mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle comprising a combustion engine , a fuel tank connected to the combustion engine , the vehicle further comprises a fuel vapour canister connected to the fuel tank and configured to store fuel vapour from the fuel tank and a fuel vapour canister heating system , wherein the fuel vapour canister heating system comprises a first heat exchanger and a second heat exchanger fluidly connected in series to the first heat exchanger , characterised in that the first heat exchanger is at least positioned at an exterior surface of the vehicle , such as a body panel of a roof , a trunk or a side of the vehicle , wherein the first heat exchanger is configured to pick-up heat from the sun, and the second heat exchanger is configured to transfer heat picked-up by the first heat exchanger to the fuel vapour canister to heat the fuel vapour canister , wherein the fuel vapour canister heating system is initiated when the temperature of the surroundings of the vehicle is above a pre-set temperature. the vehicle further comprises a fuel vapour canister connected to the fuel tank and configured to store fuel vapour from the fuel tank and a fuel vapour canister heating system , wherein the fuel vapour canister heating system comprises a first heat exchanger and a second heat exchanger fluidly connected in series to the first heat exchanger , characterised in that the first heat exchanger is at least positioned at an exterior surface of the vehicle , such as a body panel of a roof , a trunk or a side of the vehicle , wherein the first heat exchanger is configured to pick-up heat from the sun, and the second heat exchanger is configured to transfer heat picked-up by the first heat exchanger to the fuel vapour canister to heat the fuel vapour canister , wherein the fuel vapour canister heating system is initiated when the temperature of the surroundings of the vehicle is above a pre-set temperature.
A wear evaluation method for evaluating the wear of a vehicle wheel tire , the method comprising the following measurement steps: · causing a transducer (1; 11a, 11b) positioned on the vehicle in the proximity of the tire to emit a first ultrasonic signal (S1); · acquiring an electrical measurement signal (Sm) produced by said transducer when it receives a second ultrasonic signal (S2) resulting from the first ultrasonic signal being reflected by a metal target incorporated in a thickness of a crown area of the tire; · measuring at least one parameter of the electrical measurement signal; · evaluating the wear of the tire from said parameter. · causing a transducer (1; 11a, 11b) positioned on the vehicle in the proximity of the tire to emit a first ultrasonic signal (S1); · acquiring an electrical measurement signal (Sm) produced by said transducer when it receives a second ultrasonic signal (S2) resulting from the first ultrasonic signal being reflected by a metal target incorporated in a thickness of a crown area of the tire; · measuring at least one parameter of the electrical measurement signal; · evaluating the wear of the tire from said parameter.
A casting flow running system for supplying liquid metal to a mold cavity formed in a casting mold, wherein the casting flow running system comprises a plurality of pipe sections that are connected to one another and at least one ingate pipe for connecting the casting flow running system with an ingate of a casting model forming the mold cavity, characterized in that a frame comprising a heat-resistant material is disposed on the ingate pipe , said frame having a net-like webbing made of a fire-proof material tensioned therein, wherein the frame is attached to the ingate pipe such that the netlike webbing at least partially spans a cross section of the ingate pipe and is positioned in a region proximate to a surface of a casting piece formed by filling the mold cavity, wherein the frame comprises two frame parts that are movable against one another, wherein said frame parts are securable to one another after application of required tensioning of the netlike webbing .
A method for the synthesis of a type of FER/MOR composite molecular sieve, the method comprising: (a) mixing FER seed crystals, MOR seed crystals, a silicon source, an aluminium source, water and an acid or alkali to obtain a reaction mixture, wherein the pH of the reaction mixture is 9 or above; and (b) subjecting the reaction mixture to a crystallization reaction under conditions where there is no organic template present to obtain FER/MOR composite molecular sieve. (a) mixing FER seed crystals, MOR seed crystals, a silicon source, an aluminium source, water and an acid or alkali to obtain a reaction mixture, wherein the pH of the reaction mixture is 9 or above; and (b) subjecting the reaction mixture to a crystallization reaction under conditions where there is no organic template present to obtain FER/MOR composite molecular sieve.
An autophagic inhibitor for use in a method of treating endometriosis in a subject in need thereof.
