mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for computing effective permeability for a discrete fracture network in a subterranean environment comprising: obtaining attributes of the discrete fracture network, spatially sampling points on the surface of fractures inside a volume of a simulation cell, the simulation cell defining a volume in the subterranean environment; allocating to each sampled point inside the volume of the simulation cell, at least one attribute of the corresponding fracture, computing discrete pressure values for the locations corresponding to the sampled points inside the volume of the simulation cell by solving partial derivative equations of a flow model using the allocated attributes, wherein the partial derivative equations are solved by means of a discrete approximation of a pressure field at the sampled points that relies on a set of three-dimensional shape functions defined for the sampled points; computing effective permeability values induced by the fractures present in the volume of the simulation cell from the discrete pressure values; and outputting the effective permeability values for use in successful production of oil recovery from a reservoir in the subterannean environment. obtaining attributes of the discrete fracture network, spatially sampling points on the surface of fractures inside a volume of a simulation cell, the simulation cell defining a volume in the subterranean environment; allocating to each sampled point inside the volume of the simulation cell, at least one attribute of the corresponding fracture, computing discrete pressure values for the locations corresponding to the sampled points inside the volume of the simulation cell by solving partial derivative equations of a flow model using the allocated attributes, wherein the partial derivative equations are solved by means of a discrete approximation of a pressure field at the sampled points that relies on a set of three-dimensional shape functions defined for the sampled points; computing effective permeability values induced by the fractures present in the volume of the simulation cell from the discrete pressure values; and outputting the effective permeability values for use in successful production of oil recovery from a reservoir in the subterannean environment.
An air compressor comprising: a motor; a compression mechanism configured to be driven by the motor to generate compressed air; a tank configured to store the compressed air; a controller configured to control driving of the motor; a decompression valve (16a, 16b) provided to the tank; an air extraction port configured to extract compressed air decompressed by passing through the decompression valve (16a, 16b) from the tank; and an extraction pressure sensor configured to measure an extraction pressure that is a pressure of compressed air extracted from the air extraction port, wherein the controller is configured to control the driving of the motor by referring to the extraction pressure, characterized in that the extraction pressure sensor is disposed between the decompression valve (16a, 16b) and the air extraction port. a motor; a compression mechanism configured to be driven by the motor to generate compressed air; a tank configured to store the compressed air; a controller configured to control driving of the motor; a decompression valve (16a, 16b) provided to the tank; an air extraction port configured to extract compressed air decompressed by passing through the decompression valve (16a, 16b) from the tank; and an extraction pressure sensor configured to measure an extraction pressure that is a pressure of compressed air extracted from the air extraction port, wherein the controller is configured to control the driving of the motor by referring to the extraction pressure, characterized in that the extraction pressure sensor is disposed between the decompression valve (16a, 16b) and the air extraction port.
A stretchable circuit substrate comprising: a base material being stretchable; a wiring which is on a first surface side of the base material, and which includes a bellows-like member including a plurality of ridges (31, 33, 35) and recesses (32, 34, 36) arranged in a first direction which is one of in-plane directions in the first surface of the base material; and an adjustment layer which includes the bellows-like member and is on the first surface side of the base material so as to at least overlap, in a plan view, a wiring region in which the wiring is positioned; wherein the adjustment layer has a Young's modulus smaller than a Young's modulus of the wiring, and further comprising a supporting base material that is arranged between the base material and the wiring, and includes the bellows-like member, and an adhesive layer that is arranged between the base material and the supporting base material and includes the bellows-like member; and the supporting base material has a Young's modulus larger than a Young's modulus of the base material. a base material being stretchable; a wiring which is on a first surface side of the base material, and which includes a bellows-like member including a plurality of ridges (31, 33, 35) and recesses (32, 34, 36) arranged in a first direction which is one of in-plane directions in the first surface of the base material; and an adjustment layer which includes the bellows-like member and is on the first surface side of the base material so as to at least overlap, in a plan view, a wiring region in which the wiring is positioned; wherein the adjustment layer has a Young's modulus smaller than a Young's modulus of the wiring, and further comprising a supporting base material that is arranged between the base material and the wiring, and includes the bellows-like member, and an adhesive layer that is arranged between the base material and the supporting base material and includes the bellows-like member; and the supporting base material has a Young's modulus larger than a Young's modulus of the base material.
