>
Researchers discover revolutionary material that could shatter the limits of traditional solar panel
Scientists Tested 8 Famous Cities. Only 1 Met The Standard For Tree Cover
How Long You Can Balance on 1 Leg Reveals Neuromuscular Aging
Leukemia: Symptoms, Causes, Treatments, and Natural Approaches
Forget Houston. This Space Balloon Will Launch You to the Edge of the Cosmos From a Floating...
SpaceX and NASA show off how Starship will help astronauts land on the moon (images)
How aged cells in one organ can cause a cascade of organ failure
World's most advanced hypergravity facility is now open for business
New Low-Carbon Concrete Outperforms Today's Highway Material While Cutting Costs in Minnesota
Spinning fusion fuel for efficiency and Burn Tritium Ten Times More Efficiently
Rocket plane makes first civil supersonic flight since Concorde
Muscle-powered mechanism desalinates up to 8 liters of seawater per hour
Student-built rocket breaks space altitude record as it hits hypersonic speeds
Researchers discover revolutionary material that could shatter limits of traditional solar panels
Terran Orbit has set a new record for transmitting at high-speed from space to Earth as NASA's Pathfinder Technology Demonstrator 3 (PTD-3) CubeSat used an optical laser system to beam data from 300 miles (480 km) up to a ground station at a rate of 200 gigabits per second.
The advance of space travel since the first Sputnik launch in 1957 has been one of paradox. Humanity has gone from lofting crude orbital packages that couldn't do more than go "beep beep" with monotonous regularity, to sending robotic rovers to Mars, probing the atmospheres of Jupiter and Titan, visiting every planet in the solar system, and sending our uncrewed emissaries on one-way voyages into interstellar space.
Despite this, space communications have been stuck decades in the past, still relying on X-band radio. Set at 7.25 GHz to 7.75 GHz and 7.9 GHz to 8.4 GHz, it has been the standard for satellite transmissions for a number of reasons – not the least of which is that it can penetrate through water-laden clouds.
However it also has ridiculously little bandwidth. The rates vary with transmitter and receiver configuration, but a 45-cm (18-in) antenna can achieve a data rate of 10 Mbit/s and the Hubble Space Telescope can only handle about 10 terabytes per year.
To overcome this, NASA and its commercial partners are developing laser-based alternatives. In this case, the TeraByte InfraRed Delivery (TBIRD) payload, which is funded by the NASA Space Communications and Navigation (SCaN) and developed by the MIT Lincoln Laboratory.
According to Terran Orbital, this new capability will allow satellites to transmit terabytes of data with each pass over a ground station. In addition it will allow for major advances in existing technologies, including space-based earth observation systems and synthetic aperture radars.