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序号	专利名	申请号	申请日	公开（公告）号	公开（公告）日	发明人
121	Prosthetic appliance kit	US15210785	2016-07-14	US09868232B2	2018-01-16	Stephen Bettles
Prosthetics created in layers, and methods of making them, comprising one or more materials. The methods utilize a clay sculpture from which is made a negative impression cast in silicone, which is used to cast a durable positive prosthetic, which is used to create either durable or temporary negative production impressions into which the layers can be built to form the finished prosthetic.
122	Variable Width Deposition for Additive Manufacturing with Orientable Nozzle	US15144957	2016-05-03	US20170320267A1	2017-11-09	Randall F. Lind; Brian K. Post; Lonnie J. Love; Peter D. Lloyd; Charles Lynn Carnal; Craig A. Blue; Vlastimil Kunc
An additive manufacturing machine includes a nozzle assembly with a noncircular, rotatable outlet. The nozzle assembly deposits a bead of material having a width that is defined by the angular orientation of the noncircular shaped outlet with respect to the material deposition path direction. The combination of high material deposition rate and fine resolution save time and energy while also producing high-quality parts.
123	Dripless liquid color feed throat adaptor and method for dripless liquid color delivery	US14105958	2013-12-13	US09796123B2	2017-10-24	Stephen B. Maguire
Apparatus and methods for converting granular plastic resin into colored finished or semi-finished plastic parts include a process machine having a barrel with a vertically opening feed throat, a rotatable screw inside the barrel, and a color feed conduit assembly positioned at least partially within the process machine and extending into the barrel for passage of liquid color downwardly through the color feed conduit assembly into proximity with the screw.
124	Powder material for three-dimensional modeling, kit for three-dimensional modeling, device for manufacturing three-dimensional object, and method of manufacturing three-dimensional object	US15065161	2016-03-09	US09782935B2	2017-10-10	Yasuyuki Yamashita; Yasuo Suzuki; Mitsuru Naruse; Nozomu Tamoto; Shigenori Yaguchi; Hitoshi Iwatsuki; Kazumi Ohtaki
A powder material for three-dimensional modeling includes a base particle and a coverage film including an organic material. The coverage film covers the base particle. The powder material is used for three dimensional modeling and when the coverage film is dissolved in a solvent to prepare a solution and the solution is formed into a coated film on a smooth surface, the coated film has a wetting tension of from 22 mN/m to 28 mN/m.
125	PROCESSING BIOMASS	US15411349	2017-01-20	US20170226549A1	2017-08-10	Marshall Medoff
Methods are provided for reducing one or more dimensions of individual pieces of biomass; treating biomass, such as size-reduced biomass; changing a molecular structure of a biomass material; and, optionally, subjecting the biomass to a primary process to form a product. The methods include processing biomass materials using a screw extrusion process, and treating the biomass material with a screw extrusion process in size-reduction and treating steps.
126	ADDITIVE MANUFACTURED CONGLOMERATED POWDER REMOVAL FROM INTERNAL PASSAGES WITH CO-BUILT ULTRASONIC HORNS	US15011969	2016-02-01	US20170217094A1	2017-08-03	Caitlin Oswald; Jesse R. Boyer; John P. Rizzo, JR.
An additively manufactured component with an internal passage; and a multiple of ultrasonic horns additively manufactured within the internal passage. A method of removing conglomerated powder from an internal passage of an additively manufacturing a component, including ultrasonically exciting at least one of a multiple of the ultrasonic horns within an internal passage of an additively manufactured component
127	Method and apparatus for dry granulation	US14582664	2014-12-24	US09700513B2	2017-07-11	Giovanni Politi; Erkki Heilakka
The invention provides, inter alia, a method for producing granules from a powder, characterized in that compaction force is applied to the powder to produce a compacted mass comprising a mixture of fine particles and granules and separating and removing fine particles and/or small granules from the other granules by entraining the fine particles and/or small granules in a gas stream. Also provided are apparatus for use in the process and tablets formed by compression of the resultant granules.
128	Batch mixer with plunger	US14789106	2015-07-01	US09643352B2	2017-05-09	Fares D. Alsewailem
A batch mixer is equipped with a plunger for pushing material from the batch mixer. The batch mixer includes a mixer tank structured to accommodate material. The mixer further includes a mixer head comprising at least one blade structured to blend the material within the mixer tank. The mixer further includes a plunger mechanism structured to push the blended material directly from the mixer tank.
129	METHOD AND SYSTEM FOR PERFORMING AN INFRARED TREATMENT	US15297737	2016-10-19	US20170100856A1	2017-04-13	Aarne Heino; Ilya Kaufman
A method for performing an infrared treatment includes the steps of receiving an extruded product and feeding the extruded product to an oven including at least one lamp unit. The lamp unit includes a lamp, a reflective surface enclosing a first side of the lamp and positioned to direct radiation from the lamp, and a glass disposed between a second side of the lamp and an extruded product, wherein the glass separates the lamp and the extruded product. The method further includes the step of creating cross-linking between layers of the extruded product by directing the radiation at the extruded product. Still further, the method includes the steps of directing a first gas flow at a surface of the product and directing a second gas flow at the glass.
