Complex geometry. Buildable answers.
A rule-driven architectural configurator that turns roof shape, dimensions and material systems into measurable geometry and production-ready outputs.
Launch full configurator ↗Every deployment is built on the same connected commercial and spatial foundation—even as the product category changes.
The approved visual state resolves into an exact component structure: profiles, panels, glass, hardware, accessories and quantities ready for downstream work.
A rule-driven architectural configurator that turns roof shape, dimensions and material systems into measurable geometry and production-ready outputs.
A roof manufacturer needs more than a 3D view: dimensions and covering choices must produce inspectable quantities. This technical example uses the existing roof model and bill-of-materials functions. It is a software demonstration, not a customer case study or a roofing quotation.
In the full configurator, choose the two-slope roof and generic metal covering. Set length to 10 m, depth to 7 m, wall height to 3 m, pitch to 30° and eaves overhang to 0.4 m. These are explicit test inputs, not a recommended building design.
The roof preset, dimensions and covering form the input configuration. For your catalogue, this starts with supported shapes, component data and the choices your customers may make.
The model calculates the sloped roof area, while the BOM applies component lengths and effective coverage. This preset uses 0.47 m² per panel and a 5% waste allowance, not a universal supplier rule.
The table shows actual outputs from the repository functions. Changing a dimension changes the geometry and quantities. The 70 m² building footprint is not the sloped roof area.
The full configurator exports CSV rows with description, unit, quantity and reference price fields. Those fields describe the software output; demo rates are not a supplier offer.
CSV is a starting point for a handoff. Mapping components to your catalogue, validating prices and connecting ERP or CRM require a separate technical review. This example does not demonstrate a live ERP integration.
| Output | Value |
|---|---|
| Building footprint | 70 m² |
| Sloped roof area | 97.27 m² |
| Ridge length | 10.8 m |
| Eaves length | 21.6 m |
| Covering panels | 218 pieces |
| Ridge pieces | 30 pieces |
| Gutter pieces | 8 pieces |
Panel coverage, waste allowance, effective ridge length (0.37 m) and gutter length (3 m) are assumptions of this demo preset. Other products and drawn-roof modes may use different calculations. Validate the catalogue, construction and purchasing quantities before production.
Understand implementation costs
For a software project, send your available drawings, dimensions, compatibility rules and a sample material list. We review the required outputs and interfaces before agreeing scope or price.
Move between two-slope, four-slope, single-slope, L-shaped and dormer roof families inside one rule-driven scene. Each typology is generated as meaningful geometry, allowing the same configurator to resolve very different architectural conditions without relying on a fixed model library.
The full application accepts PDF, image, DWG or DXF references in its proof-of-concept intake. Uploading a reference does not automatically generate 3D geometry or a bill of materials. Non-standard projects need a separate technical review.
Tune length, depth, wall height, roof pitch and eaves overhang independently while the entire roof envelope rebuilds in real time. The result remains visually coherent and measurable, making dimensional exploration useful for both customer decisions and technical estimation.
Apply metal and mineral covering presets with their own surface behavior and minimum-pitch rules. Material selection affects more than appearance: it informs compatible geometry, quantity logic and the commercial interpretation of the roof being configured.
Derive roof area, ridge length, eaves, valleys, flashings, gutters and associated component quantities directly from the generated geometry. Complex forms such as L-shaped roofs and dormers remain connected to measurable construction data as dimensions change.
Inspect the current roof as priced, component-level line items and export the bill of materials as structured CSV data. The same configuration can move from visual exploration into estimating, procurement or production workflows without being reconstructed manually.
The 360Configurator roof tool links roof form, dimensions, pitch and covering choices to one measurable 3D model. Move between standard roof families, change the geometry and inspect the resulting construction quantities instead of treating the visual model and the bill of materials as separate tasks.
The workflow keeps geometry and quantity logic connected. A dimensional change rebuilds the roof first, then the construction outputs follow the same state.
Start from a two-slope, four-slope, single-slope, L-shaped or dormer roof, depending on the architectural condition you need to explore.
Adjust length, depth, wall height, roof pitch and eaves overhang while the envelope rebuilds in real time.
Apply the available metal or mineral covering preset so the visible roof and the compatible geometric rules remain connected.
Review roof area together with ridge, eaves, valley, flashing, gutter and related component lengths derived from the current model.
Use the generated component list for estimating and export the bill of materials as structured CSV when the configuration is ready to leave the visual stage.
A roof configurator becomes useful when the same geometric decision affects appearance, dimensions and material requirements. These are the decisions the tool keeps together.
Choose the architectural family before refining dimensions.
Change the main parameters that define the roof envelope.
Connect the visual roof to a material system rather than applying a decorative texture only.
Use the generated geometry as the source for downstream commercial work.
Roof geometry becomes difficult to communicate when dimensions, intersections and quantities live in separate drawings and spreadsheets. Keeping them connected reduces re-entry and makes each change easier to understand.
Compare roof forms and proportions visually before the project is reduced to a list of dimensions and materials.
Use measurable geometry as the starting point for quantities instead of manually rebuilding each variant after every design change.
Carry the configured roof into a component-oriented BOM and structured CSV workflow with fewer disconnected handoffs.
The current configurator includes two-slope, four-slope, single-slope, L-shaped and dormer roof families.
Yes. Length, depth, wall height, roof pitch and eaves overhang are configurable and the roof rebuilds as those values change.
Yes. The current workflow includes metal and mineral covering presets, with the material choice tied to the roof state rather than treated as a separate image.
The generated geometry is used to derive roof area and construction lengths such as ridge, eaves, valleys, flashings and gutters, together with associated component quantities.
The full application's proof-of-concept intake accepts PDF, image, DWG or DXF references. Upload does not automatically generate 3D geometry or a BOM. Discuss the non-standard case in a separate technical review.
Yes. The current roof configurator exposes component-level BOM data and can export the bill of materials as CSV.
No. The configurator runs in a modern web browser and uses WebGL for the interactive 3D scene.
Open the live roof configurator to test roof families, dimensions, pitch, materials and construction quantities, or contact us if you need the same type of rule-driven workflow for your own roofing system.
The website preview shows selected controls. Open the full configurator to explore the supported workflow, or discuss adapting it to your catalogue. For a project review, bring available drawings or CAD, dimensions, option rules and the pricing or material outputs your team needs.
For roofs, bring supported roof shapes, pitch constraints, covering options and your rules for measured lengths and material quantities.
Implementation scope and pricing follow technical review. A website preview is not a manufacturing specification or a supplier quotation.
Send the drawings, catalogue or product examples you already have and explain the outcome you need. We identify missing assets and technical dependencies during the project review.
We review your price rules, required outputs and available interfaces. Integration scope is agreed after technical review, not assumed from a website demo.
We review the product, variants and available data, then clarify whether an existing system, an adaptation or a custom build fits. Scope, timing and pricing depend on that review.
