mhurhangee/ep-ind-claims huggingface dataset:
An element-mounted board comprising: a substantially rectangular heat-dissipating plate in which aluminum or magnesium-containing metal layers are formed on both front and back surfaces of a flat plate-shaped metal-silicon carbide complex including aluminum or magnesium; and an electronic element including a ceramic plate, which is mounted on one surface of the heat-dissipating plate, wherein, in a state where the electronic element is mounted on the one surface, a flatness of the other surface of the heat-dissipating plate is 600 μm or less, and when a length of a long side of the rectangle is denoted by a and a length of a short side of the rectangle is denoted by b, a straight line connecting each midpoint (M 1, M 3) of two short sides of the other surface is l 1 and a straight line connecting each midpoint (M 2, M 4) of two long sides of the other surface is l 2, a maximum distance between a point on a curve formed by the other surface and l 1 is h 1 when the heat-dissipating plate is viewed in cross-section in a cross-sectional view which includes l 1 and which is substantially orthogonal to the other surface, and a maximum distance between a point on a curve formed by the other surface and l 2 is h 2 when the heat-dissipating plate is viewed in cross-section in a cross-sectional view which includes l 2 and which is substantially orthogonal to the other surface, h 1 / a > h 2 / b is satisfied, wherein (h 1 /a)/(h 2 /b) is 1.07 or more and 1.9 or less. a substantially rectangular heat-dissipating plate in which aluminum or magnesium-containing metal layers are formed on both front and back surfaces of a flat plate-shaped metal-silicon carbide complex including aluminum or magnesium; and an electronic element including a ceramic plate, which is mounted on one surface of the heat-dissipating plate, wherein, in a state where the electronic element is mounted on the one surface, a flatness of the other surface of the heat-dissipating plate is 600 μm or less, and when a length of a long side of the rectangle is denoted by a and a length of a short side of the rectangle is denoted by b, a straight line connecting each midpoint (M 1, M 3) of two short sides of the other surface is l 1 and a straight line connecting each midpoint (M 2, M 4) of two long sides of the other surface is l 2, a maximum distance between a point on a curve formed by the other surface and l 1 is h 1 when the heat-dissipating plate is viewed in cross-section in a cross-sectional view which includes l 1 and which is substantially orthogonal to the other surface, and a maximum distance between a point on a curve formed by the other surface and l 2 is h 2 when the heat-dissipating plate is viewed in cross-section in a cross-sectional view which includes l 2 and which is substantially orthogonal to the other surface, h 1 / a > h 2 / b is satisfied, wherein (h 1 /a)/(h 2 /b) is 1.07 or more and 1.9 or less.
An apparatus, comprising: a transceiver placed in a customer premise equipment, CPE,, coupled to a crosstalk precoder by a digital subscriber line, DSL,, and configured to send a feedback error message (800, 900, 1000) to train the crosstalk precoder, characterized in that the feedback error message (800, 900, 1000) comprises a first field for carrying a plurality of error components (810, 910, 1010), wherein the error components correspond to a plurality of tones in a received pilot symbol, and a second field for carrying information (820, 1020) which indicates a quantity of bits per error component. a transceiver placed in a customer premise equipment, CPE,, coupled to a crosstalk precoder by a digital subscriber line, DSL,, and configured to send a feedback error message (800, 900, 1000) to train the crosstalk precoder, characterized in that the feedback error message (800, 900, 1000) comprises a first field for carrying a plurality of error components (810, 910, 1010), wherein the error components correspond to a plurality of tones in a received pilot symbol, and a second field for carrying information (820, 1020) which indicates a quantity of bits per error component.
An imaging element comprising: a pixel including a photoelectric conversion unit (11, 19) configured to perform photoelectric conversion in accordance with incident light and a charge transfer unit configured to transfer a charge generated by the photoelectric conversion; an individual on-chip lens arranged for the pixel and configured to individually collect the incident light; a plurality of phase difference pixels each including a photoelectric conversion unit and a charge transfer unit and arranged adjacent to each other to detect a phase difference; a common on-chip lens arranged in common for the plurality of phase difference pixels and configured to collect the incident light in common; and a pixel circuit formed in a semiconductor substrate and configured to generate an image signal on a basis of the transferred charge, the imaging element being characterized in that the charge transfer units of the plurality of phase difference pixels are arranged between the common on-chip lens and the individual on-chip lens in a region excluding a region where the common on-chip lens is arranged. a pixel including a photoelectric conversion unit (11, 19) configured to perform photoelectric conversion in accordance with incident light and a charge transfer unit configured to transfer a charge generated by the photoelectric conversion; an individual on-chip lens arranged for the pixel and configured to individually collect the incident light; a plurality of phase difference pixels each including a photoelectric conversion unit and a charge transfer unit and arranged adjacent to each other to detect a phase difference; a common on-chip lens arranged in common for the plurality of phase difference pixels and configured to collect the incident light in common; and a pixel circuit formed in a semiconductor substrate and configured to generate an image signal on a basis of the transferred charge, the imaging element being characterized in that the charge transfer units of the plurality of phase difference pixels are arranged between the common on-chip lens and the individual on-chip lens in a region excluding a region where the common on-chip lens is arranged.
