High temperature resistant metamaterial absorbers with large bandwidth and high performance are a promising research field. At present, many reported absorbing materials have the defects of single absorption mechanism and temperature sensitivity, and the main properties of many metamaterial absorbers are not high temperature resistance. In order to expand the performance of high-temperature metamaterials, a metamaterial absorber based on daily ceramics is proposed and verified in this paper. The principle of the absorption band is based on the LSP mode resonance between disk arrays, the SPP mode resonance on the surface of disk arrays, and the dielectric loss of the ceramic substrate itself. The effects of structural parameters, temperature, preparation process and type of ceramic substrate on the absorption properties of the metamaterial were measured. The measurement results show that the metamaterial absorber has obvious temperature stability. The absorption band of the metamaterial can be strengthened by increasing the thickness of the ceramic substrate and the diameter of the disk array. The average value of absorption band is less affected by the preparation technology of daily ceramic substrate. The mean absorption bands obtained based on the four preparation technologies (Chemical vapor deposition, Microwave induced synthesis, Sol-gel method, Carbothermal reduction method) are: 0.861, 0.882,0.857, and 0.842, respectively. The average value of absorption band based on four kinds of daily ceramics (SiC, ZrSiO4, TmFeO3, and ZrSnTiO) are: 0.861, 0.776, 0.908, and 0.857, respectively. In addition, the thermal conductivity and thermal resistance of daily ceramics are important parameters to measure the thermal resonance performance of the ceramic-based metamaterial absorber. The results confirm the effect of ceramic on the thermal conductivities (thermal response current, thermal resistance and thermal conductivity). Therefore, the proposed daily ceramic-based metamaterial absorber has the following advantages: absorption is temperature-independent, and the high temperature metamaterial is capable of excellent heat conductivity.