Assessment of a Rubidium ESFADOF Edge-Filter as ... - tuprints

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110 5 Discussion of the Experimental Results Fig. 5.12: 3D representation of the recorded ESFADOF transmission hysteresis, when increasing the pump power: The upper part of the figures represent the P-polarization of the ESFADOF output PBS and the lower part its S-polarization. The cell temperature was T ESFADOF = 165.5 ◦ C and a magnetic field strength of B z = 270 mT has been applied to vapor cell I. The pump power P Pump has been changed adiabatically, while keeping the linear polarized pump beam ∆ν P = −1.76(3) GHz detuned from the 5S 1/2 → 5P 3/2 transition center. The ESFADOF transmission spectra collapse at P Pump = 376(1) mW after adiabatically increasing the pump power and the maximum ESFADOF transmission drops from 19.71(1)% at P Pump = 349 mW to 4.77(1)%. A 2D plot representation of the S-polarization can be found in Fig. 5.14.
5.3 ESFADOF Operational Limits 111 Fig. 5.13: 3D representation of the recorded ESFADOF transmission hysteresis, when decreasing the pump power: All other parameters correspond to Fig. 5.12 and only the direction of the pump power change has been reversed. The ESFADOF transmission spectra recover at 270 mW while adiabatically decreasing the pump power P Pump and the maximum ESFADOF transmission rises from 6.72(1)% at P Pump = 278 mW to 19.11(1)% respectively. Striking is the hysteretic behavior once the laser-induced plasma sets in. Compared to Fig. 5.12, where the pump power has been increased, the system shows, depending on the pump history, between P Pump = 270 mW and P Pump = 376 mW two stable states. A 2D representation of the S-polarization can be found in Fig. 5.15.
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INSTITUT FÜR ANGEWANDTE PHYSIK TEC
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Abstract Global and local climate c
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Pentru Alexandru şi Florina
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II Contents 4.3 Measurement Unit .
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2 1 Introduction wide sea currents
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2 Remote Sensing of the Water Colum
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2.1 Measurement Principle 7 highly
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2.1 Measurement Principle 9 Fry and
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2.2 System Requirements 11 operatin
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2.2 System Requirements 13
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2.2 System Requirements 15 Table 2.
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2.2 System Requirements 17 1. Rayle
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2.2 System Requirements 19 wave. Th
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2.2 System Requirements 21 cent pro
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2.2 System Requirements 23 Fig. 2.6
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2.2 System Requirements 25 Both the
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2.3 Ideal Edge-Filter 27 of the Bri
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2.3 Ideal Edge-Filter 29 respective
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32 3 (Excited State) Faraday Anomal
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Page 129 and 130: Fig. 5.18: Rubidium Grotian energy
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160 References [10] G.L. Mellor and
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162 References [41] E.S. Fry, J. Ka
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164 References [69] Claude C. Leroy
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166 References [97] L. Goldberg, D.
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168 References [125] Cord Fricke-Be
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170 References [158] Triad Technolo
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172 References [186] M. Cheret, L.
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Curriculum Vitae Alexandru Lucian P
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178 1 Publications Conference Proce
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Supervised Theses Denise Stang, Wei
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184 1 Danksagung Bei Herrn Arno Wei
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