mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a surface-mountable component, having the steps: a) providing a chip carrier, in the top of which a cavity is formed; b) arranging an optoelectronic semiconductor chip in the cavity; c) arranging the chip carrier on an auxiliary carrier; d) arranging the auxiliary carrier with the chip carrier in a forming mould, wherein the cavity is closed hermetically by means of the forming mould and the top of the chip carrier; e) filling the forming mould with a moulding composition, wherein the moulding composition is moulded at least in places onto the chip carrier outside the cavity; f) removing the forming mould; and g) removing the auxiliary carrier. a) providing a chip carrier, in the top of which a cavity is formed; b) arranging an optoelectronic semiconductor chip in the cavity; c) arranging the chip carrier on an auxiliary carrier; d) arranging the auxiliary carrier with the chip carrier in a forming mould, wherein the cavity is closed hermetically by means of the forming mould and the top of the chip carrier; e) filling the forming mould with a moulding composition, wherein the moulding composition is moulded at least in places onto the chip carrier outside the cavity; f) removing the forming mould; and g) removing the auxiliary carrier.
Watercraft comprising a surface configured to be immersed, further comprising a device to reduce friction forces between said surface and the water when said surface is immersed, said device comprising at least one conduit connected to a gas source and capable of driving said gas towards a plurality of orifices made in said surface, these orifices being associated with deflectors having a convexity oriented towards the front of the watercraft, so as to create an air suction coming from the conduits to form a gas pocket which extends downstream from each deflector, characterised in that it comprises, downstream of each of said orifice /deflector couples, made on said surface in the place where the removed water lines again join this surface, a relief pattern capable of generating turbulence, making it possible to form a gas/water mixture being released from said pocket.
A method of treating an asphalt from a solid surface comprising; a) providing; i) a solid surface comprising asphalt thereon; and ii) a mixture comprising at least one biobased ester, at least one monoterpene, propylene glycol methyl ether acetate, a liquid intermediate made from polystyrene foam, carbon black pigment, and styrene-butadiene complex; and b) applying said mixture to said surface using a spray system that meters out the exact amount of solution to be applied. a) providing; i) a solid surface comprising asphalt thereon; and ii) a mixture comprising at least one biobased ester, at least one monoterpene, propylene glycol methyl ether acetate, a liquid intermediate made from polystyrene foam, carbon black pigment, and styrene-butadiene complex; and i) a solid surface comprising asphalt thereon; and ii) a mixture comprising at least one biobased ester, at least one monoterpene, propylene glycol methyl ether acetate, a liquid intermediate made from polystyrene foam, carbon black pigment, and styrene-butadiene complex; and b) applying said mixture to said surface using a spray system that meters out the exact amount of solution to be applied.
A serial peripheral interface SPI-based data transmission method, comprising: sending, by a first device that is a host in an Internet of Things device, a first query request to a second device that is a wireless area network WWAN module in the Internet of Things device through a universal asynchronous receiver/transmitter UART interface, wherein the first query request is used to query an SPI mode supported by the second device; if the first device determines, based on a first query response returned by the second device, that the second device supports an SPI master mode, sending, by the first device, an SPI connection establishment request to the second device, so that the second device initiates a process of establishing an SPI connection to the first device; and if the first device determines, based on the first query response, that the second device supports an SPI slave mode, initiating, by the first device, a process of establishing an SPI connection to the second device; and after the SPI connection is established with the second device, receiving, by the first device through the SPI, data sent by the second device, or sending data to the second device through the SPI. sending, by a first device that is a host in an Internet of Things device, a first query request to a second device that is a wireless area network WWAN module in the Internet of Things device through a universal asynchronous receiver/transmitter UART interface, wherein the first query request is used to query an SPI mode supported by the second device; if the first device determines, based on a first query response returned by the second device, that the second device supports an SPI master mode, sending, by the first device, an SPI connection establishment request to the second device, so that the second device initiates a process of establishing an SPI connection to the first device; and if the first device determines, based on the first query response, that the second device supports an SPI slave mode, initiating, by the first device, a process of establishing an SPI connection to the second device; and after the SPI connection is established with the second device, receiving, by the first device through the SPI, data sent by the second device, or sending data to the second device through the SPI.
Technology of production of bimetallic and multilayer casts by gravity or spun casting, at which at least two different metal materials are being gradually cast into the mould, while before casting of the second material there is started feeding of a flame into the mould and the flame is created by stream of aflame inflammable gas, characterised in that, stream of aflame inflammable gas is created by hydrogen flame, by which all the oxygen presented in the mould is completely consumed, and possible oxides on surface of the layer of the previously cast material are intensively reduced.
