Five-volt vertically-stacked, single-cell GaAs photonic power converter

C. Valdivia, M. Wilkins, B. Bouzazi, A. Jaouad, V. Aimez, R. Arès, D. Masson, S. Fafard, K. Hinzer
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引用次数: 36

Abstract

The high-efficiency conversion of photonic power into electrical power is of broad-range applicability to many industries due to its electrical isolation from the surrounding environment and immunity to electromagnetic interference which affects the performance and reliability of sensitive electronics. A photonic power converter, or phototransducer, can absorb several watts of infrared laser power transmitted through a multimode fiber and convert this to electrical power for remote use. To convert this power into a useful voltage, we have designed, simulated, and fabricated a photovoltaic phototransducer that generates >5 V using a monolithic, lattice-matched, vertically-stacked, single-cell device that eliminates complex fabrication and assembly steps. Experimental measurements have demonstrated a conversion efficiency of up to 60.1% under illumination of ~11 W/cm2 at a wavelength of 835 nm, while simulations indicate that efficiencies reaching 70% should be realistically achievable using this novel design.
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五伏垂直堆叠,单电池砷化镓光子功率转换器
光能高效转换为电能,可与周围环境隔离,不受影响敏感电子设备性能和可靠性的电磁干扰的影响,在许多行业具有广泛的适用性。光子功率转换器或光换能器可以吸收通过多模光纤传输的几瓦红外激光功率,并将其转换为电能以供远程使用。为了将这种功率转换为有用的电压,我们设计、模拟和制造了一个光伏光电换能器,该换能器使用单片、晶格匹配、垂直堆叠的单细胞器件,消除了复杂的制造和组装步骤,产生>5 V。实验测量表明,在835 nm波长~11 W/cm2的照明下,转换效率可达60.1%,而模拟表明,使用这种新设计,效率可达到70%。
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