An organic light emitting display, OLED, device, comprising: a substrate; a first pixel electrode, a second pixel electrode, and a third pixel electrode each overlapping the substrate; a pixel defining layer comprising a first opening, a second opening, and a third opening respectively partially exposing the first pixel electrode, the second pixel electrode, and the third pixel electrode; a red emission layer, a green emission layer, and a blue emission layer respectively corresponding to the first opening, the second opening, and the third opening; and a common electrode overlapping each of the red emission layer, the green emission layer, and the blue emission layer, wherein the pixel defining layer further comprises a first uneven surface and a first flat face, wherein the first uneven surface is opposite the first flat face and is positioned between the first opening and the second opening, and wherein the first flat face is positioned between the first pixel electrode and the second pixel electrode and is positioned between the first uneven surface and the substrate, characterised in that the pixel defining layer further comprises a second flat face and a third flat face, wherein the second flat face is opposite the third flat face and is positioned between the second pixel electrode and the third pixel electrode, and wherein the third flat face is positioned between the second opening and the third opening and extends from the second opening to the third opening. a substrate; a first pixel electrode, a second pixel electrode, and a third pixel electrode each overlapping the substrate; a pixel defining layer comprising a first opening, a second opening, and a third opening respectively partially exposing the first pixel electrode, the second pixel electrode, and the third pixel electrode; a red emission layer, a green emission layer, and a blue emission layer respectively corresponding to the first opening, the second opening, and the third opening; and a common electrode overlapping each of the red emission layer, the green emission layer, and the blue emission layer, wherein the pixel defining layer further comprises a first uneven surface and a first flat face, wherein the first uneven surface is opposite the first flat face and is positioned between the first opening and the second opening, and wherein the first flat face is positioned between the first pixel electrode and the second pixel electrode and is positioned between the first uneven surface and the substrate, characterised in that the pixel defining layer further comprises a second flat face and a third flat face, wherein the second flat face is opposite the third flat face and is positioned between the second pixel electrode and the third pixel electrode, and wherein the third flat face is positioned between the second opening and the third opening and extends from the second opening to the third opening.
An electronic cigarette having a light cap permitting light transmission, comprising a cigarette pipe, a light cap arranged at one end of the cigarette pipe, a mouthpiece arranged at the other end of the cigarette pipe, a battery arranged in the cigarette pipe and a vaporizer assembly arranged in the cigarette pipe, wherein the light cap consists of a cap tube and a circular lid located at one end of the cap tube; the circular lid has a brim portion starting from a junction portion of the circular lid and the cap tube and terminating at a circular edge of the circular lid; the cigarette pipe sheathes the cap tube with an end surface of the cigarette pipe abutted against the brim portion of the circular lid; characterized in that the cigarette pipe stands on the brim portion and covers a non-peripheral annular region of the brim portion, which renders the rest of the brim portion a peripheral annular region protruding over an exterior wall of the cigarette pipe; the circular lid is made of transparent plastic material, a top exterior surface of the circular lid is coated with an opaque layer, light is allowed to transmit through the peripheral annular region and emit out of the electronic cigarette when users are vaping.
Pump unit for supplying fuel, preferably diesel oil, from a containing tank to an internal combustion engine, the pump unit comprising a pre-feed pump adapted to draw the fuel from the containing tank; a high-pressure pump, having a pump housing provided with a mounting aperture; and a fluid circuit comprising, in turn, a first branch for interconnecting the pre-feed pump and the high-pressure pump, a second branch for interconnecting the high-pressure pump and the internal combustion engine, and a third branch for interconnecting the first branch and the containing tank; the third branch comprising an overflow valve mounted in the mounting aperture, and a tubular connector, which is mounted downstream of the overflow valve in a direction of advance of the fuel along the third branch, and is connected to a pipe forming part of the third branch; the pump unit being characterized in that the overflow valve and the tubular connector are mounted coaxially with each other in the mounting aperture, that the overflow valve comprises a valve housing and a plug engaged slidably in the valve housing so as to be moved between a closed and an open position of the overflow valve and that the valve housing and the tubular connector are made in one piece.
