mhurhangee/ep-ind-claims huggingface dataset:
A structural panel, comprising: a first skin; a second skin; and a core forming a plurality of cavities vertically between the first skin and the second skin, the cavities being arranged in a plurality of linear arrays, wherein one or more perforations in the first skin are fluidly coupled with a first of the cavities; wherein the first of the cavities forms a resonance chamber having a length that extends diagonally between the first skin and the second skin, wherein the length is longer than a vertical thickness of the core; wherein the core includes a wall connected to and extending vertically between the first skin and the second skin, the wall being disposed laterally between adjacent arrays and fluidly separating at least a first of the cavities in one array from a second of the cavities in an adjacent array; characterised in that the wall includes a vertical stiffener, wherein the vertical stiffener is hollow and includes a bore extending at least vertically within the vertical stiffener, such that the thickness of the wall changes as the wall extends longitudinally within the acoustic panel. a first skin; a second skin; and a core forming a plurality of cavities vertically between the first skin and the second skin, the cavities being arranged in a plurality of linear arrays, wherein one or more perforations in the first skin are fluidly coupled with a first of the cavities; wherein the first of the cavities forms a resonance chamber having a length that extends diagonally between the first skin and the second skin, wherein the length is longer than a vertical thickness of the core; wherein the core includes a wall connected to and extending vertically between the first skin and the second skin, the wall being disposed laterally between adjacent arrays and fluidly separating at least a first of the cavities in one array from a second of the cavities in an adjacent array; characterised in that the wall includes a vertical stiffener, wherein the vertical stiffener is hollow and includes a bore extending at least vertically within the vertical stiffener, such that the thickness of the wall changes as the wall extends longitudinally within the acoustic panel.
A compound of formula I: or a pharmaceutically acceptable salt or ester thereof; wherein n is 1-24 and wherein: R 1 is selected from the group consisting of: a compound of the formula: wherein m is 0 or 1; a compound of the formula: wherein X is N or CH; a compound of the formula: a compound of the formula: and a compound of the formula: R 2 is selected from the group consisting of: a compound of the formula: a compound of the formula: a compound of the formula: and a compound of the formula: wherein R 3 is a conjugated moiety and X represents either sulfur or a compound of the formula: a compound of the formula: wherein m is 0 or 1; a compound of the formula: wherein X is N or CH; a compound of the formula: a compound of the formula: and a compound of the formula: R 2 is selected from the group consisting of: a compound of the formula: a compound of the formula: a compound of the formula: and a compound of the formula: wherein R 3 is a conjugated moiety and X represents either sulfur or a compound of the formula: a compound of the formula: a compound of the formula: a compound of the formula: and a compound of the formula: wherein R 3 is a conjugated moiety and X represents either sulfur or a compound of the formula:
A pressing apparatus comprising: a contact portion having a shape or position configured to be changed depending on a shape of a target object to be pressed so that the pressing apparatus comes into contact with the entirety of the outer surface of the target object; a pressing portion configured to apply uniform force to the contact portion; and a pressure adjustment portion located between the contact portion and the pressing portion, the pressure adjustment portion having a fluid contained therein; and wherein the contact portion of the pressing apparatus is configured to press the entire surface of the target object characterized in that the contact portion has a plurality of protrusions configured to be individually movable. a contact portion having a shape or position configured to be changed depending on a shape of a target object to be pressed so that the pressing apparatus comes into contact with the entirety of the outer surface of the target object; a pressing portion configured to apply uniform force to the contact portion; and a pressure adjustment portion located between the contact portion and the pressing portion, the pressure adjustment portion having a fluid contained therein; and wherein the contact portion of the pressing apparatus is configured to press the entire surface of the target object characterized in that the contact portion has a plurality of protrusions configured to be individually movable.
Method for manufacturing an implant using a composite powder having microstructured particles, wherein the composite powder is initially obtained by joining large particles to small particles, wherein - the large particles have an average particle diameter in the range of 10 μm to 10 mm, - the large particles comprise at least one polymer, - the small particles are arranged on the surface of the large particles and/or distributed non-homogeneously within the large particles, - the small particles comprise a calcium salt, - the small particles have an average particle size in the range of 0.01 μm to 1.0 mm, and wherein the implant is then formed by selective laser sintering of a composition comprising the composite powder, characterised in that the particles of the composite powder have an average particle size d 50 in the range of 10 μm to less than 200 μm and the fine-grain proportion of the composite powder is less than 50% by volume. - the large particles have an average particle diameter in the range of 10 μm to 10 mm, - the large particles comprise at least one polymer, - the small particles are arranged on the surface of the large particles and/or distributed non-homogeneously within the large particles, - the small particles comprise a calcium salt, - the small particles have an average particle size in the range of 0.01 μm to 1.0 mm, and wherein the implant is then formed by selective laser sintering of a composition comprising the composite powder, characterised in that the particles of the composite powder have an average particle size d 50 in the range of 10 μm to less than 200 μm and the fine-grain proportion of the composite powder is less than 50% by volume.
