MAE是一种使用自监督预训练策略的ViT,通过遮蔽输入图像中的补丁,然后预测缺失区域进行子监督的与训练。尽管该方法既简单又有效,但 MAE 预训练目标目前仅限于单一模态——RGB 图像——限制了在通常呈现多模态信息的实际场景中的应用和性能。 在新论文 MultiMAE: Multi-modal Multi-task Masked Autoencoders 中,来自...
MAE是一种使用自监督预训练策略的ViT,通过遮蔽输入图像中的补丁,然后预测缺失区域进行子监督与训练。尽管该方法既简单又有效,但 MAE 预训练目标目前仅限于单一模态——RGB 图像——限制了在通常呈现多模态信息的实际场景中的应用和性能。 ...
MAE是一种使用自监督预训练策略的ViT,通过遮蔽输入图像中的补丁,然后预测缺失区域进行子监督与训练。尽管该方法既简单又有效,但 MAE 预训练目标目前仅限于单一模态——RGB 图像——限制了在通常呈现多模态信息的实际场景中的应用和性能。 在新论文 MultiMAE: Multi-modal Multi-task Masked Autoencoders 中,来自瑞...
We propose a pre-training strategy called Multi-modal Multi-task Masked Autoencoders (MultiMAE). It differs from standard Masked Autoencoding in two key aspects: I) it can optionally accept additional modalities of information in the input besides the RGB image (hence "multi-modal"), and II...
We propose a pre-training strategy called Multi-modal Multi-task Masked Autoencoders (MultiMAE). It differs from standard Masked Autoencoding in two key aspects: I) it can optionally accept additional modalities of information in the input besides the RGB image (hence "multi-modal"), and II...
Masked autoencoders (MAEs) are a self-supervised pretraining strategy for vision transformers (ViTs) that masks-out patches in an input image and then predicts the missing regions. Although the approach is both simple and effective, the MAE ...
To our best knowledge, it is the first time that we show the effectiveness of masked pre-training in a multi-modal vision task, instead of the single-modal task resolved by masked autoencoders (MAE). Different from MAE where fine-tuning completely discards the decoder part of pre-training,...
The T5 Transformer is an Encoder-Decoder architecture where both the input and targets are text sequences. The task that should be performed on the input is defined by a prefix. This means that the same T5 model can perform multiple tasks. You can train the T5 model on a completely new ...
The T5 Transformer is an Encoder-Decoder architecture where both the input and targets are text sequences. The task that should be performed on the input is defined by a prefix. This means that the same T5 model can perform multiple tasks. You can train the T5 model on a completely new ...
Putting aside the specific architecture dif- ference, the MLLMs commonly use a vision encoder to ex- tract visual tokens from the raw images, and map them into the LLMs' input space with a cross-modality mapping mod- ule. The mapped visual tokens are ...