mhurhangee/patent-ind-claim-en huggingface dataset:
A projection device comprising: an invisible image sensor configured to capture an invisible light image indicating a subject in invisible light; a projector configured to project a projection image (G320) onto the subject with visible light, the projection image (G320) being based on the invisible light image; a visible image sensor configured to capture an image of the subject onto which the projection image is projected with visible light; an imaging optical system including a diaphragm to regulate a quantity of light reaching the invisible image sensor and the visible image sensor ; a light guide configured to guide light to enter the imaging optical system and to guide light exited from the projector ; and a light shield disposed at a space from the light guide , characterized in that the diaphragm has a diaphragm value set so that a length difference between a first optical length (a-c) from a near point in a depth of field (d) of the imaging optical system to the imaging optical system and a second optical length (b) from the light shield to the imaging optical system is longer than a front depth of field (c) from the subject in a state where the subject is positioned within a range of the depth of field. an invisible image sensor configured to capture an invisible light image indicating a subject in invisible light; a projector configured to project a projection image (G320) onto the subject with visible light, the projection image (G320) being based on the invisible light image; a visible image sensor configured to capture an image of the subject onto which the projection image is projected with visible light; an imaging optical system including a diaphragm to regulate a quantity of light reaching the invisible image sensor and the visible image sensor ; a light guide configured to guide light to enter the imaging optical system and to guide light exited from the projector ; and a light shield disposed at a space from the light guide , characterized in that the diaphragm has a diaphragm value set so that a length difference between a first optical length (a-c) from a near point in a depth of field (d) of the imaging optical system to the imaging optical system and a second optical length (b) from the light shield to the imaging optical system is longer than a front depth of field (c) from the subject in a state where the subject is positioned within a range of the depth of field.
A method for detecting data points and spatial modeling using a portable device, the method comprising the acts of: determining position of the portable device; detecting data points by an integrated radar sensor of the portable device, wherein the data points are determined for one or more objects to generate a three-dimensional point cloud of the one or more objects, wherein the three-dimensional point cloud is generated relative to the position of the portable device; storing, by the portable device, the data points; storing , by the portable device, the three-dimensional point cloud; and tracking the one or more objects based on the data points and the three-dimensional point cloud, wherein each data point is associated with a point in space associated with an object detected by the integrated radar sensor and each data point is assigned a coordinate relative to the position of the portable device; wherein the integrated radar sensor is a solid-state or chip-based radar sensor, configured for beam steering, or vertical and horizontal scanning, to generate the three-dimensional point cloud; wherein data points captured from different positions of the portable device are correlated based on measurements from multiple reference points and geospatial data for each point. determining position of the portable device; detecting data points by an integrated radar sensor of the portable device, wherein the data points are determined for one or more objects to generate a three-dimensional point cloud of the one or more objects, wherein the three-dimensional point cloud is generated relative to the position of the portable device; storing, by the portable device, the data points; storing , by the portable device, the three-dimensional point cloud; and tracking the one or more objects based on the data points and the three-dimensional point cloud, wherein each data point is associated with a point in space associated with an object detected by the integrated radar sensor and each data point is assigned a coordinate relative to the position of the portable device; wherein the integrated radar sensor is a solid-state or chip-based radar sensor, configured for beam steering, or vertical and horizontal scanning, to generate the three-dimensional point cloud; wherein data points captured from different positions of the portable device are correlated based on measurements from multiple reference points and geospatial data for each point.
A method for the production of cobalt soap which produces cobalt soap by reacting cobalt hydroxide with a fatty acid, wherein a softening agent for rubber blending is used as the reaction solvent, wherein the softening agent for rubber blending is at least one selected from the group consisting of petroleum oils, coal tar oils, and plant oils, wherein the fatty acid is a fatty acid having a high softening point and the fatty acid having a high softening point is rosin acid, and wherein the petroleum oils are naphthenic oils and the plant oils are pine tar.
