As Sher sets foot outside the elevator's doors, he is embraced by a feeling of comfort, security, and belonging.

He breathes in the air, feeling as if he was in the wilds of the Amazon. He glances at the skyline laced with
skyscrapers, which seem to disappear into clouds. He walks further, dodging residents in stylish-looking
bicycles, and cars with no driver behind the wheels, as he loses track of all the interesting facilities he sees, and
holograms all around indicating to him, what is in store for him. He approaches the airlock station. Guided by
holograms, he enters the other side of the airlock, into the fabled town area beyond his expectations, filled with
lush green trees and townhouses that give a sense of déjà vu. Guided to his new home, raised on an inclined
platform, he sees a silver glimpse from the edge of the house and follows it, he travels to the edge of the surface
and from his backyard, sees out through the window, a cargo ship docking. It would unload its cargo into the
storage hub, from where it would zoom along on a set of trains, awaiting its destination, be that an industrial
complex or the agricultural sector. It would move along in zero gravity, a sensation he had yet to grasp fully.
That water was spilt yet never touched the floor. This novel feeling of tingling in his spine, redefined for him,
the idea of what was possible. Setting up a garden chair, as he awaited to greet his incoming family, into their
new home, he grasped that all his life, he wondered about his place in the dirt of the distant planet, but it truly
lay in the stars above.

Our vision of Bellevistat as you have seen above encompasses a construction process of 27 years, specially
designed to achieve IOC in 12.5 years and then FOC in a further expected 14.5 years, which is to take place
completely in space; one of the most unique points of Bellevistat. Boasting redefined categories for structural
construction, the process itself is poised to be efficient in terms of achieving IOC as fast as possible, utilizing a
bolting and riveting mechanism, which is one of the most comprehensive construction mechanics in space
settlement design history. The expansion system is purpose-built, utilizing a construction crane that is going to
be integral to expanding the community and the structure of the settlement itself. Upon the completion of the
structure, a dumbbell shaped design will be formed, with a looming radiation shield that is always pointing
towards the sun, that minimizes passive radiation, and shutters attached on the slits on the radiation shields for
solar flare emergency.
The course correction thrusters generate maximum torque, since they are maximum distance apart, to align the
settlement according to the radiation shields. Gravitational levels in both the agriculture torii and the industrial
torii are varied and set at not being lower than 0.55G and 0.2G respectively, since 0.5G is the minimum amount
of gravity level that is required for agricultural processes, and refining and weightlifting are easier on lower G
levels, since the force due to gravity is less. The Agricultural system will also make use of fogponics, which
increase efficiency and minimizes costs for the overall settlement. The 0 G Industrial cylinder will not be
rotating however the torii have variable G levels as defined by the rotation and will be the primary center for
interplanetary ship construction, one of the primary targets of Bellevistat. The microgravity zones will be
hybridized to include not only recreation and research but also serve as a communication center for the whole
settlement. A large base of operations, constructed on the moon will be used to source lunar materials to
minimize contact with earth to save millions in launch costs, making the settlement economically sustainable.
A vast inter-torus system defines the localized transport, reducing transport times, which is necessary given the
size of the settlement. Generating energy both through solar and nuclear sources, the solar panels on the
radiation shields contribute to the generated power and the nuclear energy fulfils the energy requirements and
the magnetic tube, while high in initial costs, is ground-breaking in terms of the electrical energy it generates
from the cargo ships to land on the moon. The innovative expansion system allows us to expand essentially
everything, without impending ongoing processes in any part of the structure and especially gives us substantial
area to construct the “Stock Hub”.
Bellevistat will have a construction cost of approximately 2.9-3.6 trillion dollars. A range has been given since
that is the expected cost which will only be calculated to 100 percent accuracy once we encounter or reach
future stages of construction. Furthermore, we expect that after around 10 years of reaching FOC, our
settlement will go into profit and cover up the construction costs.

“I think of space not as the final frontier but as the next frontier. Not as something to be conquered
but to be explored”
Neil Degrasse Tyson
1.1 Full page dimensioned drawing

3
Bellevistat
2.1.1(a)-Residential Module:
The Residential Module consists of 4 residential torii
which are the hub of residential and commercial
activties. The residential torii will be
ar resemblance to a modern city with facilties like luxury
apartments, offices, schools, superstores and unique
recreation facilities. Each torus will be divided into 2
isolatable sections with different community outlook to
provide a variation of environment to the residents living
in our settlement. Natural light will be provided through
windows installed in the walls of the torii. Figure 2.1.1(a)
Table 2.1.1(a) Gravity RP dsur Vertical dmin dmax Down Down Usable
/G M /m Clearance /m /m Surface Surface Volume
(a)/m Width/m Area /m2 (VU) /m3
Residential 0.25 1 224 110 114 244 220 310000 2.018 x
Torus 1.0 – R1.0 107
Residential 0.6 1.1 444 110 334 464 215 600000 4.54 x
Torus 2.0 - R2.0 107
Residential 0.45 1 403 110 293 423 275 696333 5.194 x
Torus 1.1 – R1.1 107
Residential 0.83 1.1 614 110 504 634 271 1045483 8.223 x
Torus 2.1 – R2.1 107
2.1.1(b)-Industrial Module
The Industrial Module consists of 4 Industrial Torii and 1 Zero G Cylinder. The Industrial Module is the
backbone of the settlement and is the hub of manufacturing,refining of raw materials, production of finished and
service goods,robot construction, power production and interplanetary ship construction. Bellevistat is primarily
an industrial settlement specializing in manufacturing and refining of raw materials which is why industry
occupies a major part of our settlement
Table Gravity /G RPM dsur Vertical dmin dmax Down Down Usable
2.1.1(b) /m Clearance /m /m Surface Surface Volume
Industrial (a)/m Width/m Area /m2 (VU) /m3
Torii
Industrial 0.2 0.8 280 80 200 300 277 487323 2.62 x
Torus 1.0 107
Industrial 0.35 0.9 387 80 307 407 287 697867 3.93 x
Torus 2.0 107
Industrial 0.3 0.8 419 80 339 439 358 942490 5.36 x
Torus 1.1 107
Industrial 0.48 0.9 530 90 440 550 373 1242122 8.05 x
Torus 2.1 107
Table 2.1.1(c)-Zero G Cylinder
IOC FOC
Down Surface 8444459 2364486
Area /m2
Down Surface 192 192
Width /m
Number of 4 7
Surfaces
dsur/m 330 575
Vertical 65 65/85
Clearance /m
Usable 65582941 199764340
Volume(VU) Figure
/m3 2.1.1(b) Zero
G Cylinder
 2.1.1(c)-Agriculture Module
The Agricultural Module is the section of Bellevistat responsible for all agriculture related activities such as
crop cutivation and processing of crops. To achieve higher/unform vertical clearnace without affecting down
surface area throughout the torus to facilitate our fogponic vertical farms, a slightly cuboid shape has been
adopted for the cross section of our torii since an ellipse shape does not have a unifrom vertical clearance at
every point
Table Gravity RPM dsur Vertical dmin dmax Down Down Usable
2.1.1(d) /G /m Clearance /m /m Surface Surface Volume
(a) /m Width /m Area /m2 (VU) /m3
Agricultural 0.55 1.1 407 95 312 426 317 810000 61439447
Torus 1.0
Agricultural 0.74 1.1 547 95 453 567 317 1089497 85365796
Torus 1.1
Values of 0.9-1.1 RPM have been chosen for all constructed tori due to:
(a) reduction in costs of initiating/maintaining rotation as more RPM means a faster velocity
(b) To account for the Coriolis Effect and minimize adaptation times upon entry in varying gravity levels
Figure 2.1.1(c) Figure 2.1.1(d)

