Broadband omnidirectional near-infrared reflector based on an angle-insensitive photonic band gap

Feng Wu; Mingyuan Chen; Dejun Liu; Ying Chen; Yang Long

doi:10.1364/AO.403891

Applied Optics
Vol. 59,
Issue 30,
pp. 9621-9625
(2020)
•https://doi.org/10.1364/AO.403891

Broadband omnidirectional near-infrared reflector based on an angle-insensitive photonic band gap

Feng Wu, Mingyuan Chen, Dejun Liu, Ying Chen, and Yang Long

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Feng Wu, Mingyuan Chen, Dejun Liu, Ying Chen, and Yang Long, "Broadband omnidirectional near-infrared reflector based on an angle-insensitive photonic band gap," Appl. Opt. 59, 9621-9625 (2020)

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Abstract

Owing to the Bragg interference mechanism, band gap in all-dielectric one-dimensional photonic crystal (1DPC) is strongly sensitive to the incident angle, which limits the width of omnidirectional band gap. Based on the angle-insensitive Bragg band gap in 1DPC composed of alternating dielectric and hyperbolic metamaterial layers, we design a broadband omnidirectional near-infrared mirror with the bandwidth of 943 nm (52.3% relative bandwidth) without using the conventional cascade method. In addition, we show that the angle-insensitive property of the band gap is robust against the layer thickness disturbance. This multilayer-based broadband omnidirectional reflector will possess potential applications for omnidirectional filters within broad stopbands and photonic crystal fibers with broad operating bandwidths.

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Layer	$\bar{δ} = 5 n m$ (Exam 1)	$\bar{δ} = 5 n m$ (Exam 2)
$d_{A, 1} (n m)$	161.7	148.1
$d_{C, 1} (n m)$	52.4	46.2
$d_{D, 1} (n m)$	62.5	70.5
$d_{C, 2} (n m)$	48.2	55.6
$d_{D, 2} (n m)$	64.7	82.9
$d_{A, 2} (n m)$	165.7	150.6
$d_{C, 3} (n m)$	48.9	52.9
$d_{D, 3} (n m)$	73.7	69.5
$d_{C, 4} (n m)$	51.0	42.3
$d_{D, 4} (n m)$	74.4	67.8
$d_{A, 3} (n m)$	150.1	145.0
$d_{C, 5} (n m)$	44.9	56.2
$d_{D, 5} (n m)$	62.8	69.5
$d_{C, 6} (n m)$	54.4	52.5
$d_{D, 6} (n m)$	69.1	67.2
$d_{A, 4} (n m)$	153.0	155.8
$d_{C, 7} (n m)$	59.0	48.9
$d_{D, 7} (n m)$	71.4	72.4
$d_{C, 8} (n m)$	52.9	55.6
$d_{D, 8} (n m)$	77.9	78.5
$d_{A, 5} (n m)$	149.9	153.0
$d_{C, 9} (n m)$	55.4	41.3
$d_{D, 9} (n m)$	74.1	65.8
$d_{C, 10} (n m)$	50.7	58.7
$d_{D, 10} (n m)$	71.0	64.6

Layer	$\bar{δ} = 10 n m$ (Exam 1)	$\bar{δ} = 10 n m$ (Exam 2)
$d_{A, 1} (n m)$	163.8	157.5
$d_{C, 1} (n m)$	57.6	57.1
$d_{D, 1} (n m)$	82.1	73.6
$d_{C, 2} (n m)$	47.1	48.2
$d_{D, 2} (n m)$	74.0	48.2
$d_{A, 2} (n m)$	152.9	154.8
$d_{C, 3} (n m)$	71.5	52.1
$d_{D, 3} (n m)$	79.5	69.2
$d_{C, 4} (n m)$	63.8	54.3
$d_{D, 4} (n m)$	69.7	64.9
$d_{A, 3} (n m)$	156.6	163.8
$d_{C, 5} (n m)$	55.6	59.6
$d_{D, 5} (n m)$	80.4	74.8
$d_{C, 6} (n m)$	55.6	56.8
$d_{D, 6} (n m)$	78.6	71.0
$d_{A, 4} (n m)$	148.7	164.0
$d_{C, 7} (n m)$	55.2	56.3
$d_{D, 7} (n m)$	70.8	71.4
$d_{C, 8} (n m)$	49.1	63.7
$d_{D, 8} (n m)$	77.5	73.8
$d_{A, 5} (n m)$	160.4	156.0
$d_{C, 9} (n m)$	57.1	55.5
$d_{D, 9} (n m)$	68.3	70.7
$d_{C, 10} (n m)$	62.6	51.3
$d_{D, 10} (n m)$	76.7	87.6