Method for treating diesel motor exhaust gases containing nitrogen oxides (NO x) and hydrocarbons, comprising: a) the addition of ammonia (NH 3) as such, or of a precursor compound decomposing into ammonia, from a source that does not belong to the exhaust gas train, into the exhaust gas flow containing nitrogen oxides and hydrocarbons; and b) the selective conversion of NO x with the NH 3 supplied to an SCR catalyst that comprises a mixture of zeolites, wherein at least 40 wt% of the catalyst consists of copper (Cu)- and/or iron (Fe)-substituted zeolites in which a largest lower channel width of 0.26 nm - 0.42 nm (from 2.6 Å to 4.2 Å) exists. a) the addition of ammonia (NH 3) as such, or of a precursor compound decomposing into ammonia, from a source that does not belong to the exhaust gas train, into the exhaust gas flow containing nitrogen oxides and hydrocarbons; and b) the selective conversion of NO x with the NH 3 supplied to an SCR catalyst that comprises a mixture of zeolites, wherein at least 40 wt% of the catalyst consists of copper (Cu)- and/or iron (Fe)-substituted zeolites in which a largest lower channel width of 0.26 nm - 0.42 nm (from 2.6 Å to 4.2 Å) exists.
A system for receiving signals via a wireless communications medium, the system comprising: at least one wireless local area network receiver circuit within a substrate of a single chip that enables reception of wireless local area network signals; at least one Bluetooth receiver circuit within said substrate of said single chip that enables reception of Bluetooth signals; at least one resistor calibration circuit within said substrate of said single chip that enables generation of at least one codeword based on at least one bias current received from one of: a wireless local area network bandgap reference circuit and a Bluetooth bandgap reference circuit, wherein said wireless local area network bandgap reference circuit generates at least one wireless local area network bias current signal based on said generated at least one codeword and said Bluetooth bandgap reference circuit generates at least one Bluetooth bias current signal based on said generated at least one codeword; and said at least one wireless local area network receiver circuit and said at least one Bluetooth receiver circuit utilizes at least one common low noise amplifier circuit that enables said reception of said wireless local area network signals and said reception of said Bluetooth signals, wherein said at least one wireless local area network bias current signal enables said reception of said wireless local area network signals via said at least one wireless local area network receiver circuit and said at least one Bluetooth bias current signal enables said reception of said Bluetooth signals via said at least one Bluetooth receiver circuit. at least one wireless local area network receiver circuit within a substrate of a single chip that enables reception of wireless local area network signals; at least one Bluetooth receiver circuit within said substrate of said single chip that enables reception of Bluetooth signals; at least one resistor calibration circuit within said substrate of said single chip that enables generation of at least one codeword based on at least one bias current received from one of: a wireless local area network bandgap reference circuit and a Bluetooth bandgap reference circuit, wherein said wireless local area network bandgap reference circuit generates at least one wireless local area network bias current signal based on said generated at least one codeword and said Bluetooth bandgap reference circuit generates at least one Bluetooth bias current signal based on said generated at least one codeword; and said at least one wireless local area network receiver circuit and said at least one Bluetooth receiver circuit utilizes at least one common low noise amplifier circuit that enables said reception of said wireless local area network signals and said reception of said Bluetooth signals, wherein said at least one wireless local area network bias current signal enables said reception of said wireless local area network signals via said at least one wireless local area network receiver circuit and said at least one Bluetooth bias current signal enables said reception of said Bluetooth signals via said at least one Bluetooth receiver circuit.
A turbofan comprising: a disc-shaped main plate having a boss that is a fixed portion to which a rotational shaft of a motor is secured; an annular side plate having a side plate opening formed at the center thereof and forming a wind guide wall together with the main plate; and a plurality of blades mounted so as to extend between the main plate and the side plate; in a plan view of the blade, each blade being positioned farther away from the rotational shaft, when coming from a blade leading edge to a blade trailing edge; wherein an outer circumferential surface and an inner circumferential surface of the blade at the blade leading edge have a central region in the height direction substantially parallel to the rotational shaft, characterized in that the blade has a skirt area close to the main plate that is located more radially outward of the main plate when coming closer to the main plate at the blade leading edge, and another skirt area close to the side plate that is located more radially outward of the side plate when coming closer to the side plate at the blade leading edge, and the blade outer circumferential surface of the blade leading edge on the side of the main plate curves outward of the main plate. a disc-shaped main plate having a boss that is a fixed portion to which a rotational shaft of a motor is secured; an annular side plate having a side plate opening formed at the center thereof and forming a wind guide wall together with the main plate; and a plurality of blades mounted so as to extend between the main plate and the side plate; in a plan view of the blade, each blade being positioned farther away from the rotational shaft, when coming from a blade leading edge to a blade trailing edge; wherein an outer circumferential surface and an inner circumferential surface of the blade at the blade leading edge have a central region in the height direction substantially parallel to the rotational shaft, characterized in that the blade has a skirt area close to the main plate that is located more radially outward of the main plate when coming closer to the main plate at the blade leading edge, and another skirt area close to the side plate that is located more radially outward of the side plate when coming closer to the side plate at the blade leading edge, and the blade outer circumferential surface of the blade leading edge on the side of the main plate curves outward of the main plate.
