波长在1微米或以下的光探测(会议简报)

M. Woodson, S. Estrella, Kenneth A. Hay, Angsuman Roy, K. Sun, J. Morgan, A. Beling, R. J. Baker, D. Renner, M. Mashanovitch
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引用次数: 0

摘要

1微米的链路比更长的波长链路具有关键优势。超稳定、低噪声Nd:YAG激光器和高功率效率、温度稳定的GaAs激光器都工作在波长约1微米的地方。这些组件对于量子光学系统和需要在宽温度范围内保持稳定性的链路特别有益,例如航空电子设备。然而,在这些1微米光子链路中缺少的关键组件是具有高线性度和高量子效率的大功率光电二极管接收器。自由光电公司和弗吉尼亚大学合作开发了满足这一需求的光电二极管。该光电探测器基于优化的垂直照明改进单行载流子光电二极管技术。我们报告了在1064 nm处量子效率超过80%的器件,直径为20 μ m的器件具有28 GHz的3db带宽。相同的器件尺寸处理非常高的功率,在64毫安光电流下具有>16 dBm RF功率的1 db压缩。这些光电二极管对光子链路的峰值性能有重要影响,支持高链路增益和大带宽。此外,这些器件的高线性度最大限度地降低了噪声和信号失真,最大化了无杂散动态范围(SFDR)。这是第一批这种类型的光电二极管,已经封装并商业化用于这个目标波长。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Photodetection at or below 1 micron wavelengths (Conference Presentation)
Links at 1 micron offer key advantages over longer wavelength links. Both ultra-stable, low noise Nd:YAG lasers and high power efficiency, temperature-stable GaAs lasers operate at wavelengths around 1 micron. These components are particularly beneficial for quantum optical systems and links which require stability over a wide range of temperatures, such as are required in avionics. However, a key component missing in these 1 micron photonic links is a high-power photodiode receiver with high linearity and high quantum efficiency. Freedom Photonics and the University of Virginia have collaborated to develop photodiodes which fill this need. The photodetectors are based on an optimized vertically illuminated modified uni-traveling carrier (MUTC) photodiode technology. We report devices with quantum efficiencies in excess of 80% at 1064 nm, with a 3-dB bandwidth of 28 GHz, for a 20µm diameter device. The same device size handles very high power, with a 1-dB compression of >16 dBm RF power at a 64-mA photocurrent. These photodiodes have a major impact on peak performance of a photonic link, supporting high link gain and large bandwidths. Additionally, the high linearity of these devices minimizes noise and signal distortion, maximizing spurious-free dynamic range (SFDR). These are the first photodiodes of this type which have been packaged and made commercially available for this target wavelength.
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