Does the color of wine change when poured into a glass?
Although it may appear darker, the red shade remains the same. This visual trick is a result of the Munker-White illusion—where our brain perceives colors differently depending on their surrounding context.
If you’re fascinated by puzzles like this, reach out to my syndication agent to feature them in your publication.
This op art piece is also available as prints and canvases in my online gallery.
With Christmas around the corner, mandarins and oranges start popping up everywhere. In supermarkets, you’ll often find oranges wrapped in red mesh bags. But that choice isn’t just for looks—it’s a clever sales trick.
Why red mesh? It’s a simple way to make oranges seem more appealing to our eyes and brains, even if the fruit is a bit lackluster. Scientists have studied this phenomenon, which they call the “Confetti illusion.” Arriving fashionably late to the scene, they discovered the visual effect caused by the red mesh bag. They’ve given it the grand name “perceptual ripening of oranges,” but let’s be real—it’s just color assimilation doing the work.
Color assimilation is when different hues blend in our perception, changing how we see things. In this case, the red mesh combines with the actual color of the fruit (fig. A), making the oranges look brighter and more appealing (fig. B)—a little trick on the eyes.
Scientists recently confirmed what artists and salespeople have known for centuries: color assimilation can shape how we see things, especially in shopping. The illusion works because most people trust what they see without taking a closer look. But once out of the red mesh, the oranges often aren’t as shiny or ripe as they first appeared.
Curious to learn more about how color influences perception? Check out my color research and visual experiments on my Behance page.
Introducing my latest creation, Triangles of Beauty—a minimalist mosaic that blends geometric precision with visual intrigue. This op art piece showcases a striking arrangement of triangular shapes in sepia tones, merging rich shades of brown and beige. The triangle, a timeless symbol, embodies the balance of masculine and feminine energies, forming a harmonious third element that transcends duality. It represents strength, unity, and the divine—a visual echo of the trinity, where individual components unite into something greater.
Step back and let the patterns unfold to reveal the depth within this thought-provoking piece.
This thought-provoking op art piece is available in my online galleries:
In 1997, I reimagined Leonardo da Vinci’s Mona Lisa through a system of 142 color beads, each precisely positioned at the nodes of an invisible two-dimensional triangular grid. Up close, the pattern appears abstract, yet from a distance, the arrangement resolves into the familiar features of the portrait, inviting viewers to recognize the image through perception and suggestion.
Are you seeing spirals? Look again, they’re actually concentric circles! This unique variation of the “Fraser spiral” plays tricks on your eyes by blending a regular line pattern (representing the circle’s circumference) with misaligned elements (the spheres with varying brightness).
Would you like to learn how to create this mesmerizing illusion? Follow my simple visual tutorial. If you have any ideas to further enhance this project, please don’t hesitate to reach out.
Continue ReadingWith this work, I aim to push geometry to its limits, transcending the confines of color. My goal is to showcase the creative potential of simple concentric squares as a medium for experimentation and the discovery of new op art patterns. By delving into this exploration, I strive to unveil captivating illusions of color and mesmerizing motion.
Draw a large and a small square with thick lines and center them (Fig. A). Next, blend the inner and outer squares in six steps to create a set of concentric squares. Reproduce the set to form a larger square pattern, as shown in Fig. B.
Is yellow the true color of the sun? Our sun emits a broad spectrum of radiation, including visible light, which is crucial for life on Earth. In the vacuum of space, the sun appears white because it emits light across all wavelengths fairly evenly. However, when this light enters our atmosphere, it encounters air molecules and particles that scatter shorter wavelengths—primarily blue light—more effectively than longer wavelengths like red and yellow.
Consider a small, clear disc placed against a blue background. The disc may appear slightly yellow due to the influence of the blue light surrounding it. This visual effect is similar to how we perceive the sun against the blue sky.In essence, while the sun itself emits white light, our atmosphere alters its appearance, leading us to see it as yellowish or orangish at times.
Additionally, not all species perceive colors in the same way. Different animals have varying sensitivities to wavelengths of light. This means their experience of color and light can be quite different from ours.
For more fun facts about color perception and optical illusions, visit Archimedes Lab.
Although NOTHING moves on the gif below – only the colors change! – it’s easy to spot which direction the wheel is “rotating”… But which side is in front? Which side the back?
Another hypnotic version in which still squares and diamonds seem to move, but only colors change slightly!
When your brain lies… There is NO yellow, nor red, nor green in the picture below! The only real colors are blue, cyan and magenta. Scientists and artists call these color induction effects “simultaneous color contrast” and “color assimilation”.
Some simple geometric patterns and designs, when repeated, can induce strong illusory shape distortions. Thus, visual misperceptions are very common in the op art world.
If dark and clear rectangular tiles are arranged in a checkered fashion, as shown below, there is obviously no illusion, but wait, just add at the intersection of these tiles some transparent dark and clear square patches, et voilà, magic appears!
So, transparencies can produce apparent linear distortions. The parallel red lines in this example look like being convergent / divergent.
