composite / Timber-Based Composite / Laminated Veneer Lumber

Radiata Pine, LVL beam, various sizes (Specified by section size)

High-strength LVL beams from radiata pine with predictable structural properties and long spans.

Atlas code
COM-TBC-LVL-001
compositetimber-based compositeengineered woodstructuralLVLradiata pineplantation timber
Radiata Pine, LVL beam, various sizes (Specified by section size)
At-a-glance signals

High-strength LVL beams from radiata pine with predictable structural properties and long spans.

Overview
Executive summary

Laminated Veneer Lumber (LVL) is an engineered wood product made from thin veneers bonded with structural resin, providing high strength and stiffness in beams and lintels.

Best when…
  • Superior strength and stiffness compared to solid timber
  • Dimensional stability with minimal shrinkage or warping
  • Consistent and predictable mechanical properties
  • Available in long lengths (up to 12m)
  • Can be manufactured to precise dimensions
  • Efficient use of plantation resource
  • Lower variability than solid timber
  • Can be preservative treated for durability
  • Renewable and sustainable material
  • Good strength-to-weight ratio
  • Easy to work with standard tools
  • Carbon sequestration benefits
Top advantages
  1. 01 Superior strength and stiffness compared to solid timber
  2. 02 Dimensional stability with minimal shrinkage or warping
  3. 03 Consistent and predictable mechanical properties
  4. 04 Available in long lengths (up to 12m)
  5. 05 Can be manufactured to precise dimensions
Top limitations
  1. 01 Higher initial cost than solid timber
  2. 02 Requires weather protection during construction
  3. 03 Cut ends require sealing if envelope treated
  4. 04 Limited availability of higher grades (F17+)
  5. 05 Adhesive content adds to embodied energy
Technical
Physical ·9
Density
660 kg/m3 Wesbeam e-beam LVL design density.
Specific gravity
0.6
Porosity
55 %
Water absorption
130 %
Hardness
3.5
UV resistance
Low // Requires surface protection (Source: timber durability guides)
Chemical resistance
Moderate // Resistant to mild acids/alkalis (Source: wood chemistry data)
pH tolerance
4-9
Surface roughness
100 µm
Mechanical ·7
Tensile strength
34 MPa Wesbeam e-beam LVL tensile strength.
Compressive strength
47 MPa Wesbeam e-beam LVL compressive strength.
Flexural strength
50 MPa Wesbeam e-beam LVL bending strength.
Shear strength
5 MPa Wesbeam e-beam LVL shear strength.
Poisson's ratio
0.35
Impact resistance
35
Creep resistance
2
Sustainability & Health
Embodied carbon & energy ·7
Embodied carbon
-789
Carbon footprint
195
Embodied energy
3500 MJ/kg
Water footprint
850 L/kg
Recycled content
0 %
Renewable content
97 %
Circular score
75
Compliance & Fire
Fire performance ·6
Combustibility class
Combustible // AS 1530.1
Fire resistance level
None // Unprotected - requires lining for FRL
Ignition temp
280 °C
Flame spread index
8
Smoke dev. index
3
Heat release rate
120
Cost & Lifecycle
Capex & lead time ·6
Material cost (range)
800-1500 // AUD/m³ depending on grade
Material cost (per unit)
45-85 // AUD per lineal metre (240x45mm)
Lead time
1-4 weeks // Depending on size and quantity
Lifecycle cost
Low // Over 50+ year service life
Annual maintenance
Minimal // If protected from weather
Market availability
Good // Readily available in Australia
Service life & durability ·3
Expected lifespan
50+ // years if protected from weather
Maintenance interval
Annual // inspection recommended
Warranty period
10-25 // years for treated products
Layer D

Where it's used

Structural beams and headers
Floor joists and bearers
Roof rafters and ridge beams
Lintels over openings
Portal frame construction
Concrete formwork beams
Scaffold planking
I-joist flanges
Truss chords
Laminated columns
Box beams
Rim boards
COM-TBC-LVL-001 · Materials Atlas · CLAD Atlas data is reference-only. Verify against manufacturer specifications and current standards before specifying.