mhurhangee/ep-ind-claims huggingface dataset:
A motor vehicle bonnet comprising: an outer surface panel (109; 209) and an inner panel (113; 213), the outer surface panel (109; 209) being joined to the inner panel (113; 213) along an edge (121; 221) of said vehicle bonnet; and a support panel (111; 211) provided between the inner panel (113; 213) and the outer surface panel (109; 209); wherein the support panel (111; 211) comprises a first joining section (123; 223) and the inner panel (113; 213) comprises a second joining section (125; 225), the first joining section and the second joining section having complementary profiles which substantially match the profile of an adjacent section of the outer surface panel (109; 209); wherein, inset from said second joining section (125; 225), the inner panel (113; 213) diverges away from the outer surface panel (109; 209); characterised in that a fold line is formed in the outer surface panel (109, 209), and in that the profile of the support panel (111; 211) at least substantially matches the profile of the outer surface panel (109; 209) in a direction extending away from the edge of the bonnet between the second joining section (125; 225) and the fold line in the outer surface panel (109; 209). an outer surface panel (109; 209) and an inner panel (113; 213), the outer surface panel (109; 209) being joined to the inner panel (113; 213) along an edge (121; 221) of said vehicle bonnet; and a support panel (111; 211) provided between the inner panel (113; 213) and the outer surface panel (109; 209); wherein the support panel (111; 211) comprises a first joining section (123; 223) and the inner panel (113; 213) comprises a second joining section (125; 225), the first joining section and the second joining section having complementary profiles which substantially match the profile of an adjacent section of the outer surface panel (109; 209); wherein, inset from said second joining section (125; 225), the inner panel (113; 213) diverges away from the outer surface panel (109; 209); characterised in that a fold line is formed in the outer surface panel (109, 209), and in that the profile of the support panel (111; 211) at least substantially matches the profile of the outer surface panel (109; 209) in a direction extending away from the edge of the bonnet between the second joining section (125; 225) and the fold line in the outer surface panel (109; 209).
A pigment based on (multiple) coated platelet-shaped substrates comprising platelet-shaped substrate; a titanium dioxide layer; an outer layer on top of layer which is obtained by treatment with a metal oxide/hydroxide and then a phosphate ester or phosphonate or a salt thereof, wherein the metal oxide/hydroxide is selected from oxides/hydroxides of silicon (silicon oxide, silicon oxide hydrate), aluminium, zirconium, magnesium, calcium, iron, yttrium, cerium, zinc and combinations thereof; with the proviso that the phosphate ester, or phosphonate do not contain fluorine. platelet-shaped substrate; a titanium dioxide layer; an outer layer on top of layer which is obtained by treatment with a metal oxide/hydroxide and then a phosphate ester or phosphonate or a salt thereof, wherein the metal oxide/hydroxide is selected from oxides/hydroxides of silicon (silicon oxide, silicon oxide hydrate), aluminium, zirconium, magnesium, calcium, iron, yttrium, cerium, zinc and combinations thereof;
Method of quantifying an analyte in a liquid medium, which consists in placing magnetic particles in this medium, which have been functionalized by specific ligands of the analyte being quantified, in causing a magnetic field to act on the liquid medium, thereby enabling adhesion of the magnetic particles and the formation of clusters of magnetic particles, and in determining the presence and concentration of the analyte from the variation of a parameter such as the optical density of the liquid medium, for example, the value of this parameter being measured prior to application of the magnetic field, characterised in that it includes repeated cycles comprising a first phase of applying the magnetic field to the liquid medium and a second phase where the magnetic field is zero, the parameter being measured at the beginning and at the end of each cycle, the magnetic field application period during each cycle being shorter than that of the reaction between the analyte being quantified and the ligands of the magnetic particles, the method likewise consisting in calculating, on the basis of the aforesaid measurements, a limiting value for the variation in the parameter for an infinite magnetic field application time, and in deducing therefrom the concentration of the analyte in the liquid medium.
