BREEZE Venus

BREEZE

Bio-inspired Ray for Extreme Environments and Zonal Exploration on Venus

Program Overview

  • Mission: The Bio-inspired Ray for Extreme Environments and Zonal Exploration (BREEZE) is an innovative inflatable structure designed with bio-inspired propulsion and buoyancy control to navigate and study Venus
  • Challenges: Known for its extreme conditions, Venus presents significant challenges, including crushing atmospheric pressure, searing temperatures exceeding 400°C, and clouds of corrosive sulfuric acid
  • Scientific Objectives: Track weather patterns, determine atmospheric constituents, map the Venusian magnetic field, and produce detailed surface scans via remote sensing while conducting dispersed sample collection — enabled by circumnavigation every 4-6 days at ~50-60 km altitude riding zonal winds

Experience from 2019-2020

Analysis

  • Led the preliminary structural analyses to validate the integrity of the inflatable and morphing flier using HyperWorks FEA
  • Developed and studied mesh refinements to create a more ideal FEM of the structure
  • Designed and FDM 3D printed wing ribs to simulate the inflation actuation as a fundamental proof of concept
  • Investigated multiple composite material studies in LS-DYNA to determine the optimal composite layered material to represent the flexible flier

Achievements

  • Presented Phase I at the NASA Innovative Advanced Concepts (NIAC) Symposium in Huntsville, AL on September 24, 2019 (See NIAC 2019 Day 1 - Part 2)
  • Achieved the NASA Goddard Space Flight Center Academic Fellowship 2019
  • Program selected for continuation in 2022 for NIAC Phase II
  • Contributed as one of the lead undergraduate researchers to the NIAC Phase I Final Report
  • Related news article
Me at NIAC

Me presenting at NIAC Symposium 2019
Photo sourced from NASA

Airbag material study
Video sourced from Tyler Chau

BREEZE proof of concept
Video sourced from Tyler Chau