[1] K J BOLLER, A IMAMOGLU, S E HARRIS. Observation of electromagnetically induced transparency. Physical Review Letters, 66, 2593-2596(1991).

[2] M FLEISCHHAUER, C H KEITEL, M O SCULLY et al. Resonantly enhanced refractive index without absorption via atomic coherence. Physical Review A, 46, 1468(1992).

[3] D F PHILLIPS, A FLEISCHHAUER, A MAIR et al. Storage of light in atomic vapor. Physical Review Letters, 86, 783(2000).

[4] I NOVIKOVA, A V GORSHKOV, D F PHILLIPS et al. Optimization of slow and stored light in atomic vapor, 6482, 64820M(2007).

[5] K MATTLE, H WEINFURTER, P G KWIAT et al. Dense coding in experimental quantum communication. Physical Review Letters, 76, 4656-4659(1996).

[6] M JING, Y HU, J MA et al. Atomic superheterodyne receiver based on microwave-dressed Rydberg spectroscopy. Nature Physics, 16, 911-915(2020).

[7] A FOLTYNOWICZ, P MASLOWSKI, A FLEISHER et al. Cavity-enhanced optical frequency comb spectroscopy in the mid-infrared application to trace detection of hydrogen peroxide. Applied Physics B, 110, 163-175(2012).

[8] A KHODABAKHSH, A C JOHANSSON, A FOLTYNOWICZ et al. Noise-immune cavity-enhanced optical frequency comb spectroscopy: a sensitive technique for high-resolution broadband molecular detection. Applied Physics, 119, 87-96(2015).

[9] D A ANDERSON, R E SAPIRO, G RAITHEL. An atomic receiver for AM and FM radio communication. IEEE Transactions on Antennas and Propagation, 69, 2455-2462(2020).

[10] C L HOLLOWAY, M T SIMONS, M D KAUTZ et al. A quantum-based power standard: Using Rydberg atoms for a SI-traceable radio-frequency power measurement technique in rectangular waveguides. Applied Physics Letters, 113, 094-101(2018).

[11] M T SIMONS, A H HADDAB, J A GORDON et al. Embedding a Rydberg atom-based sensor into an antenna for phase and amplitude detection of radio-frequency fields and modulated signals. IEEE Access, 7, 164975-164985(2019).

[12] K C COX, D H MEYER, F K FATEMI et al. Quantum-limited atomic receiver in the electrically small regime. Physical Review Letters, 121, 110502(2018).

[13] A B DEB, N KJAERGAARD. Radio-over-fiber using an optical antenna based on Rydberg states of atoms. Applied Physics Letters, 112, 211106(2018).

[14] D H MEYER, K C COX, F K FATEMI et al. Digital communication with Rydberg atoms & amplitude-modulated microwave fields. Applied Physics Letters, 112, 211108(2018).

[15] T IDO, H KATORI. Recoil-free spectroscopy of neutral Sr atoms in the lamb-dicke regime. Physical Review Letters, 91, 053001(2003).

[16] J E FIELD, K H HAHN, S E HARRIS. Observation of electromagnetically induced transparency in collisionally broadened lead vapor. Physical Review Letters, 67, 3062-3065(1991).

[17] Y ZHAO, C WU, B S HAM et al. Microwave induced transparency in Ruby. Physical Review Letters, 79, 641-644(1997).

[18] I FRIEDLER, D PETROSYAN, M FLEISCHHAUER et al. Long-range interactions and entanglement of slow single-photon pulses. Physical Review A, 72, 043803(2005).

[19] A P LUND, T C RALPH, H L HASELGROVE. Fault-tolerant linear optical quantum computing with small-amplitude coherent states. Physical Review Letters, 100, 030503(2008).

[20] M H ARAM, S KHORASANI. Scalable cavity quantum electrodynamics system for quantum computing. Journal of Modern Physics, 6, 1467-1477(2015).

[21] I PITSIOS, L BANCHI, A S RAB et al. Photonic simulation of entanglement growth after a spin chain quench. Nature Communications, 8, 1569(2017).

[22] A NAGEL, L GRAF, A NAUMOV et al. Experimental realization of coherent dark-state magnetometers. Europhysics Letters, 44, 31-36(1998).

[23] I K KOMINIS, T W KORNACK, J C ALLRED et al. A subfemtotesla multichannel atomic magnetometer. Nature, 422, 596-599(2003).

[24] J A SEDLACEK, A SCHWETTMANN, H KÜBLER et al. Microwave electrometry with Rydberg atoms in a vapour cell using bright atomic resonances. Nature Physics, 8, 819-824(2012).

[25] A K MOHAPATRA, T R JACKSON, C S ADAMS. Coherent optical detection of highly excited Rydberg states using electromagnetically induced transparency. Physical Review Letters, 98, 113003(2006).

[26] M S JM, M JONES. Spectroscopy of strontium Rydberg states using electromagnetically induced transparency. Journal of Physics B Atomic Molecular & Optical Physics, 40, F319-F325(2007).

[27] Z ZHANG, J CHE, Z DAN et al. Eight-wave mixing process in a Rydberg-dressing atomic ensemble. Optics Express, 23, 13814(2015).

[28] W A VAN WIJNGAARDEN, E A HESSELS, J LI et al. Precision measurement of Stark shifts for 6P3/2→nS1/2 n=10-13 transitions in cesium. Physical Review A, 49, R2220-R2223(1994).

[29] Baodong YANG, Jing GAO, Jie WANG et al. Multiple electromagnetically-induced transparency of hyperfine levels in cesium 6S1/2 -6P3/2 -8S1/2 ladder-type system. Acta Physica Sinica, 60, 114207(2011).

[30] M T SIMONS, J A GORDON, C L HOLLOWAY et al. Using frequency detuning to improve the sensitivity of electric field measurements via electromagnetically induced transparency and Autler-Townes splitting in Rydberg atoms. Applied Physics Letters, 108, 174101(2016).