Skip to main content

Excellent Characteristics of Zirconia Ceramic Teeth

Little radiation

Medical zirconia is cleaned and processed, leaving a small amount of alpha ray residue in zirconium, which penetrates to a small depth of only 60 microns.

High density, high strength, metal-free inner crown

Zirconia has unique resistance to cracking and strong curing performance after cracking. It can be used to make more than 6 units of ceramic bridges.

Although there is no metal support, it has high strength, and its refractive index is basically close to that of natural teeth, with dense edges and high precision, and has excellent aesthetic effects:

Zirconia ceramics are usually yttrium-stabilized zirconia ceramics with high flexural strength.

Compared with other all-ceramic restoration materials, the strength advantage of zirconium dioxide material allows doctors not to rub the patient's real teeth too much.

Excellent aesthetic effect

Zirconia all-ceramic teeth have a realistic and beautiful appearance, solid and wear-resistant, similar in color to natural teeth, have good biocompatibility, are not irritating oral tissues, and are easy to clean.

Zirconia all-ceramic teeth have good transparency and refractive properties, and no black lines will appear on the neck of the tooth, so that the neck can also achieve good aesthetic effects, which is unmatched by ordinary ceramic teeth.

High reliability

When in contact with air, water or any other electrolyte, a micro-oxidation film will be quickly generated, which not only avoids metal corrosion, but also prevents metal peculiar smell.

In addition, non-metal zirconia has no obstruction to the X-ray. As long as it is set with ceramic teeth, it will not be necessary to remove the denture when performing skull X-ray, CT, and MRI examinations, which saves a lot of trouble.

Good biocompatibility

Zirconium dioxide is an excellent high-tech biomaterial with good biocompatibility and is superior to various metal alloys, including gold.

Zirconium dioxide has no irritation and no allergic reaction to the gums and is very suitable for use in the oral cavity, avoiding allergic, irritating, corrosion and other adverse reactions caused by the metal in the oral cavity.

High quality

Zirconium dioxide all-ceramic teeth are manufactured by using today's advanced computer-aided design, laser scanning, and controlled grinding by computer programs.

It guarantees the accuracy of the intra-mold crown and excellent edge tightness, so that the ceramic teeth made fit the patient's abutment, which greatly reduces the incidence of root inflammation after repair. 

Conclusion

In general, ceramic teeth made of zirconia materials are currently excellent domestic and international ceramic teeth, and the material itself has no shortcomings.

Comments

Popular posts from this blog

Boron Nitride Ceramic Properties

Boron nitride is a white solid ceramic material, with a nickname of "white graphite" because of its similar appearance and structure. Boron nitride ceramic is an excellent material which has low porosity, good thermal conductivity, low dielectric constant and superior dielectric strength. It is easily machined into complex shapes, and then ready for use without additional heat-treating or firing operations. Boron nitride has a variety of different variants: hexagonal boron nitride (h-BN), rhombohedral boron nitride (r-BN), cubic boron nitride (c-BN) and wurtzite boron nitride (w-BN). The most commonly used in the industry are h-BN and c-BN. H-BN & C-BN Hexagonal boron nitride, abbreviated as hBN, is an electron body having a layered structure similar to graphite. It has good lubricity, electrical insulation, thermal conductivity, and chemical resistance, and also has the ability to absorb neutrons. It is made of nitrogen (such as urea, melamine, etc.) and boron (b

Is Hexagonal Boron Nitride Right for Thermal Management? A Detailed Review

Introduction Thermal management  is a critical concern in various industries, from electronics and aerospace to automotive and energy. The increasing demand for high-performance devices and systems has accentuated the need for effective heat-dissipation materials. Hexagonal boron nitride (h-BN) has emerged as a promising candidate to address the challenge of thermal management. In this detailed review, we assess whether h-BN is the ideal choice for thermal management applications. Importance of Thermal Management Effective thermal management is essential to ensure the longevity and performance of electronic components and systems. Overheating can lead to device failure, reduced efficiency, and safety concerns. Customers seek materials that can efficiently conduct and dissipate heat in various applications. Hexagonal Boron Nitride (h-BN): An Overview Hexagonal boron nitride  is a synthetic, non-metallic material with exceptional thermal properties. It possesses a hexagonal crystal latti

Temperature Tolerance of Various Advanced Ceramic Materials: Paving the Way for High-Performance Applications

In the realm of materials science, the quest for materials that can withstand extreme temperatures without compromising their structural integrity or performance has led to significant advancements in advanced ceramics. These materials, known for their exceptional thermal, mechanical, and chemical properties, are pivotal in industries ranging from aerospace to energy production, where high-temperature environments are commonplace. This article explores the temperature tolerance of various advanced ceramic materials, shedding light on their applications and the future of high-temperature technologies. Silicon Carbide (SiC) Silicon Carbide stands out for its exceptional thermal conductivity and stability, with a temperature tolerance that can exceed 2,500°C in non-oxidizing environments. Its remarkable resistance to thermal shock and wear makes SiC an ideal material for components in jet engines, gas turbines, and even as protective shields in space exploration vehicles. The material