Explore our structural components, high-purity sputtering targets, and precision-engineered ceramic parts designed for demanding industrial applications.
Established in the Shanghai Industrial Comprehensive Development Zone, Shanghai Creative Advanced Materials Co., Ltd. (SCA) operates as an ISO-certified enterprise specializing in high-performance materials. Our core competencies lie in semiconductor ceramic targets, powder metallurgy targets, advanced ceramic components, and specialized neutron-absorbing materials for heavy industries.
Through active integration of advanced synthesis, high-temperature sintering, and precision grinding, we cater directly to global partners in critical fields such as clean energy, aerospace propulsion, semiconductor lithography, and high-performance metal casting.
Discover why global buyers choose Shanghai Creative Advanced Materials as their long-term structural ceramic and target supplier.
SCA provides complete traceability from raw chemical powders to machined components. Our structural materials are marked with serial codes and analyzed via CMM and XRD testing to verify material density and phase composition.
We synchronize shipping schedules with international logistics partners. With custom packaging designed to protect brittle ceramic products, our materials arrive safely and promptly, reducing system downtime.
Advanced modeling technologies allow us to customize complex shapes. From unpressurized silicon carbide nozzles to sintered boron nitride crucibles, we adapt configurations to match complex industrial operations.
We support engineers throughout the product lifecycle. Our team helps select optimal raw materials and supports integration for sputtering target bonding or industrial furnace lining installations.
A detailed view of the mechanical properties, manufacturing techniques, and applications of our advanced ceramics.
Known as the "black diamond," Boron Carbide (B₄C) is one of the hardest synthesized materials. Its mechanical hardness is surpassed only by diamond and cubic boron nitride. B₄C is widely utilized in structural armor for military vehicles, body armor plates, and helicopter shielding. In industrial sectors, its high abrasive wear resistance makes it ideal for waterjet cutting components and sandblasting nozzles.
In nuclear technology, Boron Carbide serves as a key neutron-absorbing material due to the high neutron absorption cross-section of the Boron-10 isotope. It is used in reactor control rods, shielding curtains, and containment structures to manage nuclear fission reactions safely.
Technical insights, market data, and manufacturing analysis for procurement managers and engineering specialists.
Castable ceramics, also referred to as refractory castables, are monolithic ceramic materials designed to withstand extreme thermal conditions. These materials consist of high-grade ceramic aggregates, binder systems, and chemical additives. Common binders include calcium aluminate cement, colloidal silica, or phosphate systems, which are combined with engineered ceramic aggregates such as high-purity alumina (Al₂O₃), silicon carbide (SiC), and zirconia (ZrO₂) to achieve high performance in challenging environments.
Unlike traditional bricks, castable ceramics can be cast, troweled, or gunned into custom shapes. This flexibility is vital for lining modern waste-to-energy plants, gasifiers, chemical reactors, and high-frequency induction furnaces. Selecting the correct chemistry and particle size distribution is critical for managing thermal shock, slag corrosion, and chemical wear.
| Material Class | Maximum Operating Temp (°C) | Thermal Conductivity (W/m·K) | Compressive Strength (MPa) | Primary Industrial Applications |
|---|---|---|---|---|
| High-Purity Alumina (99.7% Al₂O₃) | 1750 - 1800 | 28 - 35 | 350 - 450 | Crucibles, Semiconductor chambers, Catalyst supports |
| Reaction-Sintered Silicon Carbide (RBSiC) | 1380 - 1450 | 45 - 55 | 500 - 600 | Kiln furniture, Wear-resistant nozzles, Burner pipes |
| Sintered Boron Nitride (Hexagonal BN) | 900 (Air) / 2000 (Inert) | 30 - 60 | 80 - 120 | High-temperature insulators, Molten metal nozzles |
| Yttria-Stabilized Zirconia (YSZ) | 1600 - 2000 | 2.0 - 2.5 | 800 - 1000 | Thermal barrier coatings, Extreme chemical pumps |
Procuring raw advanced ceramics requires careful consideration of structural and performance requirements. Global procurement teams evaluate products based on specific mechanical, thermal, and chemical performance criteria:
The manufacturing flow of advanced ceramics involves several critical steps to transform raw powders into dense, high-performance parts. Key steps include:
A step-by-step look at our advanced manufacturing workflow, designed to deliver high-quality industrial ceramic products.
We source high-purity chemical powders, verifying particle size distribution, phase purity, and chemical composition before production.
We utilize automated spray dryers to produce free-flowing spherical granules, ensuring uniform density in subsequent forming stages.
Isostatic and dry pressing methods shape green bodies with uniform density, minimizing warping or cracking during firing.
We use atmospheric, vacuum, hot-pressing, and reaction sintering furnaces to densify the ceramic matrix under precise temperature profiles.
High-precision CNC systems equipped with diamond grinding tools finish critical surfaces to meet tight dimensional specifications.
We perform rigorous inspections, including CMM dimension checks, dye penetrant testing, and density measurements, to confirm component quality.
Ultrasonic cleaning systems remove surface contaminants, and products are packaged in cleanroom environments to maintain purity.
Secure custom packaging protects fragile items during transport, ensuring safe delivery to domestic and international facilities.
Stay informed about emerging manufacturing technologies and new material developments.
Recent developments in localized sintering technologies are driving performance upgrades in China's industrial zirconia ceramics, offering improved wear resistance for chemical processing equipment.
We continue to build out our advanced sintering infrastructure, installing new large-scale vacuum hot-pressing equipment to support high-purity sputtering target production.
An evaluation of pressureless sintering methods for producing large, complex silicon carbide shapes with high structural uniformity and reliable mechanical performance.
Answers to common questions regarding advanced ceramic materials, ordering, and technical specifications.
Explore our selection of sputtering targets, structural ceramic materials, and advanced powders designed for severe chemical and thermal environments.
