Thermal index based on surface Plasmon resonance

被引:0
|
作者
Liu X. [1 ]
Zhang X. [2 ]
Lan G. [2 ]
Li S. [1 ]
Liu Y. [1 ]
机构
[1] Department of Science, Taiyuan Institute of Technology, Taiyuan, 030008, Shanxi
[2] Department of Physics, Harbin Institute of Technology, Harbin, 150001, Heilongjiang
来源
| 1600年 / Chinese Optical Society卷 / 36期
关键词
Optics at surfaces; Prisms; Resonance; Surface plasmons; Thermo-optical effect;
D O I
10.3788/AOS201636.0524001
中图分类号
学科分类号
摘要
The thermal accumulative effect of liquids induced by laser illumination gives rise to the refractive-index change. On the basis of photo-acoustic equations, the mechanism on the transient-state and steady-state thermal indexes of the liquids can be analyzed, respectively. Moreover, the effects of the incident wavelength and focal length on the refractive index of deionized water are studied. Using surface plasmon resonance detection system that is highly sensitive to temperature alteration, an original liquid prism detection system is set up, and the resonance curve of the deionized water at various power levels is numerically simulated from which refractive-index change of 1.4×10-3 in the case of power change of 0.7 W is obtained. Then the experimental researches on thermo-optical effect of the deionized water are carried out by means of continuously operating laser of 980 nm wavelength with adjustable power levels, and the dependences of steady-state thermal index on different power levels are obtained. It is observed that the refractive-index change reach 3.35×10-3 when power change is 0.7 W. Finally, possible error sources between the experimental results and the theoretical simulation are discussed. © 2016, Chinese Lasers Press. All right reserved.
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页数:8
相关论文
共 31 条
  • [21] Tran V.T., Zhou H., Hong S., Et al., Thermal behavior of surface plasmon resonance in dynamic suprastructure multilayer, Current Applied Physics, 13, 5, pp. 940-944, (2013)
  • [22] Xiao X.J., Gao Y., Xiang J.A., Et al., Laser-induced thermal effect in surface plasmon resonance, Analytica Chimica Acta, 676, 1-2, pp. 75-80, (2010)
  • [23] Davis L.J., Deutsch M., Surfaceplasmon based thermo-optic and temperature sensor for microfluidic thermometry, Review of Scientific Instruments, 81, 11, (2010)
  • [24] Kaya S., Weeber J.C., Zacharatos F., Et al., Photo-thermal modulation of surface plasmon polariton propagation at telecommunication wavelengths, Optics Express, 21, 19, pp. 22269-22284, (2013)
  • [25] Yamane M., Asahara Y., Glasses for Photonics, (2000)
  • [26] Yu F.T.S., Yin S., Photorefractive Optics: Materials, Properities, and Applications, (1999)
  • [27] Gordon J.P., Leite R.C.C., Moore R.S., Et al., Long-transient effects in lasers with inserted samples, Journal of Applied Physics, 36, 1, pp. 3-8, (1965)
  • [28] Yang J.Y., Song Y.L., Direct observation of the transient thermal-lensing effect using the phase-object Z-scan technique, Optics Letters, 34, 2, pp. 157-159, (2009)
  • [29] Yang J.Y., Song Y.L., Gu J.H., Et al., Determinations of the transient thermal lensing effect in metal cluster polymer {WS<sub>4</sub>Cu<sub>4</sub>I<sub>2</sub>(bpe)<sub>3</sub>}<sub>n</sub> solution by the use of the Z-scan, Optics Communications, 282, 1, pp. 122-125, (2009)
  • [30] Lan G.Q., Liu S.G., Zhang X.R., Et al., A simplified high figure-of-merit prism-free surface plasmon resonance refractive index sensor based on self adaptive angular interrogation, Review of Scientific Instruments, 86, 2, (2015)