本项目拟从替代氢氧焰熔融水晶制备全透明石英玻璃的0.18-0.27mm石英砂ppm级羟基剔除入手，通过羟基分子选择吸收高频电磁波波能使自身焓熵增加剧烈摩擦使温度骤升、压强相应增高的变化轨迹，分析其在布朗运动状态下的分布与热应力拉裂粒壁薄弱处后之喷出过程，探索剔除石英砂粒内ppm级的羟基工艺机理，解决其深层次理论和技术问题。本研究采用矿物学、工程热力学、反应动力学、传热定律、熵焓学与热应力原理，研究石英砂中羟基成因、被高频电磁波加热产生热应力与石英砂粒径向裂喷变化过程，采用“0.618”黄金分割系数试验探究工艺技术机理，构筑四维数学模型，用以指导替代氢氧焰熔融水晶制备全透明石英玻璃的石英砂ppm级羟基之剔除。本项目为开拓替代已枯竭的水晶矿新材料提出新思路，建立理论指导模型指导工程开发应用，可提高国内外全透明石英玻璃产品尤其是原材料质量并低碳，经济和社会效益极高，并可实现相关产业全面升级。

This project will be launched from alternative oxyhydrogen flame melt crystal preparation of transparent quartz glass 0.18 0.27 mm quartz sand hydroxy out of PPM level. It can make their own enthalpy entropy increase friction, increase temperature surge, corresponding to the pressure trajectory by hydroxyl molecular absorption of high frequency electromagnetic wave, analyze its in Brownian motion state and the distribution of thermal stress cracking wall jet process after the weak place, explore to PPM level inside quartz sand grain hydroxy process mechanism, solve the problem of its profound theory and technology. This study used mineralogy, engineering thermodynamics, reaction kinetics and heat transfer law of enthalpy, entropy and principle of thermal stress to study the cause of the hydroxyl groups in quartz sand, heated by high frequency electromagnetic wave produced thermal stress, the process of spray to crack and quartz sand particle size change process, and then use the "0.618" golden coefficient test to explore the mechanism of the technology to build four dimensional mathematical model for guiding instead of oxyhydrogen flame preparation of transparent quartz glass melting crystal quartz sand PPM level of hydroxyl groups.This project is that a new idea is put up aimed to develop new nearly dried up a mineral materials , establish the theory instruction model to guide the engineering development and application, to improve the transparent quartz glass products at home and abroad, especially the quality of raw materials, reduce cost and consumption, improve the economic and social benefits, and could implement relevant industry comprehensive upgrade the level of high-tech industry.