mhurhangee/patent-ind-claim-en huggingface dataset:
Monitoring system with a strand-form material , which comprises an internal structure along which a failure sensor system extends, with a capacitor , which comprises two electrodes , and with an inductance , which is formed by a conductor that is electrically connected to one of the electrodes in such way that a series resonant circuit is formed characterized in that the two electrodes are each designed as a shielding layer and completely enclose the internal structure.
An electronic device comprising: a housing comprising: a front plate facing a first direction, a rear plate facing a second direction opposite to the first direction, and a lateral member surrounding a space between the front plate and the rear plate; a display configured to be seen through at least a portion of the front plate , the display characterized in that it comprises: a first surface facing the first direction, and a second surface facing the second direction; a middle plate disposed between the display and the rear plate, the middle plate comprising: a third surface facing the second surface of the display , and a recess formed on the third surface; an adhesive layer attached to the second surface of the display ; a support layer disposed between the adhesive layer and the middle plate ; and a coating layer , wherein the coating layer is disposed between the support layer and the adhesive layer , and wherein the coating layer is disposed in a first portion overlapped with the recess . a front plate facing a first direction, a rear plate facing a second direction opposite to the first direction, and a lateral member surrounding a space between the front plate and the rear plate; a display configured to be seen through at least a portion of the front plate , the display characterized in that it comprises: a first surface facing the first direction, and a second surface facing the second direction; a middle plate disposed between the display and the rear plate, the middle plate comprising: a third surface facing the second surface of the display , and a recess formed on the third surface; an adhesive layer attached to the second surface of the display ; a support layer disposed between the adhesive layer and the middle plate ; and a coating layer , wherein the coating layer is disposed between the support layer and the adhesive layer , and wherein the coating layer is disposed in a first portion overlapped with the recess . a first surface facing the first direction, and a second surface facing the second direction; a middle plate disposed between the display and the rear plate, the middle plate comprising: a third surface facing the second surface of the display , and a recess formed on the third surface; an adhesive layer attached to the second surface of the display ; a support layer disposed between the adhesive layer and the middle plate ; and a coating layer , wherein the coating layer is disposed between the support layer and the adhesive layer , and wherein the coating layer is disposed in a first portion overlapped with the recess . a third surface facing the second surface of the display , and a recess formed on the third surface; an adhesive layer attached to the second surface of the display ; a support layer disposed between the adhesive layer and the middle plate ; and a coating layer , wherein the coating layer is disposed between the support layer and the adhesive layer , and wherein the coating layer is disposed in a first portion overlapped with the recess .
Commercial vehicle chassis on which at least one axle of the commercial vehicle is mounted and which comprises at least one longitudinal member and at least one auxiliary longitudinal member , each of which extends in the longitudinal direction (RL) of the commercial vehicle , characterised in that the commercial vehicle chassis comprises at least one transverse member aligned transversely to the longitudinal direction (RL) of the commercial vehicle , which are firmly connected to the longitudinal member and on which the auxiliary longitudinal member is supported, wherein the auxiliary longitudinal member is formed as a sheet metal profile open towards the transverse member .
A polymer P obtained by radical copolymerization of a mixture of : - acrylic acid ; - methacrylic acid ; and - at least one allylcatechol which is selected from 4-allylbenzene-1,2-diol ; 3-allylbezene-1,2-diol, having the formulae below, and mixtures thereof - acrylic acid ; - methacrylic acid ; and - at least one allylcatechol which is selected from 4-allylbenzene-1,2-diol ; 3-allylbezene-1,2-diol, having the formulae below, and mixtures thereof
A device for atomizing energized fluids, comprising a vertical support which supports two or more discs , with increasing diameters, and, at the upper end, a circular diffuser for atomizing said fluids which have been previously treated using means for receiving electromagnetic energy, said vertical support being constituted by a hollow tubular element, which is connected at the base to a plate that is circular in plan for anchoring to the ground, said support having, proximate to said plate , a first opening which accommodates a flexible conduit for feeding said energized fluids, the terminal end of said conduit is associated hermetically at a hollow sleeve connected to said diffuser , so as to introduce therein said energized fluids, which are introduced into the atmosphere in atomized form by means of nozzles which are associated with said diffuser and protrude upward.
