Vision-language models (VLMs) provide a unified representation space for textual and visual information, yet their potential as general-purpose backbones for graph-structured data remains largely unexplored. In practice, attributed graphs exhibit substantial modality heterogeneity: some graphs contain only textual node attributes, others only visual attributes, while still others provide both. Existing graph learning approaches are typically designed for fixed modality schemas, requiring separate models for different settings and limiting scalability and cross-graph generalization. To bridge this gap, we present OMG-VLM (One Model, Many Graphs with Vision-Language Models), a unified framework for learning over attributed graphs across heterogeneous modality schemas. OMG-VLM leverages a pretrained VLM as a shared backbone and introduces structure-aware graph adapters that integrate neighborhood information while remaining compatible with the VLM’s native embedding space. This design enables effective learning over text-attributed, image-attributed, and multimodal-attributed graphs within a single model. Extensive experiments across diverse domains show that OMG-VLM consistently outperforms state-of-the-art GNN- and LLM-based baselines on attributed graph learning tasks such as node classification and link prediction, while exhibiting strong generalization to unseen graphs and varying modality schemas. The source code is available at https://github.com/Jo-eyang/OMG-VLM.

Stylistic transformation of artistic images is an important part of the current image processing field. In order to access the aesthetic artistic expression of style images, recent research has applied attention mechanisms to the field of style transfer. This approach transforms style images into tokens by calculating attention and then migrating the artistic style of the image through a decoder. Due to the very low semantic similarity between the original image and the style image, this results in many fine-grained style features being discarded. This can lead to discordant artifacts or obvious artifacts. To address this problem, we propose MccSTN, a novel style representation and transfer framework that can be adapted to existing arbitrary image style transfers. Specifically, we first introduce a feature fusion module (Mccformer) to fuse aesthetic features in style images with fine-grained features in content images. Feature maps are obtained through Mccformer. The feature map is then fed into the decoder to get the image we want. In order to lighten the model and train it quickly, we consider the relationship between specific styles and the overall style distribution. We introduce a multi-scale augmented contrast module that learns style representations from a large number of image pairs.