Diffusion Couple Method for Determination of Copper-Zinc-Sn-Sulphur Phase Transition in Synthetic Optoelectronic Materials
A technology of copper-zinc-tin-sulfur and optoelectronic materials, which is applied in the preparation of test samples, etc., can solve problems such as phase transition research difficulties, complex ternary systems, etc., and achieve the effects of wide application range, simple process and high efficiency
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Embodiment 1
[0040] Preparation of diffusion couple for 500°C phase transition of Cu-Zn-S system. like figure 1 Firstly, after polishing off the oxide layer on the surface of 99.99wt% Cu sheet with W50 metallographic sandpaper, the surface is cleaned and dried, then the copper sheet is put into a ceramic boat, and 99.99wt% S powder is covered around the copper sheet, In the OTF-1200X vacuum vulcanization furnace, argon protection was carried out at 600°C for 1 hour to synthesize high-purity Cu 2 S powder.
[0041] Mix 99.9wt% Zn powder and 99.99wt% S powder at a stoichiometric ratio of 1:1, and mix evenly; use a manual desktop powder press to press the mixed powder into a 10mm×10mm×5mm square; put the square sample into a ceramic boat In this method, the sample was covered with 99.99wt% S powder, and reacted at 800 °C under argon protection for 1 h in an OTF-1200X vacuum vulcanization furnace to synthesize high-purity solid block ZnS.
[0042] will synthesize high-purity Cu 2 S powder ...
Embodiment 2
[0046] Preparation of diffusion couple for 500°C phase transition of Cu-Sn-S system. First, after polishing the oxide layer on the surface of the 99.99wt% Cu sheet with W50 metallographic sandpaper, the surface was cleaned and dried, and then the copper sheet was put into a ceramic boat, and 99.99wt% S powder was covered around the copper sheet. In the OTF-1200X vacuum vulcanization furnace, use argon as a protective gas at 600°C for 1 hour to synthesize high-purity Cu 2 S powder.
[0047] Mix 99.9wt% Sn powder and 99.99wt% S powder according to the stoichiometric ratio of 1:2, and mix evenly; use a manual desktop powder tablet press to press the mixed powder into a 10mm×10mm×5mm square; put the tablet sample into In a ceramic boat, the sample is covered with 99.99wt% S powder, and reacted at 550°C for 1h under the protection of argon in an OTF-1200X vacuum vulcanization furnace to synthesize high-purity SnS 2 .
[0048] The synthesized high-purity Cu 2 S powder is pressed...
Embodiment 3
[0053] Preparation of diffusion couple for 500°C phase transition of Sn-Zn-S system. First, mix 99.9wt% Zn powder and 99.99wt% S powder according to the stoichiometric ratio of 1:1, and mix evenly; use a manual desktop powder tablet press to press the mixed powder into a 10mm×10mm×5mm square, and put the square sample into the ceramic In the boat, the sample was covered with 99.99wt% S powder, and reacted at 800°C for 1 hour in an OTF-1200X vacuum vulcanization furnace under the protection of argon to synthesize high-purity ZnS.
[0054] Mix 99.9wt% Sn powder and 99.99wt% S powder according to the stoichiometric ratio of 1:2, and mix evenly; use a manual desktop powder tablet press to press the mixed powder into a 10mm×10mm×5mm square; put the tablet sample into In a ceramic boat, the sample is covered with 99.99wt% S powder, and reacted at 550°C under argon protection in an OTF-1200X vacuum vulcanization furnace for 1 hour to synthesize high-purity SnS 2 .
[0055] Synthesi...
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