mhurhangee/ep-ind-claims huggingface dataset:
An electronic device including a digital camera function comprising: a sensing unit configured to sense an area of a panel over which an operation member is held without the operation member touching the panel; and a control unit configured to control at least one digital camera operation based on the area sensed without the operation member touching the panel, wherein the sensing unit senses the area over which the operation member is held by determining a size of the operation member or by determining whether the operation member is an operator's finger or palm. a sensing unit configured to sense an area of a panel over which an operation member is held without the operation member touching the panel; and a control unit configured to control at least one digital camera operation based on the area sensed without the operation member touching the panel, wherein the sensing unit senses the area over which the operation member is held by determining a size of the operation member or by determining whether the operation member is an operator's finger or palm.
A production method of a cyclic polyarylene sulfide pellet, comprising heating a cyclic polyarylene sulfide composition (a) which comprises not less than 50% by weight of a cyclic polyarylene sulfide expressed by General Formula: where Ar represents an arylene group and m is an integral number of 4 to 50, wherein the cyclic polyarylene sulfide may be a mixture of plural different cyclic polyarylene sulfides having different numbers m, the production method of a cyclic polyarylene sulfide pellet comprising: a process of heating the cyclic polyarylene sulfide composition (a) having not less than 1.0% of a weight reduction ratio ΔWr(a) under heating given by Equation, in a non-oxidizing atmosphere at a temperature of not lower than the melting temperature of the cyclic polyarylene sulfide composition (a) and not higher than 300°C under a reduced pressure of not higher than 50 kPa for a time period of not shorter than 0.05 hours, thus obtaining a cyclic polyarylene sulfide composition (b) which has less than 50% of a reduction ratio of the cyclic polyarylene sulfide to the cyclic polyarylene sulfide composition (a) and has less than 1.0% of a weight reduction ratio ΔWr(b) under heating given by Equation, ΔWr x = W 1 − W 2 / W 1 × 100 % where ΔWr(x) denotes a weight reduction ratio (%) of a material (x) and is obtained from a sample weight at temperature reaching 330°C relative to a sample weight at temperature reaching 200°C in thermogravimetric analysis in a non-oxidizing atmosphere under ordinary pressure with increasing temperature from 50°C to any temperature of not lower than 330°C at a temperature rise rate of 20°C/ minute; and a process of pelletizing the cyclic polyarylene sulfide composition (b). a process of heating the cyclic polyarylene sulfide composition (a) having not less than 1.0% of a weight reduction ratio ΔWr(a) under heating given by Equation, in a non-oxidizing atmosphere at a temperature of not lower than the melting temperature of the cyclic polyarylene sulfide composition (a) and not higher than 300°C under a reduced pressure of not higher than 50 kPa for a time period of not shorter than 0.05 hours, thus obtaining a cyclic polyarylene sulfide composition (b) which has less than 50% of a reduction ratio of the cyclic polyarylene sulfide to the cyclic polyarylene sulfide composition (a) and has less than 1.0% of a weight reduction ratio ΔWr(b) under heating given by Equation, ΔWr x = W 1 − W 2 / W 1 × 100 % where ΔWr(x) denotes a weight reduction ratio (%) of a material (x) and is obtained from a sample weight at temperature reaching 330°C relative to a sample weight at temperature reaching 200°C in thermogravimetric analysis in a non-oxidizing atmosphere under ordinary pressure with increasing temperature from 50°C to any temperature of not lower than 330°C at a temperature rise rate of 20°C/ minute; and a process of pelletizing the cyclic polyarylene sulfide composition (b).
A minimally invasive fixation device (100; 200; 300; 400; 500; 600; 700; 800) for fixating a feltable textile (108; 308; 408; 508) at a target site in a human or animal comprising: - an elongate tubular member having a proximal end and a distal end, an interior lumen extending between the proximal end and the distal end, wherein the elongate tubular member is at least partially flexible, - a needle assembly comprising at least one felting needle arranged or arrangeable at the distal end of the elongate tubular member, wherein the at least one felting needle is movable relatively to the elongate tubular member, and wherein the at least one felting needle is movable with a reciprocal motion, and - a drive assembly (204, 205, 210) arranged in the interior lumen of the tubular member, wherein the drive assembly is operably connected to the needle assembly for moving the at least one felting needle with the reciprocal motion when the at least one felting needle is located at the distal end such that the feltable textile can be fixated at the target site. - an elongate tubular member having a proximal end and a distal end, an interior lumen extending between the proximal end and the distal end, wherein the elongate tubular member is at least partially flexible, - a needle assembly comprising at least one felting needle arranged or arrangeable at the distal end of the elongate tubular member, wherein the at least one felting needle is movable relatively to the elongate tubular member, and wherein the at least one felting needle is movable with a reciprocal motion, and - a drive assembly (204, 205, 210) arranged in the interior lumen of the tubular member, wherein the drive assembly is operably connected to the needle assembly for moving the at least one felting needle with the reciprocal motion when the at least one felting needle is located at the distal end such that the feltable textile can be fixated at the target site.