A method of exposing a holographic recording medium, comprising the steps of: providing a solid-state laser configured to output a laser beam having a nominal emission wavelength; splitting the laser beam into first and second exposure beams to form a path length difference and a first interference fringe pattern in the recording medium during an exposure period; varying the nominal emission wavelength of the laser in accordance with a wavelength-time profile to reduce an effective coherence length of the laser as integrated over the exposure period, wherein the nominal emission wavelength of the laser is varied by adjusting a temperature set-point of a resonant cavity optical bench of the laser ; setting the path length difference between the first and second exposure beam to match a path-length-difference point in the holographic recording medium with maximum fringe contrast and keeping the fringe pattern phase-locked at that path-length-difference point; and maintaining the first interference fringe pattern phase-locked at a position of maximum contrast while the holographic recording medium is being exposed throughout the entire emission wavelength variation. providing a solid-state laser configured to output a laser beam having a nominal emission wavelength; splitting the laser beam into first and second exposure beams to form a path length difference and a first interference fringe pattern in the recording medium during an exposure period; varying the nominal emission wavelength of the laser in accordance with a wavelength-time profile to reduce an effective coherence length of the laser as integrated over the exposure period, wherein the nominal emission wavelength of the laser is varied by adjusting a temperature set-point of a resonant cavity optical bench of the laser ; setting the path length difference between the first and second exposure beam to match a path-length-difference point in the holographic recording medium with maximum fringe contrast and keeping the fringe pattern phase-locked at that path-length-difference point; and maintaining the first interference fringe pattern phase-locked at a position of maximum contrast while the holographic recording medium is being exposed throughout the entire emission wavelength variation.
Apparatus for refilling an implantable device having a drug chamber, the apparatus comprising: a plurality of reservoirs ; a plurality of reservoir fluid channels each associated with one of the reservoirs; an outlet fluid channel fluidically connected to the reservoir fluid channels; a plurality of valves , each having a cracking pressure, for fluidically sealing the reservoir fluid channels and the outlet fluid channel; at least one sensor for monitoring pressure in the reservoir fluid channels and the outlet fluid channel; at least one actuation mechanism; a needle having a lumen in fluid communication with the outlet fluid channel, the needle being configured for insertion into a drug-delivery port of an implantable medical device; characterised in that , it further comprises a controller configured to actuate at least one pump and various ones of the valves in accordance with a protocol comprising a sequence of steps whereby fluidic pathways are opened between different ones of the reservoirs and the needle in a washing and filling sequence, each of the steps being associated with an expected pressure level. a plurality of reservoirs ; a plurality of reservoir fluid channels each associated with one of the reservoirs; an outlet fluid channel fluidically connected to the reservoir fluid channels; a plurality of valves , each having a cracking pressure, for fluidically sealing the reservoir fluid channels and the outlet fluid channel; at least one sensor for monitoring pressure in the reservoir fluid channels and the outlet fluid channel; at least one actuation mechanism; a needle having a lumen in fluid communication with the outlet fluid channel, the needle being configured for insertion into a drug-delivery port of an implantable medical device; characterised in that , it further comprises a controller configured to actuate at least one pump and various ones of the valves in accordance with a protocol comprising a sequence of steps whereby fluidic pathways are opened between different ones of the reservoirs and the needle in a washing and filling sequence, each of the steps being associated with an expected pressure level.
A rare earth cold accumulating material particle comprising a rare earth oxide or a rare earth oxysulfide, wherein the rare earth cold accumulating material particle is composed of a sintered body; an average crystal grain size of the sintered body is 0.5 to 5 μm; a porosity of the sintered body is 10 to 50 vol.%; an average pore size of the sintered body is 0.3 to 3 μm; a maximum pore size is 4 μm or less; in an arbitrary cross section of the rare earth cold accumulating material particle , a number of pores per unit area of 10 μm × 10 μm is 20 to 70; and the rare earth cold accumulating material particle has an average particle size of 100 to 500 μm.
