mhurhangee/patent-ind-claim-en huggingface dataset:
A blower vacuum comprising: a housing including a wall that extends between a first opening and a second opening; a fan positioned at least partially within the housing and rotatable about a fan axis (B) that extends between the first opening and the second opening; characterized by a motor positioned outside of the housing and rotatable about a motor axis (C) that is offset from the fan axis (B), the motor operable in a first direction to rotate the fan in a first direction to produce an air flow from the first opening to the second opening and operable in a second direction to rotate the fan in a second direction to produce an air flow from the second opening to the first opening. a housing including a wall that extends between a first opening and a second opening; a fan positioned at least partially within the housing and rotatable about a fan axis (B) that extends between the first opening and the second opening; characterized by a motor positioned outside of the housing and rotatable about a motor axis (C) that is offset from the fan axis (B), the motor operable in a first direction to rotate the fan in a first direction to produce an air flow from the first opening to the second opening and operable in a second direction to rotate the fan in a second direction to produce an air flow from the second opening to the first opening.
A well (10; 110) in a geological structure (11; 111), the well (10; 110) comprising: a first, a second and a third casing string (12a, 12b, 12c; 112a, 112b, 112c), the second casing string (12b; 112b) at least partially inside the first casing string (12a; 112a), the third casing string (12c; 112c) at least partially inside the second casing string (12b;112b); the first and second casing strings (12a, 12b;112a, 112b) defining a first inter-casing annulus (14a;114a) therebetween, the second and third casing strings (12b, 12c;112b, 112c) defining a second inter-casing annulus (14b;114b) therebetween, the third casing string (12c;112c) defining a third casing bore (14c;114c) therewithin; a primary fluid flow control device (16a;116a) in the second casing string (12b;112b) to provide fluid communication between the first inter-casing annulus (14a;114a) and the second inter-casing annulus (14b;114b); a secondary fluid flow control device (16b;116b) in the third casing string (12c;112c) to provide fluid communication between the second inter-casing annulus (14b;114b) and the third casing bore (14c;114c); and wherein in an open position each of the primary and the secondary fluid flow control devices have a cross-sectional fluid flow area of at least 100mm 2 . a first, a second and a third casing string (12a, 12b, 12c; 112a, 112b, 112c), the second casing string (12b; 112b) at least partially inside the first casing string (12a; 112a), the third casing string (12c; 112c) at least partially inside the second casing string (12b;112b); the first and second casing strings (12a, 12b;112a, 112b) defining a first inter-casing annulus (14a;114a) therebetween, the second and third casing strings (12b, 12c;112b, 112c) defining a second inter-casing annulus (14b;114b) therebetween, the third casing string (12c;112c) defining a third casing bore (14c;114c) therewithin; a primary fluid flow control device (16a;116a) in the second casing string (12b;112b) to provide fluid communication between the first inter-casing annulus (14a;114a) and the second inter-casing annulus (14b;114b); a secondary fluid flow control device (16b;116b) in the third casing string (12c;112c) to provide fluid communication between the second inter-casing annulus (14b;114b) and the third casing bore (14c;114c); and wherein in an open position each of the primary and the secondary fluid flow control devices have a cross-sectional fluid flow area of at least 100mm 2 .
A portable device comprising: at least one sensor device for obtaining first sensor data, wherein said first sensor data is representative of at least one property of the portable device and/or user associated with the portable device; a short-range transmitter; a short-range receiver; a processor; and an output device, wherein the device is configured to: operate in an advertising state in which the processor is arranged to assemble the first sensor data into a first data packet along with a first identifier for identifying the portable device; and control the transmitter to wirelessly broadcast using short-range communication protocols said first data packet to one or more other portable devices ; operate in a scanning state in which the processor is arranged to use the receiver to scan for second data packets wirelessly broadcast using short-range communication protocols by said one or more other portable devices , wherein each second data packet comprises second sensor data and a second identifier for identifying the other portable device from which the second data packet was transmitted, wherein the second sensor data is representative of at least one property of the respective other portable device and/or user associated with the respective other portable device; and, when a second data packet is received by the receiver, determine the identity of the other portable device from the second identifier in the received second data packet and extract the second sensor data from the received second data packet; and provide an output using the output device to indicate: (i) the identity of the other portable device; and (ii) the first sensor data and the second sensor data, or a difference therebetween. operate in an advertising state in which the processor is arranged to assemble the first sensor data into a first data packet along with a first identifier for identifying the portable device; and control the transmitter to wirelessly broadcast using short-range communication protocols said first data packet to one or more other portable devices ; operate in a scanning state in which the processor is arranged to use the receiver to scan for second data packets wirelessly broadcast using short-range communication protocols by said one or more other portable devices , wherein each second data packet comprises second sensor data and a second identifier for identifying the other portable device from which the second data packet was transmitted, wherein the second sensor data is representative of at least one property of the respective other portable device and/or user associated with the respective other portable device; and, when a second data packet is received by the receiver, determine the identity of the other portable device from the second identifier in the received second data packet and extract the second sensor data from the received second data packet; and provide an output using the output device to indicate: (i) the identity of the other portable device; and (ii) the first sensor data and the second sensor data, or a difference therebetween.
