LSTM Resurgence: 122 Innovations Surveyed in Four Categories
This survey reviews 122 LSTM innovations categorized into internal modifications, structural enhancements, mechanism fusions, and emerging architecture combinations, highlighting achievements like 20x molecular activity improvement in drug discovery and 40% inference speed gains, demonstrating LSTM's continued relevance due to simplicity, robustness, and low resource demands.
LSTM Resurgence and Survey Overview
LSTM models have regained prominence with a recent publication in a Nature sub-journal. Researchers introduced the CLM model, which builds on LSTM and adjusts the data feeding order, achieving a 20-fold improvement in molecular activity for drug optimization tasks. Additional advances presented at CVPR and ICLR include CS-LSTMs, which boost inference speed by 40%, and the LSTM-DLN architecture, which surpasses state-of-the-art performance. Since its inception, LSTM has accumulated over 100,000 citations. Compared to Transformers, LSTM remains simpler, more robust, and requires less computational resources and data, making it indispensable in domains such as medicine and finance.
Module 1: Internal Modification (7 Papers)
This module focuses on optimizing the internal cell structure to address LSTM performance and efficiency issues. Key variants include xLSTM (developed by the original LSTM authors), Vision-LSTM, Bi-LSTM, and coupled LSTM.
Module 2: Structural Enhancement (50 Papers)
This module addresses LSTM's limitations in single-modality and dependency modeling by combining LSTM with other architectures. Eight combination categories are identified: LSTM+Transformer, LSTM+Attention, LSTM+CNN+Attention, LSTM+Mamba, LSTM+CNN, and others.
Module 3: Mechanism Fusion (38 Papers)
This module tackles data quality and quantity issues by fusing LSTM with complementary mechanisms. The primary fusions involve LSTM with GAN, Kalman filter, reinforcement learning, and Bayesian methods.
Module 4: Emerging Architecture Combination (27 Papers)
This module addresses LSTM's interpretability and domain adaptation challenges by integrating with emerging architectures. Specific combinations include LSTM with KAN (Kolmogorov-Arnold Networks), PINN (Physics-Informed Neural Networks), and transfer learning.
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