Colonial Posessions of Shazbotdom throughout the Solar System

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The Shazbotdom Empire is planning on instituting at least one Colonial Posession on Mars, Venus, and Luna. With the possibility of more to be added over time. These will be built by the Shazbotdom Imperial Space Administration.

Segments Used on Terrestrial Colonies

Standard Segments

These Segments are standard for Colonies that are slated to host human life. These will be the primary segments utilized for the Lunar and Martian colonies.
Segment Image Description
Solar and Battery
Storage Farm
SolarFarm.png
The primary component of the Lunar Colony is a facility that is designated as The Farm. This is the main power generation facility of the colonies. The Farm is expandable to be able to increase Solar Production as is needed for the Colonial Usage.
Main Airlock
MainAirlock.png
Utilized for the main entrance to the Colony for those who wish to walk around the Lunar Surface. The airlock will be available for all residents, and Space/Environmental Suits will be included in each residence for all residents of that dwelling.
Family Housing Units
FamilyHousingUnits.png
This segment will have 16 Family Housing Units set in a stack system with 3 stacks of 4 Units. These units can hold a family up to 4, making this section of the Colony to hold up to 64 Colonists.
Observation and
Hydroponics Bay
Hydroponics.png
Sitting at the top of the Family Housing Units is an Observatory/Hydroponics Bay. This Hydroponics Bay is a primary Oxygen production facility and uses advanced Hydroponics technology to help stimulate the production of O2. This system will work in conjunction with CO2 Scrubbers built into all the other segments.
Singles Housing Units
SinglesApartmentSegments.png
Both Dorm and Mini Apartment Style Units make up these segments of the Colony. The Dorm Style Units are three small bedrooms with a common area while the Mini Apartment Style Units will have a bedroom, kitchen, and living area.
Lunar Human
Landing Facility
LandingFacility.png
The Landing Facility, which will be in one of two locations, depending on the layout of the specific Colony, will including the landing Pad, one access hatch on either side of the landing pad, and a Check-In/Walking Hallway underneath the pad. The Landing facility will be the primary way for citizens to arrive at the colony and to leave the colony to either move or go on vacations away from home.
Martian/Venusian Human
Landing Facility
ISAMarsVenusLandingFacility.png
The Landing Facility for the Martian and Venusian Surfaces, will include two Landing Pads specifically designed for use with the Chi-class Martian/Venusian Lander. This Landing Facility will be twice the size of it's Lunar Counterpart due to the size of the Lander to be used.
Crop Landing
Facility
ISACropTransferPad.png
Landing Pad for the To Be Developed Crop Transport Vehicle to land at for the transportation of crop from the closest Farming Colonies
Crop Storage
And Store
ISAStorageAndStoreModule.png
The primary commerce area of the Colony. This will be where crops from the Farms will be stored and then available for 'purchase' by the Colonists.

Hydroponics Farm Segments

In an effort to maintain the Lunar Colonies as self-sustaining, the Imperial Space Administration is in the process of developing multi-use Farming Segments for several smaller Farming Colonies that will be strategically placed on the Lunar Surface to grow food for the Colonies. These Farming Colonies will including Housing for up to 10 Farmers.
Segment Image Description
Main Airlock
MainAirlock.png
Utilized for the main entrance to the Farming Colony, utilized for any repairs on the exterior of the Farm.
Solar Farm
ISAFarmSolarFarm.png
Like all facilities of the Empire, the Solar Farm for each Farming Colony will be the primary power generation and storage facility.
Farm Housing
ISAFarmingColonyHousing.png
Housing with one residential unit per floor.
Small Farm
Segment
ISASmallFarmModule.png
Small Farming Segment used to farm crops. Can be easily rotated between different crops, depending on the tastes of the colony at the time.
Large Farm
Segment
ISALargeFarmModule.png
Medium Farming Segment used to farm crops. Mainly used for crops that are main staples of cooking.
Extra Large Farm
Segment
ISAXLargeModule.png
Extra Large Farming Segment used to farm crops. Mainly used for crops that are main staples of cooking.
Storage Barn
Segment
ISAFarmCropStorage.png
Storage building to hold crop after harvesting and before transport.
Crop Landing
Facility
ISACropTransferPad.png
Landing Pad for the To Be Developed Crop Transport Vehicle to land at for the transportation of crop to the closest Colony
Lunar Human
Landing Facility
ISAFarmingColonyHumanLandingPad.png
A singular landing pad designed to work in conjunction with the Lunar Lander.
Martian/Venusian Human
Landing Facility
ISAMarsVenusLandingFacility.png
A singular landing pad designed to work in conjunction with the Martian/Venusian Lander.

