mhurhangee/ep-ind-claims huggingface dataset:
An endoscope system including an endoscope which includes an illumination optical system and an imaging optical system having an imaging element; and a control device which is connected to the endoscope, the control device including a light source unit, a storage section storing predetermined color correction information, and an image processing section creating captured image data by performing a calculation process on an image signal output from the imaging element on the basis of the color correction information, the endoscope system comprising: an optical characteristic detecting unit (96, 75) for detecting optical characteristics and a color correction information correcting unit for correcting the color correction information stored in the storage section on the basis of the optical characteristic detected by the optical characteristic detecting unit, wherein said illumination optical system has a fluorescent substance, that said light source unit has a semiconductor light emitting element generating excitation light used to excite the fluorescent substance, and said optical characteristic detecting unit is adapted to detect optical characteristics of the fluorescent substance and/or the semiconductor light emitting element, and that a correction endoscope (11 Ref) is provided which is connectable to the control device instead of the endoscope. an optical characteristic detecting unit (96, 75) for detecting optical characteristics and a color correction information correcting unit for correcting the color correction information stored in the storage section on the basis of the optical characteristic detected by the optical characteristic detecting unit, wherein said illumination optical system has a fluorescent substance, that said light source unit has a semiconductor light emitting element generating excitation light used to excite the fluorescent substance, and said optical characteristic detecting unit is adapted to detect optical characteristics of the fluorescent substance and/or the semiconductor light emitting element, and that a correction endoscope (11 Ref) is provided which is connectable to the control device instead of the endoscope.
An oriented loading system, comprising: a substrate; a plurality of wells formed in the substrate, each well having a bottom and sidewalls, the sidewalls having an upper part and a lower part; a plurality of particles loaded in the wells, wherein the particle comprises a core structure and an inner layer comprising magnetic material partially covering the core structure, and the inner layer optionally is further covered by an outer layer, wherein a part of the core structure uncovered by the inner layer is exposed or is further covered by a coating layer; wherein the inner core structure comprises non-magnetic materials; a metal layer comprising magnetic material deposited partially in the sidewalls of the wells, wherein the inner layer is attracted by the metal layer such that the exposed core structure or the coating layer, or the inner layer or the outer layer becomes a bottom side of the particle oriented towards the bottom of the well; and wherein the well has a width (d) which is 1-3 times the diameter of the particle. a substrate; a plurality of wells formed in the substrate, each well having a bottom and sidewalls, the sidewalls having an upper part and a lower part; a plurality of particles loaded in the wells, wherein the particle comprises a core structure and an inner layer comprising magnetic material partially covering the core structure, and the inner layer optionally is further covered by an outer layer, wherein a part of the core structure uncovered by the inner layer is exposed or is further covered by a coating layer; wherein the inner core structure comprises non-magnetic materials; a metal layer comprising magnetic material deposited partially in the sidewalls of the wells, wherein the inner layer is attracted by the metal layer such that the exposed core structure or the coating layer, or the inner layer or the outer layer becomes a bottom side of the particle oriented towards the bottom of the well; and wherein the well has a width (d) which is 1-3 times the diameter of the particle.
A blade for a rotor, the blade having an aerofoil surface comprising pressure and suction sides (2, 4) extending between a leading edge and a trailing edge of the aerofoil surface, and having a squealer tip comprising a continuous peripheral wall surrounding a cavity which is open at a radial end of the blade and at the trailing edge of the blade, wherein the peripheral wall comprises at least one first region which extends radially and has an outer surface which is a continuation of the aerofoil surface, and at least one second region (22, 36) which is inclined outwardly of the cavity with respect to the radial direction and has an outer surface which extends obliquely outwardly of the blade from the aerofoil surface along part of at least one of the pressure side and suction side, characterized in that the first region and second region (22, 36) of the peripheral wall terminate at their radially outer ends in end surfaces which lie in a common plane.
