mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a pneumatic tire having an inner liner on an inner side of the tire, molding of a green tire comprising: (a) an assembly step of bonding the inner liner and an unvulcanized rubber sheet , wherein said inner layer has a width larger than that of said unvulcanized rubber sheet , with end portions of said inner liner and the unvulcanized rubber sheet in a width direction being displaced from each other by 50 mm to 500 mm in the width direction such that both end portions of said unvulcanized rubber sheet in the width direction are located on an inner side of both end portions of said inner liner in the width direction to manufacture a laminate ; (b) a cutting step of cutting said laminate to have a constant length corresponding to a width of a drum to manufacture a cut sheet ; and (c) a joining step of winding said cut sheet on entire circumference of the drum such that a cut surface thereof extends in a circumferential direction of the drum and the inner liner is disposed on an inner surface side, and joining said cut sheet such that the both end portions of said inner liner in the width direction overlap each other, wherein the both end portions of the unvulcanized rubber sheet in the width direction are joined using an unvulcanized rubber piece, said inner liner being composed of a composite layer of a first layer (PL1) disposed on the inner side of the tire and a second layer (PL2) disposed in contact with said unvulcanized rubber sheet , at least one of said first layer (PL1) and said second layer (PL2) being made of an elastomer composition containing an isobutylene-based modified copolymer which is made of a polymer block (A) mainly composed of isobutylene and a polymer block (B) mainly composed of an aromatic vinyl-based compound, and in which at least one of the blocks contains β-pinene. (a) an assembly step of bonding the inner liner and an unvulcanized rubber sheet , wherein said inner layer has a width larger than that of said unvulcanized rubber sheet , with end portions of said inner liner and the unvulcanized rubber sheet in a width direction being displaced from each other by 50 mm to 500 mm in the width direction such that both end portions of said unvulcanized rubber sheet in the width direction are located on an inner side of both end portions of said inner liner in the width direction to manufacture a laminate ; (b) a cutting step of cutting said laminate to have a constant length corresponding to a width of a drum to manufacture a cut sheet ; and (c) a joining step of winding said cut sheet on entire circumference of the drum such that a cut surface thereof extends in a circumferential direction of the drum and the inner liner is disposed on an inner surface side, and joining said cut sheet such that the both end portions of said inner liner in the width direction overlap each other, wherein the both end portions of the unvulcanized rubber sheet in the width direction are joined using an unvulcanized rubber piece,
A compound of Compound 2, 3, or 4, or a pharmaceutically acceptable salt thereof,
System for encapsulating an object such as an electronic or electrochemical component such as a battery, characterised in that it is formed by three successive layers comprising: (i) a pretreatment layer, namely a polymeric layer, preferably a pretreatment layer comprising parylene and/or polyimide, more preferably comprising parylene N, which covers said object, (ii) a first covering layer composed of an electrically insulating material deposited by atomic layer deposition, deposited on said pretreatment layer, said electrically insulating material being, preferably selected from Al 2 O 3 , SiO 2 , SiO y N x , (iii) a second covering layer comprising parylene and/or polyimide, disposed on the first covering layer, said second covering layer comprising, preferably, parylene N, (iv) a third covering layer deposited on the second covering layer in such a way as to protect the second encapsulation layer, namely, with respect to oxygen, and to increase the service life of the object. (i) a pretreatment layer, namely a polymeric layer, preferably a pretreatment layer comprising parylene and/or polyimide, more preferably comprising parylene N, which covers said object, (ii) a first covering layer composed of an electrically insulating material deposited by atomic layer deposition, deposited on said pretreatment layer, said electrically insulating material being, preferably selected from Al 2 O 3 , SiO 2 , SiO y N x , (iii) a second covering layer comprising parylene and/or polyimide, disposed on the first covering layer, said second covering layer comprising, preferably, parylene N, (iv) a third covering layer deposited on the second covering layer in such a way as to protect the second encapsulation layer, namely, with respect to oxygen, and to increase the service life of the object.