Colonies

Type of Colonies

Residential

Establishing Residential Colonies

The first step towards establishing residential colonies on other planetary bodies is to identify the necessary requirements and resources needed to establish such a colony. This includes factors such as the availability of water, oxygen, and suitable habitats. Additionally, it is important to consider the infrastructure required to support human activities, such as housing, medical facilities, and recreational facilities.
One of the key factors to consider when choosing the site of a residential colony is the proximity to Earth. Ideally, the colony should be located close enough to Earth for frequent resupply missions but also far enough to ensure a self-sustaining existence. Additionally, the environmental conditions of the planet and its suitability for human life should be carefully considered.

Living Conditions in Residential Colonies

The living conditions in residential colonies will vary greatly depending on the specific planetary body being colonized. For instance, on Mars, which is often referred to as the next frontier for human settlement, the environment is relatively harsh compared to Earth. However, with technological advancements and careful planning, it is possible to create suitable habitats for humans.
Potential housing options for residential colonies may include underground facilities, domes, or structures built using 3D printing techniques. These structures will need to be designed to withstand the harsh environmental conditions and provide the necessary amenities for human life. One of the main challenges of living in space is the lack of gravity, which can have adverse effects on the human body. To address this challenge, various countermeasures such as artificial gravity and regular exercise regimes can be implemented.

Social and Cultural Life in Residential Colonies

Establishing social structures and fostering a sense of community in residential colonies will be crucial for their long-term viability. The absence of close family and friends can lead to feelings of isolation and loneliness, which can pose significant challenges to the psychological well-being of colonists. Therefore, it is important to develop strategies for creating social connections and ensuring the well-being of colonists.
One potential approach is to establish communal spaces where colonists can interact and engage in social activities. These spaces could range from shared living areas to recreational facilities. Additionally, virtual communication platforms and virtual reality technologies can help maintain connections with loved ones back on Earth.
Cultural developments are also likely to take place in residential colonies. The process of adapting to a new environment and establishing a new society can lead to unique cultural identities and traditions. Colonists may bring with them their own cultural beliefs and customs, which they may adapt or evolve over time. The interaction between different cultures can also contribute to a vibrant and diverse cultural landscape within the colony.

Hydroponics Farms

The feasibility of lunar hydroponics farming has been a subject of intense study for decades. Scientists and engineers have explored various methods and technologies to overcome the challenges of lunar soil, limited water availability, and extreme temperature variations. These efforts have culminated in the development of advanced hydroponic systems that can operate efficiently in the harsh conditions of the moon.
Advantages of Lunar Hydroponics
  1. Access to Abundant Resources: The moon possesses vast reserves of water in the form of frozen ice at the poles. Hydroponics allows the efficient extraction of this water, which can then be used for irrigation purposes. Additionally, the moon's low gravity environment eliminates the need for heavy soil, reducing transportation costs and simplifying the overall infrastructure.
  2. Energy Efficiency: Lunar hydroponics systems can be powered by a compact and energy-efficient solar energy system. The absence of atmospheric interference allows for maximum sunlight absorption, resulting in higher energy conversion efficiency. This self-sufficiency in energy generation reduces reliance on external resources, making the farming colony more resilient and sustainable.
  3. Resilience to Lunar Environments: Lunar hydroponics systems are designed to be resilient against extreme temperature fluctuations and radiation levels. The use of insulated cultivation chambers, temperature control systems, and radiation shielding ensures that the plants receive optimal conditions for growth. This resilience provides a stable food source even in the most challenging lunar environments.
  4. Future Expansion: The establishment of the first lunar hydroponics farming colony serves as a foundation for further exploration and development of the moon. As the colony grows and sustains itself, additional modules can be added to expand its capabilities and support a larger population. This scalability enables long-term lunar settlement and increases the chances of establishing commercial operations and scientific research.
Despite these challenges, the establishment of the first lunar hydroponics farming colony offers numerous opportunities for scientific advancement, economic development, and space exploration. It provides a sustainable food source for future astronauts, paving the way for long-term lunar exploration and potentially establishing human settlements beyond Earth.

