MATERIAL DATA SHEET

Titanium Panel System

Non-Ferrous Metals
mineral › Metallic › Non-Ferrous Metals
mineralmetallictitaniumpanelnon-ferroushigh-performancecorrosion-resistantlightweightnon-combustiblerecyclablepremiumfacaderainscreenGuggenheimTranTixxiiASTM-B265data-complete
ATLAS CODE
MIN-MET-NF-008
Titanium Panel System
Category mineral
Material Family Metallic
Regulatory Status A1 (Non-combustible)
Density
4510 kg/m3
Carbon (A1-A5)
35-55 kg CO2-eq/kg
Fire Class
A1 (Non-combustible)
Lifespan
150-200+ years
Description

Titanium panel systems use commercially pure (CP) titanium sheet — typically ASTM B265 Grade 1 or Grade 2 — for ultra-high-performance architectural cladding. Titanium is the most corrosion-resistant of all architectural metals, forming an impervious self-healing titanium dioxide (TiO2) passive layer that resists virtually all atmospheric, marine, and industrial environments without degradation. At approximately 60% the density of steel and 50% the density of copper, titanium produces extraordinarily lightweight cladding systems (as low as 2.3 kg/m2 at 0.5 mm thickness). The Guggenheim Museum Bilbao (1997, Frank Gehry) was the first major architectural use of titanium cladding, using 33,000 panels of 0.4 mm sheet over 23,530 m2. Titanium is non-combustible with a melting point of 1,660 degC, 100% recyclable, and offers a unique silvery-grey to warm golden appearance that shifts with light and oxidation treatments. It is the highest-cost architectural metal but offers the longest lifespan with zero maintenance in virtually any environment.

Typical Uses
  • Signature architectural facade cladding
  • Extreme environment cladding
  • Ultra-long-lifespan roofing
  • Lightweight structural cladding
  • Anodised colour facade panels
6001000mm
Standard Widths [600, 900, 1000, 1220] mm
Standard Lengths [1000, 2000, 2500, 3000] mm
Dimensional Tol. ± [+/-0.05 (thickness)] mm
Weight [2.26 (at 0.5 mm)] kg/m2
Recycled Content 20-30
Renewable Content 0
Recyclability 100
Embodied Carbon 35-55 kg CO2-eq/kg
Embodied Energy 650-720 MJ/kg
EPD Available Yes
Advantages
Highest corrosion resistance of any architectural metal — immune to atmospheric, marine, and industrial environmentsExceptional strength-to-weight ratio — 60% density of steel with comparable strengthUltra-lightweight cladding possible (2.3 kg/m2 at 0.5 mm thickness)Lowest thermal expansion of common architectural metals — minimal movement joints requiredNon-combustible with very high melting point (1,660 degC)Zero maintenance required in virtually any environment100% recyclable with no quality degradationUnique aesthetic with light-reflective, colour-shifting surface qualitiesLongest lifespan of any architectural metal — effectively permanent (100-200+ years)
Cautions
Highest cost of any common architectural metal — premium-tier pricingVery high embodied energy and carbon (Kroll process extremely energy-intensive)Specialist fabrication required — difficult to weld, cut, and form compared to steel or aluminiumLimited supply chain in Australia — all material importedTitanium dust and fines are pyrophoric (fire risk during fabrication — requires inert atmosphere grinding)Cannot be soldered — mechanical fastening or specialised TIG welding requiredGalling tendency when titanium contacts titanium (requires anti-seize on fasteners)
TECHNICAL DATA: PERFORMANCE PROPERTIES MIN-MET-NF-008
Density (Dry) 4510 kg/m3
Specific Gravity 4.51
Porosity 0 %
Water Absorption 0 %
Hardness 6 Mohs
Surface Roughness 0.4-1.6 um
UV Resistance Excellent
Chemical Resistance Exceptional
pH Tolerance 1-14 pH
Available Colors
Natural silver-grey (mill finish — subtle warm grey, shifts with light angle)TranTixxii Gold (anodised gold — Nippon Steel)TranTixxii Champagne (anodised pale gold — Nippon Steel)TranTixxii Bronze (anodised warm brown — Nippon Steel)TranTixxii Blue (anodised blue — Nippon Steel)TranTixxii Purple (anodised purple — Nippon Steel)TranTixxii Copper (anodised copper-tone — Nippon Steel)TranTixxii Pink (anodised pink — Nippon Steel)Custom anodised colours (interference-based colour from TiO2 layer thickness control)
Surface Finishes
Natural mill finish (silvery-grey, most common)Mirror polished (highly reflective)Satin/brushed (directional grain, various grit levels)Bead-blasted matte (uniform non-reflective)Anodised colour (TranTixxii range — colours produced by controlled oxide layer thickness, not pigment)PVD coated (titanium nitride TiN — gold colour, extremely hard and durable)Photo-catalytic TiO2 coating (self-cleaning surface that breaks down organic pollutants under UV)
Texture Options
Mill finish (smooth, silvery-grey with subtle lustre)Brushed/satin (directional grain)Bead-blasted (uniform matte texture)Tumbled/hammered (handworked appearance)Anodised texture (micro-texture from anodisation process)
Pattern Options
Perforated panels (laser-cut or punched — round, square, custom patterns)Embossed/pressed patterns (limited compared to softer metals due to springback)Expanded titanium meshShingle/scale patterns (overlapping small panels as per Guggenheim Bilbao)
Compressive Strength 240-345 MPa
Tensile Strength 240-345 MPa
Flexural Strength 240-345 MPa
Shear Strength 200-220 MPa
Elastic Modulus 103 GPa
Yield Strength 170-275 MPa
Impact Resistance 30-50 J
Bearing Capacity N/A kPa
Poisson's Ratio 0.34
Creep Resistance Excellent
Abrasion Resistance Good
Thermal Conductivity 16 W/mK
Thermal Resistance 0.00003 m2K/W
Specific Heat Capacity 523 J/kgK
Thermal Expansion 0.0086 mm/m/degC
Melting Point 1660 degC
Ignition Temperature N/A (non-combustible in bulk) degC
Sound Transmission Class (STC) 22-28
Noise Reduction Coeff. (NRC) 0.02
Optical
Light Transmittance 0 %
Light Reflectance (LRV) 40-55 %
Solar Reflectance (SRI) 40-55 SRI
Electrical
Electrical Conductivity 3.1 % IACS

