Double-metal material knockout wear-resistant lining plate as well as chemical composition and processing method thereof
A technology of wear-resistant liner and processing method, which is applied in the field of wear-resistant liner, can solve the problems of difficult material selection, unsatisfactory, and insignificant effect of chute liner, and achieve the goal of not reducing hardness, enhancing stability, and prolonging service life. Effect
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0023] Example 1. The chemical composition of a bimetallic wear-resistant lining plate. In terms of weight percentage, the chemical composition of the lower plate body 2 includes: carbon 0.3%, silicon 0.5%, manganese 0.9%, sulfur 0.01%, phosphorus 0.01%, 0.5% chromium, and the rest is iron; by weight percentage, the chemical composition of the upper plate body 1 includes: carbon 2.0%, silicon 1.0%, manganese 1.8%, chromium 23.0%, molybdenum 2.7%, nickel 2.2%, copper 1.8%, sulfur 0.04%, phosphorus 0.08%, tungsten 0.7%, vanadium 0.1%, and the rest is iron.
[0024] The processing method of the wear-resistant liner in this embodiment includes the following steps:
[0025] a, material preparation: according to the above weight percentage, prepare the various chemical components required for the upper plate body 1 to be smelted into the upper plate body molten iron and the various chemical components required for the lower plate body 2 to be smelted into the lower plate body molten...
Embodiment 2
[0029] Example 2. The chemical composition of a bimetallic wear-resistant lining plate. In terms of weight percentage, the chemical composition of the lower plate body 2 includes: carbon 0.4%, silicon 0.75%, manganese 1.2%, sulfur 0.03%, phosphorus 0.03%, 0.8% chromium, and the rest is iron; by weight percentage, the chemical composition of the upper plate body 1 includes: carbon 3.3%, silicon 1.2%, manganese 2.0%, chromium 30.0%, molybdenum 3.0%, nickel 2.5%, copper 2.0%, sulfur 0.06%, phosphorus 0.10%, tungsten 1.0%, vanadium 0.2%, and the rest is iron.
[0030] The processing method of the wear-resistant liner in this embodiment includes the following steps:
[0031] a, material preparation: according to the above weight percentage, prepare the various chemical components required for the upper plate body 1 to be smelted into the upper plate body molten iron and the various chemical components required for the lower plate body 2 to be smelted into the lower plate body molte...
Embodiment 3
[0035] Example 3. The chemical composition of a bimetallic wear-resistant liner. In terms of weight percentage, the chemical composition of the lower plate body 2 includes: carbon 0.35%, silicon 0.6%, manganese 1.0%, sulfur 0.02%, phosphorus 0.02%, 0.7% chromium, and the rest is iron; by weight percentage, the chemical composition of the upper plate body 1 includes: carbon 2.6%, silicon 1.1%, manganese 1.9%, chromium 26.0%, molybdenum 2.8%, nickel 2.4%, copper 1.9%, sulfur 0.05%, phosphorus 0.09%, tungsten 0.9%, vanadium 0.15%, and the rest is iron.
[0036] The processing method of the wear-resistant liner in this embodiment includes the following steps:
[0037] a, material preparation: according to the above weight percentage, prepare the various chemical components required for the upper plate body 1 to be smelted into the upper plate body molten iron and the various chemical components required for the lower plate body 2 to be smelted into the lower plate body molten iron...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 