitive reactance on the inductive load side.
- A thermal switch comprising an insulating housing in which are mounted at least one pair of metal blades (3a, 3b), a temperature-deformable circular thermosensitive element and a contact opening/closing mechanism between the blades (3a, 3b) of the at least one pair of blades (3a, 3b) which is configured to be operated by the thermosensitive element, the insulating housing comprising a first housing part in which the at least one pair of blades (3a, 3b) is locked, the upper face of the first housing part comprising at a central part a thermosensitive element support, the thermosensitive element having a base which is complementary to the thermosensitive element support and is disposed thereon so as to radially lock the position of the thermosensitive element, characterised in that the insulating housing further comprises a flange having a central opening complementary to the cross-section of the upper part of the thermosensitive element, at least two projections being formed in a peripheral part by at least one of the upper face of the first housing part and the lower face of the flange, the flange being mounted on the first housing part so that the upper part of the thermosensitive element passes through the central opening of the flange, the flange rests on the base of the thermosensitive element and each of the at least two projections passes through a corresponding through hole formed in the other of the first housing part and the flange, the free end of each of the at least two projections emerging from the corresponding through hole and being configured to be crimped so as to axially lock the position of the thermosensitive element.
A gas turbine engine comprising: a plurality of rotating components housed within a main compressor section and a turbine section (112/114); a first tap connected to said main compressor section and configured to deliver air at a first pressure; a heat exchanger connected downstream of said first tap; a cooling air valve configured to selectively block flow of bypass cooling air across the heat exchanger; a cooling compressor connected downstream of said heat exchanger; first means for stopping flow between the heat exchanger and the cooling compressor; a second tap configured to deliver air at a second pressure which is higher than said first pressure; a mixing chamber connected downstream of said cooling compressor and said second tap, wherein said mixing chamber is configured to deliver air to at least one of said plurality of rotating components; second means for stopping flow between the cooling compressor and the plurality of rotating components by stopping rotation of the cooling compressor; and a controller configured to modulate flow between the heat exchanger and the plurality of rotating components under certain power conditions of the gas turbine engine; characterised in that: said controller is programmed such that flow is stopped between the heat exchanger and the cooling compressor only after the cooling compressor has been stopped. a plurality of rotating components housed within a main compressor section and a turbine section (112/114); a first tap connected to said main compressor section and configured to deliver air at a first pressure; a heat exchanger connected downstream of said first tap; a cooling air valve configured to selectively block flow of bypass cooling air across the heat exchanger; a cooling compressor connected downstream of said heat exchanger; first means for stopping flow between the heat exchanger and the cooling compressor; a second tap configured to deliver air at a second pressure which is higher than said first pressure; a mixing chamber connected downstream of said cooling compressor and said second tap, wherein said mixing chamber is configured to deliver air to at least one of said plurality of rotating components; second means for stopping flow between the cooling compressor and the plurality of rotating components by stopping rotation of the cooling compressor; and a controller configured to modulate flow between the heat exchanger and the plurality of rotating components under certain power conditions of the gas turbine engine; characterised in that: said controller is programmed such that flow is stopped between the heat exchanger and the cooling compressor only after the cooling compressor has been stopped.
Block-cutting gangsaw with vertical frame for cutting blocks of granite or other hard materials, comprising: a blade-holding frame holding a plurality of blades, the frame adapted to go vertical reciprocating movement on an independent oscillating frame which imparts an oscillating movement to the blade holding frame, so that each blade of blade-holding frame is always in contact with block, and a contact area between the blade-holding frame and the block moves along a convex, curved trajectory, wherein the oscillating movement of the blade-holding frame is obtained by combining longitudinal traverses and rotations of the oscillating frame, and wherein said oscillating frame is prevented from traversing vertically by lateral engagement means configured to engage with complementary means fitted to a fixed structure of the block-cutting gangsaw and prevented from traversing laterally by further complementary sliding lateral engagement means (58, 59). a blade-holding frame holding a plurality of blades, the frame adapted to go vertical reciprocating movement on an independent oscillating frame which imparts an oscillating movement to the blade holding frame, so that each blade of blade-holding frame is always in contact with block, and a contact area between the blade-holding frame and the block moves along a convex, curved trajectory, wherein the oscillating movement of the blade-holding frame is obtained by combining longitudinal traverses and rotations of the oscillating frame, and wherein said oscillating frame is prevented from traversing vertically by lateral engagement means configured to engage with complementary means fitted to a fixed structure of the block-cutting gangsaw and prevented from traversing laterally by further complementary sliding lateral engagement means (58, 59).