mhurhangee/patent-ind-claim-en huggingface dataset:
A bracket for a modular luminaire comprising a plurality of polyhedral modules and a connector ; wherein the polyhedral module is a polyhedron internally provided with a cavity ; each surface of the polyhedron is provided with a stepped through-hole connected to the cavity , thereby forming a first annular protrusion at a junction of the stepped through-hole and the cavity ; the connector comprises a connector body having a cylindrical shape; the connector body is provided with a through-hole along an axial direction; on an outer periphery of the connector body , a second annular protrusion , a third annular protrusion , a fourth annular protrusion , and a fifth annular protrusion protrude outwards in a radial direction and are formed successively from a left end portion to a right end portion of the connector body ; the second annular protrusion , the third annular protrusion , the fourth annular protrusion and the fifth annular protrusion are spaced apart; a left end of the connector is inserted into the stepped through-hole of the polyhedral module , and the first annular protrusion is engaged between the second annular protrusion and the third annular protrusion ; the connector is detachably connected to the polyhedral module ; and a plurality of the polyhedral modules are interconnected via the connectors as needed to form the bracket for the modular luminaire, characterized in that a first through-hole connected to the cavity is further provided on each surface of the polyhedral module ; two first through-holes located on opposite surfaces of the polyhedral module correspond to each other; the bracket further comprises a reinforcing strip; the reinforcing strip passes through the stepped through-hole of the plurality of polyhedral modules and the through-hole in the connector body , or passes through the first through-hole for reinforcing, fixing and supporting the bracket for the modular luminaire; and the bracket further comprises a wire ; the wire passes through the stepped through-hole of the plurality of polyhedral modules and the through-hole in the connector body , or passes through the first through-hole for forming an electrical connection in the bracket for the modular luminaire.
A method for configuring a frequency measurement by a first wireless communication node, comprising: transmitting a first message to a second wireless communication node, wherein the first message comprises a first maximum number of allowed intra-frequency measurement identities and a first maximum number of allowed inter-frequency measurement identities, and wherein the first message is used by the second wireless communication node to determine a first frequency measurement configuration for a wireless communication device. transmitting a first message to a second wireless communication node, wherein the first message comprises a first maximum number of allowed intra-frequency measurement identities and a first maximum number of allowed inter-frequency measurement identities, and wherein the first message is used by the second wireless communication node to determine a first frequency measurement configuration for a wireless communication device.
A laminate for manufacturing a flexible substrate comprising: a carrier substrate; an organic sacrificial layer disposed on one side of the carrier substrate and containing a polyimide resin having an amide bond (-C(O)NH-) in the molecular structure; and a flexible substrate layer disposed on the organic sacrificial layer, wherein the adhesion of the organic sacrificial layer to the flexible substrate layer is reduced by a UV laser, wherein the polyimide is prepared by polymerizing at least one diamine selected from the following formulas 3a to 3c and at least one tetracarboxylic anhydride: in formulas 3a to 3c, R 21 to R 29 are each independently a substituent selected from a halogen atom, a thiol group (-SH), a nitro group (-NO 2 ), a cyano group (-CN), an alkyl group having 1 to 10 carbon atoms, a halogenoalkoxy group having 1 to 4 carbon atoms, a halogenoalkyl group having 1 to 10 carbon atoms and an aryl group having 6 to 20 carbon atoms, and b 1 to b 9 are each independently an integer of 0 to 4. a carrier substrate; an organic sacrificial layer disposed on one side of the carrier substrate and containing a polyimide resin having an amide bond (-C(O)NH-) in the molecular structure; and a flexible substrate layer disposed on the organic sacrificial layer, wherein the adhesion of the organic sacrificial layer to the flexible substrate layer is reduced by a UV laser, wherein the polyimide is prepared by polymerizing at least one diamine selected from the following formulas 3a to 3c and at least one tetracarboxylic anhydride: in formulas 3a to 3c, R 21 to R 29 are each independently a substituent selected from a halogen atom, a thiol group (-SH), a nitro group (-NO 2 ), a cyano group (-CN), an alkyl group having 1 to 10 carbon atoms, a halogenoalkoxy group having 1 to 4 carbon atoms, a halogenoalkyl group having 1 to 10 carbon atoms and an aryl group having 6 to 20 carbon atoms, and b 1 to b 9 are each independently an integer of 0 to 4.
