A large language model’s efficiency, performance and scalability can be improved by using a suitable combination of the following strategies.
- Algorithmic improvements One can research and implement novel algorithms specially customized for optimizing LLMs.
- Architecture optimization A model’s architecture should be refined off and on to improve its performance and efficiency — experiment with different architectures, layer configurations, activation function etc.
- Hardware optimization Either use customized hardware or specialized hardware architectures which are optimized for deep learning tasks.
- Parameter tuning There are parameters such as learning rate, batch size, optimizer choice. These can be fine-tuned. It improves training efficiency and convergence speed.
- Quantization One It can reduce the precision of model’s weights and activations so as to decrease memory usage and speed up inference without sacrificing performance.
- Data augmentation A model can use synthetic training data. Or else one can apply techniques like dropout and regularization. It prevents overfitting and improves generation.
- Knowledge distillation A larger model is used to distill knowledge for a smaller model. It reduces the computational complexity.
- Pruning One can reduce redundant or less important connections in the model to shrink its size and computational cost, while preserving its performance.
- Parallelization Distributed computing frameworks are leveraged. Hardware accelerators such as GPUs and TPUs are used. It parallelizes training and inference tasks. It reduces execution time.
- Model compression Several techniques such as low rank factorization, weight sharing, or parameter tying are used to compress the model’s parameters and reduce its memory footprint.