A motor-driven compressor comprising: a compression unit adapted to compress refrigerant; an electric motor adapted to drive the compression unit; a housing that accommodates the compression unit and the electric motor and includes a coupling member (31, 12a); a motor driving circuit adapted to drive the electric motor, wherein the motor driving circuit includes a circuit board and a capacitor, which is electrically connected to the circuit board; and a capacitor holder that holds the capacitor and is coupled to the coupling member (31, 12a), wherein one of the capacitor holder and the coupling member (31, 12a) includes a projection (41, 41A), and the other one of the capacitor holder and the coupling member (31, 12a) includes an engagement portion (42, 42A, 42B) that engages with the projection (41, 41A), and engagement between the projection (41, 41A) and the engagement portion (42, 42A, 42B) positions the capacitor holder relative to the coupling member (31, 12a), the motor-driven compressor being characterized by further comprising a bolt that couples the capacitor holder to the coupling member (31, 12a), wherein the capacitor holder includes a peripheral portion including a flange, the flange includes an insertion hole, which receives the bolt, and one of the projection (41, 41A) and the engagement portion (42, 42A, 42B), wherein the flange includes a reinforcement located between the insertion hole and one of the projection (41, 41A) and the engagement portion (42, 42A, 42B). a compression unit adapted to compress refrigerant; an electric motor adapted to drive the compression unit; a housing that accommodates the compression unit and the electric motor and includes a coupling member (31, 12a); a motor driving circuit adapted to drive the electric motor, wherein the motor driving circuit includes a circuit board and a capacitor, which is electrically connected to the circuit board; and a capacitor holder that holds the capacitor and is coupled to the coupling member (31, 12a), wherein one of the capacitor holder and the coupling member (31, 12a) includes a projection (41, 41A), and the other one of the capacitor holder and the coupling member (31, 12a) includes an engagement portion (42, 42A, 42B) that engages with the projection (41, 41A), and engagement between the projection (41, 41A) and the engagement portion (42, 42A, 42B) positions the capacitor holder relative to the coupling member (31, 12a), the motor-driven compressor being characterized by further comprising a bolt that couples the capacitor holder to the coupling member (31, 12a), wherein the capacitor holder includes a peripheral portion including a flange, the flange includes an insertion hole, which receives the bolt, and one of the projection (41, 41A) and the engagement portion (42, 42A, 42B), wherein the flange includes a reinforcement located between the insertion hole and one of the projection (41, 41A) and the engagement portion (42, 42A, 42B).
An aircraft seat comprising: - a guide rail, - a rack, - an actuator provided with a pinion carried by a shaft, said pinion meshing with the rack, - at least one connecting portion ensuring a mechanical connection between the guide rail and the rack, characterized in that the connecting portion comprises a zone of mechanical weakness and in that a first support element and a second support element are arranged on both sides of the rack, so that in the event of deformation of the seat causing a displacement of the pinion, said pinion or the corresponding shaft comes to rest against one of the support elements (37, 38), so as to deform the connecting portion along the zone of mechanical weakness. - a guide rail, - a rack, - an actuator provided with a pinion carried by a shaft, said pinion meshing with the rack, - at least one connecting portion ensuring a mechanical connection between the guide rail and the rack,
An apparatus, comprising: a first glove configured to be worn on one hand of a user; a second glove configured to be worn on the other hand of the user; a first wireless communication device attached to the first glove; a second wireless communication device attached to the second glove; the first and second wireless communication devices being configured to communicate with each other for determining a distance or displacement between them; a first plurality of force sensors on finger portions of the first glove; a second plurality of force sensors on finger portions of the second glove; an electronic module configured to communicate with at least one of the first and second wireless communication devices; and a calculating device configured to add together forces measured by the first and second pluralities of force sensors to calculate the weight of an object simultaneously supported on the finger portions of the first and second gloves. a first glove configured to be worn on one hand of a user; a second glove configured to be worn on the other hand of the user; a first wireless communication device attached to the first glove; a second wireless communication device attached to the second glove; the first and second wireless communication devices being configured to communicate with each other for determining a distance or displacement between them; a first plurality of force sensors on finger portions of the first glove; a second plurality of force sensors on finger portions of the second glove; an electronic module configured to communicate with at least one of the first and second wireless communication devices; and a calculating device configured to add together forces measured by the first and second pluralities of force sensors to calculate the weight of an object simultaneously supported on the finger portions of the first and second gloves.
A method for adjusting parameters in a video capture device based on motion information, comprising: determining motion information by a video capture device that indicates motion of the video capture device; adjusting an exposure convergence holding time based on the motion information; increasing an exposure step size based on the motion information; and adjusting a brightness level of the video capture device based on the exposure step size to enable convergence of the brightness level back to a brightness target level after waiting for the adjusted exposure convergence holding time. determining motion information by a video capture device that indicates motion of the video capture device; adjusting an exposure convergence holding time based on the motion information; increasing an exposure step size based on the motion information; and adjusting a brightness level of the video capture device based on the exposure step size to enable convergence of the brightness level back to a brightness target level after waiting for the adjusted exposure convergence holding time.
