Modern infrastructure is changing faster than ever.
Hydrogen
plants, battery storage systems, data centers, and high-density
industrial facilities are introducing new risk profiles—particularly
in terms of fire, thermal exposure, and explosive events.
Yet, the materials we rely on for protection have largely remained the same.
Steel, conventional concrete, refractory linings, and coatings are still treated as separate systems—each solving only part of the problem.
This fragmented approach is becoming a critical weakness.
The Problem with Conventional Protection Systems
Traditional materials behave predictably under normal conditions—but not under extreme ones:
Steel rapidly loses structural integrity above ~500 – 600 °C
Standard concrete suffers from spalling and cracking under thermal shock
Refractory materials handle heat but lack structural performance
Coatings and fireproofing layers degrade over time and require maintenance
As a result, protection systems often become:
layered
complex
expensive to maintain
and vulnerable at their interfaces
In critical infrastructure, these weaknesses are unacceptable.
A Shift Toward Integrated Protection
What if protection was not an added layer—but part of the structure itself?
This is the concept behind WPE-DK ThermoShield®.
Rather than combining multiple materials, WPE-DK ThermoShield® is engineered as a single, mineral-based high-performance system that integrates:
Structural capacity
Fire resistance
Thermal shock stability
Blast and impact resilience
Material Engineering Approach
ThermoShield® is based on an advanced UHPC (Ultra High Performance Concrete) formulation, enhanced with:
Ceramic microfillers (e.g., Al₂O₃, SiC) for high-temperature resistance
Fiber reinforcement to prevent brittle failure and reduce spalling
Dense microstructure to minimize permeability and thermal damage
Optional energy-absorbing layers for blast mitigation
The result is a material capable of operating across a wide range of extreme conditions.
Performance Profile
Temperature resistance: up to ~1200 °C (peak exposure)
Thermal shock resistance: stable under rapid temperature changes
Compressive strength: 150 – 200 MPa
Fire classification: non-combustible (A1)
Failure behavior: ductile rather than brittle
Durability: long-term resistance to chemical and environmental exposure
Unlike conventional systems, ThermoShield® maintains structural integrity under thermal stress, rather than merely delaying failure.
Application Areas
The need for integrated protection is growing across multiple sectors:
Energy Infrastructure
Hydrogen production and storage
Battery energy storage systems (BESS)
Substations and transformers
Industrial Facilities
Refineries and chemical plants
Pyrolysis and high-temperature processes
Manufacturing zones with fire risk
Defense & Security
Protective walls and shelters
Ammunition storage
Critical asset protection
Infrastructure
Tunnels and transport systems
Data centers
High-risk logistics hubs
From Passive Construction to Active Protection
The key shift is conceptual:
From building structures that need protection → to structures that provide protection.
By integrating thermal and mechanical resistance directly into the material, ThermoShield® reduces:
system complexity
maintenance requirements
and failure risk at interfaces
Why This Matters Now
The transition toward renewable energy, electrification, and decentralized infrastructure is increasing both risk density and consequence of failure.
In this context, materials are no longer just structural components—they are risk mitigation systems.
Conclusion
As infrastructure evolves, so must the materials that protect it.
WPE-DK
ThermoShield® represents a step toward a new category of
materials—
where structure, protection, and durability are
engineered into a single system.
ThermoShield® – Protection engineered into the structure.
www.wpe-dk.com
ber@wpe-dk.dk
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