An assistance suit comprising: a main body portion configured to be attached to a back portion of a worker, and an arm portion that extends forward from the main body portion to a position beyond the worker; a wire that extends downward from the arm portion, and a hand portion that is coupled to the wire and is configured to hold a load by being held by a hand of the worker; a driving device configured to raise the hand portion by winding the wire and lower the hand portion by unwinding the wire; and a manual operation portion (23,24) that, by being operated by the worker, causes the driving device to operate, wherein the driving device is provided in the main body portion, the driving device comprises a rotating body (25,26,27,28) that is arranged extending in a right-left direction so as to be capable of rotating about a rotation axis that extends in the right-left direction and is configured to wind and unwind the wire, an electrical motor that is arranged extending in the right-left direction below the rotating body, and a transmission mechanism that is arranged extending in an up-down direction and spans between an end portion of the electrical motor on an output shaft side and a right or left end portion of the rotating body that is on the output shaft side, and motive power from the electrical motor is transmitted to the rotating body via the transmission mechanism, and the rotating body is thus driven to rotate in a winding direction and an unwinding direction. a main body portion configured to be attached to a back portion of a worker, and an arm portion that extends forward from the main body portion to a position beyond the worker; a wire that extends downward from the arm portion, and a hand portion that is coupled to the wire and is configured to hold a load by being held by a hand of the worker; a driving device configured to raise the hand portion by winding the wire and lower the hand portion by unwinding the wire; and a manual operation portion (23,24) that, by being operated by the worker, causes the driving device to operate, wherein the driving device is provided in the main body portion, the driving device comprises a rotating body (25,26,27,28) that is arranged extending in a right-left direction so as to be capable of rotating about a rotation axis that extends in the right-left direction and is configured to wind and unwind the wire, an electrical motor that is arranged extending in the right-left direction below the rotating body, and a transmission mechanism that is arranged extending in an up-down direction and spans between an end portion of the electrical motor on an output shaft side and a right or left end portion of the rotating body that is on the output shaft side, and motive power from the electrical motor is transmitted to the rotating body via the transmission mechanism, and the rotating body is thus driven to rotate in a winding direction and an unwinding direction.
A computer-implemented method for embedding information in a video signal, the method comprising: receiving a message including the information; dividing the message in a first message part and a second message part; acquiring a first video frame and a second video frame from the video signal, the video frames (9, 10) each including a pre-set number of pixels, wherein the second video frame is temporally subsequent to the first video frame; determining a motion map associated with the second video frame, wherein the motion map indicates a movement of each of the pixels of the second video frame compared to the first video frame; embedding the first message part in the pixels of the second video frame including weighting the first message part for each pixel of the second video frame based on the motion map; and embedding the second message part in the pixels of the second video frame including weighting the second message part for each pixel of the second video frame based on an inverse of the motion map, wherein determining the motion map comprises calculating a motion vector for each pixel, calculating a magnitude of each motion vector and normalizing the magnitude to a value between 0 and 1. receiving a message including the information; dividing the message in a first message part and a second message part; acquiring a first video frame and a second video frame from the video signal, the video frames (9, 10) each including a pre-set number of pixels, wherein the second video frame is temporally subsequent to the first video frame; determining a motion map associated with the second video frame, wherein the motion map indicates a movement of each of the pixels of the second video frame compared to the first video frame; embedding the first message part in the pixels of the second video frame including weighting the first message part for each pixel of the second video frame based on the motion map; and embedding the second message part in the pixels of the second video frame including weighting the second message part for each pixel of the second video frame based on an inverse of the motion map, wherein determining the motion map comprises calculating a motion vector for each pixel, calculating a magnitude of each motion vector and normalizing the magnitude to a value between 0 and 1.
A method of operating a hydrocyclone comprising a separation chamber which in use is arranged to generated an internal air core for affecting a material separation process, the method comprising: - measuring a stability parameter of the internal air core during operation of the hydrocyclone, the stability parameter measurement being taken using a stability measurement sensor which is in fluid contact with the internal air core; - comparing the measurements with one or more predefined corresponding stability parameters of the hydrocyclone; and - adjusting an operational parameter of the hydrocyclone in response to determining that the measurements are indicative of a departure from stable operation, based on the comparison. - measuring a stability parameter of the internal air core during operation of the hydrocyclone, the stability parameter measurement being taken using a stability measurement sensor which is in fluid contact with the internal air core; - comparing the measurements with one or more predefined corresponding stability parameters of the hydrocyclone; and - adjusting an operational parameter of the hydrocyclone in response to determining that the measurements are indicative of a departure from stable operation, based on the comparison.
