Emergent Mind

Abstract

Artificial Intelligence-Generated Content (AIGC) is an automated method for generating, manipulating, and modifying valuable and diverse data using AI algorithms creatively. This survey paper focuses on the deployment of AIGC applications, e.g., ChatGPT and Dall-E, at mobile edge networks, namely mobile AIGC networks, that provide personalized and customized AIGC services in real time while maintaining user privacy. We begin by introducing the background and fundamentals of generative models and the lifecycle of AIGC services at mobile AIGC networks, which includes data collection, training, finetuning, inference, and product management. We then discuss the collaborative cloud-edge-mobile infrastructure and technologies required to support AIGC services and enable users to access AIGC at mobile edge networks. Furthermore, we explore AIGCdriven creative applications and use cases for mobile AIGC networks. Additionally, we discuss the implementation, security, and privacy challenges of deploying mobile AIGC networks. Finally, we highlight some future research directions and open issues for the full realization of mobile AIGC networks.

Overview

  • Federated learning (FL) is crucial for privacy preservation in mobile Artificial Intelligence-Generated Content (AIGC) networks, enabling decentralized training and reduced bandwidth.

  • Secure aggregation and differential privacy are essential strategies within FL to safeguard data privacy during AIGC model training by maintaining confidentiality and adding statistical noise.

  • Current advancements in FL address challenges such as suboptimal network conditions and security threats by optimizing algorithms and exploring quality-aware incentive mechanisms.

  • Blockchain technology is being integrated into FL for AIGC to administer data management and ensure service integrity through smart contracts and new frameworks like proof-of-AIGC.

Federated Learning in Mobile AIGC Networks

Overview

Federated learning (FL) plays a pivotal role in the realm of mobile Artificial Intelligence-Generated Content (AIGC) networks. By enabling decentralized data training while preserving user privacy, FL overcomes the hurdles associated with centralized data storage and processing. In mobile AIGC networks, FL algorithms allow for collaborative model training across numerous devices, leading to enhanced models that benefit from diverse data sources without the need to transfer sensitive data off-device. This approach not only shields user privacy but also slashes the bandwidth required for data transmission, making it a gamechanger for AIGC applications.

Secure Aggregation and Differential Privacy

Two core FL strategies are pivotal for ensuring data privacy in mobile AIGC networks: secure aggregation and differential privacy. Secure aggregation employs encrypted communications to prevent FL servers from accessing individual updates, thus maintaining data confidentiality during model aggregation. Differential privacy adds controlled statistical noise to the data or model updates, obscuring individual contributions while allowing statistical patterns to be learned. These strategies are crucial for mitigating the risks of sensitive data leakage during the AIGC model training process.

Challenges and Advancements

Whilst FL offers significant benefits for privacy preservation in AIGC, it still faces challenges such as non-ideal network conditions like latency and potential security vulnerabilities. Recent advancements address these concerns by optimizing federated algorithms to handle non-stationary network environments and improve model quality assessment, which is vital for offering high-value AIGC services. In particular, quality-aware incentive mechanisms are being researched to balance the trade-off between training time, model accuracy, and user incentives.

The Role of Blockchain

Blockchain technology is emerging as a powerful tool for system management in mobile AIGC networks. It offers robust methods for data administration, computing, and communication management. This decentralized architecture supports the recording of AIGC resource transactions and service agreements through smart contracts, enabling secure, transparent, and efficient management across network stakeholders. Notably, blockchain-integrated frameworks like proof-of-AIGC can combat issues like data plagiarism, further fortifying the integrity of AIGC products in mobile networks.

Future Directions

Future research will focus on enhancing FL frameworks for mobile AIGC networks while exploring novel applications. Work in this area includes further optimization of privacy-preserving techniques, investigation into consensus mechanisms for blockchain deployment, and development of more effective and less resource-intensive FL algorithms. As AIGC services continue to grow in complexity and application scope, advancements in FL will be instrumental in shaping the deployment strategies and ensuring the sustainable and secure expansion of mobile AIGC ecosystems.

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