mhurhangee/patent-ind-claim-en huggingface dataset:
A head-mounted device , comprising: a head-mounted housing ; optical modules supported in the head-mounted housing, wherein each optical module has a display and a lens configured to present an image from the display to a corresponding eye box; optical self-mixing sensors configured to measure the lenses of the optical modules, wherein each optical module has an array of the optical self-mixing sensors , wherein each lens has a lens surface , and wherein the array of optical self-mixing sensors in each optical module is configured to measure deformation of the lens surface in that optical module by measuring distances between the optical self-mixing sensors of the array and the lens surface; and actuators , wherein each actuator is associated with a respective one of the optical modules and is configured to move the lens of that optical module relative to the display of that optical module based on the lens measurements. a head-mounted housing ; optical modules supported in the head-mounted housing, wherein each optical module has a display and a lens configured to present an image from the display to a corresponding eye box; optical self-mixing sensors configured to measure the lenses of the optical modules, wherein each optical module has an array of the optical self-mixing sensors , wherein each lens has a lens surface , and wherein the array of optical self-mixing sensors in each optical module is configured to measure deformation of the lens surface in that optical module by measuring distances between the optical self-mixing sensors of the array and the lens surface; and actuators , wherein each actuator is associated with a respective one of the optical modules and is configured to move the lens of that optical module relative to the display of that optical module based on the lens measurements.
An analysis device for performing a gas analysis, comprising a device for the controlled release of gases from a sample, at least one heatable interface and a gas chromatographic column with a downstream detector , wherein the at least one heatable interface is connected to the device , characterised in that an enrichment of the compounds released in a test chamber of the device and exiting in a gas flow with an enrichment medium on a carrier takes place in a tubular section in the interface , wherein the carrier is arranged perpendicular to the gas flow , and that the carrier which can be removed from the interface is formed by an SPME fibre or a plate coated with the enrichment medium.
Device for monitoring the correct functioning of a crop collecting apparatus , having an optical sensor which monitors a region lying in front of the crop collecting apparatus in the forward direction and is connected to a signal processing apparatus , characterized in that the signal processing apparatus can be operated to detect, on the basis of the signals of the sensor , crop which is not moving with respect to the crop collecting apparatus and which the crop collecting apparatus is pushing ahead of itself, as a crop accumulation which does not occur in the correct mode, and to output a fault signal in the case of a detected crop accumulation.
A boil-off gas reliquefaction system , comprising: a boil-off gas compressor configured to compress, in multi-stages, boil-off gas generated in a liquefied gas storage tank and supply the compressed boil-off gas to a consumer ; a boil-off gas heat exchanger configured to perform heat exchange between boil off gas compressed in the boil-off gas compressor and boil-off gas introduced into the boil-off gas compressor ; a decompression valve configured to decompress the boil-off gas compressed in the boil-off gas compressor and then heat-exchanged in the boil-off gas heat exchanger ; and a gas-liquid separator configured to perform gas-liquid separation on the boil-off gas decompressed in the decompression valve , wherein boil-off gas to be introduced into the boil-off gas heat exchanger comprises lubricant used in the boil-off gas compressor of a high pressure stage, characterized in that the boil-off gas reliquefaction system further comprises a high-temperature boil-off gas transfer line configured to transfer high-temperature boil-off gas discharged from the boil-off gas heat exchanger to a low pressure consumer upstream of the decompression valve , when high-pressure boil-off gas compressed in the boil-off gas compressor is injected into the boil-off gas heat exchanger to remove the lubricant introduced into the boil-off gas heat exchanger . a boil-off gas compressor configured to compress, in multi-stages, boil-off gas generated in a liquefied gas storage tank and supply the compressed boil-off gas to a consumer ; a boil-off gas heat exchanger configured to perform heat exchange between boil off gas compressed in the boil-off gas compressor and boil-off gas introduced into the boil-off gas compressor ; a decompression valve configured to decompress the boil-off gas compressed in the boil-off gas compressor and then heat-exchanged in the boil-off gas heat exchanger ; and a gas-liquid separator configured to perform gas-liquid separation on the boil-off gas decompressed in the decompression valve , wherein boil-off gas to be introduced into the boil-off gas heat exchanger comprises lubricant used in the boil-off gas compressor of a high pressure stage, characterized in that the boil-off gas reliquefaction system further comprises a high-temperature boil-off gas transfer line configured to transfer high-temperature boil-off gas discharged from the boil-off gas heat exchanger to a low pressure consumer upstream of the decompression valve , when high-pressure boil-off gas compressed in the boil-off gas compressor is injected into the boil-off gas heat exchanger to remove the lubricant introduced into the boil-off gas heat exchanger .
