mhurhangee/patent-ind-claim-en huggingface dataset:
An air vent for an automobile, the air vent comprising: a duct housing configured to guide a flow of air and having an outlet formed therein; a first wing and a second wing disposed to be spaced apart from each other inside the duct housing ; a link configured to control a rotation of each of the first wing and the second wing ; and a handle unit coupled to the link and configured to control a movement of the link , wherein the link is disposed to be movable and rotatable, inside the first wing , wherein the link includes: a first link body disposed inside the first wing and disposed to be movable in a first direction that is a left-right direction; and a second link body extending toward the second wing from the first link body , characterized in that the link further includes a first rotating shaft protruding from an end portion of the first link body in the first direction, and the first link body rotates about the first rotating shaft in conjunction with a rotation of the handle unit about the first direction. a duct housing configured to guide a flow of air and having an outlet formed therein; a first wing and a second wing disposed to be spaced apart from each other inside the duct housing ; a link configured to control a rotation of each of the first wing and the second wing ; and a handle unit coupled to the link and configured to control a movement of the link , wherein the link is disposed to be movable and rotatable, inside the first wing , wherein the link includes: a first link body disposed inside the first wing and disposed to be movable in a first direction that is a left-right direction; and a second link body extending toward the second wing from the first link body , characterized in that the link further includes a first rotating shaft protruding from an end portion of the first link body in the first direction, and the first link body rotates about the first rotating shaft in conjunction with a rotation of the handle unit about the first direction. a first link body disposed inside the first wing and disposed to be movable in a first direction that is a left-right direction; and a second link body extending toward the second wing from the first link body , characterized in that the link further includes a first rotating shaft protruding from an end portion of the first link body in the first direction, and the first link body rotates about the first rotating shaft in conjunction with a rotation of the handle unit about the first direction.
A display panel (DP), comprising: a base layer (BL) including a first region (NBA) and a second region (BA) that is bent with respect to the first region; at least one inorganic layer (BRL, BFL) overlapping both the first region (NBA)and the second region (BA), and disposed on the base layer (BL); a first opening (GV-1) formed within the at least one inorganic layer (BRL, BFL) and overlapping the second region (BA); a first thin-film transistor (T1) disposed on the at least one inorganic layer (BRL, BFL) and including a silicon semiconductor pattern (OSP1) overlapping the first region (NBA); a second thin-film transistor (T2) disposed on the at least one inorganic layer (BRL, BFL) and including an oxide semiconductor pattern (OSP2) overlapping the first region (NBA); a plurality of insulating layers disposed on the at least one inorganic layer (BRL, BFL), the plurality of insulating layers overlapping both the first region (NBA) and the second region (BA); a second opening (GV-2) formed within the plurality of insulating layers and overlapping the first opening (GV-1); a signal line (SGL) electrically connected to the second thin-film transistor (T2); an organic layer overlapping both the first region (NBA) and the second region (BA) and disposed in both the first opening (GV-1) and the second opening (GV-2); a luminescent device (OLED) disposed on the organic layer and overlapping the first region (NBA), and the organic layer overlaps the first thin-film transistor (T1), the second thin-film transistor (T2), and the luminescent device (OLED). a base layer (BL) including a first region (NBA) and a second region (BA) that is bent with respect to the first region; at least one inorganic layer (BRL, BFL) overlapping both the first region (NBA)and the second region (BA), and disposed on the base layer (BL); a first opening (GV-1) formed within the at least one inorganic layer (BRL, BFL) and overlapping the second region (BA); a first thin-film transistor (T1) disposed on the at least one inorganic layer (BRL, BFL) and including a silicon semiconductor pattern (OSP1) overlapping the first region (NBA); a second thin-film transistor (T2) disposed on the at least one inorganic layer (BRL, BFL) and including an oxide semiconductor pattern (OSP2) overlapping the first region (NBA); a plurality of insulating layers disposed on the at least one inorganic layer (BRL, BFL), the plurality of insulating layers overlapping both the first region (NBA) and the second region (BA); a second opening (GV-2) formed within the plurality of insulating layers and overlapping the first opening (GV-1); a signal line (SGL) electrically connected to the second thin-film transistor (T2); an organic layer overlapping both the first region (NBA) and the second region (BA) and disposed in both the first opening (GV-1) and the second opening (GV-2); a luminescent device (OLED) disposed on the organic layer and overlapping the first region (NBA), and the organic layer overlaps the first thin-film transistor (T1), the second thin-film transistor (T2), and the luminescent device (OLED).