A two-part epoxy based composition comprising: (a) a first part comprising at least one epoxy resin; (b) a second part comprising: (i) from 5 to 75% by weight of the second part of at least one epoxy resin curing agent; and (ii) from 25 to 95% by weight of the second part of at least one acrylamide compound represented by the following general formula : wherein R 1 , R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom. (a) a first part comprising at least one epoxy resin; (b) a second part comprising: (i) from 5 to 75% by weight of the second part of at least one epoxy resin curing agent; and (ii) from 25 to 95% by weight of the second part of at least one acrylamide compound represented by the following general formula : wherein R 1 , R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom. (i) from 5 to 75% by weight of the second part of at least one epoxy resin curing agent; and (ii) from 25 to 95% by weight of the second part of at least one acrylamide compound represented by the following general formula : wherein R 1 , R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom. wherein R 1 , R 2 and R 3 are identical or different, and independently represent hydrogen atoms, and optionally substituted univalent organic groups; and wherein at least one of R 2 and R 3 is a hydrogen atom.
A cyclic prefix generation method for wireless communication comprising: receiving a symbol waveform associated with one or more subcarriers, where each subcarrier of the one or more subcarriers is associated with a first frequency; identifying a last portion of the symbol waveform; modifying , by applying a halftone offset, the symbol waveform to generate a frequency shifted symbol waveform; in response to generating the frequency shifted symbol waveform, inverting a sign of a last portion of the frequency shifted symbol waveform corresponding to the identified last portion of the symbol waveform to generate an inverted portion; prepending the inverted portion to the frequency shifted symbol waveform to generate an output signal; and transmitting , to a receiving device, the output signal. receiving a symbol waveform associated with one or more subcarriers, where each subcarrier of the one or more subcarriers is associated with a first frequency; identifying a last portion of the symbol waveform; modifying , by applying a halftone offset, the symbol waveform to generate a frequency shifted symbol waveform; in response to generating the frequency shifted symbol waveform, inverting a sign of a last portion of the frequency shifted symbol waveform corresponding to the identified last portion of the symbol waveform to generate an inverted portion; prepending the inverted portion to the frequency shifted symbol waveform to generate an output signal; and transmitting , to a receiving device, the output signal.
A drawer pull-out guide , including: - a first rail and at least one second rail which are displaceable relative to one another, - at least one running carriage having at least one rolling body , wherein the running carriage is displaceably arranged between the first rail and the second rail over a travelling path, - at least one limiting element arranged on the first rail or on the second rail , the limiting element being configured to limit the travelling path of the running carriage , - a damping device arranged on the running carriage for dampening a movement of the running carriage over a damping path when the running carriage abuts against the limiting element , wherein a maximum damping path of the damping device is predetermined, characterized in that a stop is arranged on the first rail and a counterstop is arranged on the second rail , wherein at the end of the maximum damping path of the running carriage , the stop of the first rail and the counterstop of the second rail abut against each other and thereby stop a movement of the second rail relative to the first rail . - a first rail and at least one second rail which are displaceable relative to one another, - at least one running carriage having at least one rolling body , wherein the running carriage is displaceably arranged between the first rail and the second rail over a travelling path, - at least one limiting element arranged on the first rail or on the second rail , the limiting element being configured to limit the travelling path of the running carriage , - a damping device arranged on the running carriage for dampening a movement of the running carriage over a damping path when the running carriage abuts against the limiting element , wherein a maximum damping path of the damping device is predetermined,
A process of dry milling a chemical, the process comprising: Adding an anti-caking additive to a milling vessel in the absence of a particulate chemical and prior to the step of combining, and milling the anti-caking additive, wherein the anti-caking additive is selected from the group consisting of a rosin, rosin derivative, or active component thereof, or a fatty acid or fatty acid derivative, combining in a milling vessel a particulate chemical with the anti-caking additive, to form a milling mixture, and milling the milling mixture for a milling time to form a milled product, whereby the milling process is substantially free of liquid, wherein the particulate chemical is an electrochemically active precursor. Adding an anti-caking additive to a milling vessel in the absence of a particulate chemical and prior to the step of combining, and milling the anti-caking additive, wherein the anti-caking additive is selected from the group consisting of a rosin, rosin derivative, or active component thereof, or a fatty acid or fatty acid derivative, combining in a milling vessel a particulate chemical with the anti-caking additive, to form a milling mixture, and milling the milling mixture for a milling time to form a milled product, whereby the milling process is substantially free of liquid, wherein the particulate chemical is an electrochemically active precursor.