130	METHOD FOR A COMPOSITE MATERIAL IMPREGNATED WITH THERMOPLASTIC POLYMER, OBTAINED FROM A PREPOLYMER AND A CHAIN EXTENDER	US15304657	2015-04-15	US20170037208A1	2017-02-09	Gilles Hochstetter; Thierry Briffaud; Mathieu Capelot
A process for a composite material, including an assembly of one or more reinforcing fibers, impregnated with at least one thermoplastic polymer with a glass transition temperature Tg of less than or equal to 75° C. and a melting point of from 150° C. to less than 250° C. or a Tg of greater than 75° C., the process including: i) a step of impregnating said assembly in bulk melt form with at least one thermoplastic polymer, which is the product of polymerization by polyaddition reaction of a reactive precursor composition including: a) at least one prepolymer P(X)n of said thermoplastic polymer, and b) at least one chain extender, represented by Y-A-Y, ii) a step of cooling and obtaining a fibrous preimpregnate, and iii) a step of processing and final forming of said composite material.
131	UNIFORMITY OF FIBER SPACING IN CMC MATERIALS	US14813239	2015-07-30	US20170029340A1	2017-02-02	Jared Hogg WEAVER; Gregory Scot CORMAN; Daniel Gene DUNN
A pre-impregnated composite tape is provided that includes: a matrix material; a plurality of fibers forming unidirectional arrays of tows encased within the matrix material; and a plurality of filler particles dispersed between adjacent fibers in the tape. The fibers have a mean fiber diameter of about 5 microns and about 40 microns, and are included within the tape at a volume fraction of about 15% and about 40%. The plurality of filler particles have a log-normal volumetric median particle size, such that the tape has a ratio of the log-normal volumetric median particle size to the mean fiber diameter that is about 0.05:1 to about 1:1. A method is also provided for forming a ceramic matrix composite.
132	SYSTEMS AND METHODS FOR ADDITIVELY MANUFACTURING COMPOSITE PARTS	US15063347	2016-03-07	US20170028637A1	2017-02-02	Nick S. Evans; Faraón Torres; Ryan G. Ziegler; Samuel F. Harrison; Ciro J. Grijalva, III; Hayden S. Osborn
A system (700) for additively manufacturing a composite part (102) comprises a delivery guide (112), movable relative to a surface (114). The delivery guide (112) is configured to deposit at least a segment (120) of a continuous flexible line (106) along a print path (122). The continuous flexible line (106) comprises a non-resin component (108) and a thermosetting-resin component (110). The thermosetting-resin component (110) comprises a first part (253) and a second part (255). The non-resin component (108) comprises a first element (271) and a second element (273). The system (700) further comprises a first resin-part applicator (236), configured to apply the first part (253) to the first element (271), and a second resin-part applicator (237), configured to apply the second part (255) to the second element (273). The system (700) also comprises a feed mechanism (104), configured to pull the first element (271) through the first resin-part applicator (236), to pull the second element (273) through the second resin-part applicator (237), and to push the continuous flexible line (106) out of the delivery guide (112).
133	SYSTEMS AND METHODS FOR ADDITIVELY MANUFACTURING COMPOSITE PARTS	US14995742	2016-01-14	US20170028625A1	2017-02-02	Nick S. Evans; Faraón Torres; Ryan G. Ziegler; Samuel F. Harrison; Ciro J. Grijalva, III; Hayden S. Osborn
A method (400) of additively manufacturing a composite part (102) is disclosed. The method (400) comprises applying a thermosetting resin (252) to a non-resin component (108) of a continuous flexible line (106) while pushing the non-resin component (108) through a delivery guide (112) and pushing the continuous flexible line (106) out of the delivery guide (112). The continuous flexible line (106) further comprises a thermosetting resin component (110) that comprises at least some of the thermosetting resin (252) applied to the non-resin component (108). The method (400) further comprises depositing, via the delivery guide (112), a segment (120) of the continuous flexible line (106) along the print path (122).
134	SYSTEMS AND METHODS FOR ADDITIVELY MANUFACTURING COMPOSITE PARTS	US14931692	2015-11-03	US20170028621A1	2017-02-02	Nick S. Evans; Faraón Torres; Ryan G. Ziegler; Samuel F. Harrison; Ciro J. Grijalva, III; Hayden S. Osborn
A method (400) of additively manufacturing a composite part (102) is disclosed. The method (400) comprises depositing, via a delivery guide (112), a segment (120) of a continuous flexible line (106) along a print path (122). The continuous flexible line (106) comprises a non-resin component (108) and a thermosetting-epoxy-resin component (110) that is partially cured. The method (400) also comprises maintaining the thermosetting-epoxy-resin component (110) of at least the continuous flexible line (106) being advanced toward the print path (122) via the delivery guide (112) below a threshold temperature. The method (400) further comprises delivering a predetermined or actively determined amount of curing energy (118) to the segment (120) of the continuous flexible line (106) at a controlled rate while advancing the continuous flexible line (106) toward the print path (122) to at least partially cure the segment (120) of the continuous flexible line (106).
