mhurhangee/ep-ind-claims huggingface dataset:
A board-to-board interconnection device with an electrical fiber (101, 604, 704), the interconnection device comprising: a transmitter side board and a receiver side board; an electrical fiber (101, 604, 704) configured to propagate a signal from the transmitter side board to the receiver side board with a metal cladding (601, 701); a microstrip circuit disposed on the transmitter side board and the receiver side board and configured to contact with the electrical fiber (101, 604, 704) with a microstrip-to-waveguide transition; wherein at least one of both ends of the electrical fiber (101, 604, 704) is tapered for impedance matching between the electrical fiber and the microstrip circuit on the interconnection device; a board-to-fiber connector configured to connect multiple electrical fibers (101, 604, 704) to at least one of the transmitter side board and the receiver side board vertically; wherein the board-to-fiber connector comprises: connector bridges (1002, 1003) inserted into holes bored through at least one of the transmitter side board and the receiver side board; multiple transition apparatuses (1004, 1005, 1006) for physical fixation of the multiple electrical fibers, respectively, to at least one of the transmitter side board and the receiver side board. a transmitter side board and a receiver side board; an electrical fiber (101, 604, 704) configured to propagate a signal from the transmitter side board to the receiver side board with a metal cladding (601, 701); a microstrip circuit disposed on the transmitter side board and the receiver side board and configured to contact with the electrical fiber (101, 604, 704) with a microstrip-to-waveguide transition; wherein at least one of both ends of the electrical fiber (101, 604, 704) is tapered for impedance matching between the electrical fiber and the microstrip circuit on the interconnection device; a board-to-fiber connector configured to connect multiple electrical fibers (101, 604, 704) to at least one of the transmitter side board and the receiver side board vertically; wherein the board-to-fiber connector comprises: connector bridges (1002, 1003) inserted into holes bored through at least one of the transmitter side board and the receiver side board; multiple transition apparatuses (1004, 1005, 1006) for physical fixation of the multiple electrical fibers, respectively, to at least one of the transmitter side board and the receiver side board. connector bridges (1002, 1003) inserted into holes bored through at least one of the transmitter side board and the receiver side board; multiple transition apparatuses (1004, 1005, 1006) for physical fixation of the multiple electrical fibers, respectively, to at least one of the transmitter side board and the receiver side board.
A positioning system for a head-up display, which comprises: a combiner carrier; a combiner rotatably disposed on the combiner carrier; a moving mechanism for moving the combiner carrier from a first position being a parking position to a second position being an operating position, and comprising a spindle rotatably disposed on the combiner carrier; an angle adjusting mechanism comprising a cam connected to the spindle and a lever, one end of which being connected to the spindle and one end of which being free and being pushed by the cam for rotating the combiner relative to the combiner carrier to adjust a tilt angle of the combiner; and a driving mechanism for alternatively driving the moving mechanism and the angle adjusting mechanism comprising a driving gear connected to the spindle, a guiding plate connected to the spindle and having a guiding pin; and a guiding slot for accommodating the guiding pin and having a straight slot and a curve slot; wherein the driving gear, the guiding plate and the cam are connected to the spindle and are rotated together with the spindle; wherein when the guiding pin is in the straight slot, the guiding plate is prohibited from rotating by the constraint between the guiding pin and the straight slot, and the driving gear drives the spindle to move the combiner carrier between the parking position and the operating position; wherein, when the guiding pin is in the curve slot, the guiding plate is allowed to rotate, and the driving gear drives the cam to rotate the combiner relative to the combiner carrier to adjust the tilt angle of the combiner. a combiner carrier; a combiner rotatably disposed on the combiner carrier; a moving mechanism for moving the combiner carrier from a first position being a parking position to a second position being an operating position, and comprising a spindle rotatably disposed on the combiner carrier; an angle adjusting mechanism comprising a cam connected to the spindle and a lever, one end of which being connected to the spindle and one end of which being free and being pushed by the cam for rotating the combiner relative to the combiner carrier to adjust a tilt angle of the combiner; and a driving mechanism for alternatively driving the moving mechanism and the angle adjusting mechanism comprising a driving gear connected to the spindle, a guiding plate connected to the spindle and having a guiding pin; and a guiding slot for accommodating the guiding pin and having a straight slot and a curve slot; wherein the driving gear, the guiding plate and the cam are connected to the spindle and are rotated together with the spindle; wherein when the guiding pin is in the straight slot, the guiding plate is prohibited from rotating by the constraint between the guiding pin and the straight slot, and the driving gear drives the spindle to move the combiner carrier between the parking position and the operating position; wherein, when the guiding pin is in the curve slot, the guiding plate is allowed to rotate, and the driving gear drives the cam to rotate the combiner relative to the combiner carrier to adjust the tilt angle of the combiner.
