Space Medicine
A fundamental inquiry guiding our research is: "What are the neurological implications of space travel?" It is firmly established that the exposure to cosmic radiation and microgravity can precipitate brain damage and genetic mutations. The NASA twins study notably underscores that prolonged periods of spaceflight can lead to genetic alterations.
In consideration of these findings, our research team pursues a dual-pronged approach. Firstly, we aim to actively monitor these physiological changes in real-time. Secondly, we are dedicated to formulating strategies to proactively prevent such changes from manifesting within the space environment. This initiative holds the potential not only to enhance our comprehension of how the brain reacts to the challenges of space conditions but also to uphold the neurological well-being of astronauts during extended missions beyond Earth.
In the challenging space environment with cosmic radiation and microgravity, astronauts experience various physical changes, including brain DNA damage, heightened cancer susceptibility, fluid shifts, increased intracranial pressure, neuro-ocular syndrome, and the risk of skin burns. Our team prioritizes addressing brain DNA damage and gene mutation. We strive to establish a comprehensive monitoring system for detecting genetic mutations and implementing preventive measures, aiming to ensure astronauts' long-term safety and well-being during space journeys.
In the demanding space environment marked by cosmic radiation and microgravity, astronauts experience a spectrum of physiological alterations. These encompass DNA damage in the brain, an elevated susceptibility to cancer, shifts in fluid distribution, increased intracranial pressure (ICP), the onset of neuro-ocular syndrome, and an augmented risk of skin burns. This challenging milieu necessitates a comprehensive understanding and proactive measures to address the complex array of health implications posed by extended space missions.
