mhurhangee/ep-ind-claims huggingface dataset:
An in vitro method for the analysis of the genetic predisposition of an individual to develop adverse effects related to non-metallic bioimplants implanted into the body, comprising determining, in a biological sample from said individual, the presence of the antigen HLA-B*08 of the major histocompatibility complex; and wherein the presence of at least said antigen is indicative of genetic predisposition to develop said adverse effects.
A surge isolating device to be connected in series between a first transmission line and a second transmission line for isolating surge on the first transmission line so as to prevent the surge from entering the second transmission line, said surge isolating device comprising: a housing unit defining an internal space, and including a conductive input-end housing and a conductive output-end housing connected to each other; and a transmission unit disposed in said internal space, and including a transmission wire that is to be electrically connected between the first transmission line and the second transmission line; said surge isolating device being characterized by an isolation unit that is disposed in said internal space, and that includes a tubular conductive body extending along an axial direction, electrically connected to said conductive input-end housing, having said transmission wire extending therethrough, and capable of generating mutual inductance with said transmission wire by virtue of coupling therebetween, an inductor capable of generating mutual inductance with said tubular conductive body by virtue of coupling therebetween, an annular capacitor surrounding said tubular conductive body, and having a first surface and a second surface that are opposite to each other along said axial direction, said second surface being electrically connected to said conductive output-end housing, and a first annular conductive member surrounding fittingly on said tubular conductive body, and contacting said first surface of said annular capacitor such that said first surface of said annular capacitor is electrically connected to said tubular conductive body and said conductive input-end housing. a housing unit defining an internal space, and including a conductive input-end housing and a conductive output-end housing connected to each other; and a transmission unit disposed in said internal space, and including a transmission wire that is to be electrically connected between the first transmission line and the second transmission line; said surge isolating device being characterized by an isolation unit that is disposed in said internal space, and that includes a tubular conductive body extending along an axial direction, electrically connected to said conductive input-end housing, having said transmission wire extending therethrough, and capable of generating mutual inductance with said transmission wire by virtue of coupling therebetween, an inductor capable of generating mutual inductance with said tubular conductive body by virtue of coupling therebetween, an annular capacitor surrounding said tubular conductive body, and having a first surface and a second surface that are opposite to each other along said axial direction, said second surface being electrically connected to said conductive output-end housing, and a first annular conductive member surrounding fittingly on said tubular conductive body, and contacting said first surface of said annular capacitor such that said first surface of said annular capacitor is electrically connected to said tubular conductive body and said conductive input-end housing.
An integrated circuit package comprising: a die; a lead; and a bond wire comprising a first end coupled to the die and a second end coupled to the lead via a bond; the bond wire further comprising: a first portion between a first bend in the bond wire and the bond and forming a first angle with respect to the lead; a second portion forming a second angle with respect to the lead; wherein: the first bend is immediately between the first and second portions, and is configured to reduce the angle of the bond wire with respect to the lead from the second angle to the first angle; characterized in that the first bend is in the vicinity of an edge of the lead; and the first bend is displaced away from an edge of the lead, so that the first bend does not overlie the lead; and the majority of the length of the first portion lies above the lead. a die; a lead; and a bond wire comprising a first end coupled to the die and a second end coupled to the lead via a bond; the bond wire further comprising: a first portion between a first bend in the bond wire and the bond and forming a first angle with respect to the lead; a second portion forming a second angle with respect to the lead; a first portion between a first bend in the bond wire and the bond and forming a first angle with respect to the lead; a second portion forming a second angle with respect to the lead; wherein: the first bend is immediately between the first and second portions, and is configured to reduce the angle of the bond wire with respect to the lead from the second angle to the first angle; characterized in that the first bend is in the vicinity of an edge of the lead; and the first bend is displaced away from an edge of the lead, so that the first bend does not overlie the lead; and the majority of the length of the first portion lies above the lead.
