Method for preparing dye sensitized solar cell photo-anode at low temperature
A technology for solar cells and dye sensitization, which is applied in the field of low-temperature preparation of photoanode of dye-sensitized solar cells, can solve the problems of high temperature resistance of polymer materials and high temperature sintering of polymer substrates, and achieves good adhesion and good adhesion. Conducive to electron transfer, good combination effect
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Embodiment 1
[0014] Weigh 1g of the first titanium dioxide composite powder (see patent 201010208675.7 for the specific preparation process), disperse it in 40ml of isopropanol, ultrasonically treat it for 1h, add 0.02g of polyethylene glycol PEG200 to obtain precursor A; weigh 5g with the first The second titanium dioxide composite powder with different particle sizes (see patent 201010208675.7 for the specific preparation process) was dispersed in 200ml of titanium dioxide sol (see patent 201010208973.6 for the specific preparation process), and ultrasonically treated for 40 minutes as precursor B; Mix with precursor B at a mass ratio of 2:1, and then ultrasonically treat for 40 minutes to obtain a reaction solution; place the reaction solution in a pressurized electrode reactor and seal it, set the initial pressure of the reactor to 1MPa, and the reaction temperature to 80°C. Raise the temperature, set the electrophoretic voltage to 2V after the temperature is stable, and conduct electro...
Embodiment 2
[0016] Weigh 10g of the first titanium dioxide composite powder (see patent 201010208675.7 for the specific preparation process), disperse it in 160ml of isopropanol, ultrasonically treat it for 6h, add 0.5g of polyethylene glycol PEG200 to obtain precursor A; weigh 1g and the first The second titanium dioxide composite powder with different particle sizes (see patent 201010208675.7 for the specific preparation process) is dispersed in 50ml of titanium dioxide sol (see patent 201010208973.6 for the specific preparation process), and is recorded as precursor B after ultrasonic treatment for 15 minutes; Mix with precursor B in a mass ratio of 2:4, and then ultrasonically treat for 20 minutes to obtain a reaction solution; place the reaction solution in a pressurized electrode reactor and seal it, set the initial pressure of the reactor to 10MPa, and the reaction temperature to 50°C. After the temperature is stabilized, set the electrophoretic voltage to 6V, and the power-on time ...
Embodiment 3
[0018] Weigh 5g of the first titanium dioxide composite powder (see patent 201010208675.7 for the specific preparation process), disperse it in 160ml of isopropanol, ultrasonically treat it for 6h, add 0.1g of polyethylene glycol PEG200 to obtain precursor A; weigh 7g and the first The second titanium dioxide composite powder with different particle sizes (see patent 201010208675.7 for the specific preparation process) was dispersed in 120ml of titanium dioxide sol (see patent 201010208973.6 for the specific preparation process), and ultrasonically treated for 30 minutes as precursor B; the precursor A Mix with precursor B in a mass ratio of 2:1, and then ultrasonically treat for 15 minutes to obtain a reaction solution; place the reaction solution in a pressurized electrode reactor and seal it, set the initial pressure of the reactor to 10MPa, and the reaction temperature to 30°C. After the temperature is stabilized, the electrophoretic voltage is set to 60V, and the electrifi...
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