Red – Non-Rotating 2.1.1(D) Radiation shieldd

Volumes Bellevistat’ s Radiation shield is one of its innovative Red – Vacuum
Gray- Rotating features, whose entire purpo se is to minimize on Blue- Variable Pressure
Volumes passive Gray- Fixed Pressure
radiati on shielding mass. The Note: All spokes are in
lesser mass w e use in our settlement, the Vacuum
lesser the cost associated in constructing
it. By concent rating passive shielding in
one place inst ead of installing passive shields in all residential
minimizes on sections total mass. Hence, the radiation shield will be
facing the Sun constantly (which is the major source of the radiation) at
maximum dev a
panels and tra iation of 6 degrees. The radiation shield will house solar
Figure light. Transpa nsparent slits in between allowing for passage of natural
2.1.1(e) well. The shie rent sections will contain radiation protection materials as
less prone to ld has also been made slightly curved in order to make it
2.1.1(F)-Micro-Gravity Zone eak/fracture in response
Table to debris/object
2.1.1(e) IOC collision.
FOC
The Micro-Gravity Zone is the epicenter of Bellevistat’s communication system, Micro Gravity
research laboratories and also houses the Zero/Micro G Recreation facilities. The Zone
Micro Gravity Zone is in the shape of a cuboid with multiple (2) down surfaces
Gravity /G 0.05 0.1
which allows different gravity levels and expansion capability in the future.
2.1.1(E)-Stock Hub RPM 0.9 0.9
The stock hub, short for storage and docking hub, is the part of dsur/m 120 120/190
Bellevistat where all standard docking and MRO procedures dmax/m 128 198
take place along with storage of excess raw materials, crops, Vertical 60 62
robots, fuel for refueling purposes, non-essential CASSCS etc. and also houses an emergency evacuation zone.
Clearance/m
Cargo ships, space tugs and passenger ships along with ships in need of repair or MRO services will all dock on

4
 2.1.3 Identify construction materials used for major structural components
Table 2.1.3(a) – Construction materials for hull
Material Functionality Thickness
KM2-705 Heat resistant fiber which is a shock absorber, as well as acts as a 0.3m
resistant against penetration of particles
Micro Capsule Polymer Self-healing substance which will prevent entry of particles and 0.5m
will require little to no maintenance or replacement
Grade 4 Titanium Excellent corrosion resistance, strength and weldability 1.8m
2DPA-1 Stronger than steel and as light as plastic – high strength to weight 0.5m
ratio
Cryogenic Hydrogen Radiation protection against High Z Particles(Variable) 0.5m
Radiation Shield
Carbon Nanotubes with Exceptional tensile strength and toughness and can resist a wide 0.4m
water flowing in between range of temperatures
Lunarcrete Lunar regolith which serves as construction aggregate 2m
Aluminum 2219 76 Corrosion resistance, weldability and high tensile strength 1.4m
Cellular Glass Coating Zero permeability, is moisture resistant and can withstand a high 0.2m
amount of compression and wide temperature variations
Polyvinylidene Fluoride Real-time structural health monitoring sensor and allows for a large 0.1m
piezoelectric polymer range of measurable strain levels
2.1.4 Rotation Interface between Rotating and Non Rotating Sections
Our settlement will be utilizing a Hybrid Magnetic Bearing System incorporating elements of Passive and
Active Bearing Systems. This is due to the lack of any moving parts and friction. Passive Magnetic Bearings
involving permanent magnets on their own are impractical due to limitations imposed by Earnshaw’s Theorem
and lack of any damping which means additional measures are required to gain sufficient stability against
disturbances. Figure 2.1.4(a)
For this, we will be using electromagnets which are part of an
automatic correction loop. Hence, permanent magnets will carry the
static load and the active magnetic bearing is used mainly when the
spokes deviate from their optimum position. This has the advantage of
reducing total electricity usage compared to plain active magnetic
bearings, reducing costs in the long run.
The electromagnets will be superconducting and will be cooled to
cryogenic temperatures by liquid Helium which will allow us to
generate Magnetic Fields of up to 60 Teslas. For deviation correction,
the polarity of a deliberate number of electromagnets will be changed
so as to generate a resultant vector which will return our torus to its
optimum position. Neodymium-Iron magnets will be used as our
permanent magnets of choice on account of their strong magnetic
fields. Soft iron cores will be used for magnetic flux linkage and to increase the net magnetic field.

Table 2.3.3(a)- Rotation Initiation Phases

Phase 1 A couple of forces will be applied tangentially to the torus which will cause a net torque. This will
generate an angular acceleration whose vector will pass through the central axle (into/out of the
page)
Phase 2 Once 50 percent of the time taken to initiate rotation has passed, the magnitude of the couple will
be gradually decreased until it becomes zero. At this point, net torque will be zero and desired
RPM will be achieved.
Phase 3 During interior construction, when buildings will be constructed, the mass of the torus will
increase which will have the effect of increasing the Moment of Inertia of the structure and hence
decreasing RPM. When this happens, the couple will be applied for a period of time to increase
the RPM to the desired level.
2.3.1 Settlement assembly
Table 2.3.1(a)Construction Processes
Step 1 – Pre-Built sections of the Central Axle will be brought into orbit
through the use of space tugs and then assembled by bolting and riveting.
Initial Construction robots to be built and provided by Alexandriat.
Temporary residences for construction workers will be made in Central
axle through inflatable buildings (Refer to 2.3.2)
Step 2 – Storage/Docking Hub built to IOC level along with ports to
initiate material/resource transfer. Temporary residences and agriculture
shifted to Docking Hub. Radiation shield built entirely and solar panels
built according to IOC levels

Step 3 – Industrial Torus 1.0 and Zero G cylinder built. Rotation initiated
after exterior hull completion and interior structures built sequentially.
Production is moved majorly to Bellevistat and construction will proceed
forward much faster now

