Childhood often involves playing with slime. This popular toy, still enjoyed by many, offers a uniquely tactile and relaxing experience. Squishing, mixing, and manipulating slime provides a satisfying sensory outlet. The enduring appeal of slime is evident in its prominent online presence, with creators on platforms like TikTok and YouTube showcasing imaginative ways to play, and the popularity of slime ASMR further demonstrating its widespread appeal. But what if slime could do more than just provide sensory amusement? What if it could generate electricity?
Designer: University of Guelph
Scientists at the University of Guelph in Ontario, Canada, have developed a slime-like material with precisely that capability. While not exactly “electric slime,” this innovative substance generates electricity when compressed or squeezed. Composed of 90% water, along with biocompatible and bio-based oleic (fatty) acid and amino acids, the prototype represents a significant leap in material science. Researchers discovered that the slime forms intricate structures at a microscopic level, allowing it to dynamically arrange and rearrange itself into various layered formations. This unique structural property is key to its electricity-generating ability.
This is not just something fun to play around with. The possibilities of what can be done with this electricity-generating slime is vast. For example, it can be used for bandages, making it easier for open wounds to heal faster since these will attract healing cells to the open wound. This can also be used for targeted drug delivery so that the medicine itself will be released when the structure changes. There are also some non-medical possibilities. You can use the material for household flooring so that it will produce green electricity when people are walking on it, somewhat similar to the Kinetic Dance Floor that Coldplay used in their concert tour. You can also create a squishy power bank to charge your devices.
While the potential is vast, this electricity-producing slime project is still in its early stages. Extensive research, rigorous testing, and further prototyping are crucial before it can be considered for medical or commercial use. The current prototype, with its somewhat slimy, mucous-like appearance, clearly needs aesthetic refinement. Beyond aesthetics, the challenge of scalable mass production looms large. Developing efficient and cost-effective methods for manufacturing this unique material in large quantities will be essential to its widespread adoption. Despite these hurdles, the innovative nature of this project and the breadth of its potential applications make it a fascinating area of research with the potential to revolutionize various fields.
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