A compound of Formula (I) or a tautomer or a stereoisomeric form thereof, wherein n is 0 or 1; R 1 is hydrogen, C 1-3 alkyl, cyclopropyl, mono- and polyhalo-C 1-3 alkyl; R 2 is hydrogen or fluoro; L is a bond or -NHCO-; Ar is homoaryl or heteroaryl; wherein homoaryl is phenyl or phenyl substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl, mono-and polyhalo-C 1-3 alkyloxy; and wherein heteroaryl is selected from the group consisting of pyridyl, pyrimidyl, pyrazyl, pyridazyl, furanyl, thienyl, pyrrolyl, pyrazolyl, imidazolyl, triazolyl, tetrazolyl, thiazolyl, isothiazolyl, thiadiazolyl, oxazolyl, isoxazolyl, and oxadiazolyl, each optionally substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 2-3 alkynyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl, mono- and polyhalo-C 1-3 alkyloxy, and C 1-3 alkyloxyC 1-3 alkyloxy; or a pharmaceutically acceptable acid addition salt thereof. n is 0 or 1; R 1 is hydrogen, C 1-3 alkyl, cyclopropyl, mono- and polyhalo-C 1-3 alkyl; R 2 is hydrogen or fluoro; L is a bond or -NHCO-; Ar is homoaryl or heteroaryl; wherein homoaryl is phenyl or phenyl substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl, mono-and polyhalo-C 1-3 alkyloxy; and wherein heteroaryl is selected from the group consisting of pyridyl, pyrimidyl, pyrazyl, pyridazyl, furanyl, thienyl, pyrrolyl, pyrazolyl, imidazolyl, triazolyl, tetrazolyl, thiazolyl, isothiazolyl, thiadiazolyl, oxazolyl, isoxazolyl, and oxadiazolyl, each optionally substituted with one, two or three substituents selected from the group consisting of halo, cyano, C 1-3 alkyl, C 2-3 alkynyl, C 1-3 alkyloxy, mono- and polyhalo-C 1-3 alkyl, mono- and polyhalo-C 1-3 alkyloxy, and C 1-3 alkyloxyC 1-3 alkyloxy;
A light effect system for forming a light beam , said light effect system comprising: ∘ first light forming means (105a; 301a-301 e) adapted to form at least a part of said light beam, said first light forming means comprising at least one light effect edge (201a, 201b, 306a-306g) formed in at least a part of the outer perimeter of said first light forming means; ∘ at least a first actuator adapted to rotate said first light forming means around a first rotational point and around an axis substantially parallel to the central axis of said light beam; ∘ at least a second actuator adapted to move said first light forming means in relation to said light beam, such that said first rotational point moves in an area outside said light beam and radially to the central axis of said light beam; characterized in that said first light forming means comprises at least one light effect region (203a, 203b and 203c, 303a-303g, 303i) said light effect region being formed in said first light forming means between the outer perimeter of said first light forming means and said rotational point of said first light forming means and where said light effect region is formed as at least one of a colour filter (203a, 203b and 203c, 303a-303g) adjacent to said light effect edge or an aperture configured to shape said light beam. ∘ first light forming means (105a; 301a-301 e) adapted to form at least a part of said light beam, said first light forming means comprising at least one light effect edge (201a, 201b, 306a-306g) formed in at least a part of the outer perimeter of said first light forming means; ∘ at least a first actuator adapted to rotate said first light forming means around a first rotational point and around an axis substantially parallel to the central axis of said light beam; ∘ at least a second actuator adapted to move said first light forming means in relation to said light beam, such that said first rotational point moves in an area outside said light beam and radially to the central axis of said light beam;
An epoxy endcapped adduct composition comprising: an epoxy endcapped adduct formed from i) an amine endcapped adduct formed from a monofunctional epoxide and a poly ether amine, wherein the monofunctional epoxide and the poly ether amine are combined in a molar ratio of 1.0:2.0 to 1.0:8.0 moles of epoxide functionalities to moles of polyether amine functionalities, and ii) a multi-functional epoxide, wherein the amine endcapped adduct composition and the multi-functional epoxide are combined in a molar ratio of 1.0:2.0 to 1.0:8.0 moles of amine endcapped adduct functionalities to moles multi-functional epoxide functionalities. i) an amine endcapped adduct formed from a monofunctional epoxide and a poly ether amine, wherein the monofunctional epoxide and the poly ether amine are combined in a molar ratio of 1.0:2.0 to 1.0:8.0 moles of epoxide functionalities to moles of polyether amine functionalities, and ii) a multi-functional epoxide, wherein the amine endcapped adduct composition and the multi-functional epoxide are combined in a molar ratio of 1.0:2.0 to 1.0:8.0 moles of amine endcapped adduct functionalities to moles multi-functional epoxide functionalities.
