mhurhangee/patent-ind-claim-en huggingface dataset:
Switching system , in particular of an on-board power system of a motor vehicle, with a first disc having a first fixed contact and a second fixed contact as well as a third fixed contact and a fourth fixed contact , wherein the second and third fixed contact are electrically contacted by means of a first contact rail of the first disk , and with a second disk having a first moving contact and a second moving contact as well as a third moving contact and a fourth moving contact , wherein the first and the second moving contact are electrically contacted by means of a second contact rail of the second disk and the third and the fourth moving contact are electrically contacted by means of a third contact rail of the second disk , and - wherein the second disk is rotatably mounted about an axis of rotation with respect to the first disk , - wherein in an angular position, all contacts are electrically connected in series, - wherein the second disc has a disc body , - wherein the second and third contact rail are positioned on a side of the disc body opposite the first disc , characterized in that the moving contacts are arranged in recesses of the disc body . - wherein the second disk is rotatably mounted about an axis of rotation with respect to the first disk , - wherein in an angular position, all contacts are electrically connected in series, - wherein the second disc has a disc body , - wherein the second and third contact rail are positioned on a side of the disc body opposite the first disc ,
Rubber compound for the preparation of a tread portion of a pneumatic tyre; said rubber compound comprising at least a cross-linkable unsaturated chain polymer base, a filler and a vulcanization system; said rubber compound being characterized in that it comprises a wax composed of at least 50% by weight of nonacosanediols.
A method of processing a glass ribbon comprising: forming a glass ribbon in a first processing zone (A); continuously feeding the glass ribbon from the first processing zone (A) having a first direction of travel to a second processing zone (B) having a second direction of travel orthogonal to the first direction of travel; controlling feed rate of the glass ribbon through each of the first processing zone (A) and second processing zone (B) using a global control device ; cutting the glass ribbon in the second processing zone (B), wherein the step of cutting the glass ribbon in the second processing zone (B) further comprises separating the glass ribbon in a direction orthogonal to the second direction of travel to create a glass sheet; and isolating the first processing zone (A) from perturbations occurring in the second processing zone (B) by supporting the glass ribbon in a first catenary between two spaced-apart payoff positions. forming a glass ribbon in a first processing zone (A); continuously feeding the glass ribbon from the first processing zone (A) having a first direction of travel to a second processing zone (B) having a second direction of travel orthogonal to the first direction of travel; controlling feed rate of the glass ribbon through each of the first processing zone (A) and second processing zone (B) using a global control device ; cutting the glass ribbon in the second processing zone (B), wherein the step of cutting the glass ribbon in the second processing zone (B) further comprises separating the glass ribbon in a direction orthogonal to the second direction of travel to create a glass sheet; and isolating the first processing zone (A) from perturbations occurring in the second processing zone (B) by supporting the glass ribbon in a first catenary between two spaced-apart payoff positions.
Motorised vehicle comprising one or two front wheel and one rear wheel driven by at least one transmission system, a suspension assembly for the rear wheel comprising a suspension system supporting a wheel axle on which the rear wheel is mounted in rotation, the vehicle comprising a frame (F), the transmission system comprising a drive pinion mounted in rotation with respect to the frame (F), a crown gear integral with the rear wheel and a looped flexible linkage such as a chain or a toothed belt linking the pinion and the crown gear , the suspension system being mounted swinging on a pivot around a fulcrum pin whose position on the frame (F) is set by a progressive anti-squat effect adjustment mechanism, wherein the vehicle also comprises a flexible linkage tension mechanism comprising at least one pressure application device pressing on the flexible linkage and thus tautening it according to the direction of the suspension system , the tension mechanism being synchronised with the adjustment mechanism, characterized in that the tension mechanism comprises a lever mounted swivelling at one end on the frame (F) around a pivot pin , a first rocker mounted swivelling on the one hand around a second pin of the lever at the other end opposite the first end and on the other hand on the suspension system by a first extension of the first rocker , the tension mechanism either - also comprising a second extension of the first rocker , on the flexible linkage side , bearing on the rear of the pressure application device , or - bearing the pressure application device, with the pivot pin of the first rocker on the suspension system situated between the pivot pins at the ends of the lever . - also comprising a second extension of the first rocker , on the flexible linkage side , bearing on the rear of the pressure application device , or - bearing the pressure application device, with the pivot pin of the first rocker on the suspension system situated between the pivot pins at the ends of the lever .
