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KiyoshiKiyoshi A shell, the largest component of the Pentad. The outermost shell of statite reflectors can be seen above the outermost living environment. Also visible are the intrastellar mass-streams that connect the five stars of the Xi Scorpii system (click for larger image) |
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Kiyoshi - Data Panel
Galactography System: Kiyoshi Primary: Xi Scorpius 5 Original Class: Five star system – A&B: F5V, C&D: G8V, E: K2V Note: The A and B components of the Xi Scorpius system have both been subjected to extensive core modification and star-lifting procedures resulting in the removal of approximately .5 solar masses from each body and the subsequent conversion of each component into extremely stable G-class stellar bodies with a consequent reduction in temperature and increase in lifespan. Pre-modification Luminosity: 8.3-.71x Sol Post-modification Luminosity: 1.4-.71x Sol Distance from Sol: 92.5 ly Constellation: Scorpius The A&B components of the system form a binary pair with an average separation of some 19 Astronomical Units. The C component orbits the A&B system with an average distance of some 210AU. The D&E binary pair orbits some 8000AU from the ABC complex and are in turn separated by an average distance of 329AU. Region: Inner Sphere Planets: None. All original planetary material converted into the Kiyoshi Pentad and associated structures. Dysonology: The Kiyoshi Pentad and the Transport Net The A, B, C, and D components of the Kiyoshi system have all been enclosed in mass-stream supported dyson sphere layers. Each of the four primary elements of the Kiyoshi complex consists of some 10,000 concentric habitation shells, with each shell supported by a geodesic grid work of active compression streams accelerated by magnetic induction and powered by the central star. With an innermost average radius of some 3.7 million kilometers and an average distance between shells of 10 kilometers (providing a gravity differential of approximately 10% across the entire thickness of each habitat shell from approximately 9-11 m/s2), each dyson possesses some 3 billion times the surface area of a terrestrial planet such as Earth. The combined habitable area of the entire dyson complex is approximately 12 billion times the surface area of a terrestrial world. Spread across the surface of each of the four dysons are millions of environments and habitats of nearly all sorts. Most are terrestrial, many are not. Illumination for each is provided by a network of light-pipes, reflectors, and filters running from the innermost surface of the structure all the way to the outermost level. At the final outer layer of each dyson, the light is sent upward toward an array of statite light sails that reflect it back down to provide illumination for the outer shell. For those biomes that use non-terrestrial atmospheres or have significant pressure differentials, industrial grade air-walls, extending from ‘floor’ to ‘ceiling’ between the interior levels, and hundreds of kilometers above the outer surface, prevent atmospheric mixing. While most Kiyoshin biomes are of planetary dimensions others are hundreds, thousands, or even millions of times the size of a planetary environment. Despite this, barely more than half of the total surface area of the complex has been fully developed, with the rest still left for the work of future generations. The E component has also been surrounded by a network of mass-streams but uses these dynamic compression members to support an extensive network of manufacturing and processing complexes in close proximity to the central star. In addition to supporting the elements of the manufacturing system, the mass-stream network is also used to launch finished products and materials toward the other components of the Kiyoshi system and its wormhole links. Running between the layers of each dyson structure, above their outer surfaces, and through the space between them is a second mass beam network. Numerous skyhooks connect the surface of each layer to the local mass streams and from there to the entire network as a whole. Using the Transport Net it is possible to rapidly reach virtually any point on any of the primary dyson spheres and to travel between the spheres themselves in a matter of days to months depending on ones destination and preferred method of travel along the mass streams. Control and stabilization of the intrastellar transport links is managed by a system of re-collimation and re-aiming stations spaced at regular intervals along the network and controlled by comm-gauge wormhole links. As the components of the Kiyoshi system orbit around each other, the stabilization system continuously adjusts and re-aims the mass beams to maintain system integrity as well as compensating for the occasional magnetic or gravitic anomaly originating in the central stars. Cooling of the overall Kiyoshi complex is also handled in part by the Transport Net. In combination with a recycling dust layer magnetically pumped between each habitat level and then out into space, the mass stream particles of the transport net are used to absorb heat from each habitat level and then ultimately release it into the cold of intrastellar space as the mass streams converge on and are then sent through the deep space components of the system connecting the major elements of the Kiyoshi complex. Important Local Artificial Intelligences AI overseer: Kiyoshin Transtelec Synod Cluster (S4 distributed intellect with associated S3 and lower sub-minds in secondary roles. Dream Factory elements are also present in an advisory capacity) AI's ethos: The thrill of adventure and the joy of discovery. Kiyoshi is a major sponsor of deep space probe expeditions, exploration swarms, and the continuing maintenance and operation of the Argus Array. Polity Name: Mutual Progress Alliance |
| Related Pages The Lifts- transport between the shells of the Kiyoshi Dysons |