A control signal transmitting apparatus (20, 20A-20L) that transmits a control signal by an electromagnetic field to a living body information acquiring apparatus that performs control of start and stop according to the control signal, comprising: a housing including an arrangement section (21, 21 H-21 L) in which the living body information acquiring apparatus may be arranged; an electromagnetic field generating section that generates the electromagnetic field; and a shield section (26, 26B-26E, 26H, 26J-26L) adapted to shield a leakage of the generated electromagnetic field leaking to an area other than the arrangement section (21, 21 H-21 L) in the electromagnetic field generated by the electromagnetic field generating section, wherein the electromagnetic field is an AC magnetic field; and the electromagnetic field generating section and the shield section (26, 26B-26E, 26H, 26J-26L) are arranged in the housing. a housing including an arrangement section (21, 21 H-21 L) in which the living body information acquiring apparatus may be arranged; an electromagnetic field generating section that generates the electromagnetic field; and a shield section (26, 26B-26E, 26H, 26J-26L) adapted to shield a leakage of the generated electromagnetic field leaking to an area other than the arrangement section (21, 21 H-21 L) in the electromagnetic field generated by the electromagnetic field generating section, wherein the electromagnetic field is an AC magnetic field; and the electromagnetic field generating section and the shield section (26, 26B-26E, 26H, 26J-26L) are arranged in the housing.
A method for encoding visual data using a trained neural network for enhancement of visual data, the method comprising the steps of: receiving input visual data comprising high resolution visual data and down-sampled visual data obtained by down-sampling each frame of the high resolution visual data to a lower resolution; generating metric data by analysing the down-sampled visual data prior to training a learned neural network on the input visual data; selecting a pre-determined neural network from a plurality of predetermined neural networks stored in a library based on comparing the generated metric data from the input data to metric data associated with each of the plurality of predetermined neural networks, wherein the metric data associated with each of the plurality of predetermined neural networks are based on training data from which the plurality of predetermined neural networks were trained; training the selected predetermined neural network for each frame of the visual data to generate a trained neural network operable to enhance the respective down-sampled frame to reproduce the corresponding high resolution frame; and transmitting the down-sampled visual data, a reference to the selected predetermined neural network and modifications to the selected predetermined neural network to produce the trained neural network from the predetermined neural network across a network from a first network node to a second network node. receiving input visual data comprising high resolution visual data and down-sampled visual data obtained by down-sampling each frame of the high resolution visual data to a lower resolution; generating metric data by analysing the down-sampled visual data prior to training a learned neural network on the input visual data; selecting a pre-determined neural network from a plurality of predetermined neural networks stored in a library based on comparing the generated metric data from the input data to metric data associated with each of the plurality of predetermined neural networks, wherein the metric data associated with each of the plurality of predetermined neural networks are based on training data from which the plurality of predetermined neural networks were trained; training the selected predetermined neural network for each frame of the visual data to generate a trained neural network operable to enhance the respective down-sampled frame to reproduce the corresponding high resolution frame; and transmitting the down-sampled visual data, a reference to the selected predetermined neural network and modifications to the selected predetermined neural network to produce the trained neural network from the predetermined neural network across a network from a first network node to a second network node.