Step 4 –Residential Torus 2.0 and Agricultural Torus 1.0 built and rotation
initiated. Interior structures built after rotation initiated. Course Correction
Module made as well. Permanent residents can begin moving in after this
stage of construction

Step 5 –Residential Torus 1.0, Industrial Torus 2.0, and Micro Gravity
Zone made simultaneously. Rotation initiated and interior structures made
simultaneously as well. IOC Stage Achieved

Step 6 – Remaining solar panels built along with Industrial Torus 2.1.
Residential Torus 2.1 built as well.
Note: Interior structures of all expanded tori will not be made until
construction cranes have been detached. Initiation of artificial for
expanded tori shown in Expansion system details (Refer to 2.5)

Step 7 –Industrial Torus 1.1 and Agricultural Torus 1.1 built. Agricultural
Torus 1.1 interior structure half developed only (No need to develop fully
at this stage). Storage/Docking Hub expanded to FOC levels (Refer to 6.3)

Step 8 – Residential Torus 1.1 built. Remaining interior sections of

Agricultural Torus 1.1 completed. Zero G cylinder expanded as well.
Micro Gravity Zone expanded to FOC levels as well. FOC stage achieved
 3.1.1-Bellevistat will operate in orbit around the Earth-
Luna L4 liberation point

Bellevistat will operate in orbit around the Ceres–Sun L4 Lagrange Point, a region where the combined gravitational forces
of Ceres and the Sun create a stable orbital position. At this location, the settlement will experience equilibrium, requiring
minimal propulsion for station-keeping. The settlement will maintain a continuous solar-facing orientation, optimizing
energy collection and thermal management. This strategic positioning also ensures efficient access to interplanetary trade
routes and resource extraction operations from Ceres' surface, supporting long-term sustainability.

3.13.1.2- Sources + amounts of

materials, equipment
Table 3.1.2(a) Sources of materials for construction and operations
Material Before Industrial Capabilities After Industrial Capabilities Total CASSSC loads
Hydrogen Stuff of Life Photocatalytic splitting of water and 62 + Refer to
Lunar Regolith 3.2.8
Oxygen Stuff of Life Photocalytic splitting of water and solid Refer to 3.2.8
oxide electrolysis of water
Lunacrete Lunar Regolith - 704332
Titanium Lunar Ilmenite Ore Kroll Process 1099678
Water Stuff of Life Lunar Ice Caps Refer to 3.2.8
Carbon Nanotubes Tubular Technologies - 67180
Aluminum 2219 t6 Lunar Regolith + Ilmenite Ore Bayer and Hall-Heroult Processes 460794
Carbon Dioxide Stuff of Life - Refer to 3.2.8
Polyvinylidene Alexandriat Industrially through Hydrogen and Flourine 24109
Fluorid
Calcium Lunar Regolith Lunar Anoothite -
Carbonate
Cellular Glass - Industrially through geopolymer glass, carbon, oxygen, and calcium 3522
Micro-capsule epoxy resin from earth combining microfluidics and photo- 74794
polymer polymerization
KM2-705 Hydrogen and Nitrogen to Condensation Reaction of C6H8N2 and 56096
make PPTA fiber C8H4Cl2O2 followed by Wet Spinning
2DPA-1 HCN from Lunar Regolith to Urea from waste recycling processes 88200
produce Melamine
Gallium Arsenide Purchased commercially- Vertical Gradient Freeze 13
transported in CASSSCs
Sourcing of Equipment
Equipment Before Industrial Capabilities After Industrial Capabilities No. of units after expansion
Primary Jig Manufactured on Alexandriat Maintenance and production of jigs to 64
and shipped in Customized be done on Bellevistat. Jigs repurposed (Repurposed
CASSSCs after use. after use)
Construction Sourced from subcontractor Maintenance and production of newer 39771
Robots Bots4u robots to be done on Bellevistat
Agriculture Sourced from Subcontractor Sourced from Subcontractor “Drone 150
Drones “Drone and Delivery” and Delivery”
Fogponic Modules Parts manufactured on Parts manufactured locally on 1022807
Alexandriat, transported in Bellevistat. Frame material such as
parts and assembled on site CFRP/Tit
1. Specifically designed robots will be sourced by the subcontractor Bots4U, transported to settlement via
the use of Mass Drivers provided by the subcontractor Magnetic Propulsion Company, which will then be
moved to the site of construction by space tugs.
 3.2.1-Air and atmosphere
Table 3.2.1(a)- Air Composition Figure 3.2.1(a)
Gas kPa P/ Deviations
MmHg
Oxygen 22.7 ~170 9 kPa
Nitrogen 26.7 ~200 5 kPa
Carbon 0.3 3 0.07kPa
Dioxide
Water 1 7.5 0.33 kPa and 2.5 mm Hg
Vapors
Other 2 15 2 kPa
gases

Average Temp 22 °C
Relative Humidity 40 percent

Agricultural Processes
Bellevistat’s agricultural system consists of eight partitions within the torus. Four are designated for staple crops,
maintained at different temperatures for optimal growth, while three are used for fruit cultivation. The final partition is
dedicated to agricultural processing and storage. Crops are grown using fogponics, with 28 modular towers containing 12
plants each. These towers utilize ultrasonic mist generators to deliver nutrients and optimize resource use.

Harvesting and plantation are fully automated, with robotic arms conducting precise crop collection. Agrodrones transport
harvested produce to designated storage silos. Additionally, fruits are cultivated on decorative trees within the residential
torus.

Meat production is achieved through stem cell culture. Bovine muscle stem cells are incubated and expanded in bioreactors
to form synthetic meat. Milk is generated via precision fermentation, with coconut fats added for a natural texture.

Atmosphere Regulation
Bellevistat employs multiple atmospheric regulation techniques.

 Dehumidifiers control humidity by cooling air, condensing excess water, and filtering it out. The dehumidifiers use
a system of heat exchangers to dissipate excess heat, leading to condensation of water droplets, which are filtered
through a hydrophobic cone, screen, and sump. The extent of dehumidification is regulated by temperature variation
and process frequency.
 Cloud Seeding utilizes silver iodide to release ice crystals into the atmosphere, serving as condensation nuclei that
trigger a chain reaction of water vapor condensation until droplets form and fall as rain. Ceiling ducts distribute
silver iodide particles to regulate atmospheric water levels.
 CO2 Scrubbing is conducted via zeolite granules, which absorb carbon dioxide when air is passed through them.
The zeolite is regenerated through heating and exposure to a vacuum, effectively removing excess CO2.
 Solid Oxide Electrolysis Stacks manage oxygen concentration and pressure by utilizing electrochemical processes.