A method of physical vapor deposition comprising: applying a radio frequency signal to a cathode in a physical vapor deposition apparatus, wherein the cathode includes a sputtering target, wherein the target comprises lead zirconate titanate ("PZT"); electrically connecting a chuck in the physical vapor deposition apparatus to ground through an impedance matching network, wherein the chuck supports a substrate, and wherein the impedance matching network consists only of an inductor in series with a capacitor; wherein an inductance of the inductor has a magnitude of between 300μH and 600μH and wherein the impedance matching network is tuned to a frequency of about 5 to 100 MHz and is about 1 to 2 MHz higher or lower than a frequency of the radio frequency signal applied to the cathode; and depositing material from the sputtering target onto the substrate. applying a radio frequency signal to a cathode in a physical vapor deposition apparatus, wherein the cathode includes a sputtering target, wherein the target comprises lead zirconate titanate ("PZT"); electrically connecting a chuck in the physical vapor deposition apparatus to ground through an impedance matching network, wherein the chuck supports a substrate, and wherein the impedance matching network consists only of an inductor in series with a capacitor; wherein an inductance of the inductor has a magnitude of between 300μH and 600μH and wherein the impedance matching network is tuned to a frequency of about 5 to 100 MHz and is about 1 to 2 MHz higher or lower than a frequency of the radio frequency signal applied to the cathode; and depositing material from the sputtering target onto the substrate.
A method of preparing a filter material having a function of adsorbing and fixing arsenic, lead, cadmium, mercury and chromium comprising: immersing a porous ceramic substrate in an aqueous mixed solution of pH 7.0-8.0 containing ferrous ions and tackifier, then taking out the porous ceramic substrate after the porous ceramic substrate is completely wet and exposing to air, wherein the porosity of the porous ceramic substrate is 35%-85%, and at least 25wt% of the ceramic component constituting the porous ceramic substrate is diatomaceous earth, the tackifier is selected from the group of glucose, saccharose, soluble starch or any combination thereof, and the content of the tackifier in the aqueous mixed solution is 0.2wt%-15wt%; immersing the porous ceramic substrate of step in an aqueous solution of pH 8.5-9.5 containing 0.1wt%-5wt% of sodium borohydride, and taking out the porous ceramic substrate 2-8 mins later and exposing to air; and placing the porous ceramic substrate of the step into an oxygen-free furnace to sinter anaerobically, and heating up to 300°C-500°C by a rate of temperature increase of 80-100°C/h, then keeping the temperature for 0.5-3 hours to obtain the filter material having a function of adsorbing and fixing arsenic, lead, cadmium, mercury and chromium. immersing a porous ceramic substrate in an aqueous mixed solution of pH 7.0-8.0 containing ferrous ions and tackifier, then taking out the porous ceramic substrate after the porous ceramic substrate is completely wet and exposing to air, wherein the porosity of the porous ceramic substrate is 35%-85%, and at least 25wt% of the ceramic component constituting the porous ceramic substrate is diatomaceous earth, the tackifier is selected from the group of glucose, saccharose, soluble starch or any combination thereof, and the content of the tackifier in the aqueous mixed solution is 0.2wt%-15wt%; immersing the porous ceramic substrate of step in an aqueous solution of pH 8.5-9.5 containing 0.1wt%-5wt% of sodium borohydride, and taking out the porous ceramic substrate 2-8 mins later and exposing to air; and placing the porous ceramic substrate of the step into an oxygen-free furnace to sinter anaerobically, and heating up to 300°C-500°C by a rate of temperature increase of 80-100°C/h, then keeping the temperature for 0.5-3 hours to obtain the filter material having a function of adsorbing and fixing arsenic, lead, cadmium, mercury and chromium.
An elongate self-curling sleeve (10; 12) comprising a knitted fabric having opposite free edges which are biased in overlapping relation and separable under an externally applied force, said fabric comprising: a first yarn forming chain stitches (28; 40; 46) extending in a warp direction and lying predominantly on one face of said fabric that forms an outer surface of the sleeve (10, 12); a second yarn forming either laying-in stitches (26; 44) or tricot stitches extending along a weft direction between said free edges; and a third yarn of monofilament knitted under tension in tricot stitches (30; 42; 48) extending in the weft direction between said free edges, said third yarn tricot stitches (30; 42; 48) lying predominantly on another face of said fabric that forms an inner surface of the sleeve (10, 12) and biasing said fabric in a self-curled configuration about a central space. a first yarn forming chain stitches (28; 40; 46) extending in a warp direction and lying predominantly on one face of said fabric that forms an outer surface of the sleeve (10, 12); a second yarn forming either laying-in stitches (26; 44) or tricot stitches extending along a weft direction between said free edges; and a third yarn of monofilament knitted under tension in tricot stitches (30; 42; 48) extending in the weft direction between said free edges, said third yarn tricot stitches (30; 42; 48) lying predominantly on another face of said fabric that forms an inner surface of the sleeve (10, 12) and biasing said fabric in a self-curled configuration about a central space.