A method of performing in-loop filtering on a video signal, comprising: (S910; S1110) determining an adaptive sampling rate based on information about properties of a decoded picture; (S920; S1120) performing a first in-loop filtering using samples positioned according to the adaptive sampling rate, wherein the adaptive sampling rate represents one of a uniform sampling rate, a reduced sampling rate, and a variable sampling rate, wherein the reduced sampling rate indicates a sampling rate reduced from a predetermined tap length, and the variable sampling rate indicates a non-equidistant sampling rate; and (S930; S1130) performing a second in-loop filtering using samples to which the first in-loop filtering has been applied, wherein the first and the second in-loop filtering are performed at different sampling rates, and a sampling rate of the second in-loop filtering is determined based on a rate conversion parameter which is used to map sample coordinates to indices of filter coefficients. (S910; S1110) determining an adaptive sampling rate based on information about properties of a decoded picture; (S920; S1120) performing a first in-loop filtering using samples positioned according to the adaptive sampling rate, wherein the adaptive sampling rate represents one of a uniform sampling rate, a reduced sampling rate, and a variable sampling rate, wherein the reduced sampling rate indicates a sampling rate reduced from a predetermined tap length, and the variable sampling rate indicates a non-equidistant sampling rate; and wherein the adaptive sampling rate represents one of a uniform sampling rate, a reduced sampling rate, and a variable sampling rate, a uniform sampling rate, a reduced sampling rate, and a variable sampling rate, wherein the reduced sampling rate indicates a sampling rate reduced from a predetermined tap length, and the variable sampling rate indicates a non-equidistant sampling rate; and (S930; S1130) performing a second in-loop filtering using samples to which the first in-loop filtering has been applied, wherein the first and the second in-loop filtering are performed at different sampling rates, and a sampling rate of the second in-loop filtering is determined based on a rate conversion parameter which is used to map sample coordinates to indices of filter coefficients.
An assembly comprising a gas turbine engine , a pylon and a wing , the gas turbine engine being assembled to the pylon mounted to the wing , the gas turbine engine comprising: a mounting structure for mounting the engine to the pylon ; and a propulsor section including a fan having a fan diameter ; and a geared architecture driving the fan ; and a turbine section including a fan drive turbine having a turbine diameter , the fan drive turbine driving the geared architecture, characterised in that : the ratio of the turbine diameter to the fan diameter is less than 45% and in that the wing has a gull wing configuration which includes an up angle portion and a flat portion . a mounting structure for mounting the engine to the pylon ; and a propulsor section including a fan having a fan diameter ; and a geared architecture driving the fan ; and a turbine section including a fan drive turbine having a turbine diameter , the fan drive turbine driving the geared architecture, characterised in that : the ratio of the turbine diameter to the fan diameter is less than 45% and in that the wing has a gull wing configuration which includes an up angle portion and a flat portion .
An air conditioning system for a vehicle for the public transport of passengers comprising a conditioned air source, wherein said system comprises a plurality of support columns for the passengers of said vehicle, and first and second means for joining each of said plurality of columns to the ceiling and to the floor of said vehicle, each of said plurality of columns being configured to allow the passage of said conditioned air to its interior, characterized in that , each of said first joining means being configured for joining a top end of one of said columns to said conditioned air source, and in that said first and said second joining means are configured to allow the passage of said conditioned air towards the interior of said vehicle .