Structure for a sliding roof with a tarpaulin consisting of longitudinal members and cross-members, and folding plates between the cross-members and connected to the cross-members, characterised in that the folding plates and the longitudinal members are equipped with complementary profiles (9, 11, 13) extending in a direction parallel to the longitudinal members to form a mechanical connection between lying-down folding plates and the longitudinal members.
A method of providing erosion protection to self-interlocking windings of a carcass layer of a flexible pipe, comprising the steps of: via a wound sacrificial insert located over at least a portion of an inner facing surface of self-interlocking windings of a carcass layer, shielding at least a flow facing edge region of each self-interlocking winding from abrasive elements carried by a bore fluid flowing along a bore of the flexible pipe from an upstream to a downstream location, characterised in that the method further comprises shielding the flow facing edge region via a tape element that is a folded strip that has a generally C-shaped cross-section, a central, generally flat body portion of the cross-section of the folded strip that comprises the axially extending body portion being located over a cooperating flat region of a self-interlocking winding of the carcass layer and arcuate ends of the cross-section of the folded strip being located over respective cooperating curved regions of said a self-interlocking winding.
An apparatus for accommodating at least one person and for partially limiting the freedom of movement of the person accommodated in the apparatus, comprising a platform and a first annular part arranged above the platform for surrounding the at least one person, wherein the first annular part is indirectly connected to the platform and is rotatable relative to the platform, wherein the first annular part can be moved up and down in relation to the platform, wherein further the apparatus comprises a second annular part, wherein the plane formed by the first annular part and the plane formed by the second annular part stand substantially parallel with respect to each other, and the first annular part is arranged within the second annular part and is rotatably mounted thereon about a rotational axis which stands substantially normal to the plane formed by the first annular part, wherein further a rod assembly is fastened to the second annular part at least at one point, which rod assembly extends downwardly in an inclined manner in relation to the plane formed by the second annular part, characterized in that the rod assembly comprises a guide structure (5, 201) at its outer end, which guide structure is guided on an elongated vertical guide (6, 202).
An organic electroluminescent device, comprising: a first electrode; an emission layer formed over the first electrode, and having a first emission layer in a first emission area which is a green emission layer, a second emission layer in a second emission area which is a red emission layer, and a third emission layer in a third emission area which is a blue emission layer, wherein the first, second, and third emission layers (5a, 5b and 5c) are next to each other in a direction parallel to the first electrode, a hole blocking layer on the emission layer, the hole blocking layer being formed of a compound which the third emission layer also comprises; and a second electrode over the hole blocking layer, characterized in that; the first electrode is on a substrate, and the hole blocking layer is formed of any one of the compounds listed below. a first electrode; an emission layer formed over the first electrode, and having a first emission layer in a first emission area which is a green emission layer, a second emission layer in a second emission area which is a red emission layer, and a third emission layer in a third emission area which is a blue emission layer, wherein the first, second, and third emission layers (5a, 5b and 5c) are next to each other in a direction parallel to the first electrode, a hole blocking layer on the emission layer, the hole blocking layer being formed of a compound which the third emission layer also comprises; and a second electrode over the hole blocking layer, characterized in that; the first electrode is on a substrate, and the hole blocking layer is formed of any one of the compounds listed below.
