Parametric timber design

Beaver3D is a software for structural engineers that allows for parametric design and optimization of timber structures. It is a powerful tool for exploring design alternatives and finding the most efficient solutions.

Field proof

+4500
downloads
+30
countries
+70
institutions
Main Supporter ITA Engenharia www.itaengenharia.com

Product

Fast and Transparent Timber Design in Grasshopper.

Beaver3D adds timber design verification, EC5 load combinations, critical-check visualization, and calculation reports to your parametric workflow.

Parametric timber modeling
01

Load Combination Generator

Load combinations generated based on loads, service class and material.

Structural analysis
02

Understand the Critical Checks

Visualize what is the critical check for each element.

Calculation report
03

Full report filtered by member, loadcase and failure mode

Beaver3D generates detailed Eurocode 5 calculation reports, documenting every equation, parameter, and verification step from load combinations to final design checks.

Workflow

Optimize geometry with Eurocode 5 Timber Design feedback.

Beaver3D helps architects and engineers design and verify timber structures within a single Grasshopper workflow. Evaluate alternatives early, make design assumptions explicit, and communicate structural behavior with confidence.

01 Model

Build the geometric model in Rhino and Grasshopper.

02 Prepare Timber Model

Define load cases and let Beaver generate Eurocode 5 combinations for ULS, SLS and fire checks.

03 Analyze

Use Karamba3D for finite element analysis.

04 Check

Verify timber structures according to Eurocode 5 and review detailed calculation reports.

Technical benchmark

Results compared against RFEM.

A 50 m timber arch roof was analyzed with equivalent models in two workflows. Both produced closely aligned displacements, governing checks, and member utilization ratios.

Built 50 m timber arch roof used for the benchmark ©ITA Engenharia em Madeira
Like-for-like model

The comparison kept the engineering assumptions aligned.

The same loads, members, supports, hinges, materials, and Eurocode parameters were used. Both workflows generated equivalent ULS, SLS, and fire design situations.

Side-by-side reports exposed the governing equations, parameters, and coefficients. The remaining differences were traced to the finite-element response rather than the Eurocode 5 checking logic.

Parametric workflow Karamba3D + Beaver3D
Reference workflow RFEM + Timber Design add-on
1%
Average difference across member-level utilization ratios.
6%
Maximum difference among the reported member checks.
70.2×
Faster total calculation in this benchmark.1.86 s vs 2 min 10.53 s
Selected member checks Utilization ratios from representative critical members
Facade archColumn stability
Beaver3D69%
RFEM70%
Central archColumn stability
Beaver3D63%
RFEM63%
BracingColumn stability
Beaver3D70%
RFEM71%
PurlinQuasi-permanent deflection
Beaver3D71%
RFEM71%

Built-structure check. Under self-weight, central arch deflection was 28 mm in Karamba3D, 27 mm in RFEM, and 30 mm measured after scaffolding removal.

Benchmark case: 50 m timber arch roof, tested on the same workstation. Calculation time varies with hardware and model size. The comparison supports Beaver3D as a transparent early-stage design workflow that complements detailed final engineering review.

Applications

Built around real timber systems.

Used in real timber projects, from simple structures to complex long-span and bending-active systems.

Forty-meter timber roof truss ©ITA Engenharia em Madeira Long-span timber Forty-meter span roof truss A forty-meter timber roof truss designed using algorithmic parametric methods to minimize nodes and material use while improving structural efficiency. Learn more
Bending active hardwood glulam beam-string ©ITA Engenharia em Madeira Bending-active design Hardwood glulam beam-string A bending-active timber beam-string system, form-found via parametric algorithms to minimize material, reduce connection steel, and maximize structural and production efficiency. Learn more
Fibra timber application ©ITA Engenharia em Madeira Web workflow FIBRA App A web application of Beaver3D that helps designers predimension modular timber structures. Learn more

Team

Created by engineers working between research, practice and software.

Beaver3D is developed by structural engineers and software developers focused on computational design for timber structures.

Renan Prandini

Renan Prandini

PhD Candidate at ITKE Stuttgart

Founder
Joao Pini

Joao Pini

Head of Engineering at Ita Engenharia

Founder
Marcio Sartorelli

Marcio Sartorelli

Consultant at Sartotech

Founder
Lucas Nunes Gabriel

Lucas Gabriel

Lead Software Engineer at Ita Engenharia

Partner

Research

Scientific publications citing Beaver3D.

Please cite the related scientific publications when sharing Beaver3D or using it in academic work.

Adaptive reciprocally framed tessellation publication

Adaptive Reciprocally Framed Tessellation for Doubly Curved Surfaces

Investigates adaptive reciprocal frame patterns to discretize complex curved surfaces for efficient fabrication.

Read paper
Funicular timber floors publication

Exploring the potential of funicular timber floors

Explore material-efficient timber floor systems driven by structural geometry, fabrication logic, and reusable connections.

Read paper
Bending active hardwood glulam beam-string publication

Performance-Based Design of a Bending Active Hardwood Glulam Beam-String

Explore the form-finding paradox behind our bending-active beam-string research.

Read paper
Tensile structures computational framework publication

A computational framework for the design of tensile structures

Tensile structural design enhanced by a parametric workflow.

Read paper
Beaver3D parametric design framework publication

Beaver3D: A Parametric Design Framework for Timber Engineering

See how Beaver advances parametric workflows tailored to timber engineering.

Read paper

Learn

Learn Beaver3D in 40 minutes.

This tutorial will guide you through the basics of Beaver3D and show you how to get started with parametric structural design. Learn how to create a new project, define structural elements, run a structural analysis, and optimize your design.

Used by

We have active users across many of the world's most renowned universities.

Supporting researchers and engineering professionals in the design and code-compliant verification of timber structures according to Eurocode 5.

Licenses

Clear access for practice, education and labs.

Choose the access that matches your workflow, then continue to the secure checkout form below.

Commercial

Professional practice

€20 / month per license
€200 / year per license

For commercial projects, engineering offices and professional design work.

Select commercial
Education

Students and academic staff

€20 / year per license

For students, teachers and academic research.

Verify ID
Lab Institution

Multi-seat academic labs

€200 / year for 10 licenses

For research labs and educational institutions needing multi-seat access.

Select lab

Checkout

Your subscription

Fill out the form to continue to the secure checkout flow. You will receive license details after payment confirmation.

Commercial - Yearly (EUR 200 per license)

Change your plan in the Licenses section above.

FAQ

Common questions

Install Beaver3D through the package manager in Rhino by searching for the Beaver3D package.

The latest version is distributed through Rhino Package Manager, also known as Yak.

Use the Beaver3D forum on McNeel: discourse.mcneel.com/c/plug-ins/beaver/172.

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