mhurhangee/ep-ind-claims huggingface dataset:
An apparatus suitable for continuous sieving and fluid separation of a material containing fractions of a solid and fluid, wherein the material is drilling fluid, which is continuously circulated between a borehole and the surface and is containing drilling mud and drilled particles or cuttings, and for separating liquid and gas, which are liberated from the material, said sieving and fluid separation apparatus comprising a sieving unit which forms a fluid-tight vessel and having a supply portion open for material to be sieved on at least one sieving element (9, 13), on the upper side of which the material is being placed, the sieving element (9, 13) including an endless sieving cloth arranged to be moved round at least two spaced-apart turning rollers (15, 15'), the sieving unit further having an outlet portion for particles falling off the sieving cloth and at least one suction nozzle, which is located proximate the underside of the endless sieving cloth and is extending across the entire width of the endless sieving cloth, characterized in that the apparatus further comprises a fluid separation unit having a fluid-tight vessel which is evacuated by the use of at least one vacuum pump, the gas phase of the fluid being arranged to be separated from the liquid phase of the fluid in the vessel, and the gas phase of the fluid and the liquid phase of the fluid being evacuated separately from said vessel, a pipe arrangement connecting the at least one suction nozzle with the vessel for allowing a continuous fluid flow through at least a portion of the material present on the endless sieving cloth to the fluid-tight vessel, wherein the apparatus is configured such that air is supplied to the apparatus at a rate substantially corresponding to the rate at which the vacuum pump removes air from the apparatus and in such a way that the desired underpressure in the apparatus is achieved.
A system for treating a patient comprising: a delivery device comprising an elongate shaft with a distal portion and a first delivery element and a second delivery element positioned on the elongate shaft distal portion; and an injectate comprising a first injectate material and a second injectate material, wherein the delivery device is configured to deliver the first injectate material through the first delivery element into tissue and to deliver the second injectate material through the second delivery element into the tissue to create a therapeutic restriction in the gastrointestinal tract, wherein at least one of: the first injectate material and the second injectate material undergo a chemical change when brought into contact with each other; the first injectate material and the second injectate material undergo a physical change when brought into contact with each other. a delivery device comprising an elongate shaft with a distal portion and a first delivery element and a second delivery element positioned on the elongate shaft distal portion; and an injectate comprising a first injectate material and a second injectate material, wherein the delivery device is configured to deliver the first injectate material through the first delivery element into tissue and to deliver the second injectate material through the second delivery element into the tissue to create a therapeutic restriction in the gastrointestinal tract, wherein at least one of: the first injectate material and the second injectate material undergo a chemical change when brought into contact with each other; the first injectate material and the second injectate material undergo a physical change when brought into contact with each other. the first injectate material and the second injectate material undergo a chemical change when brought into contact with each other; the first injectate material and the second injectate material undergo a physical change when brought into contact with each other.
An antenna device connected to a portable wireless terminal, the device comprising: a main antenna for transmitting and receiving a signal in a first frequency band; a Transmit sub-antenna for transmitting a signal in a second frequency band; a Receive sub-antenna for receiving a signal in a third frequency band; characterised by a controller for selectively using one of the Transmit sub-antenna and the Receive sub-antenna if the second frequency band overlaps with the third frequency band, and for simultaneously using the Transmit sub-antenna and the Receive sub-antenna if the second frequency band does not overlap with the third frequency band. a main antenna for transmitting and receiving a signal in a first frequency band; a Transmit sub-antenna for transmitting a signal in a second frequency band; a Receive sub-antenna for receiving a signal in a third frequency band; characterised by a controller for selectively using one of the Transmit sub-antenna and the Receive sub-antenna if the second frequency band overlaps with the third frequency band, and for simultaneously using the Transmit sub-antenna and the Receive sub-antenna if the second frequency band does not overlap with the third frequency band.
A method for communication between at least one vehicle and at least one total station at a work site, each including a radio communication unit (4, 11) and a control unit (5, 10), said total station further comprising position calculating means adapted to calculate position data including at least horizontal and vertical angle and distance between said total station and at least one target arranged on said vehicle and said total station being adapted to send said position data to said vehicle during a radio communication session, said method comprising the steps of: updating a networks list comprising information of at least one radio channel over which a vehicle within a communication range of said total station communicates, wherein said update is initiated upon receiving an inquiry signal from a vehicle within communication range in need of position data; accessing (20; 30; 41) said network list comprising information identifying vehicles within said site; identifying (22; 31; 42) at least one vehicle requiring position data using said network list; and starting tracking of said at least one identified vehicle and initiating (24; 34; 45) a radio communication session with said identified vehicle during which said vehicle is provided with real time position data obtained by detecting and following said at least one target arranged on said vehicle. updating a networks list comprising information of at least one radio channel over which a vehicle within a communication range of said total station communicates, wherein said update is initiated upon receiving an inquiry signal from a vehicle within communication range in need of position data; accessing (20; 30; 41) said network list comprising information identifying vehicles within said site; identifying (22; 31; 42) at least one vehicle requiring position data using said network list; and starting tracking of said at least one identified vehicle and initiating (24; 34; 45) a radio communication session with said identified vehicle during which said vehicle is provided with real time position data obtained by detecting and following said at least one target arranged on said vehicle.
