Research Sciences INTERN

Research experience in multimodal representation learning, text-vision embedding models, contrastive learning, neural information retrieval, or embedding adaptation and compression (e.g., knowledge distillation, quantization). Direction B - Image Understanding and Editing Advances in visual intelligence are creating new opportunities for models that interpret rich image content and reason about what makes an image meaningful.

In this direction, you will investigate models that build a context-aware understanding of images (scene composition, geometry, appearance, salient regions, objects, and their relationships) and explore how this understanding can power downstream applications.

Example research topics Richer visual representations and combining complementary visual signals Context-aware scene and image understanding, and its use for image editing Generalization, robustness, and reliable evaluation of visual understanding Efficient architectures, model compression, or on-device deployment (optional extension) Research experience in image understanding, visual representation learning, computational photography, multimodal learning, or generative image editing, with a strong background in modern discriminative, generative, or vision-language models.

Experience with efficient neural networks is a plus. Direction C - Robot Learning for Manipulation and Real-to-Sim-to-Real Real-world observations and demonstrations are a rich source of experience for robot learning. In this direction, you will work on manipulation with stationary and mobile bimanual robots, exploring how physical experience, such as videos and demonstrations, can inform simulation, and how simulated experience can improve real-world policies.

Example research topics Real-to-sim-to-real learning and policy robustness Video-action models, world-action models, and vision-language-action (VLA) policies Learning from human demonstrations, including 3D reconstruction and tracking of hand-object interactions Physics-based and differentiable simulation for manipulation Research experience in robot learning (imitation or reinforcement learning, sim-to-real transfer), bimanual or mobile manipulation, 3D reconstruction and pose estimation, or physics-based simulation; familiarity with tools like PyTorch, ROS, and MuJoCo; and experience deploying policies on real robots.

Note: Robot-learning projects in this direction involve hands-on work with physical robots and require presence at our Zurich lab for the full duration of the internship. Direction D - Image Generation and Efficient Visual Generative Models In this direction, you will explore compact and efficient visual generative models across image and video generation, and action-conditioned visual prediction. You will choose a focus based on your interests and background.

Example research topics Video generation: extending image generation to coherent sequences conditioned on text or images World modeling: lightweight models that predict future visual observations from context and actions Architecture distillation: transferring the capabilities of large image generators into different, smaller architectures, including latent-to-pixel-space distillation Research experience in generative modeling (e.g., diffusion or flow-based models), image or video generation, model architecture distillation, temporal learning, or world models.

Currently pursuing a PhD in Computer Vision, Machine Learning, Robotics, AI, or a related field. At least one year of research experience in an area related to one of the research directions above. A strong background in deep learning and modern neural network architectures. Skills in algorithmic problem-solving and software development (e.g., Python, C++). Experience with tools like PyTorch, TensorFlow, and OpenCV (for robotics: ROS, MuJoCo, or Unity).

Publication(s) in top-tier conferences or journals in related fields (e.g., CVPR, ICCV, ECCV, NeurIPS, ICML, ICLR, IJCV, TPAMI, CoRL, RSS, ICRA, IROS, IJRR, T-RO). Excellent communication, collaboration, and writing skills. Review relevant work and establish strong, reproducible baselines within the agreed project scope. Prototype, train, and evaluate new models and methods for your research direction. Design controlled experiments covering quality, model behavior, robustness, and efficiency.

Own the research workflow end to end, from problem formulation and implementation through analysis, iteration, and clear documentation. Work closely with mentors and other researchers, seek feedback, contribute to a shared codebase, and present your findings at the end of the internship.