A waveguide comprising: a sequence of variable transparency segments , wherein each variable transparency segment of the sequence of variable transparency segments is configured to vary its transparency by the Electromagnetically Induced Transparency, EIT, effect and further vary its transparency in response to an incident electromagnetic field; and a plurality of separator segments interspersed within the sequence of variable transparency segments so that each variable transparency segment : has a first separation distance from a first other variable transparency segment , the waveguide characterised in that the first separation distance is a first predetermined number of variable transparency segments preceding or succeeding in the sequence of variable transparency segments , the waveguide further characterised in that each variable transparency segment : has a second separation distance from a second other variable transparency segment being a second predetermined number of variable transparency segments preceding or succeeding in the sequence of variable transparency segments , and is uniquely identified by a combination of separation distances comprising its first and second separation distances. a sequence of variable transparency segments , wherein each variable transparency segment of the sequence of variable transparency segments is configured to vary its transparency by the Electromagnetically Induced Transparency, EIT, effect and further vary its transparency in response to an incident electromagnetic field; and a plurality of separator segments interspersed within the sequence of variable transparency segments so that each variable transparency segment : has a first separation distance from a first other variable transparency segment , the waveguide characterised in that the first separation distance is a first predetermined number of variable transparency segments preceding or succeeding in the sequence of variable transparency segments , the waveguide further characterised in that each variable transparency segment : has a second separation distance from a second other variable transparency segment being a second predetermined number of variable transparency segments preceding or succeeding in the sequence of variable transparency segments , and is uniquely identified by a combination of separation distances comprising its first and second separation distances. has a second separation distance from a second other variable transparency segment being a second predetermined number of variable transparency segments preceding or succeeding in the sequence of variable transparency segments , and is uniquely identified by a combination of separation distances comprising its first and second separation distances.
A beam steering device comprising: a multiplexer configured to simultaneously receive input lights having first different wavelengths, and multiplex the received input lights into a multiplexed light; an optical splitter configured to split the multiplexed light, each of the split light having multiple wavelengths; an optical modulator configured to modulate the split light; and an emitter comprising a plurality of waveguides extending in a first direction, the waveguides further comprising a grating structure, the waveguides configured to simultaneously emit output lights having second different wavelengths to different points arranged in the first direction, based on the modulated light, wherein the characteristics or direction of emitting output light from each waveguide varies according to the grating structure; and characterized in that the optical modulator is adapted to modulate at least one of the phase and amplitude of the split light to different degrees to adjust the wavefronts of the emitter lights output from the emitter to vary the directions of the emitted output lights in a second direction perpendicular to the first direction. a multiplexer configured to simultaneously receive input lights having first different wavelengths, and multiplex the received input lights into a multiplexed light; an optical splitter configured to split the multiplexed light, each of the split light having multiple wavelengths; an optical modulator configured to modulate the split light; and an emitter comprising a plurality of waveguides extending in a first direction, the waveguides further comprising a grating structure, the waveguides configured to simultaneously emit output lights having second different wavelengths to different points arranged in the first direction, based on the modulated light, wherein the characteristics or direction of emitting output light from each waveguide varies according to the grating structure; and characterized in that the optical modulator is adapted to modulate at least one of the phase and amplitude of the split light to different degrees to adjust the wavefronts of the emitter lights output from the emitter to vary the directions of the emitted output lights in a second direction perpendicular to the first direction.
A method for in vitro genotyping a plasmodium comprising: in a sample containing a plasmodium detecting the presence of an increased copy number of the genomic plasmepsin2-3 cluster, in particular wherein the plasmodium is Plasmodium falciparum.
A contact lens package 1 for storage of contact lenses 20, the package comprising (i) a cavity 4 for storing a contact lens 20 and (ii) charging circuitry 3 configured to charge an electronic device forming part of a contact lens 20 stored in said cavity 4, wherein the charging circuity 3 comprises a power source 6 that is a battery or other element arranged to retain an electrical charge, and wherein the charging circuitry 3 comprises a switch 12 arranged to control the operation of the charging circuity, CHARACTERIZED IN THAT : the package is a blister package for storage of contact lenses prior to first use of the lens, and wherein the switch 12 comprises a detachable portion arranged such that detaching said portion from the blister pack initiates charging of the electronic device.
A method of developing hydrocarbon production from hydrocarbon containing reservoirs , the method comprising: developing a first conventional hydrocarbon reservoir containing water and hydrocarbons including at least one of oil and natural gas; developing a second natural gas hydrate reservoir containing natural gas hydrates; constructing a production facility including water separation apparatus; and fluidly connecting the first conventional hydrocarbon and second hydrate reservoirs with the hydrocarbon production facility; whereby a first mixture of hydrocarbons and water from the first conventional hydrocarbon reservoir and a second mixture of natural gas and water concurrently produced from the second natural gas hydrate reservoir are separated into water and at least one of the gas and oil by the production facility. developing a first conventional hydrocarbon reservoir containing water and hydrocarbons including at least one of oil and natural gas; developing a second natural gas hydrate reservoir containing natural gas hydrates; constructing a production facility including water separation apparatus; and fluidly connecting the first conventional hydrocarbon and second hydrate reservoirs with the hydrocarbon production facility; whereby a first mixture of hydrocarbons and water from the first conventional hydrocarbon reservoir and a second mixture of natural gas and water concurrently produced from the second natural gas hydrate reservoir are separated into water and at least one of the gas and oil by the production facility.
