mhurhangee/patent-ind-claim-en huggingface dataset:
A method of performing a marine seismic survey, the method comprising: towing a streamer behind a survey vessel in a body of water , wherein the streamer includes a plurality of geophysical sensors and a plurality of orientation sensor packages , wherein each orientation sensor package comprises a magnetometer; acquiring vectorised geophysical data using the plurality of geophysical sensors ; and using a recording system to: receive orientation data from the plurality of orientation sensor packages , said orientation data being acquired by the magnetometers in the orientation sensor packages; filter the orientation data from each magnetometer with a low pass filter to obtain low-frequency orientation data; use only the low-frequency orientation data to determine an instantaneous roll angle of the streamer at different positions on the streamer, wherein the instantaneous roll angle of the streamer is determined relative to a vertical direction; and adjust the vectorised geophysical data to compensate for the instantaneous roll angle of the streamer at different positions on the streamer. towing a streamer behind a survey vessel in a body of water , wherein the streamer includes a plurality of geophysical sensors and a plurality of orientation sensor packages , wherein each orientation sensor package comprises a magnetometer; acquiring vectorised geophysical data using the plurality of geophysical sensors ; and using a recording system to: receive orientation data from the plurality of orientation sensor packages , said orientation data being acquired by the magnetometers in the orientation sensor packages; filter the orientation data from each magnetometer with a low pass filter to obtain low-frequency orientation data; use only the low-frequency orientation data to determine an instantaneous roll angle of the streamer at different positions on the streamer, wherein the instantaneous roll angle of the streamer is determined relative to a vertical direction; and adjust the vectorised geophysical data to compensate for the instantaneous roll angle of the streamer at different positions on the streamer. receive orientation data from the plurality of orientation sensor packages , said orientation data being acquired by the magnetometers in the orientation sensor packages; filter the orientation data from each magnetometer with a low pass filter to obtain low-frequency orientation data; use only the low-frequency orientation data to determine an instantaneous roll angle of the streamer at different positions on the streamer, wherein the instantaneous roll angle of the streamer is determined relative to a vertical direction; and adjust the vectorised geophysical data to compensate for the instantaneous roll angle of the streamer at different positions on the streamer.
Earth station transmitter device arranged for generating a signal to be transmitted to a plurality of earth station receiver devices of a satellite communication system, said earth station transmitter device comprising - a plurality of shaping means , each arranged for shaping for data traffic to a different subset of earth station receiver devices a symbol rate, so obtaining for each subset a group of time slices outputting at said symbol rate for said group a plurality of baseband frames for said group, and for encapsulating said data traffic, - a modulator comprising a time slice selector arranged for receiving and storing said groups of time slices outputted by said plurality of shaping means, for selecting a stored baseband frame of a group of time slices from a list of allowable groups of time slices as next frame to be multiplexed on a single stream, and for assigning to said selected baseband frame from a list of allowable time slice numbers, a time slice number associated to the group of time slices to which said selected baseband frame belongs, said modulator further comprising encoding and modulation means to convert said single stream consisting of baseband frames into symbols of a continuous physical carrier to be transmitted at a physical carrier symbol rate greater than or equal to the sum of said symbol rates of said groups of slices, - a central unit arranged for conveying to each shaping means of said plurality the symbol rate of its group of time slices and for conveying to said modulator a list of possible time slice numbers for each of said groups of time slices. - a plurality of shaping means , each arranged for shaping for data traffic to a different subset of earth station receiver devices a symbol rate, so obtaining for each subset a group of time slices outputting at said symbol rate for said group a plurality of baseband frames for said group, and for encapsulating said data traffic, - a modulator comprising a time slice selector arranged for receiving and storing said groups of time slices outputted by said plurality of shaping means, for selecting a stored baseband frame of a group of time slices from a list of allowable groups of time slices as next frame to be multiplexed on a single stream, and for assigning to said selected baseband frame from a list of allowable time slice numbers, a time slice number associated to the group of time slices to which said selected baseband frame belongs, said modulator further comprising encoding and modulation means to convert said single stream consisting of baseband frames into symbols of a continuous physical carrier to be transmitted at a physical carrier symbol rate greater than or equal to the sum of said symbol rates of said groups of slices, - a central unit arranged for conveying to each shaping means of said plurality the symbol rate of its group of time slices and for conveying to said modulator a list of possible time slice numbers for each of said groups of time slices.
