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Spaceflight101 — Science in Plain Language Translating research into understanding — no PhD required. Browse Latest Posts Too much science journalism is either impenetrable or oversimplified. We go for the middle ground. Rigorous enough to get things right, clear enough that you won’t need a dictionary every other sentence. Our writers are scientists and educators…
How the NASA Twins Study Complicated Rather Than Simplified the Genetics of Spaceflight Adaptation On March 27, 2015, Scott Kelly strapped into a Soyuz and launched toward the International Space Station for a 340-day mission. His identical twin, Mark Kelly—a retired astronaut—stayed on the ground. The setup was almost too perfect: two humans with essentially…
Telemedicine is the remote assessment, monitoring, and treatment of a patient by a clinician who is not physically present. In spaceflight, it emerged as a necessity because evacuation is impossible, time delays are real, and the crew must serve as both patient and first responder. This article examines the named mechanisms—physiological monitoring, ultrasound protocols, autonomous…
In the clinical translation of spaceflight physiology, a discovery is a named observation: a molecule changes, a cell population shifts, a signaling pathway gets switched on. Understanding its implications is a different act entirely. It means tracing that observation through mechanism, dose, time, reversibility, and patient context until it becomes a testable hypothesis for terrestrial…
Spaceflight-associated neuro-ocular syndrome (SANS) is the clinical label for a cluster of structural and functional changes seen in astronauts after extended microgravity exposure: optic disc edema, globe flattening, choroidal folds, hyperopic refractive shifts, and occasional cotton-wool spots. The syndrome sits at the intersection of intracranial pressure (ICP), ocular biomechanics, and cerebral venous outflow. For researchers…
When people imagine space medicine, they picture the dramatic stuff: a rocket launch, a spacewalk, a medical emergency in microgravity. But the research that will eventually change how we treat osteoporosis, muscle wasting, and cardiovascular deconditioning on Earth rarely makes headlines. It lives in spreadsheets of ultrasound measurements, in weekly blood draws, in the slow…
On a Tuesday in February 2014, an astronaut aboard the International Space Station woke with blurred vision in the left eye. The crew medical officer—a fellow astronaut with roughly forty hours of clinical training, not a physician—logged the complaint in the station’s medical event database. Onset time. Visual acuity measurements taken with a pocket Snellen…
The Problem With Thinking That Science Has to Be immediately Useful to Be Worthwhile In the quiet hum of a lab, a researcher might spend years watching how a single protein folds in microgravity, or how a plant root knows which way to grow when there’s no real “down.” From the outside, it’s easy to…
In the summer of 2015, I floated in the middeck of a parabolic flight aircraft, watching a petri dish of human endothelial cells drift past my nose. The experiment—designed to see how these cells reoriented their cytoskeletons in freefall—had no immediate application. It wouldn’t cure cancer, build a better rocket, or even make headlines. Yet…
In the first week aboard the International Space Station, an astronaut takes 50 milligrams of diphenhydramine for a sleepless night. The same dose she used on Earth — where it reliably made her drowsy within thirty minutes — leaves her wide awake at the standard interval. Then it hits with unexpected force an hour later.…
The Problem with Demanding Immediate Usefulness from Science By Dr. Nadia Kovac | Spaceflight101.net I still remember the first time I watched a human cell divide under a microscope. It was in a cramped university lab, the air thick with the smell of agar, and I was completely transfixed. The slow, deliberate dance of chromosomes…