On predicting large scale fading characteristics with the MR-FDPF method

The MR-FDPF (Multi-Resolution Frequency Domain Partial Flow) method is proven to be a fast and efficient method to simulate radio wave propagation. It is a deterministic model which can provide an accurate radio coverage prediction. In reality, radio channels have the nature of randomness due to e.g...

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Hauptverfasser: Meiling Luo, Lebedev, N., Villemaud, G., de la Roche, G., Jie Zhang, Gorce, J.
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Lebedev, N.
Villemaud, G.
de la Roche, G.
Jie Zhang
Gorce, J.
description The MR-FDPF (Multi-Resolution Frequency Domain Partial Flow) method is proven to be a fast and efficient method to simulate radio wave propagation. It is a deterministic model which can provide an accurate radio coverage prediction. In reality, radio channels have the nature of randomness due to e.g. moving people or air flow. Thus they can not be rigorously simulated by a pure deterministic model. However, it is believed that some statistics can be extracted from deterministic models and these statistics can be very useful to describe radio channels in reality. In this paper, large scale fading statistical characteristics are extracted based on the MR-FDPF method. They are validated by comparison to both the theoretical result and measurement. The match also demonstrates that MR-FDPF is capable of simulating large scale fading.
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subjects Atmospheric modeling
Channel models
Fading
Frequency measurement
Loss measurement
Receivers
Shadow mapping
title On predicting large scale fading characteristics with the MR-FDPF method
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