A new capacitive inductive system design for LASER-induced kilotesla magnetic field generation

Q3 Energy Journal of Energy Systems Pub Date : 2024-04-01 DOI:10.30521/jes.1439709
Ahmet Nuri Akay, Melda Varol, Erol Kurt
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Abstract

This research focuses on exploring the nanosecond laser-driven coil systems capable of generating kT magnetic fields and the diverse applications of this system. Through investigating the effects of laser parameters and coil structures, the aim of this study is to unveil the physics of these generated intense magnetic fields. The outcomes gained from this research give an important and fundamental understanding on high magnetic field production, informing the development in laser-driven systems. The implications of this study extend to plasma physics, astrophysics simulations and fusion research. Furthermore, the study explains the advantages and applications of these intense magnetic fields and includes measurements of laser pulse powers according to coil materials.
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用于激光诱导千特斯拉磁场生成的新型电容式感应系统设计
这项研究的重点是探索能够产生 kT 磁场的纳秒激光驱动线圈系统以及该系统的各种应用。通过研究激光参数和线圈结构的影响,本研究旨在揭示这些强磁场产生的物理学原理。这项研究的成果提供了对高磁场产生的重要基本认识,为激光驱动系统的开发提供了信息。这项研究对等离子体物理学、天体物理学模拟和核聚变研究都有影响。此外,该研究还解释了这些强磁场的优势和应用,包括根据线圈材料测量激光脉冲功率。
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来源期刊
Journal of Energy Systems
Journal of Energy Systems Environmental Science-Management, Monitoring, Policy and Law
CiteScore
1.60
自引率
0.00%
发文量
29
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