I am Khaled Y. Kamal, I believe on ‘Interdisciplinary is a powerful definition that reflects my diverse scientific formation and experience’. Over 10 years, I have acquired a large repertoire and multidisciplinary background of cellular, molecular, biochemical, and physiological techniques to study the cell signaling and pathways in response to stress and diseases from single cells to in vivo whole biological systems (both animal and plants). My research interest focuses on ‘Finding the Keys in Space to fight Diseases on Earth’. My space biology interests have been amplified during my Doctorate formation at Centro de investigations Biologicas, CSIC, Spain, being involved in multi-space life science projects funded by ESA and NASA. I investigated the plant cellular transduction and regulation of space microgravity. I was able to explore novel cellular and molecular response mechanisms to space microgravity including cell cycle regulation, oxidative stress, ribosome biogenesis, epigenetics, and chromatin remodeling. Currently, as an assistant research scientist at the Redox Biology & Cell signaling lab at Texas A&M University, I led the NASA project to understand the regulation of Nox2 and skeletal muscle atrophy during spaceflight and DMD pathology damage. I am investigating complex redox biology of spaceflight in mammalian tissues, including skeletal muscle and heart, my goal was to translate my cellular and molecular multidisciplinary skills into skeletal muscle and redox biology. Furthermore, we are developing, applying, and integrating new technology into the ongoing lines of microgravity research as well as understanding the muscle atrophy, damage, and oxidative stress in the DMD pathology. This includes confocal microscopy, gene therapy, gene knockdown, nanoparticle drugs, cell line application, proteomics, genomics, and the development of novel bioreactors to simulate the effects of spaceflight.