mhurhangee/ep-ind-claims huggingface dataset:
Timepiece mobile component in several parts, wherein said mobile component comprises a first component formed by an arbor which includes, about a first pivot axis, a housing arranged for reception of a second component formed by a plate in a single axial position, said plate including a peripheral surface with respect to a second pivot axis, said arbor comprising, on either side of said at least one housing, in the direction of said first pivot axis, an axial abutment surface arranged to maintain said plate in abutment on said arbor, wherein said plate comprises a first arm, resilient radially with respect to said second pivot axis, and a second arm that is stiff or resilient radially with respect to said second pivot axis, said first resilient arm and second arm together forming a clamp arranged to clamp a radial bearing surface comprised in said arbor in proximity to said axial abutment surface, wherein said arbor comprises an entry ramp arranged to push back radially said first resilient arm and said second resilient arm when comprised in said plate, to allow said plate to be placed on said arbor, said first arm and said second arm including a substantially cylindrical hollow section (34; 35) whose axis is off-centre with respect to said second pivot axis, characterized in that said axis is farther from said substantially cylindrical hollow section (34; 35) than said second pivot axis, by an offset value comprised between 0.1 and 0.2 times the radius of said substantially cylindrical hollow section (34; 35), in that said radial bearing surface and said entry ramp of said arbor define together a flange arranged to immobilise said plate on said arbor when said plate is in abutment on said axial abutment surface of said arbor, in that said radial bearing surface is undercut with respect to said flange, by a small angle (b) comprised between 2° and 8°, and in that said plate bears on said arbor at only four points (P11, P12, P13, P14; P21, P22, P23, P24), in symmetrical pairs with respect to said first pivot axis, in that said plate includes a lower surface which forms an axial abutment surface and rests on a radial surface of said arbor orthogonal to the axis of said arbor, on an annular surface delimited by an inner circle and an outer circle, said plate being, in an assembled position on said arbor, in contact with said arbor on a surface substantially reduced to a circle, on said radial bearing surface, the projection of said circle, parallel to said axis of said arbor, onto said radial bearing surface, being located between said inner circle and said outer circle, and coincides with said inner circle.
A method for manufacturing a semiconductor device, comprising: providing a substrate; forming a plurality of first structures extending in a first direction on the substrate, wherein each of the first structures comprises a conductive structure and an isolation sidewall located on a sidewall of the conductive structure, the conductive structure comprises a bit line extending in the first direction; forming a sacrificial layer (400") on sidewalls of the first structures, wherein the sacrificial layer (400") comprises a hydrocarbon layer or a polymer layer; forming an outer spacer layer on a sidewall of the sacrificial layer (400"); removing part of the outer spacer layer to obtain a patterned outer spacer layer that exposes part of the sacrificial layer (400"), wherein the patterned outer spacer layer comprises a plurality of outer spacer blocks, the plurality of outer spacer blocks are distributed on the substrate at intervals in the first direction; and removing the sacrificial layer (400") by an ashing process to form air gaps between the patterned outer spacer layer and the first structures. providing a substrate; forming a plurality of first structures extending in a first direction on the substrate, wherein each of the first structures comprises a conductive structure and an isolation sidewall located on a sidewall of the conductive structure, the conductive structure comprises a bit line extending in the first direction; forming a sacrificial layer (400") on sidewalls of the first structures, wherein the sacrificial layer (400") comprises a hydrocarbon layer or a polymer layer; forming an outer spacer layer on a sidewall of the sacrificial layer (400"); removing part of the outer spacer layer to obtain a patterned outer spacer layer that exposes part of the sacrificial layer (400"), wherein the patterned outer spacer layer comprises a plurality of outer spacer blocks, the plurality of outer spacer blocks are distributed on the substrate at intervals in the first direction; and removing the sacrificial layer (400") by an ashing process to form air gaps between the patterned outer spacer layer and the first structures.