Power Generation and Storage

Bellevistat’s energy needs are met through Gallium Arsenide solar cells integrated into its radiation shield. These high-
efficiency panels are coupled with perovskite layers to enhance light absorption. Electricity is distributed to residential,
industrial, and agricultural sectors via a central grid. Excess energy is stored using Power-to-X (PtX) technology,
converting surplus electricity into green fuels through Solid-Oxide Electrolysis Cells (SOECs). These cells double as fuel
stacks, enhancing energy efficiency and minimizing degradation.
3.2.7-Internal Transport Mechanisms

Table 3.2.7(a)-Internal Transport Mechanisms

Transport Medium Key Characteristic
Self-driving  Individual transportation plus workstation Figure
workstation  Free-movement throughout the community, however 3.2.7(a)
the distance travelled through this means will be
limited through the keychain access so that people
are encouraged to use the cycle and daily exercise is
ensured
 Interface for
entertainment, work,
personal hobbies,
communication etc.

 Keychain access would grant you access to all your

Figure documentation, data, personal records, etc.
3.2.7(b)  Predefined routes which can be chosen from, and altered
as well depending upon the traffic that is on the chosen route.
 60 per torus

Rail pod  Communal form of transportation carrying 4 individuals

 No interface for keychain access
 Fastest form of transportation
 Predefined routes which cannot be switched in transit and will be magnetically rail bound
 Rail bound movement on specific routes, which will also be limited
 Soft start and soft stop mechanism to prevent RPM of settlement from Red- Pod Route
Blue- Pickup/
drop station

 40 per torus
 Quarter-cylindrical shape
Inter
 Retain constant speed and
Torus
not accelerate
Train
 3 civilian divisions for
residents each housing up to 25
individuals with isolated contra
interfaces
 5 divisions for cargo
transportation
 Only available for inter-torus transportation through the central axle
 Soft start and soft stop mechanisms minimize/eliminate any effect that
the launching can have on the rotation of the tori
 Windows to showcase user specific scenery and content
 4 operating above the storage hub and 4 below

Bicycle  Encourage daily exercise so as to prevent bone

degradation
 Keychain access which will record your exercise
routine and continuously increase the physical
padding difficulty accordingly based on your
adroitness. The difficulty will be varied through  Varying composites of
padding system on the tires by increasing friction for aluminum will be used
rigorous exercise.
 Spokes will adjust in height depending upon
the gravitational field strength
3.2.8 Day and Night Cycle Provision Table 3.2.8(a)-Day Patterns
Natural light will be regulated with shutters and electrochromic glass, mimicking Period Time
different times of day and seasons. Residents can set their own lighting. Ambient Dawn 5 am to 6:30 am
lighting will be achieved through shutter angles and LED lights will imitate Morning 6:30 am to 12 pm
constellations. Temperature regulators will differentiate temperature to mimic day and Noon 12 pm to 2 pm
night. Afternoon 2 pm to 4:30 pm
3.2.9 CASSCS loads of amenities 4:30 pm to 6:30
Evening
Table 3.2.9(a) Volume Total Volume No. of pm
– Min required of water CASSSCs Dusk 6:30 pm to 8 pm
CASSSC loads per person required required Night 8 pm to 5 am
for water daily/liters (residential)
IOC 350 1,400,000 62
FOC 350 3,500,000 195 As the previous mass limit of the CASSSCs
only allowed the transport of very low
volumes of high-density materials without exceeding the limit, to better the costs associated with transportation,
we have produced a new CASSSC made of Carbon-Fiber Reinforced Polymer, with a mass limit of 45,000
kilograms.
3.3- Jigs must keep components aligned and precisely in Figure 3.3(a)
proper position until they are joined
Construction jigs used in Bellevistat are in the form of an
symmetric structure. At any given time, up to 10 robots can
work by attaching themselves to any of the arms of the jig. Each
construction robot will have a small rod protruding out of it, like
a key. Meanwhile each arm, will have the “lock” for this key, or
in other words, a hole specific to that rod. In this way robots can
attach onto any set of arms, making construction easier. The
body of jigs will be made of 2DPA-1 and aluminum alloys to Figure 3.3(b)
increase shock absorption capability of jigs.
The arms will be retractable, able to extend up to a length of
20 meters, and will be made of titanium and steel alloys,
with joints to allow rotating ability of arms. The clamps and
connecting rods will allow the jig to hold the 2 sections in
place until they are joined together by bolts permanently.
Assembling the jig will be done in 2 stages. First, the 2
respective halves of the jig will be assembled independently.
The main body will be assembled by joining individual sheets of DPA-1 shipped in CASSCS after which
joints,
individual arms and clamps will be attached to it. The 2 half jigs at this point will be secured to the section
protrusion through fitting the clamps on the structure and the connecting rods will then be attached to both
halves to keep the jig in place.
3.4-Bellevistat will provide MRO dock facilities for visiting ships:
Table 3.4(a)-MRO Dock Facilities
There will be a single-entry point for the MRO Dock whereby all procedures for maintenance, repair and
any/all sorts of overhauling would take place. There will be 1 MRO port at IOC and 3 at FOC located in the
Stock Hub
The MRO Dock's docking mechanism is composed of 2 robotic arms. Upon arrival, the first arm will
rotate the ship 180 degrees, and the second arm will clamp onto the ship. This two-step procedure
will guide the ship to the center of the MRO Dock, where permanent clamps will securely hold the
ship in place. This process ensures a stable docking of the ship before any procedures are initiated.

Dock
ing
4.1.1- Community Outline
Bellevistat strives to provide a fruitful, holistic experience for all residents, involving all, business, pleasure and
comfort at a level to rival the lives the residents had on Earth. Bellevistat’s community will not be divided by
discrete divisions, but will rather be a continuous design, shown in the form of a gradient of the community,
where one end of the community will embody a more town-like, nature influenced feel, and the other a futuristic
metropolitan city, characterized by building, plant and greenery.
The metropolitan area is defined by its densely concentrated buildings, large commercial centers, and multiple
recreational facilities that are highly concentrated, as well as the less parks. The town area stands out due to its
high park to building density, high number of residential facilities and an exclusive raised houses built on semi-
inclined platform.

Figure 4.1.1

4.1.3- Statistics and Numbers of Build types

Table 4.1.3(a) shows statistics for build placements throughout the community, in terms of a community on
220m by 1409m down the surface, with a peak vertical height of 110m at the very center of the torus. This
community caters to approximately 2700 residents.

