Exploring Geometry with Peranakan Tiles
Discover the maths hidden in Peranakan tile designs, from symmetry to fractals. Download a colouring sheet and try your hand at creating your own tile pattern.
Floored by the beauty of Peranakan tiles? We uncover a mosaic of mathematics by examining these decorative works. Learn more about the geometry that makes these heritage patterns so on point. Includes a colouring sheet for the young at heart!
Image Credit: Jansen Michelle
Singapore's Peranakan tiles are well known for their bold, eclectic designs. With their aesthetics standing the test of time, you can find some of these original ornamental tiles in shophouse facades (opens in new tab) along Katong, Joo Chiat, and Emerald Hill. But have you ever wondered about the elegant mathematical principles that create these eye-catching mosaics?
History of 'Peranakan Tiles'
First, some quick history. What we call "Peranakan tiles" are actually tiles imported from European countries like England, Belgium, Germany, and the Netherlands prior to World War I to decorate the homes of the Chinese and Peranakan community (opens in new tab) in Southeast Asia (source (opens in new tab)). Art Nouveau and Art Deco majolica tiles (glazen earthenware) were especially popular with their intricate floral and faunal motifs.
Later in the 1920s, Japan started exporting majolica tiles with designs rich in Chinese symbolism, such as lotuses, peaches, plum blossoms, and dragons, to satisfy growing demand in Singapore and across Malaya (read more here (opens in new tab)). These majolica tiles from different countries eventually became so synonymous with local communities that they became known in Southeast Asia as Peranakan tiles.
In a 2019 Straits Times (opens in new tab) feature, artist Jennifer Lim explained, “the tiles tell a story of Singapore's complex cultural DNA and are a reminder of the nation's ability to absorb and reinterpret outside trends and influences."
Peranakan tiles adorning shophouses on Koon Seng Road. Photo credit: Amos Lee (opens in new tab)[resource:523:190557]Unsplash (opens in new tab)
Science behind these mosaics
What about the science behind these mosaics of diverse cultures?
Creating durable ceramics is a complicated process (opens in new tab) involving chemistry, material sciences, and technology. A clay mixture is carefully prepared and poured into a mould, dried, fired in kilns, and then painstakingly glazed to achieve a shiny, glossy finish.
The intensely bright colours of original tiles came at a cost, though. In an interview with Expat Living (opens in new tab), Victor Lim from the Peranakan Tile Gallery explains that "production of these [original] tiles ended around 1935 and many of the materials used in the process of creating and preserving the colour – like cobalt, copper or manganese – were discontinued or are no longer in use due to their toxic qualities."
Besides knowledge of minerals and materials, manufacturing of these tiles involved designs with geometrical concepts.
Writing for Garland Magazine (opens in new tab), Ananya Mallick notes that "geometric motifs dominate many Peranakan tiles, with recurring patterns of dovetailing shapes and symmetrical formations." Mallick writes, "These motifs not only create a visually striking effect but also symbolise balance and harmony—the foundational values in Peranakan culture."
For example, Mallick states that "geometric lattice" designs are said to protect households, while "basket weave" designs represent the unity of the community.
Some individual Peranakan tiles feature qualities such as rotational symmetry (when the tile still looks the same after some rotation of less than a full turn) and reflectional symmetry (when one half of the tile is a mirror image of the other half).
In certain tiles, you can even spot fractals (opens in new tab). Fractals are complex, never-ending patterns that, when zoomed in or out of, create a replica of the whole. You can watch this zoom sequence of a shape called a Mandelbrot Set from Mathigon to see how the pattern repeats forever, creating cohesion out of chaos.
To find fractals, you just have to look at nature. For example, a fern is a fractal (opens in new tab). If you look at the leaflets of a fern closely, the fern’s leaflets resemble the shape of the entire frond. Since Peranakan tiles often incorporate organic designs featuring detailed plants or flowers, they may exhibit fractal principles.
Other Peranakan tile designs, such as the geometric lattice and basket weave motifs mentioned by Mallick, show knot theory at work. In mathematics, knot theory (opens in new tab)refers to the study of mathematical knots. These knots are different from, for example, tying shoelaces, in that their ends must be joined so they cannot be undone. The interlacing circles and intricate lattices of some tiles, perhaps inspired by Chinese knotting or the eternal knot, resemble some mathematical knots.
Mathematical knot table credit: Matemateca (IME/USP)/Rodrigo Tetsuo Argenton (opens in new tab).
Furthermore, the overall arrangement of Peranakan tiles on the floor, wall, or bannister creates a form of tessellation (opens in new tab). Tessellations or tilings in mathematics are patterns of repeating shapes that fit perfectly on a surface (typically a plane) with no overlaps or gaps.
Image credit: Jansen Michelle
While Peranakan tiles are decorative works rather than textbook examples of these geometric concepts, these tiles can be a fun gateway to understanding mathematical principles.
Beautiful patterns such as those featured in Peranakan tiles bridge art and science. Beyond appreciating their aesthetics, studying these patterns can have larger applications in other fields.
For example, fractal geometry helps us send images over the internet (opens in new tab). Knot theory has been used by scientists to unravel the structure of DNA (opens in new tab). And in manufacturing, tessellations can help factories create products from sheet metal with less waste (opens in new tab).
So the next time you spot Peranakan tiles, take a closer look at the patterns you observe–they might just be a sign to understanding our wider world!
Now you try! (Activity)
Check out senior science educator Jacy Mok’s origami Peranakan tile creation using a single 15 x 15 cm paper below!
While Jacy's origami is quite complicated, if you’d like to get crafty, you can follow the YouTube tutorial to learn how to fold an origami hydrangea flower that she used for the centre and corners of the Peranakan tile. Origami, like mosaics, relies on a lot of geometry to create wonderful art!
Prefer to let out your inner Picasso instead? Download the colouring sheet below to colour in your very own Peranakan tile masterpiece. Try colouring in the tile to create rotational and reflectional symmetry.
Extra challenge: explore the mathematics of colour theory (opens in new tab). You can try this interactive colour wheel (opens in new tab) by Benjamin Knight to understand colour relationships. Choose complementary colours 180 degrees apart on the colour wheel, or analogous colours within 30-60 degrees of each other. Post your designs and tag @voiddeckmag (opens in new tab) on Instagram!
Download the Peranakan tile colouring sheet here! (opens in new tab)
Unparalleled fun at Science Centre Singapore
Explore more trippy patterns and geometrical fun at Science Centre Singapore's exhibition The Mind's Eye (opens in new tab). Jio your friends for interactive photo ops that play with our visual perception with cool angles and math tricks.
Afterwards, challenge your buddies to navigate Professor Crackitt's Light Fantastic Mirror Maze (opens in new tab), a funhouse with infinite reflections.
For parents or educators of young children, you can continue boggling your little ones' minds through the I Am A Young Mathematician Young Scientist Badge Scheme (opens in new tab), with maths activities you can do at home!
Written by Jamie Uy
Last updated: 31 October 2024