135	SYSTEMS AND METHODS FOR ADDITIVELY MANUFACTURING COMPOSITE PARTS	US14841500	2015-08-31	US20170028620A1	2017-02-02	Nick S. Evans; Faraón Torres; Ryan G. Ziegler; Samuel F. Harrison; Ciro J. Grijalva, III; Hayden S. Osborn
A method (400) of additively manufacturing a composite part (102) comprises pushing a continuous flexible line (106) through a delivery guide (112). The continuous flexible line comprises (106) a non-resin component (108) and a photopolymer-resin component (110) that is partially cured. The method (400) also comprises depositing, via the delivery guide (112), a segment (120) of the continuous flexible line (106) along a print path (122). Additionally, the method (400) comprises delivering curing energy (118) at least to a portion (124) of the segment (120) of the continuous flexible line (106) deposited along the print path (122).
136	SYSTEMS AND METHODS FOR ADDITIVELY MANUFACTURING COMPOSITE PARTS	US14920767	2015-10-22	US20170028617A1	2017-02-02	Nick S. Evans; Faraón Torres; Ryan G. Ziegler; Samuel F. Harrison; Ciro J. Grijalva, III; Hayden S. Osborn
A method (300) of additively manufacturing composite part (102) comprises depositing a segment (120) of a continuous flexible line (106) along a print path (122). The continuous flexible line (106) comprises a non-resin component (108) and further comprises a photopolymer-resin component (110) that is uncured. The method (300) further comprises delivering a predetermined or actively determined amount of curing energy (118) at least to a portion (124) of the segment (120) of the continuous flexible line (106) at a controlled rate while advancing the continuous flexible line (106) toward the print path (122) and after the segment (120) of the continuous flexible line (106) is deposited along the print path (120) to at least partially cure at least the portion (124) of the segment (120) of the continuous flexible line (106).
137	Flexible fabric having superhydrophobic surface	US14221059	2014-03-20	US09556554B2	2017-01-31	Alan Michael Lyons; QianFeng Xu
The disclosure relates to a superhydrophobic surface. Methods of fabrication are disclosed including laminating an optically transparent polymer sheet with hydrophobic nanoparticles such that the nanoparticles are partially embedded and partially exposed. The resulting assembly remains optically transparent. Additional methods include the lamination of nanoparticles to flexible fabrics and the production of molded articles using nanoparticle-treated molds.
138	SYSTEMS AND METHODS FOR INCREMENTALLY FORMING A COMPOSITE PART	US14808989	2015-07-24	US20170021534A1	2017-01-26	Michael Robert Chapman; Charles M. Richards; Jeffrey M. Hansen; Robert L. Anderson
Systems and methods for incrementally forming a composite part are disclosed herein. The systems include a forming mandrel, which includes a forming surface, and a forming machine. The forming machine includes a forming bladder, a pressure-regulating device, and a positioning device. The forming bladder is configured to be inflated to a forming pressure and to press the ply of composite material against the forming surface. The methods include placing a ply of composite material on a forming surface of a forming mandrel and pressing a forming bladder against the ply of composite material at a selected location to press a selected portion of the ply of composite material against the forming surface and conform the selected portion of the ply of composite material to a surface profile of the forming surface. The methods further include repeating the pressing a plurality of times at a plurality of selected locations.
139	Mold for casting concrete	US14804353	2015-07-21	US20170021533A1	2017-01-26	Jian Qing WANG
A mold for casting concrete contains: an inner part, an outer par, a temperature insulation layer, a fixing plate, and a pulling member. The inner part includes a cavity, an inlet, and an outlet which communicate with one another to flow first fluid into the cavity from the inlet and to discharge the first fluid out of the outlet from the cavity. The inner part further includes an outer fence and an inner fence on which the temperature insulation layer is arranged. The outer part is located outside the outer fence, between the outer part and the outer fence is defined a feeding chamber. The outer part includes a heating element and second fluid both defined therein, and the heating element is immersed in the second fluid. The fixing plate is mounted on the outer part and the inner part. The pulling member is fixed on the inner part.
140	METHOD FOR PRODUCING PLASTIC COMPONENTS, WHICH HAVE A HIGH MECHANICAL LOAD-BEARING CAPACITY, WITH A CORRECT FINAL CONTOUR	US14901935	2014-07-25	US20160368187A1	2016-12-22	MARTIN SCHNEEBAUER; MARTIN WUERTELE
A method for producing plastic components, which have a high mechanical load-bearing capacity, with a correct final contour is disclosed. In the method an injection casting process is carried out in a first step using a thermoplastic molding compound in a closed tool consisting of a female die and a male die, a thermoplastic molding compound with a high viscosity being used in order to provide a sufficient seal of the tool or the cavity at the tool parting plane between the female die and the male die in comparison to a molding compound with an extremely low viscosity used in a second step. The cavity is increased prior to the second step such that the seal formed by the molding compound is fixed on or in the molding compound with the extremely low viscosity after said molding compound is injected and cured to such an extent that the molding compounds forms a composite component.

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