Table 4.1.3(a)-Types and Quantities of Buildings 4.1.5-Types and quantities of consumables

Building Type Quantity Area Per Total Area Table 4.1.5(a)-Consumable quantities
(for Building Percentage Consumable Type Total amount needed at FOC
~2700 /m2 (per torus) Toiletries 2125000 rolls per year
persons) Toothbrushes 100000 per year
Townhouses 70 140 3.16% Toothpastes 150000 tubes per year
Studio 40 350 4.5%
Apartment
Complex Table 4.1.5(b)-Dietary Elements
Dual 42 510 6.99% Type Amount per day
Apartment Carbohydrates 350g
Complex Fats 97g
Luxury 22 405 2.87% Proteins 83g
Apartment Vitamins and Subject to medical checkup
Complex Minerals
Inclined 30 140 1.355% Fiber 38g
Housing on
Raised
Platforms
4.2.1- Individual Floor Plans for Residential Complexes
Bellevistat will provide its residents with a plethora of
choices for residence, and living, ranging from
apartment complexes to full townhouses, specifically
designed to cater to the population dynamics, as per
the outlines given in the RFP document. Apartment
types, specified later, can host a family of up to four
(4) people with ample living space and areas for
necessities.
4.2.1(a)- Studio Complex Figure 4.2.1(a)(i)
A complex including four
identical apartment units
embodying a studio
apartment layout, spread
out
over four storeys, each
having four apartments, (at
IOC) with ample vertical
Figure 4.2.1(a)(ii) clearance to construct
additional storeys as per need
with population increase. Figure 4.2.1(b)(i)

4.2.1(b)- Dual Complex

Two types of apartment units merged into complexes, featuring two large bedrooms, bathrooms and a combined
living space alongside kitchens and dining areas, constructed into multiple four storey complexes, with ample
vertical clearance to construct more identical storeys, as per population needs in full operating capacity.
4.2.1(b) (i) – Standard Apartment
Measuring 11.25m by 8m, the standard apartment is a one bedroom apartment
Figure 4.2.1(b)(ii)
with a bathroom, a walk-in closet, as well as a large living area, as well as a
kitchen and dining area.
4.2.1(b) (ii) Deux Apartment
The second type of apartment units in the Dual complex involves a one bedroom
apartment with a dedicated laundry room, a large living room that also functions
as a dining area, alongside a kitchen, and a bathroom, with a built-in dedicated
large bookshelf and library area pre-built into a portion of the living room.
4.2.1.(c)- Luxury Apartment Complex
This ten-storey high compound, with a dedicated
rooftop recreation area, with activities like a mini
Figure 4.2.1(c)(ii)
artificial beach, tiki bar and infinity pool t o v a y
f r o m complex to complex, will Fbe igtheupinnacle re of
. 2 .1
luxury
offered to residents as living areas. 3 identical luxury
apartments at each level, with lobby area and
connecting balconies.
It Features a rooftop area that can be customized per complex to have unique
recreation facilities like the
“dynamic island” imitating beach-
like environment with infinity
pools and sand-like substance.
4.2.1.(d)- Two-Storey
Townhouse
Figure 4.2.1(d)(i) A luxurious house,
fitted with a Figure 4.2.1(c)(i)
dedicated sports and
gym area with large spaces and luxurious interior, the townhouses
offered by Bellevistat will rival the large mansions that are the envy of
every passerby. Townhouses will be individually arranged linearly
with each other, and not stacked over each other.
3
 Figure 4.2.1(d)(ii) Figure 4.2.1(d)(iii)

4.2.1(e)- Inclined Houses Built on A Raised Platform

Figure 4.2.1(e)(ii)
Figure 4.2.1(e)(i)
Exclusive to the Town Area, these houses will be built on an inclined
platform, at a raised height, and will be the most exclusive, premier
form of residence, and the envy of every other resident, with a three-
bedroom house, with dedicated study areas, a sports area which has
gym facilities and an equal balance of recreational potential too

Table 4.2.3- Sourcing and Manufacture of Furniture and Appliances

Manufacturing Major processes in industrial torus, where groundbreaking machinery and automation
constructs most materials and base materials, to enhance self-sustainability and lessen
need for earth resources
Aluminum Sourced from the surface of the moon, which has aluminum -rich deposits. Alloys made in
Alloys industrial torus, with development of new and efficient alloys, used to make appliances.
Lunar Sourced from lunar mining, and then brought to industrial torus to be integrated into
Regolith manufacturing. Allows sustainability and lessens need for resources from Earth. By-
products of lunar regolith will be integrated in production of furniture.
Wood Substantial portion of wood demand met from the industrial torus, and through sustainable
deforestation from residential torii, using smart cutting techniques and sustainable logging
and cutting with replanting, wood need fulfilled, which is not very substantial.
4.3.1(a)- Alpha Spacesuit
Required Amounts: 50 at IOC and 200 at FOC Figure 4.3.1(a)
The Alpha Spacesuit will be used for excursions for material sampling
and repair of external structures. Made of multiple layers, including a
maximum absorbency garment for waste collection, temperature
control layer made of spandex lined with fabric mesh and
approximately ninety-two meters of water transporting tubes, along
with a bladder later consisting of internal pockets, which will be
pressurized to maintain skin pressure, as well as an exposed layer
made of Kevlar, nickel titanium alloy for contouring, which will be
painted white to reflect radiation. Content on the visor will be
specialized, showing potential anomalies, inventory and information
provided by the control center. The gloves will feature rubber grips
and a 3D touch screen to access inventory and display information,
with an oxygen supply lasting over 8 hours. They will be stowed in control centers.
4.3.3- Accommodations and
Information of Emergency
EAS alarms sounded with integrated
Home AIs and hologram technology as
well as alerts on smart wristbands and digital appliances to alert all residents of emergency. Blind residents
given braille instruction pamphlets, helper robots, loud alarms and smart wristbands to help navigate in case of
emergency.
4.4.1- Recreation in Zero Gravity
All recreational services offered in zero gravity will be exclusively located in the zero-gravity torus that is
separate from the main residential torus.
Table 4.4.1(a) Zero G recreation
Holo-Art A compact art gallery that uses hologram technology to showcase virtual art exhibits in zero
Gallery gravity. Activities include exploring virtual galleries, attending art shows, and participating in
artist workshops. Also includes an art studio that uses AI and holograms to create virtual art
experiences in zero gravity. Activities include painting, sculpting, and digital art classes Will
be introduced at 2000 person increase after IOC
Zero-G Harvesting spare CASSSCs to create a parkour course with leaderboards for residents to
Parkour challenge for the quickest time. Course created at multiple elevations to utilize the
Course weightlessness and higher jumps.
Hover car Two forms of racing in tunnel like track, karts propelled by large electrical fans, padded to
Racing reduce damage and autocorrecting AI to avoid collisions. One will be faster and the other
slower version for amateurs. Holographs used to depict opponent cars and battle it out for
fastest time on the leaderboard. Will be introduced at 8,000 person increase post-IOC.
Zero Gravity Large stadium with adjustable ceiling, using attached motors. Seating capacity of few
Stadium hundred people, broadcasting provides commercialization. Soccer, football and hockey.
(Dimensions: played with minor adaptive variations to account for space environment. Sports Federation
120x80) responsible for team formation and regulation of professional league. Will be introduced at
2,000 person increase after IOC
Flying Separate flying spaces may be reserved across the zero-gravity torus. This will consist of
individuals being given mechanisms to propel themselves through cloth wings and/or battery
powered miniature fans which can be attached to their wrists. Permutations of this such as a zero
gravity ‘Quidditch’ game will also be developed and played within the Zero gravity stadium.
Will be introduced at 14,000 person increase after IOC.
Space A gardening facility that uses hydroponics and hologram technology to create virtual gardens
Gardens in zero gravity. Activities include planting, harvesting, and creating virtual landscapes.
4.4.2- Recreation in Variable Gravity Levels
Table 4.4.2(a) Variable G recreation
Variable Large laser tag arenas consisting of partially accurate convoluted battlefields will be
Gravity Laser made. Each person will be given the necessary equipment. During a match, gravity of the
Tag torus may also be altered to add difficulty although variations will be small and less
frequent to reduce risks.
Fighting Participants fight using holographs with haptic feedback, to make it safe yet realistic. Lower
Mania gravity levels have the option to select various fictious fighter figures to go up against.
Lunar Artificial mountain created with lunar resources harvested
Mountain from moon. Safety gear provided with a leaderboard for
Climbing residents to beat the quickest time, with the top 5 times
displayed on screens and given weekly awards for. It is
illustrated in Figure 4.4.2(a)(i)

