第三代半导体可广泛应用于多个战略新兴产业,推动和支撑下一代产业变革,预计到 2020 年仅半导体照明领域即可形成万亿市场规模。但由于现有发光材料在第
三代半导体高密度能量激发下光衰较大,且缺乏适合高能近紫外-紫光激发的高效蓝/绿色发光材料,急需开发新一代、高性能第三代半导体用发光材料。因此本课
题通过理论设计-实验验证-应用评价的研究方法,利用高温合金氮化法和等离子放电烧结法制备耐高密度能量激发的黄色发光材料,突破第三代半导体用体高密
度能量光源用新型荧光材料及制备技术,研制出至少 3 款高能近紫外-紫光 LED 用新型荧光粉,为第三代半导体产业提供核心发光材料;掌握第三代半导体封装用
新型发光材料的设计理论及方法,形成完备的知识产权体系,促进我国第三代半导体产业发展壮大。
The third generation semiconductor can be widely used in a number of strategic emerging industries to promote and support the transformation of the next generation industry. It is expected that by 2020, only the semiconductor lighting field can form a trillion market scale. However, due to the large light attenuation of the existing luminescent materials under the high-density energy excitation of the third generation semiconductor, and the lack of high-efficiency Blue / green luminescent materials suitable for high-energy near ultraviolet violet light excitation, there is an urgent need to develop a new generation and high-performance luminescent materials for the third generation semiconductor. Therefore, through the research methods of theoretical design, experimental verification and application evaluation, this subject uses superalloy nitriding method and plasma discharge sintering method to prepare yellow luminescent materials resistant to high-density energy excitation, breaks through the new fluorescent materials and preparation technology for bulk high-density energy light sources for the third generation semiconductors, and develops at least three new phosphors for high-energy near ultraviolet violet LEDs, Provide core luminescent materials for the third generation semiconductor industry; Master the design theory and methods of new light-emitting materials for third-generation semiconductor packaging, form a complete intellectual property system, and promote the development and growth of China's third-generation semiconductor industry.