Plastic injection moulding tool for manufacturing a multi-component injection moulding part including a hard part component made of a thermoplastic synthetic material and including a soft part component made of an elastomer material, wherein the soft part component is produced of a UV-curable elastomer material, in particular a silicone elastomer component, which is connected to the hard part component made of thermoplastic synthetic material, wherein the multi-component injection moulding part is configured as a valve assembly part for use in medical infusion system components, and wherein the valve assembly part is provided with a dimensionally stable housing body made of a thermoplastic synthetic material and with an elastically flexible valve component which is produced from the UV-curable elastomer material, and including a tool mould which has a supply connector for a thermoplastic synthetic material component and a supply connector for a UV-curable elastomer component, in particular a silicone elastomer component, wherein a UV light source for UV curing of the elastomer component is integrated in the tool mould , characterized in that the tool mould is configured for manufacturing the valve assembly part .
A biomorphic hydroxyapatite scaffold obtained from a wood having a total porosity of at least 20%, preferably at least 40%, more preferably between 60% and 95%, said porosity being measured after subjecting the wood to a step of pyrolysis, said scaffold having a length, measured along a direction in which a dimension of the scaffold is maximum, greater than or equal to 2 cm.
A device comprising: a controller configured to communicate with a projector and a camera having overlapping fields-of-view, characterized in that the controller is configured to: control the projector to project, while the camera acquires frames thereof, in a sequence: alternating patterns and structured light patterns, the alternating patterns comprising first predetermined patterns comprising first full images of a single first color and second predetermined patterns comprising second full images of a single second color projected one or more of before and after the structured light patterns, the alternating patterns and the structured light patterns each being assigned with a respective pattern index, and the frames acquired by the camera each being assigned a respective camera frame index; determine, using the frames as coordinated with the alternating patterns, one or more functions relating respective pattern indices of the alternating patterns with camera frame indices of the frames, on one or more of a camera pixel-by-pixel basis and a camera scan-line-by-scan-line basis; and generate, and store, at a memory , a mapping of projector pixels to one or more of camera pixels and positions on an object in the overlapping fields-of-view, based on relating pixels and/or scan lines of the frames with the structured light patterns using the one or more functions. a controller configured to communicate with a projector and a camera having overlapping fields-of-view, control the projector to project, while the camera acquires frames thereof, in a sequence: alternating patterns and structured light patterns, the alternating patterns comprising first predetermined patterns comprising first full images of a single first color and second predetermined patterns comprising second full images of a single second color projected one or more of before and after the structured light patterns, the alternating patterns and the structured light patterns each being assigned with a respective pattern index, and the frames acquired by the camera each being assigned a respective camera frame index; determine, using the frames as coordinated with the alternating patterns, one or more functions relating respective pattern indices of the alternating patterns with camera frame indices of the frames, on one or more of a camera pixel-by-pixel basis and a camera scan-line-by-scan-line basis; and generate, and store, at a memory , a mapping of projector pixels to one or more of camera pixels and positions on an object in the overlapping fields-of-view, based on relating pixels and/or scan lines of the frames with the structured light patterns using the one or more functions.
A core-shell capsule comprising: a core including a synthetic oil, an alcohol-based solvent satisfying the following Equation 1, and a water-insoluble cellulose-based polymer compound dissolved in the alcohol-based solvent; and a water-insoluble polymer shell surrounding the core: 0.01 ≥ C A / C B ≥ 100 wherein C A /C B is a distribution coefficient of the alcohol-based solvent, in which when the alcohol-based solvent is dissolved in synthetic oil and water to reach equilibrium, C A is a concentration of the alcohol-based solvent dissolved in the synthetic oil, and C B is a concentration of the alcohol-based solvent dissolved in the water, wherein a weight ratio of the cellulose-based polymer compound to the alcohol-based solvent in the core is 1:0.5 to 100, wherein a weight ratio of the alcohol-based solvent to the synthetic oil in the core is 1:0.1 to 10, characterized in that the synthetic oil is octyl dodecanol, the alcohol-based solvent is ethanol, the cellulose-based polymer compound is ethyl cellulose, and the water-insoluble polymer is acrylate/C10-30 alkyl acrylate crosspolymer. a core including a synthetic oil, an alcohol-based solvent satisfying the following Equation 1, and a water-insoluble cellulose-based polymer compound dissolved in the alcohol-based solvent; and a water-insoluble polymer shell surrounding the core: 0.01 ≥ C A / C B ≥ 100 wherein C A /C B is a distribution coefficient of the alcohol-based solvent, in which when the alcohol-based solvent is dissolved in synthetic oil and water to reach equilibrium, C A is a concentration of the alcohol-based solvent dissolved in the synthetic oil, and C B is a concentration of the alcohol-based solvent dissolved in the water, wherein a weight ratio of the cellulose-based polymer compound to the alcohol-based solvent in the core is 1:0.5 to 100, wherein a weight ratio of the alcohol-based solvent to the synthetic oil in the core is 1:0.1 to 10, characterized in that the synthetic oil is octyl dodecanol, the alcohol-based solvent is ethanol, the cellulose-based polymer compound is ethyl cellulose, and the water-insoluble polymer is acrylate/C10-30 alkyl acrylate crosspolymer.