An apparatus for heat shrink wrap product packaging, where the apparatus comprises: first and second opposed and spaced apart side wall assemblies (112, 114), the first and second side wall assemblies (112, 114) defining a longitudinally extending product conveyance path therebetween, each of the side wall assemblies (112, 114) including an inner wall spaced apart from an outer wall and defining an air flow duct therebetween, each of the inner walls including an array of spaced apart air discharge openings direct towards and associated with the product conveyance path, the first and second side wall assemblies (112, 114) each including an airfoil element for air flow control from the air discharge openings in the respective inner wall; at least one heater/blower assembly disposed in the apparatus and in heated air flow communication with the air flow duct of each of the side wall assemblies; a cover assembly disposed over and at least in part enclosing at least a section of the product conveyance path and at least a portion of the array of spaced apart air discharge openings directed towards and associated with the product conveyance path from the first and the second side wall assemblies (112, 114); and a conveyor to move product along the conveyance path, characterized in that the airfoil elements (130, 420) are each rotatably attached to the respective side wall assembly inner wall. first and second opposed and spaced apart side wall assemblies (112, 114), the first and second side wall assemblies (112, 114) defining a longitudinally extending product conveyance path therebetween, each of the side wall assemblies (112, 114) including an inner wall spaced apart from an outer wall and defining an air flow duct therebetween, each of the inner walls including an array of spaced apart air discharge openings direct towards and associated with the product conveyance path, the first and second side wall assemblies (112, 114) each including an airfoil element for air flow control from the air discharge openings in the respective inner wall; at least one heater/blower assembly disposed in the apparatus and in heated air flow communication with the air flow duct of each of the side wall assemblies; a cover assembly disposed over and at least in part enclosing at least a section of the product conveyance path and at least a portion of the array of spaced apart air discharge openings directed towards and associated with the product conveyance path from the first and the second side wall assemblies (112, 114); and a conveyor to move product along the conveyance path, characterized in that the airfoil elements (130, 420) are each rotatably attached to the respective side wall assembly inner wall.
A surgical stapling instrument, comprising: a shaft; a firing member operably couplable with an actuator such that a firing motion can be transferred from said actuator to said firing member to move said firing member along a firing path; a plurality of staple cartridges positioned within said shaft, wherein each said staple cartridge comprises: a cartridge body comprising a plurality of apertures; and a plurality of staples each comprising a staple leg positioned in a said aperture, wherein said staple legs are slidable within said apertures; a first jaw comprising a channel configured to receive a said staple cartridge, wherein said first jaw comprises a plurality of staple drivers positioned therein and wherein said channel comprises one or more features configured to guide the staple drivers along a predetermined path, and wherein said firing member is configured to engage said staple drivers and move said staple drivers along said predetermined path relative to the channel between a first position and a second position; a second jaw comprising an anvil, wherein said staple legs are configured to contact said anvil when said staples are driven into said second position; a cartridge driver configured to sequentially advance a said staple cartridge into said channel from a staging position; and a biasing member configured to sequentially advance a said staple cartridge into said staging position. a shaft; a firing member operably couplable with an actuator such that a firing motion can be transferred from said actuator to said firing member to move said firing member along a firing path; a plurality of staple cartridges positioned within said shaft, wherein each said staple cartridge comprises: a cartridge body comprising a plurality of apertures; and a plurality of staples each comprising a staple leg positioned in a said aperture, wherein said staple legs are slidable within said apertures; a cartridge body comprising a plurality of apertures; and a plurality of staples each comprising a staple leg positioned in a said aperture, wherein said staple legs are slidable within said apertures; a first jaw comprising a channel configured to receive a said staple cartridge, wherein said first jaw comprises a plurality of staple drivers positioned therein and wherein said channel comprises one or more features configured to guide the staple drivers along a predetermined path, and wherein said firing member is configured to engage said staple drivers and move said staple drivers along said predetermined path relative to the channel between a first position and a second position; a second jaw comprising an anvil, wherein said staple legs are configured to contact said anvil when said staples are driven into said second position; a cartridge driver configured to sequentially advance a said staple cartridge into said channel from a staging position; and a biasing member configured to sequentially advance a said staple cartridge into said staging position.
