Request a SiC Sample for Thorough Evaluation

Haalbare toleranties en maatnauwkeurigheid:

Request a SiC Sample for Thorough Evaluation

In the demanding world of advanced engineering, material selection is paramount. For applications requiring extreme performance in harsh environments, siliciumcarbide (SiC) stands out as a material of choice. Its exceptional properties, including superior hardness, chemical inertness, high thermal conductivity, and resistance to thermal shock, make it indispensable across a vast array of industries. If you’re an engineer, procurement manager, or technical buyer seeking to optimize performance and longevity in your critical components, a thorough evaluation of custom silicon carbide products is essential. This blog post will guide you through the benefits of SiC, its diverse applications, and how you can obtain a sample for your rigorous testing and validation.

Wat zijn op maat gemaakte siliciumcarbideproducten?

Custom silicon carbide products are specialized components manufactured to precise specifications, leveraging the unique properties of SiC. Unlike off-the-shelf solutions, custom SiC parts are tailored to meet the exact dimensional, performance, and environmental requirements of a specific application. This bespoke approach ensures optimal functionality and extends the operational lifespan of critical systems in demanding industrial environments. These technical ceramic components are vital for industries pushing the boundaries of temperature, wear, and chemical exposure.

Belangrijkste toepassingen van siliciumcarbide in verschillende industrieën

The versatility of silicon carbide makes it a critical material across a multitude of high-tech and heavy industries. Its ability to perform under extreme conditions enables breakthroughs and improves reliability in countless applications. Here’s a look at some key sectors benefiting from custom SiC solutions:

  • Productie van halfgeleiders: SiC is vital for wafer processing equipment, susceptors, and various components exposed to high temperatures and corrosive gases. Its thermal stability and purity are crucial for high-yield production.
  • Auto-industrie: Increasingly used in power electronics for electric vehicles (EVs) and hybrid electric vehicles (HEVs), SiC power modules enhance efficiency and reduce weight. It’s also found in brake components and engine parts due to its wear resistance.
  • Ruimtevaart en defensie: SiC’s lightweight nature, high strength-to-weight ratio, and thermal stability make it ideal for aerospace components, missile parts, and armor.
  • Vermogenselektronica: SiC devices are revolutionizing power conversion, offering higher breakdown voltage, faster switching speeds, and lower energy losses compared to silicon-based devices.
  • op maat gemaakte siliciumcarbide wafers Essential in inverters for solar and wind power systems, SiC components improve efficiency and reliability in power conversion.
  • Metallurgische bedrijven: Used in high-temperature furnaces, crucibles, and kiln furniture due to its excellent thermal shock resistance and chemical stability.
  • Chemische verwerking: SiC’s exceptional chemical inertness makes it suitable for pump seals, valve components, and heat exchangers in corrosive environments.
  • LED-productie: SiC substrates are used for growing GaN (gallium nitride) LEDs, offering superior thermal management and light output.
  • Industriële machines: Components requiring high wear resistance, such as nozzles, bearings, and mechanical seals, often utilize SiC.
  • Telecommunicatie: SiC wordt gebruikt in hoogfrequente, krachtige elektronische componenten voor telecommunicatie-infrastructuur.
  • Olie en Gas: Used in downhole tools and components exposed to abrasive slurries and high temperatures.
  • Medische apparaten: Biocompatibel SiC wordt onderzocht voor bepaalde medische implantaten en chirurgische instrumenten.
  • Spoorvervoer: SiC power modules are being integrated into traction systems for improved efficiency and reliability.
  • Kernenergie: SiC is under research for its potential as a cladding material in advanced nuclear reactors due to its radiation resistance and high-temperature performance.

Waarom kiezen voor op maat gemaakt siliciumcarbide?