Method for producing a pyrolysis compatible component for a cooking appliance, the cooking appliance being configured to carry out a pyrolysis operation, in which method a base part of the component is provided and coated, wherein a silicon dioxide coating is generated on the base part , characterised in that the silicon dioxide coating is generated by a high-rate PECVD deposition, with which the layer is generated at a speed faster than 0.5 μm/min, in particular around 1 μm/min.
A method of treating blood, blood product, plasma or physiologic fluid ex vivo to provide at least one of (i) increasing shelf life of the blood, blood product or physiologic fluid, (ii) maintaining freshness of new blood, blood product or physiologic fluid, and (iii) removing undesirable molecules from the blood, blood product or physiologic fluid; said method comprising contacting said blood, blood product or physiologic fluid with a sorbent, said sorbent being primarily in a plurality of solid forms and comprising a cross-linked polymeric material having a plurality of zwitterionic moieties attached to the surface of said cross-linked polymeric material; wherein the zwitterionic moieties comprise at least one group of the formula: and wherein said undesirable molecules are selected from biologically active molecules (BAMs), products of hemolysis, products of membrane or cellular degradation, toxins, drugs, antibodies, and prions, wherein the biologically active molecules comprise inflammatory mediators and stimulators selected from cytokines, nitric oxide, thromboxanes, leukotrienes, platelet,-activating factor, prostaglandins, glycoproteins, kinins, kininogens, complement factors, cell-adhesion molecules, superantigens, monokines, chemokines, interferons, free radicals, proteases, arachidonic acid metabolites, prostacyclins, beta endorphins, myocardial depressant factors, anandimide, 2-arachadonylglycerol, tetrahydrobiopterin, serotonin, histamine, bradykinin, soluble CD40 ligand, bioactive lipids, oxidized lipids, hemoglobin, red cell particulates, membrane or cellular components, growth factors, glycoproteins, endotoxins, vasoactive substances, foreign antigens and microvesicles.
A resonant mutual inductance partial discharge detection device for cable joint, comprising a partial discharge acquisition sensor and a partial discharge signal processor , characterized in that it further comprises a partial discharge signal resonance output unit and a partial discharge signal resonance acquisition unit , the partial discharge acquisition sensor and the partial discharge signal resonance output unit are in wired connection and provided inside a sheath voltage-withstand layer of the cable joint, the partial discharge signal resonance output unit and the partial discharge signal resonance acquisition unit are in wireless connection, and the partial discharge signal resonance acquisition unit and the partial discharge signal processor are in wired connection and provided outside the sheath voltage-withstand layer of the cable joint.
Cooling and/or freezing apparatus, comprising a body, and a cooled interior enclosed by the body, wherein arranged in the cooled interior is a mist generator , which comprises a piezoelectric element (P), a horizontal partition plate is located in the cooled interior, which plate separates the cooled interior into two compartments preferably operated at different temperatures, and the mist generator is integrated into the horizontal partition plate in such a way that this does not project beyond the horizontal partition plate , characterised in that the mist generator comprises a cover , on which a deflection element is provided, which deflects the water jet encountering this and produced by the piezoelectric element (P) in the direction of an outlet opening of the mist generator , wherein the mist generator comprises at least one nebulisation chamber (V), which comprises several outlet openings for the mist generated, wherein the width of the nebulisation chamber (V) decreases as the distance from the piezoelectric element (P) increases, wherein the mist generator comprises at least one concentrator (K) for focusing the acoustic waves originating from the piezoelectric element (P) and wherein the piezoelectric element (P) and/or the concentrator (K) is inclined towards the horizontal.
An electronic package , comprising: a first glass substrate ; an adhesive over the first glass substrate ; a second glass substrate over the adhesive ; an optical waveguide embedded in the adhesive ; further characterized by a first recess through the second glass substrate and the adhesive ; and a second recess through the second glass substrate and the adhesive . a first glass substrate ; an adhesive over the first glass substrate ; a second glass substrate over the adhesive ; an optical waveguide embedded in the adhesive ; further characterized by a first recess through the second glass substrate and the adhesive ; and a second recess through the second glass substrate and the adhesive .
