by Douglas Messier
Managing Editor
Inflatable winged vehicles could one day explore the clouds of Venus under a project being funded by NASA.
The space agency has provided a NASA Innovative Advanced Concepts (NIAC) phase II grant to Javid Bayandor of the State University of New York to continue research on Bioinspired Ray for Extreme Environments and Zonal Exploration (BREEZE) project.
(more…)
WASHINGTON (NASA PR) — An astronaut steps into a body scanner and, hours later, walks on Mars in a custom-made spacesuit, breathing oxygen that was extracted from Mars’ carbon dioxide-rich atmosphere. On Venus, an inflatable bird-like drone swoops through the sky, studying the planet’s atmosphere and weather patterns. Ideas like these are currently science fiction, but they could one day become reality, thanks to a new round of grants awarded by NASA.
(more…)
NASA Innovative Advanced Concepts (NIAC)
Phase II Award
Amount: $500,000
Lightweight Multifunctional Planetary Probe for Extreme Environment Exploration and Locomotion
Javid Bayandor
State University Of New York, Buffalo
With many characteristics similar to Earth, Venus has long been considered of high scientific interest to NASA. The Venus surface temperatures near 460°C and pressures of 93 bar have made long duration surface missions infeasible.
(more…)
The NASA Innovative Advanced Concepts program has made the following awards for 2020.
Saptarshi Bandyopadhyay
Lunar Crater Radio Telescope (LCRT) on the Far-Side of the Moon
NASA Jet Propulsion Laboratory
Pasadena, CA
John Christian
StarNAV: An Architecture for Autonomous Spacecraft Navigation by the Relativistic Perturbation of Starlight
Rensselaer Polytechnic Institute
Troy, NY
NASA Innovative Advanced Concepts (NIAC) Program
Phase I Award: Up to $125,000 for 9 Months
BREEZE- Bioinspired Ray for Extreme Environments and Zonal Exploration
Javid Bayandor
State University of New York
The Bio-inspired Ray for Extreme Environments and Zonal Exploration (BREEZE) combines inflatable structures with bio-inspired kinematics to create a highly efficient flier to explore the Venus atmosphere. This flier would take data while below the main cloud layer at approximately 50 km and re-charge using solar panels in the middle atmosphere at approximately 60+ km.
Tensioning cables would control the volume to allow the craft to rise and fall in the atmosphere. The bio-inspired kinematics will maximize flight efficiency while allowing a so-far unattained degree of control for a small inflatable flier in the upper atmosphere of Venus.