A method for accessing one or more service processes of service, the method comprising: executing, by data processing hardware, at least one service enclave, the at least one service enclave providing an interface to the one or more service processes; and executing, by the data processing hardware, an enclave sandbox that wraps the at least one service enclave, the enclave sandbox acting as a proxy for communicating customer data into and out of the at least one service enclave by: establishing an encrypted communication tunnel to the at least one service enclave interfacing with the one or more service processes; and communicating program calls to/from the one or more service processes as encrypted communications through the encrypted communication tunnel. executing, by data processing hardware, at least one service enclave, the at least one service enclave providing an interface to the one or more service processes; and executing, by the data processing hardware, an enclave sandbox that wraps the at least one service enclave, the enclave sandbox acting as a proxy for communicating customer data into and out of the at least one service enclave by: establishing an encrypted communication tunnel to the at least one service enclave interfacing with the one or more service processes; and communicating program calls to/from the one or more service processes as encrypted communications through the encrypted communication tunnel. establishing an encrypted communication tunnel to the at least one service enclave interfacing with the one or more service processes; and communicating program calls to/from the one or more service processes as encrypted communications through the encrypted communication tunnel.
A packaging box, comprising: a box body provided with an opening; an adjusting block disposed inside the box body; and a top cover for fitting with the adjusting block to seal the opening, wherein the top cover is foldable and is connected with one side wall of the box body; wherein the inner face of the top cover comprises a first section and a second section, the first section being provided with a protruding block, the second section being not provided with the protruding block; characterized in that the protruding block is a replaceable protruding block and in that the adjusting block and the replaceable protruding block are fitted with each other such that the second section which is not provided with the protruding block is fitted with the top surface of the adjusting block. a box body provided with an opening; an adjusting block disposed inside the box body; and a top cover for fitting with the adjusting block to seal the opening, wherein the top cover is foldable and is connected with one side wall of the box body; wherein the inner face of the top cover comprises a first section and a second section, the first section being provided with a protruding block, the second section being not provided with the protruding block; characterized in that the protruding block is a replaceable protruding block and in that the adjusting block and the replaceable protruding block are fitted with each other such that the second section which is not provided with the protruding block is fitted with the top surface of the adjusting block.
A system comprising: an electrochemical detection device comprising a container holding a buffering solution in the container, the buffering solution comprising a molybdenum-chloranilate complex; and an electrically conductive member comprising bismuth that is at least partially submerged in the buffering solution, wherein the container, the buffering solution and the electrically conductive member are configured to measure a first current corresponding to the molybdenum-chloranilate complex in absences of an inorganic silica species and a second current corresponding to the molybdenum-chloranilate complex in the presence of the inorganic silica species; and a data processing device configured to receive the measured first and second currents from the detection device; and to obtain a difference between the first current and the second current to identify a concentration of the inorganic silica species. an electrochemical detection device comprising a container holding a buffering solution in the container, the buffering solution comprising a molybdenum-chloranilate complex; and an electrically conductive member comprising bismuth that is at least partially submerged in the buffering solution, wherein the container, the buffering solution and the electrically conductive member are configured to measure a first current corresponding to the molybdenum-chloranilate complex in absences of an inorganic silica species and a second current corresponding to the molybdenum-chloranilate complex in the presence of the inorganic silica species; and a data processing device configured to receive the measured first and second currents from the detection device; and to obtain a difference between the first current and the second current to identify a concentration of the inorganic silica species. receive the measured first and second currents from the detection device; and to obtain a difference between the first current and the second current to identify a concentration of the inorganic silica species.
Luminaire for internal or outdoor lighting, in particular a street light, with at least one LED as light source, and; at least one free-form lens assigned to the LED for influencing the light distribution emitted by the luminaire, and wherein the free-form lens is not rotation-symmetric, wherein the free-form lens and the LED can be displaced in relation to one another by a relative movement between at least one first and one second position, and wherein the relative movement comprises at least partially a movement perpendicular to the main beam direction of the LED, and the free-form lens produces different light distribution in the first and second position, characterized in that in at least one of the positions the light distribution in the conical shell curve (6; 22, 23, 24) exhibits an optical pattern curvature and the angle of the optical pattern curvature is different between the two positions.