A direct current, DC, residual current protection device having a controlled current discharge, comprising: a positive (In+) and a negative (In-) input terminal for connection to a DC power line (DC in) and a positive (Out+) and a negative (Out-) output terminal for connection to a load (DC out); a first switch interposed between the positive input terminal and the positive output terminal, the first switch is configured to open/close an electrical connection between the positive input terminal and the positive output terminal; a controller comprising a current imbalance detection (ICM, 10) adapted to detect a current imbalance between the positive and the negative output terminal, wherein the controller is adapted to open the first switch when the current imbalance is detected; and a discharge control circuit having a first end and a second end, the first end is connected between the first switch and the positive output terminal (Out+), the second end is connected to both negative input terminal (In-) and negative output terminal (Out-), wherein the discharge circuit comprises a source of electrical energy adapted to accumulate energy when the first switch is closed and discharge the accumulated energy when the first switch is opened. a positive (In+) and a negative (In-) input terminal for connection to a DC power line (DC in) and a positive (Out+) and a negative (Out-) output terminal for connection to a load (DC out); a first switch interposed between the positive input terminal and the positive output terminal, the first switch is configured to open/close an electrical connection between the positive input terminal and the positive output terminal; a controller comprising a current imbalance detection (ICM, 10) adapted to detect a current imbalance between the positive and the negative output terminal, wherein the controller is adapted to open the first switch when the current imbalance is detected; and a discharge control circuit having a first end and a second end, the first end is connected between the first switch and the positive output terminal (Out+), the second end is connected to both negative input terminal (In-) and negative output terminal (Out-), wherein the discharge circuit comprises a source of electrical energy adapted to accumulate energy when the first switch is closed and discharge the accumulated energy when the first switch is opened.
An image modulating system comprising a reflective spatial light modulator system comprising a formatter plate (PCB) , an interposer , a back cooling, a front cooling and a reflective spatial light modulator , the reflective spatial light modulator having a front and a back, wherein at least one heat conductor with an Enhanced Heat Transfer conductor or a non- Enhanced Heat Transfer conductor cross-sectional surface with reference to pure copper is configured to transfer heat between the front cooling and the back cooling so as to reduce the thermal gradient between the front and back of the reflective spatial light modulator , the Enhanced Heat Transfer conductor or the non- Enhanced Heat Transfer conductor being thermo-conductively connected to the front cooling and to the back cooling , characterized in that : the Enhanced Heat Transfer conductor or the non- Enhanced Heat Transfer conductor passes through the formatter plate .
A temperature sensor belt comprising: - a plurality of temperature sensors disposed on the sensor belt , wherein the plurality of temperature sensors is configured to provide an indication representative of a temperature of a workpiece ; - a plurality of housings into each of which one temperature sensor of the plurality of temperature sensors is configured to be inserted, wherein each housing of the plurality of housings comprises an insulative material surrounding the plurality of temperature sensors and being configured to thermally insulate the sides of the plurality of temperature sensors that are not arranged to contact the workpiece , and - a support material configured to be disposed over the plurality of temperature sensors , when the plurality of temperature sensors are inserted into the plurality of housings , wherein the support material is configured to support the plurality of temperature sensors , wherein the sensor belt comprises a strap of the support material, wherein each of the plurality of temperature sensors is configured to provide the indication representative of the temperature of the workpiece while a welding operation, cutting operation, grinding operation, or induction heating operation is performed on the workpiece , characterized in that the plurality of sensor housings is configured to be threaded onto the strap to mount the plurality of sensor housings repositionably and removably onto the strap , wherein each housing of the plurality of sensor housings includes openings that enable the strap to be threaded therethrough, wherein the temperature sensor belt is configured to be connected together serially with at least one additional temperature sensor belt . - a plurality of temperature sensors disposed on the sensor belt , wherein the plurality of temperature sensors is configured to provide an indication representative of a temperature of a workpiece ; - a plurality of housings into each of which one temperature sensor of the plurality of temperature sensors is configured to be inserted, wherein each housing of the plurality of housings comprises an insulative material surrounding the plurality of temperature sensors and being configured to thermally insulate the sides of the plurality of temperature sensors that are not arranged to contact the workpiece , and - a support material configured to be disposed over the plurality of temperature sensors , when the plurality of temperature sensors are inserted into the plurality of housings , wherein the support material is configured to support the plurality of temperature sensors ,