Lunar

Sea of Tranquility

Sea Of Tranquility Colony
The First Lunar Colony of the Shazbotdom Empire is situated at the Sea of Tranquility, on the near side of the Moon. This settlement serves as a vital outpost and gateway to space exploration for the Shazbotdom Empire. With its strategic location and state-of-the-art infrastructure, the colony plays a crucial role in advancing the Shazbotdom Empire's ambitions in the vast expanse of space. This Colony of the Shazbotdom Empire was established in 2024, during the middle stages of space exploration. The primary objective behind this project was to establish a human settlement on the Moon, which would provide a strategic vantage point for scientific experiments, technological advancements, and the eventual colonization of other planets. The Colony is situated just north of the Sea of Tranquility, in the Descartes Highlands region. This location was chosen due to its favorable conditions, such as abundant sunlight, low surface gravity, and minimal atmospheric interference.

Sea of Tranquility Farms

Sea Of Tranquility Farming Colony - Farming Colony Alpha

Luna 2 Colony

Currently in the planning phase. The location is yet to be determined at this point in time. Planned to be slightly larger than the Sea of Tranquility location.

Martian

Martian Weather Stations

An Imperial Space Administration
Ground Weather Station
The Shazbotdom Imperial Space Administration (SISA) is embarking on a mission to Mars, with the goal of establishing a human presence on the Red Planet. As part of this mission, the Shazbotdom Imperial Space Administration plans to deploy a series of weather stations on Mars. These weather stations will be essential for the survival and success of future colonists on the Red Planet.

Sensors in the weather station

To effectively monitor and collect data about the Martian atmosphere, the weather station will be equipped with an array of sophisticated sensors. These sensors will measure various atmospheric conditions such as temperature, pressure, humidity, wind speed and direction, cloud formations, and atmospheric composition. One of the key atmospheric sensors in the weather station is a radiometer. This instrument will measure the electromagnetic radiation emitted by the Martian atmosphere, providing valuable insights into its composition. The radiometer will be able to detect the presence of elements such as carbon dioxide, oxygen, water vapor, and nitrogen.
In addition to the atmospheric sensors, the weather station will also feature an array of environmental sensors. These sensors will monitor various parameters related to the Martian surface, such as soil composition, soil temperature, and soil humidity. The data collected will help scientists understand the environmental conditions on the surface of Mars and its potential for supporting human life.

Data collected from the weather station

The data collected from the weather station will be crucial for planning future missions and establishing colonies on Mars. The atmospheric data will provide valuable information about the ever-changing weather conditions on Mars. This information will help determine the best locations for habitats, as well as the most suitable season for conducting various surface activities. The data collected on the environment sensors will provide insights into the characteristics of the Martian soil and its suitability for plant growth. This information will be crucial for designing and implementing sustainable farming techniques to support human life on Mars.

Analysis of the data

The analysis of the data collected will enable scientists to gain a better understanding of the Martian atmosphere and environmental conditions. The atmospheric analysis will help identify patterns and trends in the Martian weather, allowing future colonists to make informed decisions regarding their activities.
The analysis of the environmental data will offer valuable insights into the properties and composition of the Martian soil. This information will be crucial for selecting the most suitable soil compositions for plant growth, as well as for developing technologies for transforming Martian soil into fertile soil.
The data collected by the weather station will contribute to the overall understanding of the Martian environment and its potential for human habitation. It will enable scientists to make informed predictions about future weather patterns and will help plan efficient and sustainable human settlements on Mars.

Martian 1 Colony

Currently in the Launching phase. The location is yet to be determined at this point in time.

Orbital

Sigma Station

Currently in the Researching phase. This will be one of the largest undertakings in the short history of Colonization for the Empire. Planned to be at an altitude of ~600km, the plan calls for this station to utilize Ionic Engines to ensure that the Space Station Spins at set RPM, creating gravity for the inhabitants. It will also have hydroponics to make oxygen and give the ability to grow crops for its inhabitants.