VR Travel Hub Virtual travel hub that uses AI and hologram technology to create immersive travel
experiences in regular gravity. Activities include virtual tours, travel planning sessions,
and interactive language classes.
VR Escape A series of escape rooms that use virtual reality technology to create immersive puzzle-
Rooms solving experiences in regular gravity. Activities include solving puzzles, deciphering clues,
and completing challenges.
Virtual A virtual concert hall that uses AI and hologram technology to create immersive music
Concert experiences in regular gravity. Activities include live music performances, interactive DJ
Hall sessions, and music production classes.
5.1 Automation for Construction and Finishing of the settlement:
All robots will be sourced from Alexandriat till Initial Operating Capacity has been reached at Bellevistat, at which point
we will begin to produce it on the settlement itself.
5.1.1 External Construction
Robot 1: Robot 1 will mainly be used for the small distance Figure 5.1.1(a)
transportation of materials and for welding metal components using
the process of laser beam welding which will prove more beneficial
and efficient for Bellevistat’s construction process than conventional
welding techniques. The deep and narrow fusion zone produces a
significantly smaller heat affected zone resulting in less reductions in
mechanical property and adjoint thermal distortions. More accurate
welds will help in reducing the deterioration of parts. One arm will be
equipped with the laser welding module and will make calculated
movements to ensure the welding process is accurate and that the
unique properties of the method can be fully utilized. Two more arms will be present at the back of the robot that will be
able to extend, holding objects in the zero g environment so that they are not displaced during the welding process. An
attachment will also be present behind the robot (which is not shown in the image) which will allow it to connect with
jigs.
Bolter 1000: Each of Bellevistat’s tori will be made using specific segments that
Figure will be bolted together to secure the connection between every segment. Two Bolter
5.1.1(b) 1000s will be present on each side of the segment. With the help of micro-modular
robots (refer to 5.2.5), these robots will insert the bolt into the segment joining hole
after which these robots will use their arms, which can open to a maximum of 3m,
to fasten bolts on either side of the bolts at the same time. Each robot will apply the
same torque and stop at the same time, thereby keeping the tightness of the nuts on
both sides constant.
5.1.2 Internal Construction Figure 5.1.2(a)
Robo-Craft: Bellevistat will host its residents in beautiful apartments and
homes; Robo-Craft ensures that they exceed expectations. It will be used for
the interior finishing of the settlement, particularly the residential areas.
Equipped with 3 claw-based arms that make calculated movements, its tool
compartment will contain all that it needs to carry out its tasks.
3D-Printer Robot: As everything
cannot be prebuilt and multiple
decorative items and construction
process materials are needed, our 3D
Printer Robot will be present every step
of the way. It will be attached to a rover like module which will allow it to move
throughout the construction area. A printing module will be present on the surface
above the wheels in a closed chamber. The claw shaped arms will pick it up and
place it in the area where it is required and send a signal to the relevant robot to
collect it.
5.2.2.1 Automation Functions for Settlement Safety
Automation being used on Bellevistat will ensure that the settlement and its residents are kept safe in case of any
criminal activity, hazard, or emergency damage the settlement sustains. The entire settlement will be networked using
cameras and environmental sensors across the settlement. This system will use a sophisticated Artificial Intelligence
module which will be connected to all monitoring systems through the main server. The AI will perform facial
recognition using governmental databases. It will also analyze data from the extensive sensor network to identify any
ongoing gas leaks and explosions. Data from this monitoring system will be stored on tertiary servers on each torus for
30 days to allow quick access to settlement authorities. In case of a hull breach, the monitoring system will immediately
send signals to nearby micro-modular robots and recreational robots with information regarding the size of the breach.
Recreational Robots will execute an evacuation protocol to take nearby humans to secure areas. Micro-modular robots
will deploy a large honeycomb shaped mesh made of Kevlar fiber and seal off the damaged area using easy to carry,
expanding foam
made of isocyanate polymer. This foam hardens to become as solid as rock in just a few seconds in the presence of air.
After that, buckystructure coating on the solidified foam will prevent any further radiation from entering the settlement.
The Kevlar mesh will provide support to the whole system, similar to blood-clotting, until proper repair can be done.
Micro-modular robots will swarm the area in groups to spray fire retardant. With AIs, however, there always remains a
chance of misidentification, leading to false alarms and thus wastage of resources. Therefore, officers will always be
stationed in the main control room to verify the safety breach. If it is a false alarm, the officer will shut down all
alarms and revert all robots back to normal functioning protocols.
5.2.2.2 Emergency Codes and Alerts
Code Possible Meaning of each Code
● Catastrophic Failure of all life support systems in the region
Red ● Extreme Hull Damage/ Cavity
● All residents to be evacuated immediately by all nearby robots
● Emergency Repair Protocol to be initiated (refer to 5.2.2.1)
● Failure of multiple settlement systems
Purple ● Warning Sirens will alert residents of the problem
● Recreational and other robots present in residential areas will escort residents
to secure areas
● Major mechanical failure
Yellow ● Residents will be alerted if the problem aggravates
● Area to be closed off for inspection and investigation
● Report to be sent to Earth
● Minor mechanical issue
Green ● Residents not to be alerted
● Life support systems are working normally Table 5.2.2.2(a)
● Control Room send Micro-Modular Robots to take appropriate measures
5.2.3.1 Spaceship Maintenance, Repair and Overhaul (MRO) System
At the MRO Dock, sophisticated diagnostic systems will read the standardized specifications of the spacecraft in
question and analyze each and every component onboard the vessel in search of any issues. There will be systems
designed to repair oxygenators, atmosphere regulators and water reclaiming machines, which are the backbone of any
manned vessel in space. There will be robots to repair navigation systems as well as robots that are programmed to
repair most mainstream chemical, electrical and ion engines.
All of this will be supervised by trained human experts who will be prepared to intervene in the event of damage to the
MRO system, repair of unknown spacecraft and other unforeseen issues in the maintenance and repair of spacecraft.
For the repair of spaceship hulls, there are two systems; one for small cracks caused by strain and another for larger
cracks and holes. In the first system, we will integrate custom-made nanobots from subcontractor ‘Nano Solutions’ with
air-tight sealant Supreme 12 AOHT-LO, an epoxy that meets low outgassing specifications for sealants in space.
Sealant will be stored in nanobots, which will release sealant to seal cracks of up to 2 cm width.
In the second system, we will use micro-modular robots (refer to 5.2.5) to solder aluminum onto the crack in an additive
process, layering the outermost parts of the crack and incrementally moving inwards till the crack has been filled.
Soldering is a strong fabrication process when using a strong material.
To repair large sections of outer layering, laser welding robots will remove old and attach new pieces of hull to damage-
affected areas. These robots will ensure that the spaceship is as good as it was before.
5.2.3.2 - Access to Robot and Computing Systems
Security Level Authorization Methods Automation Being Used
Tier-1 Fingerprint Scans, Voice Recognition, 3 Household AI, Personal Computing System,
Factor Authentication Orders to Domestic Robot
Tier-2 Palm Scans, Retina Scans Main Server Access, Settlement Monitoring
Systems
Tier-3 Facial Vein Mapping, Passive DNA Human Intervention in Automation,
Testing, Retina Scans External Communications Network Access,
Classified Information, Data Trajectories,
Table 5.2.3(a) Control Centers
 Efficiency and ease of working conditions is extremely important so settlement officers and staff can focus on the main
problems at hand. To cater to this demand, the AI Prometheus will assist workers in routine tasks. This work and other
adjoint tasks will automatically be carried out by the artificial intelligence package and provide it to the officer for a
glance to see if everything is in place, thereby not only saving time but also letting the officer focus on more important
tasks. File storage, backup of critical data and flagging different tasks into appropriate sections will also be automatically
done. More importantly, the AI will understand the officer it its appointed to and keep him active and energized through
fun conversations throughout office hours.