An all-optical network comprising: a first network ; a second network ; and a passive wavelength cross-connect, PWXC, coupling the first network to the second network and comprising passive optical components; wherein the PWXC comprises: a first input port ; a first output port that is physically opposite from the first input port ; a second input port ; and a second output port that is physically opposite from the second input port ; characterized in that the PWXC is configured to: direct even-numbered wavelength channels from the first input port to the first output port and from the second input port to the second output port , and direct odd-numbered wavelength channels from the first input port to the second output port and from the second input port to the first output port . a first network ; a second network ; and a passive wavelength cross-connect, PWXC, coupling the first network to the second network and comprising passive optical components; wherein the PWXC comprises: a first input port ; a first output port that is physically opposite from the first input port ; a second input port ; and a second output port that is physically opposite from the second input port ; a first input port ; a first output port that is physically opposite from the first input port ; a second input port ; and a second output port that is physically opposite from the second input port ; characterized in that the PWXC is configured to: direct even-numbered wavelength channels from the first input port to the first output port and from the second input port to the second output port , and direct odd-numbered wavelength channels from the first input port to the second output port and from the second input port to the first output port . direct even-numbered wavelength channels from the first input port to the first output port and from the second input port to the second output port , and direct odd-numbered wavelength channels from the first input port to the second output port and from the second input port to the first output port .
A method of making an enzyme membrane for a working electrode of a continuous biological monitor, comprising: making an aqueous polyurethane emulsion ; making an acrylic polyol emulsion; mixing the polyurethane emulsion and the acrylic polyol emulsion to make a base emulsion ; adding an enzyme to the base emulsion to create an enzyme/base emulsion dispersion , the enzyme selected according to the biological function to be monitored; applying the enzyme/base emulsion dispersion to the working electrode ; and curing the applied enzyme/base emulsion dispersion . making an aqueous polyurethane emulsion ; making an acrylic polyol emulsion; mixing the polyurethane emulsion and the acrylic polyol emulsion to make a base emulsion ; adding an enzyme to the base emulsion to create an enzyme/base emulsion dispersion , the enzyme selected according to the biological function to be monitored; applying the enzyme/base emulsion dispersion to the working electrode ; and curing the applied enzyme/base emulsion dispersion .
An article of footwear comprising: an outsole comprising a first telescoping outsole member centered at a first center position , the first telescoping outsole member including a first piece and a second piece ; a midsole comprising a protrusion structure corresponding to the first telescoping outsole member , the protrusion structure extending outward in a vertical direction from a base of the midsole , wherein the vertical direction is approximately normal to the base , the base being an outer surface of the midsole ; wherein the first piece is attached to the protrusion structure and wherein the first piece is centered at the first center position ; wherein the second piece is attached to the protrusion structure and wherein the second piece is centered at the first center position ; wherein the first piece is spaced from the base by a first vertical distance , the first vertical distance being a distance in the vertical direction ; wherein the second piece is spaced from the base by a second vertical distance , the second vertical distance being a distance in the vertical direction ; wherein the first vertical distance is greater than the second vertical distance ; and wherein the first piece is separated from the second piece by a vertical gap extending through the outsole along a side surface of the midsole . an outsole comprising a first telescoping outsole member centered at a first center position , the first telescoping outsole member including a first piece and a second piece ; a midsole comprising a protrusion structure corresponding to the first telescoping outsole member , the protrusion structure extending outward in a vertical direction from a base of the midsole , wherein the vertical direction is approximately normal to the base , the base being an outer surface of the midsole ; wherein the first piece is attached to the protrusion structure and wherein the first piece is centered at the first center position ; wherein the second piece is attached to the protrusion structure and wherein the second piece is centered at the first center position ; wherein the first piece is spaced from the base by a first vertical distance , the first vertical distance being a distance in the vertical direction ; wherein the second piece is spaced from the base by a second vertical distance , the second vertical distance being a distance in the vertical direction ; wherein the first vertical distance is greater than the second vertical distance ; and wherein the first piece is separated from the second piece by a vertical gap extending through the outsole along a side surface of the midsole .
