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Epoxy Floor Coating SWMS

Safe Work Method Statement covering the key hazards and control measures for epoxy floor coating.

βš–οΈWHS Regulation 2025 & Codes of Practice β€” legally binding from 1 July 2026 (s26A)
πŸ‘·Reviewed by certified occupational health and safety professionals
πŸ—ΊοΈState-specific variants for all 8 Australian jurisdictions
$99 AUDβœ“ Instant Download Available

SWMS variants reference your state’s WHS legislation. Instant download after payment.

Epoxy floor coating covers the preparation and application of epoxy and resin floor coatings β€” preparing the substrate and applying the two-pack epoxy or polyurethane coating to concrete and other floors in commercial, industrial and residential settings. The defining hazards are chemical: the epoxy resins and amine hardeners are skin and respiratory sensitisers, some polyurethane systems contain isocyanates that cause occupational asthma, the substrate preparation can release respirable crystalline silica, and the solvents and products are flammable with hazardous vapour. This document is written on the basis that epoxy floor coating is carried out by competent applicators with the chemical-sensitiser, isocyanate, silica and ventilation controls in place.

Epoxy floor coating is carried out in connection with the hazardous chemicals Code of Practice, with the epoxy resins, hardeners and any isocyanates managed as sensitisers to their safety data sheets, the substrate preparation silica controlled at the source, and ventilation provided for the vapour. The chemical sensitisers, the isocyanates, the silica from preparation, and the vapour and flammability are the defining hazards. This document coordinates the chemical-sensitiser, isocyanate, silica and ventilation controls so the epoxy floor coating is applied safely.

Hazards identified

9 hazards covered, sorted by priority.

Skin and respiratory sensitisation from epoxy resins and hardenersHIGH

Dermatitis and respiratory sensitisation from the epoxy resins and amine hardeners

Isocyanates in polyurethane systemsHIGH

Occupational asthma and respiratory sensitisation from isocyanates

Respirable crystalline silica from substrate preparationHIGH

Silicosis from respirable crystalline silica grinding or preparing the substrate

Flammable solvents and hazardous vapourHIGH

Fire and respiratory harm from the flammable solvents and vapour

Skin and eye contact with the coating chemicalsHIGH

Chemical burns, dermatitis and eye injury from contact

Working in enclosed or poorly ventilated areasHIGH

Vapour build-up and harm in enclosed or poorly ventilated areas

Slips on the coated or wet floorMEDIUM

Slips on the freshly coated or wet floor

Manual handling and kneeling posturesMEDIUM

Musculoskeletal and knee injury from the work

Substrate preparation plant and toolsMEDIUM

Plant and tool hazards from the substrate preparation

Control measures

Hierarchy-of-controls order: elimination β†’ substitution β†’ isolation β†’ engineering β†’ administrative β†’ PPE.