A self-releasing surfacing material that is capable of ultraviolet protection, comprising a curable resin layer laminated to a releasable layer, wherein the curable resin layer comprises one or more thermoset resins, the releasable layer comprises a thermoplastic polymer layer coated on one or both sides with a coating of fluoropolymer or organosilicon polymer, and the releasable layer is positioned such that at least one coating of fluoropolymer or organosilicon polymer is an outermost layer with an exposed surface, wherein the thermoplastic polymer layer is formed from a material selected from: thermoplastic polyester elastomers (TPE-E); thermoplastic co-polyesters, including polyetheresters; crosslinked thermoplastic elastomers based on olefins (TPE-V/TPV); mixture of polypropylene and ethylene-propylene-diene rubber (EPDM/PP); thermoplastic elastomers based on urethanes (TPE-U/TPU); mixture of natural rubber and polypropylene (NR/PP); mixtures of nitrile rubber and polypropylene (NBR/PP); mixtures of ethylene-vinyl acetate and polyvinylidene chloride (EVA/PVDC); polyolefin, including polymethylpentene and polyolefin copolymers; polyamide, including nylon-6,6; poly-ε-caprolactam; polyethylene terephthalate; polyimide, and produced by film extrusion. the curable resin layer comprises one or more thermoset resins, the releasable layer comprises a thermoplastic polymer layer coated on one or both sides with a coating of fluoropolymer or organosilicon polymer, and the releasable layer is positioned such that at least one coating of fluoropolymer or organosilicon polymer is an outermost layer with an exposed surface, wherein the thermoplastic polymer layer is formed from a material selected from: thermoplastic polyester elastomers (TPE-E); thermoplastic co-polyesters, including polyetheresters; crosslinked thermoplastic elastomers based on olefins (TPE-V/TPV); mixture of polypropylene and ethylene-propylene-diene rubber (EPDM/PP); thermoplastic elastomers based on urethanes (TPE-U/TPU); mixture of natural rubber and polypropylene (NR/PP); mixtures of nitrile rubber and polypropylene (NBR/PP); mixtures of ethylene-vinyl acetate and polyvinylidene chloride (EVA/PVDC); polyolefin, including polymethylpentene and polyolefin copolymers; polyamide, including nylon-6,6; poly-ε-caprolactam; polyethylene terephthalate; polyimide, and produced by film extrusion.
An apparatus for processing an audio signal for reproduction by a sound transducer, the apparatus comprising: an equalization parameter determinator for determining a set of equalization parameters; and an equalizer configured to equalize an input audio signal, to obtain an equalized audio signal; wherein the equalization parameter determinator comprises a sound transducer identification unit configured to identify a sound transducer using an image recognition, and a parameter selection unit configured to select a set of equalization parameters in dependence on a result of the sound transducer identification; characterized in that the image recognition is configured to identify the sound transducer on the basis of a specific shape of the sound transducer. an equalization parameter determinator for determining a set of equalization parameters; and an equalizer configured to equalize an input audio signal, to obtain an equalized audio signal; wherein the equalization parameter determinator comprises a sound transducer identification unit configured to identify a sound transducer using an image recognition, and a parameter selection unit configured to select a set of equalization parameters in dependence on a result of the sound transducer identification; characterized in that the image recognition is configured to identify the sound transducer on the basis of a specific shape of the sound transducer.
Guide system for loading/unloading equipment comprising a frame that moves along one or more rails to transport a mechanically independent longitudinal trolley, with rolling elements (6, 7, 8, 9) arranged on both sides of the longitudinal trolley, which enters a truck trailer or container characterized in that the rolling elements (6, 7, 8, 9) on one side have rotation speeds that are independent from the rolling elements (6, 7, 8, 9) on the opposite side, and in that it comprises one or more sensors of the position of the longitudinal trolley in the trailer or container and a control system that sets the different speeds of the rolling elements (6, 7, 8, 9) based on the measurements taken by the position sensors and where the control system remembers the movements made by the longitudinal trolley as it enters the trailer or container so that the longitudinal trolley is configured to return towards the frame or guides along the path followed.