An oil gel composition comprising: 80 to 93 wt.% oil; between 7 to 20 wt. % of a selectively hydrogenated styrenic diblock copolymer consisting essentially of an A block and a B block and having a formula A-B, where the A block comprises polymerized monoalkenyl arene units or a combination of polymerized monoalkenyl arene units and diene units, wherein before hydrogenation the B block is a polydiene copolymer comprising a mixture of conjugated butadiene and isoprene at a ratio of butadiene and isoprene from 2:98 to 98:2, wherein the selectively hydrogenated styrenic block copolymer has a polystyrene equivalent peak molecular weight from 80 kg/mol to 150 kg/mol, and a polystyrene content from 15% to 40%; and up to 10 wt. % of optional additives; and wherein the oil gel composition is characterized by : a drop point from 100 to 250°C measured according to ASTM D 566, oil separation at 100°C of from 0% to 2% measured according to ASTM 6184, FED 321.3, and a ratio of viscosity measured at 25°C at 10/s shear rate to viscosity measured at 100°C at 10/s shear rate ranging from 4:1 to 20:1. 80 to 93 wt.% oil; between 7 to 20 wt. % of a selectively hydrogenated styrenic diblock copolymer consisting essentially of an A block and a B block and having a formula A-B, where the A block comprises polymerized monoalkenyl arene units or a combination of polymerized monoalkenyl arene units and diene units, wherein before hydrogenation the B block is a polydiene copolymer comprising a mixture of conjugated butadiene and isoprene at a ratio of butadiene and isoprene from 2:98 to 98:2, wherein the selectively hydrogenated styrenic block copolymer has a polystyrene equivalent peak molecular weight from 80 kg/mol to 150 kg/mol, and a polystyrene content from 15% to 40%; and where the A block comprises polymerized monoalkenyl arene units or a combination of polymerized monoalkenyl arene units and diene units, wherein before hydrogenation the B block is a polydiene copolymer comprising a mixture of conjugated butadiene and isoprene at a ratio of butadiene and isoprene from 2:98 to 98:2, wherein the selectively hydrogenated styrenic block copolymer has a polystyrene equivalent peak molecular weight from 80 kg/mol to 150 kg/mol, and a polystyrene content from 15% to 40%; and up to 10 wt. % of optional additives; and wherein the oil gel composition is characterized by : a drop point from 100 to 250°C measured according to ASTM D 566, oil separation at 100°C of from 0% to 2% measured according to ASTM 6184, FED 321.3, and a ratio of viscosity measured at 25°C at 10/s shear rate to viscosity measured at 100°C at 10/s shear rate ranging from 4:1 to 20:1. a drop point from 100 to 250°C measured according to ASTM D 566, oil separation at 100°C of from 0% to 2% measured according to ASTM 6184, FED 321.3, and a ratio of viscosity measured at 25°C at 10/s shear rate to viscosity measured at 100°C at 10/s shear rate ranging from 4:1 to 20:1.
Printed circuit made of one flat substrate in a rigid or flexible solid material, substrate having at least one first side suitable for the application of the connection network and for the assembly of components, one or more through holes made in said substrate , at least one of said holes comprising a first section suited to house at least part of at least one lighting body mounted on said first side and facing towards the opposite side or emissive side of said substrate , and wherein at least one lighting body of the LED type is housed in said section of at least one of said holes , and wherein said at least one hole housing said lighting body is countersunk towards said emissive side or in any case shaped in such a way that the opening of said hole in said emissive side is larger than said first section housing said lighting body , and wherein each one of said holes housing a lighting body comprises: • said first section obtained on said first side and having shape and height, said first section substantially housing the entirety of the lighting body ; • at least one second section obtained on said emissive side and communicating with said first section , wherein said second section in plan view is larger than said first section , and wherein said second section serves as a diffuser for the light emitted by the lighting body housed in the hole itself. • said first section obtained on said first side and having shape and height, said first section substantially housing the entirety of the lighting body ; • at least one second section obtained on said emissive side and communicating with said first section , wherein said second section in plan view is larger than said first section ,
Window or door having a fixed frame composed of fixed frame profiles (201 - 204) which are connected to one another at corners and having a sash which is movable relative to the fixed frame and which has a sash frame composed of sash frame profiles (302 - 305) which are connected to one another at corners, and having a panel element which is fastened to the sash frame, wherein a rabbet space (F) is formed between the fixed frame and the sash frame in the closed state of the sash , and wherein at least each sash frame profile has a main profile and an insulating profile fixed thereto or formed thereon, wherein a respective corner glass support is arranged in one or more, in particular all, of the corners of the sash frame , said corner glass support having two legs which extend at an angle to one another, in particular at a right angle to one another, and which are connected to one another in a corner region , one or both legs having a fastening portion for fixing to a respective one of the respective main profiles of the sash frame profiles that butt against one another at the corners, and wherein both legs have a supporting portion for resting on a respective one of the insulating profiles of the sash frame profiles that butt against one another at the corners, characterized in that at least the supporting portions of both legs of the at least one corner glass support are fully or partially inserted into a respective depression, in particular into a receiving chamber , of the respective insulating profile .
