内爆
国家点火设施
惯性约束聚变
热核聚变
激光器
聚变能
航空航天工程
核工程
物理
计算机科学
工程物理
系统工程
等离子体
核物理学
光学
工程类
作者
M. L. Spaeth,K. R. Manes,D. H. Kalantar,Philip E. Miller,John E. Heebner,Erlan S. Bliss,D. R. Spec,T. Parham,Pamela K. Whitman,Paul J. Wegner,P. A. Baisden,J. Menapace,M. W. Bowers,Simon J. Cohen,Tayyab Suratwala,J. M. Di Nicola,Mark A. Newton,John J. Adams,John B. Trenholme,R. G. Finucane
摘要
The possibility of imploding small capsules to produce mini-fusion explosions was explored soon after the first thermonuclear explosions in the early 1950s. Various technologies have been pursued to achieve the focused power and energy required for laboratory-scale fusion. Each technology has its own challenges. For example, electron and ion beams can deliver the large amounts of energy but must contend with Coulomb repulsion forces that make focusing these beams a daunting challenge. The demonstration of the first laser in 1960 provided a new option. Energy from laser beams can be focused and deposited within a small volume; the challenge became whether a practical laser system can be constructed that delivers the power and energy required while meeting all other demands for achieving a high-density, symmetric implosion. The National Ignition Facility (NIF) is the laser designed and built to meet the challenges for study of high-energy-density physics and inertial confinement fusion (ICF) implosions. This paper describes the architecture, systems, and subsystems of NIF. It describes how they partner with each other to meet these new, complex demands and describes how laser science and technology were woven together to bring NIF into reality.
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