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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
201	Extruded 1XXX-series aluminium alloy tube product	US14112074	2012-04-03	US09216467B2	2015-12-22	Adrianus Jacobus Wittebrood; Steven Kirkham; Achim Bürger; Klaus Vieregge
An aluminum alloy extruded tube product for a heat exchanger assembly and made from an 1xxx-series aluminum alloys and including furthermore a purposive addition of one or more wetting elements selected from the group of: Bi 0.03% to 0.5%, Pb 0.03% to 0.5%, Sb 0.03% to 0.5%, Li 0.03% to 0.5%, Se 0.03% to 0.5%, Y 0.03% to 0.05%, Th 0.03% to 0.05%, and the sum of these elements being 0.5% or less.
202	DUAL ALLOY TURBINE ROTORS AND METHODS FOR MANUFACTURING THE SAME	US14297406	2014-06-05	US20150354379A1	2015-12-10	Amandine Miner; David K. Jan; Don Mittendorf; Jason Smoke
Dual alloy turbine rotors and methods for manufacturing the same are provided. The dual alloy turbine rotor comprises an assembled blade ring and a hub bonded to the assembled blade ring. The assembled blade ring comprises a first alloy selected from the group consisting of a single crystal alloy, a directionally solidified alloy, or an equi-axed alloy. The hub comprises a second alloy. The method comprises positioning a hub within a blade ring to define an interface between the hub and the blade ring. The interface is a non-contacting interface or a contacting interface. The interface is enclosed by a pair of diaphragms. The interface is vacuum sealed. The blade ring is bonded to the hub after the vacuum sealing step.
203	BRAZING METHOD	US14831581	2015-08-20	US20150352651A1	2015-12-10	David Edward SCHICK; Srikanth Chandrudu KOTTILINGAM; Benjamin Paul LACY; John Wesley HARRIS, JR.; Brian Lee TOLLISON
A brazing method is disclosed. The brazing method includes providing a substrate, providing at least one groove in the substrate, providing a support member, positioning the support member over the at least one groove in the substrate, providing a braze material, applying the braze material over the support member to form an assembly, and heating the assembly to braze the braze material to the substrate. Another brazing method includes providing a preform, providing a wire mesh, pressing the wire mesh into the preform, heating the preform to form a braze material including the wire mesh, providing a substrate, providing at least one groove in the substrate, applying the braze material over the at least one groove in the substrate, then brazing the braze material to the substrate.
204	BRAZING METHOD	US14831485	2015-08-20	US20150352650A1	2015-12-10	David Edward SCHICK; Srikanth Chandrudu KOTTILINGAM; Benjamin Paul LACY; John Wesley HARRIS, JR.; Brian Lee TOLLISON
A brazing method is disclosed. The brazing method includes providing a substrate, providing at least one groove in the substrate, providing a support member, positioning the support member over the at least one groove in the substrate, providing a braze material, applying the braze material over the support member to form an assembly, and heating the assembly to braze the braze material to the substrate. Another brazing method includes providing a preform, providing a wire mesh, pressing the wire mesh into the preform, heating the preform to form a braze material including the wire mesh, providing a substrate, providing at least one groove in the substrate, applying the braze material over the at least one groove in the substrate, then brazing the braze material to the substrate.
205	CLAMP WITH CERAMIC ELECTRODE	US14723608	2015-05-28	US20150349669A1	2015-12-03	Oliver BALDUS
A holding apparatus (100) for electrostatically holding a component (1), in particular a silicon wafer, includes at least one base body (10, 10A, 10B) which is composed of a first plate (11A) and a second plate (12), the first plate (11A) being arranged on an upper side (10A) of the base body (10, 10A, 10B) and the second plate are made of an electrically insulating material, a plurality of projecting, upper burls (13A) which are arranged on the upper side (10A) of the base body (10, 10A, 10B) and form a support surface for the component (1), and a first electrode which is arranged to receive a clamping voltage, wherein the first plate (11A) is made of an electrically conductive, silicon-including ceramic and forms the first electrode. A method for producing the holding apparatus (100) is also described.
206	Method for producing a metal reinforcement for a turbine engine blade	US13518179	2010-12-22	US09199345B2	2015-12-01	Thierry Jean Emile Flesch; Jean-Franøois Fromentin; Stéphane André Leveque; Laetitia Sanchez
A method for creating a metal reinforcement for a leading or trailing edge of a turbine engine blade including a reinforcement foot and head, the method including: creating a plurality of V-shaped tapered elements that form different parts of the metal reinforcement so that the metal reinforcement is divided into a plurality of parts distributed between the foot and the head; positioning the parts on equipment that is shaped like the leading or trailing edge of the turbine engine blade; and rigidly connecting the different parts so as to form the complete profile of the one-piece metal reinforcement the by recombining the different parts.
