Eye tracking helps ophthalmologists better understand eye movements and eye movement problems in order to develop a means to prevent, diagnose, and treat abnormalities or ocular disease in clinical situations.


Comprehensive eye movement data

Eye tracking enables researchers to study the dynamics of eye movement. This is particularly useful for uncovering characteristics that are diagnostic of states or conditions. This objective, quantitative information provides a basis for comparison to normative data. Researchers can then see the differences that support particular diagnoses or the identification of impairments.

Eye tracking helps you explore:

  • Saccadic performance, such as latency, overshoot, and undershoot
  • Fixation stability, such as drift
  • Smooth pursuit, such as asymmetries between eye movement and stimuli
  • Alignment, such as strabismus (uncontrolled inward or outward eye movement) or amblyopia (lazy eye)
  • Nystagmus (rapid eye movements), such as the slope of the slow phase and amplitude of the fast phase.

Products and solutions

Tobii Pro Glasses 2 Medical edition is used in clinical settings

For clinical research, Tobii Pro offers solutions suited for labs and other controlled environments, as well as naturalistic settings in the home or the field. The eye tracking data can be synchronized and analyzed in a multitude of software environments depending on the specific needs of the researcher. Training and support for the hardware and software are provided globally.

See our products and solutions


Cardiff University

Cardiff University's School of Optometry and Vision Sciences used eye tracking from Tobii Pro to explore eye movement in people with sight issues. The researchers looked at how environmental factors affected vision deficits. Read more

University of Melbourne

This study conducted at the Department of Optometry & Vision Sciences at the University of Melbourne focused on eye movement disorders, in particular nystagmus, and the possibility of using eye tracking as an established form of diagnosis tool. Read more

  • Murray, I. C., Perperidis, A., Cameron, L. A., McTrusty, A. D., Brash, H. M., Tatham, A. J., Agarwal, P. K., Fleck, B. W., & Minns, R. A. (2017). Comparison of Saccadic Vector Optokinetic Perimetry and Standard Automated Perimetry in Glaucoma. Part I: Threshold Values and Repeatability. Translational Vision Science & Technology, 6(5), 3. https://doi.org/10.1167/tvst.6.5.3
  • Yow, A. P., Wong, D., Liu, H., Zhu, H., Ong, I. J.-W., Laude, A., & Lim, T. H. (2017). Automatic visual impairment detection system for age-related eye diseases through gaze analysis. 2450–2453. https://doi.org/10.1109/EMBC.2017.8037352
  • Kiefer, A. W., DiCesare, C., Nalepka, P., Foss, K. B., Thomas, S., & Myer, G. D. (2017). Less efficient oculomotor performance is associated with increased incidence of head impacts in high school ice hockey. Journal of Science and Medicine in Sport. https://doi.org/10.1016/j.jsams.2017.06.016