Physicists at CERN’s Large Hadron Collider recreate quark–gluon plasma by smashing together heavy ions at relativistic energies to briefly liberate quarks and gluons.
Researchers at the Relativistic Heavy Ion Collider (RHIC) at Brookhaven National Laboratory used thermal electron-positron pairs emitted during ultrarelativistic heavy-ion collisions to decode the thermal profile of Quark-Gluon Plasma (QGP).
Atomos Space received telemetry from both Quark-LTE and Gluon on 2024-03-05 indicating the spacecraft were healthy but transmitting at a far lower rate than planned.
Atomos Space has been working to improve communications and to detumble Quark-LTE and Gluon and was preparing to commission the spacecraft’s propulsion system to demonstrate proximity operations as of 2024-03-20.
ReOrbit’s Gluon platform will use SatixFy radios to provide high data rate links between ReOrbit satellites and the ground segment.
The Gluon platform will use SatixFy radios to provide high data rate links between ReOrbit satellites and the ground segment.
ReOrbit and SatixFy Communications Ltd. have signed a purchase deal for a communication subsystem for ReOrbit’s Gluon platform.
The Gluon platform will use SatixFy radios to provide high data-rate links enabling communication between ReOrbit satellites and the ground segment.
The agreement establishes that VENG will manufacture and test ReOrbit’s Gluon satellite platform for ReOrbit’s Latin America customers.
ReOrbit is a Helsinki-based company that designs the Gluon satellite platform for different orbits including LEO, MEO, and GEO.
ReOrbit developed a satellite bus called Gluon that uses a payload-agnostic design to maximize service availability and cost effectiveness.
Atomos Space expects to launch its first two spacecraft, Quark and Gluon, in 2023.