High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry

PRODUCT PARAMETERS

Description
REQUEST A QUOTE

Description

Introduction of Boron Carbide Ceramics

Boron carbide ceramics is an inorganic, non-metallic material with carbon and boron as its main components, and its chemical formula is B4C. Since its discovery in the early 20th century, this material has attracted a great deal of attention because of its unique physical and chemical properties. Boron carbide ceramics have an extremely high hardness, second only to diamond and cubic boron nitride, which makes it important in the field of wear-resistant materials. It also exhibits excellent corrosion resistance, high-temperature stability and low-density properties, attributes that make it ideal for the manufacture of bullet-proof vests, nozzles, bearings and other mechanical components that require high wear resistance. Boron carbide ceramics can also be prepared in a variety of shapes and sizes through different processes to meet the needs of different industries.

Characteristics of Boron Carbide Ceramics

Boron carbide ceramics are known for their excellent performance characteristics, starting with their ultra-high hardness and strength, which makes them resistant to severe abrasion and scratching, making them ideal for use in cutting tools and abrasives. Secondly, the material possesses excellent chemical stability and is less likely to react with chemicals such as acids and alkalis, even in extreme environments, making it widely used in certain key components in the chemical industry. In addition, the superior thermal stability of boron carbide ceramics and their ability to maintain structural and property stability at extremely high temperatures makes them one of the key materials in the aerospace and nuclear industries. Finally, it is worth mentioning its lightweight properties, which, due to its low density, make boron carbide ceramics an ideal option for application scenarios that require light weight but high strength. Together, these characteristics give boron carbide ceramics a wide range of applications.

High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry

(High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry)

Specification of High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry

High Solidity Hot Pressed Boron Carbide (B4C) Ceramic Plate is designed for nuclear market applications. The material offers exceptional performance in severe conditions. Boron carbide is understood for its high hardness, ranking 3rd after diamond and cubic boron nitride. This makes it suitable for wear-resistant and protective uses. The hot pressing method ensures thick framework and consistent residential properties. The process minimizes porosity, improving mechanical toughness and integrity.

The product make-up is 99% pure boron carbide. It has a hardness of 30-35 GPa. The thickness gets to 2.52 g/cm SIX. The flexural toughness surpasses 350 MPa. The thermal conductivity is 30-42 W/m · K. The thermal expansion coefficient is 4.5 × 10 ⁻⁶/ ° C. These homes make certain stability under heats and radiation. The operating temperature range depends on 2200 ° C in inert atmospheres.

Boron carbide plates act as neutron absorbers in atomic power plants. They manage reaction rates and boost safety. The product stands up to corrosion from acids, alkalis, and molten steels. This expands service life in severe atmospheres. The ceramic plates are machined right into custom-made sizes and shapes. Common densities vary from 5mm to 50mm. Surface coatings are tailored to fulfill certain needs.

Quality control includes strict screening for problems. X-ray diffraction checks stage pureness. Ultrasonic scans spot inner problems. Solidity and thickness examinations validate uniformity. Each batch undertakes radiation resistance assessment. Certifications adhere to global nuclear security criteria.

The item is used in activator control poles, shielding parts, and fuel storage systems. It replaces standard steels and alloys because of premium efficiency. The lightweight nature decreases structural load. Upkeep costs are lowered through expanded toughness.

Custom orders fit distinct project needs. Technical support is provided for material selection and design. Lead times differ based on complexity. Packaging makes certain secure shipment to worldwide clients.

The boron carbide ceramic plate satisfies the demands of modern-day nuclear technology. It integrates innovative material scientific research with practical engineering options.

High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry

(High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry)

Applications of High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry

High solidity hot pushed boron carbide (B4C) ceramic plates are essential in the nuclear industry because of their distinct homes. Boron carbide is one of the hardest materials available. It withstands wear, corrosion, and extreme temperatures. These attributes make it ideal for demanding nuclear applications.