While standard materials may suffice for some applications, complex or high-stress environments demand the tailored performance of custom silicon carbide. The benefits of customization are profound:

  • Geoptimaliseerde prestaties: Design a component precisely for its intended function, maximizing efficiency and effectiveness.
  • Superieure thermische weerstand: SiC behoudt zijn sterkte en integriteit bij temperaturen van meer dan 1.500°C, veel hoger dan de meeste metalen kunnen weerstaan.
  • Uitzonderlijke slijtvastheid: Its extreme hardness makes it ideal for abrasive environments, significantly extending component lifespan.
  • Chemische inertie: SiC resists attack from most acids, bases, and corrosive gases, ensuring longevity in harsh chemical processing.
  • Verbeterde efficiëntie: In power electronics, custom SiC designs can lead to smaller, lighter, and more energy-efficient systems.
  • Minder uitvaltijd en onderhoud: Highly durable SiC components lead to fewer failures and less frequent replacements, reducing operational costs.
  • Ontwerpflexibiliteit: Achieve complex geometries and intricate designs that would be challenging or impossible with other materials.

Recommended SiC Grades and Compositions for Your Evaluation

Silicon carbide is not a monolithic material; it exists in various grades and compositions, each offering distinct properties tailored for specific applications. Understanding these differences is key to selecting the right material for your sample evaluation.

SiC-kwaliteit/type Essentiële eigenschappen Typische toepassingen
Reactiegebonden SiC (RBSiC) High strength, excellent wear resistance, good thermal conductivity, low porosity, maintains strength at high temperatures. Kiln furniture, pump parts, mechanical seals, burner nozzles, heat exchangers, automotive brake components.
Gesinterd SiC (SSiC) Extremely hard, high strength, excellent corrosion resistance, high thermal conductivity, high purity, no free silicon. Ballistic armor, mechanical seals, bearings, high-temperature structural components, semiconductor equipment parts.
Nitride-gebonden SiC (NBSiC) Good strength, excellent thermal shock resistance, good oxidation resistance, lower cost than SSiC/RBSiC. Kiln furniture, nozzle liners, wear plates, components for aggressive environments.
Chemisch afgezette SiC (CVD SiC) Highest purity, extremely dense, isotropic properties, excellent corrosion resistance, very smooth surface finish. Semiconductor susceptors, optical components, aerospace mirror substrates.
Gerecristalliseerd SiC (ReSiC) Good thermal shock resistance, high purity, porous structure, good high-temperature strength. Ovenmeubilair, componenten voor ovens bij hoge temperaturen, gespecialiseerde vuurvaste toepassingen.

When you request a SiC sample, specify the grade that best aligns with your application’s requirements. Our experts can assist you in making this crucial selection.

Ontwerpaspecten voor aangepaste SiC-producten

Designing with silicon carbide requires a specialized approach due to its unique material characteristics, particularly its hardness and brittleness. Proper design minimizes stress concentrations and facilitates manufacturability, ensuring the final product meets performance expectations. Key considerations include:

  • Geometrie Limieten: Avoid sharp internal corners and abrupt changes in cross-section, as these can create stress points.
  • Wanddikte: Aim for uniform wall thicknesses where possible to ensure even heating and cooling during processing, reducing internal stresses.
  • Toleranties: While SiC can achieve tight tolerances, extremely precise features may require additional grinding or lapping.
  • Montagekenmerken: Design mounting holes and features with adequate clearance and avoid over-constraining the material, which can lead to cracking under thermal expansion.
  • Spanningspunten: Identify potential stress concentrations and design to distribute loads evenly. Finite Element Analysis (FEA) can be invaluable here.
  • Bewerkbaarheid: Consider the challenges of machining SiC. Designs that minimize complex machining operations can reduce cost and lead time.

Tolerantie, Oppervlakteafwerking & Maatnauwkeurigheid

Achieving precise dimensions and surface finishes in custom silicon carbide components is critical for high-performance applications. While SiC is an incredibly hard material, advanced machining and finishing techniques allow for exceptional accuracy.

  • Haalbare toleranties: Depending on the SiC grade and component size, tolerances typically range from ±0.001″ to ±0.005″ for ground parts, and even tighter for lapped or polished surfaces.
  • Opties voor oppervlakteafwerking:
    • As-fired/As-gesinterd: Ruwere afwerking, geschikt voor niet-kritische oppervlakken.
    • Geslepen: Provides a good balance of surface finish and cost, commonly used for dimensional accuracy.
    • Gelapt: Achieves a very smooth, precise surface, ideal for sealing surfaces or where low friction is required.
    • Gepolijst: Ultra-smooth, mirror-like finish, often used for optical components or semiconductor applications requiring extreme flatness.
  • Maatnauwkeurigheid: Highly consistent and repeatable dimensional accuracy is achievable, crucial for components that must integrate seamlessly into complex assemblies.

