Autonomous QoS Optimization for Delay-Tolerant Mobile Edge Cloud and Content Delivery

This proposal introduces an autonomous Quality of Service (QoS) optimization framework for delay-tolerant mobile edge cloud (MEC) and content delivery networks (CDNs) in space. As NASA's Artemis program and other deep-space missions expand, there is a growing need for high-volume, latency-sensitive data transmission and real-time computing capabilities in extreme environments. Our technology enhances edge computing, adaptive caching, and dynamic task offloading in lunar, Martian, and orbital networks, optimizing network efficiency and reducing reliance on Earth-based infrastructure. This research will focus on developing QoS-driven MEC and CDN architectures to enable: - Autonomous content caching for high-definition multimedia streaming on the lunar surface. - Adaptive edge computing for mission-critical applications, such as rover navigation, astronaut support, and science data return. - Scalable multi-hop caching and routing algorithms to enhance connectivity in intermittent space networks. The requested funding will support the design, prototyping, and validation of these architectures in simulated space environments. Our target markets include NASA, commercial space companies, and defense organizations looking to improve data processing and delivery for remote operations.

Our technology directly aligns with NASA’s deep space exploration goals, addressing mission-critical needs for real-time decision-making and high-definition data transmission. Key applications include: - Edge computing for lunar and Martian missions: Supports rovers, astronauts, and scientific payloads by enabling low-latency processing of critical data. - High-definition (HD) multimedia streaming on the lunar surface: Enables seamless video, telemetry, and data sharing under intermittent connectivity conditions. - Autonomous command and control systems: Enhances spacecraft operations and robotic autonomy by offloading computing tasks to mobile edge cloud nodes. Delay-tolerant data return from deep-space assets: Optimizes science data processing and transmission, ensuring high-priority data is delivered efficiently within limited communication windows. These advancements will increase mission efficiency, reduce bandwidth constraints, and enhance astronaut support systems, making space-based computing more autonomous and resilient. Beyond space exploration, our technology provides transformative solutions for global content delivery, defense, and remote computing. Key commercialization opportunities include: - Bringing CDN resources to remote and rural locations: Provides internet, computing power, and media access to marginalized communities. - Satellite-based computing and content delivery: Supports real-time IoT processing, cloud computing, and AI-driven analytics over LEO and GEO satellite networks. - Defense applications: Enhances mission-critical data processing and secure communications for distributed military operations using resilient, redundant computing systems. - Disaster response and emergency networks: Provides real-time edge computing for first responders and relief efforts in connectivity-limited areas. This technology has the potential to revolutionize space networking, global connectivity, and secure content delivery, making edge computing and intelligent data management scalable across Earth and beyond.

This is a mature technology (TRL 7+) — the realistic path in is usually NASA's Technology Transfer Program: licensing an existing NASA patent, or a Space Act Agreement to use NASA facilities/expertise directly. NASA also runs a startup licensing program with no upfront fee for companies formed to commercialize a specific NASA technology.

None of these are guaranteed paths for this specific project — TechPort itself doesn't have an "apply" button. Reaching out to the contact(s) above with a specific question is usually the fastest way to find out what's actually open.