A laundry treatment apparatus comprising a first treatment apparatus (T) and a second treatment apparatus (L), wherein the first treatment apparatus (T) comprises: a first cabinet ; a first drawer drawably disposed in the first cabinet; and a first receiver (3-4) disposed in the first drawer so as to contain laundry therein, wherein the second treatment apparatus (L) comprises: a second cabinet disposed under the first cabinet so as to support the first cabinet; and a second receiver (64-65) disposed in the second cabinet so as to contain laundry, wherein the laundry treatment apparatus further comprises: a cabinet connecting unit for connecting the first cabinet to the second cabinet; and a cabinet supporting unit for preventing the first cabinet from falling down from the second cabinet when the first drawer is taken out of the first cabinet, wherein the cabinet supporting unit comprises: a support body extending from a rear end of the second cabinet in a direction opposite to a direction in which the first drawer is taken out; and a fastening member for securing the support body to a surface on which the second cabinet is mounted. a first cabinet ; a first drawer drawably disposed in the first cabinet; and a first receiver (3-4) disposed in the first drawer so as to contain laundry therein, a second cabinet disposed under the first cabinet so as to support the first cabinet; and a second receiver (64-65) disposed in the second cabinet so as to contain laundry, a cabinet connecting unit for connecting the first cabinet to the second cabinet; and a cabinet supporting unit for preventing the first cabinet from falling down from the second cabinet when the first drawer is taken out of the first cabinet, wherein the cabinet supporting unit comprises: a support body extending from a rear end of the second cabinet in a direction opposite to a direction in which the first drawer is taken out; and a fastening member for securing the support body to a surface on which the second cabinet is mounted. a support body extending from a rear end of the second cabinet in a direction opposite to a direction in which the first drawer is taken out; and a fastening member for securing the support body to a surface on which the second cabinet is mounted.
An apparatus for radiofrequency treatments, the apparatus comprising a power supply and control unit , at least one handpiece provided with an electrode being adapted to emit radiofrequency energy, and at least one cable for connection of the handpiece to the power supply and control unit , said unit comprising a thermal camera that is functionally associated with a screen for displaying the acquired data, said thermal camera being orientable toward a region of a patient that is subjected to the radiofrequency treatment of a type chosen preferably between medical and aesthetic, the screen being comprised by the apparatus, characterized in that said power supply and control unit is accommodated within a substantially box-like body, said display screen being arranged on the face of said box-like body that is directed toward the operator who is using said handpiece , wherein the box-like body is comprised by the apparatus.
An aircraft system comprising: a rotating component ; and a support configured to support the rotating component, wherein the support includes a first end having an outer member , and a second end having an inner member which is located in, and linearly displaceable relative to, the outer member , and the support further including a locking assembly (P 1 ) that is configured to lock, automatically, the inner member with respect to the outer member for stiffening the support in response to reaching or exceeding a predetermined threshold amount of displacement or load, wherein the locking assembly (P 1 ) is disposed internally within a housing that is provided at the first end of the support , and wherein the locking assembly comprises at least one slot and a locking member , and wherein, in response to the inner member reaching or exceeding a predetermined threshold amount of a linear or axial displacement within the outer member , the locking member moves with respect to the slot for locking the inner member with respect to the outer member , thereby increasing stiffness of the support. a rotating component ; and a support configured to support the rotating component, wherein the support includes a first end having an outer member , and a second end having an inner member which is located in, and linearly displaceable relative to, the outer member , and the support further including a locking assembly (P 1 ) that is configured to lock, automatically, the inner member with respect to the outer member for stiffening the support in response to reaching or exceeding a predetermined threshold amount of displacement or load, wherein the locking assembly (P 1 ) is disposed internally within a housing that is provided at the first end of the support , and wherein the locking assembly comprises at least one slot and a locking member , and wherein, in response to the inner member reaching or exceeding a predetermined threshold amount of a linear or axial displacement within the outer member , the locking member moves with respect to the slot for locking the inner member with respect to the outer member , thereby increasing stiffness of the support.
A method of manufacturing a therapeutic device , the method comprising: providing a member that defines first pores having a first average size that (i) allows passage of a therapeutic agent through the first pores and (ii) prevents passage of immune cells through the first pores; spinning the member about an axis of the member; applying a fibrous material to the member while the member spins to form a coating that surrounds the member, the coating defining second pores having a second average size that is larger than the first average size, and the second pores being sized to promote vascularization along the coating, wherein the member and the coating together form a container of the therapeutic device, the container defining an interior region for accommodating a plurality of cells capable of producing the therapeutic agent; and applying a plurality of particles comprising a substance to an inner surface of the member, wherein the substance is capable of reacting to generate oxygen within the interior region for the plurality of cells, and wherein the plurality of particles are part of a coating applied to the inner surface. providing a member that defines first pores having a first average size that (i) allows passage of a therapeutic agent through the first pores and (ii) prevents passage of immune cells through the first pores; spinning the member about an axis of the member; applying a fibrous material to the member while the member spins to form a coating that surrounds the member, the coating defining second pores having a second average size that is larger than the first average size, and the second pores being sized to promote vascularization along the coating, wherein the member and the coating together form a container of the therapeutic device, the container defining an interior region for accommodating a plurality of cells capable of producing the therapeutic agent; and applying a plurality of particles comprising a substance to an inner surface of the member, wherein the substance is capable of reacting to generate oxygen within the interior region for the plurality of cells, and wherein the plurality of particles are part of a coating applied to the inner surface.
