Acta Optica Sinica, Volume. 44, Issue 20, 2023001(2024)
Electromagnetic‒Thermal Splitter Based on Double-Physical-Field Null Space Medium
Fig. 1. Schematic of electromagnetic‒thermal beam splitter applied in on-chip systems
Fig. 2. Simulation results. (a) Cross-sectional view of the magnetic field z-component distribution when a TM-polarized plane wave at 9 GHz frequency is incident on the electromagnetic‒thermal beam splitter; (b) cross-sectional view of the temperature field distribution when heat flux is incident on the electromagnetic‒thermal beam splitter from left to right
Fig. 3. Sections of z-component magnetic field distribution when TM-polarized plane wave is incident on the electromagnetic‒thermal beam splitter. (a) M=24, N=24; (b) M=29, N=19; (c) M=34, N=14
Fig. 4. Sections of temperature field distribution when heat flux is incident on the electromagnetic‒thermal beam splitter from left to right. (a) M=24, N=24; (b) M=29, N=19; (c) M=34, N=14
Fig. 5. Experimental environment and device diagram. (a) Schematic of experimental measurement environment of electromagnetic‒thermal beam splitter; (b) experimental device for beam splitting test of electromagnetic wave; (c) experimental device for beam splitting test of heat flow
Fig. 6. Curve of normalized magnetic field amplitude obtained from vector network analyzer
Fig. 7. Temperature field distribution recorded by thermal infrared camera. (a) t=1 min; (b) t=10 min; (c) t=20 min; (d) t=40 min
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Shaojie Chen, Fei Sun, Yichao Liu, Hanchuan Chen, Yawen Qi. Electromagnetic‒Thermal Splitter Based on Double-Physical-Field Null Space Medium[J]. Acta Optica Sinica, 2024, 44(20): 2023001
Category: Optical Devices
Received: Apr. 18, 2024
Accepted: May. 28, 2024
Published Online: Oct. 12, 2024
The Author Email: Sun Fei (sunfei@tyut.edu.cn)
CSTR:32393.14.AOS240867