Method for the manufacture of a galvannealed steel sheet comprising the following successive steps: A. the coating of the steel sheet, by a vacuum deposition or electro-plating method with a first coating consisting of nickel and having a thickness between 150 nm and 650nm, said steel sheet having the following composition in weight percentage: 0.10 < C < 0.40%, 1.5 < Mn < 3.0%, 0.7 < Si < 3.0%, 0.05 < Al < 1.0%, 0.75 < (Si+Al) < 3.0 %, and on an optional basis, one or more elements such as Nb ≤ 0.5 %, B ≤ 0.010%, Cr ≤ 1.0%, Mo ≤ 0.50%, Ni ≤ 1.0%, Ti ≤ 0.5%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, B. the annealing of said coated steel sheet being annealed at a temperature between 600 to 1200°C in an atmosphere comprising from 1 to 10% of H 2 and with a dew point in the range of -60°C to +30°C C. the coating of the steel sheet obtained in step B) by hot-dip method, by vacuum deposition or by electro-galvanizing process, with a second coating based on zinc, comprising more than 50 wt% of zinc and D. an alloying heat treatment to form a galvannealed steel sheet, at a temperature between 470 and 550 °C during 5 to 50 seconds A. the coating of the steel sheet, by a vacuum deposition or electro-plating method with a first coating consisting of nickel and having a thickness between 150 nm and 650nm, said steel sheet having the following composition in weight percentage: 0.10 < C < 0.40%, 1.5 < Mn < 3.0%, 0.7 < Si < 3.0%, 0.05 < Al < 1.0%, 0.75 < (Si+Al) < 3.0 %, and on an optional basis, one or more elements such as Nb ≤ 0.5 %, B ≤ 0.010%, Cr ≤ 1.0%, Mo ≤ 0.50%, Ni ≤ 1.0%, Ti ≤ 0.5%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, 0.10 < C < 0.40%, 1.5 < Mn < 3.0%, 0.7 < Si < 3.0%, 0.05 < Al < 1.0%, 0.75 < (Si+Al) < 3.0 %, Nb ≤ 0.5 %, B ≤ 0.010%, Cr ≤ 1.0%, Mo ≤ 0.50%, Ni ≤ 1.0%, Ti ≤ 0.5%, B. the annealing of said coated steel sheet being annealed at a temperature between 600 to 1200°C in an atmosphere comprising from 1 to 10% of H 2 and with a dew point in the range of -60°C to +30°C C. the coating of the steel sheet obtained in step B) by hot-dip method, by vacuum deposition or by electro-galvanizing process, with a second coating based on zinc, comprising more than 50 wt% of zinc and D. an alloying heat treatment to form a galvannealed steel sheet, at a temperature between 470 and 550 °C during 5 to 50 seconds
Low-voltage electrical circuit breaker comprising a thermal trip device, said circuit breaker comprising a fixed contact and a mobile contact that is mobile between a closed position of the two contacts and an open position of the two contacts, said mobile contact being capable of being driven into the second position by means of a slide valve, said trip device comprising a bimetallic strip capable of being deformed upon the occurrence of an overload fault in the circuit to be protected, said bimetallic strip cooperating with said slide valve in such a way that, upon the occurrence of a current overload fault, the deformation of the bimetallic strip drives the displacement of the slide valve, so as to displace the mobile contact into the open position, characterized in that the bimetallic strip comprises a part forming a hemispherical contact capable of allowing the free end part of the bimetallic strip from being positioned automatically relative to the flattened part of the slide valve in order to ensure a polarization of the slide valve against a fixed abutment regardless of the level of deformation of the bimetallic strip, this polarization making it possible to guarantee that the distance X between, on the one hand, the direction d2 of the force applied by the bimetallic strip on the slide valve and, on the other hand, the axis Z of articulation of the slide valve, is constant, regardless of the level of deformation of the bimetallic strip.