An aviation fuel composition which is free of added lead and has a MON of at least 98 and which comprises a m-xylene admixture with at least one saturated branched aliphatic hydrocarbon having a carbon number in the C4 to C10 range, wherein the fuel composition contains at least 50 wt. % m-xylene and from 10wt% to at most 50wt% of the saturated branched aliphatic hydrocarbon.
A method for signal compensation, comprising: receiving, by a receiver via N receiving antennas, a plurality of channel estimation preamble signals sent by M transmitting antennas of a remote transmitter, wherein the plurality of channel estimation preamble signals contain first pilot signals of the M transmitting antennas, and M and N are integers larger than 1; determining, by the receiver, channel estimation parameters from the M transmitting antennas to the N receiving antennas according to the first pilot signals of the M transmitting antennas contained in the plurality of channel estimation preamble signals; receiving, by the receiver via the N receiving antennas, data signals and second pilot signals sent on a first data symbol by the M transmitting antennas; determining, by the receiver, channel phase shift parameters from the M transmitting antennas to the N receiving antennas according to signals arrived at the N receiving antennas which come from the second pilot signals sent on the first data symbol by the M transmitting antennas; and determining, by the receiver according to the channel estimation parameters from the M transmitting antennas to the N receiving antennas and the channel phase shift parameters from the M transmitting antennas to the N receiving antennas, signal compensation for the data signals arrived at the N receiving antennas that are sent on the first data symbol by the M transmitting antennas. receiving, by a receiver via N receiving antennas, a plurality of channel estimation preamble signals sent by M transmitting antennas of a remote transmitter, wherein the plurality of channel estimation preamble signals contain first pilot signals of the M transmitting antennas, and M and N are integers larger than 1; determining, by the receiver, channel estimation parameters from the M transmitting antennas to the N receiving antennas according to the first pilot signals of the M transmitting antennas contained in the plurality of channel estimation preamble signals; receiving, by the receiver via the N receiving antennas, data signals and second pilot signals sent on a first data symbol by the M transmitting antennas; determining, by the receiver, channel phase shift parameters from the M transmitting antennas to the N receiving antennas according to signals arrived at the N receiving antennas which come from the second pilot signals sent on the first data symbol by the M transmitting antennas; and determining, by the receiver according to the channel estimation parameters from the M transmitting antennas to the N receiving antennas and the channel phase shift parameters from the M transmitting antennas to the N receiving antennas, signal compensation for the data signals arrived at the N receiving antennas that are sent on the first data symbol by the M transmitting antennas.
A system, comprising: a shape sensing enabled device having at least one optical fiber; a source positioning module configured to receive optical signals from the at least one optical fiber within a structure and interpret the optical signals to provide motion information of treatment sources within the device; and a dose determination module configured to provide one or more temporal bins representing a total treatment time, wherein for each temporal bin, the dose determination module is configured to determine a dose received by a target area to be treated using the motion information of the treatment sources, the dose determination module further configured to combine the dose received by the target area for each of the one or more temporal bins to determine a total dose received by the target area. a shape sensing enabled device having at least one optical fiber; a source positioning module configured to receive optical signals from the at least one optical fiber within a structure and interpret the optical signals to provide motion information of treatment sources within the device; and a dose determination module configured to provide one or more temporal bins representing a total treatment time, wherein for each temporal bin, the dose determination module is configured to determine a dose received by a target area to be treated using the motion information of the treatment sources, the dose determination module further configured to combine the dose received by the target area for each of the one or more temporal bins to determine a total dose received by the target area.
A kit, comprising: a flow cell, including: a substrate (30, 30'); and first and second capture primers (24, 24') attached to the substrate (30, 30'); and a genotyping probe fluid, including: a liquid carrier; and a genotyping oligonucleotide (10, 10') in the liquid carrier, the genotyping oligonucleotide (10, 10') including: a first primer sequence; a probe sequence representative of a target genotyping locus; a restriction endonuclease site (16, 16'); and a second primer sequence (18, 18') that is at least partially complementary to the second capture primer (24, 24'). a flow cell, including: a substrate (30, 30'); and first and second capture primers (24, 24') attached to the substrate (30, 30'); and a substrate (30, 30'); and first and second capture primers (24, 24') attached to the substrate (30, 30'); and a genotyping probe fluid, including: a liquid carrier; and a genotyping oligonucleotide (10, 10') in the liquid carrier, the genotyping oligonucleotide (10, 10') including: a first primer sequence; a probe sequence representative of a target genotyping locus; a restriction endonuclease site (16, 16'); and a second primer sequence (18, 18') that is at least partially complementary to the second capture primer (24, 24'). a liquid carrier; and a genotyping oligonucleotide (10, 10') in the liquid carrier, the genotyping oligonucleotide (10, 10') including: a first primer sequence; a probe sequence representative of a target genotyping locus; a restriction endonuclease site (16, 16'); and a second primer sequence (18, 18') that is at least partially complementary to the second capture primer (24, 24'). a first primer sequence; a probe sequence representative of a target genotyping locus; a restriction endonuclease site (16, 16'); and a second primer sequence (18, 18') that is at least partially complementary to the second capture primer (24, 24').