A method of ex-vivo expanding adult islet beta cells comprising: (a) trypsinizing adult islet beta cells to generate trypsinized adult islet beta cells; and (b) incubating said trypsinized adult islet beta cells in a CMRL-1066 medium comprising glucose, thereby ex-vivo expanding the adult islet beta cells. (a) trypsinizing adult islet beta cells to generate trypsinized adult islet beta cells; and (b) incubating said trypsinized adult islet beta cells in a CMRL-1066 medium comprising glucose, thereby ex-vivo expanding the adult islet beta cells.
An aerodynamic device suitable to be fastened under and to extend downwards from a vehicle having a longitudinal axis, a front face and two side faces, near the vehicle front face, characterized in that the aerodynamic device comprises: - one central spoiler having a front wall and two side walls extending rearwards from the front wall side ends; - two lateral spoilers, each lateral spoiler having a front wall as well as an outer side wall and an inner side wall each extending rearwards from a front wall side end; wherein, in the operative position of the aerodynamic device, the inner side wall of each lateral spoiler substantially faces a corresponding side wall of the central spoiler and forms a channel having a substantially longitudinal axis and having a width - along a transverse direction - which decreases from its front end to its rear end, so that said channel is capable of canalizing and accelerating air flowing under the vehicle substantially longitudinally from the channel front end towards its rear end. - one central spoiler having a front wall and two side walls extending rearwards from the front wall side ends; - two lateral spoilers, each lateral spoiler having a front wall as well as an outer side wall and an inner side wall each extending rearwards from a front wall side end;
A method of communication, comprising: determining a radio frequency, RF, exposure limit corresponding to a beam configuration for a first apparatus; determining a power headroom limit for the first apparatus based on the RF exposure limit corresponding to the beam configuration for the first apparatus; generating an indication of whether the power headroom limit is constrained by the radio frequency, RF, exposure limit; determining a radio frequency, RF, exposure detection range of the first apparatus; sending (506, 604) the power headroom limit, the indication of whether the power headroom limit is constrained by the RF exposure limit and an indication of the RF exposure detection range to a second apparatus; receiving a schedule based on the power headroom limit, the indication of whether the power headroom limit is constrained by the RF exposure limit and the indication of the RF exposure detection range from the second apparatus, wherein the schedule specifies a fraction of time the first apparatus is to transmit to meet the RF exposure limit; and communicating with the second apparatus according to the schedule. determining a radio frequency, RF, exposure limit corresponding to a beam configuration for a first apparatus; determining a power headroom limit for the first apparatus based on the RF exposure limit corresponding to the beam configuration for the first apparatus; generating an indication of whether the power headroom limit is constrained by the radio frequency, RF, exposure limit; determining a radio frequency, RF, exposure detection range of the first apparatus; sending (506, 604) the power headroom limit, the indication of whether the power headroom limit is constrained by the RF exposure limit and an indication of the RF exposure detection range to a second apparatus; receiving a schedule based on the power headroom limit, the indication of whether the power headroom limit is constrained by the RF exposure limit and the indication of the RF exposure detection range from the second apparatus, wherein the schedule specifies a fraction of time the first apparatus is to transmit to meet the RF exposure limit; and communicating with the second apparatus according to the schedule.
A method of labelling a plurality of molecular targets from a plurality of entities while preserving the integrity of the single-entity information, said method comprising providing a first set of emulsion droplets comprising droplets containing labelled molecular targets, wherein each of these droplets contains a plurality of molecular targets originating from no more than one entity and wherein, in each of these droplets, each molecular target is labelled with a molecular identification DNA sequence comprising (i) a unique molecular identification barcode which is different for each molecular target and (ii) an overhang or an overhang producing restriction site,; providing a second set of emulsion droplets comprising droplets containing entity identification sequences, wherein each of these droplets contains at least one entity identification sequence which is a DNA sequence comprising a unique entity identification barcode which is different for each droplet of the second set, and an overhang producing restriction site; fusing droplets of the first set with droplets of the second set wherein a droplet of the first set is fused with no more than one droplet of the second set; and ligating UEI barcodes to labelled molecular targets after restriction enzyme digestion, and optionally breaking the emulsion, wherein the entity is a cell, a particle or an emulsion droplet.