Lighting apparatus comprising: an phosphor device, wherein the phosphor device comprises: a carrier member having upper and lower faces; a reflecting member having a side surface portion and a bottom portion, the reflecting member being arranged at the upper face of the carrier member; a phosphor layer being embedded in the reflecting member, whereby the phosphor layer, except of its top portion, is surrounded by the side surface portion and the bottom portion of the reflecting member; a transmitting member having a first end face and a second end face, the transmitting member being arranged on the phosphor layer, whereby the first end face of the transmitting member completely covers the top portion of the phosphor layer; the lighting apparatus further comprising an exciting light source that emits exciting light; whereby the phosphor layer receives the exciting light entering the phosphor device through the second end face of the transmitting device to generate a wavelength-converted light; and wherein the first end face of the transmitting member is essentially in direct contact with the top portion of the phosphor layer. an phosphor device, wherein the phosphor device comprises: a carrier member having upper and lower faces; a reflecting member having a side surface portion and a bottom portion, the reflecting member being arranged at the upper face of the carrier member; a phosphor layer being embedded in the reflecting member, whereby the phosphor layer, except of its top portion, is surrounded by the side surface portion and the bottom portion of the reflecting member; a transmitting member having a first end face and a second end face, the transmitting member being arranged on the phosphor layer, whereby the first end face of the transmitting member completely covers the top portion of the phosphor layer; a carrier member having upper and lower faces; a reflecting member having a side surface portion and a bottom portion, the reflecting member being arranged at the upper face of the carrier member; a phosphor layer being embedded in the reflecting member, whereby the phosphor layer, except of its top portion, is surrounded by the side surface portion and the bottom portion of the reflecting member; a transmitting member having a first end face and a second end face, the transmitting member being arranged on the phosphor layer, whereby the first end face of the transmitting member completely covers the top portion of the phosphor layer; the lighting apparatus further comprising an exciting light source that emits exciting light; whereby the phosphor layer receives the exciting light entering the phosphor device through the second end face of the transmitting device to generate a wavelength-converted light; and wherein the first end face of the transmitting member is essentially in direct contact with the top portion of the phosphor layer.
A microporous polyolefin lithium battery separator comprising: a laminated dry process microporous multilayer separator membrane comprising at least two outer layers, each of said outer layers comprising a polyethylene, a polyethylene blend, a polyethylene copolymer, or a mixture thereof, and at least one inner layer comprising a polypropylene, a polypropylene blend, a polypropylene copolymer, or a mixture thereof, characterized in that, the laminated microporous multilayer separator membrane has a polypropylene pore size as measured with an Aquapore Porsimeter in an inner layer in the range of 0.02 to 0.05 μm, and has a polyethylene pore size as measured with an Aquapore Porsimeter in one or more outer layers in the range of 0.03 to 0.08 μm and provided the polypropylene pore size is smaller than the polyethylene pore size. a laminated dry process microporous multilayer separator membrane comprising at least two outer layers, each of said outer layers comprising a polyethylene, a polyethylene blend, a polyethylene copolymer, or a mixture thereof, and at least one inner layer comprising a polypropylene, a polypropylene blend, a polypropylene copolymer, or a mixture thereof, characterized in that, the laminated microporous multilayer separator membrane has a polypropylene pore size as measured with an Aquapore Porsimeter in an inner layer in the range of 0.02 to 0.05 μm, and has a polyethylene pore size as measured with an Aquapore Porsimeter in one or more outer layers in the range of 0.03 to 0.08 μm and provided the polypropylene pore size is smaller than the polyethylene pore size.
A method for the reconditioning of a cylinder arrangement of a reciprocating piston internal combustion engine, in particular a uniflow scavenged large two-stroke diesel engine, the cylinder arrangement including a piston which can be arranged in a cylinder liner, the piston being moveable to and fro between a top dead center and a bottom dead center along a cylinder axis of the cylinder liner in the operating state and installation state, such that an upper side of the piston bounds a combustion space together with a running surface of the cylinder liner and a cylinder cover arranged at the cylinder liner, wherein a piston ring package including at least one piston ring is provided at a piston crown of the piston between the upper side of the piston and a lower side of the piston remote from the combustion space, so that the piston is in frictional contact with the running surface of the cylinder liner via the piston ring package in the operating state, and the piston is reconditioned in a main reconditioning step at a predefined state of wear of a top region of the running surface adjacent to the cylinder cover, such that at least one top ring of the piston ring package arranged closest to the upper side of the piston is spaced further away from the upper side of the piston by a predefined first difference spacing after the reconditioning of the piston than before to the reconditioning, characterized in that the piston ring package includes at least one second piston ring in addition to the top ring which is arranged in a top ring groove and the top ring is removed from the top ring groove and is not replaced for the reconditioning of the piston.
A fuel cell module having a plurality of fuel cells forming a fuel cell stack, and having an enclosure which surrounds the fuel cell stack, wherein the enclosure includes a bottom assembly and a lid cap assembly, wherein the bottom assembly includes a jacket at least partly form-fitted to the stack architecture providing internal alignment functions and a bottom plate in pressure contact with the fuel cell stack, wherein the lid cap assembly comprises a compression plate in pressure contact with the fuel cell stack, wherein the bottom assembly and the lid cap assembly are provided with a progressive locking system providing a range of compression pressures to the fuel cell module, characterized in that the progressive locking system provides for an upbuilding of restoring forces through the displacement of the bottom assembly in relation to the lid cap assembly when the fuel cell stack grows during use and requires more volume in the stacking direction. having a plurality of fuel cells forming a fuel cell stack, and having an enclosure which surrounds the fuel cell stack, wherein the enclosure includes a bottom assembly and a lid cap assembly, wherein the bottom assembly includes a jacket at least partly form-fitted to the stack architecture providing internal alignment functions and a bottom plate in pressure contact with the fuel cell stack, wherein the lid cap assembly comprises a compression plate in pressure contact with the fuel cell stack, wherein the bottom assembly and the lid cap assembly are provided with a progressive locking system providing a range of compression pressures to the fuel cell module, characterized in that the progressive locking system provides for an upbuilding of restoring forces through the displacement of the bottom assembly in relation to the lid cap assembly when the fuel cell stack grows during use and requires more volume in the stacking direction.