A drug delivery device with a resettable dose setting mechanism, said mechanism comprising: a housing (40; 204, 208), a rotating sleeve (10; 206) in rotatable engagement with respect to said housing, a driver (30; 209) for driving a spindle (42; 214) of the drug delivery device having a first component (44; 207) and a second component (46; 212), said first and said second component being operatively coupled together, by rotationally coupling the second component (46; 212) to the first component (44; 207), and the spindle (42; 214) which is operatively coupled to said first component (44; 207) of the driver by means of a thread, such that when a user sets a dose by rotating said rotating sleeve, the driver (30; 209) climbs the spindle (42; 214), wherein both said first component (44; 207) and said second component (46; 212) of said driver rotate together, and such that when said user resets said dose setting mechanism, said first component (44; 207) of said driver is rotationally decoupled from said second component (46; 212) of said driver and said first component can rotate back to an original position, wherein decoupling of said first component (44; 207) from said second component (46; 212) is effected by an axial movement of said spindle. a housing (40; 204, 208), a rotating sleeve (10; 206) in rotatable engagement with respect to said housing, a driver (30; 209) for driving a spindle (42; 214) of the drug delivery device having a first component (44; 207) and a second component (46; 212), said first and said second component being operatively coupled together, by rotationally coupling the second component (46; 212) to the first component (44; 207), and the spindle (42; 214) which is operatively coupled to said first component (44; 207) of the driver by means of a thread, such that when a user sets a dose by rotating said rotating sleeve, the driver (30; 209) climbs the spindle (42; 214), wherein both said first component (44; 207) and said second component (46; 212) of said driver rotate together, and such that when said user resets said dose setting mechanism, said first component (44; 207) of said driver is rotationally decoupled from said second component (46; 212) of said driver and said first component can rotate back to an original position, wherein decoupling of said first component (44; 207) from said second component (46; 212) is effected by an axial movement of said spindle.
Mobile structure for desirably prestressed reinforced concrete bars, comprising two end elements, at least one intermediate element (3a, 3b, 3c), a collision element (4a, 4b) assisting the connection of an end element and an intermediate element (3a, 3b, 3c) or two intermediate elements (3a, 3b, 3c), and stressing elements attached to the end elements; in the intermediate element (3a, 3b, 3c) and the end elements a groove is inserted; with the grooves being arranged adjacent to each other, thus forming a contiguous and interconnected channel, characterized in that it includes an adjustable shutter element, the shutter element is placed in the grooves placed adjacently, the stressing element contains stressing plates, and a rut is formed at the height of the stressing plates in the end element.
A method of preparing a diamond composite with a layered structure comprising: - preparing a slurry containing a polymerisable binder, an initiator and diamond particles; - forming a layered structure green body by stepwise irradiation curing of the slurry containing diamond particles and a temporary binder and an initiator; - forming a white body comprising at least 30 vol% diamond particles by de-binding the layered structure green body; - introducing an infiltrant to the white body and sintering the white body by heating the white body as an initial stage up to a maximum sintering temperature by incremental temperature increase at a rate of 10 to 60 °C/min at a first pressure. - preparing a slurry containing a polymerisable binder, an initiator and diamond particles; - forming a layered structure green body by stepwise irradiation curing of the slurry containing diamond particles and a temporary binder and an initiator; - forming a white body comprising at least 30 vol% diamond particles by de-binding the layered structure green body; - introducing an infiltrant to the white body and sintering the white body by heating the white body as an initial stage up to a maximum sintering temperature by incremental temperature increase at a rate of 10 to 60 °C/min at a first pressure.
A seed meter disk for use in an agricultural seed meter for metering seeds output to a soil furrow by a planter or air seeder, the seed meter disk comprising: a body defining a plane in which the seed meter disk rotates about a central axis perpendicular to the plane; a circumferential array of seed openings to which seeds from a seed pool adhere in the presence of a pressure differential between a first side of the body on a first side of the plane and a second side of the body on a second side of the plane; and a circumferential array of seed agitators provided on the first side of the seed meter disk, each one of the array of seed agitators having a forward-facing surface with respect to rotation of the seed meter disk in an operational direction, characterized in that the array of seed agitators is spaced radially from the array of seed openings and in that the entire forward-facing surface of some or all of the seed agitators is wholly non-linear and backswept so that a circumferential-direction offset (O r) from a radial reference line (L r) rotationally ahead of the forward-facing surface increases along the forward-facina surface in a radially outward direction. a body defining a plane in which the seed meter disk rotates about a central axis perpendicular to the plane; a circumferential array of seed openings to which seeds from a seed pool adhere in the presence of a pressure differential between a first side of the body on a first side of the plane and a second side of the body on a second side of the plane; and a circumferential array of seed agitators provided on the first side of the seed meter disk, each one of the array of seed agitators having a forward-facing surface with respect to rotation of the seed meter disk in an operational direction, characterized in that the array of seed agitators is spaced radially from the array of seed openings and in that the entire forward-facing surface of some or all of the seed agitators is wholly non-linear and backswept so that a circumferential-direction offset (O r) from a radial reference line (L r) rotationally ahead of the forward-facing surface increases along the forward-facina surface in a radially outward direction.
