A method of mounting cars on a free standing space elevator tower. The actively stabilized space elevator tower has a segmented elevator core structure, each segment being formed of at least one pneumatically pressurized cell. The method of mounting the elevator cars allows the cars to ascend or descend on the outer surface of the elevator core structure or in a shaft on the interior of the elevator core structure. The elevator cars grip the structure without use of a track and are able to pass other cars enabling bi-directional traffic flow using a twisting motion. The freestanding tower can be used for launch activities, tourism, observation, wind-energy generation, scientific research, and communications.
A freestanding space elevator tower for launching payloads, tourism, observation, scientific research and communications. The space elevator tower has a segmented elevator core structure, each segment being formed of at least one pneumatically pressurized cell. The pressure cells may be filled with air or another gas. Elevator cars may ascend or descend on the outer surface of the elevator core structure or in a shaft on the interior of the elevator core structure. A payload may be launched from a pod or deck at the upper end of the space elevator tower. The space elevator tower is stabilized by gyroscopic and active control machinery. The space elevator tower maintains a desired pressure level through gas compressor machinery. Methods of constructing the space elevator are also disclosed.
