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Pneuma creates lightweight, shape-morphing structures that deliver immersive sensory experiences in public spaces. By integrating robotics with flexible materials, it forms an intelligent system that autonomously adapts to human movements and pulse rates.
The project aims to develop a human-scale, self-deploying soft robotic space that uses breath to blend emotions, sounds, and atmosphere. Pneuma enhances human engagement through its responsive design and serves as a therapeutic environment by reflecting health data like heart rate. This research advances structural flexibility, enabling new interactive spaces that support well-being in various public settings.
Combining lightweight structures and soft robotics, the project goal is to investigate an autonomous soft robotic system that utilises breath as a conduit to integrate human emotions, sounds, and atmosphere.
A cyber-physical control network that allows real-time data exchange is established between physical and digital environments.
Deployment as a soft, interactive pavilion in outdoor environments.
Pneuma is a hybrid system of bending active structures integrated with fabric and pneumatic cushions.
In the initial topology design, the team built on the actuation logic to create a catalogue of behaviour scenarios and how these spatial modules can be designed to facilitate various behaviours.
Prototypes are upscaled to human-scale while integrating different material actuation systems to achieve the project goal.
Various fabric shapes and pneumatic modules are tested on the bent active rods to achieve optimal fit and integration.
The reciprocal frame can be aggregated to create larger enclosures for different functions.
Pneuma’s structural transformation involves both the actuation of the entire global structure and the localised movement of secondary components.
In collaboration with musician SINK, a software patch is developed to sample sounds from his music and create interactive experiences for users.
By establishing a connection between pose estimation and structural states, the global structure will adapt its form to accommodate different behaviours such as napping, sitting, and standing.
The prototype is tested with multiple users to create unexpected shapes in the structure.
Data from the pulse sensor is used to visualise the heart rate within the sound patch, which also triggers changes in the states of the actuators, air valves, and colours of the LED lights.