A process for synthesizing multiwall carbon nanotubes comprising: depolymerizing high molecular polymeric wastes to obtain a carbon-containing feedstock; pre-treating an array of catalytic materials consisting of 304 type stainless steel with an acid to reduce chromium content in the array of catalytic materials to less than 12%; introducing a reducing gas into a catalytic reactor containing the array of catalytic materials; heating the array of catalytic materials in the catalytic reactor by induction heating in the presence of the reducing gas to activate active sites on surfaces of the array of catalytic materials; feeding the carbon-containing feedstock into the catalytic reactor containing the array of catalytic materials, wherein the array of catalytic materials is arranged in a horizontally stacked manner having a space between any two adjacent catalytic materials sufficient to allow multiwall carbon nanotubes to grow and deposit on surfaces of the catalytic materials; heating the array of catalytic materials in the presence of the carbon-containing feedstock by induction heating to form multiwall carbon nanotubes on the surfaces of the catalytic materials; and removing the multiwall carbon nanotubes from the surfaces of the array of catalytic materials. depolymerizing high molecular polymeric wastes to obtain a carbon-containing feedstock; pre-treating an array of catalytic materials consisting of 304 type stainless steel with an acid to reduce chromium content in the array of catalytic materials to less than 12%; introducing a reducing gas into a catalytic reactor containing the array of catalytic materials; heating the array of catalytic materials in the catalytic reactor by induction heating in the presence of the reducing gas to activate active sites on surfaces of the array of catalytic materials; feeding the carbon-containing feedstock into the catalytic reactor containing the array of catalytic materials, wherein the array of catalytic materials is arranged in a horizontally stacked manner having a space between any two adjacent catalytic materials sufficient to allow multiwall carbon nanotubes to grow and deposit on surfaces of the catalytic materials; heating the array of catalytic materials in the presence of the carbon-containing feedstock by induction heating to form multiwall carbon nanotubes on the surfaces of the catalytic materials; and removing the multiwall carbon nanotubes from the surfaces of the array of catalytic materials.
A method for activating a function of a vehicle, comprising: transmitting a radio command from a portable device to the vehicle, and activating the function, if an enabled status of the function is not switched off, wherein the enabled status of the function is switched off by means of radio, as soon as the portable device is moved out of the radio reception range of the vehicle. transmitting a radio command from a portable device to the vehicle, and activating the function, if an enabled status of the function is not switched off, wherein the enabled status of the function is switched off by means of radio, as soon as the portable device is moved out of the radio reception range of the vehicle.
A process of making entecavir of the following formula: comprising converting a compound of formula to entecavir, wherein the two PGs on the formula are taken together with the two oxygen atoms to which they attach and the carbon atoms between the two oxygen atoms to form an optionally substituted six- or seven-member ring.
A demodulation sensor, comprising: a pixel array comprising pixels, wherein each pixel is configured to transfer charge carriers in an alternating fashion from a photo-sensitive area to different storage sites (220A, 220B-220N) of the pixel synchronously with a modulation of a light source in a time sequence of subframes for different phases of the modulation of the light source to produce at least two signals for every subframe; a storage array comprising storage elements, each of the storage elements receiving the at least two signals from a corresponding one of the storage sites (220A, 220B-220N) of the pixels for the subframes and accumulating the subframes into full frames; and analog to digital converters (280A, 280B) between the pixel array and the storage array for converting the signals into digital subframe values; and characterized by: a subframe compression unit that compresses the digital subframe values. a pixel array comprising pixels, wherein each pixel is configured to transfer charge carriers in an alternating fashion from a photo-sensitive area to different storage sites (220A, 220B-220N) of the pixel synchronously with a modulation of a light source in a time sequence of subframes for different phases of the modulation of the light source to produce at least two signals for every subframe; a storage array comprising storage elements, each of the storage elements receiving the at least two signals from a corresponding one of the storage sites (220A, 220B-220N) of the pixels for the subframes and accumulating the subframes into full frames; and analog to digital converters (280A, 280B) between the pixel array and the storage array for converting the signals into digital subframe values; and characterized by: a subframe compression unit that compresses the digital subframe values.