A projection apparatus comprising: at least two solid state light sources for generating at least two light beams directly or indirectly, with the at least two light beams having different colors and being output alternately, the at least two solid state light sources comprise a first solid state light source for generating an excitation light, a second solid state light source for generating a third primary color light a wavelength conversion device for converting the excitation light to a converted light; a first color wheel disposed to receive the incident converted light, the first color wheel comprising a first segment and a second segment; a first drive mechanism for driving the first color wheel to rotate, wherein the first segment and the second segment are alternatingly disposed in a path of the converted light, so that the converted light is filtered by the first segment to generate a first primary color light and is filtered by the second segment to generate a second primary color light; a light combing device combining the first, the second and the third primary color light into the combined light; a sync signal generator for generating a sync signal; and a controller for supplying a drive power in pulse manner to each of the at least two solid state light sources based on the sync signal, characterized in that during at least one sub-period, one of the at least two solid state light sources is in working status and another one of the at least two solid state light sources is kept in a standby status. at least two solid state light sources for generating at least two light beams directly or indirectly, with the at least two light beams having different colors and being output alternately, the at least two solid state light sources comprise a first solid state light source for generating an excitation light, a second solid state light source for generating a third primary color light a wavelength conversion device for converting the excitation light to a converted light; a first color wheel disposed to receive the incident converted light, the first color wheel comprising a first segment and a second segment; a first drive mechanism for driving the first color wheel to rotate, wherein the first segment and the second segment are alternatingly disposed in a path of the converted light, so that the converted light is filtered by the first segment to generate a first primary color light and is filtered by the second segment to generate a second primary color light; a light combing device combining the first, the second and the third primary color light into the combined light; a sync signal generator for generating a sync signal; and a controller for supplying a drive power in pulse manner to each of the at least two solid state light sources based on the sync signal, characterized in that during at least one sub-period, one of the at least two solid state light sources is in working status and another one of the at least two solid state light sources is kept in a standby status.
An absorbance measurement method, wherein an absorbent aqueous composition that absorbs UV, visible and/or infrared light is applied on a surface of a substrate, which surface has been plasma treated or arc-discharge treated to achieve a contact angle with pure water of 0 to 70.0 degrees or corona-discharge treated to achieve a contact angle with pure water of 0 to 15 degrees, and the applied absorbent aqueous composition is measured for UV, visible and/or infrared absorbance, wherein the absorbent aqueous composition that absorbs UV, visible and/or infrared light is an O/W emulsion.
A device for non-destructively measuring alpha and/or beta radiations emitted by a planar surface (S) of a solid, the device comprising: - at least one measurement head which comprises: • at least one primary solid scintillator having a planar main face to be contacted with a portion of the planar surface (S); • at least one silicon photomultiplier (SiPM) , each SiPM being optically coupled to a primary solid scintillator ; • a casing opaque to visible light and to alpha and beta radiations having an open cavity for housing said at least one primary solid scintillator and said at least one SiPM, said primary solid scintillator being arranged to close the cavity and form an external wall of the casing, so as to enable contacting of said primary scintillator with the surface portion (S); - a motor-driven automaton , configured to move a measurement head and place it in contact with the planar surface (S). - at least one measurement head which comprises: • at least one primary solid scintillator having a planar main face to be contacted with a portion of the planar surface (S); • at least one silicon photomultiplier (SiPM) , each SiPM being optically coupled to a primary solid scintillator ; • a casing opaque to visible light and to alpha and beta radiations having an open cavity for housing said at least one primary solid scintillator and said at least one SiPM, said primary solid scintillator being arranged to close the cavity and form an external wall of the casing, so as to enable contacting of said primary scintillator with the surface portion (S); • at least one primary solid scintillator having a planar main face to be contacted with a portion of the planar surface (S); • at least one silicon photomultiplier (SiPM) , each SiPM being optically coupled to a primary solid scintillator ; • a casing opaque to visible light and to alpha and beta radiations having an open cavity for housing said at least one primary solid scintillator and said at least one SiPM, said primary solid scintillator being arranged to close the cavity and form an external wall of the casing, so as to enable contacting of said primary scintillator with the surface portion (S); - a motor-driven automaton , configured to move a measurement head and place it in contact with the planar surface (S).