Bellevistat

6.1.1-Describe Subcontractor tasks

Table 6.1(a)- Subcontractor Lists
Subcontractor Duration of Work Task Performed
3D Logistics During + Post Used to source pre built structural components from Alexandriat which will
Construction then be shipped. Used as contingency mechanism for space tugs and Cargo
Ship to replace failed parts
Blown Away During Making inflatable temporary buildings for construction workers in the central
Construction axle and stock hub on Bellevistat
Bots4U After Exterior Will create Domestic Robot according to our specifications
Construction
Carbon Perpetually Sourcing of Carbon on Bellevistat and creation of aluminum carbon
Creatioms Present composites
Custom Cargo Perpetually Used to make standard aluminum CASSCS and Custom CASSCS
Accomodations Present
Electro Protect Post Exterior Sourcing circuitry for space usage
Construction
Fusion Founders During Interior On site construction of 3 Large Municipal Power Plants
Construction
ZAP Industries During Provision of wiring systems and fiber optics for communications
Construction
Waste Products During + Post Usage in water management and waste management
Construction
Tubular During + Post Used to source Carbon Nanotubes
Technologies Construction
Toss It To Me Post Used in waste management
Construction
Stuff of Life During Interior Sourcing of initial atmosphere in pressurized zones
Construction
Nano Solutions During and Post Will make Automation nanobots and will be used for high priority CASSCS
Construction precision sealing
Table 6.2(a)-Construction Material Costs Table 6.2(b)-Industrial Machinery Costs
Material Cost / USD Machinery Price per single Number
KM2 705 110,393,286,500 unit/$ of Units
Micro capsule polymer 8,380,442,727 Cold welding 19,000 36000
Grade 4 titanium 38,147,641,213 Plug Welding 400 2500
2DPA-1 N/A Soft Robots 50 771
Cryogenic Hydrogenic radiation shield 43,273,558.81
0g 3d printer 50,000 420
Lunarcrete N/A
3d printers 10,000 10000
Aluminum 2219 t6 38,361,083,255
Cellular Glass coating 304,255,782.6 ZABLAN 300 per metre N/A
Polyvinylidene fluoride piezoelectric 99, 484,083,260 IRMS 3200 1850
polymer CNC machines 150,000 1920
Carbon nanotubes with water flowing in N/A Ceramic Heater 40,000 42000
between Miscellaneous 2000000000000 N/A
Total Cost of Exterior Hull (Approx.) 295,114,066,296 Total Cost of Industrial 400 billion
Total Cost (Approx.) 715, 973 Machinery dollars
Table 6.2(c)-Automation Costs

Robot Price per robot No. Total cost /$

of
Icaroid 20,420 robot 30,630,000
1,500
Domestic 20,170 2,500 50,425,000
Robot
Mini-Rover 4,100 900 3,690,000
V1.0
Cargo ship 17,570,000 30 527,100,000
Skyhook 12,440,000 1 12,440,000

Cargo elevator 3,500 18 63,00

0
Magnetic tube 12,387,000,00 1 12,387,000,00
0 0
Cargo lifter 25,000 36 900,00
0
Miscellaneous 3,000,000,000 Keeping in mind the factor of inflation in the costs
costs of our materials we will add an additional 700
Total Cost 16,012,248,000 $
(Approx.) billion dollars to
manage its affect. For managing any additional costs that might be sudden an additional $1 trillion has been
added to manage fund demand. This total cost will be approximately 2.9 trillion to 3.6 trillion dollars
10 years after reaching FOC we expect that the cost of making the settlement will be converted to
profit

