子分类：
| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 181 | Continuous flow synthesis of VO2 nanoparticles or nanorods by using a microreactor | US15487276 | 2017-04-13 | US09975804B2 | 2018-05-22 | Jie Li; Yugang Sun; Ralph T. Muehleisen; Leah B. Guzowski; Xiaojie Yan; Samuel Dull; Ioannina Castano |
| The invention provides a method for producing composite nanoparticles, the method using a first compound capable of transitioning from a monoclinic to a tetragonal rutile crystal state upon heating, and having the steps of subjecting the first compound to a hydrothermal synthesis to create anisotropic crystals of the compound; encapsulating the first compound with a second compound to create a core-shell construct; and annealing the construct as needed. Also provided is a device for continuously synthesizing composite nanoparticles, the device having a first precursor supply and a second precursor supply; a mixer to homogeneously combine the first precursor and second precursor to create a liquor; a first microreactor to subject the liquor to hydrothermic conditions to create an\isotropic particles in a continuous operation mode; and a second microreactor for coating the particles with a third precursor to create a core-shell construct. | ||||||
| 182 | AN ACTIVE OPTICAL FIBRE | US15550012 | 2016-02-08 | US20180026415A1 | 2018-01-25 | Jae DANIEL; Andrew W. CLARKSON; Nikita SIMAKOV |
| An active optical fibre, including: a core; an inner cladding substantially surrounding the core, whereby the core and the inner cladding form an area configured to propagate pump radiation; an outer cladding comprised of at least a third material with at least a third refractive index substantially surrounding the inner cladding, the third refractive index being smaller than the second refractive index, whereby the outer cladding confines pump radiation to the core and the inner cladding; and a coating comprised of a thermally conductive material substantially surrounding the outer cladding, wherein the inner cladding is configured to reduce impact of spatial hole-burning on absorption of the pump radiation as the pump radiation propagates through the active optical fibre, and wherein the thermally conductive material of the coating supports a reduced temperature increase between the area and an outer surface of the coating. | ||||||
| 183 | DEVICE FOR MANUFACTURING SiO2-TiO2 BASED GLASS | US15716084 | 2017-09-26 | US20180016176A1 | 2018-01-18 | Toshio YOSHINARI; Tadahiko SAITO |
| A device for manufacturing SiO2—TiO2 based glass by growing a glass ingot upon a target by a direct method. The device includes the target, comprising a thermal storage portion that accumulates heat by being preheated, and a heat insulating portion that suppresses conduction of heat from the thermal storage portion in a direction opposite to the glass ingot. | ||||||
| 184 | FOAM FORMING COMPOSITIONS COMPRISING A PARTICULATE INORGANIC MATERIAL | US15543584 | 2016-01-15 | US20180010038A1 | 2018-01-11 | Michael GREENHILL-HOOPER; Gilles COLLARD; Stephen Johan NEETHLING; Pablo Rafael BRITO PARADA |
| The present invention relates to aqueous compositions for forming a foam, comprising a surfactant and a particulate inorganic material, and optionally one or more polymers, such as soil conditioning polymers, and/or viscosity increasing polymers. The present invention further relates to the use and application of said aqueous compositions. | ||||||
| 185 | Bioactive glass scaffolds, and method of making | US14692378 | 2015-04-21 | US09850157B2 | 2017-12-26 | Steven Jung |
| A glass, glass-ceramic, or ceramic bead is described, with an internal porous scaffold microstructure that is surrounded by an amorphous shield. The shield serves to protect the internal porous microstructure of the shield while increasing the overall strength of the porous microstructure and improve the flowability of the beads either by themselves or in devices such as biologically degradable putty that would be used in bone or soft tissue augmentation or regeneration. The open porosity present inside the bead will allow for enhanced degradability in-vivo as compared to solid particles or spheres and also promote the growth of tissues including but not limited to all types of bone, soft tissue, blood vessels, and nerves. | ||||||
| 186 | PHOTONICS GRATING COUPLER AND METHOD OF MANUFACTURE | US15664975 | 2017-07-31 | US20170357057A1 | 2017-12-14 | Harel Frish |
| A structure for coupling an optical signal between an integrated circuit photonic structure and an external optical fiber is disclosed as in a method of formation. The coupling structure is sloped relative to a horizontal surface of the photonic structure such that light entering or leaving the photonic structure is substantially normal to its upper surface. | ||||||
