Characterizing the nanoacoustic superlattice in a phonon cavity using a piezoelectric single quantum well

Kung Hsuan Lin; Chieh Feng Chang; Chang Chi Pan; Jen Inn Chyi; Stacia Keller; Umesh Mishra; Steven P. Denbaars; Chi Kuang Sun

doi:10.1063/1.2358321

Characterizing the nanoacoustic superlattice in a phonon cavity using a piezoelectric single quantum well

Kung Hsuan Lin, Chieh Feng Chang, Chang Chi Pan, Jen Inn Chyi, Stacia Keller, Umesh Mishra, Steven P. Denbaars, Chi Kuang Sun

研究成果: 雜誌貢獻 › 期刊論文 › 同行評審

15 引文斯高帕斯（Scopus）

摘要

We have experimentally and theoretically investigated, both in the time domain and in the frequency domain, the characteristics of a nanoacoustic mirror, which is a 17-period 8 nm8 nm Al0.7 Ga0.3 N Al0.2 Ga0.8 N superlattice and its first phononic band gap frequency is centered at ∼280 GHz. By using a femtosecond optical pulse to excite and detect the nanoacoustic strain pulses with an In0.2 Ga0.8 N single quantum well, we directly measured the transient dynamics of the acoustic nanowaves inside a phonon cavity composed of the studied nanoacoustic mirror. The phase-resolved reflection transfer function of the phononic band gap superlattice and the properties of the nanophononic cavity have been experimentally obtained and investigated.

原文	???core.languages.en_GB???
文章編號	143103
期刊	Applied Physics Letters
卷	89
發行號	14
DOIs	https://doi.org/10.1063/1.2358321
出版狀態	已出版 - 2006

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10.1063/1.2358321

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title = "Characterizing the nanoacoustic superlattice in a phonon cavity using a piezoelectric single quantum well",

abstract = "We have experimentally and theoretically investigated, both in the time domain and in the frequency domain, the characteristics of a nanoacoustic mirror, which is a 17-period 8 nm8 nm Al0.7 Ga0.3 N Al0.2 Ga0.8 N superlattice and its first phononic band gap frequency is centered at ∼280 GHz. By using a femtosecond optical pulse to excite and detect the nanoacoustic strain pulses with an In0.2 Ga0.8 N single quantum well, we directly measured the transient dynamics of the acoustic nanowaves inside a phonon cavity composed of the studied nanoacoustic mirror. The phase-resolved reflection transfer function of the phononic band gap superlattice and the properties of the nanophononic cavity have been experimentally obtained and investigated.",

author = "Lin, {Kung Hsuan} and Chang, {Chieh Feng} and Pan, {Chang Chi} and Chyi, {Jen Inn} and Stacia Keller and Umesh Mishra and Denbaars, {Steven P.} and Sun, {Chi Kuang}",

note = "Funding Information: The authors acknowledge G.-W. Chern, G.-Y. Guo, and A.-T. Tien for stimulating scientific discussions. This work was sponsored by the National Science Council of Taiwan under Grant No. 95-2120-M-002-013.",

year = "2006",

doi = "10.1063/1.2358321",

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volume = "89",

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T1 - Characterizing the nanoacoustic superlattice in a phonon cavity using a piezoelectric single quantum well

AU - Lin, Kung Hsuan

AU - Chang, Chieh Feng

AU - Pan, Chang Chi

AU - Chyi, Jen Inn

AU - Keller, Stacia

AU - Mishra, Umesh

AU - Denbaars, Steven P.

AU - Sun, Chi Kuang

N1 - Funding Information: The authors acknowledge G.-W. Chern, G.-Y. Guo, and A.-T. Tien for stimulating scientific discussions. This work was sponsored by the National Science Council of Taiwan under Grant No. 95-2120-M-002-013.

PY - 2006

Y1 - 2006

N2 - We have experimentally and theoretically investigated, both in the time domain and in the frequency domain, the characteristics of a nanoacoustic mirror, which is a 17-period 8 nm8 nm Al0.7 Ga0.3 N Al0.2 Ga0.8 N superlattice and its first phononic band gap frequency is centered at ∼280 GHz. By using a femtosecond optical pulse to excite and detect the nanoacoustic strain pulses with an In0.2 Ga0.8 N single quantum well, we directly measured the transient dynamics of the acoustic nanowaves inside a phonon cavity composed of the studied nanoacoustic mirror. The phase-resolved reflection transfer function of the phononic band gap superlattice and the properties of the nanophononic cavity have been experimentally obtained and investigated.

AB - We have experimentally and theoretically investigated, both in the time domain and in the frequency domain, the characteristics of a nanoacoustic mirror, which is a 17-period 8 nm8 nm Al0.7 Ga0.3 N Al0.2 Ga0.8 N superlattice and its first phononic band gap frequency is centered at ∼280 GHz. By using a femtosecond optical pulse to excite and detect the nanoacoustic strain pulses with an In0.2 Ga0.8 N single quantum well, we directly measured the transient dynamics of the acoustic nanowaves inside a phonon cavity composed of the studied nanoacoustic mirror. The phase-resolved reflection transfer function of the phononic band gap superlattice and the properties of the nanophononic cavity have been experimentally obtained and investigated.

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DO - 10.1063/1.2358321

M3 - 期刊論文

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VL - 89

JO - Applied Physics Letters

JF - Applied Physics Letters

SN - 0003-6951

IS - 14

M1 - 143103

ER -

Characterizing the nanoacoustic superlattice in a phonon cavity using a piezoelectric single quantum well

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