Why Colors Fade When I Don't Wear Glasses: Insights On Color Perception And Eye Health [Updated On 2024]

When you don’t wear glasses, color fading can happen due to chromatic aberration. This occurs with low-quality lenses. It may also signal macular degeneration (AMD). Anti-reflective coatings can enhance clarity. Tinted lenses might fade under UV radiation, impacting your color perception and overall visual clarity.

Moreover, glasses correct refractive errors, improving the light entering the eye. They ensure that colors are seen as intended. This is particularly crucial for those with color vision deficiencies. These individuals may find certain hues challenging to distinguish without corrective lenses, further contributing to the appearance of faded colors.

Eye health significantly impacts color perception. Regular eye examinations are essential to maintain optimal vision and to address any underlying issues. Wearing prescribed glasses ensures the eyes function efficiently and perceive colors accurately.

Understanding how and why colors fade without glasses builds a foundation for addressing broader aspects of eye health. The next part will explore methods for enhancing visual clarity and maintaining vibrant color perception in daily life.

Table of Contents

What Changes in Color Perception Occur When I Don’t Wear Glasses?

When you don’t wear glasses, your color perception may change due to blurred vision and visual distortion. The clarity with which you see colors often decreases, affecting how you distinguish between different hues.

The main changes in color perception when not wearing glasses include:
1. Blurriness
2. Color Distortion
3. Difficulty with Contrast
4. Fatigue and Strain
5. Light Sensitivity

These changes impact daily activities and overall comfort. Let’s explore each aspect further.

Blurriness: When you don’t wear glasses, blurriness becomes pronounced. Blurred vision results from refractive errors, such as nearsightedness or farsightedness. According to the American Academy of Ophthalmology, refractive errors occur when the shape of the eye prevents light from focusing correctly on the retina. This blurriness can significantly alter how you perceive colors, as the edges of objects become less distinct.
Color Distortion: Color distortion occurs when vision becomes unclear. The perception of shades may shift, resulting in a mix between similar colors. A 2014 study published in the Journal of Vision indicated that people with uncorrected vision might struggle to differentiate between subtle hues. For example, a dark blue may appear more grayish, affecting tasks such as selecting clothing or reading colored text.
Difficulty with Contrast: Difficulty with contrast can hinder the ability to tell colors apart. When contrast is reduced, colors may become indistinguishable. The Collins Dictionary defines contrast as “the state of being strikingly different from something else.” Visual acuity challenges can dull the vibrancy of colors, making it harder to enjoy visually rich environments.
Fatigue and Strain: Fatigue and strain are common when straining to see without corrective lenses. Prolonged effort to focus can lead to visual fatigue, which often exacerbates the perception of color issues. A 2018 report by the Vision Council noted that more than 50% of adults experience visual fatigue, especially when not wearing corrective eyewear. This may distort color perception further as the eyes become tired and less efficient in processing visual stimuli.
Light Sensitivity: Light sensitivity can increase when glasses are not worn. This condition, known as photophobia, can make bright colors uncomfortable to view. People without prescription lenses might find direct light sources or vivid colors overwhelming. Research published in the journal Eye suggests that individuals with uncorrected vision are more likely to develop sensitivity to light over time.

Understanding these changes can help individuals make informed decisions about wearing corrective lenses and managing their visual comfort effectively.

Why Do Colors Appear Duller Without Glasses?

Your perception of colors may appear duller without glasses due to a refractive error in your eyesight. This condition makes it difficult for your eyes to focus properly, leading to blurred vision and a less vibrant color experience.

According to the American Academy of Ophthalmology, refractive errors include conditions like myopia (nearsightedness), hyperopia (farsightedness), and astigmatism. These conditions affect how light enters the eye, disrupting the way we perceive colors.

The underlying cause of dull color perception without glasses is primarily due to how light is refracted in the eye. Refraction is the bending of light as it passes through the cornea and lens. When there is a refractive error, light does not focus correctly on the retina, which is the light-sensitive layer at the back of the eye. This misalignment can cause colors to blend together, reducing their vibrancy.

When focusing on color perception, the retina contains specialized cells called cones, which detect color. There are three types of cones that are sensitive to different wavelengths of light, corresponding to red, green, and blue. If these cones receive blurred light due to a refractive error, the brain struggles to differentiate colors effectively. This contributes to the appearance of dull or muted colors.

