Exploring and Enhancing Advanced MoE Models: From Deepspeed-MoE to DeepSeek-V3

This study explores the application and optimization of Mixture of Experts (MoE) models in large-scale language models. We analyze the fundamental principles and limitations of the MoE architecture, followed by an in-depth examination of optimization strategies in advanced MoE architectures, including Switch Transformer, Deepspeed-MoE, PR-MoE, Mixtral 8×7B, Glam, DBRX and DeepSeek-V3. Through comprehensive benchmarks across five dimensions (popular aggregated results, commonsense reasoning, world knowledge, code and math), we compare these MoE models against the LLaMA family, Qwen 2.5 72B Base, GPT family and Claude family. Our findings indicate that MoE is a model architecture capable of maintaining high performance even under computational constraints. Techniques such as pyramid structures with residual connections, sparse activation, adaptive adjustment of expert numbers and sizes and shared expert isolation contribute to performance enhancement. Compared to standard Transformer models, MoE can achieve at least a 50% reduction in inference computation while preserving model performance. Furthermore, MoE achieves higher benchmark scores in mathematical and coding tasks. Open-source MoE models, exemplified by DeepSeek-V3, democratize AI research by lowering barriers to entry and fostering global collaboration. Community-driven initiatives, such as standardized simulation-to-real transfer protocols and resource-sharing platforms, address key challenges.

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Published
2025-04-11
DOI
https://doi.org/10.1109/ainit65432.2025.11035928
Primary Topic
Service-Oriented Architecture and Web Services
Type
article
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article

Exploring and Enhancing Advanced MoE Models: From Deepspeed-MoE to DeepSeek-V3

Dong Chen, Zhenkai Zhang, Yujie Gao
Service-Oriented Architecture and Web Services
article

Exploring and Enhancing Advanced MoE Models: From Deepspeed-MoE to DeepSeek-V3

Dong Chen, Zhenkai Zhang, Yujie Gao
article en

Abstract

This study explores the application and optimization of Mixture of Experts (MoE) models in large-scale language models. We analyze the fundamental principles and limitations of the MoE architecture, followed by an in-depth examination of optimization strategies in advanced MoE architectures, including Switch Transformer, Deepspeed-MoE, PR-MoE, Mixtral 8×7B, Glam, DBRX and DeepSeek-V3. Through comprehensive benchmarks across five dimensions (popular aggregated results, commonsense reasoning, world knowledge, code and math), we compare these MoE models against the LLaMA family, Qwen 2.5 72B Base, GPT family and Claude family. Our findings indicate that MoE is a model architecture capable of maintaining high performance even under computational constraints. Techniques such as pyramid structures with residual connections, sparse activation, adaptive adjustment of expert numbers and sizes and shared expert isolation contribute to performance enhancement. Compared to standard Transformer models, MoE can achieve at least a 50% reduction in inference computation while preserving model performance. Furthermore, MoE achieves higher benchmark scores in mathematical and coding tasks. Open-source MoE models, exemplified by DeepSeek-V3, democratize AI research by lowering barriers to entry and fostering global collaboration. Community-driven initiatives, such as standardized simulation-to-real transfer protocols and resource-sharing platforms, address key challenges.

Nanjing Tech University (CN)
Climate action
Openalex Percentile: Top 79%
Service-Oriented Architecture and Web Services
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