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Time |1𝜇𝑠
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## Results
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After 200 epochs, the accuracy was around 90%, this may be attributed to the ideal conditions of the signal.
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Further improvements can be made by training the data on more unique data such as real signal environments.
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Work could also be done to measure the sensitivity of the neural net and measures its performance over
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different SNR and sweeps rates to study the neural net's limitations and suggest improvements. <br>
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After 200 epochs, the accuracy was around 90%, this may be attributed to the ideal conditions of the input signal. <br>
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The best weights from model training was saved and used to evaluate against a test set of signals with similar conditions. <br>
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The model's performance is optimal. However, there is some attrition in misclassifying a BPSK signal as a CW signal. <br>
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This may be due to the similarities of the two signals in the time-domain. Hence, it is recommended to explore the performance of the model in the frequency domain using FFT. <br>
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## Conclusion
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In conclusion, a neural net to classify the modualtion of the signal is developed.
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Further improvements can be made by training the data on more unique data such as real signal environments.
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Work could also be done to measure the sensitivity of the neural net and measures its performance over
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different SNR and sweeps rates to study the neural net's limitations and suggest improvements. <br>
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