Teardown: Tile™
c/o Sophia Space, modular edge server purpose-built for in-orbit AI compute.
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Sophia Space
Sophia Space is a space tech company building orbital compute and data center infrastructure designed to process data and run AI workloads directly in space, close to where the data is collected. The company’s modular “Tile” platform uses solar power and the natural cooling of space to run high-performance edge computing for satellites, defense systems, and commercial space operations, reducing latency and bandwidth limits that slow Earth-based processing.
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Recent News
NVIDIA Alumni Investment Network Invests in Sophia Space
EverGreen, the NVIDIA Alumni Investment Network, has announced its investment in Sophia Space, a pioneering orbital computing company building modular, passively cooled satellite compute units designed to process AI workloads directly in orbit. With exclusive Caltech/JPL-licensed IP, NVIDIA ecosystem backing, and a team of seasoned space and tech veterans, Sophia Space is positioning itself at the forefront of the emerging orbital data center market.
Read MoreSophia Space Expands Orbital Compute with Kepler Communications
Sophia Space and Kepler Communications have announced a strategic commercial agreement to deploy AI-powered, NVIDIA-driven edge compute nodes on Kepler satellites, beginning in Q4 2026. The collaboration aims to demonstrate distributed orbital computing infrastructure — including multi-tenant workloads like weather forecasting and space domain awareness — using Kepler's high-speed optical relay network to reduce reliance on ground-based systems.
Read MoreSophia Space Powers Orbital AI with NVIDIA
Sophia Space is partnering with NVIDIA to bring powerful AI computing directly into orbit, integrating platforms like the Jetson Orin into modular satellite infrastructure to enable real-time data processing in space. This shift moves intelligence closer to where data is generated, reducing reliance on ground-based systems and opening the door to faster, more autonomous spacecraft operations.
Read MoreThe Rise of Orbital Compute as Infrastructure
Orbital computing is shifting satellites from simple data collectors into full computing nodes that process information directly in space. By running AI and analytics in orbit, companies like Sophia Space aim to reduce latency, cut bandwidth demands, and enable faster decision-making for applications such as Earth monitoring and defense.
Read MoreSophia Space Raises $10M Seed for Orbital Edge Computing
Sophia Space has raised $10 million in seed funding to advance its orbital edge-computing technology, which processes AI and data workloads directly in space. The funding will help scale development of its modular TILE computing platform, aimed at turning satellites into in-orbit computing infrastructure.
Read MoreSophia Space Solves the Thermos Problem of Orbital Compute
Running large-scale computing in orbit faces a fundamental constraint: heat dissipation. Because space lacks air for conventional cooling, orbital compute systems must rely on radiative thermal management, making heat control one of the central engineering challenges for space-based data infrastructure.
Read MoreThe Case for On-Orbit Compute in Space Manufacturing
Sophia Space argues that space manufacturing will only scale when computing moves on-orbit, allowing AI systems and autonomous robots to process data, coordinate assembly, and respond in real time without waiting on Earth. Working with Orbital Robotics and Outpost Technologies, the company is positioning its Tile platform as a core layer for a faster, closed-loop orbital manufacturing ecosystem.
Read MoreSophia Space Partners with Outpost Technologies on On-Orbit AI Compute
Sophia Space and Outpost Technologies are exploring how on-orbit AI compute can support faster, more autonomous space manufacturing by processing sensor and manufacturing data directly in orbit. The partnership also aims to pair Sophia’s Tile platform with Outpost’s return-to-Earth capability to shorten testing cycles and speed up hardware iteration.
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