Study on relativistic Cherenkov source with metallic photonic band-gap structure

被引：0

作者：

Gao, Xi ^{[1
]}

Yang, Ziqiang ^{[1
]}

Qi, Limei ^{[1
]}

Lan, Feng ^{[1
]}

Shi, Zongjun ^{[1
]}

Liu, Yu ^{[1
]}

Liang, Zheng ^{[1
]}

机构：

[1] Univ Elect Sci & Technol China, Inst High Energy Elect, Chengdu 610054, Peoples R China

来源：

2008 IEEE INTERNATIONAL VACUUM ELECTRONICS CONFERENCE | 2008年

关键词：

relativistic Cherenkov source; photonic band gap; particle-in-cell simulation;

D O I：

暂无

中图分类号：

TM [电工技术]; TN [电子技术、通信技术];

学科分类号：

0808 ; 0809 ;

摘要：

A Ka-band slow-wave structure consists of a two-dimensional metallic photonic band-gap and a slow-wave plate as its periodic unit. The photonic band-gap (PBG) structure, whose front view is shown in Fig. 1, has a defect in the central of the triangular lattices. In metallic band gap, the first band gap begins from the zero frequency, which makes the TM01-like mode always appear in defect, so the appropriate parameters can be designed to suppress all the higher-order TM0n-like (n >= 2) modes [1,2]. The parameters of photonic band-gap and the slow-wave structure are shown in Table I.

引用

页码：158 / 159

页数：2

共 50 条

[31] Complete Band-Gap Prediction of 2D Photonic Crystals by Using Multilayer Perceptron [J].

Ferreira, Adriano da Silva ;

Hernandez Figueroa, Hugo E. ;

Malheiros Silveira, Gilliard Nardel .

PROCEEDINGS OF THE 2017 IEEE XXIV INTERNATIONAL CONFERENCE ON ELECTRONICS, ELECTRICAL ENGINEERING AND COMPUTING (INTERCON), 2017,

[32] Influence of a cylindrical waveguide with a concentric photonic band-gap wall on interatomic resonance energy transfer [J].

Nguyen Van Phuoc ;

Nguyen Dung Chinh ;

Tran Minh Hien .

JOURNAL OF PHYSICS B-ATOMIC MOLECULAR AND OPTICAL PHYSICS, 2021, 54 (11)

[33] The influence of shape and orientation of scatterers on the photonic band gap in 2D metallic photonic crystals [J].

Sedghi, A. A. ;

Kalafi, M. ;

Vala, A. Soltani ;

Rezaei, B. .

OPTICS COMMUNICATIONS, 2010, 283 (11) :2356-2362

[34] Detailed Study of the TE band structure of two dimensional metallic photonic crystals with square symmetry [J].

Aliasghar Sedghi ;

Soma Valiaghaie ;

Ahad Rounaghi Soufiani .

Journal of the Korean Physical Society, 2014, 65 :1020-1023

[35] Detailed Study of the TE band structure of two dimensional metallic photonic crystals with square symmetry [J].

Sedghi, Aliasghar ;

Valiaghaie, Soma ;

Rounaghi Soufiani, Ahad .

JOURNAL OF THE KOREAN PHYSICAL SOCIETY, 2014, 65 (07) :1020-1023

[36] Fabrication of a three-dimensional photonic band-gap crystal of air-spheres in a titania matrix [J].

Diop, M ;

Maurin, G ;

Tork, A ;

Lessard, RA .

APPLICATIONS OF PHOTONIC TECHNOLOGY 5: CLOSING THE GAP BETWEEN THEORY, DEVELOPMENT, AND APPLICATION, 2002, 4833 :662-669

[37] Theoretical study of relative width of photonic band gap for the 3-D dielectric structure [J].

GK Johri ;

Akhilesh Tiwari ;

Saumya Saxena ;

Rajesh Sharma ;

Kuldeep Srivastava ;

Manoj Johri .

Pramana, 2002, 58 :563-567

[38] Theoretical study of relative width of photonic band gap for the 3-D dielectric structure [J].

Johri, GK ;

Tiwari, A ;

Saxena, S ;

Sharma, R ;

Srivastava, K ;

Johri, M .

PRAMANA-JOURNAL OF PHYSICS, 2002, 58 (03) :563-567

[39] Dispersion characteristics of a slow wave structure with a modified photonic band gap [J].

Gao Xi ;

Yang Zi-Qiang ;

Cao Wei-Ping ;

Jiang Yan-Nan .

CHINESE PHYSICS B, 2011, 20 (03)

[40] Anisotropic annular photonic crystal structure for large absolute band gap [J].

Li, Yong-ping ;

Shi, Peng ;

Huang, Kun .

ACTIVE PHOTONIC MATERIALS III, 2010, 7756

← 1 2 3 4 5 →