Specific conditions that can exacerbate this issue include prolonged periods of not wearing prescribed corrective lenses. For example, individuals with moderate to severe myopia may notice significant differences in color clarity and brightness if they do not wear their glasses. Another scenario is exposure to low-light environments, which can further diminish color perception for individuals with uncorrected vision.

In summary, colors appear duller without glasses due to refractive errors affecting how light is focused in the eye, leading to blurred images that impair color distinction.

How Does My Brain Compensate for Lack of Visual Clarity?

When you experience a lack of visual clarity, your brain employs several strategies to compensate. First, your brain uses prior knowledge and context to interpret visual information. It relies on memories of familiar objects and their characteristics. This familiarity aids in filling gaps when the visuals are unclear.

Second, your brain enhances certain details while suppressing less relevant information. This process helps to focus on the most critical aspects of what you see. For example, if you look at a blurry face, your brain might prioritize facial features like the eyes or mouth to help you recognize the person.

Third, your brain utilizes sensory input from other senses. It combines touch, sound, and smell to create a fuller picture of your environment. For instance, if you can’t see clearly, you may rely more on sounds to understand where you are and what’s happening.

Finally, your brain’s neural pathways adapt through experience. Over time, your brain learns to adjust its expectations and interpretations based on visual input. This plasticity allows it to improve its response to unclear visuals.

In summary, your brain compensates for lack of visual clarity by drawing on prior knowledge, enhancing relevant details, integrating other sensory information, and adapting through experience. Each of these steps works together to help you make sense of the unclear visuals around you.

How Do Glasses Enhance My Color Recognition?

Glasses enhance color recognition by correcting vision-related issues and filtering specific wavelengths of light, which improves clarity and contrast. This enhancement occurs through several key mechanisms:

Corrective lenses: Eyeglasses can correct refractive errors, such as nearsightedness or farsightedness. A study by Charman (2019) states that improved focus contributes to better color differentiation, as the eye can accurately perceive color boundaries.
Enhanced contrast: Some lenses feature coatings that increase contrast. For instance, tinted lenses can filter out certain wavelengths of light. According to a study by Pärssinen et al. (2015), selective filtering can help the brain distinguish between similar colors more effectively.
Reduced glare: Certain glasses are designed with anti-reflective coatings that minimize glare, particularly in bright conditions. A study conducted by Allen and O’Rourke (2020) found that reduced glare results in improved visual clarity, allowing for better color distinction.
Light sensitivity modulation: Specialized glasses, such as those for color blindness, can enhance specific color ranges while dulling others. Research by Cole and Dunsmuir (2018) indicates that these glasses can improve color perception for individuals with color vision deficiencies by emphasizing critical colors.

By addressing these factors, glasses can significantly enhance one’s ability to recognize and differentiate colors, ultimately leading to a more vibrant visual experience.

What Types of Lenses Are Best for Color Perception?

The best types of lenses for color perception are those that enhance contrast and minimize distortion. Some suitable options include:

High-Contrast Lenses
Polarized Lenses
Color-Tinted Lenses
Photochromic Lenses
Specialized Chromagen Lenses

These lenses vary in their benefits and applications. Each lens type offers unique advantages for color perception.

High-Contrast Lenses:
High-contrast lenses improve the differentiation between colors by enhancing light transmission. They are designed to filter specific wavelengths of light. Research indicates that such lenses help individuals with color vision deficiencies better distinguish colors. For example, studies by Lee et al. (2019) suggest that these lenses improve performance in tasks requiring accurate color identification.
Polarized Lenses:
Polarized lenses reduce glare from reflective surfaces. They contain a special filter that blocks horizontal light waves. This can lead to clearer color perception in bright conditions. Various studies show that polarized lenses enhance overall visual comfort and can improve color recognition in outdoor environments. For instance, a study by Imai et al. (2021) found that polarized sunglasses significantly aid in distinguishing between shades on sunny days.
Color-Tinted Lenses:
Color-tinted lenses come with various tint options that can heighten specific color contrasts. Different colors target different aspects of vision, such as green or yellow tints enhancing depth perception. Research demonstrates that certain tints can benefit individuals in specific contexts, such as sports or driving. An eye care study reported that sports athletes often prefer yellow or amber tints for better performance.
Photochromic Lenses:
Photochromic lenses automatically adjust their tint based on the light conditions. They darken in bright sunlight and return to clear indoors. This feature improves clarity and color perception in changing environments. According to recent user surveys, many wearers report increased comfort and enhanced color distinction when using photochromic lenses.
Specialized Chromagen Lenses:
Chromagen lenses are tailored for individuals with color vision deficiencies. These lenses filter specific color wavelengths to enhance color discrimination. Research by Wilkins and Elkins (2020) highlights that users of Chromagen lenses report significant improvements in their ability to perceive colors accurately in daily life.

