This article points out that model selection needs to be closely integrated with the constraints of specific application scenarios, and observes that future breakthroughs may lie in exploring the lightweighting of hybrid architectures that combine convolution and Transformer.
Abstract
Despite the remarkable achievements of deep neural networks (DNNs) in numerous fields, the growing number of parameters and computational complexity severely limit their deployment feasibility on edge devices. Against this backdrop, lightweight DNNs have not only become a hot topic in academic research but also a key technological pathway to promote the democratization and implementation of AI. This article focuses on reviewing the methods of designing lightweight DNN architectures to achieve model lightweighting, aiming to provide researchers with effective solutions for designing lightweight model architectures. The article distinguishes between convolutional-based and Transformer-based frameworks for model design and delves into several typical lightweight model structural designs, development paths, and their pros and cons. By experimentally comparing the lightweighting metrics of different models, this article points out that model selection needs to be closely integrated with the constraints of specific application scenarios. Finally, the article observes that future breakthroughs may lie in exploring the lightweighting of hybrid architectures that combine convolution and Transformer, to integrate the advantages of local perception and global modeling, and further enhance model expressiveness while maintaining efficiency. In summary, this article not only provides a comprehensive review of lightweight model structural design but also emphasizes its practical guidance and development direction in promoting the implementation of edge intelligence.
This paper systematically sorts out the technical connotation and typical cases of lightweight models, and analyzes their application practices in the fields of medical image analysis, financial real-time risk control, and predictive maintenance of industrial Internet of Things.
The demand for more accurate Convolutional Neural Networks (CNNs) has led to increasingly deep and computationally expensive models. These architectures face limiting deployment and resource constraints when implemented. Static CNN models treat all input samples with identical computational density. These models are in...
Joe Kareh, Rodrigue Imad· Applied Informatics· 0 citations
The study establishes a multidimensional framework for assessing deep learning performance and identifies the need for evaluation strategies that jointly consider predictive capability, robustness, computational cost, and deployment constraints.
Aleksandar Iliev, Elena Stojanovsk· International Journal of Nex...· 0 citations
This paper proposes a simple, novel and energy-efficient structured pruning methodology resulting in energy, memory footprint and parameter reduction and provides practical insights into the energy-accuracy tradeoff.
Diffa G. Pinto, Sunil B. Mane· Discover Computing· 0 citations
A novel approach to CNN architecture optimization is proposed by leveraging mathematical series—such as arithmetic, geometric, or harmonic progressions—to define structured, scalable, and interpretable layer configurations, offering a lightweight, reproducible framework for CNN configuration that can be adapted across...
K. AshaRani, S. Gowrishankar· Neural computing & applicati...· 0 citations