Electropneumatic two-channel axle modulator for commercial vehicles, comprising a first supply connection for connecting a first compressed air supply and a second supply connection for connecting a second compressed air supply ; a front axle channel connection ; a rear axle channel connection ; an electropneumatic front axle valve arrangement connected to the first supply connection for controlling a front axle brake pressure (pVA) at the front axle channel connection ; an electropneumatic rear axle valve arrangement connected to the second supply connection for controlling a rear axle brake pressure (pHA) at the rear axle channel connection ; characterized by a first redundancy valve arrangement connected to the second supply connection for controlling a redundant front axle brake pressure (pVAR) at the front axle channel connection , and a first redundancy connection for receiving a first redundancy pressure (pR1) connected to at least the first redundancy valve arrangement , the first redundancy valve arrangement having a first electropneumatic redundancy valve connected to the first redundancy connection and a first redundancy relay valve . a first supply connection for connecting a first compressed air supply and a second supply connection for connecting a second compressed air supply ; a front axle channel connection ; a rear axle channel connection ; an electropneumatic front axle valve arrangement connected to the first supply connection for controlling a front axle brake pressure (pVA) at the front axle channel connection ; an electropneumatic rear axle valve arrangement connected to the second supply connection for controlling a rear axle brake pressure (pHA) at the rear axle channel connection ; characterized by a first redundancy valve arrangement connected to the second supply connection for controlling a redundant front axle brake pressure (pVAR) at the front axle channel connection , and a first redundancy connection for receiving a first redundancy pressure (pR1) connected to at least the first redundancy valve arrangement , the first redundancy valve arrangement having a first electropneumatic redundancy valve connected to the first redundancy connection and a first redundancy relay valve .
A method of wireless communication by a User Equipment, UE, (504; 602) comprising: receiving radio resource control, RRC, signaling (501; 601) from a base station (502; 604) indicating a combination of transmission modes comprising at least a first transmission mode and a second transmission mode for switching between dynamically; monitoring for downlink control information, DCI, formats based on the combination of transmission modes; determining to utilize the first transmission mode or the second transmission mode of the combination based on receiving a DCI format, wherein: a combination of the DCI format and a radio network temporary identifier, RNTI, with which a cyclic redundancy check of the DCI format is scrambled corresponds to a respective one of the first or the second transmission mode; a combination of the DCI format and a value of a flag bit appended thereto corresponds to a respective one of the first or the second transmission mode; or a value of quasi colocation information, QCI, bits of the DCI format correspond to the first or the second transmission mode; receiving at least one reference signal from the base station (502; 604); measuring (611; 1310) the at least one reference signal for channel state information, CSI, feedback based on the determined transmission mode; and reporting CSI for the determined transmission mode. receiving radio resource control, RRC, signaling (501; 601) from a base station (502; 604) indicating a combination of transmission modes comprising at least a first transmission mode and a second transmission mode for switching between dynamically; monitoring for downlink control information, DCI, formats based on the combination of transmission modes; determining to utilize the first transmission mode or the second transmission mode of the combination based on receiving a DCI format, wherein: a combination of the DCI format and a radio network temporary identifier, RNTI, with which a cyclic redundancy check of the DCI format is scrambled corresponds to a respective one of the first or the second transmission mode; a combination of the DCI format and a value of a flag bit appended thereto corresponds to a respective one of the first or the second transmission mode; or a value of quasi colocation information, QCI, bits of the DCI format correspond to the first or the second transmission mode; a combination of the DCI format and a radio network temporary identifier, RNTI, with which a cyclic redundancy check of the DCI format is scrambled corresponds to a respective one of the first or the second transmission mode; a combination of the DCI format and a value of a flag bit appended thereto corresponds to a respective one of the first or the second transmission mode; or a value of quasi colocation information, QCI, bits of the DCI format correspond to the first or the second transmission mode; receiving at least one reference signal from the base station (502; 604); measuring (611; 1310) the at least one reference signal for channel state information, CSI, feedback based on the determined transmission mode; and reporting CSI for the determined transmission mode.
A circular-saw control system comprising: a plurality of sensors , each sensor to measure a sawing force near an end of a saw arbor carrying a plurality of saw blades , the sensors to measure forces in at least two different directions; a workpiece drive system to hold a workpiece through the plurality of saw blades at a feed speed; and a motion control system to receive measurements of the forces from the plurality of sensors and adjust the feed speed. a plurality of sensors , each sensor to measure a sawing force near an end of a saw arbor carrying a plurality of saw blades , the sensors to measure forces in at least two different directions; a workpiece drive system to hold a workpiece through the plurality of saw blades at a feed speed; and a motion control system to receive measurements of the forces from the plurality of sensors and adjust the feed speed.