High-Temperature Insulation Inorganic Parts
Product Introduction
Engineered for demanding high-temperature environments, High-Temperature Insulation Inorganic Parts deliver a unique combination of heat resistance, low density, mechanical strength, and effective thermal insulation. They are commonly specified for use in industrial boilers, metallurgical furnaces, power generation systems, petrochemical reactors, and aerospace applications. As a result, they serve as a critical solution for energy conservation and thermal management across modern industry.
Manufactured from advanced inorganic fiber materials, High-Temperature Insulation Inorganic Parts contain no asbestos and is non-toxic with no harm to the environment or operators. Its thermal stability and resistance to thermal shock outperform conventional insulation materials, enabling the component to retain its structural integrity and performance characteristics even after repeated heating and cooling cycles.
Core Performance Features
(1) High-Temperature Resistance
Inorganic fiber shaped components can typically withstand temperatures ranging from 1260°C to 1400°C, with some special materials capable of tolerating even higher temperatures. Their excellent high-temperature resistance ensures long-term stable operation in extreme flame and high-temperature furnace environments, safeguarding equipment safety.
(2) Lightweight and High Strength
Compared to traditional refractory bricks and castables, inorganic fiber shaped components have a low density (typically between 100–300 kg/m³), significantly reducing equipment load. Additionally, the products undergo special processing techniques, resulting in high mechanical strength and compression resistance, ensuring structural stability after installation and minimizing deformation or damage.
(3) Excellent Thermal Insulation Performance
The microporous structure of inorganic fibers results in extremely low thermal conductivity, typically between 0.05–0.15 W/m·K, effectively reducing heat loss and conserving energy. This outstanding insulation performance helps industrial equipment achieve energy savings, emission reduction, and improved thermal efficiency.
(4) Thermal Shock Stability
Inorganic fiber shaped components exhibit excellent thermal shock stability, withstanding repeated thermal cycling and sudden temperature changes. This reduces cracking and spalling caused by thermal expansion and contraction, significantly extending service life.
(5) Environmentally Friendly and Harmless
The products are entirely made of inorganic materials, free from asbestos and volatile organic compounds (VOCs), and comply with environmental standards such as EU RoHS and REACH. This ensures safety for users and the environment.
(6) High Customization Flexibility
Utilizing advanced molds and automated molding technology, various complex shaped structures can be manufactured according to client needs, meeting personalized requirements for equipment structures and process flows.

Product Parameters
|
ITEM |
STD |
HP |
HA |
HTZ |
|
Classification Temperature(C°) |
1260 |
1260 |
1360 |
1430 |
|
Working Temperature(C°) |
≤1000 |
≤1100 |
≤1200 |
≤1300 |
|
Density(KG/m³) |
320-500 |
|||
|
Organic Content% |
≤1.5 |
|||
|
Heating Shrinkage(%) |
1000℃×24h≤ -2 |
1100℃×24h≤ -2 |
1200℃×24h≤ -2 |
1350℃×24h≤ -2 |
|
Thermal Conductivity(500℃) |
≤0.05 |
|||
|
Al₂O₃ |
36-38 |
39-42 |
45-47 |
- |
|
Al₂O₃+SiO₂ |
≥96 |
≥98 |
≥99 |
- |
|
Al₂O3+SiO₂+ZrO₂ |
- |
- |
≥99 |
|
|
ZrO₂ |
- |
- |
≥15 |
|
|
Fe₂O₃ |
<0.5 |
<0.5 |
<0.5 |
<0.5 |
|
Na₂O+K2O+Fe2O₃ |
<0.9 |
<0.9 |
<0.9 |
<0.9 |
Production Process Flow
(1) Raw Material Selection and Pre-treatment
High-purity inorganic fibers are selected as the core base material. Strict raw material screening and purification processes are implemented to eliminate impurities, ensuring a solid foundation for product performance.
(2) Batching and Homogeneous Mixing
Based on product performance requirements, binders and related additives are precisely proportioned. A high-efficiency mixing process is employed to form a uniform slurry, guaranteeing dense structure and consistent strength after molding.
