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Codes & standards

PEB standards around the world

PEB standards around the world: how load, steel, cold-formed, welding, fabrication and certification codes compare in the US, Canada, Australia/NZ and Europe.

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World map with PEB design and fabrication code families for North America, Australia and New Zealand, and Europe
Each market combines its own load, design, fabrication and certification standards.

One building, many code systems

A pre-engineered building uses the same physical components everywhere, but the rules for designing, fabricating and approving it differ by country. An exporter must work within a complete code framework: a building code that gives legal force, load standards that define wind, snow, seismic and live loads, material design standards for hot-rolled and cold-formed steel, execution standards for fabrication and welding, product standards for materials, and – increasingly – mandatory fabricator certification.

The four frameworks most relevant to PEB export are the United States, Canada, Australia/New Zealand and Europe. Many other markets adopt one of these: the Middle East and the Caribbean often use US codes or Eurocodes, Singapore applies Eurocodes with Singapore National Annexes, and Pacific markets such as Papua New Guinea frequently reference Australian standards.

Map showing which PEB code families apply in North America, Europe, Australia and New Zealand
PEB code families by region.

Code mapping by topic

Main PEB standards by topic and region (current editions as commonly referenced)
TopicUnited StatesCanadaAustralia / NZEurope
Building approvalIBC 2021/2024 as adopted by statesNBC 2020 and provincial codesNCC (AU); NZ Building Code B1National building regulations + CPR
LoadsASCE 7-22NBC 2020 Part 4AS/NZS 1170 series, AS 1170.4, NZS 1170.5EN 1990, EN 1991, EN 1998 + National Annexes
Steel designAISC 360-22, AISC 341-22CSA S16-19AS 4100:2020; NZS 3404EN 1993-1-1, -1-5, -1-8
Cold-formed designAISI S100-16 (2020)CSA S136-16AS/NZS 4600:2018EN 1993-1-3
WeldingAWS D1.1, D1.3CSA W59; CSA W47.1AS/NZS 1554.1EN ISO 3834, EN 1090-2
Fabrication / executionAISC 303-22, MBMA Manual 2018CSA S16, CSA A660AS/NZS 5131:2016EN 1090-2, EN 1090-4
MaterialsASTM A572, A36, A1011, A653, A792, F3125, F1554CSA G40.21; ASTM equivalentsAS/NZS 3678, 3679.1, AS 1397EN 10025-2, EN 10346, EN 14399
Serviceability guidanceAISC Design Guide 3, MBMA Manual, IBC Table 1604.3CSA S16-19 Annex DAS/NZS 1170.0 Appendix CEN 1990 Annex A1.4 + National Annexes
Crane runwaysAISC Design Guide 7; CMAA 70/74 crane classesCSA S16-19 (crane-supporting structures)AS 1418.18; AS 4100EN 1991-3, EN 1993-6
Corrosion protectionAMPP (SSPC) standards; ISO 12944 often specifiedAMPP / ISO 12944AS 2312.1, AS/NZS 2312.2 (galvanizing)EN ISO 12944, EN ISO 1461
Fabricator certificationIAS AC472 or AISC Certification (IBC approved fabricator)CSA W47.1 (CWB); CSA A660AS/NZS 5131 certification; SFC (NZ)CE marking via EN 1090-1 FPC

Design philosophy: LRFD, ASD and limit states

Every framework checks the same physical limits – yielding, buckling, fracture, excessive deflection – but expresses safety differently. Knowing the method matters when comparing calculations or reaction tables from suppliers working in different markets.

Design methods used by the main frameworks
FrameworkStrength methodServiceability
United StatesLRFD (factored loads vs. φ × nominal strength) or ASD (service loads vs. nominal strength / Ω); both permitted by AISC 360-22 and AISI S100Service loads; wind drift commonly at a 10-year return period
CanadaLimit states design with factored loads and resistance factors (NBC 2020, CSA S16-19, CSA S136-16)Specified (unfactored) loads
Australia / NZLimit states design with AS/NZS 1170.0 combinations and capacity factors (AS 4100, AS/NZS 4600)Serviceability loads such as Ws chosen for the element
EuropeLimit states with partial factors on actions and materials (EN 1990, EN 1993)Characteristic, frequent or quasi-permanent combinations

Column reactions given to foundation designers are therefore best supplied unfactored and by load type, so that the local combination rules can be applied; see design loads for PEB.

International standards used in every market

  • ISO 3834 – quality requirements for fusion welding; part 2 (comprehensive) is the level expected for structural steel.
  • ISO 12944 – corrosion protection of steel structures by paint systems, with corrosivity categories C1–CX; see paint and coating systems.
  • ISO 8501-1 – visual grades of surface cleanliness (e.g. Sa 2½) before painting.
  • ISO 9001, ISO 14001, ISO 45001 – quality, environmental and occupational health and safety management systems.
  • ISO 9606-1 / ISO 15614-1 – welder and welding procedure qualification, accepted directly in Europe and often alongside AWS or AS/NZS qualifications elsewhere.

Design to code, certify to market

Two separate questions must be answered for every export project. First, design: can the supplier's engineers design to the local load and steel codes and, where required, have drawings sealed by a locally registered engineer? Second, fabrication compliance: does the plant hold the certification that the local building authority recognises? A building designed perfectly to AS 4100 may still be rejected if the fabricator cannot demonstrate AS/NZS 5131 compliance, and a European project requires CE-marked components.

The regional articles explain each route: United States, Canada, Australia and New Zealand and Europe.

World Steel's certification position

WSC certifications and project-specific requirements
RequirementWSC status
IAS AC472 (metal building systems)Held – first company in Asia accredited
AS/NZS 5131 Construction Category CC3Held
EN 1090-2 Execution Class EXC3, ISO 3834-2Held
BC1 (Singapore)Held
CSA W47.1, AISC Certification, CE marking under EN 1090-1, SFC (NZ)Not held – arranged or confirmed per project where the market requires it

WSC's design team works to US, Canadian, Australian/New Zealand and European codes. See market compliance and certification for how compliance is planned on each project.

各地区标准

地区规范范围
United States ASCE 7-22 / AISC 360-22 / AISI S100-16Loads, steel and cold-formed design
Canada NBC 2020 / CSA S16-19 / CSA S136-16Loads, steel and cold-formed design
Australia / NZ AS/NZS 1170 / AS 4100:2020 / AS/NZS 4600:2018Actions, steel and cold-formed design
Europe EN 1991 / EN 1993 / EN 1090Actions, steel design and execution
International ISO 3834-2 / ISO 12944Welding quality and corrosion protection

常见问题

Which code is used to design a PEB for export?

The code of the country where the building is erected. Loads, steel design, fabrication and certification follow that country's framework, not the fabricator's home code.

Is ISO 3834-2 enough for all markets?

No. It is a widely recognised welding quality standard, but markets add their own requirements, such as CSA W47.1 in Canada, AS/NZS 5131 in Australia and New Zealand, or CE marking under EN 1090-1 in Europe.

Can one building be designed to both US and European codes?

A building is designed to one governing code framework. Materials can often be specified to meet both, for example by dual-certified plate, but the design checks follow one set of codes.

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