3. IBM and the SETI Institute
l 4.5TB data coming
from the beamformers
every hour
l Data searched for
narrow-band signals
using FFT in custom
hardware
l โBlindโ to other types
of potential signals of
interest
l Most data is dumped โ
only the data with
detected signals is
saved for later analysis
5. IBM and the SETI Institute
http://bit.ly/ibm-trappist
Kepler Transit Observations โ only works for the small fraction of
star systems with orbital planes that are perfectly edge on...
รผ รป
6. Applied artificial intelligence research accelerator that combines the
AI capabilities of NASA, academia, and private sector companies in
support of NASAโs science priorities and mission goals.
8. โขThe FDL team tackled the task of automating
task of creating 3D shape models of NEOs
from sparse radar data โ important for threat
assessment and orbit fitting
โขThe process currently takes up to four
weeks of manual interventions by experts
using established software.
โขThe team demonstrated a DL model for
automation that allows NEOs to be 3D shape
generated in several hours.
โขThis result will hopefully allow researchers
to render 3D models of the current backlog
of radar imaged asteroids.
10. โข Vast amounts of data collected by satellites and
observatories - largely untapped for research into how the
Sun interacts with Earth.
โขThe FDL team built a knowledge discovery module named
STING (Solar Terrestrial Interactions Neural Network
Generator) on top of industry-standard, open source
machine learning frameworks to allow researchers to
further explore these complex datasets.
โขThe FDL Solar-Terrestrial team trained an NN model that
showed the ability to predict the variability of Earthโs
geomagnetic fields in response to solar wind
โขInteresting twist: the model correctly tuned into the imprint
of the magnetospheric ring currents โ a subtle but
important precursors of geomagnetic storms, and an
example of unsupervised AI discovery.
11. SPACE WEATHER: SOLAR TERRESTRIAL INTERACTIONS
DATA SOURCES
GEOMAG DATA SOLAR WIND DATA
12. โขCurrent operational flare forecasting relies on human
morphological analysis of active regions and the
persistence of solar flare activity.
โขThe FDL team performed analyses of solar magnetic
complexity and deployed convolutional neural
networks to connect solar UV images taken by
SDO/AIA into forecasts of maximum x-ray emissions.
โขThe technique has the potential to improve both the
reliability and accuracy of solar flare predictions.
13. SPACE WEATHER: SOLAR STORM PREDICTION
SDO/AIA Image Channels
Goal:
Use AIA to forecast
GOES X-ray flux
1 hr Ahead
14. SPACE WEATHER: SOLAR STORM PREDICTION
FlareNet
Block 2
Filter 8
Texture
Block 3
Filter 7
Structure
FlareNet NN learned the importance of active regionsโฆ
15. SPACE WEATHER: SOLAR STORM PREDICTION
Solar Flare Forecast
Neural Net was able to
forecast an upper level
of X-ray flux activity.
19. Example: The Sun Tomorrow, Today
24 hour forecast of the appearance of the Sun
l Solar Dynamics Observatory
AIA instrument โฆ 12 HD
images of the Sun every 12
seconds since 2010.
l Use petabytes of SDO AIA
images to build a neural net
model to produce a forecast of
what the sun will look like 24
hours into the future.
l The trained neural net model
would ingest a time-series
sequence of AIA images
leading up to the present
moment, and output an image
of the sun as it is predicted to
appear in 24 hours.
Today
Tomorrow
Forecast