Nabewerkingsbehoeften voor verbeterde SiC-prestaties

Even after initial manufacturing, custom silicon carbide components can undergo various post-processing steps to further enhance their performance, durability, and specific characteristics. These processes are vital for optimizing SiC parts for their intended industrial applications:

  • Precisieslijpen: Essential for achieving tight dimensional tolerances and specific geometries that cannot be formed during sintering.
  • Leppen en polijsten: Creates extremely flat and smooth surfaces, crucial for sealing applications, bearings, and semiconductor components where surface quality impacts performance.
  • Hardsolderen: Used to join SiC components to other materials (metals, other ceramics) to create complex assemblies or integrated systems.
  • Coating: Applying thin films of other materials (e.g., Pyrolytic Graphite, other ceramics) can enhance specific properties like electrical conductivity, erosion resistance, or non-wetting characteristics.
  • Afdichting: For porous SiC grades, sealing can be performed to prevent gas or liquid penetration, improving performance in certain chemical or vacuum environments.
  • Drilling and Cutting: Specialized laser or ultrasonic machining techniques are employed for intricate holes or precise cuts after initial firing.

Veelvoorkomende uitdagingen met SiC en hoe deze te overwinnen

While silicon carbide offers unparalleled advantages, working with this advanced material presents specific challenges. Understanding and mitigating these is key to successful project outcomes:

  • Brosheid: Like most ceramics, SiC is brittle. Proper design to avoid stress concentrations, careful handling, and controlled manufacturing processes are crucial.
  • Complexiteit van de machinale bewerking: SiC’s extreme hardness makes it difficult and costly to machine. Collaboration with experienced SiC manufacturers who possess specialized equipment (diamond grinding, laser machining, EDM for conductive SiC) is vital.
  • Gevoeligheid voor thermische schokken: While SiC has good thermal shock resistance, extreme and rapid temperature changes can still cause failure. Design solutions that allow for thermal expansion and contraction can mitigate this risk.
  • Kosten: SiC components can have a higher initial cost compared to traditional materials. However, their extended lifespan, superior performance, and reduced maintenance often lead to a lower total cost of ownership.
  • Moeilijkheden bij het verbinden: Bonding SiC to other materials can be challenging. Advanced brazing and joining techniques, along with specialized adhesives, are often required.
  • Expertise leverancier: The unique properties of SiC demand highly specialized manufacturing expertise. Choosing a supplier with proven experience in custom SiC is paramount.

Hoe u de juiste op maat gemaakte SiC-leverancier kiest

Selecting the right supplier for custom silicon carbide products is a critical decision that directly impacts the success of your project. Look for a partner who offers more than just manufacturing capabilities:

  • Technische mogelijkheden: Assess their expertise in various SiC grades, manufacturing processes (sintering, reaction bonding, CVD), and post-processing techniques. Do they offer design assistance and material selection guidance?
  • Materiaalopties: A diverse portfolio of SiC grades ensures they can provide the optimal material for your specific application.
  • Kwaliteitscontrole en certificeringen: Verify their quality management systems (e.g., ISO 9001) and their ability to meet industry-specific standards (e.g., aerospace, medical).
  • Ervaring en staat van dienst: Look for a supplier with a proven history of delivering high-quality custom SiC components for demanding industrial applications. Review their casestudies en getuigenissen van klanten.
  • R&D en innovatie: Een leverancier die actief betrokken is bij onderzoek en ontwikkeling, zal waarschijnlijk geavanceerde oplossingen aanbieden en zich aanpassen aan de veranderende behoeften van de industrie.
  • Klantenondersteuning: Responsive communication, technical support, and a collaborative approach are essential for complex custom projects.