  1. 1Administrative: where the coating or adhesive is a two-pack epoxy or polyurethane system, manage the epoxy resins and amine hardeners as skin and respiratory sensitisers and any isocyanates as respiratory sensitisers to their safety data sheets, with skin protection, ventilation and respiratory protection, because isocyanates and sensitisers can cause occupational asthma and dermatitis.
  2. 2Administrative: manage the epoxy resins, amine hardeners and coating chemicals to their safety data sheets, with skin protection, avoiding skin and eye contact, because the resins and hardeners are sensitisers that cause dermatitis and respiratory sensitisation.
  3. 3Engineering: control respirable crystalline silica from grinding, cutting or surface preparation of concrete, terrazzo or screeds at the source β€” on-tool water suppression or H-class dust extraction β€” never dry-grinding uncontrolled, with respiratory protection as required, recognising the workplace exposure standard for silica reduces on 1 December 2026.
  4. 4Engineering: provide ventilation where using solvent-based adhesives, primers, finishes or coatings, and control the flammable vapour and ignition sources, managing the chemicals to their safety data sheets.
  5. 5Engineering: provide ventilation where applying the coating, particularly in enclosed or poorly ventilated areas, with respiratory protection for the vapour and any isocyanates.
  6. 6Administrative: manage slips on the freshly coated or wet floor with barriers and signage, and manage the manual handling and kneeling postures.
  7. 7Engineering: use the sanders, grinders, mixers and tools safely to the plant requirements, with guarding and the manufacturer's instructions, and have any electrical work and connection by a licensed electrician.
  8. 8Administrative: all workers must hold a valid White Card (General Construction Induction Training, CPCCWHS1001) where the work is construction work, with the flooring, asbestos-awareness and any other competencies required for the work.
  9. 9Administrative: conduct a pre-start toolbox talk covering the day's work, identified hazards, required PPE and emergency procedures, and record attendance in the consultation section.
  10. 10Administrative: consult workers and any health and safety representatives on the work and its risks, record the consultation, and keep this document available at the workplace.
  11. 11PPE: eye protection to AS/NZS 1337.1, hearing protection where required, gloves appropriate to the task, knee protection for kneeling work, and Class I or Class II safety footwear with protective toecap to AS/NZS 2210.3.
  12. 12Administrative: review and update this SWMS whenever the work scope changes, after any incident or near miss, when a worker or health and safety representative raises a concern, when new hazards are identified, or at minimum every 12 months.
  13. 13Administrative: ensure the work is carried out by competent flooring installers, with any electrical work by a licensed electrician and any asbestos removal by a licensed asbestos removalist, under the applicable requirements.

Applicable Codes of Practice

Code of Practice: Managing risks of hazardous chemicals in the workplaceβš– Legally binding Β· 1 Jul 2026

Management of the coatings, adhesives, hardeners and chemicals, including safety data sheets and exposure controls.

Code of Practice: Managing the risks of respirable crystalline silica (model guidance)βš– Legally binding Β· 1 Jul 2026

The control of respirable crystalline silica from grinding and cutting concrete, terrazzo and screeds.

AS/NZS 1715 and AS/NZS 1716 β€” Respiratory protective equipment

Selection, fit testing and use of respiratory protection for wood dust, silica, asbestos, isocyanates and other airborne hazards.

Code of Practice: How to manage work health and safety risksβš– Legally binding Β· 1 Jul 2026

The risk management process and hierarchy of controls applied to the hazards of the work.

Who this is for

  • β†’Applicators applying epoxy and resin floor coatings.
  • β†’Flooring and coating contractors.
  • β†’Industrial and commercial flooring businesses.
  • β†’Builders and PCBUs requiring epoxy floor coatings.
  • β†’PCBU safety managers and supervisors coordinating the chemical-sensitiser, isocyanate and silica controls.

What you receive

  • βœ“Editable Microsoft Word document (.docx) fully compatible with Microsoft Word 2016 and newer, Google Docs, and LibreOffice Writer.
  • βœ“Title page with editable fields for PCBU name, ABN, site address, project name, principal contractor details, and document revision date.
  • βœ“Hazard register with the epoxy floor coating hazards β€” each with a documented consequence, inherent risk rating on a 5x5 likelihood-consequence matrix, hierarchy-of-control measures, and residual risk rating.
  • βœ“Epoxy floor coating prompts referencing the hazardous chemicals Code of Practice, a sensitiser and isocyanate section, a substrate-preparation silica section, and a ventilation and vapour record.
  • βœ“Competency and licensing prompts for the flooring work and any asbestos removal or electrical work, and a respiratory protection selection and fit-test record per AS/NZS 1715 where relevant.
  • βœ“Worker consultation record per the model WHS Act consultation duty and a worker sign-on register (blank, expandable).
  • βœ“Applicable legislation and Codes of Practice schedule pre-populated for the model WHS jurisdiction with a state-variance reference table covering the harmonised states, plus Victoria.
  • βœ“Emergency procedure template and a revision log.