A measuring device comprising a comb signal generator , wherein the comb signal generator comprises a signal generator , adapted to successively generate a plurality of continuous wave signals , wherein the comb signal generator is adapted to successively generate a comb signal from each continuous wave signal of the plurality of continuous wave signals , wherein each of the comb signals has a comb signal bandwidth, wherein the comb signal generator comprises a modulator , adapted to successively modulate each of said continuous wave signals of the plurality of continuous wave signals with a control signal , whereby generating the comb signals, wherein the measuring device comprises at least one measuring path connected to at least one measuring port , and wherein the signal generator of the comb signal generator is adapted to generate measuring signals within the at least one measuring path. wherein the comb signal generator comprises a signal generator , adapted to successively generate a plurality of continuous wave signals , wherein the comb signal generator is adapted to successively generate a comb signal from each continuous wave signal of the plurality of continuous wave signals , wherein each of the comb signals has a comb signal bandwidth, wherein the comb signal generator comprises a modulator , adapted to successively modulate each of said continuous wave signals of the plurality of continuous wave signals with a control signal , whereby generating the comb signals, wherein the measuring device comprises at least one measuring path connected to at least one measuring port , and wherein the signal generator of the comb signal generator is adapted to generate measuring signals within the at least one measuring path.
A system for introducing a surgical instrument through a tissue lumen, the system comprising: a cone capable of navigating the surgical instrument through a tissue lumen, wherein said cone engages the distal end of the surgical instrument and wherein said cone comprises a conical body having a proximal end and a distal end , wherein said conical body tapers from the proximal end to the distal end to facilitate insertion of the cone through the tissue lumen, wherein the conical body contains an axial bore , wherein said axial bore extends longitudinally through said cone and receives an anvil retainer , characterized in that the cone comprises a collar , wherein said collar defines a cavity , wherein said cavity is configured to receive the distal end of the surgical instrument.
Method for producing a bent part from insulated flat material which has a flat electrically conducting carrier material which is sheathed by an electrically insulating insulation layer, wherein the insulated flat material is fed from a material supply to a bending machine , in the bending machine is formed to a two-dimensionally or three-dimensionally bent part bent from insulated flat material, the bent part in a cutting operation is severed from the fed insulated flat material, and in at least one portion of the insulated flat material, a part of the insulation layer is removed from the electrically conducting carrier material in an insulation-stripping operation, characterized in that the insulation-stripping operation is carried out prior to the severing of the bent part from the fed flat material on the flat material guided in the bending machine by means of an insulation-stripping installation that is integrated in the bending machine by a continuous method on the flat material running through the insulation-stripping installation. the insulated flat material is fed from a material supply to a bending machine , in the bending machine is formed to a two-dimensionally or three-dimensionally bent part bent from insulated flat material, the bent part in a cutting operation is severed from the fed insulated flat material, and in at least one portion of the insulated flat material, a part of the insulation layer is removed from the electrically conducting carrier material in an insulation-stripping operation, characterized in that the insulation-stripping operation is carried out prior to the severing of the bent part from the fed flat material on the flat material guided in the bending machine by means of an insulation-stripping installation that is integrated in the bending machine by a continuous method on the flat material running through the insulation-stripping installation.
A compound of formula (I): wherein R 1 is selected from H, C 1 -C 6 alkyl, halogen, CF 3 and -O-C 1 -C 6 alkyl.
An actuator assembly for an oil, gas or water well, comprising: a fixed member having an axis; an actuating member being moveable axially with respect to the fixed member ; a plurality of open-ended recesses on one of the fixed member and the actuating member wherein each recess at least partially houses a canted coil spring ; and a radially extending shoulder on the other of the fixed member and the actuating member adapted to engage a canted coil spring housed within a recess ; and a support member adapted to cover open ends of the recesses and being moveable axially into different axial positions with respect to the recesses to uncover open ends of different recesses in the different axial positions of the support member . a fixed member having an axis; an actuating member being moveable axially with respect to the fixed member ; a plurality of open-ended recesses on one of the fixed member and the actuating member wherein each recess at least partially houses a canted coil spring ; and a radially extending shoulder on the other of the fixed member and the actuating member adapted to engage a canted coil spring housed within a recess ; and a support member adapted to cover open ends of the recesses and being moveable axially into different axial positions with respect to the recesses to uncover open ends of different recesses in the different axial positions of the support member .
A pouch machine with an insert crush station configured to receive an insert and a substrate , characterized in that the insert crush station is configured to crush the insert and the substrate using at least two of a pre-crush heating phase wherein the insert is heated before applying crush pressure, a controlled crushing phase wherein the insert is crushed using controlled crush rate and pressure, and a crushing phase wherein the insert is heated to obtain molecular relaxation and without additional crush pressure to allow displaced molecules to relax and/or to reduce intermolecular strain.