Titanium was discovered in 1791 (William Gregor, Cornwall) but remained a laboratory curiosity until the Kroll process (1940, Luxembourg) enabled commercial production. Initial applications were exclusively military and aerospace — the SR-71 Blackbird (1964) was 85% titanium. Architectural use began in the 1970s in Japan, first for museum and temple roofing where its corrosion resistance and light weight were valued. The Shimane Museum of Art (1974) and Noh Theater in Tokyo (1983) were early Japanese examples. The landmark architectural project was the Guggenheim Museum Bilbao (1997, Frank Gehry), which used 33,000 titanium panels (0.4 mm CP Grade 1) covering 23,530 m2, establishing titanium as a viable facade material for signature architecture. Subsequent notable projects include the Glasgow Science Centre (2001), the Walt Disney Concert Hall (originally designed in titanium, built in stainless steel for cost reasons, 2003), the Museum of the Confluence in Lyon (2014, Coop Himmelb(l)au), and the Hazza Bin Zayed Stadium in Al Ain, UAE (2014). Nippon Steel developed the TranTixxii range (2000s onwards) offering anodised colour options that expanded titanium's aesthetic palette beyond natural silver-grey. In Australia, titanium cladding remains rare and limited to the highest-specification institutional and cultural projects.

SAFETY, ECOLOGY & INSTALLATION MIN-MET-NF-008
Flame Spread Index 0
Smoke Developed Index 0
Combustibility Class A1 (Non-combustible)
Ignition Temperature N/A (non-combustible in bulk) degC
Fire Resistance Rating 60+ minutes
Heat Release Rate 0 kW/m2
Toxicity of Combustion Non-toxic (non-combustible)
Embodied Carbon (A1-A3) 35-55 kg CO2-eq/kg
Embodied Energy 650-720 MJ/kg
Water Footprint 100-300 L/kg
EPD Available Yes
Recycled Content 100%
Renewable Content 0%
LEED Points 1-2 points
Circular Economy Score 7.0 /10
VOC Emissions 0 ug/m3
Skill Level Highly Specialist
Crew Size 2-3 persons
Installation Time 0.5-1.0 hours/m2
Curing Time 0 hours
Setting Time 0 hours
Temperature Range -20 to +50 degC
Humidity Range 0-100 %RH
Required Tools
Titanium-specific cutting tools (carbide-tipped shears, abrasive waterjet, or laser cutting)TIG welder with argon shielding gas (titanium MUST be welded in inert atmosphere — oxidises irreversibly above ~500 degC)Non-ferrous dedicated tooling (prevent iron contamination — causes embedded iron corrosion spots)Stainless steel or titanium fasteners with anti-seize compound (prevent galling)Clean handling equipment — nitrile or cotton glovesGrinding/deburring with dedicated non-ferrous wheels (no aluminium oxide or iron-contaminated media)Back-purging equipment for welding (argon trailing shield)
Certifications Required
Trade qualification in sheet metal work or facade installationTIG welding certification with titanium endorsement (inert atmosphere welding)Working at heights certification (Australian WHS requirements)Site-specific safety induction including pyrophoric dust managementEWP licence if applicable
Weather Limitations
No material-specific weather limitations — titanium workable at all temperaturesStandard safety considerations: rain (slippery handling), high wind (panel handling for lightweight sheets)CRITICAL: Titanium dust/fines from cutting must be collected and managed — pyrophoric risk (do not allow accumulation)