A pressure-sensitive adhesive film satisfying Equation 1 and comprising a pressure-sensitive adhesive, wherein the pressure-sensitive adhesive has a water vapor transmission rate of 50 g/m 2 ·day or less wherein the water vapor transmission rate in a thickness direction is measured on a film having a thickness of 100 μm according to the water vapor transmission rate method as described in the description, and wherein the pressure-sensitive adhesive comprises a pressure-sensitive adhesive composition having an encapsulating resin which includes a olefin-based elastomer and a multifunctional active energy ray-polymerizable compound which is included at 5 to 30 parts by weight relative to 100 parts by weight of the encapsulating resin, wherein the olefin-based elastomer is a copolymer of a diene and an olefin-based compound having one carbon-carbon double bond and has a weight average molecular weight (Mw) of 100,000 to 2,000,000 as measured according to the method described in the description: Δ X ≤ 0.3 mm wherein ΔX is a change in a creeping distance of the pressure-sensitive adhesive layer between 50 to 200 seconds when a base film in which a pressure-sensitive adhesive layer comprises the pressure-sensitive adhesive after crosslinking and is formed to have a thickness of 50 μm on one surface thereof is adhered to a glass plate having an adhesive area of 1 cm 2, and aged for 24 hours, wherein the creeping distance is measured after a 1 kg load is applied thereto at 80°C for 1000 seconds, ΔX being expressed as X 200 - X 50, where X 200 refers to the creeping distance 200 seconds after said 1 kg load has been applied for 1000 seconds, and X 50 refers to the creeping distance 50 seconds after said 1 kg load has been applied for 1000 seconds.
A method for increasing the conversion rate of biodiesel enzymatically prepared from greases, comprising: enzymatically reacting short-chain alcohols with greases by a lipase to prepare biodiesel, circulating the volatile gases produced in the enzyme reactor to enter into an absorption tank containing short chain alcohols to absorb the moisture brought out by the volatile gases, and pumping the dehydrated gases with an air pump into the enzyme reactor via the bottom of the reactor, wherein the enzyme reactor is a multiple stage enzyme reactor, wherein the short-chain alcohols are one or more alcohols selected from methanol, ethanol, propanol, and butanol, and wherein the absorption tank operates at a temperature of 0°C to 20 °C. enzymatically reacting short-chain alcohols with greases by a lipase to prepare biodiesel, circulating the volatile gases produced in the enzyme reactor to enter into an absorption tank containing short chain alcohols to absorb the moisture brought out by the volatile gases, and pumping the dehydrated gases with an air pump into the enzyme reactor via the bottom of the reactor, wherein the enzyme reactor is a multiple stage enzyme reactor, wherein the short-chain alcohols are one or more alcohols selected from methanol, ethanol, propanol, and butanol, and wherein the absorption tank operates at a temperature of 0°C to 20 °C.
. An emulsion production microfluidic device (100,100',100") which comprises: - A first channel (10,10',10"), comprising an entry port configured to inject, into the first channel (10,10',10"), a phase to be dispersed, - A second channel (20,20',20"), comprising an entry port (23',23") configured to inject a continuous phase into this second channel (20,20',20"), and an emulsion exit port (24',24") configured to extract an emulsion from the device (100,100',100"), and - At least one array of microchannels (30,30',30"), arranged side by side, each microchannel (30,30',30") comprising an inlet (33,33') from the first channel (10,10',10"), and an outlet (34,34') to the second channel (20,20',20"), a height hO of each of the microchannels (30,30',30") being smaller than a height h1 of the first channel (10,10',10"), the device being characterized in that the second channel (20,20',20") comprises a first part (21,21',21") connected to the outlet (34,34') of each microchannel (30,30',30") and at least a second part (22,22',22") along the first part (21,21',21"), the first part (21,21',21") being between the array of microchannels (30,30',30") and the second part (22,22',22"), the first part (21,21',21") having a height h2a greater that the height hO of each microchannel (30,30',30"), and the second part (22,22',22") having a height h2b greater than the height h2a of the first part (21,21',21"). - A first channel (10,10',10"), comprising an entry port configured to inject, into the first channel (10,10',10"), a phase to be dispersed, - A second channel (20,20',20"), comprising an entry port (23',23") configured to inject a continuous phase into this second channel (20,20',20"), and an emulsion exit port (24',24") configured to extract an emulsion from the device (100,100',100"), and - At least one array of microchannels (30,30',30"), arranged side by side, each microchannel (30,30',30") comprising an inlet (33,33') from the first channel (10,10',10"), and an outlet (34,34') to the second channel (20,20',20"), a height hO of each of the microchannels (30,30',30") being smaller than a height h1 of the first channel (10,10',10"),
A compound of Formula: or a pharmaceutically acceptable salt thereof, for use in the treatment of chronic spontaneous urticaria in a subject in need of such treatment, wherein the daily dose of compound of Formula is from about 10mg to about 100mg.
