Dr. Lisa Ostrin and Dr. Sayan Ghosh join SUNY Optometry to expand expertise in myopia, ocular development, and age-related macular degeneration. Their research aims to improve patient care, public health, and vision science.
SUNY Optometry is expanding its research in oculomics with a $434,522 grant from the SUNY Empire Innovation Program. The funding will support the recruitment of a new faculty researcher, advancing the field's connection between vision science and systemic health.
A team of SUNY Optometry researchers will track children's real-world visual habits using wearable sensor technology and eye-tracking tools. The goal is to identify measurable signs of risk for myopia onset and progression.
A new study proposes that myopia is driven by how we use our eyes indoors, with prolonged close-up focus in low-light environments limiting retinal illumination. This mechanism could lead to a paradigm shift in understanding and controlling myopia progression and control.
Researchers found that ON pathways are more sensitive in humans but less effective at low light, contributing to myopia progression. Pupil reflexes driven by ON pathways also become weaker, limiting outdoor protection.
Two SUNY College of Optometry PhD candidates, Seoyoung Kang and Daniel Larbi, received national awards for their groundbreaking research on retinal disease and regeneration. Their work has the potential to lead to new treatments for eye diseases.
The grant investigates the unknown relationship between myopia and glaucoma by analyzing their effects on the ganglion cell complex. The research aims to identify early markers of glaucoma in myopic eyes, potentially reducing vision loss and improving quality of life.
Research by State University of New York College of Optometry suggests that reading lacks diversity in visual inputs, potentially leading to myopia development. The study proposes a mechanism where sustained reading reduces activation of ON pathways, causing eye growth beyond its focus plane and blurring vision at far distances.
Researchers at SUNY Optometry aim to provide a deeper understanding of the biology of myopia, a leading cause of vision impairment worldwide. The study will investigate cellular and molecular mechanisms controlling eye growth and develop new treatments for refractive errors.
Researchers in Cell Reports study neuronal responses to bright and dark surfaces, finding that large bright surfaces activate both light-ON and light-OFF neurons, increasing the combined response with surface brightness and size. This challenges the long-standing assumption that only surface edges drive strong cortical responses.
Researchers at State University of New York College of Optometry propose a general theory of cortical map formation that explains the diversity of visual maps in nature. The theory suggests that map diversity emerges from variations in thalamic afferent density sampling sensory space, leading to increased cortical areas and sorting of ...
Researchers at State University of New York College of Optometry discovered that visual contrast increases when reading outdoors, making it easier to see letters and improving eyesight. This finding has significant implications for basic research, eye clinics, and architectural design.
The study aims to evaluate the safety and effectiveness of MicroPine, an atropine eye solution, in slowing myopic progression in children aged 3-12 years. Participants will receive MicroPine or a placebo for three years, with some receiving it for four years, and comprehensive eye care, glasses, and travel expenses covered.
Recent research reveals that visual brain maps are dark-centric, with greater precision for darker stimuli. This dark-centric organization enables the brain to represent different positions of light spots as rotating around a dark anchor in visual space.
Brain researchers discovered how Galileo's visual illusion works in the mind's eye, revealing that it occurs due to non-linear and exaggerated responses to light stimuli. This effect is responsible for various phenomena, such as why certain objects appear larger or smaller based on their dark parts in bright daylight.