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Walls & Barriers Hydrocarbon Blast

Fire-Rated Walls & Barriers for Hydrocarbon Blast Protection

Hydrocarbon fire and blast protection walls and barriers for oil, gas, petrochemical, energy and process facilities, planned around defined overpressure, impulse, fire exposure, structural interfaces and operational access.

Background Pattern
{Blast Containment} Is Critical.

Blast Containment Is Critical.

Sudden, high-pressure blast events pose a risk to industrial facilities, refineries, and petrochemical plants. Blast-rated walls and barriers are engineered to absorb and redirect explosive forces, protecting people, assets, and operations from catastrophic impact.

Engineered for reliable blast resistance

Meets industry blast safety standards

Minimises operational downtime after a blast event

Adaptable across diverse industrial environments

Background Pattern
Blast Containment Performance and Structural Reliability

Blast Containment Performance and Structural Reliability

  • Built to resist blast overpressure from hydrocarbon events
  • Separates high-risk zones from occupied areas
  • Maintains structural integrity post-blast
  • Modular configurations for varied site layouts
  • Suitable for facilities handling flammable gases and liquids

Integrated Blast Compartmentation

In hydrocarbon processing environments, walls and barriers serve as primary defences against catastrophic blasts and fires. SECURA systems are engineered to withstand extreme overpressure and sustained thermal exposure, integrating seamlessly with adjacent structural and fire-rated elements to deliver full compartment integrity.

Blast Rated Wall Panels

Blast Rated Wall Panels

Built to absorb and deflect hydrocarbon explosion overpressure while maintaining structural continuity.

Penetration Seals & Fire-Rated Ducts

Penetration Seals & Fire-Rated Ducts

Preserve barrier integrity where pipes, cabling, and ducts pass through walls. 

Blast Doors & Access Systems

Blast Doors & Access Systems

Protect entry and egress points against high-pressure blast events.

Ceiling & Roof Blast Assemblies

Ceiling & Roof Blast Assemblies

Deliver complete vertical and lateral containment across horizontal planes.

Ventilation & Smoke Control Systems

Manage airflow and soke extraction without compromising blast containment.

Structural Fireproofing Integration

Unify passive fire protection and blast-resistant construction in a single wall assembly.

Sectors We Serve

Our solutions are designed for sectors where infrastructure reliability, safety, and long-term performance are critical.

Energy & Utilities

Energy & Utilities

Pattern

Energy & Utilities

  • Power & Grid Infrastructure
  • Energy & Process Facilities
  • Onshore & Offshore Assets
  • Renewables & Energy Transition
Industrial

Industrial

Pattern

Industrial

  • Chemical & Process Plants
  • Manufacturing & Heavy Industry
  • Hazardous & Controlled Storage
  • Automotive & Industrial Campuses
Transportation

Transportation

Pattern

Transportation

  • Airports & Aviation Infrastructure
  • Metro, Rail & Mass Transit
  • Roads, Highways & Vehicular Tunnels
  • Ports, Shipyards & Marine Transport
Defence

Defence

Pattern

Defence

  • Defence & Command facilities
  • Critical National Infrastructure (CNI)
  • Secure & Hardened Assets
  • Border, Coastal & Strategic Installations
Infrastructure

Infrastructure

Pattern

Infrastructure

  • Data Centres & Digital Infrastructure
  • Public Venues & Stadia
  • Cultural & Institutional Buildings
  • Government & Diplomatic Facilities
Commercial/Mixed-Use

Commercial/Mixed-Use

Pattern

Commercial/Mixed-Use

  • Hospitality & Leisure
  • Financial & Commercial Buildings
  • Mixed-Use Landmark Developments

Certification

SECURA’s solutions meet or exceed leading international standards.

EN 1363 / EN 1364 /  EN 13501

EN 1363 / EN 1364 / EN 13501

European standards governing fire resistance testing and classification for building elements

BS 476 Part 20–24

BS 476 Part 20–24

British Standard for fire testing of building materialFire resistance of elements (walls, floors, ceilings, and fire doors etc

NFPA 502 / NFPA 251

NFPA 502 / NFPA 251

NFPA 502: Standard for Road Tunnels, Bridges, and Other Limited Access Highway

Inputs for Specifying Hydrocarbon Fire and Blast Protection Walls and Barriers

Use the project brief and coordinated drawings to confirm the following inputs before detailed selection.

  • Hazard study and design scenarios

    Provide the hazard study and project defined fire, pressure and impulse scenarios.

  • Required fire and pressure response

    Confirm the required fire and pressure response for the proposed complete barrier configuration.

  • Barrier dimensions and support conditions

    Define barrier height, length, orientation, foundations, supports and structural boundary conditions.

  • Openings, access and operational clearances

    Identify doors, penetrations, access routes and operational clearances that must be coordinated with the barrier.

Frequently Asked Questions About Hydrocarbon Fire and Blast Protection Walls and Barriers

Answers to common selection, coordination and evidence questions.

Begin with the hazard study, overpressure and impulse basis, fire exposure, barrier geometry, supports, corrosion environment and access. Clear drawings and acceptance criteria help the technical team assess an appropriate configuration without assuming that one arrangement suits every project.

Review panel joints, support steel, foundations, barrier ends, penetrations, doors and adjoining structures. These details form part of the installed system and should be resolved before fabrication or installation.

Review test, calculation or assessment evidence applicable to the defined load case and proposed complete barrier configuration. The evidence should match the proposed materials, dimensions, orientation and interfaces rather than being treated as a general approval for every use.

They may be considered for oil, gas, petrochemical, energy and process facilities with defined hydrocarbon fire and overpressure scenarios. Final suitability depends on the project brief, site conditions and supporting technical evidence.

Retrofit use may be possible after the existing structure, available space, access and interfaces have been surveyed. The proposed arrangement must then be checked against the project requirement and the evidence available for that configuration.

Provide relevant drawings, the hazard study, overpressure and impulse basis, fire exposure, barrier geometry, supports, corrosion environment and access, along with programme constraints and the documentation required for review. This helps define the scope and identify any information that must be confirmed by the project team.

CTA Background

Need Assistance in Selecting the Right Blast Protection System?

Share the hazard study, defined hydrocarbon fire and overpressure scenarios, barrier geometry, supports, environmental conditions and access requirements so the project interfaces and available supporting evidence can be reviewed.