A pumping system for moving water of a swimming pool, the pumping system comprising: a pump; a motor operatively connected to drive the pump; and a controller operatively connected to the motor, the controller determining a first motor speed, the controller obtaining a reference flow rate, the controller using a reference estimator to determine a reference power consumption of the motor using the first motor speed, the reference flow rate, and predetermined pump curves of power consumption versus motor speed at discrete flow rates included in the reference estimator, the controller determining a present power consumption of the motor, the controller calculating a difference value between the reference power consumption and the present power consumption, the controller using at least one of integral, proportional, proportional integral, proportional-derivative and proportion-integral-derivative control to generate a second motor speed based on the difference value, and the controller attempting to drive the motor at the second motor speeds until a steady state is reached. a pump; a motor operatively connected to drive the pump; and a controller operatively connected to the motor, the controller determining a first motor speed, the controller obtaining a reference flow rate, the controller using a reference estimator to determine a reference power consumption of the motor using the first motor speed, the reference flow rate, and predetermined pump curves of power consumption versus motor speed at discrete flow rates included in the reference estimator, the controller determining a present power consumption of the motor, the controller calculating a difference value between the reference power consumption and the present power consumption, the controller using at least one of integral, proportional, proportional integral, proportional-derivative and proportion-integral-derivative control to generate a second motor speed based on the difference value, and the controller attempting to drive the motor at the second motor speeds until a steady state is reached.
A method for embedding an integrated circuit into a 3D-printed object, the method comprising: - providing a filament comprising a material for 3D-printing an object, and an integrated circuit embedded within the filament; and - using the filament to form the 3D-printed object, wherein providing the filament further comprises providing the filament comprising the material for 3D-printing an object, the integrated circuit coupled to an antenna, the integrated circuit and the antenna embedded within the filament, characterized in that the antenna comprises two wires (58, 60), each wire having a first end coupled to the integrated circuit and a second end coupled to a magnet (62, 64), and wherein during using the filament to form the 3D-printed object, the filament is melted to a relatively low viscosity around the magnets (62, 64) and antenna so that a magnetic attraction between the magnets (62, 64) results in the magnets (62, 64) coupling together and forming a loop antenna; or in that the antenna comprises only one wire segment, said wire segment having a first end coupled to the integrated circuit and a second end coupled to a first magnet, a second magnet being directly attached to the integrated circuit, and wherein during using the filament to form the 3D-printed object, the filament is melted to a relatively low viscosity around the first magnet, second magnet and antenna so that a magnetic attraction between the first magnet and the second magnet results in the first magnet and the second magnet coupling together and forming a loop antenna. - providing a filament comprising a material for 3D-printing an object, and an integrated circuit embedded within the filament; and - using the filament to form the 3D-printed object, wherein providing the filament further comprises providing the filament comprising the material for 3D-printing an object, the integrated circuit coupled to an antenna, the integrated circuit and the antenna embedded within the filament, characterized in that the antenna comprises two wires (58, 60), each wire having a first end coupled to the integrated circuit and a second end coupled to a magnet (62, 64), and wherein during using the filament to form the 3D-printed object, the filament is melted to a relatively low viscosity around the magnets (62, 64) and antenna so that a magnetic attraction between the magnets (62, 64) results in the magnets (62, 64) coupling together and forming a loop antenna; or in that the antenna comprises only one wire segment, said wire segment having a first end coupled to the integrated circuit and a second end coupled to a first magnet, a second magnet being directly attached to the integrated circuit, and wherein during using the filament to form the 3D-printed object, the filament is melted to a relatively low viscosity around the first magnet, second magnet and antenna so that a magnetic attraction between the first magnet and the second magnet results in the first magnet and the second magnet coupling together and forming a loop antenna.
A probe and/or therapeutic polypeptide suitable for targeting phosphatidylserine cell-surface expression both in vitro and in vivo said polypeptide comprising: a protein S gamma-carboxyglutamic-acid (Gla) domain, and an EGF domain, wherein said polypeptide is fused to a proteinaceous sequence; and wherein said polypeptide lacks a protease domain and also lacks a hormone-binding domain. a protein S gamma-carboxyglutamic-acid (Gla) domain, and an EGF domain, wherein said polypeptide is fused to a proteinaceous sequence; and wherein said polypeptide lacks a protease domain and also lacks a hormone-binding domain.