A vehicle comprising: an internal combustion engine comprising: a plurality of cylinders housing respective pistons, at least one cylinder block, in which the cylinders are obtained, and at least one head, which is fixed to the cylinder block, defines the top of the cylinders and supports a distribution system; and a liquid cooling system comprising a hydraulic circuit, inside which a coolant flows, whose circulation is caused by a circulation pump; wherein the hydraulic circuit comprises an initial section, which is obtained inside the head of the internal combustion engine, and a final section, which is obtained inside the cylinder block of the internal combustion engine; wherein, in the hydraulic circuit, a delivery of the circulation pump is directly connected to an inlet of the initial section obtained inside the head of the internal combustion engine; and wherein, in the hydraulic circuit, an outlet of the initial section obtained inside the head of the internal combustion engine is directly connected to an inlet of the final section obtained inside the cylinder block of the internal combustion engine, so that the final section is arranged in series relative to the initial section and downstream of the initial section; the vehicle is characterized in that the hydraulic circuit comprises: a first shut-off valve, which is arranged in series relative to the final section obtained inside the cylinder block of the internal combustion engine to prevent the flow of coolant through the final section; a bypass duct, which is free from heat exchangers, is arranged in parallel relative to the final section and to the first shut-off valve arranged in series relative to the final section, originates at an inlet of the final section, ends at an outlet of the final section, and allows the coolant to bypass the final section; and a second shut-off valve, which is arranged along the bypass duct. an internal combustion engine comprising: a plurality of cylinders housing respective pistons, at least one cylinder block, in which the cylinders are obtained, and at least one head, which is fixed to the cylinder block, defines the top of the cylinders and supports a distribution system; and a liquid cooling system comprising a hydraulic circuit, inside which a coolant flows, whose circulation is caused by a circulation pump; a first shut-off valve, which is arranged in series relative to the final section obtained inside the cylinder block of the internal combustion engine to prevent the flow of coolant through the final section; a bypass duct, which is free from heat exchangers, is arranged in parallel relative to the final section and to the first shut-off valve arranged in series relative to the final section, originates at an inlet of the final section, ends at an outlet of the final section, and allows the coolant to bypass the final section; and a second shut-off valve, which is arranged along the bypass duct.
A medicament delivery device for injection of a medicament comprising: a sensor device configured to detect a motion which is defined as a movement of the whole medicament delivery device; a logging device configured to track user behaviour of the medicament delivery device, which user behaviour is based on a motion detected by the sensor device; a memory device configured to store data from the logging device; and a communication device configured to transmit data from the memory device to a computer device external of the medicament delivery device; wherein the medicament delivery device further comprises a disconnected battery and an insulation sheet; wherein the insulation sheet is configured to be removed from between the battery and a contact pad once the medicament delivery device is removed from a transportation box or when a protective cap is removed from the medicament delivery device, so that the logging device is configured to start tracking user behaviour after the removal. a sensor device configured to detect a motion which is defined as a movement of the whole medicament delivery device; a logging device configured to track user behaviour of the medicament delivery device, which user behaviour is based on a motion detected by the sensor device; a memory device configured to store data from the logging device; and a communication device configured to transmit data from the memory device to a computer device external of the medicament delivery device; wherein the medicament delivery device further comprises a disconnected battery and an insulation sheet; wherein the insulation sheet is configured to be removed from between the battery and a contact pad once the medicament delivery device is removed from a transportation box or when a protective cap is removed from the medicament delivery device, so that the logging device is configured to start tracking user behaviour after the removal.
A wheel loader comprising: an engine; a selective catalyst reduction device for treating exhaust gas from the engine; an injection device for injecting reducing agent into the exhaust gas fed from the engine toward the selective catalyst reduction device: an engine room for accommodating the engine, selective catalyst reduction device, and the injection device; a vehicle body cover for defining the engine room; a partition plate having a first partition part (31 a) that is disposed between the selective catalyst reduction device and the vehicle body cover; a reducing agent tank disposed outside of the engine room and storing reducing agent; a reducing agent pump for supplying the reducing agent from the reducing agent tank to the injection device; and a reducing agent pipe connecting the reducing agent pump and the injection device, and extending between the vehicle body cover and the partition plate inside the engine room, characterised in that the first partition part (31 a) being configured to block radiant heat from the selective catalyst reduction device and thereby prevent the reducing agent pipe from being heated. an engine; a selective catalyst reduction device for treating exhaust gas from the engine; an injection device for injecting reducing agent into the exhaust gas fed from the engine toward the selective catalyst reduction device: an engine room for accommodating the engine, selective catalyst reduction device, and the injection device; a vehicle body cover for defining the engine room; a partition plate having a first partition part (31 a) that is disposed between the selective catalyst reduction device and the vehicle body cover; a reducing agent tank disposed outside of the engine room and storing reducing agent; a reducing agent pump for supplying the reducing agent from the reducing agent tank to the injection device; and a reducing agent pipe connecting the reducing agent pump and the injection device, and extending between the vehicle body cover and the partition plate inside the engine room, characterised in that the first partition part (31 a) being configured to block radiant heat from the selective catalyst reduction device and thereby prevent the reducing agent pipe from being heated. an engine room for accommodating the engine, selective catalyst reduction device, and the injection device; a vehicle body cover for defining the engine room; a partition plate having a first partition part (31 a) that is disposed between the selective catalyst reduction device and the vehicle body cover; a reducing agent tank disposed outside of the engine room and storing reducing agent; a reducing agent pump for supplying the reducing agent from the reducing agent tank to the injection device; and a reducing agent pipe connecting the reducing agent pump and the injection device, and extending between the vehicle body cover and the partition plate inside the engine room,