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AF/AFRL perspective on RF photonics

机译:AF / AFRL对RF光子学的看法

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The integration of radio frequency (RF) photonic components into Air Force receiver and transmitter systems has become more prevalent over the past decade as the requirement for improvements to cost-size-weight and power (CSWAP) are realistic technology challenges to defense systems. Examples of such hybrid architectures forge a novel trade space where performance becomes relevant to the proof-of-concept subsystem and the eventual prototype defense system demonstration. [1, 2, 3] Where photonics technology has made significant strides in military/aerospace systems is in the implementation of an RF fiber link to capture octaves of bandwidth with minimal transmission loss, and in precision reference oscillators which provide pico-second accuracy for wide bandwidth sampling and complex waveform synthesis. This paper will first describe the challenges of characterizing signals within a dense RF spectrum related to key receiver and transmitter parameters such as spur-free dynamic range and instantaneous dynamic range and then provide examples of the enabling photonics technologies and how they can be inserted into a receiver and/or waveform synthesis architecture. Comparison to trends of relevant commercially available electronic components to these RF photonic places perspective on where photonics can make an impact to future defense systems.
机译:在过去的十年中,将射频(RF)光子组件集成到空军接收器和发射器系统中变得越来越普遍,因为对成本尺寸重量和功率(CSWAP)的改进要求是防御系统面临的现实技术挑战。此类混合体系结构的示例建立了一个新颖的交易空间,其中性能与概念验证子系统和最终的原型防御系统演示相关。 [1,2,3]光子学技术在军事/航空系统中取得长足进步的地方是实现RF光纤链路以最小的传输损耗捕获带宽的八度音程,以及在实现皮秒精度的精密基准振荡器中。宽带采样和复杂的波形合成。本文将首先描述在密集RF频谱中表征与关键接收器和发射器参数(例如无杂散动态范围和瞬时动态范围)相关的信号所面临的挑战,然后提供使能光子学技术及其如何插入到光子学中的示例。接收器和/或波形合成架构。将这些射频光子与相关的商用电子组件的趋势进行比较,就可以看出光子在哪些方面会对未来的防御系统产生影响。

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