利用在石英基板上制作的非磁性加热芯片控制原子气室的温度

Ming Shi, Weimin Zhang, Ling Wang, Fan Zhang, Jin Hou, Chunyong Yang
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摘要

开发了在石英基板上制作的非磁性电加热和温度传感芯片,并基于该芯片设计了高精度数字温度控制系统。通过磁场消除设计,在石英基板上沉积两层 Ti/Pt 合金电极,制备出加热电阻和温度传感电阻。制备的钛/铂温度传感电阻的温度系数为 +0.197%/℃。仿真结果表明,在紧邻芯片的原子气室中,加热电流产生的残余磁场小于 0.1nT。实现了 100~150℃ 范围内的温度控制,温度稳定性约为 0.02℃。由于石英玻璃的高透光率,这种加热芯片在原子磁强计的光学集成和微型化方面具有显著优势。
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Temperature control of atomic gas chamber using a non magnetic heating chip fabricated on quartz substrate
Nonmagnetic electrical heating and temperature sensing chip fabricated on quartz substrate is developed, and a high-precision digital temperature control system is designed based on this chip. The heating resistance and temperature sensing resistance are prepared by depositing two layers of Ti/Pt alloy electrodes on quartz substrate through magnetic field cancellation design. The temperature coefficient of fabricated Ti/Pt temperature sensing resistance is +0.197%/℃. The simulation results show that the residual magnetic field generated by the heating current in the atomic gas chamber closely adjacent to the chip is less than 0.1nT. Temperature control in the range of 100~150℃ is realized, and the temperature stability is about 0.02℃. Due to the high light transmittance of quartz glass, this heating chip has significant advantages for optical integration and miniaturization of atomic magnetometers.
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