Class / Patent application number | Description | Number of patent applications / Date published |
420422000 | ZIRCONIUM OR HAFNIUM BASE | 10 |
20100290945 | SOLUTION BASED ZIRCONIUM PRECURSORS FOR ATOMIC LAYER DEPOSITION - Oxygen free, solution based zirconium precursors for use in ALD processes are disclosed for growing ZrO | 11-18-2010 |
20110123388 | ZIRCONIUM ALLOYS EXHIBITING REDUCED HYDROGEN ABSORPTION - An alloy according to example embodiments of the present invention may include zirconium, tin, iron, chromium, and nickel, with a majority of the alloy being zirconium. The composition of the alloy may be about 0.85-2.00% tin by weight, about 0.15-0.30% iron by weight, about 0.40-0.75% chromium by weight, and less than 0.01% nickel by weight. The alloy may further include 0.004-0.020% silicon by weight, 0.004-0.020% carbon by weight, and/or 0.05-0.20% oxygen by weight. Accordingly, the alloy exhibits reduced hydrogen absorption and improved corrosion resistance and may be used to farm a fuel assembly component. | 05-26-2011 |
20110211987 | ZR-TI-NI (CU) BASED BRAZING FILLER ALLOY COMPOSITIONS WITH LOWER MELTING POINT FOR THE BRAZING OF TITANIUM ALLOYS - Disclosed is Zr—Ti—Ni (Cu)-based filler alloy composition having low melting point for brazing titanium and titanium alloys. The Zr—Ti—Ni (Cu)-based alloy composition is expressed as: ZraTibNic (Formula 1) where a,b and c denote atomic % of Zr, Ti and Ni, respectively; 47 | 09-01-2011 |
20120275947 | ZR-TI-NI (CU) BASED BRAZING FILLER ALLOY COMPOSITIONS WITH LOWER MELTING POINT FOR THE BRAZING OF TITANIUM ALLOYS - Zr—Ti—Ni(Cu)-based filler alloy composition having low melting point for brazing titanium and titanium alloys is expressed as: Zr | 11-01-2012 |
20140140885 | Hydrogen storage alloy and negative electrode and Ni-metal hydride battery employing same - A hydrogen storage alloy having a higher electrochemical hydrogen storage capacity than that predicted by the alloy's gaseous hydrogen storage capacity at 2 MPa. The hydrogen storage alloy may have an electrochemical hydrogen storage capacity 5 to 15 times higher than that predicted by the maximum gaseous phase hydrogen storage capacity thereof. The hydrogen storage alloy may be selected from alloys of the group consisting of A | 05-22-2014 |
20160204429 | HYDROGEN STORAGE ALLOY AND NEGATIVE ELECTRODE AND NI-METAL HYDRIDE BATTERY EMPLOYING SAME | 07-14-2016 |
420423000 | Copper containing | 4 |
20090202386 | Alloys, Bulk Metallic Glass, And Methods Of Forming The Same - An alloy having a formula: (Zr1Ti) | 08-13-2009 |
20110097237 | AMORPHOUS ALLOYS HAVING ZIRCONIUM AND RELATING METHODS - Alloys and methods for preparing the same are provided. The alloys are represented by the general formula of Zr | 04-28-2011 |
20110280761 | AMORPHOUS ALLOYS HAVING ZIRCONIUM AND METHODS THEREOF - Alloys and methods of preparing the same are provided. The alloys are represented by the general formula of (Zr | 11-17-2011 |
20110293466 | ZIRCONIUM ALLOYS WITH IMPROVED CORROSION/CREEP RESISTANCE DUE TO FINAL HEAT TREATMENTS - Articles, such as tubing or strips, which have excellent corrosion resistance to water or steam at elevated temperatures, are produced from alloys having 0.2 to 1.5 weight percent niobium, 0.01 to 0.6 weight percent iron, and optionally additional alloy elements selected from the group consisting of tin, chromium, copper, vanadium, and nickel with the balance at least 97 weight percent zirconium, including impurities, where a necessary final heat treatment includes one of i) a SRA or PRXA (15-20% RXA) final heat treatment, or ii) a PRXA (80-95% RXA) or RXA final heat treatment. | 12-01-2011 |