Halo & Glare? Not a Problem Anymore1,2,3 Minimized dysphotopsia due to reduced scattered light
ACRIVAᵁᴰ TRINOVA PRO C PUPIL ADAPTIVE®
ARE YOU A HEALTHCARE PROFESSIONAL?
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THE GOLDEN RATIO IN ENHANCED SINUSOIDAL
TRIFOCAL IOL TECHNOLOGY
No more compromise
No more compromise
No more boundaries
Comfortable Reading Distances6,7,8,9 SVT® provides spectacle-free life from all distances
No more boundaries
Discover the colors of life
Maximum Light Transmission into Retina (93%†)4,5 Unique sinusoidal pattern reduces light loss significantly, which brings a higher MTF result and better contrast sensitivity
Discover the colors of life
Details are important
Optical Excellence10 Outstanding visual outcomes even in mesopic conditions
Details are important
What are Sinusoidal Diffraction Benefits?
The sinusoidal diffraction pattern has naturally three different foci appear as -1st (works for far), 0th (works for intermediate), and +1st (works for near) diffraction orders (Fig A)11. That is why sinusoidal diffraction does not need to have an overlapping pattern and has a lower ring number.
- 1 ring for 3 different foci - Less glare and halo, more efficiency1,2,3
- Less glare and halo, more efficiency1,2,3No overlapping pattern and 3 different foci
Enhanced Sinusoidal Vision Technology that mimics a sine wave-like surface profile is designed to obtain the ideal optical performance: minimum dysphotopsia, maximum light transmission, optimum light distribution to let your patients enjoy seamless, continuous vision from all distances day and night.
Golden Ratio in Trifocality
ENERGY DISTRIBUTION ADAPTED BY PUPIL SIZE
AcrivaUD Trinova Pro C Pupil Adaptive® smartly distributes the light energy between the three foci according to different illuminance levels and pupil sizes to maximize light utility, retinal photoreceptor interactions, high contrast sensitivity, resolution and wide range of vision including reading distance and provides spectacle independence in every lighting situation.
AcrivaUD Trinova Pro C Pupil Adaptive® distributes the light energy between the foci in such a way so that in mesopic illuminance levels, the light energy is directed to the near and intermediate vision, while in scotopic illuminance levels, this amount of light energy is distributed to far and intermediate vision more than near, as shown in the above figures in mesopic and scotopic conditions, and near vision is empowered for photopic conditions.
AcrivaUD Trinova Pro C Pupil Adaptive® distributes effective and efficient light energy into the near and intermediate foci while maintaining distance visual acuity due to minimized light loss in the diffraction orders provided by enhanced light distribution with patented Sinusoidal Vision Technology.
Golden Ratio in Trifocality: IOL adapting to real life conditions...
Pupil diameter changes by lightning condition and eye accommodation state.13,14,15
Changing pupil diameter affects our visual performance due to the retinal illumination level and the directional sensitivity of the retinal photoreceptor cells.16
Now AcrivaUD Trinova Pro C Pupil Adaptive®, with enhanced light distribution with patented Sinusoidal Vision Technology, each sinusoidal wave is optimized to reach an ideal design just like the Golden Ratio in nature. Thanks to renewed unique design, the lens adapts to the pupil diameter and provides maximum light efficiency, optimum energy distribution, and maximum visual acuity.
AcrivaUD Trinova Pro C Pupil Adaptive® is designed for today’s lifestyles; from viewing traffic signs comfortably and clearly while driving at night safely, to using mobile devices and computer screens to reading a book comfortably even in dim light with high-quality distance vision in a range of different light conditions. Thus it maximized spectacle independence at all distances and in every possible lighting condition.
AcrivaUD Trinova Pro C Pupil Adaptive® aims to improve patients’ quality of life by maximizing the quality of vision.
Technical Features
References
1. Moreno, V., Román, J. F., & Salgueiro, J. R. (1997). High efficiency diffractive lenses: Deduction of kinoform prole. American Journal of Physics, 65(6), 556–562.
