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Maya: An Instruction Finetuned Multilingual Multimodal Model

Nahid Alam, Karthik Reddy Kanjula, Surya Guthikonda, Timothy Chung, Bala Krishna S Vegesna, Abhipsha Das, Anthony Susevski, Ryan Sze-Yin Chan, S M Iftekhar Uddin, Shayekh Bin Islam, Roshan Santhosh, Snegha A, Drishti Sharma, Chen Liu, Isha Chaturvedi, Genta Indra Winata, Ashvanth. S, Snehanshu Mukherjee, Alham Fikri Aji

TL;DR

Maya targets the core gap in vision-language models: robust multilingual and multicultural understanding with safety guarantees. The authors introduce a toxicity-filtered, eight-language pretraining dataset built on LLaVA, paired with a Maya mVLM that uses a SigLIP vision encoder and an Aya-23 8B LLM, followed by instruction-tuning with PALO data. They demonstrate competitive multilingual performance against open-source baselines and provide a toxicity-free variant to study safety impacts, while releasing the codebase for open collaboration. This work advances accessible, culturally aware multimodal reasoning in low-resource languages and establishes a foundation for further multilingual and safety-focused VLM research.

Abstract

The rapid development of large Vision-Language Models (VLMs) has led to impressive results on academic benchmarks, primarily in widely spoken languages. However, significant gaps remain in the ability of current VLMs to handle low-resource languages and varied cultural contexts, largely due to a lack of high-quality, diverse, and safety-vetted data. Consequently, these models often struggle to understand low-resource languages and cultural nuances in a manner free from toxicity. To address these limitations, we introduce Maya, an open-source Multimodal Multilingual model. Our contributions are threefold: 1) a multilingual image-text pretraining dataset in eight languages, based on the LLaVA pretraining dataset; 2) a thorough analysis of toxicity within the LLaVA dataset, followed by the creation of a novel toxicity-free version across eight languages; and 3) a multilingual image-text model supporting these languages, enhancing cultural and linguistic comprehension in vision-language tasks. Code available at https://github.com/nahidalam/maya.

Maya: An Instruction Finetuned Multilingual Multimodal Model

TL;DR

Maya targets the core gap in vision-language models: robust multilingual and multicultural understanding with safety guarantees. The authors introduce a toxicity-filtered, eight-language pretraining dataset built on LLaVA, paired with a Maya mVLM that uses a SigLIP vision encoder and an Aya-23 8B LLM, followed by instruction-tuning with PALO data. They demonstrate competitive multilingual performance against open-source baselines and provide a toxicity-free variant to study safety impacts, while releasing the codebase for open collaboration. This work advances accessible, culturally aware multimodal reasoning in low-resource languages and establishes a foundation for further multilingual and safety-focused VLM research.

Abstract

The rapid development of large Vision-Language Models (VLMs) has led to impressive results on academic benchmarks, primarily in widely spoken languages. However, significant gaps remain in the ability of current VLMs to handle low-resource languages and varied cultural contexts, largely due to a lack of high-quality, diverse, and safety-vetted data. Consequently, these models often struggle to understand low-resource languages and cultural nuances in a manner free from toxicity. To address these limitations, we introduce Maya, an open-source Multimodal Multilingual model. Our contributions are threefold: 1) a multilingual image-text pretraining dataset in eight languages, based on the LLaVA pretraining dataset; 2) a thorough analysis of toxicity within the LLaVA dataset, followed by the creation of a novel toxicity-free version across eight languages; and 3) a multilingual image-text model supporting these languages, enhancing cultural and linguistic comprehension in vision-language tasks. Code available at https://github.com/nahidalam/maya.

Paper Structure

This paper contains 20 sections, 1 equation, 15 figures, 4 tables.

Figures (15)

  • Figure 1: Pretrain Dataset Preparation Process
  • Figure 2: N-gram values by language and preamble type. These values are average of 1-gram, 2-gram, 3-gram and 4-gram
  • Figure 3: Radar chart of N-gram averages by preamble
  • Figure 4: Image Toxicity Analysis with LLaVAGuard
  • Figure 5: Image Caption Toxicity Analysis with Toxic-BERT
  • ...and 10 more figures