A fractionator for separating solubilized rubber from a co-solvent based miscella, the fractionator comprising: a primary vessel comprising: an upper portion and a lower portion; a feed inlet for feeding a co-solvent based miscella into the primary vessel, wherein the co-solvent based miscella separates to form (i) a non-polar solvent viscous rubber phase in the lower portion of the primary vessel and (ii) a polar solvent solubilized resin phase above the non-polar solvent viscous rubber phase in the upper portion of the primary vessel; a side outlet for removing the polar solvent solubilized resin phase from the upper portion of the primary vessel; an overflow vessel having an inlet and an outlet, wherein the overflow vessel inlet is fluidly connected to the side outlet such that the polar solvent solubilized resin phase flows through the side outlet into the overflow vessel and is removed through the overflow vessel outlet; and a bottom outlet for removing the non-polar solvent viscous rubber phase from the primary vessel. an upper portion and a lower portion; a feed inlet for feeding a co-solvent based miscella into the primary vessel, wherein the co-solvent based miscella separates to form (i) a non-polar solvent viscous rubber phase in the lower portion of the primary vessel and (ii) a polar solvent solubilized resin phase above the non-polar solvent viscous rubber phase in the upper portion of the primary vessel; a side outlet for removing the polar solvent solubilized resin phase from the upper portion of the primary vessel; an overflow vessel having an inlet and an outlet, wherein the overflow vessel inlet is fluidly connected to the side outlet such that the polar solvent solubilized resin phase flows through the side outlet into the overflow vessel and is removed through the overflow vessel outlet; and a bottom outlet for removing the non-polar solvent viscous rubber phase from the primary vessel.
A micro-patterned plate for patterning of biological materials of interest at specific sites on a plate comprising a plurality of wet regions comprising hydrophillic surfaces which are capable of coming into contact with a liquid upon submersion of the plate in the liquid, and one or more contiguous trapped gas regions adjacent the wet regions and isolating each of the wet regions from one another, wherein the trapped gas regions comprise cavities, troughs or gaps which are liquid repellant or hydrophobic and extend contiguously across the plate in a criss-cross configuration formed in the plate and configured to trap gas, wherein the trapped gas regions comprise surfaces which are prevented by the trapped gas from coming into contact with the liquid upon submersion of the plate in the liquid, and wherein the wet regions comprise raised surfaces adjacent the cavities, troughs or gaps that are removable from the plate.
A radio communication device, comprising: an imaging element configured to repeatedly generate a captured image; a first controller configured to estimate eye-positions of eyes of a user based on the captured image; and a first communication module configured to transmit positional information indicating eye-positions of the eyes of the user, to a head-up display configured to display a parallax image based on the positional information, characterized in that the radio communication device comprises a motion sensor configured to detect a parameter indicating a motion of the radio communication device, the first controller causes the imaging element to generate a captured image based on the parameter indicating the motion, in a case where the parameter indicating the motion is less than a threshold, the first controller causes the imaging element to generate a captured image after a first period, and in a case where the parameter indicating the motion is equal to or greater than the threshold, the first controller causes the imaging element to generate a captured image after a second period shorter than the first period. an imaging element configured to repeatedly generate a captured image; a first controller configured to estimate eye-positions of eyes of a user based on the captured image; and a first communication module configured to transmit positional information indicating eye-positions of the eyes of the user, to a head-up display configured to display a parallax image based on the positional information, characterized in that the radio communication device comprises a motion sensor configured to detect a parameter indicating a motion of the radio communication device, the first controller causes the imaging element to generate a captured image based on the parameter indicating the motion, in a case where the parameter indicating the motion is less than a threshold, the first controller causes the imaging element to generate a captured image after a first period, and in a case where the parameter indicating the motion is equal to or greater than the threshold, the first controller causes the imaging element to generate a captured image after a second period shorter than the first period.