Glass ceramic, low temperature co-fired ceramic material with high bending strength, and preparation method of ceramic material
A technology of low-temperature co-fired ceramics and glass-ceramics, applied in the field of low-temperature co-fired ceramics, can solve problems such as poor flexural strength, and achieve the effects of good microwave electrical properties, improved impact resistance, and high flexural strength
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Embodiment 1
[0041] A low-temperature co-fired ceramic material with high flexural strength, comprising the following components, calculated by weight percentage:
[0042] Glass-ceramic 40%; Aluminum oxide 60%;
[0043] The glass-ceramic includes the following components, calculated by weight percentage:
[0044] Calcium Carbonate 5%; Boric Acid 40%; Magnesium Carbonate 10%;
[0045] Cobalt oxide 15%; Zinc oxide 15%; Silicon oxide 15%.
[0046] A method for preparing a low-temperature co-fired ceramic material with high flexural strength: comprising the following steps:
[0047] S1: Preparation of glass powder
[0048] Take raw materials according to parts by weight: calcium carbonate 5%; boric acid 40%; magnesium carbonate 10%; cobalt oxide 15%; zinc oxide 15%; silicon oxide 15%; The temperature of the crucible is 1350°C, and continue to heat the crucible to 1450°C and melt for 60 minutes, then pour deionized water to quench to obtain glass slag, and perform airflow grinding on the gl...
Embodiment 2
[0052] A low-temperature co-fired ceramic material with high flexural strength, comprising the following components, calculated by weight percentage:
[0053] Glass-ceramic 45%; Aluminum oxide 55%;
[0054] The glass-ceramic includes the following components, calculated by weight percentage:
[0055] Calcium Carbonate 40%; Boric Acid 5%; Magnesium Carbonate 1%;
[0056] Cobalt oxide 1%; Zinc oxide 20%; Silicon oxide 33%.
[0057] A method for preparing a low-temperature co-fired ceramic material with high flexural strength: comprising the following steps:
[0058] S1: Preparation of glass powder
[0059] Raw materials are weighed according to parts by weight: calcium carbonate 40%; boric acid 5%; magnesium carbonate 1%; cobalt oxide 1%; zinc oxide 20%; silicon oxide 33%; The temperature of the crucible is 1350°C, and continue to heat the crucible to 1450°C and melt for 60 minutes, then pour deionized water to quench to obtain glass slag, and perform airflow grinding on the g...
Embodiment 3
[0063] A low-temperature co-fired ceramic material with high flexural strength, comprising the following components, calculated by weight percentage:
[0064] Glass-ceramic 45%; Aluminum oxide 55%;
[0065] The glass-ceramic includes the following components, calculated by weight percentage:
[0066] Calcium Carbonate 21%; Boric Acid 22%; Magnesium Carbonate 5%;
[0067] Cobalt oxide 11%; Zinc oxide 8%; Silicon oxide 33%.
[0068] A method for preparing a low-temperature co-fired ceramic material with high flexural strength: comprising the following steps:
[0069] S1: Preparation of glass powder
[0070] Raw materials are weighed according to parts by weight: calcium carbonate 21%; boric acid 22%; magnesium carbonate 5%; cobalt oxide 11%; zinc oxide 8%; silicon oxide 33%; The temperature of the crucible is 1350°C, and continue to heat the crucible to 1450°C and melt for 60 minutes, then pour deionized water to quench to obtain glass slag, and perform airflow grinding on t...
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Abstract
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