These types of lenses significantly influence color perception. Choosing the right type can greatly enhance visual experiences.

Can Filters in Glasses Affect My Color Perception?

Yes, filters in glasses can affect your color perception. Different filters can enhance or distort how you see colors.

Colored filters, such as yellow or blue, can influence the wavelengths of light that reach your eyes. This alteration can enhance certain colors while muting others. For instance, yellow filters increase contrast and make yellow and red hues appear more vibrant, while blue filters can make certain colors look cooler or less vibrant. This impact can be particularly pronounced in individuals with color vision deficiencies. Consequently, the filters might change your overall experience of color in your environment.

What Eye Conditions Might Contribute to Color Fading?

Certain eye conditions can contribute to color fading. These conditions affect how the eyes perceive colors, leading to shifts in color vision.

Age-related Macular Degeneration (AMD)
Cataracts
Diabetic Retinopathy
Retinitis Pigmentosa
Color Vision Deficiency (Color Blindness)

The above conditions illustrate how various eye health issues can impact color perception. Next, each condition will be explored in more detail.

Age-related Macular Degeneration (AMD):
Age-related macular degeneration affects the retina’s macula and reduces central vision. This condition often leads to difficulties in distinguishing colors. The American Academy of Ophthalmology states that about 10 million Americans have AMD, and it primarily affects older adults. This degeneration can lead to challenges in seeing vibrant colors and a greater reliance on peripheral vision.
Cataracts:
Cataracts are characterized by the clouding of the eye’s lens. They can cause colors to appear faded or yellowed. According to the American Society of Cataract and Refractive Surgery, nearly 24.4 million Americans aged 40 and older have cataracts. The condition can distort colors, making it difficult to detect variations in color shades, especially blue and yellow.
Diabetic Retinopathy:
Diabetic retinopathy is a complication of diabetes that harms blood vessels in the retina. It can cause dark spots or blurriness, affecting color vision. The CDC reports that diabetic retinopathy affects 30% of people with diabetes. Altered vision can lead to diminished ability to distinguish bright colors, contributing to overall color fading.
Retinitis Pigmentosa:
Retinitis pigmentosa is a genetic disorder that causes progressive degeneration of the retina. This condition typically leads to difficulty seeing colors, especially in low-light conditions. The National Eye Institute notes that retinitis pigmentosa affects around 1 in 4,000 people. As the disease progresses, patients often exhibit a significant loss of color perception.
Color Vision Deficiency (Color Blindness):
Color vision deficiency is the inability to perceive certain colors accurately. It is often inherited and can lead to confusion between colors, such as red and green. The Americanoptometric Association reports that 1 in 12 men and 1 in 200 women has some form of color blindness. This condition inherently affects how colors are perceived, resulting in colors appearing faded or indistinct.

How Do Age-Related Eye Conditions Affect Color Perception?

Age-related eye conditions can significantly impact color perception, primarily due to changes in the eye structure and function. These changes can distort the way colors are seen, leading to difficulties in distinguishing between shades.

Lens yellowing: The eye’s lens often becomes yellow as people age. This yellowing can filter out blue light, making it harder to perceive colors accurately. Research by Marino et al. (2014) demonstrates that older adults experience reduced sensitivity to blue hues compared to younger individuals.
Macular degeneration: Age-related macular degeneration (AMD) affects the retina, especially the macula, which is responsible for central vision and color discrimination. Studies, such as those by Cheung et al. (2011), show that individuals with AMD may struggle to differentiate colors, particularly in low-contrast situations, due to damage to light-sensitive cells.
Cataracts: Cataracts lead to clouding of the lens, which can diffuse light and cause colors to appear washed out or dulled. A report by the American Academy of Ophthalmology highlights that cataracts can diminish color perception, especially in bright lighting conditions.
Changes in pupil size: As people age, their pupils often become smaller and less responsive to light changes. This can decrease the amount of light entering the eye and reduce color vibrancy. According to a study by Balaratnasingam et al. (2019), this decreased light sensitivity can affect how colors are perceived overall.
Neural processing: Aging also affects the brain’s ability to process visual information. Research by Faubert and Titcombe (2001) indicates that older adults may have slower processing speeds, which can negatively influence their ability to perceive and interpret colors quickly.