A semiconductor transistor, comprising: an epitaxial layer ; a drain formed on the epitaxial layer ; an insulating layer formed on the epitaxial layer and the drain , the insulating layer having a first contact open area on a top surface of the drain and a second contact open area on a top surface of the epitaxial layer ; and a drain field plate , characterised in that the drain field plate includes a first metal plate and a second metal plate , the first metal plate being disposed on a portion of the insulating layer and on the first contact open area to thereby make a direct contact to the drain at the first contact open area , the second metal plate being disposed on a portion of the insulating layer and on the second contact open area to thereby make a direct contact to the epitaxial layer , the first and second metal plates being separated from each other. an epitaxial layer ; a drain formed on the epitaxial layer ; an insulating layer formed on the epitaxial layer and the drain , the insulating layer having a first contact open area on a top surface of the drain and a second contact open area on a top surface of the epitaxial layer ; and a drain field plate , characterised in that the drain field plate includes a first metal plate and a second metal plate , the first metal plate being disposed on a portion of the insulating layer and on the first contact open area to thereby make a direct contact to the drain at the first contact open area , the second metal plate being disposed on a portion of the insulating layer and on the second contact open area to thereby make a direct contact to the epitaxial layer , the first and second metal plates being separated from each other.
A hydrogen generator comprising: an electrolytic cell ; an anion exchange membrane that is configured to divide the electrolytic cell into a cathode chamber and an anode chamber ; a cathode chamber water supply part that is configured to supply water to the cathode chamber; an anode chamber water supply part that is configured to supply water to the anode chamber; a cathode that is provided on a cathode chamber-side surface of the anion exchange membrane; an anode that is provided on an anode chamber-side surface of the anion exchange membrane; a cathode feeder that is arranged within the cathode chamber and is configured to feed power to the cathode; an anode feeder that is arranged within the anode chamber and is configured to feed power to the anode; and an active oxygen reduction material that is arranged within the anode chamber and is configured to reduce active oxygen generated within the anode chamber, characterized in that the hydrogen generator further comprises a pressure adjusting part that makes an internal pressure of the cathode chamber equal to or higher than an internal pressure of the anode chamber. an electrolytic cell ; an anion exchange membrane that is configured to divide the electrolytic cell into a cathode chamber and an anode chamber ; a cathode chamber water supply part that is configured to supply water to the cathode chamber; an anode chamber water supply part that is configured to supply water to the anode chamber; a cathode that is provided on a cathode chamber-side surface of the anion exchange membrane; an anode that is provided on an anode chamber-side surface of the anion exchange membrane; a cathode feeder that is arranged within the cathode chamber and is configured to feed power to the cathode; an anode feeder that is arranged within the anode chamber and is configured to feed power to the anode; and an active oxygen reduction material that is arranged within the anode chamber and is configured to reduce active oxygen generated within the anode chamber, characterized in that the hydrogen generator further comprises a pressure adjusting part that makes an internal pressure of the cathode chamber equal to or higher than an internal pressure of the anode chamber.
A turbomachine air and fuel injection system comprising: - an injector comprising a pipe and an injection nose housed inside said pipe 23) extending from upstream to downstream along a longitudinal axis (AA'); - a mixing device comprising a bowl comprising an annular inlet , forming the inlet of the mixing device, from which extends a downstream flared conical portion , said mixing device being housed downstream of the injection nose ; the injector comprising an air injection ring extending from the pipe and from which extends a connecting ring comprising a diverging portion , said ring being disposed externally around the annular mixing device inlet , wherein the mixing device inlet comprises an external surface , the injection system being characterised in that the connection ring of the injector is in contact with the inlet of the mixing device via the external surface so as to allow relative movements of the injector with respect to the mixing device . - an injector comprising a pipe and an injection nose housed inside said pipe 23) extending from upstream to downstream along a longitudinal axis (AA'); - a mixing device comprising a bowl comprising an annular inlet , forming the inlet of the mixing device, from which extends a downstream flared conical portion , said mixing device being housed downstream of the injection nose ;
A method for forming a tube for storing a product , comprising: forming a tube wall laminate structure using a method comprising: forming a barrier laminate as a barrier structure, wherein the barrier laminate comprises a first polyethylene (PE) layer , a barrier layer attached to the first PE layer with a first adhesive layer , and a second PE layer attached to the barrier laminate with a second adhesive layer ; attaching the barrier laminate to a metallized laminate, wherein the metallized laminate comprises a light-reflective metal layer and an inner plastic layer; and attaching the metallized laminate to a hologram layer using a transparent or translucent PE outer film , wherein the PE outer film is interposed between the hologram layer and the metallized laminate, wherein the metallized laminate is attached to the hologram layer using a process that occurs at a temperature of 38°C or less. forming a barrier laminate as a barrier structure, wherein the barrier laminate comprises a first polyethylene (PE) layer , a barrier layer attached to the first PE layer with a first adhesive layer , and a second PE layer attached to the barrier laminate with a second adhesive layer ; attaching the barrier laminate to a metallized laminate, wherein the metallized laminate comprises a light-reflective metal layer and an inner plastic layer; and attaching the metallized laminate to a hologram layer using a transparent or translucent PE outer film , wherein the PE outer film is interposed between the hologram layer and the metallized laminate, wherein the metallized laminate is attached to the hologram layer using a process that occurs at a temperature of 38°C or less.