| 187 | Fishing Hook Employing Glass Compound | US15598365 | 2017-05-18 | US20170332613A1 | 2017-11-23 | Brandon Graddy; Nicholas Carta |
| A fishing hook device including a body with a barbed distal end and a looped proximal end. The body includes at least a portion constructed of glass including alkali aluminosilicate glass. | ||||||
| 188 | CONTINUOUS FLOW SYNTHESIS OF VO2 NANOPARTICLES OR NANORODS BY USING A MICROREACTOR | US15487276 | 2017-04-13 | US20170297949A1 | 2017-10-19 | Jie LI; Yugang SUN; Ralph T. MUEHLEISEN; Leah B. GUZOWSKI; Xiaojie YAN; Samuel Dull; Ioannina CASTANO |
| The invention provides a method for producing composite nanoparticles, the method using a first compound capable of transitioning from a monoclinic to a tetragonal rutile crystal state upon heating, and having the steps of subjecting the first compound to a hydrothermal synthesis to create anisotropic crystals of the compound; encapsulating the first compound with a second compound to create a core-shell construct; and annealing the construct as needed. Also provided is a device for continuously synthesizing composite nanoparticles, the device having a first precursor supply and a second precursor supply; a mixer to homogeneously combine the first precursor and second precursor to create a liquor; a first microreactor to subject the liquor to hydrothermic conditions to create an\isotropic particles in a continuous operation mode; and a second microreactor for coating the particles with a third precursor to create a core-shell construct. | ||||||
| 189 | Ion exchangeable glass with high crack initiation threshold | US15132696 | 2016-04-19 | US09682885B2 | 2017-06-20 | Timothy Michael Gross |
| Alkali aluminosilicate glasses that are resistant to damage due to sharp impact and capable of fast ion exchange are provided. The glasses comprise at least 4 mol % P2O5 and, when ion exchanged, have a Vickers indentation crack initiation load of at least about 7 kgf. | ||||||
| 190 | Method of Manufacturing Glass Substrate | US15422480 | 2017-02-02 | US20170144924A1 | 2017-05-25 | Wen-Liang Huang |
| A method of manufacturing the glass substrate is provided. First, a glass substrate having a target surface is provided. Next, an abrasive blasting process for the target surface is performed. After the abrasive blasting process, an etching process for the target surface is performed. The present invention further provides a glass substrate having a target surface. The target surface has an average etching depth between 1 μm and 100 μm, a roughness (Ra) between 0.05 μm and 1.5 μm, and a friction below 0.4. | ||||||
| 191 | LUMINESCENT PARTICLE, MATERIALS AND PRODUCTS INCLUDING SAME, AND METHODS | US15159389 | 2016-05-19 | US20170066963A1 | 2017-03-09 | ROBERT J. NICK |
| A luminescent particle including a surface comprising glass that surrounds one or more particles of one or more light emissive materials is disclosed. Preferably the surface comprises a vitrified glass. Methods form making a luminescent particle including a surface comprising glass that surrounds one or more particles of one or more light emissive materials is also disclosed. Compositions and products including a luminescent particle are further disclosed. | ||||||
| 192 | DENSITY ENHANCEMENT METHODS AND COMPOSITIONS | US15071004 | 2016-03-15 | US20160368057A1 | 2016-12-22 | Adam Bayne HOPKINS; Salvatore TORQUATO |
| The present invention relates to granular composite density enhancement, and related methods and compositions. The application where the properties are valuable include but are not limited to: 1) additive manufacturing (“3D printing”) involving metallic, ceramic, cermet, polymer, plastic, or other dry or solvent-suspended powders or gels, 2) concrete materials, 3) solid propellant materials, 4) cermet materials, 5) granular armors, 6) glass-metal and glass-plastic mixtures, and 7) ceramics comprising (or manufactured using) granular composites. | ||||||
| 193 | Graphene coated optic fibers | US15081941 | 2016-03-28 | US09440879B2 | 2016-09-13 | Tyson York Winarski |
| A graphene coated optic fiber is disclosed. An optic fiber core is encapsulated within a graphene capsule. An optic fiber having cladding layer encapsulated within a graphene capsule is also disclosed. The graphene capsule may comprise a single layer of graphene, bi-layer of graphene, or multiple layers of graphene. An optical circuit is disclosed that transmits ultraviolet light across an optic fiber encapsulated with graphene. | ||||||
| 194 | Hydrogen-supported fluorination of soot bodies | US14431525 | 2013-09-06 | US09416044B2 | 2016-08-16 | Martin Trommer; Malte Schwerin; Stephan Grimm; Frank Froehlich; Johannes Kirchhof |
