![](https://assets.isu.pub/document-structure/230512145514-94384fbcaa5c7b5e963bd0419ce4d3a9/v1/51d57b891fef3b02543a031474fd53f3.jpeg?width=720&quality=85%2C50)
1 minute read
What is the Travel Speed?
A basic simulation on the optimal speed has been conducted, which resulted in a maximum of 10 km/h. This includes a spare time of five days that can be spent on additional EVA or maintenance missions.
Main Design Features of the Skeletal Shell
Advertisement
Solar Panels
At least 30 m2 of solar panels ensure that the habitat will have sufficient energy. A 200 kWh power storage is installed for an 48 hour emergency or in case the habitat crosses to the dark side. The surface of panels can be configured and rotated into the direction of the sun to get sunlight in 90 degrees.
Radiators
Radiators underneath the solar panels prevent the solar panels to overheat and are also responsible for cooling of the habitat.
Structural Skeleton
The skeleton works as the carrier of all infrastructural elements, including the mobility and solar energy system. The skeleton is made of aluminium trusses, with a thickness of 40 cm (at least 28 cm)
Living Module
Dimensions: 8,14x4,58x3,67 m
The hatch door has a big glass panel in order to give the crew the opportunity to observe the lunar surface and space.
Engine Force
The habitat is able to travel up to 15 km/h. A vehicle of 15 tons must have at least an engine with 1,75 horsepowers to ensure its mobilisation. Emergency situations in mind, every engine (8 seperate engines, one for every wheel) will have 1 horsepower (in total 8 HPs)
SUSPENSIONS & ROTATION
The suspension system is inspired by the Rocker Boogie suspension system of the Curiosity Rover. The Rocker Boogie system has been adapted to reduce the tension load on the skeleton.