Speaking of expertise, it’s important to acknowledge the global hub of silicon carbide customizable parts manufacturing. Here is the hub of China’s silicon carbide customizable parts factories. As you are aware, the hub of China’s silicon carbide customizable parts manufacturing is situated in Weifang City of China. This region has been home to over 40 silicon carbide production enterprises of various sizes, collectively accounting for more than 80% of the nation’s total silicon carbide output. We, CAS new materials (SicSino), have been introducing and implementing silicon carbide production technology since 2015, assisting the local enterprises in achieving large-scale production and technological advancements in product processes. We have been a witness to the emergence and ongoing development of the local silicon carbide industry. Based on the platform of the national technology transfer center of the CAS, CAS new materials (SicSino) belongs to CAS (Weifang) Innovation Park, an entrepreneurial park that collaborates closely with the National Technology Transfer Center of the CAS (Chinese Academy of Sciences). It serves as a national-level innovation and entrepreneurship service platform, integrating innovation, entrepreneurship, technology transfer, venture capital, incubation, acceleration, and scientific and technological services. CAS new materials (SicSino) capitalizes on the robust scientific, technological capabilities, and talent pool of the Chinese Academy of Sciences (CAS). Backed by the CAS National Technology Transfer Center, it serves as a bridge, facilitating the integration and collaboration of crucial elements in the transfer and commercialization of scientific and technological achievements. Moreover, it has established a comprehensive service ecosystem that spans the entire spectrum of the technology transfer and transformation process. With more reliable quality and supply assurance within China, CAS new materials (SicSino) possess a domestic top-tier professional team specializing in customized production of silicon carbide products. Under our support, over 529 local enterprises have benefited from our technologies. We possess a wide array of technologies, such as material, process, design, measurement & evaluation technologies, along with the integrated process from materials to products. This enables us to meet diverse customization needs. We can offer you higher-quality, cost-competitive customized silicon carbide components in China.

Kostenfactoren en doorlooptijdbeschouwingen

Understanding the factors that influence the cost and lead time of custom silicon carbide products is crucial for effective project planning and budgeting. These factors are often interconnected:

Kostenfactor Impact op kosten en doorlooptijd
Materiaalkwaliteit & Zuiverheid Higher purity and specialized SiC grades (e.g., CVD SiC) are generally more expensive due to complex manufacturing processes and raw material costs.
Complexiteit van de component Intricate geometries, thin walls, and tight tolerances require more advanced machining and longer processing times, increasing both cost and lead time.
Afmetingen en gewicht Larger and heavier components require more raw material and longer processing cycles, impacting both cost and production time.
Volume Larger production volumes typically benefit from economies of scale, reducing the per-unit cost. Smaller batch sizes or one-off prototypes will have higher unit costs.
Oppervlakteafwerking & Nabewerking Precision grinding, lapping, and polishing add significant cost and time due to the specialized equipment and skilled labor required.
Testen & Certificering Rigorous testing and specific industry certifications can add to the overall cost and extend lead times.

Lead times for custom SiC products can vary significantly, ranging from a few weeks for simpler components to several months for highly complex designs or large production runs. Early engagement with your chosen supplier is key to managing expectations and project timelines. We also commit to assisting you in establishing a specialized factory. If you need to build a professional silicon carbide products manufacturing plant in your country, CAS new materials (SicSino) can provide you with the technologieoverdracht voor professionele siliciumcarbideproductie, samen met een volledig scala aan diensten (turnkey project) inclusief fabrieksontwerp, inkoop van gespecialiseerde apparatuur, installatie en inbedrijfstelling en proefproductie. Hierdoor kunt u een professionele fabriek voor de productie van siliciumcarbideproducten bezitten en tegelijkertijd een effectievere investering, betrouwbare technologische transformatie en een gegarandeerde input-outputverhouding garanderen.

Request a Silicon Carbide Sample for Thorough Evaluation

The best way to truly understand the benefits of custom silicon carbide for your specific application is to evaluate it firsthand. Requesting a SiC sample allows you to perform critical testing under your unique operating conditions. This enables you to:

  • Verify Material Suitability: Confirm that the chosen SiC grade meets your performance requirements for thermal, mechanical, and chemical properties.
  • Test Dimensional Accuracy: Assess how the sample fits into your existing assemblies and ensure it meets your precision needs.
  • Evaluate Surface Finish: Determine if the achieved surface roughness and flatness are adequate for your application’s demands.
  • Conduct Performance Testing: Subject the sample to real-world or accelerated aging tests to assess its long-term durability and resistance to wear, corrosion, and thermal cycling.
  • Justify Investment: Provide tangible evidence of SiC’s superior performance, aiding in internal justification for its adoption.

