​In the high-stakes environments of oil and gas, chemical processing, and mining, safety isn't just a priority—it’s a regulatory mandate. When operating in areas where flammable gases or dust are present, the IEC 60079-13 certificate stands as a critical benchmark for safety and operational integrity.

But what exactly is IEC 60079-13, and why is it essential for your facility?

What is the IEC 60079-13 Standard?
The IEC 60079-13 is a specialized international standard within the IEC 60079 series. While other parts of the series focus on individual components (like sensors or motors), Part 13 specifically governs equipment protection by pressurized rooms ("p") and artificially ventilated rooms ("v").

Essentially, this standard provides the framework for creating a "safe zone" within a hazardous area by using overpressure or ventilation to prevent explosive atmospheres from reaching non-certified electrical equipment.

Why the IEC 60079-13 Certificate is Crucial for Your Business
1. Risk Mitigation and Personnel Safety
The primary objective of IEC 60079-13 is to prevent catastrophic ignitions. By maintaining a pressurized environment, you ensure that even if a gas leak occurs nearby, the flammable vapors cannot enter the control room or E-House, where electrical sparking might occur.

2. Legal and Regulatory Compliance
Adhering to IEC standards is often mandatory for global operations. Obtaining an IEC 60079-13 certificate ensures you meet:
  • ATEX requirements (in Europe).
  • IECEx international certification schemes.
  • Local occupational health and safety (OSHA) standards.

3. Cost-Effective Protection for Large Equipment
Rather than purchasing expensive, individually explosion-proofed (Ex d or Ex e) components, IEC 60079-13 allows you to house standard industrial equipment inside a certified pressurized room. This significantly reduces capital expenditure (CAPEX) for large-scale installations.

4. Global Market Access
Because IEC standards are internationally recognized, a certificate in IEC 60079-13 acts as a "technical passport," allowing your equipment or modular buildings to be deployed across borders with minimal regulatory friction.

Key Requirements for IEC 60079-13 Compliance
To achieve and maintain certification, a facility must demonstrate rigorous control over its pressurized environments. Key technical factors include:
  • Purge Cycles: The system must be able to flush out any potentially hazardous air before the equipment is energized.
  • Pressure Monitoring: Maintaining a minimum overpressure (typically ≥50Pa) is mandatory.
  • Safety Interlocks: If pressure is lost, the system must trigger an alarm or an automatic power-off sequence to prevent hazards.
  • Air Source Integrity: The air used for pressurization must be drawn from a guaranteed non-hazardous location.

How to Obtain IEC 60079-13 Certification
The path to compliance involves four critical stages:
  • Engineering & Design: Integrating pressure sensors, fire dampers, and airtight seals into the room’s design.
  • Rigorous Testing: Performance testing to ensure the room can maintain pressure under operational stress.
  • Third-Party Auditing: Verification by a notified body to confirm the installation meets all IEC 60079-13 criteria.
  • Lifecycle Maintenance: Periodic inspections to ensure seals haven't degraded and safety systems remain functional.

Conclusion
The IEC 60079-13 certificate is more than just a piece of paper; it is a vital safeguard for modern industrial operations. Whether you are managing a remote offshore platform or a complex pharmaceutical plant, understanding and implementing this standard is key to protecting your assets, your people, and your reputation.

TLS Offshore Containers / TLS Energy is a global supplier of standard and customised containerised solutions. 
Wherever you are in the world, TLS can help you. Please contact us.

Product brochures:
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MCC | Switchgear | VFD | VSD pressurised shelter


Keywords: #IEC 60079-13 certificate, #Ex p pressurized room standards, #Hazardous area equipment protection, #Explosive atmosphere compliance, #IECEx, #Artificially ventilated room protection, #E-House explosion protection, #Electrical installation, #ATEX room certification 
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Written by Oliver

MCC (Motor Control Center) shelters are the heart of power distribution and equipment control in industrial facilities. They manage critical operations but also face high safety risks. Electrical faults, short circuits, overheating, or the intrusion of flammable gases can quickly escalate into fires or explosions. That’s why designing MCC shelters requires a complete safety approach, combining fire protection, explosion prevention, and intelligent monitoring.

1. Fire Safety: Reducing Risks at the Source

TLS MCC shelters are built to minimize fire hazards from the ground up:
  • Fire-resistant materials and structure: Steel structures with clear fire ratings, optional fireproof coatings, and A60-rated fireproof insulation panels (resistant to moisture and corrosion) provide durable protection.
  • Cable and wall protection: Specialized fire seals around cable entries prevent flames from spreading.
  • Functional separation: MCC cabinets, cable areas, and control zones are clearly divided. Fire-resistant partitions or compartments can further isolate potential incidents, reducing the impact of a single fire.
Other precautions, like optimized cable layout, proper ventilation paths, grounding systems, and short-circuit protection per international standards, help control risks at the earliest stage and buy valuable time for personnel and equipment.

