Abstract: A hybrid communications assembly for a spacecraft is provided. The hybrid communications assembly may include an assembly base, one or more laser communications terminals mounted on the assembly base, and a radio frequency antenna system mounted on the assembly base. The assembly may be mounted on an earth deck of the spacecraft, and the laser communications terminals may be mounted at an angle between 20 and 70 degrees with respect to the earth deck. A thermal radiator may be mounted on the assembly base and thermally coupled to the laser communications terminal. The radio frequency antenna system may be disposed between the laser communications terminals. The radio frequency antenna system may include one or more antenna reflectors mounted on the assembly base and one or more antenna feeds mounted on a tower.

Abstract: A hybrid communications assembly for a spacecraft is provided. The hybrid communications assembly may include an assembly base, one or more laser communications terminals mounted on the assembly base, and a radio frequency antenna system mounted on the assembly base. The assembly may be mounted on an earth deck of the spacecraft, and the laser communications terminals may be mounted at an angle between 20 and 70 degrees with respect to the earth deck. A thermal radiator may be mounted on the assembly base and thermally coupled to the laser communications terminal. The radio frequency antenna system may be disposed between the laser communications terminals. The radio frequency antenna system may include one or more antenna reflectors mounted on the assembly base and one or more antenna feeds mounted on a tower.

Abstract: Embodiments associated with configurable, repeatable, data generation are described. One example method includes manipulating a redundancy parameter that controls data redundancy in binary large objects (BLOBs) to be included in a generated data set. The redundancy parameters may control variations in repeatable variable length sequences included in BLOBs. The example method also includes manipulating a parameter(s) that controls custom designed sequences included in BLOBs. With the redundancy and custom designed sequences described, the example method then generates BLOBs based, at least in part, on the redundancy parameters and the custom-designed sequences. BLOBs may include byte sequences repeated at different frequencies and configurable user-designed sequences. Manipulating the redundancy parameter, manipulating the custom-designed sequences, generating the BLOBs, and providing the BLOBS may be performed by separate processes acting in parallel.

Abstract: Embodiments associated with configurable, repeatable, data generation are described. One example method includes manipulating a redundancy parameter that controls data redundancy in binary large objects (BLOBs) to be included in a generated data set. The redundancy parameters may control variations in repeatable variable length sequences included in BLOBs. The example method also includes manipulating a parameter(s) that controls custom designed sequences included in BLOBs. With the redundancy and custom designed sequences described, the example method then generates BLOBs based, at least in part, on the redundancy parameters and the custom-designed sequences. BLOBs may include byte sequences repeated at different frequencies and configurable user-designed sequences. Manipulating the redundancy parameter, manipulating the custom-designed sequences, generating the BLOBs, and providing the BLOBS may be performed by separate processes acting in parallel.