A method of manufacturing an electronic device, comprising: mounting a plurality of integrated circuit dies (110, 120, 130, 310, 320) on different areas of a carrier (150, 350); and folding the carrier (150, 350) into a plurality of layers such that the plurality of integrated circuit dies (110, 120, 130, 310, 320) form a stack characterised in that the method further comprises: providing a sheet of substrate material; forming a first gap and a second gap in the sheet of substrate material; applying a sheet of carrier material to the sheet of substrate material extending over and beyond the first and second gaps (170a, 170b); and dividing the sheet of substrate material and the sheet of carrier material along a plane passing through the first and second gaps (170a, 170b), thereby forming the carrier and the substrate, wherein the different areas of the carrier (150, 350) on which integrated circuit dies are mounted comprise a first portion (151, 351) and one or more further portions (153, 155, 353, 355, 357, 359), the first portion being in a region where the sheet of carrier material extends over the substrate, and the one or more further portions (153, 155, 353, 355, 357, 359) being in a region where the sheet of carrier material extends over the first and second gaps (170a, 170b). mounting a plurality of integrated circuit dies (110, 120, 130, 310, 320) on different areas of a carrier (150, 350); and folding the carrier (150, 350) into a plurality of layers such that the plurality of integrated circuit dies (110, 120, 130, 310, 320) form a stack providing a sheet of substrate material; forming a first gap and a second gap in the sheet of substrate material; applying a sheet of carrier material to the sheet of substrate material extending over and beyond the first and second gaps (170a, 170b); and dividing the sheet of substrate material and the sheet of carrier material along a plane passing through the first and second gaps (170a, 170b), thereby forming the carrier and the substrate, wherein the different areas of the carrier (150, 350) on which integrated circuit dies are mounted comprise a first portion (151, 351) and one or more further portions (153, 155, 353, 355, 357, 359), the first portion being in a region where the sheet of carrier material extends over the substrate, and the one or more further portions (153, 155, 353, 355, 357, 359) being in a region where the sheet of carrier material extends over the first and second gaps (170a, 170b).
A surgical end effector, comprising: a first jaw comprising a first proximal jaw end and a first jaw surface; a second jaw comprising a second proximal jaw end and a second jaw surface, said first proximal jaw end and said second proximal jaw end being movably supported relative to each other such that said first jaw surface and said second jaw surface are movable between a fully open position relative to each other and a fully closed position relative to each other wherein tissue may be clamped therebetween; and at least one expandable tissue stop located on one of said first and second jaws and being configured to extend between said first and second jaw surfaces as said first and second jaws move between said fully open and said fully closed positions, wherein each said at least one expandable tissue stop comprises: a lower tissue stop portion; an upper tissue stop portion supported for movable travel relative to said lower tissue stop portion; and characterized in that each said at least one expandable tissue stop comprises a biasing member for biasing said upper and lower tissue stop portions between a fully compressed orientation corresponding to said fully closed position and a fully expanded orientation corresponding to said fully open position. a first jaw comprising a first proximal jaw end and a first jaw surface; a second jaw comprising a second proximal jaw end and a second jaw surface, said first proximal jaw end and said second proximal jaw end being movably supported relative to each other such that said first jaw surface and said second jaw surface are movable between a fully open position relative to each other and a fully closed position relative to each other wherein tissue may be clamped therebetween; and at least one expandable tissue stop located on one of said first and second jaws and being configured to extend between said first and second jaw surfaces as said first and second jaws move between said fully open and said fully closed positions, wherein each said at least one expandable tissue stop comprises: a lower tissue stop portion; an upper tissue stop portion supported for movable travel relative to said lower tissue stop portion; and characterized in that each said at least one expandable tissue stop comprises a biasing member for biasing said upper and a lower tissue stop portion; an upper tissue stop portion supported for movable travel relative to said lower tissue stop portion; and characterized in that each said at least one expandable tissue stop comprises a biasing member for biasing said upper and lower tissue stop portions between a fully compressed orientation corresponding to said fully closed position and a fully expanded orientation corresponding to said fully open position.
Folding wing for a missile guidance system, comprising: a first wing part having a wing leading edge and a first folding joint edge that lies opposite the wing leading edge; a second wing part having a wing trailing edge and a second folding joint edge that lies opposite the wing trailing edge; and a folding hinge that connects the first wing part and the second wing part in a pivotably-jointed manner, said folding hinge comprising a folding axis that is perpendicular with respect to the wing surface of the folding wing, characterised in that the folding hinge is arranged on a wing root of the first and second wing parts (1; 2). a first wing part having a wing leading edge and a first folding joint edge that lies opposite the wing leading edge; a second wing part having a wing trailing edge and a second folding joint edge that lies opposite the wing trailing edge; and a folding hinge that connects the first wing part and the second wing part in a pivotably-jointed manner, said folding hinge comprising a folding axis that is perpendicular with respect to the wing surface of the folding wing, characterised in that the folding hinge is arranged on a wing root of the first and second wing parts (1; 2).