A method of charging catalyst tubes of a bundle of catalyst tubes in a structured fashion, in which individual catalyst tubes of the bundle of catalyst tubes are charged in a uniform manner from the bottom upward in sections with different formulations of shaped catalyst bodies, wherein a particular section of the charge in the catalyst tubes is produced by firstly producing uniform amounts of portions of the appropriate formulation of shaped catalyst bodies, producing packets filled with a uniform amount of the formulation of shaped catalyst bodies by enclosing such portions in a packaging material and emptying a number of the packets into each of the individual catalyst tubes and the ratio of internal diameter D of the catalyst tube to longest dimension L of the shaped catalyst bodies present in a packet is from 2:1 to 20:1.
A tool for removing insulation in mid-span of a cable carrying a signal-transmitting conduit comprising: a lower body section and an upper body section movable toward and away from the lower body section ; a curved mandrel disposed on the lower body section , the curved mandrel having a central peak portion and adjacent portions curving downward away from the central peak portion , to present a mid-span portion of the cable insulation on a side away from the mandrel peak portion , said curved mandrel including a cable channel disposed along a curved surface of the curved mandrel , the cable slidable along the cable channel when the cable is disposed in the cable channel ; a blade disposed on the upper body section , the blade movable towards and away from the curved mandrel ; a cable guide disposed on the upper body section wherein the cable guide secures the cable in the cable channel when the upper body section is in a position toward the lower body section ; and wherein the cable is securable in said cable guide and the curved mandrel in a curved position, allowing the blade to shave the cable insulation allowing access to the signal-transmitting conduit ; characterized by an adjustment barrel having a length and a central axis extending the length of the barrel and including a plurality of height adjustment surfaces (62a - h, 74) each adjustment surface (62a - h, 74) disposed at a different distance from the barrel central axis wherein each height adjustment surface (62a - h, 74) positions the blade a different distance from the curved mandrel . a lower body section and an upper body section movable toward and away from the lower body section ; a curved mandrel disposed on the lower body section , the curved mandrel having a central peak portion and adjacent portions curving downward away from the central peak portion , to present a mid-span portion of the cable insulation on a side away from the mandrel peak portion , said curved mandrel including a cable channel disposed along a curved surface of the curved mandrel , the cable slidable along the cable channel when the cable is disposed in the cable channel ; a blade disposed on the upper body section , the blade movable towards and away from the curved mandrel ; a cable guide disposed on the upper body section wherein the cable guide secures the cable in the cable channel when the upper body section is in a position toward the lower body section ; and wherein the cable is securable in said cable guide and the curved mandrel in a curved position, allowing the blade to shave the cable insulation allowing access to the signal-transmitting conduit ; characterized by an adjustment barrel having a length and a central axis extending the length of the barrel and including a plurality of height adjustment surfaces (62a - h, 74) each adjustment surface (62a - h, 74) disposed at a different distance from the barrel central axis wherein each height adjustment surface (62a - h, 74) positions the blade a different distance from the curved mandrel .
A pharmaceutically acceptable acid addition salt of compound (I), wherein the salt is an inorganic acid salt or organic acid salt; wherein the inorganic acid salt is hydrochloride, sulfate or a combination thereof; the organic acid salt is tosilate, maleate or a combination thereof. wherein the salt is an inorganic acid salt or organic acid salt; wherein the inorganic acid salt is hydrochloride, sulfate or a combination thereof; the organic acid salt is tosilate, maleate or a combination thereof.
Building material , namely concrete, having a binder , wherein the binder has cement, characterized in that the building material further has a waterproof dispersion adhesive , namely dispersion glue, wherein the building material has the dispersion adhesive with a mass fraction between 10% and 50%, and wherein the building material has the binder with a mass fraction between 25% and 90%.