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Nonpooling Convolutional Neural Network Forecasting for Seasonal Time Series With Trends
This study recommends non-pooling convolutional neural networks (CNNs) for analyzing seasonal time series with trends. CNNs effectively extract patterns, but pooling layers can negatively impact performance in forecasting tasks.
Area of Science:
- Machine Learning
- Artificial Intelligence
- Time Series Analysis
Background:
- Automatic processing of non-preprocessed time series is crucial for machine learning.
- Seasonal time series with trends are common in forecasting applications.
- Convolutional Neural Networks (CNNs) are popular for pattern recognition.
Purpose of the Study:
- To investigate the effectiveness of CNNs for analyzing seasonal time series with trends.
- To compare the performance of fully connected neural networks (FNNs), non-pooling CNNs (NPCNNs), and standard CNNs.
- To identify optimal network architectures and parameters for time series forecasting.
Main Methods:
- Experimental analysis using simulated and real time-series data.
- Implementation and comparison of FNN, NPCNN, and CNN models.
- Evaluation of feature extraction capabilities of convolutional and pooling layers.
Main Results:
- Convolutional layers generally improve performance in extracting seasonal and trend patterns.
- Pooling layers were found to introduce negative effects, hindering performance.
- NPCNNs demonstrated superior performance for seasonal time series with trends compared to FNNs and standard CNNs.
Conclusions:
- Non-pooling CNNs are recommended for processing seasonal time-series data with trends.
- The Adam optimizer and ReLU or linear activation functions are suggested for optimal results.
- This research offers an automated approach for building neural networks tailored to seasonal time series with trends.
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