Heliophysics Technology

Develop Technologies, Data, and Knowledge Systems to Improve Future Operational Systems

Innovation is the engine that drives scientific progress, through the development of new theories, the invention of new technologies that lead to improved measurements , and ultimately the emergence of entirely new capabilities. To pursue a rigorous study of the Heliophysical system we will pursue the development, infusion, and study of new technology, both for its stimulating effect on science and to enable and enhance new missions of exploration. Continuing progress in the characterization, modeling, and prediction of this system will also require technological development in a number of key areas.

Heliophysics Capability Requirements
• Simultaneous sampling of space plasmas at multiple points with cost-effective means and measuring phenomena with higher resolution and better coverage to answer specific science questions and enable system science;
• Achieving unique vantage points such as upstream of the Earth-Sun L1, polar orbit around the Sun, or even beyond the heliosphere;
• Developing the next generation of capable, affordable instrumentation;
• Enabling the return of vast new data sets from anywhere in the solar system;
• Synthesizing understanding from system-wide measurements using new data analysis and visualization techniques.

The highest priority Heliophysics technology needs follow these key focus areas
1. Developing compact, low-cost spacecraft and launch systems.
2. Achieving high ÆV propulsion (solar sails).
3. Designing, building, testing, and validating the next generation of instrumentation.
4. Returning and assimilating large data sets from across the solar system.
5. Analysis, data synthesis, modeling, and visualization of plasma and neutral space environments throughout the solar system.
6. Enabling space weather prediction.