Angle detection device for a fuel fill level detection device, where the angle detection device has: a support ; a potting composition , which is arranged on the support in coherently bonded manner; a sensor (40; 41) for the contactless detection of an orientation of a magnetic field of a magnet , wherein the sensor is at least partly arranged in the potting composition , in particular on the support , and at least one conductor track (60-62) which is arranged flat on the support , in particular in coherently bonded manner, characterized in that the at least one conductor track in the potting composition is arranged flat on the support and is connected by a through-contact structure which passes at least partly through the support . a support ; a potting composition , which is arranged on the support in coherently bonded manner; a sensor (40; 41) for the contactless detection of an orientation of a magnetic field of a magnet , wherein the sensor is at least partly arranged in the potting composition , in particular on the support , and at least one conductor track (60-62) which is arranged flat on the support , in particular in coherently bonded manner, characterized in that the at least one conductor track in the potting composition is arranged flat on the support and is connected by a through-contact structure which passes at least partly through the support .
A communication method implemented by a first communication gateway (GTW1) configured to interface between a local storage device located in a first local area network (R1) and a communication network (NT1), the method comprising the following steps: - receiving a plurality of data packets from said local storage device in which said plurality of data packets is stored; - transferring, via the communication network (NT1), the plurality of data packets to a plurality of remote storage devices (T5-T7), so that each data packet is backed up separately by one of said remote storage devices, each remote storage device being accessible through a remote communication gateway (GTW5-GTW7) interfacing between a remote local area network, comprising said remote storage device, and the communication network (NT1); the method comprising the following step: - establishing a wireless connection between the first communication gateway (GTW1) acting as a client and a neighboring communication gateway (GTW2) acting as an access point of the first communication gateway (GTW1) to the communication network (NT1); wherein, during the transfer step, at least a first data packet, among said plurality of data packets, is transferred to a first remote storage device (T5, T7) via the wireless connection. - receiving a plurality of data packets from said local storage device in which said plurality of data packets is stored; - transferring, via the communication network (NT1), the plurality of data packets to a plurality of remote storage devices (T5-T7), so that each data packet is backed up separately by one of said remote storage devices, each remote storage device being accessible through a remote communication gateway (GTW5-GTW7) interfacing between a remote local area network, comprising said remote storage device, and the communication network (NT1); the method comprising the following step: - establishing a wireless connection between the first communication gateway (GTW1) acting as a client and a neighboring communication gateway (GTW2) acting as an access point of the first communication gateway (GTW1) to the communication network (NT1); - establishing a wireless connection between the first communication gateway (GTW1) acting as a client and a neighboring communication gateway (GTW2) acting as an access point of the first communication gateway (GTW1) to the communication network (NT1); wherein, during the transfer step, at least a first data packet, among said plurality of data packets, is transferred to a first remote storage device (T5, T7) via the wireless connection.
