The paper presents ongoing research and development of novel concepts for deployable space structures using self-latching, flexural joints to replace mechanical hinges. The mechanics of deformation of Fiber-Reinforced-Polymers (FRP) joints for in-plane deployment mechanisms are studied. Methods for characterizing these joints via experiments and numerical simulations are proposed. A failure criterion suitable for ultra-thin, plain-weave composites is used to predict failure of the joints and achieve a successful design
Recent designs for deployable space structures include elements that can be folded to high curvatur...
A design concept for engineering structures consisting of brittle FRP components and ductile adhesiv...
The remarkable growth in the use of carbon-fibre-reinforced plastics (CFRP) in aerospace along with ...
The paper presents ongoing research and development of novel concepts for deployable space structure...
Deployable structures made from ultra-thin composite materials can be folded elastically and are ab...
Since the response of deployable structural concepts being considered for the Large Deployable Refle...
This paper presents a 1 m long self-deployable boom that could be folded around a spacecraft. Previo...
Deployable structures made from ultrathin composite materials can be folded elastically and are able...
This paper presents a detailed study of the folding and deployment of a slotted tube hinge made from...
The detailed mechanical design of a novel deployable support structure that positions and tensions a...
This paper considers a lightweight boom with an integral hinge consisting of a thin-walled tube made...
This work presents an analysis and validation of a foldable boom actuated by tape-spring foldable el...
Design of advanced space structures like solar sails and reflectors are limited by the volume and pa...
In space missions, many methods and techniques are used to enable large deployable structures—such a...
All of the structures considered for the Control of Flexible Structures (COFS) flight experiments ar...
Recent designs for deployable space structures include elements that can be folded to high curvatur...
A design concept for engineering structures consisting of brittle FRP components and ductile adhesiv...
The remarkable growth in the use of carbon-fibre-reinforced plastics (CFRP) in aerospace along with ...
The paper presents ongoing research and development of novel concepts for deployable space structure...
Deployable structures made from ultra-thin composite materials can be folded elastically and are ab...
Since the response of deployable structural concepts being considered for the Large Deployable Refle...
This paper presents a 1 m long self-deployable boom that could be folded around a spacecraft. Previo...
Deployable structures made from ultrathin composite materials can be folded elastically and are able...
This paper presents a detailed study of the folding and deployment of a slotted tube hinge made from...
The detailed mechanical design of a novel deployable support structure that positions and tensions a...
This paper considers a lightweight boom with an integral hinge consisting of a thin-walled tube made...
This work presents an analysis and validation of a foldable boom actuated by tape-spring foldable el...
Design of advanced space structures like solar sails and reflectors are limited by the volume and pa...
In space missions, many methods and techniques are used to enable large deployable structures—such a...
All of the structures considered for the Control of Flexible Structures (COFS) flight experiments ar...
Recent designs for deployable space structures include elements that can be folded to high curvatur...
A design concept for engineering structures consisting of brittle FRP components and ductile adhesiv...
The remarkable growth in the use of carbon-fibre-reinforced plastics (CFRP) in aerospace along with ...