A semiconductor device, comprising: a substrate ; a semiconductor layer disposed on the substrate; a first protective film disposed on the semiconductor layer; a first adhesive layer disposed on the first protective film, and formed of a single layer of Ti, TiN, Ta, or TaN or a laminate of a combination thereof; an electrode pad disposed on the first protective film and in contact with side surfaces and part of an upper surface of the first adhesive layer; a second protective film disposed to cover and be in contact with the electrode pad and the first adhesive layer; and a first opening formed in part of the second protective film such that an upper surface of the electrode pad is exposed, characterized in that in a plan view, the first adhesive layer includes a first projection projecting from the electrode pad and continuously surrounding the electrode pad, and the second protective film is continuously disposed to cover and be in contact with a peripheral portion of the upper surface and part of side surfaces of the electrode pad, an upper surface and side surfaces of the first projection, and the first protective film. a substrate ; a semiconductor layer disposed on the substrate; a first protective film disposed on the semiconductor layer; a first adhesive layer disposed on the first protective film, and formed of a single layer of Ti, TiN, Ta, or TaN or a laminate of a combination thereof; an electrode pad disposed on the first protective film and in contact with side surfaces and part of an upper surface of the first adhesive layer; a second protective film disposed to cover and be in contact with the electrode pad and the first adhesive layer; and a first opening formed in part of the second protective film such that an upper surface of the electrode pad is exposed, characterized in that in a plan view, the first adhesive layer includes a first projection projecting from the electrode pad and continuously surrounding the electrode pad, and the second protective film is continuously disposed to cover and be in contact with a peripheral portion of the upper surface and part of side surfaces of the electrode pad, an upper surface and side surfaces of the first projection, and the first protective film.
An abrasion resistant steel plate exhibiting a Charpy absorbed energy at -40°C of not less than 27 J and consisting of, by mass%, C: 0.10 to less than 0.20%, Si: 0.05 to 0.5%, Mn: 0.5 to 1.5%, Cr: 0.05 to 1.20%, Nb: 0.01 to 0.08%, B: 0.0005 to 0.003%, A1: 0.01 to 0.08%, N: 0.0005 to 0.008%, P: not more than 0.05%, S: not more than 0.005% and O: not more than 0.008%, and optionally one or two or more of Mo: not more than 0.8%, V: not more than 0.2% and Ti: not more than 0.05%, and optionally one or two or more of Nd: not more than 1%, Cu: not more than 1%, Ni: not more than 1%, W: not more than 1%, Ca: not more than 0.005%, Mg: not more than 0.005% and remaining REM: not more than 0.02%, the balance being Fe and inevitable impurities, wherein the contents of Nb, Ti, Al and V satisfy 0.03 ≤ Nb + Ti + Al + V ≤ 0.14 wherein Nb, Ti, Al and V indicate the contents (mass%) of the respective elements and are 0 when Nb, Ti, Al and V are not added, the steel plate including fine precipitates 50 nm or less in diameter with a density of 50 or more particles per 100 μm 2 , the steel plate having a lath martensitic structure from the surface of the steel plate to at least a depth of 1/4 of the plate thickness, the lath martensitic structure having an average grain size of not more than 20 μm wherein the average grain size is the average grain size of crystal grains surrounded by high-angle grain boundaries having an orientation difference of 15° or more, the steel plate having a Brinell hardness HBW10/3000 of 361 or more.
An electric power system comprising: a power input configured to receive input power; a power output configured to couple to an electric utility grid and to provide output power to the electric utility grid; power conversion circuitry coupled to the power input and the power output and configured to convert the input power into the output power; and island detection circuitry coupled to the power output and the power conversion circuitry, the island detection circuitry configured to: inject a perturbation current at the power output based upon a perturbation current signal; receive a voltage signal from the power output; cross-correlate the perturbation current signal with the voltage signal to provide a cross-correlation signal; and determine an island condition based upon the cross-correlation signal; wherein determining an island condition based upon the cross-correlation signal includes comparing the cross-correlation signal to a threshold value; and wherein the island detection circuitry is further configured to adjust the threshold value based on previous values of the cross-correlation signal. a power input configured to receive input power; a power output configured to couple to an electric utility grid and to provide output power to the electric utility grid; power conversion circuitry coupled to the power input and the power output and configured to convert the input power into the output power; and island detection circuitry coupled to the power output and the power conversion circuitry, the island detection circuitry configured to: inject a perturbation current at the power output based upon a perturbation current signal; receive a voltage signal from the power output; cross-correlate the perturbation current signal with the voltage signal to provide a cross-correlation signal; and determine an island condition based upon the cross-correlation signal; wherein determining an island condition based upon the cross-correlation signal includes comparing the cross-correlation signal to a threshold value; and wherein the island detection circuitry is further configured to adjust the threshold value based on previous values of the cross-correlation signal. inject a perturbation current at the power output based upon a perturbation current signal; receive a voltage signal from the power output; cross-correlate the perturbation current signal with the voltage signal to provide a cross-correlation signal; and determine an island condition based upon the cross-correlation signal; wherein determining an island condition based upon the cross-correlation signal includes comparing the cross-correlation signal to a threshold value; and wherein the island detection circuitry is further configured to adjust the threshold value based on previous values of the cross-correlation signal.