A chemically amplified positive resist composition comprising (A) an organic solvent, (B) a base resin, (C) an acid generator, and (D) a benzotriazole compound, said base resin (B) comprising a first polymer comprising recurring units represented by the general formula and having a weight average molecular weight of 1,000 to 500,000, and a second polymer comprising recurring units of acrylate or methacrylate represented by the general formula and having a weight average molecular weight of 1,000 to 500,000, wherein R 1 is hydrogen, hydroxyl, straight alkyl, branched alkyl, halogen or trifluoromethyl, R 2 is hydrogen, hydroxyl, halogen or trifluoromethyl, R 3 is C 4 -C 12 tertiary alkyl, R 4 is hydrogen, an optionally substituted alkyl group, optionally substituted alkoxy group, -C(CF 3 ) 2 -OH, trialkylsiloxy group in which each alkyl moiety has 1 to 6 carbon atoms, C 4 -C 20 oxoalkoxy group, tetrahydropyranyloxy group, tetrahydrofuranyloxy group, or trialkylsiloxy group, R 5 is hydrogen or methyl, R 6 is hydrogen, methyl, alkoxycarbonyl, cyano, halogen or trifluoromethyl, R 7 is C 4 -C 30 alkyl, n is 0 or a positive integer of 1 to 4, m is 0 or a positive integer of 1 to 5, p, r and s each are 0 or a positive number, q is a positive number, and p+q+r+s = 1, wherein R 8 is hydrogen or methyl, and R 9 is selected from the group consisting of a straight, branched or cyclic C 1 -C 24 alkyl group, a C 2 -C 12 alkoxyalkyl group, a C 1 -C 12 hydroxyalkyl group, an organic group of the formula : -(RO) n -R' wherein R is C 2 -C 4 alkylene, R' is C 1 -C 6 alkyl, and n is an integer of 1 to 6, and an organic group of the formula : wherein R" is a straight, branched or cyclic C 1 -C 12 alkyl group, a C 2 -C 12 alkoxyalkyl group, a C 1 -C 12 hydroxyalkyl group, or a C 3 -C 12 (poly)alkylene glycol alkyl group, and said benzotriazole compound (D) having the general formula or : wherein P is hydrogen, hydroxyl, an optionally substituted C 1 -C 6 alkyl, optionally substituted phenyl, substituent group having sulfonic acid or derivative thereof, or -Z-Y, Z is a C 2 -C 12 alkylene, cycloalkylene or alkylene ether group which may be substituted with carboxyl, Y is a hydroxyl, C 1 -C 6 alkoxy group, carboxyl group or dialkylamino group in which each alkyl moiety has 1 to 6 carbon atoms, Q is hydrogen, halogen, hydroxyl, C 1 -C 6 alkyl, C 1 -C 6 alkoxy group or an organic group having the formula : wherein R 12 is hydrogen or C 1 -C 12 alkyl, x is 0 or 1, wherein T is hydrogen, hydroxyl, C 1 -C 6 alkyl, or phenyl group, and W is hydrogen, halogen, hydroxyl, C 1 -C 6 alkyl or C 1 -C 6 alkoxy group.
Process for enhancing the molecular weight of a semi-crystalline polyester comprising ethylene 2,5-furandicarboxylate units, which process comprises heating the semi-crystalline polyester during a solid state polymerization period wherein the temperature is at least 180 °C and is kept below the melting point of the semi-crystalline polyester whilst the semi-crystalline polyester is either under a flow of inert gas or under vacuum to obtain a solid state polymerized polyester, wherein the temperature is continuously or periodically increased during the solid state polymerization period.
