SPAICE

You'll implement **perception algorithms** for satellites and drones, fusing cameras, LiDAR, radar, and event sensors. Your work will enable **autonomous navigation** in GPS-denied environments, from Earth to space. You'll translate cutting-edge research into **flight-ready code** for real missions with top aerospace contractors.

You'll build **high-fidelity synthetic environments** for autonomous satellites and drones, bridging **realistic physics** and **sensor simulation**. Your work directly powers the autonomy stack behind real missions in aerospace and defense. You'll pioneer **generative scene generation techniques** for multimodal realism across cameras, LiDAR, and radar.

You'll lead research and design of **Spatial AI perception algorithms** that fuse cameras, LiDAR, radar, and event sensors for satellite and drone autonomy. Your work will enable **reliable detection and mapping** in harsh terrestrial and orbital environments. This role offers direct impact on **flight-critical autonomy software** used by defense customers.

You'll implement and refine perception algorithms that fuse cameras, LiDAR, radar, and event sensors for **space and defense missions** at SPAICE. Your work enables **satellites and drones** to autonomously navigate GPS-denied environments. You'll translate cutting-edge research into flight-ready code alongside a top-tier team.