About

We bring together researchers, teachers, and students to engage with some of today’s biggest sustainability challenges by co-creating tactile discovery experiences of the natural world. 

Through the EPSRC funded SENSE Project (2021-2024) we designed Digital Haptic Interfaces, Outdoor Touch experiences and Touch-based Citizen Science Projects for Sensory Explorations of Nature in School Environments.

Now, through the UKRI funded TOUCH Project (2024-2026), we explore touch-based exploration of the natural world for wider naturalistic science learning. We will develop digital haptics and case studies from the natural world to explore scientific concepts that are abstract, invisible or at microscopic scale,  such as electric currents, electromagnetic fields and fluid flows. We will make these topics more tangible and understandable, connect them to sustainability and increase appreciation of their role in the natural world.

Why touch?

The sense of touch (or haptics) is the first we develop in the womb, and is central to how we explore and make sense of the world. Understanding qualitative perceptions such as scale, density, texture and pattern is core to developing conceptual thinking across math, science and art.

Our research will embed sustainability and art-based methods into science teaching, and thus reinforce and sustain interest in the natural world.

Why haptic interfaces?

Our project develops technologies that encourage pupils to touch and feel, in order to provoke different scientific questions and inquiries and to help connect with nature. Why is a bumblebee so much hairier than a wasp? Why do oak trees have a rougher bark than beech? Such hands-on experiences will integrate seamlessly into their education, making abstract concepts such as electricity, forces and fields and flows more tangible and understandable.

Our haptic adaptor can be fitted to pre-existing smart phones, tablets or laptops. This helps ensure the sustainability of the project and reduce waste. The adaptors work by vibrating the surface at ultrasound frequencies to give the sensation of texture, for example feathers, fur or tree bark, when used alongside visual and auditory cues.