Ceramic non-stick frying pan
A technology of non-stick pans and ceramics, which is applied to special materials for cooking utensils, cooking utensils, and household utensils. Non-stick function, good chemical stability and hot and cold rapid change performance, the effect of simple production process
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Embodiment 1
[0017] Embodiment 1: As shown in the accompanying drawings, the ceramic non-stick pan according to the present invention includes an inner pan body 1, an outer pan body 3 and an intermediate transition layer 2, and the intermediate transition layer 2 is arranged on the inner pan body 1 and the inner pan body. Between the outer pot body 3; the inner pot body 1 contains dense capillary pores, the pore diameter of which is 0.1-100.0 microns; the composition of the inner pot body 1 is ceramic mud; the composition of the outer pot body 3 It is metal-ceramic mud, and the composition of the intermediate transition layer 2 is a mixture of the ceramic mud and metal-ceramic mud.
[0018] The intermediate transition layer 2 includes the following components, and the weight percentages of each component are: 30% of ceramic mud and 70% of cermet mud; wherein the ceramic mud is the same as that used for the inner pot body 1. The metal-ceramic mud material is the same as the metal-ceramic mu...
Embodiment 2
[0022] Embodiment 2: It is basically the same as Embodiment 1, except that the intermediate transition layer 2 includes the following components, 70% of pottery mud and 30% of cermet mud.
[0023] The pottery mud material includes the following components, and the weight percentages of each component are: 50% of granular barren material, 49.8% of pottery clay, and 0.2% of pore-forming agent; wherein the granular barren material is quartz, corundum, Mo A mixture of stone-like granular materials; the pore-forming agent is calcium carbonate.
[0024] The cermet mud material includes the following components, and the weight percentages of each component are: 30% of metal powder, 4% of granular barren material, and 66% of pottery clay; wherein the metal powder is preferably iron powder and copper powder, and the particle size is ≤200 mesh ; The granular barren material is a mixture of quartz and corundum granular materials.
Embodiment 3
[0025] Embodiment 3: It is basically the same as Embodiment 1, except that the intermediate transition layer 2 includes the following components, 50% of pottery mud and 50% of cermet mud.
[0026] The pottery mud includes the following components, and the weight percentages of each component are: 15% of granular barren material, 84.5% of pottery clay, and 0.5% of pore-forming agent; wherein the granular barren material is quartz, corundum, Mo A mixture of lithic and cordierite granular materials, the particle size of the granular barren material is ≤150 mesh; the pore-forming agent is carbon powder.
[0027] The cermet mud material includes the following components, and the weight percentages of each component are: 15% metal powder, 10% granular barren material, and 75% pottery clay; wherein the metal powder is iron powder, copper powder and other metal powder, and the particle size is ≤200 mesh; the granular barren material is a mixture of quartz, corundum, and mullite granul...
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Abstract
Description
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