A water sampling immersion probe (50;50') for continuously filtering a water sample from wastewater , the water sampling immersion probe comprising: a distal coarse filter (60;60') comprising a porosity of 0.1 to 1.0 mm; a proximal fine filter (70;70') arranged downstream of the distal coarse filter (60;60'), the proximal fine filter (70;70') comprising a porosity of less than 5.0 μm, the distal coarse filter (60;60') and the proximal fine filter (70;70') being arranged so as to not contact each other; and a sample suction opening (74;74') arranged downstream of the proximal fine filter (70;70'), wherein a space between the distal coarse filter (60;60') and the proximal fine filter (70;70') defines a venting chamber (66;66') which comprises at least one venting opening (64;64') through which venting air can be blown into the venting chamber (66;66'). a distal coarse filter (60;60') comprising a porosity of 0.1 to 1.0 mm; a proximal fine filter (70;70') arranged downstream of the distal coarse filter (60;60'), the proximal fine filter (70;70') comprising a porosity of less than 5.0 μm, the distal coarse filter (60;60') and the proximal fine filter (70;70') being arranged so as to not contact each other; and a sample suction opening (74;74') arranged downstream of the proximal fine filter (70;70'), wherein a space between the distal coarse filter (60;60') and the proximal fine filter (70;70') defines a venting chamber (66;66') which comprises at least one venting opening (64;64') through which venting air can be blown into the venting chamber (66;66').
An angular rate sensor comprising; a substrate ; a rotating structure coupled to the substrate, the rotating structure comprising first and second guiding arms and first and second proof masses flexibly coupled to the first and second guiding arms via springs (103a-d); first and second drive masses coupled to the substrate; a first flexible element coupling the first drive mass and the rotating structure first and second actuators coupled to the rotating structure via the first and second drive masses for driving the first and second guiding arms of the rotating structure into rotational oscillation around a first axis normal to the substrate; two first transducers responsive to the rotational oscillation of the first and second guiding arms of the rotating structure in a drive mode; and two second transducers being responsive to an angular velocity of the angular rate sensor in the drive mode. a substrate ; a rotating structure coupled to the substrate, the rotating structure comprising first and second guiding arms and first and second proof masses flexibly coupled to the first and second guiding arms via springs (103a-d); first and second drive masses coupled to the substrate; a first flexible element coupling the first drive mass and the rotating structure first and second actuators coupled to the rotating structure via the first and second drive masses for driving the first and second guiding arms of the rotating structure into rotational oscillation around a first axis normal to the substrate; two first transducers responsive to the rotational oscillation of the first and second guiding arms of the rotating structure in a drive mode; and two second transducers being responsive to an angular velocity of the angular rate sensor in the drive mode.
An electrode device for monitoring brain activity, the electrode device being implantable in a head of a subject between the scalp and cranium of the subject and comprising: an elongate, implantable body of elastomeric material , a plurality of electrodes positioned along a length of the implantable body; an electrical connection comprising one or more conductive elements extending through the body of elastomeric material and electrically connecting to the electrodes , the electrical connection having a helical shape; and a reinforcement device extending through and directly encased by the body of elastomeric material and located radially inside of the helical-shape of the electronic connection , the reinforcement device having a helical or wave shape; wherein the length of the implantable body is extendible by placing the implantable body under tension, the reinforcement device limiting the degree by which the length of the implantable body can extend under tension. an elongate, implantable body of elastomeric material , a plurality of electrodes positioned along a length of the implantable body; an electrical connection comprising one or more conductive elements extending through the body of elastomeric material and electrically connecting to the electrodes , the electrical connection having a helical shape; and a reinforcement device extending through and directly encased by the body of elastomeric material and located radially inside of the helical-shape of the electronic connection , the reinforcement device having a helical or wave shape; wherein the length of the implantable body is extendible by placing the implantable body under tension, the reinforcement device limiting the degree by which the length of the implantable body can extend under tension.
Method for operating a brake system for a motor vehicle, wherein the brake system has a service brake device and a control for the service brake device for generating a braking force on a wheel axle of the motor vehicle, performed at least temporarily as a function of an adjustment of a control element , characterized in that the generation of the braking force as a function of the adjustment of the control element is performed using a calibration data set stored in a control device of the brake system , wherein an identifier stored in the control element is transmitted to the control device and is used there for a compatibility check and, in the case of a successful compatibility check, setup of the control element is performed by a generic data set stored in the control device being used as a calibration data set, as well as a control element-specific data set stored in the control element being transmitted to the control device and being used as a calibration data set after transmission.