Physical preforms & architecture evidence

Fibre architecture shaped closer to the intended component geometry.

The gallery separates physical demonstrators from schematics and application concepts. Dry preform evidence is not presented as cured-component qualification.

Status rule: “Physical preform” confirms that the textile form exists. It does not by itself establish cured-composite strength, thermal performance, impact resistance or certification.

Woven structural preforms

Profiles, rings, cylinders, shells and section transitions.

One metre carbon orthogonal angle ring physical demonstrator
Physical preform
Ring / L profile

1 m carbon orthogonal angle ring

Large circular woven form with an integrated angle section for curved-frame and shell-edge development.

Engineering notes
  • Approximate one metre scale
  • Circular architecture
  • Integrated L-profile transition
Photographs of a physical orthogonal woven shell demonstrator
Physical demonstrator
Cone / shell

Orthogonal woven shell demonstrator

Physical tapered shell-form evidence for studying multilayer geometry and yarn continuity.

Engineering notes
  • Tapered shell geometry
  • Physical photograph set
  • Application performance not established
Physical carbon cylindrical textile preform
Physical preform
Cylinder

Carbon cylinder preform

Axisymmetric carbon textile form for axial, hoop and polar-architecture development discussions.

Engineering notes
  • Cylindrical geometry
  • Carbon fibre form
  • Pressure capability requires final-system testing
Physical circular brake disk textile preform
Physical preform
Disk

Circular disk preform

Circular reinforcement demonstrator relevant to rotational and thermal-material development.

Engineering notes
  • Axisymmetric disk
  • Circular reinforcement route
  • Friction or thermal performance not claimed
Physical woven hinge and L-joint preforms
Physical preform
Profiles

Hinge and L-joint preforms

Integrated corner and section-transition forms for examining yarn continuity across geometry changes.

Engineering notes
  • Corner transition
  • L geometry
  • Potential bracket, rib and joint development
Physical woven pipe-to-flange transition preform
Physical preform
Pipe / flange

Woven pipe-to-flange transition

Physical geometry showing an integrated circular section and flange-type transition.

Engineering notes
  • Pipe-to-flange transition
  • Integrated insert regions
  • Secondary assembly reduction is a design objective, not a measured result
Orthogonal woven T-section architecture schematic
Architecture schematic
T profile

Orthogonal T-section

Architecture schematic for an integrated web-and-flange preform route.

Engineering notes
  • X–Y–Z architecture intent
  • Integrated web and flange
  • Physical T-profile video available below
Physical glass-fibre woven dome structure
Physical preform
Dome

Glass woven dome

Curved physical textile form for geometry-conformal shell and dome development.

Engineering notes
  • Doubly curved geometry
  • Glass-fibre architecture
  • Target uses require electromagnetic, structural or thermal validation
Orthogonal dome architecture concept
Exploratory direction
Thermal dome

Dome architecture study

Exploratory architecture for nose, dome and thermal-protection preform discussions.

Engineering notes
  • Architecture study
  • Not a qualified re-entry component
  • Requires material and thermal test programme

Physical formation videos

Profile and polar preforms shown beside the relevant geometry.

Needle-felted forms

2.5D preforms for thick, shaped, insulation and ablative-material programmes.

Physical conical needle-felted preform
Physical preform
2.5D felt

Conical needle-felted structure

Shaped technical-fibre form with through-thickness needle entanglement.

Physical thick carbon felt block
Physical preform
2.5D felt

Carbon felt block

Thick carbon-fibre structure for insulation and precursor-material studies.

Conical shape felting process
Physical process
Process

Shaped felting route

Physical process evidence for non-flat needled technical-fibre forms.