Ice Categories
Ice formations, found in various cosmic locations offering unique resources crucial for survival and technological advancement in space.
Last updated
Ice formations, found in various cosmic locations offering unique resources crucial for survival and technological advancement in space.
Last updated
The universe of Far From Home is a tapestry of varied and intricate ice formations, each distinct in its composition and brimming with potential. These ice bodies, found in the depths of asteroid belts, on the fringes of distant planets, and within the cold expanses of uncharted space, present both a spectacle and a wealth of resources
These diverse ice categories range from water ice, found commonly at the outer layers of the star system, to more exotic types like carbon dioxide or methane clathrates. Each type of ice offers unique challenges and rewards, holding the key to vital resources necessary for survival and technological advancement.
As explorers venture into these icy realms, they will find that mining and processing these materials requires specialized equipment and strategies. Extracting resources from these ices, such as water for life support, fuel components, and other volatiles, will be crucial for players aiming to thrive and establish their presence in the universe.
This section of the Galactopedia in Far From Home is designed to provide an insight into the various ice categories players will encounter. It's a guide for those who seek to master the art of ice mining and for those intrigued by the scientific and exploratory potential of these frozen frontiers. As with the asteroid categories, the universe of Far From Home is continually evolving, and players may discover new types of ice formations in uncharted territories, each offering new resources.
Primarily composed of H2O, water ice can be found in abundance on comets, the surfaces of colder moons, and the shadowed craters of asteroids. In Far From Home, mining water ice is a fundamental activity for survival and expansion in space. Water ice, when refined, is not only vital for sustaining life but also for fuel production, as it can be electrolyzed into hydrogen and oxygen. These elements are crucial for fuel cells and life support systems in space habitats.
Liquid Hydrogen (H)
52.37 %
Liquid Oxygen (O)
25.57 %
Heavy Ice, or Type II ice, represents one of the more scientifically intriguing and valuable resources. This ice type is characterized by its high concentration of heavy isotopes, primarily Deuterium, a heavy isotope of hydrogen. Deuterium is naturally occurring and is found in higher concentrations in Heavy Ice than in standard Water Ice. The unique properties of Deuterium make it an invaluable resource, especially for fuel synthesis and advanced scientific research.
Heavy Ice is predominantly located in regions of space with specific astrological and environmental conditions, often in the colder, less explored sectors. It appears as a denser, more opaque version of regular ice and can be distinguished by its slightly bluish tint.
Liquid Deuterium (D20)
58.22 %
Liquid Hydrogen (H)
22.37 %
Liquid Oxygen (O)
5.57 %
Gas Ice represents a complex and intriguing category of ice, composed mainly of various frozen volatile gases. This type of ice is typically found in the colder, outer regions of star systems, where temperatures are low enough to freeze gases like methane, carbon dioxide, neon, and argon into solid form. These icy bodies often form in areas of high pressure and low solar radiation, such as the outer edges of gas giants or the deep recesses of nebulae. Gas Ice is a versatile resource, providing essential materials for fuel synthesis, life support systems, and even chemical manufacturing.
Liquid Hydrogen (H)
22.37 %
Neon (Ne)
21.12 %
Carbon (C)
7.25 %
Liquid Oxygen (O)
5.57 %
Argon (Ar)
5.01 %
Nitrogen (N)
2.01 %
Helium-3 Ice offers immense potential for both energy production and scientific research. This exceptional form of ice is typically found in the most remote and unexplored regions of space, often on airless celestial bodies or within the upper layers of gas giants' atmospheres. The unique properties of Helium-3 make it a key component for advanced fusion reactions, and FTL propulsion systems. Unlike more common fusion materials, Helium-3 produces minimal radioactive byproducts, making it a cleaner and more efficient energy source. Mining and studying this ice type can unlock new research paths and technologies, allowing the usage of more efficient energy systems and advanced propulsion methods that can drastically reduce travel times.
Liquid Helium-3 (He-3)
55.57 %
Liquid Hydrogen (H)
22.37 %
Ice containing basic organic compounds capable of forming amino acids is crucial for the synthesis of life-supporting molecules. These ices, found on comets and outer solar system bodies, contain a mixture of water, hydrocarbons, and other organic materials. They might consist of approximately 65% water ice, with the remaining 35% being a mixture of hydrocarbons and other organic compounds. Mining and processing this ice could potentially support biohabitat systems and pharmaceutical synthesis.
Liquid Hydrogen (H)
38.37 %
Liquid Oxygen (O)
21.17 %
Carbon (C)
8.32 %
Nitrogen (N)
9.74 %
Amino Acids
5.14 %
Sulfur (S)
0.5 %
Azure Ice, a striking and unique type of ice, is distinguished by its deep blue hue and is primarily found in the shadowed recesses of asteroids and on the surface of distant, cold planets. This ice is not only visually captivating but also scientifically valuable. It is formed under specific cosmic conditions that involve the interaction of water with rare minerals and trace elements, which impart its characteristic color.
Liquid Hydrogen (H)
25.37 %
Lithium Isotopes (Li)
14.57 %
Boron Compounds (B)
7.32 %
Silicon-Based Compounds (Si)
5.74 %
*The detailed ice composition distribution will be revealed in future versions of the Galactopedia. These values represent the current state of the alpha version and may not accurately reflect the final game balance.
Note: This Galactopedia entry is based on known data up to 2023 and may be subject to revisions with newer discoveries. It serves as a comprehensive guide for travelers, engineers, and enthusiasts alike, ensuring that knowledge remains accessible to all.