COMMERCIAL, LOGISTICS & REGULATORY MIN-MET-NF-008
Material Cost 300-1200 AUD/m2
Installation Cost 400-1500 AUD/m2
Annual Maintenance 0.25-1.00 AUD/m2/year
Lifecycle Cost (50yr) 1500-4000 AUD/m2
Market Availability Very Limited
Lead Time 84-224 days
Supply & Logistics
AU Distributors
No dedicated architectural titanium distributor in AustraliaDirect supply from TiClad (USA) or Signer Titanium (Switzerland)Specialty metals importers may source on project-specific basisAustralian fabricators typically subcontract titanium-specific work
Design Life 150-200+ years
Warranty Period 30-50 years
Maintenance Interval 3650-7300 days
Service Temp Range -250 to +300 degC
Freeze/Thaw Resistance Unlimited cycles
Dimensional Stability 0.86 mm/m
Certifications Held
ASTM B265 mill test certificates (chemical composition, mechanical properties)ISO 9001 quality management (Nippon Steel, TIMET, VSMPO-AVISMA)Material test reports per EN 10204 Type 3.1TranTixxii product certification (Nippon Steel)EPD available from major manufacturers (Nippon Steel, titanium industry associations)Green Star Materials credit eligible (EPD, recycled content)LEED v4.1 MRc3 eligible (product disclosure)Living Building Challenge Red List Free (titanium not on Red List)Biocompatible material (ISO 5832, used in medical implants)No hazardous substance restrictions for solid titanium in building applicationsSafe Work Australia compliant (standard metalworking PPE for fabrication, pyrophoric dust management)
Fire Code Compliance
NCC 2022 Specification C1.1 - Non-combustible material (solid titanium passes AS 1530.1)AS 1530.1 - Methods for fire tests on building materials - Combustibility test (passes)AS 5113 - Fire propagation testing and classification of external walls - compliantBS EN 13501-1 - Euroclass A1 (non-combustible)
Standards Compliance
NCC 2022 Volume 1 - Type A and B construction (non-combustible)NCC 2022 Section C - Fire resistance (non-combustible cladding)NCC 2022 Section J - Energy efficiency (thermal break requirements)AS 4284 - Testing of building facades (weathertightness)ASTM B265 - Standard Specification for Titanium and Titanium Alloy Strip, Sheet, and Plate (primary specification)ASTM B348 - Standard Specification for Titanium and Titanium Alloy Bars and BilletsASTM E8 - Standard Test Methods for Tension Testing of Metallic MaterialsASTM B600 - Standard Guide for Descaling and Cleaning Titanium SurfacesISO 5832-2 - Implants for surgery - Metallic materials - Unalloyed titanium (Grade 1-4 composition reference)ISO 14040/14044 - Environmental management - Life cycle assessmentISO 9001 - Quality management systemsEN 10204 - Metallic products - Types of inspection documents (mill certificates)EN 13501-1 - Fire classification of construction products (A1 non-combustible for solid sheet)EN 10088 - Referenced for corrosion resistance comparison

DISCLAIMER: This specification document is generated from the CLAD Materials Atlas Database. Information is for general guidance only and does not constitute professional engineering advice. Values are typical and may vary by batch, manufacturer, and production run. Verify suitability for specific project applications independently.

ID: MIN-MET-NF-008 Schema: v3.0