An ocular implant system for reducing intraocular pressure in an eye, comprising: an ocular implant comprising a proximal implant end , a distal implant end , and an internal lumen having a proximal lumen end, a distal lumen end, the ocular implant having a circular cross-sectional shape, wherein the ocular implant is adapted for deployment in the eye such that the distal lumen end is in fluid communication with the suprachoroidal space and the proximal lumen end is in fluid communication with the anterior chamber when the ocular implant is in a deployed location such that the internal lumen provides a fluid passageway for draining aqueous humor from the anterior chamber towards the suprachoroidal space; a delivery instrument comprising a handheld component operatively coupled to an elongated applier , wherein the elongated applier is adapted for deployment of the ocular implant into the deployed location in the eye by inserting the ocular implant through the anterior chamber of the eye, and through a dissected tissue plane between the choroid and the sclera, and the elongated applier is sized to fit through the internal lumen of the ocular implant such that the ocular implant is mounted on the elongated applier, and wherein the elongated applier and the implant are configured for insertion of the ocular implant through a corneal incision no greater than about 2.85mm into the anterior chamber of the eye to position the implant in the deployed location. an ocular implant comprising a proximal implant end , a distal implant end , and an internal lumen having a proximal lumen end, a distal lumen end, the ocular implant having a circular cross-sectional shape, wherein the ocular implant is adapted for deployment in the eye such that the distal lumen end is in fluid communication with the suprachoroidal space and the proximal lumen end is in fluid communication with the anterior chamber when the ocular implant is in a deployed location such that the internal lumen provides a fluid passageway for draining aqueous humor from the anterior chamber towards the suprachoroidal space; a delivery instrument comprising a handheld component operatively coupled to an elongated applier , wherein the elongated applier is adapted for deployment of the ocular implant into the deployed location in the eye by inserting the ocular implant through the anterior chamber of the eye, and through a dissected tissue plane between the choroid and the sclera, and the elongated applier is sized to fit through the internal lumen of the ocular implant such that the ocular implant is mounted on the elongated applier, and wherein the elongated applier and the implant are configured for insertion of the ocular implant through a corneal incision no greater than about 2.85mm into the anterior chamber of the eye to position the implant in the deployed location.
Installation for recycling composite materials with carbon fiber and/or glass fiber reinforcement, wherein said reinforcement is contained in a matrix with which said composite material is formed, characterized in that it comprises a horizontal reactor split into a first zone , second zone and third zone , which are leak-tight and independent, arranged aligned with and separated from one another by means of respective separation gates that allow the passage of the composite material to be recycled from a previous zone to the next zone only when the process has ended in said previous zone, wherein the first zone further comprises an intake gate for taking in the composite material, a rotation mechanism for rotating said composite material and first gas outlet means for the gases generated by the decomposition of the matrix, wherein the second zone comprises air injectors and second gas outlet means for the gases generated by air reacting with matrix residues, and wherein the third zone comprises an outlet gate for the reinforcement material and cooling means for cooling the reinforcement material; wherein the installation is adapted such that it is suitable to heat in a first phase consisting of pyrolysis inside of the first zone , the composite material to a temperature comprised between 500 and 700°C in a controlled atmosphere with an absence of oxygen; and it is suitable to heat, in a second phase consisting of gassing the material resulting from the first phase within the second zone , the resulting material to a temperature comprised between 500 and 700°C, wherein the air introduced in this second phase reacts with the matrix residues.
A lubricating oil composition comprising (a) a major amount of an oil of lubricating viscosity; and (b) an oil soluble epoxide compound having the following structure: wherein X is hydrogen or a substituted or unsubstituted C 1 to C 20 hydrocarbyl group, wherein the substituted hydrocarbyl group is substituted with one or more substituents selected from hydroxyl, alkoxy, ester or amino groups and further wherein the C 1 to C 20 hydrocarbyl group is a straight- or branched-chain alkyl, cycloalkyl, alkcycloalkyl, aryl, alkaryl, or arylalkyl, and Y is -CH 2 OR, -C(=O)OR 1 or -C(=O)NHR 2 , wherein R, R 1 and R 2 are independently hydrogen or a C 1 to C 20 alkyl or alkenyl groups; wherein when Y is -C(=O)OR 1 , X is hydrogen, and when Y is -CH 2 OR and R is a C 1 to C 20 alkyl or alkenyl group, then X is a substituted or unsubstituted C 1 to C 20 hydrocarbyl group, and further wherein the oil of lubricating viscosity does not contain a carboxylic acid ester; wherein the oil soluble epoxide compound is present in the lubricating oil composition in an amount of from 0.01 to 8 weight %.