A display panel , comprising: a display substrate configured to form a display content; a touch screen disposed above the display substrate and configured to present the display content; a supplementary light module disposed between the display substrate and the touch screen and comprising: a plurality of light emitting elements disposed on the display substrate and configured to provide supplementary light; and a light guide element disposed between the light emitting elements and the touch screen , surrounding four sides of the touch screen , and configured to guide the supplementary light to the touch screen , wherein the light emitting elements are disposed at four corners of the light guide element ; a first adhesive member disposed between the light guide element and the touch screen and configured to bond the light guide element and the touch screen ; and a second adhesive member covering the light emitting elements , surrounding four sides of the light guide element , and configured to bond the light emitting elements to the display substrate and the light guide element , wherein the light emitting elements are disposed inside the second adhesive member . a display substrate configured to form a display content; a touch screen disposed above the display substrate and configured to present the display content; a supplementary light module disposed between the display substrate and the touch screen and comprising: a plurality of light emitting elements disposed on the display substrate and configured to provide supplementary light; and a light guide element disposed between the light emitting elements and the touch screen , surrounding four sides of the touch screen , and configured to guide the supplementary light to the touch screen , wherein the light emitting elements are disposed at four corners of the light guide element ; a plurality of light emitting elements disposed on the display substrate and configured to provide supplementary light; and a light guide element disposed between the light emitting elements and the touch screen , surrounding four sides of the touch screen , and configured to guide the supplementary light to the touch screen , wherein the light emitting elements are disposed at four corners of the light guide element ; a first adhesive member disposed between the light guide element and the touch screen and configured to bond the light guide element and the touch screen ; and a second adhesive member covering the light emitting elements , surrounding four sides of the light guide element , and configured to bond the light emitting elements to the display substrate and the light guide element , wherein the light emitting elements are disposed inside the second adhesive member .
Underwater vehicle, wherein the underwater vehicle has an X-rudder, wherein the X-rudder has a first, a second, a third and a fourth rudder blade , wherein the rudder has a first group with the first and second rudder blades , and a second group with the third and fourth rudder blades , wherein the first group and the second group are arranged offset in the longitudinal direction of the underwater vehicle, wherein the first group and the second group are arranged adjacent to one another in the longitudinal direction of the underwater vehicle.
An aqueous inkjet ink for forming a colour upon heat treatment containing: a) an immobilized leuco dye; b) a colour developing agent or colour developing agent precursor; and c) an opthothermal converting agent; wherein the leuco dye is immobilized by being covalently bonded to polymeric particles or by being included in the core of capsules composed of a polymeric shell surrounding a core. a) an immobilized leuco dye; b) a colour developing agent or colour developing agent precursor; and c) an opthothermal converting agent; wherein the leuco dye is immobilized by being covalently bonded to polymeric particles or by being included in the core of capsules composed of a polymeric shell surrounding a core.
A catalyst composition comprising a cation and an anion of Formula I: A n q- Q p m+ (I) wherein m, n, p, and q are positive integers, wherein m ∗ p = n ∗ q, wherein Q m+ is an organo onium, and A q- is an anion, provided that at least one A q- is selected from Formula II: wherein each R independently is H, halo, alkyl, aryl, aralkyl, or cycloalkyl, and which also may be halogenated, fluorinated, or perfluorinated, wherein two or more of R and R' groups may together form a ring, wherein each R group independently may contain one or more heteroatom(s), wherein R' can be the same as R, with the proviso that R' cannot be halo, wherein the catalyst composition contains less than 5 wt% of hydrocarbon containing alcohol based on the total weight of the catalyst composition.
Secure smartcard reader comprising: - a smartcard connector; characterized by - a flexible printed circuit board wrapped around and at least partially surrounding the smartcard connector and at least partially defining a security volume enclosing the smartcard connector, the wrapped flexible printed circuit board (302,...) comprising at least an inner and an outer conductive layer ; - the wrapped flexible printed circuit board (302, ...) comprising, on the outer conductive layer (346,...), a plurality of keypad contacts; - the inner conductive layer including electrical conductors connecting the plurality of keypad contacts to connector pads ; and - the outer conductive layer including a protective anti-tamper mesh , protecting the electrical conductors (365,...). - a smartcard connector; - a flexible printed circuit board wrapped around and at least partially surrounding the smartcard connector and at least partially defining a security volume enclosing the smartcard connector, the wrapped flexible printed circuit board (302,...) comprising at least an inner and an outer conductive layer ; - the wrapped flexible printed circuit board (302, ...) comprising, on the outer conductive layer (346,...), a plurality of keypad contacts; - the inner conductive layer including electrical conductors connecting the plurality of keypad contacts to connector pads ; - the outer conductive layer including a protective anti-tamper mesh , protecting the electrical conductors (365,...).