A composition comprising: (a) a recombinant replication defective adenovirus 5 vector comprising a deletion in an E2b gene region, a deletion in an E1 gene region, and a nucleotide sequence encoding a MUC1 antigen; (b) a recombinant replication defective adenovirus 5 vector comprising a deletion in an E2b gene region, a deletion in an E1 gene region, and a nucleotide sequence encoding a Brachyury antigen; and (c) a recombinant replication defective adenovirus 5 vector comprising a deletion in an E2b gene region, a deletion in an E1 gene region, a nucleotide sequence encoding a CEA antigen. (a) a recombinant replication defective adenovirus 5 vector comprising a deletion in an E2b gene region, a deletion in an E1 gene region, and a nucleotide sequence encoding a MUC1 antigen; (b) a recombinant replication defective adenovirus 5 vector comprising a deletion in an E2b gene region, a deletion in an E1 gene region, and a nucleotide sequence encoding a Brachyury antigen; and (c) a recombinant replication defective adenovirus 5 vector comprising a deletion in an E2b gene region, a deletion in an E1 gene region, a nucleotide sequence encoding a CEA antigen.
A stator for electric motors, comprising a core having an upper and a lower surface (12a, 12b) and comprising teeth forming slots therebetween, and a plurality of preformed coil assemblies mounted on respective tooth of said core, each preformed coil assembly comprising a winding section comprising an elongated opening configured to be adjusted around the corresponding tooth, and a first and a second winding carrier (35a, 35b) connected to respective opposite ends of the winding section, characterized in that the stator further comprises a first and a second coil locking layer (19a, 19b) fixedly mounted on respective upper and lower surfaces (12a, 12b) of said core, said first and second winding carriers (35a, 35b) of each of said plurality of preformed coil assemblies comprising each a projecting mating part while said first and second coil locking layers (19a, 19b) comprise each a corresponding plurality of mating openings of complementary shape inside which are fitted the projecting mating part of respective first and second winding carriers (35a, 35b) of one of said plurality of preformed coil assemblies, the stator further comprising a first supporting layer mounted between the upper surface of the core and the first coil locking layer, and a second supporting layer mounted between the lower surface of the core and the second coil locking layer. a core having an upper and a lower surface (12a, 12b) and comprising teeth forming slots therebetween, and a plurality of preformed coil assemblies mounted on respective tooth of said core, each preformed coil assembly comprising a winding section comprising an elongated opening configured to be adjusted around the corresponding tooth, and a first and a second winding carrier (35a, 35b) connected to respective opposite ends of the winding section, characterized in that the stator further comprises a first and a second coil locking layer (19a, 19b) fixedly mounted on respective upper and lower surfaces (12a, 12b) of said core, said first and second winding carriers (35a, 35b) of each of said plurality of preformed coil assemblies comprising each a projecting mating part while said first and second coil locking layers (19a, 19b) comprise each a corresponding plurality of mating openings of complementary shape inside which are fitted the projecting mating part of respective first and second winding carriers (35a, 35b) of one of said plurality of preformed coil assemblies, the stator further comprising a first supporting layer mounted between the upper surface of the core and the first coil locking layer, and a second supporting layer mounted between the lower surface of the core and the second coil locking layer.