A composition which is a self-assembly composition for pattern formation and which comprises a block copolymer comprising - a polymerization unit (a) comprising two or more xylose units and having a structure of formula : wherein R 1 each independently is H, alkyl, acyl, aryl or phosphoryl; R 5 each independently is H or alkyl; X each independently is a single bond or a linking group; Y each independently is a linking group; and p is an integer of 2-1,500, and - a polymerization unit (b) comprising two or more units of at least one of an aromatic ring-containing unit, a silicon-containing unit and a metal complex unit. - a polymerization unit (a) comprising two or more xylose units and having a structure of formula : wherein R 1 each independently is H, alkyl, acyl, aryl or phosphoryl; R 5 each independently is H or alkyl; X each independently is a single bond or a linking group; Y each independently is a linking group; and p is an integer of 2-1,500, and R 1 each independently is H, alkyl, acyl, aryl or phosphoryl; R 5 each independently is H or alkyl; X each independently is a single bond or a linking group; Y each independently is a linking group; and p is an integer of 2-1,500, and - a polymerization unit (b) comprising two or more units of at least one of an aromatic ring-containing unit, a silicon-containing unit and a metal complex unit.
Post made of sheet metal for viticulture or fruit growing, having a substantially U-shaped cross-section with a U-back and two U-legs , wherein at least one external hook for receiving a wire is formed on each of the U-legs , wherein the hooks are formed from the U-legs by stamping and embossing and each have a hook base connected to the U-leg and a tongue extending approximately parallel to the U-leg , characterized in that the tongue is designed to be cross-shaped, with two lateral wings and a free tongue end formed above the wings , and that the two wings of a tongue are bent in the direction of the adjacent U-leg . wherein the hooks are formed from the U-legs by stamping and embossing and each have a hook base connected to the U-leg and a tongue extending approximately parallel to the U-leg , characterized in that the tongue is designed to be cross-shaped, with two lateral wings and a free tongue end formed above the wings , and that the two wings of a tongue are bent in the direction of the adjacent U-leg .
A laminated glass comprising: a first glass plate; a second glass plate; and an intermediate film located between the first glass plate and the second glass plate, and configured to be bonded to the first glass plate and the second glass plate, wherein when a high reflection surface is a surface having an optical reflectance of 1% or more with respect to an incident angle of a visible light from a light source, the laminated glass further includes one or more high reflection surface between a reflection surface that is an outer surfaces of the first glass plate and a reflection surface that is an outer surface of the second glass plate, wherein portions arranged between adjacent high reflection surfaces have wedge angles, and wherein the laminated glass further comprises: an area used for a head-up display, wherein in the area, a portion arranged between the adjacent high reflection surfaces has a wedge angle, wherein the portion includes the first glass plate or the second glass plate, and wherein a wedge angle of the first glass plate or the second glass plate is greater than 0 mrad and less than or equal to 1.0 mrad. a first glass plate; a second glass plate; and an intermediate film located between the first glass plate and the second glass plate, and configured to be bonded to the first glass plate and the second glass plate, wherein when a high reflection surface is a surface having an optical reflectance of 1% or more with respect to an incident angle of a visible light from a light source, the laminated glass further includes one or more high reflection surface between a reflection surface that is an outer surfaces of the first glass plate and a reflection surface that is an outer surface of the second glass plate, wherein portions arranged between adjacent high reflection surfaces have wedge angles, and an area used for a head-up display, wherein in the area, a portion arranged between the adjacent high reflection surfaces has a wedge angle, wherein the portion includes the first glass plate or the second glass plate, and wherein a wedge angle of the first glass plate or the second glass plate is greater than 0 mrad and less than or equal to 1.0 mrad.
Method for controlling pests and/or fungi in a wooden construction , characterized by the steps of: - arranging a number of supply channels with a diameter of a maximum of 6 mm at a centre-to-centre distance of at least about 5 cm in the wooden construction; - connecting the supply channels to a liquid reservoir using a supply system ; and - supplying a liquid control agent to the supply channel either at an injection pressure between 0-3 bar or by means of the gravitational force at an injection pressure of 0 bar, and; - continuously supplying the liquid control agent at the injection pressure for a time interval of more than one day, and injecting the liquid control agent into the wooden construction for the purpose of providing a prolonged saturation. - arranging a number of supply channels with a diameter of a maximum of 6 mm at a centre-to-centre distance of at least about 5 cm in the wooden construction; - connecting the supply channels to a liquid reservoir using a supply system ; and - supplying a liquid control agent to the supply channel either at an injection pressure between 0-3 bar or by means of the gravitational force at an injection pressure of 0 bar, and; - continuously supplying the liquid control agent at the injection pressure for a time interval of more than one day, and injecting the liquid control agent into the wooden construction for the purpose of providing a prolonged saturation.
Filtration element for an endpiece guide of a fluid distribution outlet comprising a support piece comprising a peripheral wall delimiting an internal housing and extending between an open end comprising an orifice and a blind end , the orifice communicating with the internal housing and the peripheral wall further comprising at least one lateral opening communicating with the internal housing , characterized in that the support piece comprises several lateral openings , each lateral opening comprising a gas filtering membrane arranged in said lateral opening in such a way as to cover said lateral opening .