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Sn-Cu Alloy Nanopowder / Nanoparticles (99.9%, <100nm, SN:CU/9:1)
September 28, 2017
Fe-Ni-Co Alloy Nanopowder / Nanoparticles
Fe-Ni-Co Alloy Nanopowder / Nanoparticles (99.9%, <100nm, Fe:Ni:Co/55:28:17)
September 28, 2017
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Sn-Cu Alloy Nanopowder / Nanoparticles (99.9%, <100 nm, SN:CU/1:9)

Damp reunion will affect its dispersion performance and using effects, therefore, this product should be sealed in vacuum and stored in cool and dry room and it should not be exposure to air. In addition, the product should be avoided under stress

Sn-Cu Alloy Nanopowder / Nanoparticles (99.9%, <100 nm, SN:CU/1:9)

Sn-Cu Alloy Nanopowder / Nanoparticles (99.9%, <100 nm, SN:CU/1:9)
Product No. CAS No. Formula Molecular Weight APS Purity Color Form
NRE-2008 7440-02-0/7440-32-6 Ni-Ti Alloy Nanoparticles 106.5604 g/mol <100nm (Can be Customized) 99.9% Grey Black Powder
Density 7.96 g/cm3
Melting Point 1577°C
Boiling Point 1751°C
Nano Alloy SN: CU/1:9 Certificate of Analysis











Sn-Cu Alloy Nanopowder

Sn – 0.8% by weight of copper alloy is prepared to study the transformation of white tin into the gray tin. The relationship between the transformation percentage and the time is determined by measuring the areas of the transformed gray can and examining the effect of cold rolling on the transformation. It is concluded that both copper additions to pure tin and severe deformation are effective in improving transformation. The incubation period before the start of the transformation also depends on the reduction of the cold.

Three types of free ligands Sn-Cu nanoporous alloys are prepared by electrodeposition, then distributed and electrochemically tested as possible materials for negative electrodes of lithium ion batteries. The morphology and structure of these alloys have been characterized by X-ray diffraction, scanning electron microscopy, and atomic absorption spectrophotometer. Experimental results indicate that the composition, pore size, size distribution, and alloy homogeneity can be controlled easily by changing the proportion of primary salts in the plating bath. The content of Sn in the alloys after an electrochemical sale is significantly reduced and Cu6Sn5 becomes the main active component. However, there is no obvious decrease in specific capacity. The initial specific capacities of all materials are in the range 480-810 mA h g-1. But the ability of the deposited Sn-Cu alloys remains 110-190 mA h g-1 after 50 cycles, while a capacity of Sn-Cu nanoporous alloys remains approximately 400 mA h g-1 after the same cycles. This suggests that both the capacity and performance of the cycle can be improved by optimizing the nanostructured materials using electrochemical distribution.

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