A floor seal for a forwardly facing opening through a floor of a plant cutting machine through which a knife arm (62A/62B) extends for side to side reciprocating movement for driving a sickle of the machine as the machine is moved forwardly for performing a plant cutting operation, whereby: a stationary outer peripheral seal element configured to cooperatively engage a peripheral edge of the floor about the opening and to form a substantially sealed condition about the edge, an inner peripheral seal element bounded by the outer peripheral seal element, the inner peripheral seal element being configured to cooperatively engage an outer peripheral surface of the knife arm (62A, 62B) and to form a barrier to entry of loose material about the surface and being movable side to side with the knife arm (62A/62B), and an intermediate cover element extending between the inner peripheral seal element and the outer peripheral seal element, the inner peripheral seal element being bounded by and located in an aperture of the intermediate cover element for providing a forwardly facing enclosure or barrier to passage of loose material between the seal elements (74, 76) while allowing the side to side movements of the inner peripheral seal element with the knife arm (62A/62B) relative to the outer peripheral seal element during the plant cutting operation, and characterized in that the inner peripheral seal element is carried in at least one sidewardly extending slot (92/94) along an edge of the aperture for side to side movement relative to the cover element. a stationary outer peripheral seal element configured to cooperatively engage a peripheral edge of the floor about the opening and to form a substantially sealed condition about the edge, an inner peripheral seal element bounded by the outer peripheral seal element, the inner peripheral seal element being configured to cooperatively engage an outer peripheral surface of the knife arm (62A, 62B) and to form a barrier to entry of loose material about the surface and being movable side to side with the knife arm (62A/62B), and an intermediate cover element extending between the inner peripheral seal element and the outer peripheral seal element, the inner peripheral seal element being bounded by and located in an aperture of the intermediate cover element for providing a forwardly facing enclosure or barrier to passage of loose material between the seal elements (74, 76) while allowing the side to side movements of the inner peripheral seal element with the knife arm (62A/62B) relative to the outer peripheral seal element during the plant cutting operation, and characterized in that the inner peripheral seal element is carried in at least one sidewardly extending slot (92/94) along an edge of the aperture for side to side movement relative to the cover element.
A process for producing cellulose shaped articles in which: a) cellulose is at least partly dissolved at a temperature of 70°C or lower in a dope comprising an ionic liquid and a cosolvent to form a cellulose solution comprising 5 to 15 wt.% cellulose, wherein said cosolvent comprises a polar aprotic component and wherein the dope comprises more than 20% to less than 50% ionic liquid by weight of the dope, and wherein the degree of polymerisation of the cellulose is less than 700, and b) cellulose shaped articles are cast from the cellulose solution. a) cellulose is at least partly dissolved at a temperature of 70°C or lower in a dope comprising an ionic liquid and a cosolvent to form a cellulose solution comprising 5 to 15 wt.% cellulose, wherein said cosolvent comprises a polar aprotic component and wherein the dope comprises more than 20% to less than 50% ionic liquid by weight of the dope, and wherein the degree of polymerisation of the cellulose is less than 700, and b) cellulose shaped articles are cast from the cellulose solution.
A semiconductor device comprising: a high frequency semiconductor chip; an input matching circuit disposed at an input side of the high frequency semiconductor chip; an output matching circuit disposed at an output side of the high frequency semiconductor chip; a high frequency input terminal connected to the input matching circuit; a high frequency output terminal connected to the output matching circuit; a capacitor connection circuit disposed at the output side of the high frequency semiconductor chip; a smoothing capacitor terminal connected to the capacitor connection circuit, and a smoothing capacitor (C BR) connected between the smoothing capacitor terminal and ground potential, wherein the high frequency semiconductor chip, the input matching circuit and the output matching circuit are housed by one package, wherein the capacitor connection circuit comprises: a feed through utilized for the smoothing capacitor; and a bonding wire for connecting the smoothing capacitor, and the smoothing capacitor terminal is connected to a drain terminal electrode of the high frequency semiconductor chip via the feed through utilized for the smoothing capacitor and the bonding wire for connecting the smoothing capacitor, wherein the feed through is directly connected to the drain terminal electrode through the bonding wire; wherein high frequency is frequencies over 2 GHz. a high frequency semiconductor chip; an input matching circuit disposed at an input side of the high frequency semiconductor chip; an output matching circuit disposed at an output side of the high frequency semiconductor chip; a high frequency input terminal connected to the input matching circuit; a high frequency output terminal connected to the output matching circuit; a capacitor connection circuit disposed at the output side of the high frequency semiconductor chip; a smoothing capacitor terminal connected to the capacitor connection circuit, and a smoothing capacitor (C BR) connected between the smoothing capacitor terminal and ground potential, wherein the high frequency semiconductor chip, the input matching circuit and the output matching circuit are housed by one package, wherein the capacitor connection circuit comprises: a feed through utilized for the smoothing capacitor; and a bonding wire for connecting the smoothing capacitor, and the smoothing capacitor terminal is connected to a drain terminal electrode of the high frequency semiconductor chip via the feed through utilized for the smoothing capacitor and the bonding wire for connecting the smoothing capacitor, wherein the feed through is directly connected to the drain terminal electrode through the bonding wire; wherein high frequency is frequencies over 2 GHz.
