
Sign up to save your podcasts
Or


This academic paper by Google Research, Google DeepMind, and the Massachusetts Institute of Technology, systematically evaluates the principles for scaling language model-based agent systems, moving beyond anecdotal evidence that "more agents is all you need." The authors present a controlled evaluation across four diverse agentic benchmarks, testing five canonical architectures—Single-Agent, Independent, Centralized, Decentralized, and Hybrid Multi-Agent Systems—to isolate the effect of coordination structure and model capability. Key findings establish that multi-agent benefits are highly task-contingent, ranging from a significant performance increase (+81%) on parallelizable tasks like financial analysis to substantial degradation (-70%) on sequential planning tasks, primarily due to measurable factors such as the tool-coordination trade-off and architecture-dependent error amplification. Ultimately, they derive a predictive quantitative scaling principle that explains over 51% of performance variance and can predict the optimal architecture for unseen task configurations.
By Enoch H. KangThis academic paper by Google Research, Google DeepMind, and the Massachusetts Institute of Technology, systematically evaluates the principles for scaling language model-based agent systems, moving beyond anecdotal evidence that "more agents is all you need." The authors present a controlled evaluation across four diverse agentic benchmarks, testing five canonical architectures—Single-Agent, Independent, Centralized, Decentralized, and Hybrid Multi-Agent Systems—to isolate the effect of coordination structure and model capability. Key findings establish that multi-agent benefits are highly task-contingent, ranging from a significant performance increase (+81%) on parallelizable tasks like financial analysis to substantial degradation (-70%) on sequential planning tasks, primarily due to measurable factors such as the tool-coordination trade-off and architecture-dependent error amplification. Ultimately, they derive a predictive quantitative scaling principle that explains over 51% of performance variance and can predict the optimal architecture for unseen task configurations.