A method for manufacturing glass panel unit , comprising: an assembling step of preparing a temporary assembly including: a first glass substrate ; a second glass substrate placed opposite the first glass substrate ; a frame placed between the first glass substrate and the second glass substrate to hermetically bond the first glass substrate and the second glass substrate to each other; an inside space enclosed by the first glass substrate , the second glass substrate , and the frame ; a partition dividing the inside space into a first space and a second space ; a gas passage interconnecting the first space and the second space ; and an outlet interconnecting the second space and an outside space; a hermetically enclosing step of obtaining a completed assembly by: converting the first space into an evacuated space by evacuating the first space through the gas passage , the second space , and the outlet and changing a shape of the partition to close the gas passage to form a separator so that part of the frame corresponding to the evacuated space and the separator constitute a seal hermetically bonding the first glass substrate and the second glass substrate so as to enclose the evacuated space ; and a removing step of removing part including the second space from the completed assembly by cutting the completed assembly along only one straight line to obtain a glass panel unit which is a predetermined part including the evacuated space . an assembling step of preparing a temporary assembly including: a first glass substrate ; a second glass substrate placed opposite the first glass substrate ; a frame placed between the first glass substrate and the second glass substrate to hermetically bond the first glass substrate and the second glass substrate to each other; an inside space enclosed by the first glass substrate , the second glass substrate , and the frame ; a partition dividing the inside space into a first space and a second space ; a gas passage interconnecting the first space and the second space ; and an outlet interconnecting the second space and an outside space; a hermetically enclosing step of obtaining a completed assembly by: converting the first space into an evacuated space by evacuating the first space through the gas passage , the second space , and the outlet and changing a shape of the partition to close the gas passage to form a separator so that part of the frame corresponding to the evacuated space and the separator constitute a seal hermetically bonding the first glass substrate and the second glass substrate so as to enclose the evacuated space ; and a removing step of removing part including the second space from the completed assembly by cutting the completed assembly along only one straight line to obtain a glass panel unit which is a predetermined part including the evacuated space .
A ceramic filter provided with: a porous substrate made of ceramic and having partition walls separating and forming cells extending from one end face to the other end face , a separation membrane made of ceramic disposed on wall surfaces of the cells, and glass seals disposed on the one end face and on the other end face so as not to cover openings of the cells; wherein the glass seals are constituted of glass constituent and ceramic particles, and the ceramic particles have a thermal expansion coefficient of 90 to 110% of that of the glass constituent and have an average particle diameter of 0.5 to 40 μm, and wherein an area occupancy of the ceramic particles with respect to the entire glass seals is 35 to 50%, the ceramic particle area occupancy being obtained by cutting the ceramic filter so that the glass seal is cut, polishing the cross section, by observing the reflected electron image of the cross section of the glass seal using a scanning electron microscope to read the total area of the ceramic particles contained in the glass seal in an area of 120 μm × 90 μm of said cross section, and by calculating the ceramic particle area occupancy as the ratio of said total area of the ceramic particles to said area of the cross section, wherein a material of the ceramic particles is alumina or titania, and wherein the ceramic particles are contained in the glass seal at a ratio of 40 to 70 mass%, mass% being calculated as the ratio of mass of the ceramic particles to the total mass of the ceramic particles and glass. a porous substrate made of ceramic and having partition walls separating and forming cells extending from one end face to the other end face , a separation membrane made of ceramic disposed on wall surfaces of the cells, and glass seals disposed on the one end face and on the other end face so as not to cover openings of the cells; wherein the glass seals are constituted of glass constituent and ceramic particles, and the ceramic particles have a thermal expansion coefficient of 90 to 110% of that of the glass constituent and have an average particle diameter of 0.5 to 40 μm, and wherein an area occupancy of the ceramic particles with respect to the entire glass seals is 35 to 50%, the ceramic particle area occupancy being obtained by cutting the ceramic filter so that the glass seal is cut, polishing the cross section, by observing the reflected electron image of the cross section of the glass seal using a scanning electron microscope to read the total area of the ceramic particles contained in the glass seal in an area of 120 μm × 90 μm of said cross section, and by calculating the ceramic particle area occupancy as the ratio of said total area of the ceramic particles to said area of the cross section, wherein a material of the ceramic particles is alumina or titania, and wherein the ceramic particles are contained in the glass seal at a ratio of 40 to 70 mass%, mass% being calculated as the ratio of mass of the ceramic particles to the total mass of the ceramic particles and glass.
Device for the selective removal of molecules from tissues or fluids in which a series of target molecules are present, together with natural antibodies , wherein said device is made up of a main catheter which is adapted to be inserted through a body surface in question, until said main catheter reaches the fluid or tissue to be treated, the main catheter adapted for inserting specific antibodies or aptamers against the target molecules , and terminating in a main chamber in which a nanomembrane is positioned having a pore size larger than that of the target molecules , but smaller than that of the antibodies, both the natural antibodies and the specific antibodies or aptamers , and having the special feature that said main chamber communicates with a second catheter through a nanomembrane , having a pore size larger than that of the target molecules , but smaller than that of the antibodies, said second catheter providing a means for removing and filtering the fluid treated with the specific antibodies and consequently having a lower concentration of target molecules .