Device for feeding a converting unit with a web substrate, the converting unit converting the substrate when stopped, comprising: - a main drive roller rotating on a main shaft, - a main electric drive motor rotating the main roller, - a planetary roller able to oscillate about said main roller, from upstream to downstream, and vice versa, and - two lateral levers holding the planetary roller, and mounted on said main shaft, the substrate being engaged and maintained between said main roller and said planetary roller, and changing cyclically from a constant speed to a zero speed at the exit of the planetary roller, and vice versa, characterized in that the two lateral levers are joined to said main shaft, and in that it comprises at least one secondary electric drive motor able to oscillate the main shaft, the two lateral levers and the planetary roller. - a main drive roller rotating on a main shaft, - a main electric drive motor rotating the main roller, - a planetary roller able to oscillate about said main roller, from upstream to downstream, and vice versa, and - two lateral levers holding the planetary roller, and mounted on said main shaft, the substrate being engaged and maintained between said main roller and said planetary roller, and changing cyclically from a constant speed to a zero speed at the exit of the planetary roller, and vice versa, characterized in that the two lateral levers are joined to said main shaft, and in that it comprises at least one secondary electric drive motor able to oscillate the main shaft, the two lateral levers and the planetary roller.
A fuel system for feeding liquid gas fuel to an internal combustion piston engine the system comprising one or more fuel injectors in the internal combustion engine configured to inject liquid gas fuel into the engine, a fuel inlet line extending from a fuel tank via a high pressure pump to the one or more injectors, and a fuel return line connected to the one or more injectors of the internal combustion engine for handling a so called return fuel from the one or more injectors, characterized in that the fuel return line comprises - a separation unit configured to separate gaseous and liquid portions of the return fuel, - a first return line section (30.1) configured to return liquid portion of the return fuel from the separation unit for use in the high pressure pump, - a second return line section (30.2) configured to direct the gaseous portion of the return fuel to an air intake system of the internal combustion engine to be fed to the engine with the charge air. - a separation unit configured to separate gaseous and liquid portions of the return fuel, - a first return line section (30.1) configured to return liquid portion of the return fuel from the separation unit for use in the high pressure pump, - a second return line section (30.2) configured to direct the gaseous portion of the return fuel to an air intake system of the internal combustion engine to be fed to the engine with the charge air.
A packaging machine for wrapping products in respective sheets of heat-seal wrapping material, the machine comprising wrapping means for forming a tubular wrapping from a continuous web of heat-seal material, and for feeding products successively into the tubular wrapping, each product being located between two free tubular portions of said tubular wrapping; and sealing and feed means comprising at least two pairs of sealing devices (12, 13), the sealing devices (12, 13) in each pair of sealing devices (12, 13) being movable along a sealing path to feed a respective said product along the sealing path at a variable travelling speed, and perform a respective sealing operation on a respective said tubular portion; characterized by comprising actuating means for advancing each sealing device (12, 13) independently of the other sealing devices.
An electric power steering device that is configured to assist a steering force applied to a steering wheel by a driver with a rotation torque from an electric motor, comprising: a steering shaft that is coupled to the steering wheel; an output shaft that is coupled to the steering shaft via a torsion bar; a torque sensor configured to detect a steering torque that acts on the torsion bar; a sensor case to which a magnetic material (51, 52), which is a component of the torque sensor, is fixed; an upper column tube that rotatably supports the steering shaft; and a lower column tube that is movable relative to the upper column tube, characterized in that the lower column tube and the sensor case are configured as an integrated part made of a resin material. a steering shaft that is coupled to the steering wheel; an output shaft that is coupled to the steering shaft via a torsion bar; a torque sensor configured to detect a steering torque that acts on the torsion bar; a sensor case to which a magnetic material (51, 52), which is a component of the torque sensor, is fixed; an upper column tube that rotatably supports the steering shaft; and a lower column tube that is movable relative to the upper column tube, characterized in that the lower column tube and the sensor case are configured as an integrated part made of a resin material.