A device for producing a first and a second rod of the tobacco processing industry, wherein the device has a first bobbin device and a second bobbin device , as well as a first rod-shaping device and a second rod-shaping device , and wherein the rods each have at least two layers of a wound flat material , wherein, in a first operating mode of the device, the flat material for the first rod can be extracted from the first bobbin device and can be conveyed via a first material run to the first rod-shaping device and the flat material for the second rod can be extracted from the second bobbin device and can be conveyed via a second material run to the second rod-shaping device , wherein, in a second operating mode of the device, the flat material for the first rod can be extracted from the first and the second bobbin device and can be conveyed via a third material run to the first rod-shaping device and the flat material for the second rod can be extracted from the first and the second bobbin device and can be conveyed via a fourth material run to the second rod-shaping device .
A primer coating composition comprising: an aqueous polyolefin-based resin (A); an aqueous epoxy resin (B); a hydrophilicized-modified carbodiimide compound (C); and an aqueous polyurethane resin (D), wherein the aqueous polyolefin-based resin (A) includes an aqueous polypropylene-based resin having a weight-average molecular weight of 50,000 to 200,000, the hydrophilicized-modified carbodiimide compound (C) is a compound represented by a formula (I), (II) or (III) below: [Chemical Formula 1] YOCONH-X-NHCOO-Z-OCONH-X-NHCOOY ··· (I) wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, and 2 is a structure resulting from elimination of a hydroxyl group from a bifunctional polyol having a number-average molecular weight of 200 to 5,000, wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, R 0 is hydrogen, a methyl group or an ethyl group, R 1 is an alkylene group having 4 or less carbon atoms, n is 0 or 1, and m is 0 to 60, [Chemical Formula 3] YOCONH-X-NHCOOY ··· (III) wherein X is a bifunctional organic group having at least one carbodiimide group, and Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether. an aqueous polyolefin-based resin (A); an aqueous epoxy resin (B); a hydrophilicized-modified carbodiimide compound (C); and an aqueous polyurethane resin (D), wherein the aqueous polyolefin-based resin (A) includes an aqueous polypropylene-based resin having a weight-average molecular weight of 50,000 to 200,000, the hydrophilicized-modified carbodiimide compound (C) is a compound represented by a formula (I), (II) or (III) below: [Chemical Formula 1] YOCONH-X-NHCOO-Z-OCONH-X-NHCOOY ··· (I) wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, and 2 is a structure resulting from elimination of a hydroxyl group from a bifunctional polyol having a number-average molecular weight of 200 to 5,000, wherein Xs are each a bifunctional organic group having at least one carbodiimide group, Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether, R 0 is hydrogen, a methyl group or an ethyl group, R 1 is an alkylene group having 4 or less carbon atoms, n is 0 or 1, and m is 0 to 60, [Chemical Formula 3] YOCONH-X-NHCOOY ··· (III) wherein X is a bifunctional organic group having at least one carbodiimide group, and Ys are identical or different structures each resulting from elimination of a hydroxyl group from a polyalkylene glycol monoalkyl ether.