207	High Temperature Thermoelectrics	US14493037	2014-09-22	US20150333243A1	2015-11-19	Joshua E. Moczygemba; James L. Bierschenk; Jeffrey W. Sharp
In accordance with one embodiment of the present disclosure, a thermoelectric device includes a plurality of thermoelectric elements that each include a diffusion barrier. The diffusion barrier includes a refractory metal. The thermoelectric device also includes a plurality of conductors coupled to the plurality of thermoelectric elements. The plurality of conductors include aluminum. In addition, the thermoelectric device includes at least one plate coupled to the plurality of thermoelectric elements using a braze. The braze includes aluminum.
208	Extruded 3XXX-series aluminium alloy tube product	US14112179	2012-04-03	US09180537B2	2015-11-10	Adrianus Jacobus Wittebrood; Steven Kirkham; Achim Bürger; Klaus Vieregge
An aluminum alloy extruded tube product for a heat exchanger assembly and made from a 3xxx-series aluminum alloys and including furthermore a purposive addition of one or more wetting elements selected from the group of: Bi 0.03% to 0.5%, Pb 0.03% to 0.5%, Sb 0.03% to 0.5%, Li 0.03% to 0.5%, Se 0.03% to 0.5%, Y 0.03% to 0.05%, Th 0.03% to 0.05%, and the sum of these elements being 0.5% or less.
209	ALLOYS	US14345646	2014-01-17	US20150306709A1	2015-10-29	Gunther WIEHL; Frank SILZE; Bernd KEMPF
Novel alloys which can be employed in joining technology and have improved wetting properties are described.
210	LAYERED BONDED STRUCTURES FORMED FROM REACTIVE BONDING OF ZINC METAL AND ZINC PEROXIDE	US14791119	2015-07-02	US20150303316A1	2015-10-22	Robyn L. Woo
A system, method, and apparatus for layered bonded structures formed from reactive bonding between zinc metal and zinc peroxide are disclosed herein. In particular, the present disclosure teaches a layered bonded structure wherein two structures are bonded together with a layer including zinc oxide. The zinc oxide is formed through a method that includes processing the two structures by contacting the structures under pressure and applying heat to the structures to promote a reaction with zinc peroxide and zinc metal on one or both of the two structures.
211	Layered bonded structures formed from reactive bonding of zinc metal and zinc peroxide	US13471306	2012-05-14	US09105561B2	2015-08-11	Robyn L. Woo
A system, method, and apparatus for layered bonded structures formed from reactive bonding between zinc metal and zinc peroxide are disclosed herein. In particular, the present disclosure teaches a layered bonded structure wherein two structures are bonded together with a layer including zinc oxide. The zinc oxide is formed through a method that includes processing the two structures by contacting the structures under pressure and applying heat to the structures to promote a reaction with zinc peroxide and zinc metal on one or both of the two structures.
212	PLURAL LAYER PUTTY-POWDER/SLURRY APPLICATION METHOD FOR SUPERALLOY COMPONENT CRACK VACUUM FURNACE HEALING	US14134212	2013-12-19	US20150174707A1	2015-06-25	Hang Li; Mark A. Garcia; Somesh J. Ghunakikar; William J. Lowe
A process for repairing combined heavy erosion and thermal fatigue cracks and/or other defects, such as large cracks, in a high temperature superalloy component, such as a vane in a turbine section of a gas turbine engine, that does not require mechanical grinding to prepare the defect site. The process includes depositing a loose finely granulated superalloy powder or a low viscosity superalloy slurry in the crack up to a suitable level and then depositing a superalloy putty layer on the superalloy powder or slurry at the top of the crack A braze putty layer is then deposited over the superalloy putty layer and the component is sintered in a vacuum furnace to harden the superalloy putty and powder or slurry to repair the defect.
213	BRAZING METHOD	US14041701	2013-09-30	US20150090773A1	2015-04-02	David Edward SCHICK; Srikanth Chandrudu KOTTILINGAM; Benjamin Paul LACY; John Wesley HARRIS, JR.; Brian Lee TOLLISON
A brazing method is disclosed. The brazing method includes providing a substrate, providing at least one groove in the substrate, providing a support member, positioning the support member over the at least one groove in the substrate, providing a braze material, applying the braze material over the support member to form an assembly, and heating the assembly to braze the braze material to the substrate. Another brazing method includes providing a preform, providing a wire mesh, pressing the wire mesh into the preform, heating the preform to form a braze material including the wire mesh, providing a substrate, providing at least one groove in the substrate, applying the braze material over the at least one groove in the substrate, then brazing the braze material to the substrate.
214	NOVEL BRAZING CONCEPT	US14387061	2013-03-27	US20150086776A1	2015-03-26	Per Sjödin; Kristian Walter
The present invention relates to a blend of at least one boron source and at least one silicon source, wherein the blend comprises boron and silicon in a weight ratio boron to silicon within a range from about 5:100 to about 2:1, wherein silicon and boron are present in the blend in at least 25 wt %, and wherein the at least one boron source and the at least one silicon source are oxygen free except for inevitable amounts of contaminating oxygen, and wherein the blend is a mechanical blend of powders, and wherein particles in the powders have an average particle size less than 250 μm. The present invention relates further to a composition comprising the blend a substrate applied with the blend, a method for providing a brazed product, and uses.
