I-Corps: Path Towards Commercialization of High-Power Tunable Mid- to far-IR Lasers using Novel Two-Color VECSEL

I-Corps：使用新型双色 VECSEL 实现高功率可调谐中远红外激光器商业化的道路

• 批准号: 1313878
• 负责人: Mahmoud Fallahi
• 金额: $ 5万
• 依托单位: University of Arizona
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 2013
• 资助国家: 美国
• 起止时间: 2013-01-15 至 2014-06-30
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=1313878&HistoricalAwards=false
• 关键词: Corps; Path; Towards; Commercialization; Power

This project plans to develop a new class of high-power, compact, widely-tunable mid- to far-IR laser source. The team's approach is based on an intracavity collinear difference frequency generation (DFG) design in a two-chip vertical external-cavity surface-emitting laser (VECSEL). Access to the VECSELs' high-Q intracavity circulating power at two different wavelengths with orthogonal polarization will provide efficient type-II DFG. The success of this work can have a significant impact on the development of compact, high-power mid-IR and far-IR sources and will cover various disciplines in optical science. By expanding on the basic VECSEL design, the proposed laser has great potential to efficiently generate any desired wavelength in the 3-300 micron range. This is important since in the next few years new military, medical, and sensing applications are expected to greatly expand the market potential for long wavelength laser sources. The proposed mid-IR source has the potential to impact various fields of science and engineering, as well as in generate new products benefiting the ecosystem. By expanding on the basic VECSEL design, the proposed laser has great potential to efficiently generate any desired wavelength in the 3-300 micron range. The discoveries made within the scope of this program could have a transformative impact on a wide range of applications. Applications in biomedical, atmospheric monitoring, chemical sensing, and national defense could all benefit from advancements in mid- to far-IR lasers sources. In fact, in addition to the application-rich mid-IR, the proposed concept can be extended to the untapped spectral regions in the far-IR providing even more opportunities in the near future. collected in non-model species. This new approach opens the door for highly efficient surveys of genetic variation across diverse species. The innovation developed in this proposal has the potential to advance biodiversity research by releasing two major bottlenecks: limited availability of genetic markers in non-model systems and low sample throughput. Anchored enrichment may also open the door for a new high-throughput mining approach to pharmaceutical discovery and increased efficiency of insecticides for agriculture applications.

本项目计划开发一种新型的高功率、紧凑型、宽调谐的中远红外激光源。该团队的方法基于双芯片垂直外腔面发射激光器（VECSEL）中的腔内共线差频产生（DFG）设计。 在具有正交偏振的两个不同波长处访问VECSEL的高Q腔内循环功率将提供高效的II型DFG。这项工作的成功可能会对紧凑，高功率中红外和远红外光源的发展产生重大影响，并将涵盖光学科学的各个学科。通过扩展基本的VECSEL设计，所提出的激光器具有很大的潜力，可以有效地产生3-300微米范围内的任何所需波长。这一点很重要，因为在未来几年内，新的军事、医疗和传感应用预计将大大扩展长波长激光源的市场潜力。拟议中的中红外源有可能影响科学和工程的各个领域，以及产生有益于生态系统的新产品。通过扩展基本的VECSEL设计，所提出的激光器具有很大的潜力，可以有效地产生3-300微米范围内的任何所需波长。在该计划范围内的发现可能对广泛的应用产生变革性影响。生物医学、大气监测、化学传感和国防领域的应用都可以从中远红外激光源的进步中受益。事实上，除了应用丰富的中红外，所提出的概念可以扩展到远红外中未开发的光谱区域，在不久的将来提供更多的机会。收集非模式物种。这种新方法为高效调查不同物种的遗传变异打开了大门。该提案中开发的创新有可能通过释放两个主要瓶颈来推进生物多样性研究：非模型系统中遗传标记的有限可用性和低样品通量。锚定富集还可能为药物发现和提高农业应用杀虫剂效率的新的高通量采矿方法打开大门。