These age-related changes can collectively result in a compromised ability to accurately perceive and differentiate colors, affirming the necessity of regular eye examinations and potential corrective measures for older adults.

Are There Any Genetic Factors That Influence Color Vision?

Yes, genetic factors influence color vision. Variations in genes, particularly those related to cone cells in the retina, determine how individuals perceive colors. These genetic differences can result in color vision deficiencies, commonly known as color blindness.

Color vision relies on the presence of cone cells, which are photoreceptors in the retina. There are three types of cone cells sensitive to different wavelengths of light: short (blue), medium (green), and long (red). Genetic variations can cause anomalies in these cone cells. For example, individuals with red-green color blindness often have a malfunction or absence of the medium or long wavelength cones. This is typically linked to mutations in the genes located on the X chromosome, which is why the condition is more prevalent in males.

The positive aspect of understanding genetic factors in color vision is the potential for early detection and management of color vision deficiencies. Awareness can lead to better educational strategies for affected individuals. Research indicates that approximately 8% of men and 0.5% of women have some form of color vision deficiency. Genetic testing can help families assess risks and provide genetic counseling.

On the negative side, color vision deficiencies can impact daily life and career choices. Certain professions, such as pilot, electrician, or graphic designer, may require normal color perception. Studies suggest that individuals with color blindness may experience challenges in social situations. For instance, a study by Deeb (2010) highlights the emotional impact and social stigma often faced by those with color vision deficiencies.

Based on this information, individuals concerned about their color vision should consider consulting with an eye care professional for a comprehensive assessment. Utilizing assistive technology or specialized tools can also aid those with deficiencies. Additionally, parents should be aware of the hereditary nature of color blindness, facilitating early intervention or support strategies for affected children.

How Does Lighting Impact My Color Perception Without Glasses?

Lighting significantly impacts color perception without glasses. First, light sources produce different wavelengths, affecting how colors appear. Natural daylight contains a full spectrum, while artificial lights may lack certain wavelengths. This difference influences how vibrant or muted colors look.

Next, the intensity of light affects perception. Bright light enhances color visibility, while dim light can wash out and obscure colors. Under low light conditions, the human eye relies more on rod cells, which are sensitive to brightness but not to color. This leads to a loss of hue distinction.

Additionally, the angle of light influences shadows and highlights. This can alter how colors interact and change our perception of their true shades. Reflections from surrounding surfaces also play a role, as colors can appear differently based on nearby objects and their colors.

Overall, the absence of corrective lenses amplifies these effects. Without glasses, individuals may struggle to perceive color accurately, particularly in varying lighting conditions. Proper lighting is essential for clear and accurate color perception.

What Types of Light Are Most Beneficial for Color Clarity?

The most beneficial types of light for color clarity are natural daylight and certain artificial lights that mimic daylight conditions.

Natural Daylight
Full-Spectrum Light
LED Grow Lights
Fluorescent Lights
Incandescent Lights

Natural daylight provides the most accurate color representation. However, full-spectrum light is a close second, as it contains all the visible wavelengths. LED grow lights are especially useful for plants but can also boost color clarity in other contexts. Fluorescent lights offer energy efficiency and color precision, while incandescent lights can create a warm ambiance but vary in color temperature.

Understanding the differences among these light types helps in selecting the best option for optimal color clarity.

