Figures & data
Figure 2 (A and B) Through frequency MTF of PureSee® IOL. Through frequency MTF with different defocus, 3 mm aperture (A) and 4.5 aperture (B), with special interest for MTF between 0 and 100 lp/mm.
![Figure 2 (A and B) Through frequency MTF of PureSee® IOL. Through frequency MTF with different defocus, 3 mm aperture (A) and 4.5 aperture (B), with special interest for MTF between 0 and 100 lp/mm.](/cms/asset/d3e9d90a-395a-4327-8e7c-3e8f282de0a3/doph_a_12304102_f0002_c.jpg)
Figure 3 (A and B) Through focus MTF of PureSee® IOL. Through focus MTF at 50 lp/mm for an aperture of 3 mm (A) and 4.5 mm (B).
![Figure 3 (A and B) Through focus MTF of PureSee® IOL. Through focus MTF at 50 lp/mm for an aperture of 3 mm (A) and 4.5 mm (B).](/cms/asset/faa26fc1-f08f-4fe7-8393-ba516f7dd2ac/doph_a_12304102_f0003_c.jpg)
Figure 4 (A and B) MTFa of PureSee® IOL. Area under the modulation transfer function curve (MTFa) at defocus 0 D to −3 D, for an aperture of 3 mm (A) and 4.5 mm (B).
![Figure 4 (A and B) MTFa of PureSee® IOL. Area under the modulation transfer function curve (MTFa) at defocus 0 D to −3 D, for an aperture of 3 mm (A) and 4.5 mm (B).](/cms/asset/c34c1212-61d4-4c21-b431-d4e48eb5596d/doph_a_12304102_f0004_c.jpg)
Figure 5 (A and B) Simulated visual acuity. Simulated visual acuity for 3 mm aperture (A) and 4.5 aperture (B) at defocus 0 D to −3 D.
![Figure 5 (A and B) Simulated visual acuity. Simulated visual acuity for 3 mm aperture (A) and 4.5 aperture (B) at defocus 0 D to −3 D.](/cms/asset/c7749c08-b577-4cc8-8447-fdf972634f24/doph_a_12304102_f0005_c.jpg)
Table 1 Higher Order Aberrations (Zernike Polynomials) Obtained for TECNIS® PureSee® IOL. Significant Zernike Coefficients are Found to Be Primary and Secondary Spherical Aberration (>0.2 µm)
Data Sharing Statement
All data analyzed in this study are included in this article. Further inquiries can be directed to the corresponding author.