Mantra Ravat

CT2034

Inflatable Structure: HealPod

This project explores inflatable structures, drawing inspiration from natural elements like banana leaves and lung mechanisms, the study focuses on motion and air inflation system.Through prototyping and case studies such as the Eden Project and Fuji Pavilion, the portfolio investigates real-world applications like shading devices and medical pod.The final outcome is a futiristic,deployable, inflatable medical pod designed for the year of 2040 with rapid response in off grid locations.


Report Content

An overview of the initial studio exercise aimed at understanding key terminologies essential for engaging with dynamic systems.

Learnings from a 1:1 physical model of a crank-rocker mechanism, exploring challenges of friction, misalignment, and teamwork in the construction process.

Case study of an origami-inspired kinetic roof, aimed at analyzing structural behavior through load calculations and detailed technical drawings.

A physical prototype visualizing the skeletal structure of the origami-inspired roof, focusing on joinery, folding lines, and mechanical movement.

The task was to identify and develop three design concepts inspired by elements of nature. The objective was to study these natural forms in depth, analyze their structural and aesthetic properties, and explore how they could inform architectural or design solutions.

Taking inspiration from the folding behavior of banana leaves, a deployable shading device was designed. The structure integrates cantilever brackets, sliders, and fixed joints to enable controlled movement. At its core is a central pipe that inflates ETFE cushions, which are initially folded in a spiral configuration. When air is pumped through the pipe, the cushions inflate and unfold to create a shaded seating area.

A dynamic facade system utilizing stitched PTFE cushions and embedded magnets, designed to provide adaptable shading through inflation and deflation. In this system, the PTFE cushions are connected to a central pipe and inflate when air is introduced. As they unfold, embedded magnets within the cushions align and attach to corresponding magnets on the metal panels, securing the structure in its open position.

After designing two kinetic applications, the focus shifted toward studying inflatable structures as complete architectural systems. To support this exploration, case studies such as the Eden Project and the Fuji Pavilion were analyzed to understand material behavior, air pressure systems, and structural performance.

Conceptual exploration of futuristic inflatable structures in various urban scenarios—ranging from smart transport hubs to healthcare pods. And overview at some of the prototypes created understan the form, mateiral and joinery of these type of structure.

Looking ahead to the year 2040, a futuristic medical pod named HealPod was developed. Designed for rapid deployment in off-grid locations, the pod features an AI-powered system and a fully inflatable structure—including its furniture. Supported by air beams and assembled using seam-welded joinery, the pod is clad with durable fabric, making it lightweight, compact, and suitable for emergency or remote healthcare