Skip to main content

High Density High purity Alumina Ceramic

 Duralox is a registered brand name for Jyoti's specially developed proprietary composites. Duralox 92W spherical micro beads are made from proprietary formulations: high alumina ceramic composites containing 92% alpha alumina crystals with a low percentage of silica in the body composition. Duralox 92W beads are hard and sapphire hard, measuring 9 on the scale of temptation, textures are dense, abrasive in nature and resistant to abrasion wear, they can withstand high temperatures and are chemically heavy, non-porous, air tight, non-toxic, non-toxic . -Magnetic, non-radioactive, free from voids. The Durlox 92W Micro Bead has proven to be ideal for shot painting, de-boring and polishing of sheet metal blanks, cast molded ferrous / non-ferrous components, precious metal jewelry, etc.



Duralox 92W beads are found to be excellent as fillers to form wear resistant coating materials in epoxy resin based adhesive compounds. They form a tough, durable, abrasion resistant coating on complex surfaces such as scraper blades, piping, chutes, hoppers, material passing passage etc. when placed with an epoxy matrix. These coatings have a huge potential in ship building, chemical, food and beverage industries as they form tough, chemically inert, non-slippery, wear resistant flooring. In addition, they also provide outstanding service as light weight and abrasion resistant lining. Due to their abrasive nature, Duralox 92W micro beads are generally not recommended for any bead milling dispersion applications.

Duralox 997 - 99.7% Purity High Alumina Ceramic

Duralox 997 Spherical micro beads are produced from proprietary formulated high purity alumina composite, which contains 99.7% alpha alumina crystals having negligible percentage of silica in its body composition.

What makes Duralox 997 microbeads state of the art material for your industrial needs are its salient attributes such as :

Its sapphire equivalent hardness (measuring at a magnitude of 9+ on the Moh’s scale or 1600 on Vicker’s scale)

  • Chemical inertness

  • Non-radioactive

 

Duralox 997 micro beads not only have a dense homogeneous internal microstructure but also have a smooth surface finish and are widely used for grinding of high purity alumina oxide material.

Duralox 997 beads can withstand high temperatures making them ideal for sintering of Zirconia ceramic dental restoratives on a bed of beads in a sagger. In addition, these Ceramic sintering beads adapt smoothly to the shape of Zirconia restoratives and allow the units to shrink without any deformation.

 

For More Information Please Visit us at: https://www.jyoticeramic.com/duralox.php 

Call us:  02532365766 ,  2350120 / 338 / 729, 2351251
Labels:
Location: Nashik, Maharashtra, India

Comments

Post a Comment

Popular posts from this blog

Jyoti Ceramic: Pioneering Excellence in Ceramic Protective Coating for Unmatched Durability

  In the ever-evolving landscape of industrial coatings, Jyoti Ceramic stands as a beacon of innovation, redefining the standards of protection with its state-of-the-art Ceramic Protective Coating . Specializing in creating coatings that are both Corrosion and Abrasion Resistant Coating , Jyoti Ceramic has become synonymous with durability, reliability, and unmatched performance in diverse industrial applications. Ceramic Protective Coating: A Technological Marvel: At the core of Jyoti Ceramic's success is its cutting-edge Ceramic Protective Coating technology. This advanced coating is designed to provide a robust shield against the dual challenges of corrosion and abrasion, ensuring that critical equipment and assets remain protected even in the harshest environments. Corrosion and Abrasion Resistant Coating: The Need of the Hour: In industries where equipment is constantly exposed to corrosive elements and abrasive forces, the need for reliable protective coatings cannot...
Post a Comment
Read more

Enhancing Shunt Reactor Performance with Steatite Ceramic Spacers

  In the realm of power distribution and grid management, the role of Shunt Reactors cannot be overstated. These essential devices play a pivotal role in maintaining voltage stability and grid reliability. Behind the scenes, one critical component that often goes unnoticed but is instrumental in ensuring the optimal performance of Shunt Reactors is the humble " Ceramic Spacer ." Among the various materials used for these spacers, steatite ceramic stands out as a preferred choice for its exceptional electrical and thermal properties. Join us as we delve into the world of Shunt Reactors and explore the significant role of steatite ceramic spacers, as well as the reliable ceramic spacer manufacturers that supply them. The Power of Shunt Reactors: Shunt Reactors are a cornerstone of modern electrical grids. They are specifically designed to compensate for capacitive reactive power in the transmission system, ensuring voltage stability and preventing voltage rise during light-loa...
Post a Comment
Read more

Empowering Precision: Unveiling the World of Ceramic Components

Ceramic Spacer: The Unsung Hero of Precision Engineering In the world of precision engineering, where every millimeter counts, ceramic spacers quietly play a crucial role, ensuring the seamless operation of complex systems. These unassuming components, made from various ceramic materials, hold significant importance in maintaining precise spacing and alignment between different elements. In this article, we delve into the versatile world of ceramic spacers, exploring their unique properties, diverse applications, and the invaluable contributions they make to modern industries. Ceramic spacer are specialized components engineered to create consistent gaps and provide electrical insulation between components within an assembly. The choice of ceramic material, such as alumina, zirconia, or steatite, depends on the specific requirements of the application, with each material offering distinct advantages in terms of mechanical strength, thermal resistance, and electrical properties. T...
Post a Comment
Read more