Façade cassettespro

Sloped triangular cassette

A single flat, tilted face: one side in the wall plane, the tip raised — or the reverse. Laid head to tail, point up then point down, they form a sawtooth façade that catches the light row by row, with no waste between parts.

Open in the studio
The same pattern, drawn by the same engine: what is on screen is what goes to the machine.
Sloped triangular cassette — 2 × 2 panel wall, single panel and flat pattern — generated by the engine with the default parameters.
2 × 2 panel wall, single panel and flat pattern — generated by the engine with the default parameters.

ACM 3D Studio

Developed
770 × 721.8 mm
Material
ACM 4 mm
Folds
6
Mark
triangle-slope

Fabrication data

Sloped triangular cassette — at 700 × 606 mm in 4 mm ACM, this family unfolds into a 770 × 721.8 mm flat pattern with 6 folds, all grooved from the back: no pass on the coated face. A 1,500 × 3,200 mm sheet holds 8 of them, for 32.5 % waste.

Developed size (flat pattern)770 × 721.8 mm
Material per panel
0.405 m²
Folds
6
Total groove length
3,948 mm
Cutting length
3,318 mm
Corner slits
1
Corner reliefs
3

V-grooves (apex angle)

  • 90°1,848 mm
  • 95.6°1,407 mm
  • 78.8°693 mm

Panels per sheet

  • 1,220 × 2,440 mm3(59.2 % waste)
  • 1,500 × 3,200 mm8(32.5 % waste)

DXF layers

  • CONTOUR3,318 mm
  • RAINURE_901,848 mm
  • RAINURE_601,407 mm
  • RAINURE_100693 mm

The names and colours your CAM software will show. RAINURE_AVANT: fold concave on the visible face, sheet flipped for that pass.

Computed by the engine at the default parameters, on 4 mm ACM and the reference router. Your own machine and material profiles change these values in the studio.

Parameters

ParametersRangeDefault
Width200 – 3,000 mm700 mm
Height200 – 3,000 mm606 mm
Relief height10 – 250 mm120 mm
Raised partThe tip / The opposite sideThe tip
Point-down triangle——
Return depth0 – 200 mm40 mm
Fixing tabs—✓
Tab width10 – 60 mm20 mm

PresetsRaised tipRaised sidePoint downSteep slope

Manufacturing constraints

  1. The return must exceed the groove width plus half the bend deduction, or the groove eats into the return.
  2. Facet-to-facet folds are grooved with the smallest cutter of the profile, V left open: the angle is held by the geometry. The angle between two facets must not exceed that cutter’s apex angle.
  3. Vertical returns, all tabs flat in the −D plane (rail mounting). The facet-to-return fold is 90° ± slope: below 90°, the 90° cutter is left open and the return is held by the riveted tab; above 90° (facet descending towards the edge), a wider cutter (60° nominal = 120° apex) or the machine profile’s overfold tolerance is needed.
  4. Every raised vertex requires a V-slit to the edge (a flat sheet has 360°, the relief less). Near the vertex the slit is narrower than the contour tool: it is cut along its axis and the tool bites each facet by up to Ø/2.
  5. Tabs are shortened at every corner and every kink of the edge so they never collide behind the panel: by (return + 2 mm), and more on a sharp corner, where the bisector must be cleared (tab width ÷ tan(angle/2)). An edge too short gets no tab.
  6. The face stays perfectly flat: three vertices always define a plane, whatever the height. All of the relief is carried by the returns, whose height runs from zero at the wall plane to the full lift.
  7. At the highest point the return keeps at least 15 mm beyond the lift, so the tab still bears on the framing. A steep slope therefore needs a deeper return.

Further reading