Scalable Sequence Modeling Advances

The field of sequence modeling is witnessing significant advancements, with a focus on scalability and efficient architectures. Researchers are exploring alternatives to traditional Transformer architectures, such as state-based models, to achieve linear complexity and greater expressive power. Innovations in token-parameter interactions, progressive model scaling, and synthetic data generation are enabling sequence models to handle longer contexts and more complex tasks. Notably, novel approaches are being developed to improve the robustness and efficiency of language models, including the use of hierarchical synthetic data generation and rotary position embeddings.

Noteworthy papers include:

  • Millions of States, which introduces a novel extension to RWKV-7 that enables token-parameter interactions and scalable architectures.
  • SWAN-GPT, which presents a decoder-only Transformer architecture that robustly generalizes to sequence lengths substantially longer than those seen during training.
  • Scaling Instruction-Tuned LLMs, which introduces a post-training synthetic data generation strategy to efficiently extend the context window of LLMs.
  • It's All Connected, which reconceptualizes neural architectures as associative memory modules and presents a general framework to design deep learning architectures based on four key choices.

Sources

Millions of States: Designing a Scalable MoE Architecture with RWKV-7 Meta-learner

SWAN-GPT: An Efficient and Scalable Approach for Long-Context Language Modeling

Scaling Instruction-Tuned LLMs to Million-Token Contexts via Hierarchical Synthetic Data Generation

It's All Connected: A Journey Through Test-Time Memorization, Attentional Bias, Retention, and Online Optimization

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