M2FN: Multi-step Modality Fusion for Advertisement Image Assessment
Kyung-Wha Park (1), Jung-Woo Ha (2), JungHoon Lee (3), Sunyoung Kwon, (4), Kyung-Min Kim (2), Byoung-Tak Zhang (1, 5, 6) ((1), Interdisciplinary Program in Neuroscience, Seoul National University., (2), NAVER AI LAB, NAVER CLOVA., (3) Statistics, Actuarial Science, Soongsil

TL;DR
This paper introduces M2FN, a multi-step neural network that effectively fuses auxiliary image attributes, including embedded text, to improve advertisement image preference prediction, achieving state-of-the-art results on real-world datasets.
Contribution
The paper proposes a novel multi-step modality fusion network (M2FN) that leverages auxiliary attributes for better ad image assessment, addressing limitations of prior deep learning approaches.
Findings
M2FN outperforms existing methods in preference prediction accuracy.
Utilizing auxiliary attributes significantly improves ad image assessment.
State-of-the-art performance achieved on real-world ad datasets.
Abstract
Assessing advertisements, specifically on the basis of user preferences and ad quality, is crucial to the marketing industry. Although recent studies have attempted to use deep neural networks for this purpose, these studies have not utilized image-related auxiliary attributes, which include embedded text frequently found in ad images. We, therefore, investigated the influence of these attributes on ad image preferences. First, we analyzed large-scale real-world ad log data and, based on our findings, proposed a novel multi-step modality fusion network (M2FN) that determines advertising images likely to appeal to user preferences. Our method utilizes auxiliary attributes through multiple steps in the network, which include conditional batch normalization-based low-level fusion and attention-based high-level fusion. We verified M2FN on the AVA dataset, which is widely used for aesthetic…
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