Method for improving photopolymerization conversion rate of acrylate rotor phase by using long-chain alcohol
A technology of acrylate and tetradecyl acrylate, which is applied in the field of photocuring and can solve problems such as rotor phase instability
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Embodiment 1
[0015] Myristyl acrylate and 1% mass fraction of photoinitiator TPO-L were evenly mixed and loaded into the sample pan. The polymerization process was monitored by optical differential scanning calorimetry. Experimental conditions for the determination of polymerization kinetics by optical differential scanning calorimetry: cool down to 10°C at 2°C / min and keep warm for 5 minutes, then use a wavelength of 385nm and a light intensity of 6mW / cm 2 LED lights, polymerization time 15min. The results of optical differential scanning calorimetry showed that the conversion rate of photopolymerization reached 57%.
Embodiment 2
[0017] Myristyl acrylate and cetyl alcohol were mixed at a molar ratio of 8:2, and then the ternary mixture was mixed with 1% mass fraction of photoinitiator TPO-L and loaded into the sample pan. The polymerization process was monitored by optical differential scanning calorimetry. Experimental conditions for the determination of polymerization kinetics by optical differential scanning calorimetry: cool down to 10°C at 2°C / min and keep warm for 5 minutes, then use a wavelength of 385nm and a light intensity of 6mW / cm 2 LED lights, polymerization time 15min. The results of optical differential scanning calorimetry show that the conversion rate of photopolymerization reaches 67%, which is 10% higher than the conversion rate of pure tetradecyl acrylate system.
Embodiment 3
[0019] Myristyl acrylate and cetyl alcohol were mixed at a molar ratio of 5:5, and then the ternary mixture was mixed with 1% mass fraction of photoinitiator TPO-L and loaded into the sample pan. The polymerization process was monitored by optical differential scanning calorimetry. Experimental conditions for the determination of polymerization kinetics by optical differential scanning calorimetry: cool down to 10°C at 2°C / min and keep warm for 5 minutes, then use a wavelength of 385nm and a light intensity of 6mW / cm 2 LED lights, polymerization time 15min. The results of optical differential scanning calorimetry show that the conversion rate of photopolymerization reaches 71%, which is 14% higher than the conversion rate of pure tetradecyl acrylate system.
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