| The invention relates to a method for fluorinating a soot body. The method involves: a) providing a soot body, and b) treating the soot body with a gas mixture containing hydrogen and CnF2n+2 (n=1 or 2) at a temperature in the range of (1,280-n*250)° C. to (1,220-n*100)° C. | ||||||
| 195 | GRAPHENE COATED OPTIC FIBERS | US15081941 | 2016-03-28 | US20160207829A1 | 2016-07-21 | Tyson York Winarski |
| A graphene coated optic fiber is disclosed. An optic fiber core is encapsulated within a graphene capsule. An optic fiber having cladding layer encapsulated within a graphene capsule is also disclosed. The graphene capsule may comprise a single layer of graphene, bi-layer of graphene, or multiple layers of graphene. An optical circuit is disclosed that transmits ultraviolet light across an optic fiber encapsulated with graphene. | ||||||
| 196 | Glass with high frictive damage resistance | US13101373 | 2011-05-05 | US09346709B2 | 2016-05-24 | Timothy Michael Gross |
| A glass article exhibiting improved resistance to fictive surface damage and a method for making it, the method comprising removing a layer of glass from at least a portion of a surface of the article that is of a layer thickness at least effective to reduce the number and/or depth of flaws on the surface of the article, and then applying a friction-reducing coating to the portion of the article from which the layer of surface glass has been removed. | ||||||
| 197 | DECORATIVE POROUS INORGANIC LAYER COMPATIBLE WITH ION EXCHANGE PROCESSES | US14768832 | 2014-02-24 | US20160002104A1 | 2016-01-07 | Philippe Lehuede; Marie Jacqueline Monique |
| Embodiments of methods for forming strengthened glass articles comprise providing an exchangeable glass substrate having a coefficient of thermal expansion (CTE) between about 60×10−7°/C. to about 110×10−7°/C., depositing at least one decorative porous inorganic layer onto at least a portion of the surface of the glass substrate, wherein the decorative porous inorganic layer comprises a glass transition temperature (Tg)≧450° C., a glass softening temperature (Ts)≧650° C., wherein the difference in CTE values between the glass substrate and the decorative porous inorganic layer is within 10×10−7°/C.; and curing the glass substrate and the deposited decorative porous inorganic layer at a temperature greater than the Ts of the decorative porous inorganic layer; and chemically strengthening the cured glass substrate and the decorative porous inorganic layer thereon via ion exchange at a temperature below the Tg of the decorative porous inorganic layer. | ||||||
| 198 | PRINTABLE DIFFUSION BARRIERS FOR SILICON WAFERS | US14655839 | 2013-12-18 | US20150340518A1 | 2015-11-26 | Ingo KOEHLER; Oliver DOLL; Sebastian BARTH |
| The present invention relates to a novel process for the preparation of printable, high-viscosity oxide media, and to the use thereof in the production of solar cells. | ||||||
| 199 | Li2O-Al2O3-SiO2 BASED CRYSTALLIZED GLASS AND PRODUCTION METHOD FOR THE SAME | US14794233 | 2015-07-08 | US20150307390A1 | 2015-10-29 | Shingo NAKANE; Kosuke KAWAMOTO |
| An object of the present invention is to provide a Li2O—Al2O3—SiO2 based crystallized glass with excellent bubble quality even without using As2O3 or Sb2O3 as a fining agent and a method for producing the same. The Li2O—Al2O3—SiO2 based crystallized glass of the present invention is a Li2O—Al2O3—SiO2 based crystallized glass which does not substantially comprise As2O3 and Sb2O3 and comprises at least one of Cl, CeO2 and SnO2, and has a S content of not more than 10 ppm in terms of SO3. | ||||||
| 200 | STRENGTHENED GLASS WITH DEEP DEPTH OF COMPRESSION | US14723815 | 2015-05-28 | US20150259244A1 | 2015-09-17 | Jaymin Amin; Benedict Osobomen Egboiyi; Pascale Oram; Jonathan David Pesansky; Kevin Barry Reiman; Rostislav Vatchev Roussev; Vitor Marino Schneider; Brian Paul Strines |
| Chemically strengthened glass articles having at least one deep compressive layer extending from a surface of the article to a depth of layer DOL of about 130 μm up to about 175 μm or, alternatively, to a depth of compression (DOC) in a range from about 90 μm to about 120 μm within the article. The compressive layer has a stress profile that includes a first substantially linear portion extending from a relatively shallow depth to the DOL or DOC and a second portion extending from the surface to the shallow depth. The second portion is substantially linear at a depth from 0 μm to 5 μm and has a steeper slope than that of the first portion of the profile. Methods of achieving such stress profiles are also described. | ||||||
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