Research Hub
A living map of the field — the foundational papers, what's trending now, and where the frontier is heading.
An explicit, real-time alternative to NeRF that redefined neural rendering with millions of 3D Gaussians.
Scaled self-supervised learning to produce general-purpose features that transfer without fine-tuning.
Fused language into a DETR detector for open-vocabulary detection from text prompts.
A promptable segmentation foundation model trained on 1B masks — zero-shot 'segment anything'.
Contrastive image–text pretraining enabled zero-shot vision and powers text-to-image conditioning.
Masking 75% of patches and reconstructing them yields powerful, scalable self-supervised ViTs.
A hierarchical windowed Transformer that became a general-purpose vision backbone.
Showed strong self-supervised representations from contrastive learning with heavy augmentation.
Brought pure Transformers to vision; with scale, attention rivals convolutions.
Made diffusion models competitive with GANs and set off the modern image-generation era.
Detection as set prediction — removed anchors and NMS, seeding a family of Transformer detectors.
Encoded 3D scenes in an MLP for photorealistic novel-view synthesis, igniting the neural-rendering wave.
The Transformer — self-attention replaced recurrence and now underpins language and vision alike.
Added a mask branch and RoIAlign to Faster R-CNN for accurate instance segmentation.
Normalizing activations stabilized and accelerated training, enabling much deeper networks.
Skip connections made 100+ layer networks trainable — arguably the most influential architecture idea in deep learning.
The Region Proposal Network made two-stage detection end-to-end trainable and defined the detection playbook.
Encoder–decoder with skip connections — the backbone of medical segmentation and, later, diffusion models.
The adaptive optimizer that trains most deep networks today; AdamW is the modern default.
Framed generation as a two-player game between generator and discriminator — a decade of generative research followed.
Showed that depth with simple 3×3 conv stacks drives accuracy; VGG features are still used everywhere.
Where the frontier is heading
Single models that see, read, and reason across images, video, text, and audio.
From image diffusion to video and controllable 3D world simulators.
NeRF → Gaussian splatting → feed-forward and generative 3D reconstruction.
Learning strong representations with little or no labeled data.
Vision for action — manipulation, navigation, and real-time control.
Quantization, distillation, and edge inference for real-world latency.