A service packet transmission method, wherein the method is applied to an Ethernet Ring Protection Switching, ERPS, network, wherein at least one ring protection instance is configured for each ERPS ring on the ERPS network, each ring protection instance comprises at least two ring protection sub-instances, each ring protection sub-instance respectively corresponds to one ring protection link, RPL, port, a status of the RPL port is a blocked state, and the method comprises: when receiving a service packet by an ordinary node device, determining, by the ordinary node device according to a preset rule and based on packet header information of the service packet, a ring protection sub-instance corresponding to the service packet, wherein the ordinary node device is a device that does not comprise the RPL port; determining, by the ordinary node device based on a preset correspondence between the ring protection sub-instance and a forwarding path, the forwarding path used for forwarding the service packet (step 202); and forwarding, by the ordinary node device, the service packet based on the forwarding path. when receiving a service packet by an ordinary node device, determining, by the ordinary node device according to a preset rule and based on packet header information of the service packet, a ring protection sub-instance corresponding to the service packet, wherein the ordinary node device is a device that does not comprise the RPL port; determining, by the ordinary node device based on a preset correspondence between the ring protection sub-instance and a forwarding path, the forwarding path used for forwarding the service packet (step 202); and forwarding, by the ordinary node device, the service packet based on the forwarding path.
Method for predicting a block of pixels in an image, the method comprising: - taking N patches (Xi) from a search window within a reconstructed part of the image, each patch comprising a block of pixels X i u and a causal neighborhood X i k around that block of pixels; - determining a mapping (F1, W) of the causal neighborhood of a patch on the block of pixels of said patch by minimizing the prediction error between the blocks of pixels X 1 u of the N patches and the blocks resulting from the mapping of the neighborhoods X 1 k of these patches on the blocks of pixels X 1 u of these patches; - forming a patch (X') with a neighborhood ( X k) around the block of pixels to be predicted and a prediction block X 1 u ̃ obtained by applying the determined mapping (F1, W) on the neighborhood of said patch; - searching in a search window at least one other patch ( X m,p) similar to the formed patch (X'); and - obtaining a final prediction of the block to be predicted from said at least one other patch. - taking N patches (Xi) from a search window within a reconstructed part of the image, each patch comprising a block of pixels X i u and a causal neighborhood X i k around that block of pixels; - determining a mapping (F1, W) of the causal neighborhood of a patch on the block of pixels of said patch by minimizing the prediction error between the blocks of pixels X 1 u of the N patches and the blocks resulting from the mapping of the neighborhoods X 1 k of these patches on the blocks of pixels X 1 u of these patches; - forming a patch (X') with a neighborhood ( X k) around the block of pixels to be predicted and a prediction block X 1 u ̃ obtained by applying the determined mapping (F1, W) on the neighborhood of said patch; - searching in a search window at least one other patch ( X m,p) similar to the formed patch (X'); and - obtaining a final prediction of the block to be predicted from said at least one other patch.
Header for an agricultural harvester comprising a frame adapted to be connected to the agricultural harvester, the frame comprising a floor surface substantially defining the width of the header, wherein an auger is mounted to the frame above the floor surface, the auger being provided to laterally transport crop material towards a central crop-receiving aperture, wherein the header comprises a cutter bar forming the leading edge of the header, the cutter bar being mounted to the frame via a slide so that the cutter bar is moveable between a retracted and an extended position, the header being characterized in that it further comprises a belt conveyor (9a, 9b, 9c, 9d) for transporting crop material from the cutter bar towards the auger, the belt conveyor extending between a first shaft that is mounted to the frame at a predetermined distance from the auger and a second shaft that is mounted to the slide at a predetermined distance from the cutter bar, and in that the belt conveyor (9a, 9b, 9c, 9d) is provided with a belt-length-adapting mechanism so that the length of the belt conveyor (9a, 9b, 9c, 9d) between the first shaft and the second shaft is changeable between a short track corresponding to the retracted position and a long track corresponding to the extended position of the cutter bar.