Method for forming nano-scale metal particles
a metal particle and nano-scale technology, applied in metal-working apparatuses, transportation and packaging, etc., can solve the problems of increased production cost, burning or explosion,
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example 1
Formation and Properties of Tin-Containing Nano-Scale Metal Particles
[0029]is example is to prepare and investigate the tin-containing nano-scale metal particles according to the invention. The chemical equation is shown as the following:
SnCl2+2N(Et)4(BH4)→Sn+2N(Et)4Cl+B2H6+H2.
[0030]e detailed steps are given in the following. At room temperature and under an atmospheric environment, a certain amount of the reducing agent and a certain amount of SnCl2 are weighted and placed in a 50 ml graduate cylinder, separately. A magnet is placed in the graduate cylinder for stirring beforehand. Then, a septum is used to seal the container and the septum is then wrapped with paraffin for air-tight. Nitrogen gas is introduced into the graduate cylinder to expel the moisture in air. 20 ml of solvent is added by a syringe and then the mixture is stirred for 30 minutes to ensure completely dissolving in the solvent. Thus, the reducing agent solution and the SnCl2 solution are prepared. The reducing...
example 2
Formation of Copper Nano-Scale Metal Particles
[0033]The chemical equation for forming copper nano-scale metal particles according to the invention is shown as the following:
CuCl2+2N(C2H5)4BH4→Cu+2N(C2H5)4Cl+B2H6+H2.
[0034]The detailed steps are given in the following. At room temperature and under a nitrogen environment, a proper quantity of the reducing agent is weighted. The reducing agent is tetraethylammonium borohydride. The reducing agent dissolves in the solvent to form 20 ml of 0.01M reducing agent solution. Then, at room temperature and under a nitrogen environment, a proper quantity of copper chloride is weighted and dissolves in the solvent to form 20 ml of 0.005M copper chloride solution. These solutions are separately stirred by magnets for over 20 minutes to ensure completely dissolution. Finally, under a nitrogen environment, the reducing agent solution is blended with the copper chloride solution with different ratios. An ultrasonic vibrator is used while the reaction...
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