A method for displaying tags on a touch screen of a portable terminal, comprising: in response to detection of a first touch event by the touch screen identifying tags that will be displayed; determining whether the touch screen detects a second touch event; if a second touch event is not detected and it is ascertained that the first touch is released, performing function corresponding to the identified tag; otherwise, if a second touch event is detected on the touch screen, calculating a distance between first and second touch points of the first and second touch events, respectively; identifying a number of tags that will be displayed, according to the calculated distance (645; 710); and displaying tags according to the calculated distance whereby the identified number of tags is displayed (645; 720) (115A, 115B, 115C). in response to detection of a first touch event by the touch screen identifying tags that will be displayed; determining whether the touch screen detects a second touch event; if a second touch event is not detected and it is ascertained that the first touch is released, performing function corresponding to the identified tag; otherwise, if a second touch event is detected on the touch screen, calculating a distance between first and second touch points of the first and second touch events, respectively; identifying a number of tags that will be displayed, according to the calculated distance (645; 710); and displaying tags according to the calculated distance whereby the identified number of tags is displayed (645; 720) (115A, 115B, 115C).
A method of extruding an article of uniform cross-section, the article comprising a thermoplastic material and at least one cable for inhibiting stretch of the article, the method comprising: supplying the at least one cable to a respective at least one tube, the tube having upstream and downstream ends, a length extending between the upstream and downstream ends, and an inner dimension; conveying the cable through the tube between the upstream and downstream ends; supplying the thermoplastic material to the downstream end of the tube; bringing the thermoplastic material together with the cable to embed the cable within the thermoplastic material, thereby forming a composite extrudate; and permitting the composite extrudate to cool and solidify, wherein the length and the inner dimension of the tube are selected to at least hinder movement of loose windings of the cable from the downstream end towards the upstream end of the tube, characterised in that the tube is having the length that is between 200 to 300 times a diameter of the cable. supplying the at least one cable to a respective at least one tube, the tube having upstream and downstream ends, a length extending between the upstream and downstream ends, and an inner dimension; conveying the cable through the tube between the upstream and downstream ends; supplying the thermoplastic material to the downstream end of the tube; bringing the thermoplastic material together with the cable to embed the cable within the thermoplastic material, thereby forming a composite extrudate; and permitting the composite extrudate to cool and solidify, wherein the length and the inner dimension of the tube are selected to at least hinder movement of loose windings of the cable from the downstream end towards the upstream end of the tube, characterised in that the tube is having the length that is between 200 to 300 times a diameter of the cable.
A medical instrument, comprising: a housing; a tool section coupled to the housing; an interior cavity disposed in the housing; a piston disposed in the interior cavity; a button coupled to the piston and disposed on the housing, wherein the button is configured to actuate the piston for pumping fluid through the housing; characterised by further comprising a fluidic channel extending through the piston, wherein the fluidic channel is segmented into a plurality of sub-channels, wherein each of the sub-channels terminates in a valve, wherein fluid exiting a first one of the sub-channels is configured to feed into a second one of the sub-channels. a housing; a tool section coupled to the housing; an interior cavity disposed in the housing; a piston disposed in the interior cavity; a button coupled to the piston and disposed on the housing, wherein the button is configured to actuate the piston for pumping fluid through the housing; characterised by further comprising a fluidic channel extending through the piston, wherein the fluidic channel is segmented into a plurality of sub-channels, wherein each of the sub-channels terminates in a valve, wherein fluid exiting a first one of the sub-channels is configured to feed into a second one of the sub-channels.