Layer	$\bar{δ} = 5 n m$ (Exam 1)	$\bar{δ} = 5 n m$ (Exam 2)
$d_{A, 1} (n m)$	161.7	148.1
$d_{C, 1} (n m)$	52.4	46.2
$d_{D, 1} (n m)$	62.5	70.5
$d_{C, 2} (n m)$	48.2	55.6
$d_{D, 2} (n m)$	64.7	82.9
$d_{A, 2} (n m)$	165.7	150.6
$d_{C, 3} (n m)$	48.9	52.9
$d_{D, 3} (n m)$	73.7	69.5
$d_{C, 4} (n m)$	51.0	42.3
$d_{D, 4} (n m)$	74.4	67.8
$d_{A, 3} (n m)$	150.1	145.0
$d_{C, 5} (n m)$	44.9	56.2
$d_{D, 5} (n m)$	62.8	69.5
$d_{C, 6} (n m)$	54.4	52.5
$d_{D, 6} (n m)$	69.1	67.2
$d_{A, 4} (n m)$	153.0	155.8
$d_{C, 7} (n m)$	59.0	48.9
$d_{D, 7} (n m)$	71.4	72.4
$d_{C, 8} (n m)$	52.9	55.6
$d_{D, 8} (n m)$	77.9	78.5
$d_{A, 5} (n m)$	149.9	153.0
$d_{C, 9} (n m)$	55.4	41.3
$d_{D, 9} (n m)$	74.1	65.8
$d_{C, 10} (n m)$	50.7	58.7
$d_{D, 10} (n m)$	71.0	64.6

Layer	$\bar{δ} = 10 n m$ (Exam 1)	$\bar{δ} = 10 n m$ (Exam 2)
$d_{A, 1} (n m)$	163.8	157.5
$d_{C, 1} (n m)$	57.6	57.1
$d_{D, 1} (n m)$	82.1	73.6
$d_{C, 2} (n m)$	47.1	48.2
$d_{D, 2} (n m)$	74.0	48.2
$d_{A, 2} (n m)$	152.9	154.8
$d_{C, 3} (n m)$	71.5	52.1
$d_{D, 3} (n m)$	79.5	69.2
$d_{C, 4} (n m)$	63.8	54.3
$d_{D, 4} (n m)$	69.7	64.9
$d_{A, 3} (n m)$	156.6	163.8
$d_{C, 5} (n m)$	55.6	59.6
$d_{D, 5} (n m)$	80.4	74.8
$d_{C, 6} (n m)$	55.6	56.8
$d_{D, 6} (n m)$	78.6	71.0
$d_{A, 4} (n m)$	148.7	164.0
$d_{C, 7} (n m)$	55.2	56.3
$d_{D, 7} (n m)$	70.8	71.4
$d_{C, 8} (n m)$	49.1	63.7
$d_{D, 8} (n m)$	77.5	73.8
$d_{A, 5} (n m)$	160.4	156.0
$d_{C, 9} (n m)$	57.1	55.5
$d_{D, 9} (n m)$	68.3	70.7
$d_{C, 10} (n m)$	62.6	51.3
$d_{D, 10} (n m)$	76.7	87.6

Abstract

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Equations (5)

Applied Optics