Supply roll of a sealing strip consisting of an open-cell soft foam, said sealing strip having, on one side, a self-adhesive layer and having, on the opposite side, a cover layer, comprising a winding core, on which the precompressed sealing strip is wound with radial compression loading in a plurality of windings which are detachably connected to one another by the self-adhesive layer, characterised in that the cover layer comprises strands which extend at least in the longitudinal direction of the sealing strip, guarantee tensile strength and have through-openings for the soft foam provided therebetween.
. A contact-minimizing door opening and closing system comprising: a handle; a handle blocking mechanism coupled to the handle at a first end and coupled to a latch bolt (8, 98) at a second end, the blocking mechanism configured to control movement of the handle in response to a position of the latch bolt (8, 98); and an engaging and disengaging mechanism in the form of a push to lock - push to unlock mechanism coupling the handle to a locking pin, actuation of the handle configured to operate the engaging and disengaging mechanism to lock the door. a handle; a handle blocking mechanism coupled to the handle at a first end and coupled to a latch bolt (8, 98) at a second end, the blocking mechanism configured to control movement of the handle in response to a position of the latch bolt (8, 98); and an engaging and disengaging mechanism in the form of a push to lock - push to unlock mechanism coupling the handle to a locking pin, actuation of the handle configured to operate the engaging and disengaging mechanism to lock the door.
A lid for a beverage cup comprising: a. a lid body; b. a beverage aperture defined on a recessed area of the lid body through which a beverage can exit the lid for drinking when the lid is on a beverage cup; the beverage aperture further comprising a filter for filtering the beverage before it is drank; c. a drinking rim on the lid which is raised relative to the beverage aperture, d. and characterised in that the lid is arranged so that, in use for drinking, the beverage exits through the beverage aperture and flows along the lid toward the drinking rim so that the user can see the beverage after it has exited the beverage aperture and before it reaches the rim when the cup is held in a drinking position. a. a lid body; b. a beverage aperture defined on a recessed area of the lid body through which a beverage can exit the lid for drinking when the lid is on a beverage cup; the beverage aperture further comprising a filter for filtering the beverage before it is drank; c. a drinking rim on the lid which is raised relative to the beverage aperture, d. and characterised in that the lid is arranged so that, in use for drinking, the beverage exits through the beverage aperture and flows along the lid toward the drinking rim so that the user can see the beverage after it has exited the beverage aperture and before it reaches the rim when the cup is held in a drinking position.
A rail consisting of, by mass%: C: 0.70% to 1.20%; Si: 0.05% to 2.00%; Mn: 0.10% to 2.00%; P: 0.0200% or less; S: more than 0.0100% to 0.0250%; Al: 0.0020% to 0.0100%, and optionally, one or more of: Ca: 0.0005% to 0.0200%; REM: 0.0005% to 0.0500%; Cr: 0.01% to 2.00%; Mo: 0.01% to 0.50%; Co: 0.01% to 1.00%; B: 0.0001% to 0.0050%; Cu: 0.01% to 1.00%; Ni: 0.01% to 1.00%; V: 0.005% to 0.50%; Nb: 0.001% to 0.050%; Ti: 0.0050% to 0.0500%; Zr: 0.0001% to 0.0200%; and N: 0.0060% to 0.0200% and a balance consisting of Fe and impurities, wherein 95% or more of a structure in a head surface section, which is a range from surfaces of head corner sections and a head top section of the rail as a starting point to a depth of 20 mm, is a pearlite structure, a bainite structure or a mixed structure of the pearlite structure and the bainite structure and the structure contains 20 to 200 MnS-based sulfides formed around an Al-based oxide as a nucleus and having a grain size in a range of 1 μm to 10 μm per square millimeter of an area to be inspected on a horizontal cross section of the rail. C: 0.70% to 1.20%; Si: 0.05% to 2.00%; Mn: 0.10% to 2.00%; P: 0.0200% or less; S: more than 0.0100% to 0.0250%; Al: 0.0020% to 0.0100%, and optionally, one or more of: Ca: 0.0005% to 0.0200%; REM: 0.0005% to 0.0500%; Cr: 0.01% to 2.00%; Mo: 0.01% to 0.50%; Co: 0.01% to 1.00%; B: 0.0001% to 0.0050%; Cu: 0.01% to 1.00%; Ni: 0.01% to 1.00%; V: 0.005% to 0.50%; Nb: 0.001% to 0.050%; Ti: 0.0050% to 0.0500%; Zr: 0.0001% to 0.0200%; and N: 0.0060% to 0.0200% and