Natural Daylight:
Natural daylight serves as the gold standard for color clarity. It contains a balanced distribution of the entire visible spectrum, allowing for true color perception. According to research from the Lighting Research Center, daylight enhances color rendering in various applications, such as art and fashion. A case study by the Architectural Lighting Magazine highlights how artists prefer natural light for painting due to its authenticity and clarity.
Full-Spectrum Light:
Full-spectrum light bulbs are designed to emit an even distribution of colors across the spectrum. These bulbs replicate daylight conditions, making them effective for enhancing color clarity. Studies, such as one conducted by the International Journal of Environment and Sustainable Development in 2015, say that full-spectrum lights increase visual comfort and color differentiation in indoor environments. They are widely used in settings like photography and art galleries.
LED Grow Lights:
LED grow lights primarily target the specific wavelengths that promote plant growth. However, these lights also enhance color clarity for other applications, such as in retail spaces or homes. Research published in the Journal of Horticultural Science & Biotechnology found that certain LED combinations can significantly improve color perception in plants, which indirectly applies to color clarity in consumer spaces as well.
Fluorescent Lights:
Fluorescent lights are known for their energy efficiency and ability to render colors accurately. Many modern fluorescent bulbs come with a high Color Rendering Index (CRI), which indicates how well they reproduce colors compared to natural light. According to the U.S. Department of Energy, CRI values above 90 are deemed excellent for color-related tasks. They are commonly used in offices and schools.
Incandescent Lights:
Incandescent lights produce a warm glow but typically have a lower CRI compared to other light types. While they are not ideal for color clarity, they can create inviting environments. Researchers from the Journal of Applied Physics argue that although their color temperature varies, when used properly, they can complement specific colors, enhancing overall aesthetics in spaces like restaurants and homes.

Choosing the right type of light can significantly impact color clarity in various settings, influencing everything from interior design to artistic expression.

How Can I Optimize My Environment for Better Color Recognition?

You can optimize your environment for better color recognition by improving lighting, using contrast, minimizing visual clutter, and selecting appropriate colors for your surroundings.

Improving lighting: Natural light enhances color perception. A study by Wong et al. (2012) indicates that bright natural light allows the eye to discern subtle color differences more effectively. Using full-spectrum bulbs indoors can mimic natural light and boost color accuracy.

Using contrast: High-contrast environments improve color recognition. For instance, placing colored objects against neutral backgrounds helps the eyes distinguish colors more easily. Research by Saffran & Griepentrog (2004) shows that contrast sensitivity plays a crucial role in identifying colors accurately.

Minimizing visual clutter: A cluttered environment can distract and confuse the visual system. Fewer competing colors allow the eye to focus better on specific hues. A study by Haisley et al. (2010) supports that visual clarity influences color perception, arguing for simpler arrangements in visual spaces.

Selecting appropriate colors: Choice of colors in your environment matters. Using warm colors can invigorate and enhance focus, whereas cool colors can be calming. Research by Kuller et al. (2006) finds that room color significantly affects mood and perception, highlighting the importance of color selection.

By applying these strategies, you can create an environment that supports enhanced color recognition and improves overall visual experiences.

What Steps Can I Take to Maintain Healthy Color Perception?

To maintain healthy color perception, consider adopting specific practices that support eye health and function.

Regular Eye Check-ups
Proper Lighting Conditions
Anti-Glare Lenses
Nutrient-Rich Diet
Eye Exercises
Protective Eyewear
Digital Eye Care

Understanding these various approaches can provide a solid foundation for preserving and improving your color vision.

Regular Eye Check-ups: Regular eye check-ups help detect issues affecting color vision early. Eye care professionals can assess your color perception and overall eye health. According to the American Academy of Ophthalmology, adults should have comprehensive eye exams at least every two years, or more often if risk factors are present.
Proper Lighting Conditions: Proper lighting conditions can enhance color perception. Natural light is ideal, as it provides the full spectrum necessary for optimal color discrimination. A study published in the journal “Optometry & Vision Science” found that dim light conditions can severely affect color recognition, particularly in objects with similar hues.
Anti-Glare Lenses: Anti-glare lenses reduce reflective glare from screens and bright surfaces. They can enhance visual clarity and reduce eye strain. Research shows that these lenses can lead to improved color contrast and greater comfort while viewing colors on digital devices.
Nutrient-Rich Diet: A nutrient-rich diet supports overall eye health. Nutrients such as vitamins A, C, E, and minerals like zinc help maintain healthy vision. Foods rich in omega-3 fatty acids, such as fish, are particularly beneficial. The American Optometric Association emphasizes the importance of a balanced diet for sustaining eye function and color perception.
Eye Exercises: Eye exercises can improve focus and reduce fatigue, which may impact color perception. Simple practices, like focusing on objects at different distances, can help maintain the flexibility of the eye muscles. A study from the “Journal of Vision” indicated that regular eye exercises improved the visual acuity of participants.
Protective Eyewear: Protective eyewear shields your eyes from harmful UV rays and blue light, which can impact color perception. High-quality glasses with UV protection are crucial when outdoors. The Centers for Disease Control and Prevention (CDC) reiterates the importance of sunglasses in safeguarding eye health.
Digital Eye Care: Digital eye care practices are essential in this digital age. The 20-20-20 rule—looking at something 20 feet away for 20 seconds every 20 minutes—helps reduce strain from screen use. The American Optometric Association recommends this practice to mitigate the effects of prolonged screen exposure.