An apparatus comprising means for performing: - receiving, from a data provider, an identifier of a function, an encrypted output of the function, when run with random data, and the random data in encrypted form, and from a requesting party or a server, an encrypted computation result obtained by processing input data with the function, and from the server or the data provider, the input data in encrypted form; characterized in that the means are configured to perform: - obtaining a homomorphic polynomial factorization of the function, comprising obtaining a decomposed representation of the function, the representation comprising a sum of polynomials, and - verifying that the computation result is correct by checking, whether a difference between the encrypted output and the encrypted computation result equals a value of the decomposed representation, wherein the encrypted random data and the encrypted input data are used as parameter values in the sum of polynomials. - receiving, from a data provider, an identifier of a function, an encrypted output of the function, when run with random data, and the random data in encrypted form, and from a requesting party or a server, an encrypted computation result obtained by processing input data with the function, and from the server or the data provider, the input data in encrypted form; - obtaining a homomorphic polynomial factorization of the function, comprising obtaining a decomposed representation of the function, the representation comprising a sum of polynomials, and - verifying that the computation result is correct by checking, whether a difference between the encrypted output and the encrypted computation result equals a value of the decomposed representation, wherein the encrypted random data and the encrypted input data are used as parameter values in the sum of polynomials.
A method for assembling a rotating machine comprising multiple stages having a common shaft, wherein each stage is consecutively assembled by fitting a respective impeller on the shaft, using a method comprising: - mounting the impeller around a shaft along a tapered surface of contact on said shaft, - applying a radially acting hydraulic pressure on said impeller to radially expand said impeller about an axis of said shaft, - applying an axially acting hydraulic pressure on said impeller to move said impeller relatively longitudinally along said tapered surface on the shaft, and - relieving said hydraulic pressures to cause said impeller to shrink radially and securely fit on to said shaft. - mounting the impeller around a shaft along a tapered surface of contact on said shaft, - applying a radially acting hydraulic pressure on said impeller to radially expand said impeller about an axis of said shaft, - applying an axially acting hydraulic pressure on said impeller to move said impeller relatively longitudinally along said tapered surface on the shaft, and - relieving said hydraulic pressures to cause said impeller to shrink radially and securely fit on to said shaft.
An apparatus (400, 500, 600, 700) for intraocular injection comprising a plate (410, 510, 610, 710) adapted for being brought into contact with an eye and guiding means for guiding a needle (433, 533, 633, 733) into the interior of an eye, the plate (410, 510, 610, 710) comprises a cut-out (413, 513, 613, 713) having an edge (414, 514, 614) adapted to be positioned along the limbus delimiting the cornea and the sclera of the eye, so as to adjust the position of the guiding means with respect to the limbus, characterized in that the guiding means comprises a support (420, 520, 620, 720) having a hollow body (421, 521, 621, 721), the hollow body (421, 521, 621, 721) comprising a fixed part (4211, 5211, 6211, 7211) and a mobile part (4212, 5212, 6212, 7212) which can slide relative to the fixed part (4211, 5211, 6211, 7211), the mobile part (4212, 5212, 6212, 7212) being adapted for receiving a barrel (431, 531, 631, 731) of a syringe (430, 530, 630, 730), such that the syringe (430, 530, 630, 730) and the mobile part (4212, 5212, 6212, 7212) can move in a common sliding movement relative to the fixed part (4211, 5211, 6211, 7211), wherein the plate (410, 510, 610, 710) is integrally formed with the fixed part (4211, 5211, 6211, 7211).
A flavor inhaler provided with a tubular holding member which extends from an ignition end to a non-ignition end, the flavor inhaler comprising: a combustion type heat source provided at the ignition end; a flavor source provided in the holding member on the non-ignition end side with respect to the combustion type heat source; a cup member for holding the flavor source, the cup member being formed in a cup shape and having a side wall and a bottom plate; and a heat conduction member provided between the cup member and the holding member to cover at least a part of the combustion type heat source and at least a part of a side surface of the cup member, the cup member being inserted in the holding member in such a direction that the bottom plate of the cup member is provided so as to be closer to the non-ignition end than the combustion type heat source is and the cup member is open to the ignition end side or the non-ignition end side, and at least the side wall and the bottom plate of the cup member being made of a material comprising pulp and a binder. a combustion type heat source provided at the ignition end; a flavor source provided in the holding member on the non-ignition end side with respect to the combustion type heat source; a cup member for holding the flavor source, the cup member being formed in a cup shape and having a side wall and a bottom plate; and a heat conduction member provided between the cup member and the holding member to cover at least a part of the combustion type heat source and at least a part of a side surface of the cup member, the cup member being inserted in the holding member in such a direction that the bottom plate of the cup member is provided so as to be closer to the non-ignition end than the combustion type heat source is and the cup member is open to the ignition end side or the non-ignition end side, and at least the side wall and the bottom plate of the cup member being made of a material comprising pulp and a binder.