Abstract
This paper presents the research work involved in the development of a knowledge-based framework for the design of millimeter-wave 60 GHz radio over fiber (RoF) land networks. It combines object-oriented, rule-based, technical information, and procedural functions to support engineers in the conceptual and preliminary design of a network. The overall framework is organized in two main modules: the first module is a tutorial of the terminology and basic principles in the design of RoF networks. The second module is a design assistant system that requests input data from the user about the functional network requirements and its prioritized figures of merit. The proposed design assistant is capable of providing support on the major activities of the 60 GHz RoF land network design such as downlink and uplink channel assignment and network clustering, wavelength allocation, optical link design, and network integration. The assistant is user interactive through the implementation of a graphical user interface. To illustrate the validation of such framework, we present a case of study of a network design with specific requirements.
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Appendix 1: Calculation of effective gain of an optical amplifier
Appendix 1: Calculation of effective gain of an optical amplifier
The signal-to-noise ratio (SNR) at the output of the PD can be expressed in terms of the PD responsivity, R, the received optical power, \(P_{\text {RX}}\), and the power of the noise, \(P_{\text {N}}\), according to the next expression:
\(P_{\text {RX}}\) in turn, depends on the transmitted power \(P_{\text {T}}\) at the output of the CS, the gain of the optical amplifier. \(G_{\text {OA}}\), and the losses in the span from CS to BS, which can be divided in two distances: from CS to the optical amplifier and from the amplifier to the BS, \(L_1\) and \(L_2\), respectively:
On the other hand, noise has two contributions: the noise of the PD, and the noise induced by the ASE of the optical amplifier. Consequently, \(P_{\text {N}}\) can be written as:
Assuming that the power of the ASE noise is much lower than the amplified signal power, the noise added by the amplifier appears as a beating term between the signal and the ASE noise:
where \(P_{\text {ASE}}\) stands for the ASE noise given by:
with the product \(\hbar \cdot \omega \) representing the energy of each photon, \(n_{\text {sp}}\), the spontaneous emission factor, and \(\Delta \nu _{\text {opt}}\) the bandwidth of the optical signal. \(n_{\text {sp}}\) can be written in terms of the amplifier noise factor (NF) as:
whereas \(\Delta \nu _{\text {opt}}\) is related to the signal RF bandwidth, BW, through:
Hence, \(P_{\text {ASE}}\) can be rewritten as:
Therefore, combining Eqs. 7–10 and Eq. 14, the SNR acquires the form of:
It is possible to define an effective amplifier gain, \(G_{\text {eff}}\), that account for the SNR penalty induced by the ASE noise. The SNR in terms of \(G_{\text {eff}}\) can be written as:
Equaling Eqs. 15 and 16, we get an expression for the \(G_{\text {eff}}\):
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Beas, J., Castañón, G., Orozco, F. et al. Knowledge-based framework for the design of millimeter-wave (60 GHz) radio over fiber land networks. Photon Netw Commun 30, 234–260 (2015). https://doi.org/10.1007/s11107-015-0514-2
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DOI: https://doi.org/10.1007/s11107-015-0514-2