In nuclear reactors, B4C plates are utilized in control rods. Control rods handle nuclear fission reactions. Boron carbide absorbs neutrons effectively. This assists reduce or stop chain reactions. Typical materials like steel alloys lack this neutron-absorbing capacity. Hot pushing boosts boron carbide’s thickness and mechanical toughness. This makes sure reliability in high-radiation settings.

Radiation securing is an additional key application. B4C plates block neutron radiation. They secure employees and tools in activators or storage space centers. Boron carbide is lighter than lead or concrete. This makes it less complicated to mount and deal with. Its security under radiation protects against degradation in time. This minimizes maintenance prices and enhances safety and security.

B4C ceramic plates are utilized in reactor core elements. They line surfaces revealed to high warm and radiation. Their hardness protects against disintegration from coolant circulations. This expands the lifespan of reactor parts. Boron carbide layers on gas poles add additional defense. They minimize damages from friction or chain reaction.

Used nuclear gas storage also benefits from B4C. The ceramic plates protect containers from radiation. They stop leakages and contamination. Boron carbide’s chemical inertness guarantees it does not react with contaminated waste. This preserves storage space integrity for years.

Nuclear research study centers use B4C plates in speculative setups. They examine materials under extreme conditions. Boron carbide’s uniformity gives precise results. Its longevity reduces the demand for frequent replacements.

The manufacturing process for warm pushed B4C makes sure harmony. High stress and temperature get rid of spaces. This produces a dense, dependable product. Personalized sizes and shapes are possible. This flexibility fulfills particular nuclear market demands.

Boron carbide’s combination of firmness, neutron absorption, and thermal stability makes it irreplaceable in nuclear applications. Its usage enhances safety and security, performance, and cost-effectiveness throughout the industry.


Company Introduction

Advanced Ceramics founded on October 17, 2014, is a high-tech enterprise committed to the research and development, production, processing, sales and technical services of ceramic relative materials and products.. Since its establishment in 2014, the company has been committed to providing customers with the best products and services, and has become a leader in the industry through continuous technological innovation and strict quality management.

Our products includes but not limited to Silicon carbide ceramic products, Boron Carbide Ceramic Products, Boron Nitride Ceramic Products, Silicon Carbide Ceramic Products, Silicon Nitride Ceramic Products, Zirconium Dioxide Ceramic Products, Quartz Products, etc. Please feel free to contact us.(nanotrun@yahoo.com)

Payment Methods

T/T, Western Union, Paypal, Credit Card etc.

Shipment Methods

By air, by sea, by express, as customers request.

5 FAQs of High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry

High hardness hot pressed boron carbide (B4C) ceramic plates are critical in nuclear applications. Below are five common questions about these plates.

What is high hardness hot pressed boron carbide (B4C) ceramic plate?
Boron carbide ceramic plate is a synthetic material made by heating boron and carbon at extreme pressures. It is known for extreme hardness, wear resistance, and ability to absorb neutrons. The hot pressing method ensures high density, making it ideal for nuclear environments.

Why is B4C ceramic used in the nuclear industry?
B4C ceramic effectively blocks neutrons, a key requirement in nuclear reactors. It shields radiation, protects equipment, and maintains safety. Its high melting point and resistance to corrosion help it perform in extreme temperatures and harsh conditions.

What are the key features of B4C ceramic plates?
These plates are harder than most materials except diamond. They resist abrasion, chemicals, and thermal shock. The material stays stable under radiation, preventing structural damage. These traits ensure long-term reliability in nuclear settings.

How should B4C ceramic plates be handled?
Handle the plates carefully to avoid chipping. Use gloves to prevent contamination. Cutting or drilling requires diamond tools due to the hardness. Follow safety guidelines during installation to prevent accidental damage.

Can B4C plates be customized for specific nuclear applications?
Yes. Manufacturers adjust thickness, shape, and surface finish based on reactor designs. Custom sizes ensure compatibility with existing systems. Technical specifications are tailored to meet radiation shielding needs or mechanical stress requirements.

High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry

(High Hardness Hot Pressed Boron Carbide B4c Ceramic Plate for Nuclear Industry)

REQUEST A QUOTE

REQUEST A QUOTE