215	METHOD OF MANUFACTURING A COMPONENT AND THERMAL MANAGEMENT PROCESS	US14037887	2013-09-26	US20150086408A1	2015-03-26	Srikanth Chandrudu KOTTILINGAM; Benjamin Paul Lacy; Carlos Miguel Miranda; David Edward Schick
A method of manufacturing a component and a method of thermal management are provided. The methods include forming at least one portion of the component, printing a cooling member of the component and attaching the at least one portion to the cooling member of the component. The cooling member includes at least one cooling feature. The at least one cooling feature includes at least one cooling channel adjacent to a surface of the component, wherein printing allows for near-net shape geometry of the cooling member with the at least one cooling channel being located within a range of about 127 (0.005 inches) to about 762 micrometers (0.030 inches) from the surface of the component. The method of thermal management also includes transporting a fluid through at least one fluid pathway defined by the at least one cooling channel within the component to cool the component.
216	Solder Alloy	US14394887	2013-04-17	US20150086263A1	2015-03-26	Hikaru Nomura; Shunsaku Yoshikawa
A solder alloy has an alloy composition containing Zn of 3 through 25 mass %, Ti of 0.002 through 0.25 mass %, Al of 0.002 through 0.25 mass % and balance of Sn, a solder joint made of the solder alloy, and a jointing method using the solder alloy.
217	METHOD FOR JOINING METAL PARTS	US14388262	2013-03-27	US20150044501A1	2015-02-12	Per Sjödin; Kristian Walter
A method for joining a first metal part (11) with a second metal part (12), the metal parts (11,12) having a solidus temperature above 1100 QC. The method comprises: applying a melting depressant composition (14) on a surface (15) of the first metal part (11), the melting depressant composition (14) comprising a melting depressant component that comprises at least 25 wt % boron and silicon for decreasing a melting temperature of the first metal part (11); bringing (202) the second metal part (12) into contact with the melting depressant composition (14) at a contact point (16) on said surface (15); heating the first and second metal parts (11,12) to a temperature above 1100 QC; and allowing a melted metal layer (210) of the first metal component (11) to solidify, such that a joint (25) is obtained at the contact point (16). The melting depressant composition and related products are also described.
218	PLATE HEAT EXCHANGER	US14382668	2013-03-28	US20150034286A1	2015-02-05	Per Sjödin; Kristian Walter
Disclosed is a method for producing a permanently joined plate heat exchanger comprising a plurality of metal heat exchanger plates having a solidus temperature above 1100° C., provided beside each other and forming a plate package with first plate interspaces for a first medium and second plate interspaces for a second medium, wherein the first and second plate interspaces are provided in an alternating order in the plate package. Each heat exchanger plate comprises a heat transfer area and an edge area which extend around the heat transfer area. The heat transfer area comprises a corrugation of elevations and depressions, wherein said corrugation of the plates are provided by pressing the plates. Also disclosed is a plate heat exchanger produced by the method.
219	Fully Welded Fence Panel And Method Of Making Same	US13784956	2013-03-05	US20140252290A1	2014-09-11	James A. Lachenberg
A fully welded fence panel is disclosed that comprises a plurality of vertical pickets and a pair of horizontal metal rails. The top and bottom portions of the pickets are pressed in a mechanical or hydraulic press to create flattened surfaces and welded to the rails. The flattened surfaces may either be oriented parallel to the lengthwise direction of the metal rails to facilitate welding, or the flattened surfaces may be oriented perpendicular to the lengthwise direction of the metal rails to both facilitate welding and enable the fence panel to be racked when used as a railing. Indentations are pressed into opposite sides of the flattened surfaces at the same location and are perpendicular to the lengthwise direction of the picket to further enable the fence panel to be racked. The railing is therefore adjustable at a customer's site to change the angle between the pickets and rails and avoid the need for perfect angle measurements prior to manufacture. The end portions of the horizontal rails also include flattened surfaces that are welded to vertical posts that are positioned at opposite ends of the fence panel so that the fence panel and posts can be racked as a unit.
220	Production method of cooler	US13888460	2013-05-07	US08772926B2	2014-07-08	Atsushi Otaki; Shigeru Oyama
The production method of a cooler includes a laminated material production step S1 and a brazing joining step. In the laminated material production step, a laminated material is formed by integrally joining a Ni layer made of Ni or a Ni alloy having an upper surface to which a member to be cooled is to be joined by soldering, a Ti layer made of Ti or a Ti alloy and arranged on a lower surface side of the Ni layer, and an Al layer made of Al or an Al alloy and arranged on a lower surface side of the Ti layer in a laminated manner. In the brazing joining step, a lower surface of the Al layer of the laminated material and a cooling surface of a cooler main body are joined by brazing.

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