A method for producing a variable heavy (VH) domain that binds specifically to a target antigen, the method comprising: a) providing a library, preferably a nucleic acid display library, of chimeric, unpaired VH domains wherein diversity lies in the FR1-FR3 regions, wherein the FR1-FR3 region sequences of said domains are human sequences, and wherein each member of the library comprises the CDR3 region sequence from the VH domain of a reference antibody, preferably a rodent, lagomorph, avian, camelid, shark, or human antibody, that binds specifically to the target antigen; b) optionally introducing, preferably by random mutagenesis, additional amino acid sequence diversity into the library of step (a); c) contacting the library with the antigen; d) selecting from the library at least one chimeric, unpaired VH that binds specifically to the target antigen, thereby producing a VH domain that binds specifically to the target antigen; and e) optionally introducing, preferably by random mutagenesis, additional amino acid sequence diversity into the VH domain(s) selected in step (d). a) providing a library, preferably a nucleic acid display library, of chimeric, unpaired VH domains wherein diversity lies in the FR1-FR3 regions, wherein the FR1-FR3 region sequences of said domains are human sequences, and wherein each member of the library comprises the CDR3 region sequence from the VH domain of a reference antibody, preferably a rodent, lagomorph, avian, camelid, shark, or human antibody, that binds specifically to the target antigen; b) optionally introducing, preferably by random mutagenesis, additional amino acid sequence diversity into the library of step (a); c) contacting the library with the antigen; d) selecting from the library at least one chimeric, unpaired VH that binds specifically to the target antigen, thereby producing a VH domain that binds specifically to the target antigen; and e) optionally introducing, preferably by random mutagenesis, additional amino acid sequence diversity into the VH domain(s) selected in step (d).
A connection mechanism for a wellbore transport assembly tool comprising first and second components which can be selectively coupled together, the first component comprising a locking member said locking member comprising first and second elongate rods which are axially aligned and connected together via a spring , said spring being moveable between a rest state wherein the first and second elongate rods are held apart and an energised state in which the spring is compressed and the first and second elongate rods are drawn together, the second component comprising a cam surface for initially moving the spring from the rest state to the energised state as the first and second components are initially brought together and a groove into which the locking member can move to return the spring to the rest state once the first and second components are fully engaged together thereby preventing disengagement of the first and second components.
A sheet for an absorbent article, comprising a nonwoven fabric containing cellulose-based fibers in an amount of more than 90% by mass, the nonwoven fabric being formed by entangling fibers, wherein the nonwoven fabric includes a plurality of first entanglement portions spaced apart from each other and a plurality of second entanglement portions spaced apart from each other, each of the first entanglement portions has a regular pattern formed by a plurality of regions having a high fiber density, hereinafter referred to as "high-density regions", and a plurality of regions having a low fiber density, hereinafter referred to as "low-density regions", the regular pattern having substantially identical low-density regions arranged in a staggered or lattice manner, each of the first entanglement portions extends along a longitudinal direction or a lateral direction of the nonwoven fabric, each of the second entanglement portions extends along the longitudinal direction or the lateral direction of the nonwoven fabric, the first entanglement portions and the second entanglement portions are alternately arranged, a combined area of the first entanglement portions is 20% or more of the entire area of the nonwoven fabric, a basis weight of the nonwoven fabric is more than 30 g/m 2 , and a fluff falling amount in the Fluff Falling Amount Measurement Test, as described in the description, is 1.0 mg or less. wherein the nonwoven fabric includes a plurality of first entanglement portions spaced apart from each other and a plurality of second entanglement portions spaced apart from each other, each of the first entanglement portions has a regular pattern formed by a plurality of regions having a high fiber density, hereinafter referred to as "high-density regions", and a plurality of regions having a low fiber density, hereinafter referred to as "low-density regions", the regular pattern having substantially identical low-density regions arranged in a staggered or lattice manner, each of the first entanglement portions extends along a longitudinal direction or a lateral direction of the nonwoven fabric, each of the second entanglement portions extends along the longitudinal direction or the lateral direction of the nonwoven fabric, the first entanglement portions and the second entanglement portions are alternately arranged, a combined area of the first entanglement portions is 20% or more of the entire area of the nonwoven fabric, a basis weight of the nonwoven fabric is more than 30 g/m 2 , and a fluff falling amount in the Fluff Falling Amount Measurement Test, as described in the description, is 1.0 mg or less.