A novel flexible wear-resistant ceramic material and its preparation method

A wear-resistant ceramic and wear-resistant aggregate technology, applied in the field of non-metal wear-resistant materials

Inactive Publication Date: 2011-12-14
HENAN ZHONGLONG TECH
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0002] Non-metallic wear-resistant ceramic materials can be applied on metal surfaces as wear-resistant and heat-resistant layers. At present, "hydration bonding method" is commonly used to produce non-metallic wear-resistant ceramic materials , this method usually uses cement and water to mix at room temperature, and then mixes the mixture of cement and water with aggregate, micropowder, dispersant, and steel fibers in the wear-resistant ceramic material to produce a wear-resistant ceramic material with a certain strength. , the wear-resistant ceramic material produced by this method has high porosity, is not resistant to high temperature, and the compressive strength and refractoriness decrease. Due to the evaporation of water, a large number of pores appear on the surface of the ceramic material, which affects the appearance and reduces the density, wastes water resources, and increases production costs. , labor-intensive

Method used

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Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0029] A preparation method of a novel flexible wear-resistant ceramic material, the steps are as follows:

[0030] Step 1: Add 30% of sintered magnesia with a particle size of 5mm, 68% of quartz sand with a particle size of 3mm, and 2% of corundum with a particle size of 3mm by weight percentage, mix evenly, and prepare a wear-resistant aggregate for future use;

[0031] Step 2: Add 26% of fine powder magnesia with a particle diameter of 0.9mm and 74% of quartz sand with a particle diameter of 0.9mm by weight percentage, mix evenly, and prepare wear-resistant fine powder for subsequent use;

[0032] Step 3: Stir the wear-resistant aggregate, wear-resistant fine powder and ceramic fiber for 20 minutes, then add waste sulfite pulp, and continue stirring for 10 minutes to obtain a wear-resistant ceramic material;

[0033] The wear-resistant ceramic material is composed of wear-resistant aggregate, wear-resistant fine powder, ceramic fiber and sulfite pulp waste liquid, and each ...

Embodiment 2

[0035] A preparation method of a novel flexible wear-resistant ceramic material, the steps are as follows:

[0036] Step 1: Add 35% of sintered magnesia with a particle size of 6mm, 61% of quartz sand with a particle size of 4mm and 4% of corundum with a particle size of 3mm by weight percentage, mix evenly, and prepare wear-resistant aggregates for subsequent use;

[0037] Step 2: Add 28% of fine powder magnesia with a particle diameter of 1.0mm and 72% of quartz sand with a particle diameter of 1.0mm by weight percentage, mix evenly, and prepare a wear-resistant fine powder for subsequent use;

[0038] Step 3: Stir the wear-resistant aggregate, wear-resistant fine powder and ceramic fiber for 21 minutes, then add ethyl silicate, and continue stirring for 11 minutes to obtain a wear-resistant ceramic material;

[0039] The wear-resistant ceramic material is composed of wear-resistant aggregate, wear-resistant fine powder, ceramic fiber and sulfite pulp waste liquid, and each ...

Embodiment 3

[0041] A preparation method of a novel flexible wear-resistant ceramic material, the steps are as follows:

[0042] Step 1: Add 40% of sintered magnesia with a particle size of 7mm, 56% of quartz sand with a particle size of 5mm, and 4% of corundum with a particle size of ≤3mm by weight percentage, mix evenly, and prepare a wear-resistant aggregate for use;

[0043] Step 2: adding 30% of fine powder magnesia with a particle diameter of 1.1mm and 70% of 1.1mm in particle diameter by weight percentage, mixing evenly to obtain a wear-resistant fine powder, which is set aside;

[0044] Step 3: Stir the wear-resistant aggregate, wear-resistant fine powder and ceramic fiber for 22 minutes, then add phenolic resin, and continue stirring for 10-15 minutes to obtain a wear-resistant ceramic material;

[0045] The wear-resistant ceramic material is composed of wear-resistant aggregate, wear-resistant fine powder, ceramic fiber and sulfite pulp waste liquid. The raw materials are added w...

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Abstract

The invention relates to a flexible wear resistant ceramic material and its preparation method. Raw materials of the ceramic material provided by the invention comprise a wear resistant aggregate, a wear resistant fine powder, ceramic fibers and a binder. The preparation method provided by the invention comprises the following steps of: mixing sintered magnesia, quartz sand and corundum to prepare the wear resistant aggregate, mixing fine magnesia sand and quartz sand to prepare the wear resistant fine powder, mixing the wear resistant aggregate, the wear resistant fine powder and the ceramic fiber, adding the binder, and mixing again to prepare the wear resistant ceramic material. In the absence of water and in the presence of cement, bonding, polymerization or condensation of the wear resistant material, the ceramic material and the binder is successively carried out to form the flexible wear resistant ceramic material with high temperature resistance, wear resistant and high strength resistance. The preparation method is simple and convenient; the wear resistant ceramic material prepared has low porosity, beautiful appearance and high density; by the utilization of the wear resistant ceramic material, water resources are saved, the production cost is reduced and the consumption of labor force is minimized; the raw materials are low in price, are convenient to purchase, and have abundant sources.

Description

technical field [0001] The invention relates to a non-metal wear-resistant material, in particular to a novel flexible wear-resistant ceramic material and a preparation method thereof. technical background [0002] Non-metal wear-resistant ceramic materials can be applied on the metal surface as a wear-resistant and heat-resistant layer. At present, the "hydration bonding method" is commonly used to produce non-metal wear-resistant ceramic materials. This method usually uses cement and water to mix at room temperature, and then The mixture of cement and water is mixed with the aggregate, micropowder, dispersant and steel fiber in the wear-resistant ceramic material to produce a wear-resistant ceramic material with a certain strength. The wear-resistant ceramic material produced by this method has a high porosity and is not High temperature resistance, compressive strength and refractoriness decrease, and a large number of pores appear on the surface of ceramic materials due ...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): C04B35/14C04B35/622
Inventor 郭建伟葛中伟郭翰孔松涛孔占霞刘涛张志强
Owner HENAN ZHONGLONG TECH
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