A particle sorting module comprising: an enclosed housing comprising a proximal end and a distal end and a wall therebetween, the wall comprising an aligner for aligning the housing with a particle sorting system; a flow cell nozzle positioned at the proximal end of the housing, the flow cell nozzle comprising an orifice; a sample interrogation region in fluid communication with the flow cell nozzle orifice; and a droplet deflector positioned downstream of the sample interrogation region, wherein the flow cell nozzle, the sample interrogation region, and the droplet deflector are fully contained in the housing, such that the components contained within the housing are sealed off from the ambient environment. an enclosed housing comprising a proximal end and a distal end and a wall therebetween, the wall comprising an aligner for aligning the housing with a particle sorting system; a flow cell nozzle positioned at the proximal end of the housing, the flow cell nozzle comprising an orifice; a sample interrogation region in fluid communication with the flow cell nozzle orifice; and a droplet deflector positioned downstream of the sample interrogation region, wherein the flow cell nozzle, the sample interrogation region, and the droplet deflector are fully contained in the housing, such that the components contained within the housing are sealed off from the ambient environment.
A composition for use in a method of treating a mammalian subject for intracellular pathogen infection, wherein the pathogen is a retrovirus, the method comprising: administering to the subject an anti-CD47 agent that reduces the binding of CD47 on an infected cell to SIRPα on a phagocytic cell, at an effective dose for increasing the phagocytosis of the infected cell, wherein the anti-CD47 agent is: (a) an anti-CD47 antibody, (b) an anti-SIRPα antibody that does not stimulate signaling through SIRPα, (c) a SIRPα-derived polypeptide that specifically binds to CD47, or (d) a soluble CD47 polypeptide that specifically binds to SIRPα and does not stimulate signaling through SIRPα. (a) an anti-CD47 antibody, (b) an anti-SIRPα antibody that does not stimulate signaling through SIRPα, (c) a SIRPα-derived polypeptide that specifically binds to CD47, or (d) a soluble CD47 polypeptide that specifically binds to SIRPα and does not stimulate signaling through SIRPα.
A method of treating municipal and/or industrial sludge comprising the steps of: a) providing the sludge, which has a pH of at least 6; b) adding a catalyst consisting of a metal salt of copper(II) to said sludge; c) adding a radical initiator in the form of sodium persulfate to said sludge; d) adding a polymer to said sludge to provide a chemically treated sludge; e) dewatering said chemically treated sludge in at least one stage to provide a dewatered sludge cake, wherein step c) is performed before step b). a) providing the sludge, which has a pH of at least 6; b) adding a catalyst consisting of a metal salt of copper(II) to said sludge; c) adding a radical initiator in the form of sodium persulfate to said sludge; d) adding a polymer to said sludge to provide a chemically treated sludge; e) dewatering said chemically treated sludge in at least one stage to provide a dewatered sludge cake,
A specimen liquid sensor apparatus comprising: a reader ; and a specimen liquid sensor configured to be detachably attached to the reader , the reader comprising a control unit , the specimen liquid sensor comprising: a base ; and a sensor chip located on an upper surface of the base , wherein the sensor chip comprises a piezoelectric substrate located on the upper surface of the base , and a plurality of SAW elements located in a flow direction of the specimen liquid on the upper surface of the piezoelectric substrate , and wherein each of the plurality of SAW elements comprises a sensitive part for sensing a property of the specimen liquid, characterized in that the control unit is configured to set the data reading interval t of the SAW elements such that L > t · V, where L is the distance between two SAW elements of the plurality of SAW elements and V denotes the flow rate of the specimen liquid, wherein the sensitive parts of the said two SAW elements are different from each other in that one SAW element of the two SAW elements further comprises a specific bonding substance configured to bond with a detection target included in the specimen liquid, and the other SAW element does not comprise the specific bonding substance. a reader ; and a specimen liquid sensor configured to be detachably attached to the reader , the reader comprising a control unit , the specimen liquid sensor comprising: a base ; and a sensor chip located on an upper surface of the base , a base ; and a sensor chip located on an upper surface of the base , wherein the sensor chip comprises a piezoelectric substrate located on the upper surface of the base , and a plurality of SAW elements located in a flow direction of the specimen liquid on the upper surface of the piezoelectric substrate , and a piezoelectric substrate located on the upper surface of the base , and a plurality of SAW elements located in a flow direction of the specimen liquid on the upper surface of the piezoelectric substrate , and wherein each of the plurality of SAW elements comprises a sensitive part for sensing a property of the specimen liquid, characterized in that the control unit is configured to set the data reading interval t of the SAW elements such that L > t · V, where L is the distance between two SAW elements of the plurality of SAW elements and V denotes the flow rate of the specimen liquid, wherein the sensitive parts of the said two SAW elements are different from each other in that one SAW element of the two SAW elements further comprises a specific bonding substance configured to bond with a detection target included in the specimen liquid, and the other SAW element does not comprise the specific bonding substance.