An image sensor package comprising: a package substrate; an image sensor chip mounted on the package substrate; a transparent cover on the image sensor chip; an encapsulant encapsulating the image sensor chip and covering a side surface of the transparent cover, the encapsulant comprising encapsulant material; a dam on an upper surface of the image sensor chip and being along an outer portion of the upper surface of the image sensor chip, the transparent cover on the dam; a bonding wire electrically connecting a chip pad of the image sensor chip to a substrate pad of the package substrate, the dam covering a first end of the bonding wire connected to the chip pad; and a stress reducing layer covering a second end of the bonding wire connected to the substrate pad, the stress reducing layer including substantially the same material as the dam, wherein the encapsulant covers a middle portion of the bonding wire between the first end and the second end. a package substrate; an image sensor chip mounted on the package substrate; a transparent cover on the image sensor chip; an encapsulant encapsulating the image sensor chip and covering a side surface of the transparent cover, the encapsulant comprising encapsulant material; a dam on an upper surface of the image sensor chip and being along an outer portion of the upper surface of the image sensor chip, the transparent cover on the dam; a bonding wire electrically connecting a chip pad of the image sensor chip to a substrate pad of the package substrate, the dam covering a first end of the bonding wire connected to the chip pad; and a stress reducing layer covering a second end of the bonding wire connected to the substrate pad, the stress reducing layer including substantially the same material as the dam, wherein the encapsulant covers a middle portion of the bonding wire between the first end and the second end.
A method for producing a long fiber nonwoven fabric by spun-bonding characterized by carrying out the following steps (a) to (c) in sequence: a) a step of melting resin containing polyphenylene sulfide having a content of 85 mass% or more, discharging it from a spinneret, solidifying the resulting filaments by cooling, and stretching it by pulling it out of an ejector at a spinning speed of 3,000 m/min or more while heat-treating it as it travels to the ejector outlet to provide a long fiber; b) a step of collecting the long fiber on a moving net to form a nonwoven web; and c) a step of subjecting the resulting nonwoven web to thermal bonding, wherein the heat treatment in the step (a) is performed by supplying heated compressed air from an ejector, the heated compressed air having a temperature of 100 °C or more and lower than the melting point of said resin. a) a step of melting resin containing polyphenylene sulfide having a content of 85 mass% or more, discharging it from a spinneret, solidifying the resulting filaments by cooling, and stretching it by pulling it out of an ejector at a spinning speed of 3,000 m/min or more while heat-treating it as it travels to the ejector outlet to provide a long fiber; b) a step of collecting the long fiber on a moving net to form a nonwoven web; and c) a step of subjecting the resulting nonwoven web to thermal bonding,
An explosives delivery system comprising: an emulsion reservoir configured to store an emulsion comprising a discontinuous oxidizer phase and a continuous fuel phase; an inhibitor solution reservoir configured to store or form a separate inhibitor solution comprising water, an inhibitor, and a crystallization point modifier; an inhibitor solution injector fluidically connected to the emulsion reservoir and the inhibitor solution reservoir, the inhibitor solution injector configured to introduce a stream of the inhibitor solution to a stream of the emulsion; a delivery conduit fluidically connected to the inhibitor solution injector, wherein the delivery conduit is configured to convey the stream of the emulsion and the stream of the inhibitor solution, and wherein the delivery conduit is configured for insertion into a blasthole; and a mixer, wherein the mixer is configured to mix the emulsion and the inhibitor solution to form an inhibited emulsion, characterized in that the mixer is disposed proximal of an outlet of the delivery conduit. an emulsion reservoir configured to store an emulsion comprising a discontinuous oxidizer phase and a continuous fuel phase; an inhibitor solution reservoir configured to store or form a separate inhibitor solution comprising water, an inhibitor, and a crystallization point modifier; an inhibitor solution injector fluidically connected to the emulsion reservoir and the inhibitor solution reservoir, the inhibitor solution injector configured to introduce a stream of the inhibitor solution to a stream of the emulsion; a delivery conduit fluidically connected to the inhibitor solution injector, wherein the delivery conduit is configured to convey the stream of the emulsion and the stream of the inhibitor solution, and wherein the delivery conduit is configured for insertion into a blasthole; and a mixer, wherein the mixer is configured to mix the emulsion and the inhibitor solution to form an inhibited emulsion,