An energy storage system comprising: a particle regeneration subsystem for applying electrical energy to regenerate metallic particulate fuel, the particle regeneration subsystem comprising one or more regenerator stacks that, when electrical energy is applied, regenerate the metallic particulate fuel and produce a gaseous effluent; a fuel storage subsystem for storing metallic particulate fuel, the fuel storage subsystem in fluid communication with the particle regeneration subsystem; and a power generation subsystem for producing electrical energy from the metallic particulate fuel, the power generation subsystem in fluid communication with the fuel storage subsystem; a bearer electrolyte for transporting the metallic particulate fuel through the particle regeneration subsystem, the fuel storage subsystem and the power generation subsystem; a control unit configured to independently control flow of the bearer electrolyte between the particle regeneration subsystem and the fuel storage subsystem, and the fuel storage subsystem and the power generation subsystem; one or more intermediate tanks in fluid communication between the one or more regenerator stacks and the fuel storage subsystem, the one or more intermediate tanks being configured to release the gaseous effluent into the atmosphere. a particle regeneration subsystem for applying electrical energy to regenerate metallic particulate fuel, the particle regeneration subsystem comprising one or more regenerator stacks that, when electrical energy is applied, regenerate the metallic particulate fuel and produce a gaseous effluent; a fuel storage subsystem for storing metallic particulate fuel, the fuel storage subsystem in fluid communication with the particle regeneration subsystem; and a power generation subsystem for producing electrical energy from the metallic particulate fuel, the power generation subsystem in fluid communication with the fuel storage subsystem; a bearer electrolyte for transporting the metallic particulate fuel through the particle regeneration subsystem, the fuel storage subsystem and the power generation subsystem; a control unit configured to independently control flow of the bearer electrolyte between the particle regeneration subsystem and the fuel storage subsystem, and the fuel storage subsystem and the power generation subsystem; one or more intermediate tanks in fluid communication between the one or more regenerator stacks and the fuel storage subsystem, the one or more intermediate tanks being configured to release the gaseous effluent into the atmosphere.
A polypropylene composition comprising a blend of (a) a propylene copolymer comprising 2.5 to 12.0 wt%, based on the weight of the propylene copolymer, of 1-hexene as a comonomer, and having a melt flow rate MFR 2 of 0.1 to 100 g/10 min as determined at a temperature of 230 °C and a load of 2.16 kg, and (b) an ethylene homo- or copolymer having a melt flow rate MFR 2 of 0.05 to 30.0 g/10 min as determined at a temperature of 190 °C and a load of 2.16 kg and a density of 850 to 920 kg/m 3 , wherein the ethylene copolymer comprised by the ethylene homo- or copolymer is an ethylene 1-octene copolymer, wherein the melt flow rate MFR 2 of the polypropylene composition is from 1.0 to 12.0 g/10 min as determined at a temperature of 230 °C and a load of 2.16 kg. (a) a propylene copolymer comprising 2.5 to 12.0 wt%, based on the weight of the propylene copolymer, of 1-hexene as a comonomer, and having a melt flow rate MFR 2 of 0.1 to 100 g/10 min as determined at a temperature of 230 °C and a load of 2.16 kg, and (b) an ethylene homo- or copolymer having a melt flow rate MFR 2 of 0.05 to 30.0 g/10 min as determined at a temperature of 190 °C and a load of 2.16 kg and a density of 850 to 920 kg/m 3 , wherein the ethylene copolymer comprised by the ethylene homo- or copolymer is an ethylene 1-octene copolymer,
A method for manufacturing a heat resistant resin composition, the method comprising: a melt-kneading step to melt and knead a maleimide-based copolymer (A) and at least one resin (B) selected from the group consisting of ABS resin, ASA resin, AES resin, and SAN resin with an extruder; wherein: a ratio of a melt viscosity of the maleimide-based copolymer (A) with respect to a melt viscosity of the resin (B) is 1.0 or higher and lower than 3.4, wherein the melt viscosity is measured using a capillary rheometer with a capillary die of L=40 mm and D=1 mm, at a shear rate of 120/sec at the cylinder temperature of the kneading unit of the extruder, and the cylinder temperature of the kneading unit is 220 to 330 °C, characterized in that the melt-kneading step is performed in presence of an antioxidant (C) containing a hindered phenol-based antioxidant. a ratio of a melt viscosity of the maleimide-based copolymer (A) with respect to a melt viscosity of the resin (B) is 1.0 or higher and lower than 3.4, wherein the melt viscosity is measured using a capillary rheometer with a capillary die of L=40 mm and D=1 mm, at a shear rate of 120/sec at the cylinder temperature of the kneading unit of the extruder, and the cylinder temperature of the kneading unit is 220 to 330 °C, characterized in that the melt-kneading step is performed in presence of an antioxidant (C) containing a hindered phenol-based antioxidant.