LF type | Year | Technical approach | Contribution | Challenges |
---|---|---|---|---|
STLF | 2022 | Hybrid method consisting of Prophet model, ARIMA (Autoregressive Integrated Moving Average) model, and LSTM model, and BPNN (Back Propagation Neural Network) [164] | Overcomes different technical gaps of load forecasting with low computational time and fast convergence | 1. Complex calculation 2. High Calculation time 3. Expensive 4. Insufficient data 5. Clustering of data 6. Management of structured and unstructured data |
Extreme Gradient Boosting (XGBoost) [165] | Forecasts loads specifically for warehouses and logistics consumption | |||
Enhanced decision tree classifier (EDTC) [166] | Accurate prediction of the stability of the smart grid | |||
Mix-up and transfer learning [167] | A reliable model for load forecasting designed for new houses | |||
Integrated CEEMDAN-IGOA-LSTM (Complete Ensemble Empirical Mode Decomposition With Adaptive Noise, Improved Grasshopper Optimization Algorithm, and Long Short-Term Memory Network) [168] | Aggregates different data techniques to effectively forecast load | |||
2021 | CNN, RNN [169] | Works quickly and smoothly in noisy systems | ||
Asynchronous Deep Deterministic Policy Gradient (ADDPG) Adaptive Early Forecasting (AEF) Reward Incentive Mechanism (RIM) model [170] | Solves the problem of excessive temporal connection and high convergence instability | |||
Integrated CNN and LSTM Network [171] | Highly precise and accurate STLF which can analyze long sequence time-series data of electric load | |||
2020 | LSTM, Reinforcement learning, DQN, BPNN [172] | Similar day identification and selection based on reinforcement learning on BPNN | ||
RBN, MI-ANN, Genetic Wind Driven Optimization (GWDO) [173] | Load forecasting for linear and non-linear power systems | |||
Singular Spectrum Analysis(SSA), Fuzzy ARTMAP, Neuro-fuzzy, BP [174] | Reducing the cost of computational energy and data requirements | |||
Ensemble Empirical Mode Decomposition(EEMD), Multivariable Linear Regression(MLR) [175] | Analyzing large datasets for electric load | |||
Kalman Filtering, Clustering techniques, Weightless Neural Network (WNN) [176] | Use of different clustering techniques to cluster load forecasting data | |||
ELM, Genetic Algorithm, Support Vector Machine, XBoost, decision Tree [177] | Tuning hyper parameter and extracting features for load forecasting | |||
2019 | BP, LSTM, CNN [178] | Using LTSM and CNN for coupling electric load | ||
XG-Boost, Decision Tree, Support Vector Regression (SVR) BP, CNN [179] | Predicting load forecasting within the price of electricity | |||
WaveNet, CNN, BP, LSTM [180] | Improving performance of different error detection of load forecasting | |||
LSTM, Ensemble learning, Quantile forecasting, Quantile method, ENN, Parallel computing [181] | Diminishing the need for feature extraction in load forecasting | |||
Unsupervised Learning, BP, Auto Encoders, Denoising Autoencoders [182] | Error reduction for unsupervised load forecasting | |||
Dropout technique, Fuzzy logic, CNN [183] | Feature extraction improvement with high accuracy and the over-fitting issue resolved | |||
WaveNet, CNN, BP, LSTM [180] | Improving performance of different error detection of load forecasting | |||
2018 | SVR, Auto Encoders, Denoising Autoencoders [161] | Achieving high features of load forecasting from lower-level datasets |