Quality Safety
Flexible Ceramic Fiber
Starshield Armor T-series
A / H
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Excellent Thermal Stability -
Superior Mechanical Performance -
Ultra-Low Thermal Conductivity
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The T-Series non-intumescent inorganic thermal insulation coating demonstrates outstanding overall product performance.
The T-Series non-intumescent inorganic thermal-insulation coating achieves ultra-thin thermal protection. Excelling in key indicators such as mechanical strength, thermal stability, durability, and fire-resistant insulation, it successfully overcomes the thickness and performance limitations of conventional insulation materials.
Starshield Armor T-Series Model A — Instantaneous Application Temperature
600 ℃
With its non-intumescent structure, it readily withstands instantaneous temperatures of 600 °C.
When temperatures surge instantaneously to 600 °C, conventional materials face the twin challenges of deformation and failure. Leveraging its uniquely stable structure, the T-Series non-intumescent insulation material exhibits excellent dimensional and performance stability under severe thermal fluctuations, maintaining consistent and close adhesion to protected surfaces. Its ultra‑thin design aims to create a reliable thermal barrier within limited spaces while offering good mechanical flexibility, thermal stability, and durability, delivering dependable protection under repeated thermal shocks. It provides a lightweight, high‑reliability high‑temperature protection solution for applications such as high‑temperature industrial kilns, new‑energy batteries, aerospace equipment, and major infrastructure projects.
Starshield Armor T-Series Model H — Instantaneous Application Temperature
1,200 ℃
Featuring a non-intumescent, stable structure, it withstands the severe test of instantaneous 1,200 °C flames.
Under instantaneous temperatures of 1,200 °C, most conventional materials struggle to maintain structural and performance integrity. Relying on its inherently stable ceramic framework and dense nanoporous structure, the T-Series non-intumescent inorganic insulation coating resists expansion, cracking, and pulverization under extreme heat, consistently retaining its geometry and insulation performance. Its ultra‑thin design builds a reliable thermal barrier under stringent space constraints, combining good mechanical properties with high‑temperature insulation performance. It ensures continuous adhesion to complex surfaces under dramatic temperature fluctuations, providing long‑lasting protection. With its excellent high‑temperature stability and lightweight advantages, the T‑Series material offers a dependable solution for extreme thermal environments.
Internationally Pioneered Turbulence-Assisted Electrospinning Technology
Our proprietary gas-turbulence-assisted electrospinning process successfully produces semi-crystalline nano-ceramic fibers, breaking through the physical limitation of conventional electrospinning, which could previously fabricate only two-dimensional films. This achievement marks a revolutionary leap toward high-performance, three-dimensional, macro-scale materials.
One Technology, Infinite Possibilities
We explore not only the temperature limits of materials but also the breadth and depth of safe, reliable technological application.
From the depths of space to the vastness of the earth, from harsh industrial environments to sophisticated electronic devices, we are committed to translating the exceptional performance of our materials into core solutions that address thermal management challenges across industries.
We not only offer standardized safety solutions but also possess strong capabilities in collaborative R&D and rapid customization. Tailoring designs to meet the unique operating conditions, safety regulations, and specific requirements of different sectors, we develop specialized models and application processes that balance superior performance with inherent safety.
This cross-industry exploration capability stems from our profound understanding of the fundamental principles of materials science and our rigorous commitment to quality and safety systems. We are bringing aerospace-grade, rigorously validated insulation technologies and safety standards into broader fields such as high-temperature industrial kilns, new-energy batteries, aerospace equipment, and major infrastructure projects. By building robust barriers for every innovative application, we enable transformative materials science to empower the advancement of countless industries, safely and reliably.
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Ceramic Nanofiber AerogelHigh-Entropy Nanofiber Aerogel
Service Temperature: 1,600 ℃
High-Temperature Thermal Conductivity < 0.08 W/(m·K)
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High-Entropy Nanofiber AerogelHighly Flexible & Large Deformation
Service Temperature: 1,800 ℃
High Temperature Thermal Conductivity < 0.05 W/(m·K)
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Ceramic Nanosheet AerogelFlexible & Super-Elastic
Service Temperature: 1,200 ℃
Room Temperature Thermal Conductivity < 0.02 W/(m·K)
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Stretchable Ceramic AerogelElongation up to 150%
Highly Flexible & High Temperature Resistant
Strain-Insensitive Thermal Insulation
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Graphene AerogelHighly Flexible & Large Deformation
Service Temperature (Vacuum): 2,500 ℃
Room-Temperature Thermal Conductivity < 0.02 W/(m·K)
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High-Temperature-Resistant Nanoporous AerogelRoom-Temperature Thermal Conductivity < 0.02 W/(m·K)
Low-Cost Drying at Ambient Temperature & Pressure
Breakthrough Service Temperature up to 1,000 ℃
Starshield Armor T-Series - Model A Product Specifications
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Instantaneous (Transient) Application Temperature600 ℃
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Long-Term Service Temperature90 ℃
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Dry Density240-300 mg/cm³
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Wet Density500-600 mg/cm³
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Single-Coat Thickness6 mm
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Curing Time (at room temperature)12h
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Bending Angle120~150°
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Bonding Strength3-5 MPa
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Thermal Conductivity (at 25 °C)0.03-0.04 W/(m·K)
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Thermal Conductivity (at 100 °C)≤0.05 W/(m·K)
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Initial Drying Crack Resistance (3 h)Crack-Free
Starshield Armor T-Series - Model H Product Specifications
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Instantaneous (Transient) Application Temperature
1,200 ℃
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Long-Term Service Temperature
900 ℃
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Dry Density
440-500 mg/cm³
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Wet Density
600-800 mg/cm³
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Single-Coat Thickness
3 mm
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Curing Time (at room temperature)
5 d; 80 ℃: 2 h
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Compressive Strength
120-150°
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Bonding Strength
~1 MPa
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25 ℃ Thermal Conductivity (at 25 ℃)
0.04-0.07 W/(m·K)
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100 ℃ Thermal Conductivity (at 100 ℃)
≤0.20 W/(m·K)
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Initial Drying Crack Resistance (3 h)
Crack-Free
Application Scenarios
In response to high-temperature challenges that conventional insulation materials struggle to handle, new ceramic fiber materials are redefining thermal-management standards with their exceptional high-temperature resistance. Whether in demanding industrial high-temperature environments or specialized extreme-heat applications, they reliably fulfill multiple roles, including fire-resistant insulation, thermal insulation and energy conservation, and sound absorption and noise reduction.
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High-Temperature Kilns -
New Energy Batteries -
Aerospace Equipment -
Major Infrastructure