By following these steps, you can significantly improve and maintain your color perception over time.

How Can Regular Eye Check-Ups Help My Color Vision?

Regular eye check-ups can significantly help your color vision by detecting color vision deficiencies early, providing personalized advice on managing these issues, and monitoring any changes over time.

Detecting deficiencies early: Regular eye exams enable eye care professionals to perform specific tests that can identify color vision deficiencies, such as the Ishihara test. This test assesses a person’s ability to see numbers within colored dots and can reveal issues with red-green color discrimination. The earlier these deficiencies are identified, the better the chance of implementing strategies to cope with them.

Providing personalized advice: During eye check-ups, eye care professionals can offer tailored recommendations based on an individual’s specific color vision challenges. For instance, they may suggest specialized eyewear that enhances contrast or adjustments to lighting conditions that can improve the perception of colors.

Monitoring changes over time: Regular examinations allow for continuous tracking of color vision and overall eye health. Eye problems can develop slowly, and routine check-ups can catch these issues early. A study published in the Journal of Optometry (Núñez et al., 2020) highlights that early detection and management can minimize the impact of degenerative eye conditions on color perception.

Promoting overall eye health: Regular check-ups can help in monitoring and managing common eye conditions such as cataracts or macular degeneration, which can alter color perception. Timely interventions can slow down progression and help maintain optimal vision.

In conclusion, regular eye check-ups are essential for maintaining healthy color vision through early detection, personalized management, ongoing monitoring, and promoting overall eye health.

What Eye Exercises Could Improve My Color Perception?

To improve color perception, specific eye exercises may help, though their effectiveness can vary among individuals. These exercises focus on enhancing visual acuity and eye coordination.

Color Recognition Drills
Contrast Sensitivity Exercises
Depth Perception Training
Eye Patching Techniques
Relaxation Techniques for Eye Fatigue

Understanding these exercises provides insights into potential benefits and limitations. Each exercise serves a distinct purpose related to improving color perception.

Color Recognition Drills: Color recognition drills enhance the brain’s ability to identify and differentiate colors. These drills typically involve sorting objects by color or using color flashcards to improve memory and recognition skills. A study by Ginsburg et al. (2015) indicated that these activities can sharpen color vision in individuals with mild deficiencies.
Contrast Sensitivity Exercises: Contrast sensitivity refers to the ability to distinguish objects from their background. These exercises may include viewing images or patterns with varying contrast levels. The American Academy of Ophthalmology highlights that improved contrast sensitivity can aid in better color discrimination, particularly in low-light environments.
Depth Perception Training: Depth perception exercises help improve the understanding of spatial relationships among colors. These may involve tasks like stacking colored blocks or 3D puzzles. Research by Kellman et al. (2014) showed that depth perception training can enhance overall visual processing, including color perception.
Eye Patching Techniques: Eye patching involves covering one eye for specific periods. This technique can help strengthen eye muscles and improve coordination and perception. According to a report by the American Optometric Association, this method may particularly benefit individuals with a significant disparity in vision between their eyes.
Relaxation Techniques for Eye Fatigue: Relaxation techniques help relieve eye strain, which can affect color perception. Simple techniques include closing the eyes and relaxing for a few minutes. Studies by the Vision Council (2020) indicate that reducing eye fatigue can improve overall visual performance, including color perception.

In summary, engaging in specific exercises may improve color perception, although results can vary. Each type of exercise targets different aspects of visual processing, ultimately aiming to enhance the individual’s ability to distinguish colors accurately. Consistent practice and possibly professional guidance can lead to better outcomes.

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Why Colors Fade When I Don’t Wear Glasses: Insights on Color Perception and Eye Health