Worked example

A flooring applicator is engaged to apply a two-pack epoxy coating to an industrial concrete floor. Because the coating is a two-pack system, the epoxy resins and amine hardeners are managed as skin and respiratory sensitisers, and any isocyanates in a polyurethane topcoat as respiratory sensitisers, to their safety data sheets, with skin protection, ventilation and respiratory protection, because isocyanates and sensitisers can cause occupational asthma and dermatitis. Skin and eye contact with the coating chemicals is avoided. Respirable crystalline silica from grinding and preparing the concrete substrate is controlled at the source with on-tool water suppression or H-class extraction, never dry-grinding uncontrolled, with respiratory protection, recognising the silica exposure standard reduces on 1 December 2026. Ventilation is provided where applying the coating, particularly in enclosed areas, and the flammable solvents and vapour controlled. Slips on the freshly coated floor are managed with barriers and signage, and the manual handling and kneeling postures managed. The substrate preparation plant is used safely. The coating is applied, and the records retained.

Related legislation

  • Model Work Health and Safety Act β€” primary duty of care; the duty to consult workers; the reckless-conduct offence; and notifiable-incident provisions, as enacted in each jurisdiction.
  • Model Work Health and Safety Regulations β€” the asbestos provisions and licensing, the hazardous chemicals and silica provisions, and the Section 291 high risk construction work and SWMS duties where applicable, as enacted in each jurisdiction.
  • The asbestos Codes of Practice (managing and controlling asbestos, and safely removing asbestos), the hazardous chemicals and silica requirements, and the respiratory protection standards AS/NZS 1715 and AS/NZS 1716, are called up by the relevant safety legislation, together with the construction and product requirements.
  • Asbestos removal is licensed under each state and territory's asbestos licensing scheme, with friable asbestos and asbestos made friable by the removal method requiring a Class A asbestos removal licence holder; electrical work is carried out by a licensed electrician.
  • Victoria operates under the Occupational Health and Safety Act 2004 and the Occupational Health and Safety Regulations 2017, with the asbestos, hazardous chemicals and high risk construction work provisions applying in place of the model instruments.

Frequently asked questions

What are the main hazards of epoxy floor coating?

The defining hazards are chemical: the epoxy resins and amine hardeners are skin and respiratory sensitisers, some polyurethane systems contain isocyanates that cause occupational asthma, the substrate preparation releases respirable crystalline silica, and the solvents are flammable with hazardous vapour. The chemicals are managed to their safety data sheets with skin protection, ventilation and respiratory protection.

What is the isocyanate hazard?

Some two-pack polyurethane coating systems contain isocyanates, which are respiratory sensitisers that can cause occupational asthma, so where the coating is a polyurethane system the isocyanates are managed to their safety data sheets with skin protection, ventilation and respiratory protection. The isocyanate hazard is a key consideration in epoxy and polyurethane floor coating.

Is there a silica hazard in epoxy coating?

Yes, from the substrate preparation β€” grinding and preparing the concrete substrate releases respirable crystalline silica, which is controlled at the source with on-tool water suppression or H-class extraction, never dry-grinding uncontrolled, recognising the silica exposure standard reduces on 1 December 2026. The substrate-preparation silica is controlled alongside the coating chemicals.

Why is ventilation important for epoxy coating?

The coating chemicals and solvents produce hazardous vapour, and any isocyanates are respiratory sensitisers, so ventilation is provided where applying the coating, particularly in enclosed or poorly ventilated areas, with respiratory protection. Ventilation controls the vapour build-up and the respiratory hazard of the coating.

Who applies epoxy floor coatings?

Epoxy floor coating is carried out by competent applicators in connection with the hazardous chemicals Code of Practice, with the chemical-sensitiser, isocyanate, silica and ventilation controls. The coating is applied with the chemicals managed as sensitisers and the substrate-preparation silica controlled.

What's in this SWMS

Document details

Regulation
WHS Regulation 2025
HRCW Category
Hazardous chemical β€” epoxy floor coating application with skin/vapour sensitisation risk
Hazards Identified
8 hazards with controls
Format
Editable DOCX (Microsoft Word)
Author
Certified Industrial Hygienist (CIH)
Delivery
Instant download after payment