Engine assembly comprising a pylon having a bottom face and an engine surrounded by a nacelle extending about a longitudinal axis (X), the engine being suspended from and fixed to the pylon by a front engine attachment , at the front of the engine , and a rear engine attachment at the rear of the engine , the rear engine attachment comprising a support fixed to the bottom face of the pylon, a main shackle extending in a plane orthogonal to the longitudinal axis (X) and fixed on one side to the engine and on the other side to the support by first and second supporting link axes positioned symmetrically with respect to a vertical plane (V) parallel to the longitudinal axis (X), characterized in that on each side of the vertical plane (V) and arranged symmetrically with respect to said plane (V), the main shackle and the engine are linked to one another by a main link (Lp1, Lp2) and a supplementary link (Ls1, Ls2) activated only in case of breakage of the main link (Lp1, Lp2), and in that the two supplementary links (Ls1, Ls2) are situated between the two main links (Lp1, Lp2).
An apparatus (30; 33), comprising: means for causing display of virtual reality content on at least one display of a head-mounted viewing device (30; 33); means for detecting, while the virtual reality content is displayed by the at least one display of the head-mounted viewing device (30; 33), one or more changes in air pressure caused by a user exhaling and/or inhaling without speaking; and means for altering display of virtual reality content by the at least one display of the head-mounted viewing device based (30; 33), at least in part, on the one or more changes in air pressure, wherein altering display of virtual reality content comprises temporarily removing at least a portion of a displayed virtual visual scene (22; 26) to reveal a portion of a real visual scene , wherein the real visual scene is a representation of the real environment of the user. means for causing display of virtual reality content on at least one display of a head-mounted viewing device (30; 33); means for detecting, while the virtual reality content is displayed by the at least one display of the head-mounted viewing device (30; 33), one or more changes in air pressure caused by a user exhaling and/or inhaling without speaking; and means for altering display of virtual reality content by the at least one display of the head-mounted viewing device based (30; 33), at least in part, on the one or more changes in air pressure, wherein altering display of virtual reality content comprises temporarily removing at least a portion of a displayed virtual visual scene (22; 26) to reveal a portion of a real visual scene , wherein the real visual scene is a representation of the real environment of the user.
A method of extracting cardiac frequency phenomena from a series of optical images obtained by an optical system at faster than cardiac frequency comprising: acquiring a time sequenced series of optical images of a patient obtained at a rate faster than cardiac frequency, wherein cardiac frequency is 20 - 200 beats per minute, and wherein the time sequenced series of optical images capture one or more physical properties of intrinsic contrast; acquiring a cross-correland signal from the patient; applying a cross-correlated wavelet transform analysis to the time sequenced series of optical images to yield a spatiotemporal representation of cardiac frequency phenomena, wherein the cross-correlated wavelet transform analysis comprises: performing a wavelet transform on the time sequenced series of optical images to obtain a wavelet transformed signal; cross-correlating the wavelet transformed signal with the cross-correland signal to obtain a cross-correlated signal; filtering the cross-correlated signal at cardiac frequency to obtain a filtered signal; and performing an inverse wavelet transform on the filtered signal to obtain a spatiotemporal representation of the time sequenced series of optical images; and generating images of the cardiac frequency phenomena from the spatiotemporal representation. acquiring a time sequenced series of optical images of a patient obtained at a rate faster than cardiac frequency, wherein cardiac frequency is 20 - 200 beats per minute, and wherein the time sequenced series of optical images capture one or more physical properties of intrinsic contrast; acquiring a cross-correland signal from the patient; applying a cross-correlated wavelet transform analysis to the time sequenced series of optical images to yield a spatiotemporal representation of cardiac frequency phenomena, wherein the cross-correlated wavelet transform analysis comprises: performing a wavelet transform on the time sequenced series of optical images to obtain a wavelet transformed signal; cross-correlating the wavelet transformed signal with the cross-correland signal to obtain a cross-correlated signal; filtering the cross-correlated signal at cardiac frequency to obtain a filtered signal; and performing an inverse wavelet transform on the filtered signal to obtain a spatiotemporal representation of the time sequenced series of optical images; and performing a wavelet transform on the time sequenced series of optical images to obtain a wavelet transformed signal; cross-correlating the wavelet transformed signal with the cross-correland signal to obtain a cross-correlated signal; filtering the cross-correlated signal at cardiac frequency to obtain a filtered signal; and performing an inverse wavelet transform on the filtered signal to obtain a spatiotemporal representation of the time sequenced series of optical images; and generating images of the cardiac frequency phenomena from the spatiotemporal representation.
Power gear box of a turbo engine , for mechanically coupling at least one low pressure compressor stage with at least one turbine stage in the turbo engine, in particular an aircraft turbo engine , the power gear box comprising a casing and being coupled with at least one heat exchange system, characterized in that at least one heat transfer device is enclosed and / or embedded with the casing of the power gear box and the casing and / or the heat transfer device comprise at least one heat transfer and / or fluid flow guiding structure , in particular a ribbed surface, a finned surface and / or a studded surface, wherein in use, at least one airflow (A, A1, A2) is directed to the at least one heat transfer device for thermally controlling the power gear box .