A time-sensitive networking communication method, comprising: receiving, by an application function network element from a network element in a time-sensitive networking, TSN, system, forwarding policy information of TSN traffic, wherein the forwarding policy information comprises traffic information of the TSN traffic and an identifier of a port that transmits the TSN traffic; determining (S 102), by the application function network element based on the identifier of the port that transmits the TSN traffic, a user terminal identifier corresponding to the TSN traffic; and sending, by the application function network element to a policy control network element, the forwarding policy information and the user terminal identifier corresponding to the TSN traffic. receiving, by an application function network element from a network element in a time-sensitive networking, TSN, system, forwarding policy information of TSN traffic, wherein the forwarding policy information comprises traffic information of the TSN traffic and an identifier of a port that transmits the TSN traffic; determining (S 102), by the application function network element based on the identifier of the port that transmits the TSN traffic, a user terminal identifier corresponding to the TSN traffic; and sending, by the application function network element to a policy control network element, the forwarding policy information and the user terminal identifier corresponding to the TSN traffic.
A vehicle transmission with a built-in brake, the vehicle transmission pressing a pressure plate in a disc brake unit housed in a transmission case by pressing an outer end of a pressing rod penetrating a sidewall of the transmission case with one end of a pressing arm that is pivotally provided in a rotatable manner on the sidewall and that is rotated by a dual system including a parking brake cable and a hydraulic piston operated by operation of a brake pedal, characterized in that the hydraulic piston is housed in a cylinder chamber that is open toward the pressing arm provided on the sidewall, and a hydraulic pipe that supplies pressure oil to the cylinder chamber is connected to the sidewall, wherein a pin which is provided separately from the hydraulic piston and the pressing arm is interposed between the hydraulic piston and the pressing arm facing the hydraulic piston so as to be movable in a tilting manner relative to the hydraulic piston and the pressing arm so as to be capable of rotating the pressing arm via the pin.
LED module, with modular design that may be installed directly into a lamp, comprising: a) a circuit board and an LED carrier module, which are simply selectively connected to one another as components of the LED module, wherein b) the printed circuit board comprises an integrated converter electronics for the LED carrier module, which may be connected at the input side of the converter electronics to allow connection of the circuit board to a mains voltage, wherein c) the LED carrier module has at least one LED chip arranged on a substrate, wherein d) the carrier module comprises mechanical connection means via which it may be selectively connected to the circuit board via a correspondingly formed connecting means, wherein e) the LED carrier module comprises at least one sensor (8, 8'), which is designed to communicate with the converter electronics of the printed circuit board, and wherein f) the LED module further comprises a housing which may be selectively connected to the printed circuit board through provided mechanical connection means (6, 6'), so that the converter electronics of the printed circuit board is protected against environmental influences. a) a circuit board and an LED carrier module, which are simply selectively connected to one another as components of the LED module, wherein b) the printed circuit board comprises an integrated converter electronics for the LED carrier module, which may be connected at the input side of the converter electronics to allow connection of the circuit board to a mains voltage, wherein c) the LED carrier module has at least one LED chip arranged on a substrate, wherein d) the carrier module comprises mechanical connection means via which it may be selectively connected to the circuit board via a correspondingly formed connecting means, wherein e) the LED carrier module comprises at least one sensor (8, 8'), which is designed to communicate with the converter electronics of the printed circuit board, and wherein f) the LED module further comprises a housing which may be selectively connected to the printed circuit board through provided mechanical connection means (6, 6'), so that the converter electronics of the printed circuit board is protected against environmental influences.
A method for lap-joint welding a zinc coated steel sheet using a welding wire, to reduce a porosity defect of welded portions, wherein, when welding, a welding current is 150 to 300 A, a shielding gas is a mixed gas of Ar + 10 to 30% CO 2, characterized in that a welding polarity is alternately altered to satisfy a welding polarity fraction, defined by the following relationship 1, in a range of 0.25 to 0.35, wherein the welded portions have a pore area ratio of 0.97% or less, EN R, % / EP R, % + EN R, % where, EN R,% is a welding polarity fraction of a direct Current negative electrode, and EP R,% is a welding polarity fraction of a direct Current positive electrode. wherein, when welding, a welding current is 150 to 300 A, a shielding gas is a mixed gas of Ar + 10 to 30% CO 2, characterized in that a welding polarity is alternately altered to satisfy a welding polarity fraction, defined by the following relationship 1, in a range of 0.25 to 0.35, wherein the welded portions have a pore area ratio of 0.97% or less, EN R, % / EP R, % + EN R, % where, EN R,% is a welding polarity fraction of a direct Current negative electrode, and EP R,% is a welding polarity fraction of a direct Current positive electrode.
