Fig. 1. DMTF at different moving velocities and tracking speed ratio g. (a) g=1; (b) g<1

Fig. 2. Schematic diagram of compensation model framework for dynamic image perception effect

Fig. 3. Preprocessing images displayed in eight-bit display system. (a) 8 pixel·frame^-1 preprocessing image for 10 bit display system (I=1); (b) 4 pixel·frame^-1 preprocessing image for 10 bit display system (I=1); (c) 8 pixel·frame^-1 preprocessing image for 8 bit display system (I=0.1); (d) 4 pixel·frame^-1 preprocessing image for 8 bit display system (I=0.18)

Fig. 4. Function curves at moving speed of 4 pixel·frame^-1. (a) DMTFC' for different I values; (b) DMTF obtained by visual perception after image preprocessing

Fig. 5. Image motion compensation preprocessing process. (a) Original image; (b) spectra of image pixels (dotted line); (c) adaptive DMTFC'; (d) spectra after preprocessing; (e) image after preprocessing

Fig. 6. Simulation process of dynamic image perception effect. (a) Image after preprocessing; (b) spectra of image pixels (dotted line); (c) DMTF at moving speed of 8 pixel·frame^-1; (d) spectra after motion blur processing; (e) visual perception image after motion compensation

Fig. 7. Six original images of different types. (a) Human; (b) animal; (c) scenery; (d) animation; (e) architecture; (f) vehicle

Fig. 8. Simulation of dynamic image perception effect. (a) Original images; (b) dynamic perception effect of original images; (c) preprocessing visual perception images of 8 bit display system; (d) preprocessing visual perception images of 10 bit display system

Fig. 9. Visual perception experiment settings

Fig. 10. Mean score and confidence interval of motion blur corresponding to different motion compensation processes. (a) Simulated velocity is 4 pixel·frame^-1; (b) simulated velocity is 8 pixel·frame^-1

Table 1. Grading standard of visual perception experiment

Table 2. Results of ANOVA analysis for different factors influencing on image quality