(3) Precision Mold Forming
Utilizing CNC mold systems and automated slurry injection equipment, the slurry is accurately injected into customized molds. This enables one-time forming of complex irregular structures with precise dimensional control.
(4) High-Temperature Sintering and Curing
The molded green bodies undergo high-temperature sintering under controlled temperature profiles. This process facilitates complete curing of the binder system, significantly enhancing the product's mechanical strength and thermal stability.
(5) Surface Finishing Treatment
Depending on application requirements, post-sintering workpieces may undergo surface grinding, coating, or impregnation treatments to improve wear resistance, erosion resistance, or sealing performance.
(6) Inspection and Finished Product Protection
Rigorous quality inspections are conducted, including checks on appearance, dimensions, thermal conductivity, and compressive strength. Qualified products are packaged in moisture-proof and pressure-resistant materials to ensure zero damage during storage and transportation.
Main Application Fields
Industrial Boilers and Furnace Linings
Used in key areas such as boiler furnaces, flues, and furnace walls to achieve efficient thermal insulation and structural protection, enhancing equipment operational safety and energy efficiency.
Thermal Insulation Systems in the Power Industry
Applied in thermal power units, waste heat boilers, steam turbines, and pipeline insulation to significantly reduce heat loss and support energy-saving operations in power stations.
High-Temperature Equipment in Metallurgy
Provides customized insulation linings for ladles, smelting furnaces, heat treatment furnaces, and hot blast stoves, meeting high-temperature wear resistance and long-term stability requirements.
Petrochemical Equipment
Used as insulation layers for high-temperature equipment such as cracking furnaces, reforming furnaces, and reactors, ensuring stable process temperatures and production safety.
Aerospace Thermal Protection
Serves high-temperature areas including engine compartments, combustion chambers, and tailpipes, meeting demands for lightweight design, high-temperature resistance, and reliable insulation in extreme environments.
Emerging Industries and Specialized Fields
Gradually expanding into energy storage equipment, experimental high-temperature devices, and new energy thermal management systems, demonstrating its technological versatility and cross-industry applicability.
Core Product Advantages
Leading Process Technology
Integrates internationally advanced molding and sintering processes with full-process quality control, ensuring strong consistency in product performance.
Extensive Industry Experience
Built on years of practical application, forming a technical database and solution repository covering multiple scenarios.
Highly Customized Support
Supports full customization from drawings to finished products, suitable for various complex structures and non-standard working conditions.
Green and Energy-Saving Attributes
Uses harmless materials and clean production processes, helping users achieve environmental compliance and sustainable development goals.
Stable and Reliable Performance
Exhibits excellent thermal stability, mechanical strength, and thermal shock resistance, ensuring long-term safe operation of equipment.
FAQ
Q1: What is the maximum temperature resistance of inorganic fiber shaped components?
A1: The product's standard operating temperature range is 1260°C to 1400°C. The specific upper limit depends on the selected material grade and structural design.
Q2: Does the product support custom dimensions and structures?
A2: Absolutely. We can perform precise modeling and customized production based on equipment drawings or 3D data provided by customers, meeting installation requirements for various complex structures.
Q3: What is the typical service life of inorganic fiber shaped components?
A3: Under normal working conditions and proper installation, the designed service life of the product is over 5 years. With stable operating environments and adequate maintenance, the actual service life can extend to 10 years or more.
Q4: What are the key considerations during installation?
A4: During installation, ensure close contact between the shaped components and the equipment surface. Use appropriate fixing methods (such as specialized adhesives or mechanical anchoring) and pay attention to sealing treatment at joints to avoid thermal bridging or localized heat dissipation.
Q5: Does the product comply with environmental and safety standards?
A5: Yes. The product is made from pure inorganic raw materials, free from asbestos and harmful volatile substances. Its production and application processes are safe and environmentally friendly, complying with international standards such as EU RoHS and REACH.
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