2. Explosion Safety: Protecting Hazardous Areas

For industrial zones with flammable gases (Zone 1/Zone 2), TLS MCC shelters take additional measures:
  • Optional positive pressure systems: Clean air maintains internal positive pressure, keeping flammable gases out. Pressure, flow, and gas monitoring can automatically trigger interlocks if conditions change.
  • Explosion-proof electrical components: Critical devices, lighting, outlets, and junction boxes are selected based on hazardous area requirements.
  • Sealing and airtightness: Doors, windows, and cable penetrations use industrial-grade seals, verified with gas-tight and sometimes water-tight testing, ensuring reliable protection in harsh environments.
These measures ensure the MCC room remains secure even under extreme conditions, preventing accidents before they escalate.

3. Smart Monitoring and Automation

TLS MCC shelters combine passive safety with active monitoring:
  • Temperature, smoke, and gas detection systems operate in real time.
  • Automated linkage with ventilation, positive pressure, and explosion prevention systems triggers alarms when abnormalities are detected.
  • Power can be cut or emergency modes activated automatically.
  • Interfaces allow seamless integration with plant DCS/SCADA systems for centralized monitoring.
This system-level approach reduces reliance on human intervention, creating fast, visible, and automated protection.

4. Conclusion: Safety as a Complete System

Fire and explosion protection is never about a single device or standard—it’s a full-system approach. TLS MCC shelters integrate structural protection, electrical safety, explosion-proof design, and intelligent monitoring to provide a stable, reliable control hub for high-risk industrial sites.
In demanding environments, true safety comes from careful planning, attention to detail, and long-term validation—not luck.

TLS Offshore Containers / TLS Energy is a global supplier of standard and customised containerised solutions. 
Wherever you are in the world, TLS can help you. Please contact us.
 
Keywords: #MCC Room Safety,#Industrial Fire Protection,#Explosion Prevention,#Positive Pressure Systems,#Hazardous Area Electrical,#Fireproof Materials,#Gas Detection Monitoring,#Industrial Automation Safety,#Cable and Equipment Protection,#Smart Industrial Control

Written by Snowy

Operating on offshore platforms—whether on vessels or FPSOs (Floating Production, Storage, and Offloading units)—requires facilities that combine functionality, safety, and reliability. TLS Offshore Containers’ 20ft Advanced Offshore Laboratory Container is specifically engineered to meet these demands, delivering industry-leading performance in structure, safety, and compliance.

Built for the Challenges of the Offshore Environment

Designed and manufactured to meet DNV 2.7-1 and EN 12079 offshore standards, and certified with CSC, this laboratory container ensures exceptional structural integrity during offshore transport, lifting, and long-term operation. It is built to withstand marine corrosion, extreme weather, and continuous vibration, offering reliable performance in harsh offshore conditions.

Multi-Layer Safety for Offshore Operations

Safety is a top priority for any offshore lab. The TLS 20ft lab container can achieve A60 fire protection rating, effectively reducing fire risks. It also integrates independent fire, gas, and smoke detection systems, providing immediate alerts to potential hazards and ensuring proactive safety for offshore operations.

The container can be equipped with independent ventilation or HVAC systems and features quick-plug power interfaces, allowing seamless connection to platform power and delivering a stable, controlled environment for laboratory work.

Comprehensive Laboratory Functionality

The container’s internal layout is optimized for practical offshore lab operations:
  • Laboratory benches and standing workstations
  • Stainless steel sink units with large washing areas and drainage
  • Workstations with telephone, computer, and LAN connectivity for data processing and communication
  • Ample storage cabinets above and below benches for consumables and tools
  • Fume hoods to ensure safe laboratory procedures
Additionally, the integrated water supply system can connect directly to the platform’s water source, ensuring continuous and efficient lab operations.

Professional Explosion-Proof Design for Hazardous Areas

For environments with flammable gas risks, the lab container can be designed for Zone 2 hazardous areas, with all electrical systems, lighting, switches, outlets, and cabling meeting explosion-proof requirements. Combined with anti-slip flooring, this ensures both personnel safety and reliable daily operation.

Rapid Deployment and Flexible Offshore Integration

TLS offshore lab containers support fast connection to various vessel or platform utilities, significantly reducing on-site installation and commissioning time. Their structural design also allows for stacking, optimizing limited deck space without compromising operational efficiency.

A Trusted Offshore Laboratory Solution

With mature design concepts, comprehensive safety features, and strict adherence to international offshore standards, TLS’ 20ft Advanced Offshore Laboratory Container is widely recognized by clients worldwide. It reflects TLS’ extensive experience in offshore functional containers and underscores our commitment to delivering safe, reliable, and high-quality solutions for vessels and FPSOs.

TLS Offshore Containers / TLS Energy is a global supplier of standard and customised containerised solutions. 
Wherever you are in the world, TLS can help you. Please contact us.
 

Keywords:#Pressurized lab container,#Explosion-proof laboratory,#Zone 2 hazardous area container,#A60 fire-rated container,#Positive pressure container,#Modular lab shelter,#Offshore certified lab unit,#Industrial lab container,#Dehumidifier air conditioning integration,#TLS hazardous area solutions

 

Written by Snowy