By requesting a sample, you take a proactive step towards integrating advanced silicon carbide solutions into your operations, ensuring optimal performance and long-term reliability. We encourage you to reach out to our team of experts to discuss your specific needs and facilitate the sample request process. At CAS new materials (SicSino), we are dedicated to providing you with the highest quality custom silicon carbide components and unparalleled technical support. We offer more than just products; we offer solutions backed by the deep scientific and technological capabilities of the Chinese Academy of Sciences.

Veelgestelde vragen (FAQ) over aangepaste SiC

V1: Welke industrieën profiteren het meest van op maat gemaakte siliciumcarbideproducten?
A1: Industries requiring extreme performance in harsh environments, such as semiconductors, aerospace, power electronics, chemical processing, and high-temperature manufacturing, benefit significantly from custom SiC due to its superior thermal, mechanical, and chemical properties.
Q2: Is siliciumcarbide moeilijk te bewerken?
A2: Yes, silicon carbide is extremely hard, making traditional machining difficult. Specialized techniques like diamond grinding, laser machining, and ultrasonic machining are required, necessitating collaboration with experienced SiC manufacturers.
Q3: How does the cost of custom SiC compare to traditional materials?
A3: Initial costs for custom SiC can be higher than traditional materials. However, its exceptional durability, extended lifespan, and superior performance often lead to a lower total cost of ownership through reduced downtime and replacement frequency.
Q4: Can CAS new materials (SicSino) help with the design of custom SiC components?
A4: Yes, our team possesses a wide array of technologies, including material, process, and design expertise. We can collaborate with your engineers to optimize designs for manufacturability and performance, leveraging the robust scientific and technological capabilities of the Chinese Academy of Sciences (CAS).
Q5: What is the typical lead time for custom silicon carbide samples?
A5: Lead times for custom SiC samples vary based on complexity, material grade, and current production schedules. It’s best to discuss your specific requirements directly with our sales team to get an accurate estimate for your sample request.

Conclusion: Unlock Superior Performance with Custom Silicon Carbide

Custom silicon carbide products represent the pinnacle of advanced material engineering, offering unmatched performance in the most challenging industrial environments. From improving efficiency in power electronics to extending the lifespan of components in high-temperature furnaces, the value proposition of SiC is undeniable. By requesting a SiC sample, you embark on a path to thoroughly evaluate how this exceptional material can revolutionize your applications, enhance reliability, and provide a competitive edge. Partnering with an experienced and technically proficient supplier, like CAS new materials (SicSino), ensures you receive not just a product, but a comprehensive solution backed by deep expertise and a commitment to innovation. Invest in the future of your engineering with custom silicon carbide.


Zeer complexe SiC-componenten met ingewikkelde details en zeer nauwe toleranties zijn over het algemeen duurder en uitdagender om te fabriceren. Ontwerpers moeten streven naar de eenvoudigste geometrie die voldoet aan de functionele eisen. Vroegtijdig overleg met SiC-fabrikanten zoals

Wij, CAS new materials (VicSino), hebben sinds 2015 de productietechnologie voor siliciumcarbide geïntroduceerd en geïmplementeerd en de lokale bedrijven geholpen bij het realiseren van grootschalige productie en technologische vooruitgang in productprocessen. We zijn getuige geweest van de opkomst en voortdurende ontwikkeling van de lokale siliciumcarbide-industrie.

is van vitaal belang om de principes van ontwerp voor produceerbaarheid (DFM) voor SiC te begrijpen.

Vertrouw ons maar, wij zijn insiders op het gebied van SiC hier in China.

Achter ons staan de experts van de CAS, de Chinese Academie van Wetenschappen, en de exportalliantie van meer dan 10 Sic-fabrieken; we beschikken over meer middelen en technische ondersteuning dan andere concurrenten.

Over SicSino

CAS new materials (SicSino) is een platform op nationaal niveau, ondersteund door het nationale centrum voor technologieoverdracht van de CAS (Chinese Academie van Wetenschappen). Het heeft een exportalliantie gevormd met meer dan 10 lokale SiC-fabrieken en is gezamenlijk actief in de internationale handel via dit platform (SicSino), waardoor op maat gemaakte SiC-onderdelen en -technologieën naar het buitenland geëxporteerd kunnen worden.

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