Researching | The influence factors and optimization of modulation transfer spectroscopy for laser frequency discrimination

[1] BJORKLUND G C. Frequency-modulation spectroscopy: a new method for measuring weak absorptions and dispersions[J]. Optics Letters, 5, 15-17(1980).

[2] LEE S, MOON G, PARK S E et al. Laser frequency stabilization in the 10−14 range via optimized modulation transfer spectroscopy on the 87 Rb D 2 line[J]. Optics Letters, 48, 1020-1023(2023).

[3] LIU Rui-bin, YIN Yun-song. Research progress on the related physical mechanism of laser-induced breakdown spectroscopy[J]. Chinese Optics, 17, 19-37(2024).

[4] CAMY G, BORDÉ C J, DUCLOY M. Heterodyne saturation spectroscopy through frequency modulation of the saturating beam[J]. Optics Communications, 41, 325-330(1982).

[5] TAKAMOTO M, HONG F L, HIGASHI R et al. An optical lattice clock[J]. Nature, 435, 321-324(2005).

[6] LUDLOW A D, ZELEVINSKY T, CAMPBELL G K et al. Sr lattice clock at 1×10⁻¹⁶ fractional uncertainty by remote optical evaluation with a Ca clock[J]. Science, 319, 1805-1808(2008).

[7] REN Y J, YAN CH X, XU J W. Development and prospects of enhanced absorption spectroscopy[J]. Chinese Optics, 16, 1273-1292(2023).

[8] CHENG J J, CAO ZH, YANG C R. Quantitative analysis with a portable remote laser-induced breakdown spectroscopy system[J]. Chinese Journal of Applied Chemistry, 39, 1447-1452(2022).

[9] MA L S, HALL J L. Optical heterodyne spectroscopy enhanced by an external optical cavity: toward improved working standards[J]. IEEE Journal of Quantum Electronics, 26, 2006-2012(1990).

[10] ZHANG J, WEI D, XIE CH D et al. Characteristics of absorption and dispersion for rubidium D₂ lines with the modulation transfer spectrum[J]. Optics Express, 11, 1338-1344(2003).

[11] LIU T, LI L P, YAN SH B. Experimental investigation of modulation transfer spectrum of cesium D₂ line[J]. Chinese Journal of Lasers, 30, 791-794(2003).

[12] LEE S, LEE S B, PARK S E et al. Compact modulation transfer spectroscopy module for highly stable laser frequency[J]. Optics and Lasers in Engineering, 146, 106698(2021).

[13] YANG SH H, QIAO SH D, LIN D Y. Research on highly sensitive detection of oxygen concentrations based on tunable diode laser absorption spectroscopy[J]. Chinese Optics, 16, 151-157(2023).

[14] ZHOU Z CH, WEI R, SHI CH Y et al. Observation of modulation transfer spectroscopy in the deep modulation regime[J]. Chinese Physics Letters, 27, 124211(2010).

[15] JIA Y D, LIN ZH L, OU P. Optimization of electro-optical parameter of optical frequency standard system based on modulation transfer spectroscopy technique[J]. Acta Physica Sinica, 60, 124214(2011).

[16] CHENG B, WANG ZH Y, WU B et al. Laser frequency stabilization and shifting by using modulation transfer spectroscopy[J]. Chinese Physics B, 23, 104222(2014).

[17] SHANG H, ZHANG T, MIAO J et al. Laser with 10−13 short-term instability for compact optically pumped cesium beam atomic clock[J]. Optics express, 28, 6868-6880(2020).

[18] YOSHITAKE S, AKIYAMA K, IRITANI M et al. 1.55-μm-band practical frequency-stabilized semiconductor laser using C₂H₂ or HCN absorption lines[J]. Proceedings of SPIE, 1837, 124-133(1993).

[19] PISANI M, SASSI M P, ZUCCO M. High spectral purity CO₂ laser stabilized using a molecular frequency reference[J]. IEEE Transactions on Instrumentation and Measurement, 44, 159-161(1995).

[20] BRUNER A, ARIE A, ARBORE M A et al. Frequency stabilization of a diode laser at 1540 nm by locking to sub-Doppler lines of potassium at 770 nm[J]. Applied Optics, 37, 1049-1052(1998).

[21] HALL J L, MA L SH, TAUBMAN M et al. Stabilization and frequency measurement of the I₂-stabilized Nd: YAG laser[J]. IEEE Transactions on Instrumentation and Measurement, 48, 583-586(1999).

[22] GALZERANO G, SVELTO C, BAVA E et al. High-frequency-stability diode-pumped Nd: YAG lasers with the FM sidebands method and Doppler-free iodine lines at 532 nm[J]. Applied Optics, 38, 6962-6966(1999).

[23] GUO R X, HONG F L, ONAE A et al. Frequency stabilization of a 1319-nm Nd: YAG laser by saturation spectroscopy of molecular iodine[J]. Optics Letters, 29, 1733-1735(2004).

[24] LEONHARDT V, CAMP J B. Space interferometry application of laser frequency stabilization with molecular iodine[J]. Applied Optics, 45, 4142-4146(2006).

[25] GALZERANO G, LAPORTA P. Absolute frequency stabilization of diode lasers around 0.94 μm[J]. IEEE Transactions on Instrumentation and Measurement, 56, 365-368(2007).

[26] MCCARRON D J, KING S A, CORNISH S L. Modulation transfer spectroscopy in atomic rubidium[J]. Measurement Science and Technology, 19, 105601(2008).

[27] HONG Y, HOU X, CHEN D J. Research on frequency stabilization technology of modulation transfer spectroscopy based on Rb⁸⁷[J]. Chinese Journal of Lasers, 48, 2101003(2021).

[28] SONG W, ZHU X X, WU B. Research on frequency stabilization characteristics of multi-parameter dependent laser source based on modulated transfer spectrum[J]. Acta Photonica Sinica, 50, 1114003(2021).

[29] YU X, LV M J, ZHANG X. Research on frequency locking of 1560 nm fiber laser based on rubidium atomic modulation transfer spectroscopy technology[J]. Chinese Journal of Lasers, 49, 0301002(2022).