DigiData: Training and Evaluating General-Purpose Mobile Control Agents
Yuxuan Sun, Manchen Wang, Shengyi Qian, William R. Wong, Eric Gan, Pierluca D'Oro, Alejandro Castillejo Munoz, Sneha Silwal, Pedro Matias, Nitin Kamra, Satwik Kottur, Nick Raines, Xuanyi Zhao, Joy Chen, Joseph Greer, Andrea Madotto, Allen Bolourchi, James Valori, Kevin Carlberg, Karl Ridgeway, Joseph Tighe
TL;DR
DigiData presents a large-scale, multi-modal dataset (DigiData) for training general-purpose mobile control agents, constructed via exhaustive feature exploration to yield deep, diverse goals. Accompanied by DigiData-Bench, a real-world benchmark, the work argues that traditional step-accuracy assessments are insufficient and introduces dynamic human- and AI-assisted evaluation protocols, including LLM judges and Chain-of-Thought annotations. Through extensive experiments, the authors show that training with DigiData improves agent performance, especially when combined with CoT data, and that AI judges can closely track human judgments, enabling scalable evaluation. The dataset and benchmark collectively aim to enable more capable, explainable, and scalable mobile control agents with broad practical impact.
Abstract
AI agents capable of controlling user interfaces have the potential to transform human interaction with digital devices. To accelerate this transformation, two fundamental building blocks are essential: high-quality datasets that enable agents to achieve complex and human-relevant goals, and robust evaluation methods that allow researchers and practitioners to rapidly enhance agent performance. In this paper, we introduce DigiData, a large-scale, high-quality, diverse, multi-modal dataset designed for training mobile control agents. Unlike existing datasets, which derive goals from unstructured interactions, DigiData is meticulously constructed through comprehensive exploration of app features, resulting in greater diversity and higher goal complexity. Additionally, we present DigiData-Bench, a benchmark for evaluating mobile control agents on real-world complex tasks. We demonstrate that the commonly used step-accuracy metric falls short in reliably assessing mobile control agents and, to address this, we propose dynamic evaluation protocols and AI-powered evaluations as rigorous alternatives for agent assessment. Our contributions aim to significantly advance the development of mobile control agents, paving the way for more intuitive and effective human-device interactions.