A motor vehicle key , comprising: - a key head secured to a key blade , the key head being movable in rotation about an axis of rotation (A), between a locking/unlocking position and a rest position, - a key case comprising a first key cover and a second key cover intended to be disposed on either side of the key head and configured to fit together to capture the key head and allow its rotation about the axis of rotation, and - an anti-spreading system of the key case configured to prevent the spreading of the key case, the key being characterized in that the anti-spreading system comprises anti-spreading means movable between a blocking position in which they prevent the spreading of the key case when the key head is in the locking/unlocking position, and an unblocking position in which they enable the spreading of the key case when the key head is in the rest position. - a key head secured to a key blade , the key head being movable in rotation about an axis of rotation (A), between a locking/unlocking position and a rest position, - a key case comprising a first key cover and a second key cover intended to be disposed on either side of the key head and configured to fit together to capture the key head and allow its rotation about the axis of rotation, and - an anti-spreading system of the key case configured to prevent the spreading of the key case,
An air conditioner connection system that performs power carrier communication, in which a power line for supplying electric power is also used as a communication line, comprising an air conditioner including a first device connected via a power line in a communication-capable manner, a second device capable of performing radio communication with the air conditioner, and a third device that is connectable to an external network via a home network in a communication-capable manner while being connected to the first device via the power line in a communication-capable manner, wherein the air conditioner includes an authentication process control unit configured to control the first device to perform an authentication process with the third device when a starting request of the authentication process for performing power carrier communication is received from the second device, the first device includes an authentication process unit that performs the authentication process under the control of the air conditioner, and the second device includes an authentication start process unit that transmits the starting request to the air conditioner.
Remote-controlled underwater vehicle for extracting oil from the underside of a closed ice cover, wherein the remote-controlled underwater vehicle has drive means, wherein the remote-controlled underwater vehicle has at least one pump , wherein the pump is designed for extracting fluid, wherein the remote-controlled underwater vehicle has at least one means for localizing oil , wherein the remote-controlled underwater vehicle has a means for connection to a parent ship, wherein the connection means has at least one first connection for communication, a second connection for supplying power to the remote-controlled underwater vehicle , and a third connection for conveying extracted fluid to the parent ship, wherein the remote-controlled underwater vehicle has at least one first floatation panel , wherein the remote-controlled underwater vehicle has underwater buoyancy.
A perovskite solar cell comprising: an organometal halide layer having a perovskite structure; and a crystalline material layer stacked while forming an interface with the organometal halide layer, wherein a crystalline material of the crystalline material layer is a crystalline halide having a crystal structure different from the perovskite structure, and the crystalline halide has a band gap energy higher than a band gap energy of an organometal halide of the organometal halide layer having perovskite structure, characterized in that the crystalline halide has the valence band maximum energy level lower than the valence band maximum energy level of the organometal halide. an organometal halide layer having a perovskite structure; and a crystalline material layer stacked while forming an interface with the organometal halide layer, wherein a crystalline material of the crystalline material layer is a crystalline halide having a crystal structure different from the perovskite structure, and the crystalline halide has a band gap energy higher than a band gap energy of an organometal halide of the organometal halide layer having perovskite structure, characterized in that the crystalline halide has the valence band maximum energy level lower than the valence band maximum energy level of the organometal halide.
A method of dewaxing a feed, comprising: exposing a feed comprising a lubricant boiling range portion, the feed having a T5 boiling point of at least 600°F (316°C), an aromatics content of at least 5 wt% and an organic sulfur content of at least 50 wppm, to a dewaxing catalyst under effective dewaxing conditions to form a dewaxed effluent, the dewaxing catalyst comprising a zeolitic molecular sieve, a mesoporous binder, and at least 0.1 wt% of a Group VIII metal, the dewaxing catalyst have a ratio by weight of zeolitic molecular sieve to binder of at least 75 : 25; wherein the Group VIII metal comprises a combination of Pt and Pd, and wherein the zeolite molecular sieve has a silica to alumina ratio of 70:1 or less. exposing a feed comprising a lubricant boiling range portion, the feed having a T5 boiling point of at least 600°F (316°C), an aromatics content of at least 5 wt% and an organic sulfur content of at least 50 wppm, to a dewaxing catalyst under effective dewaxing conditions to form a dewaxed effluent, the dewaxing catalyst comprising a zeolitic molecular sieve, a mesoporous binder, and at least 0.1 wt% of a Group VIII metal, the dewaxing catalyst have a ratio by weight of zeolitic molecular sieve to binder of at least 75 : 25; wherein the Group VIII metal comprises a combination of Pt and Pd, and wherein the zeolite molecular sieve has a silica to alumina ratio of 70:1 or less.