A personal care composition comprising: a) at least 0.5% by weight of the personal care composition menthol and b) at least one of an antagonist to TRPV1 receptor, wherein the TRPV1 antagonist is at least one of copper (I) iodide; butyl 4-hydroxybenzoate; diphenyl disulfide; 2,3-butanedithiol; 2,5-dimethyl-1.4-dithiane-2,5-diol; cellulose acetate. a) at least 0.5% by weight of the personal care composition menthol and b) at least one of an antagonist to TRPV1 receptor, wherein the TRPV1 antagonist is at least one of copper (I) iodide; butyl 4-hydroxybenzoate; diphenyl disulfide; 2,3-butanedithiol; 2,5-dimethyl-1.4-dithiane-2,5-diol; cellulose acetate.
An oscillation circuit , comprising: a) a periodic signal generator configured to generate a periodic signal (Str) of which a frequency varies (f5-f3); and b) a clock generator having a current-output DAC (digital-to-analog converter) configured to subject the periodic signal to digital-to-analog conversion to output a current, the clock generator being configured to generate a clock signal (CK) having a frequency commensurate with the frequency of the periodic signal such that, the higher the current, the higher the frequency of the clock signal, c1) wherein the frequency of the periodic signal varies as a result of periodic switching among a plurality of predetermined frequency levels, and c2) wherein a frequency at which the periodic switching among the plurality of predetermined frequency levels occurs varies. a) a periodic signal generator configured to generate a periodic signal (Str) of which a frequency varies (f5-f3); and b) a clock generator having a current-output DAC (digital-to-analog converter) configured to subject the periodic signal to digital-to-analog conversion to output a current, the clock generator being configured to generate a clock signal (CK) having a frequency commensurate with the frequency of the periodic signal such that, the higher the current, the higher the frequency of the clock signal, c1) wherein the frequency of the periodic signal varies as a result of periodic switching among a plurality of predetermined frequency levels, and c2) wherein a frequency at which the periodic switching among the plurality of predetermined frequency levels occurs varies.
A method of performing localization of a handheld device with respect to a wearable device , the method comprising: obtaining, by an inertial measurement unit , IMU mounted to the handheld device , handheld data indicative of movement of the handheld device , the handheld data including linear accelerations and rotational velocities; obtaining, by an imaging device mounted to a first device, fiducial data indicative of movement of the handheld device , wherein the first device is either the handheld device or the wearable device , and wherein obtaining the fiducial data includes: capturing, by the imaging device , a fiducial image containing a number of fiducials from at least three fiducials affixed to a second device different than the first device, wherein the second device is either the handheld device or the wearable device , the fiducial data indicative of movement of the handheld device being determined based on the respective locations of the fiducials within the fiducial image and based on known physical relationships between the fiducials; determining the number of fiducials contained in the fiducial image; wherein in response to determining that the number of fiducials contained in the fiducial image is equal to or greater than three, updating a position and an orientation of the handheld device using solely the fiducial data ; and in response to determining that the number of fiducials contained in the fiducial image is equal to one or two, updating the position and the orientation of the handheld device using both the fiducial data and the handheld data . obtaining, by an inertial measurement unit , IMU mounted to the handheld device , handheld data indicative of movement of the handheld device , the handheld data including linear accelerations and rotational velocities; obtaining, by an imaging device mounted to a first device, fiducial data indicative of movement of the handheld device , wherein the first device is either the handheld device or the wearable device , and wherein obtaining the fiducial data includes: capturing, by the imaging device , a fiducial image containing a number of fiducials from at least three fiducials affixed to a second device different than the first device, wherein the second device is either the handheld device or the wearable device , the fiducial data indicative of movement of the handheld device being determined based on the respective locations of the fiducials within the fiducial image and based on known physical relationships between the fiducials; determining the number of fiducials contained in the fiducial image; wherein in response to determining that the number of fiducials contained in the fiducial image is equal to or greater than three, updating a position and an orientation of the handheld device using solely the fiducial data ; and in response to determining that the number of fiducials contained in the fiducial image is equal to one or two, updating the position and the orientation of the handheld device using both the fiducial data and the handheld data .