Method for the field-oriented control of a permanently excited synchronous machine with reluctance torque, at least comprising the following steps: a) respective determination of a flux-generating current component to be injected i d, MTPC and a torque-generating current component i qMTPC, as a function of a required torque T ref; b) respective determination of a voltage component in the flux direction Udref and of a voltage component perpendicular to the flux direction u qref, as a function of the current components i d,MTPC and i q,MTPC; c) Constitution of a differential amount from an amount of a vectorial sum u s of the voltage components Udref and Uqref and a maximum voltage u max, and processing of the differential amount in a PI-voltage controller, wherein a first differential value Δi d is obtained as an output variable; d) Addition of the flux-generating current component i d, MTPC and the first differential value Δi d, and determination of a voltage component u d for injection into the synchronous machine; the method comprising the further step, that, following step b), in a further step c1), an achieved torque is determined by reference to the voltage components u d and u q to be injected and the current components i d and i q; characterized in that, in a further step d1), a differential amount is constituted from the achieved torque and the required torque T ref, and processed in a PI-torque controller; wherein a second differential value Δi q is obtained as an output variable; wherein, in a step e1), the current component i q, MTPC and the differential value Δi q are added, and a voltage component u q is determined for injection into the synchronous machine, wherein the current component i d to be injected proceeds from the application of the voltage component u d and the current component i q to be injected proceeds from the application of the voltage component u q to the synchronous machine. a) respective determination of a flux-generating current component to be injected i d, MTPC and a torque-generating current component i qMTPC, as a function of a required torque T ref; b) respective determination of a voltage component in the flux direction Udref and of a voltage component perpendicular to the flux direction u qref, as a function of the current components i d,MTPC and i q,MTPC; c) Constitution of a differential amount from an amount of a vectorial sum u s of the voltage components Udref and Uqref and a maximum voltage u max, and processing of the differential amount in a PI-voltage controller, wherein a first differential value Δi d is obtained as an output variable; d) Addition of the flux-generating current component i d, MTPC and the first differential value Δi d, and determination of a voltage component u d for injection into the synchronous machine;
A method for insect population control, comprising: rearing male adult insects in an artificially controlled environment; exposing the adult insects to one or more insecticides comprising at least one larvicide to thereby produce insects carrying a larvicide, and releasing the insects in an area with an indigenous insect population, to thereby control the insect population. rearing male adult insects in an artificially controlled environment; exposing the adult insects to one or more insecticides comprising at least one larvicide to thereby produce insects carrying a larvicide, and releasing the insects in an area with an indigenous insect population, to thereby control the insect population.
Micro channel or multiport based heat exchangers of aluminium for heat exchange or heat recovery in systems such as refrigeration or heat pump, in particular a condenser or evaporator in such systems, including in addition to the micro channel or multiport extrusions, serpentine fins attached to the extrusions (7,8) and inlet an outlet manifolds collectors/distributors attached to the extrusions, wherein the serpentine fins are provided transversally in relation to the extrusions (7, 8) and laying with their side edges (10, 11) perpendicular to the extrusions (7, 8) and where the extrusion is of the web multiport extrusion (web-MPE) design, characterized in that part of the material of the flanges or webs between the micro port or tubes are removed to enhance drainage of condensed water and/or reduce and control heat transfer in the transversal direction of the micro ports or tubes.
A video encoding method for encoding a macroblock, the macroblock comprising a plurality of blocks, each block comprising a set of pixel values, the method comprising: for each block, selecting an intra prediction mode for predicting pixels in the block based on neighboring pixels; characterized by further providing a plurality of mode uniformity indicators for the macroblock, each of the plurality of mode uniformity indicators indicating whether multiple blocks in the macroblock have a same selected intra prediction mode, wherein providing the plurality of mode uniformity indicators for the macroblock comprises: providing a first mode uniformity indicator for a first subset of the blocks of the macroblock; and providing a second mode uniformity indicator for a second subset of the blocks of the macroblock. for each block, selecting an intra prediction mode for predicting pixels in the block based on neighboring pixels; characterized by further providing a plurality of mode uniformity indicators for the macroblock, each of the plurality of mode uniformity indicators indicating whether multiple blocks in the macroblock have a same selected intra prediction mode, wherein providing the plurality of mode uniformity indicators for the macroblock comprises: providing a first mode uniformity indicator for a first subset of the blocks of the macroblock; and providing a second mode uniformity indicator for a second subset of the blocks of the macroblock. providing a first mode uniformity indicator for a first subset of the blocks of the macroblock; and providing a second mode uniformity indicator for a second subset of the blocks of the macroblock.
A device for pumping water from a great depth, comprising a support structure, for example comprising at least two, preferably three or more, cables, and a plurality of longitudinal elements forming a pipe inside which circulates water pumped from a great depth, in which the longitudinal elements are individually mounted in a secure manner on the support structure and are connected together by sealing means, wherein each longitudinal element comprises a pipe section and an attachment assembly allowing mounting the pipe section on the support structure, wherein the attachment assembly is mounted on the pipe section by first pivot connections, and/or wherein the attachment assembly includes a first peripheral element with means for attachment to the support structure, and a second peripheral element mounted between the pipe section and the first peripheral element, the second peripheral element being mounted on the first peripheral element by second pivot connections, and wherein the second pivot connections between the first peripheral element and the second peripheral element and the first pivot connections between the second peripheral element and the pipe section are distributed on the periphery of the pipe section.
