Focuses on advanced optical instruments and imaging techniques for space applications, from Earth observation to deep-space astronomy. Sessions cover photonics, sensor development, adaptive optics, and data processing for high-resolution imagery.
No more alignment nightmares!
Find alien life faster!
Unbelievable accuracy boost!
Planet signal recovered!
Nanoscale light manipulation!
See in the dark!
Unlock mass optimization!
8 orders of magnitude!
Lab breakthrough, space impact!
JWST's hidden testing origin!
Absorb vibrations now!
Tiny planets, huge challenge!
Rethink space design!
Grand piano in space?
Vibration control secrets!
โBut there are a few design paradigms that I think need a little bit more questioning and one of those is the stiffness of the structure.โ
โThe Habitable Worlds Observatory, this is like the next James Web Space Telescope. This is going to be a huge observatory that is going to be sent out to space with the goal of characterizing and finding signs of life.โ
For decades, the design of space telescopes has largely followed principles established for their ground-based counterparts. However, as Carol Klingler highlights in her compelling lightning talk, this conventional wisdom may be holding back the next generation of space exploration. In a zero-gravity environment, the emphasis on structural stiffness, crucial for Earth-bound observatories, becomes a design constraint rather than a benefit.
The quest to find life beyond Earth hinges on our ability to detect and characterize exoplanets, especially those resembling our own. Dr. Rachel Morgan of NASA's Astropic project is at the forefront of this challenge, developing a groundbreaking integrated photonic coronagraph that promises to make the search for habitable worlds more efficient and robust than ever before.