A nucleic acid vector or a plurality of nucleic acid vectors comprising expressible nucleotide sequences, wherein the sequences comprise a) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:1; b) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:2; c) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:3; d) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:4; and e) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:5; wherein the vector(s) comprise(s) one or more nucleotide sequences for producing a crRNA, wherein the crRNA comprises a spacer that is cognate to a first protospacer in a target sequence. a) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:1; b) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:2; c) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:3; d) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:4; and e) a nucleotide sequence that encodes a polypeptide which comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:5;
A crown structure, comprising: a corrosion resistant layer aligning and disposing plural pieces of refractory blocks to be a vault shape at a furnace inner side of a glass melting furnace; and a gas leakage blocking layer (3, 13) including plural pieces of heat-insulating blocks (3a, 13a) disposed with gaps between them and disposed at an upper layer of the refractory blocks of the corrosion resistant layer, a dense castable refractory (3b, 13b) provided at the gaps between the heat-insulating blocks (3a, 13a) and provided to cover at least joints of the refractory blocks, and a lightweight heat-insulating castable refractory (3c, 13c) provided at the gaps between the heat-insulating blocks (3a, 13a), stacked on the dense castable refractory (3b, 13b) and provided to embed a space formed by the heat-insulating blocks (3a, 13a) and the dense castable refractory (3b, 13b), wherein the dense castable refractory (3b, 13b) has a bulk specific gravity of 3.0 or more at 110°C, wherein the lightweight heat-insulating castable refractory (3c, 13c) has as bulk specific gravity of 1.2 or less at 110°C and a thermal conductivity at 1000°C of 0.7 W/(m·K) or less. a corrosion resistant layer aligning and disposing plural pieces of refractory blocks to be a vault shape at a furnace inner side of a glass melting furnace; and a gas leakage blocking layer (3, 13) including plural pieces of heat-insulating blocks (3a, 13a) disposed with gaps between them and disposed at an upper layer of the refractory blocks of the corrosion resistant layer, a dense castable refractory (3b, 13b) provided at the gaps between the heat-insulating blocks (3a, 13a) and provided to cover at least joints of the refractory blocks, and a lightweight heat-insulating castable refractory (3c, 13c) provided at the gaps between the heat-insulating blocks (3a, 13a), stacked on the dense castable refractory (3b, 13b) and provided to embed a space formed by the heat-insulating blocks (3a, 13a) and the dense castable refractory (3b, 13b), wherein the dense castable refractory (3b, 13b) has a bulk specific gravity of 3.0 or more at 110°C, wherein the lightweight heat-insulating castable refractory (3c, 13c) has as bulk specific gravity of 1.2 or less at 110°C and a thermal conductivity at 1000°C of 0.7 W/(m·K) or less.
Machine for decorating products, comprising a printing area of the products and a support area of the products arranged below said printing area, characterised in that the machine further comprises a mobile frame to which said support area and said printing area are fixedly connected, said support area comprising a first conveyor, positioned directly below said printing area, and a second conveyor positioned below said first conveyor.
A system comprising: a) an energy source; and b) a plasma-generating device comprising a tip having an outlet, the device being configured for generating and discharging through said outlet a plasma flow in air, the flow having a directional axis and an active zone defined by plasma having a temperature above a threshold, characterized in that the energy source is configured for providing energy with a power density that varies according to a controlled pattern; the active zone expands and contracts volumetrically over time according to the power density pattern of the energy source, wherein a portion of the plasma in a contracted active zone has a first temperature of at least 10,000 K; and the portion of the plasma in an expanded active zone has a second temperature of at least 10,000 K above the first temperature. a) an energy source; and b) a plasma-generating device comprising a tip having an outlet, the device being configured for generating and discharging through said outlet a plasma flow in air, the flow having a directional axis and an active zone defined by plasma having a temperature above a threshold, characterized in that the energy source is configured for providing energy with a power density that varies according to a controlled pattern; the active zone expands and contracts volumetrically over time according to the power density pattern of the energy source, wherein a portion of the plasma in a contracted active zone has a first temperature of at least 10,000 K; and the portion of the plasma in an expanded active zone has a second temperature of at least 10,000 K above the first temperature.