2. Stodulka P. Clinical results of implantation of the new sinusoidal trifocal iol . Presented at the 36th congress of ESCRS symposium, Vienna Austria September 2018
3. Tomita, M. (2014). Diffractive Multifocal IOLs: The AcrivaUD Reviol MFM 611 IOL and AcrivaUD Reviol MF 613 IOL. In Multifocal Intraocular Lenses (pp. 147-153). Springer, Cham.
4. Vega, F., Valentino, M., Rigato, F., & Millán, M. S. (2021). Optical design and performance of a trifocal sinusoidal diffractive intraocular lens. Biomedical Optics Express, 12(6), 3338-3351.
5. Albero, J., Davis, J. A., Cottrell, D. M., Granger, C. E., McCormick, K. R., & Moreno, I. (2013). Generalized diffractive optical elements with asymmetric harmonic response and phase control. Applied optics, 52(15), 3637-3644.
6. Ceran, B. B., Arifoglu, H. B., Ozates, S., & Tasindi, E. E. (2020). Refractive results, visual quality and patient satisfaction with a new trifocal intraocular lens design. Annals of Medical Research, 27(11), 3018-3023.
7. Mrukwa-Kominek, E., et al. “The sinusoidal trifocal intraocular lens in cataract surgery and its effect on the quality of patients’ vision.” ESCRS, Paris 2019
8. Kontadakis, G., et al. “Visual acuity and patient satisfaction after bilateral implantation of a trifocal enhanced-depth-of-focus intraocular lens”. ESCRS, Paris, 2019
9. Europe, Multicenteric trials, VSY Biotechnology Data on File (2021)
10. VSY Biotechnology R&D Center, Data on File (2021)
11. Sokolowski, M., Pniewski, J., Brygola, R., & Kowalczyk-Hernandez, M. (2015). Hybrid heptafocal intraocular lenses. Optica Applicata, 45(3).
12. Valle, P. J., Oti, J. E., Canales, V. F., & Cagigal, M. P. (2005). Visual axial PSF of diffractive trifocal lenses. Optics express, 13(7), 2782-2792.
13. Fry, G. A. (1945). The relation of pupil size to accommodation and convergence. Optometry and Vision Science, 22(10), 451-465.
14. Napieralski, P., & Rynkiewicz, F. (2019). Modeling human pupil dilation to decouple the pupillary light reflex. Open Physics, 17(1), 458-467.
15. Plakitsi, A., & Charman, W. N. (1997). Ocular spherical aberration and theoretical through-focus modulation transfer functions calculated for eyes fitted with two types of varifocal presbyopic contact lens. Contact Lens and Anterior Eye, 20(3), 97-106.
16. Westheimer, G. (2008). Directional sensitivity of the retina: 75 years of Stiles–Crawford effect. Proceedings of the Royal Society B: Biological Sciences, 275(1653), 2777-2786.
17. Puell, M.C., Perez-Carrasco, M.J., Palomo-Alvarez, C., Antona, B., & Barrio, A. (2014). Relationship between halo size and forward light scatter. British Journal of Ophthalmology, 98(10), 1389-1392.
18. Ravalico, G., Baccara, F., &Rinaldi, g. (1993). Contrast sensitivity in multifocal intraocular lenses. Journal of Cataract & Refractive Surgery, 19(1), 22-25.
19. Tanabe, H., Tabuchi, H., Shojo, T., Yamauchi, T., & Takase, K. (2020). Comparision of visual performance between monofocal and multifocal intraocular lenses of the same material and basic design. Scientific reports, 10(1), 1 11.
20. Das, K. K., Stover, J. C., Schwiegerling, J., & Karakelle, M. (2013). Technique for measuring forward light scatter in intraocular lenses. Journal of Cataract & Refractive Surgery, 39(5), 770-778.
