PhD Applicant

Gabrielle N. Erwin

Advancing regenerative medicine and space biology through plant science and biomaterials.



Advancing research at the intersection of astrobotany, biotechnology, and the cosmos.

Gabrielle N. Erwin is a scientist in training driven by her interest in how living systems not only adapt and heal, but also thrive where life is not expected. Gabrielle’s current research focuses on astrobotany and applications of regenerative medicine in space biology. With a propensity for creativity and an unbridled curiosity, Gabrielle aims to expand what is possible beyond Earth while advancing solutions that improve life here at home.

This site highlights her path, research contributions, and the collaborations guiding her toward a career at the intersection of astrobotany, regenerative biotechnology, and space medicine.


Explore Research

Current research at the intersection of regenerative medicine, plant biology, and space environments.

Inkspot: A stress-resilient dwarf tomato variant for off-world cultivation


LHS-1 Lunar Regolith Analog Assessment

Posters

Gabrielle investigates how plants and biomaterials respond to extreme environments, with applications in regenerative medicine and long-duration spaceflight. Her work examines molecular signaling, directed evolution, and tissue-engineered systems that aim to not only better understand, but also support human health beyond Earth.

Gabrielle investigates how plants and biomaterials respond to extreme environments, with applications in regenerative medicine and long-duration spaceflight. Her work examines molecular signaling, directed evolution, and tissue-engineered systems that aim to not only better understand, but also support human health beyond Earth.

Assessing Pulmonary Toxicity of Space-flight Associated VOCs Using Lung Organ Tissue Equivalents

Featured Projects


Publications


Inkspot: A stress-resilient, anthocyanin rich, dwarf tomato variant for off-world cultivation

As humanity prepares for sustained off-world habitation, the development of regolith-based agriculture (RBA) is essential for achieving self-sufficiency in space crop production. However, lunar regolith's alkaline pH, poor water retention, and high metal content pose severe physiological and biochemical challenges to plant growth. This study evaluates the performance of Solanum lycopersicum 'Inkspot', a stress-adaptive, anthocyanin-rich tomato variant, in comparison to its progenitor 'Tiny Tim', under control and simulated lunar regolith (LHS-2) conditions. A randomized complete block design was used to assess germination dynamics, morphology, fruit quality, antioxidant activity, and root architecture across 80 replicates over 65 days in controlled chambers. Inkspot maintained high germination rates (85% in regolith) with low variation (CV = 14%) and showed only moderate reductions in height and biomass, while Tiny Tim suffered a 45% biomass reduction and 60% fruit yield loss. Inkspot fruits increased anthocyanin content 2.5-fold in regolith, functioning as a stress-response mechanism and potential bioindicator.

Physiological assessments revealed greater retention of chlorophyll, Fv/Fm efficiency, and stomatal conductance in Inkspot, correlated with higher SOD and CAT enzyme activity and lower lipid peroxidation. Root imaging showed Inkspot developed a significantly larger, more complex root system, while Tiny Tim's roots contracted under stress. These findings highlight Inkspot's abiotic stress tolerance and potential as a candidate for closed-loop life support and in-situ resource utilization strategies in RBA systems.

Read the full paper here.


Plant Trek: Genesis Bed— Early-Stage Pioneer Species Assessment for Regolith Bio-activation. Gravitational and Space Research

IN PROGRESS.

Curriculum Vitae

Gabrielle N. Erwin

Featured Coverage

Media & Press


HBCU’s Astrobotany Lab made history this week.

What began in a small lab at Winston-Salem State University is now reaching the edge of Earth’s atmosphere, showcasing the power of innovation and academic excellence. As the only Astrobotany Lab at a historically Black college and university (HBCU), Winston-Salem State University is at the forefront of redefining what is possible in space science and research. The initiative advances cutting-edge research, student training and mentorship, laboratory development, and future scientific discoveries.


NC Space Grant Announces 2024-2025 MSI STEM Bridge and Pathways Scholars


WSSU student Gabrielle Erwin will witness the historic Blue Origin launch featuring her research.