Heat exchanger for indirect heat transfer between a first fluid and at least one second fluid (S'), comprising - a shell extending along a longitudinal axis (z), which shell surrounds a shell space for receiving the first fluid, - a tube bundle arranged in the shell space and having a plurality of tubes for receiving the at least one second fluid (S'), wherein the tubes form multiple tube layers, and - a shroud that is arranged in the shell space and surrounds an outermost tube layer of the tube bundle in the radial direction of the tube bundle, wherein spacers extending along the longitudinal axis (z) are arranged between the shroud and the outermost tube layer, and - wherein an intermediate space (M') is present between every two spacers adjacent in the circumferential direction of the shroud and the shroud and the uppermost tube layer, wherein the respective intermediate space has a cross-sectional area perpendicular to the longitudinal axis (z), and - wherein a flow obstacle is arranged in the respective intermediate space (M') and is designed to impede or suppress a flow of the first fluid in the respective intermediate space (M') at least over a partial section of the respective intermediate space (M') extending along the longitudinal axis (z), characterized in that the respective flow obstacle occupies more than 50% of the cross-sectional area along its entire length in the direction of the longitudinal axis (z). - a shell extending along a longitudinal axis (z), which shell surrounds a shell space for receiving the first fluid, - a tube bundle arranged in the shell space and having a plurality of tubes for receiving the at least one second fluid (S'), wherein the tubes form multiple tube layers, and - a shroud that is arranged in the shell space and surrounds an outermost tube layer of the tube bundle in the radial direction of the tube bundle, wherein spacers extending along the longitudinal axis (z) are arranged between the shroud and the outermost tube layer, and - wherein an intermediate space (M') is present between every two spacers adjacent in the circumferential direction of the shroud and the shroud and the uppermost tube layer, wherein the respective intermediate space has a cross-sectional area perpendicular to the longitudinal axis (z), and - wherein a flow obstacle is arranged in the respective intermediate space (M') and is designed to impede or suppress a flow of the first fluid in the respective intermediate space (M') at least over a partial section of the respective intermediate space (M') extending along the longitudinal axis (z),
Fastening mechanism for a telescopic handle comprising an internal tube and an external tube, with an outer part, an inner part and at least one clamping part, wherein the outer part and the inner part can be displaced relative to one another in a clamping direction K and in a loosening direction L opposite to the clamping direction K, wherein, through a displacement in clamping direction K, the clamping part is pressed against the telescopic handle in order to fasten the internal tube and the external tube against one another via a clamping force, and wherein, through a displacement in loosening direction L, the clamping is released in order to allow a displaceability and/or rotatability of the internal tube and of the external tube, wherein a support acting on the clamping part in peripheral direction U, which can support a load acting on the clamping part in peripheral direction U, is provided on the fastening mechanism, and/or that a support acting on the clamping part in axial direction A, which can support a load acting on the clamping part in axial direction A, is provided on the fastening mechanism, characterised in that, a recess is provided in the inner part or in the outer part, in which the clamping part is retained, and the support is formed via the sides of the recess adjoining the clamping part.
Aqueous adhesive composition comprising at least, on the one hand, A) a phenol/aldehyde resin and, on the other hand, B) an unsaturated elastomer latex, characterized in that the phenol/aldehyde resin is based on at least: A1) one aromatic polyaldehyde bearing at least two aldehyde functional groups, comprising at least one aromatic nucleus; A2) phloroglucinol. A1) one aromatic polyaldehyde bearing at least two aldehyde functional groups, comprising at least one aromatic nucleus; A2) phloroglucinol.
A method of producing a rubber molded article, comprising a crosslinking step of crosslinking a rubber compound at a temperature of 100°C or less, the rubber compound having a nitrile structure represented by the following formula and an olefin structure represented by the following formula, in a rubber composition containing the rubber compound and a thiol compound having at least two thiol groups in a molecule thereof: (̵R)̵... provided that R in the formula represents a divalent organic group having 4 or more carbon atoms and having an unsaturated bond represented by -C=C- in a structure thereof, wherein if the thiol compound contains a triazine ring, the triazine ring is not adjacent to any one of the thiol groups.
Device for the preparation of a patella for the implementation of a patellar implant, comprising a clamp secured to a cutting guide and comprising 2 arms and articulated against an elastic return means, the device comprising a volumetric body acting as a spacer, and being shaped such as to be coupled to one of the arms, one of the faces of the body, considered to be opposite to the coupling with the arm having a recessed indentation characterized in that the volumetric body is custom-designed, its recessed indentation that is married, in inverted form, with the posterior articular face of the patella positioned on the other arm, said indentation and the height of the volumetric body being defined by means of form modeling software using scanner or MRI data from said patella, in order to give the orientation and positioning of the prosthetic patella, the posterior cutting height and the drilling depth of a retention pin for the patellar implant, the volumetric body acting as a spacer being coaxially drilled with a through hole of a diameter that is substantially equal to that of the patellar implant retention pin.