Fig. 1. Effect of scaling factor on relative center light intensity varying with propagation length. (a) l_cr→∞; (b) l_cr =5 cm

Fig. 2. Effect of beam radius on relative center light intensity varying with propagation length. (a) l_cr→∞; (b) l_cr=5 cm

Fig. 3. Side views of PCCAB varying with different coherence length propagating in vacuum. (a) l_cr→∞; (b) l_cr=0.100 mm;(c) l_cr=0.050 mm; (d) l_cr=0.020 mm; (e) l_cr=0.010 mm; (f) l_cr=0.005 mm

Fig. 4. Effect of coherence length on relative center light intensity varying with propagation length (α=1 cm and w₀=10 cm)

Fig. 5. Evolution of light intensity of PCCAB and relative center light intensity in different turbulence environment (α=1 cm and w₀=10 cm). Light intensity for (a)-(e) l_cr→∞ and (g)-(k) l_cr→5 cm; (f)(l) relative center light intensity varying with propagation length in different turbulence environment

Fig. 6. On-axis scintillation index varying with propagation length. (a)Cn2=10^-16m^2/3; (b)Cn2=10^-13m^2/3

Fig. 7. Scintillation index on focus point varying with propagation length

Fig. 8. Aperture scintillation index on focus plane

Fig. 9. Experimental setup for PCCAB generation and propagation in turbulent atmosphere

Fig. 10. Results of PCCAB generation in experiment. (a) Measured spot distribution; (b) contrast between generated beam profile and ideal profile

Fig. 11. Beam profiles of PCCAB and GB after propagation. (a) PCCAB; (b) GB

Fig. 12. Scintillation indices of GB and PCCAB varying with turbulence strength. (a) Beam center scintillation indices; (b) 3 mm aperture-averaged scintillation indices