Table 6.2 (h) Employees Required per construction phase

Type Cost Employees Phase Phase Phase Phase Phase Phase Phase Phase
(Million $) required 1 2 3 4 5 6 7 8
(All
phases)
Researcher $1,725 1500 200 700 400 200
Scientist $2,500 500 300 100 100
Engineer $1,530 450 250 150 50
Architect $441 300 200 100 50 50
Managers $450 100 100
Technician $1,156 400 200 100 100
Accountant $448 140 40 100
Total $8,250 3390
 Table 6.2(i) Cost for construction areas during different phases
Area Cost (Million Phase Phase Phase Phase Phase Phase Phase Phase
USD) (All phases) 1 2 3 4 5 6 7 8
Construction 295,000 10,000 40,000 70,000 80,000 90,000 5,000
Material
Automation 16,000 4,000 5,000 1,000 6,000
Systems
Jigs 2.00 0.50 0.75 0.35 0.40
Power Generation 273 200 40 33
36 ($0.88/W)
Industrial 400,000 60,000 70,000 60,000 90,000 110,000
Machinery
Operations 230 50 60 90 30
Total (Approx) 715,973
 Bellevistat
6.1.3- Gantt charts
 Business Development
Farming Resources:

1. Hydroponics/Aeroponics Farming
o Hydroponic or aeroponic systems could be used to grow plants using nutrient-rich solutions or mist. These
systems can be designed to work in closed-loop ecosystems, essential for space farming.
o Crops: Leafy greens, mushrooms, herbs, strawberries, tomatoes, and other high-nutrient crops that require
little space and can grow quickly in controlled environments.
2. Insect Farming
o Though they are a questionable source of food among many societies, insects are a sustainable source of
protein and could be farmed in space due to their minimal resource requirements. Farming insects like
crickets or mealworms could provide an alternative protein source for space colonies.
3. Medicinal Plants and Biotech Research
o The environment of Ceres could be used to study how medicinal plants or bioengineered organisms grow
under different conditions that would not be possible on Earth. This research could lead to breakthroughs in
pharmaceuticals, plant biology, and genetic engineering.
4. Energy Farming (Solar or Algae Biofuel)
o Although Ceres is far from the Sun, solar energy or biofuel generated by algae farming could power space
colonies. Algae can also produce biofuels, offering a renewable energy source for space missions.
o Indirect Solar Energy: Solar panels placed on the orbiting settlement could still harvest sunlight despite
Ceres’ distance from the Sun. Advances in solar technology will maximize efficiency, providing a stable
power source.
5. Terraforming Research Projects
o Sponsorships from space agencies, research institutes, or environmental organizations could fund the
development of small-scale experiments in terraforming or regolith-based agriculture. Ceres could serve as a
testbed for future attempts to make inhospitable planetary bodies more Earth-like for human habitation.
6. Aquaponics with Space-Farmed Fish
o Aquaponics combines fish farming (aquaculture) with hydroponics in a symbiotic system. It’s a sustainable
method that uses waste from fish to fertilize plants. This kind of closed-loop system could be vital for life
support in space.

Mineral & Resource Utilization:

 Regolith: The thick layer of fragmented material covering Ceres' surface can be used for radiation shielding, 3D
printing construction materials, and structural components.
 Volatiles: Hydrogen, oxygen, and methane locked in Ceres’ icy crust can be extracted for life support and fuel
production.

Sponsorship Engagement Strategies:

 Brand Visibility: Space farming projects could be a marketing platform for companies looking to brand themselves
as pioneers in space exploration and sustainability.
 Collaborative Research: Sponsorships could involve the co-development of new technologies for space agriculture
that have direct Earth applications.
 Publicity and PR Campaigns: High-profile space missions and farming experiments could generate significant
media coverage, offering companies global exposure.
 Exclusive Partnerships: Offering companies exclusive rights to commercialize the outcomes of space farming
research (e.g., a company could have the rights to market the first space-grown food products on Earth).
 Table 6.1(a) - Subcontractor Lists
Subcontractor Duration of Work Task Performed
During + Post Used to source pre-built structural components from Alexandriat, contingency mechanism
3D Logistics
Construction for space tugs and cargo ships
Blown Away During Construction Making inflatable temporary buildings for construction workers
After Exterior
Bots4U Will create Domestic Robots according to specifications
Construction
Carbon Creations Perpetually Present Sourcing of Carbon on Bellevistat and creation of aluminum carbon composites
Table 6.2(e) - Costs for Different Areas of Construction
Category Estimated Cost (Trillion USD)
Structure 1.2
Automation Systems 0.5
Power Generation 0.6
Industries 0.8
Research 0.3
Miscellaneous 0.2
Table 6.2(f) - Operations Costs (IOC)
Component Cost (Million USD)
Internal Transport 200
Firefighting Robots 150
Food Production 300
Space Mining Operations 500
Table 6.2(b) - Industrial Machinery Costs
Machinery Estimated Cost (Million USD)
Cold Welding Systems 250
Plug Welding Machines 180
Soft Robotics for Precision Work 220
3D Printers for Construction 300
CNC Machines 150
Table 7.6(a) - Dock Types
Dock Type Capacity (IOC) Capacity (FOC)
Cargo Dock 10 ships 25 ships
Passenger Dock 5 ships 12 ships
Maintenance Dock 3 ships 8 ships
Table 3.4(a) - MRO Dock Facilities
Facility Functionality
Docking Mechanism Uses robotic arms to rotate and clamp ships for stable docking
Repair Systems Conducts sub-system repairs, emergency inspections, and thruster replacements
Refueling Supplies fuel for continued space travel
Backup Equipment Provides emergency resources and spare parts for ships
Appendix A
Initial Construction Phase (Years 1-5)

 Objective: Establish core infrastructure and life support systems.

 Key Activities:
o Transport of pre-built structural components from Earth and Alexandriat.
o Assembly of the central axle and temporary habitation modules.
o Deployment of automation systems for material transport and construction.
o Implementation of life support systems, including atmospheric and thermal regulation.

2. Intermediate Development Phase (Years 6-12)

 Objective: Expand settlement to accommodate full-time residents.

 Key Activities:
o Construction of primary residential, industrial, and agricultural torii.
o Establishment of inter-settlement transport mechanisms.
o Integration of food production facilities utilizing fogponics.
o Initiation of space mining operations for in-situ resource utilization.

3. Full Operational Capacity (FOC) Phase (Years 13-27)

 Objective: Achieve full self-sufficiency and economic sustainability.

 Key Activities:
o Completion of all structural expansion projects.
o Finalization of microgravity research zones and shipbuilding facilities.
o Commercialization of manufacturing and agricultural exports.
o Implementation of advanced automation for maintenance and logistic
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Appendix C: Compliance Matrix

Requirement Bellevistat Design Compliance Page Number

Dumbbell-shaped rotating station with 4 residential, 4 industrial, and 2 agricultural
Structural Design p. 6
torii.
Artificial Gravity Varies across sections; minimum 0.55G in agriculture, 0.2G in industry. p. 12
Population Capacity 3,500 permanent residents, 100 short-term visitors, 300 transit passengers. p. 8
Power Generation Combination of Gallium Arsenide solar panels and nuclear energy sources. p. 15
Food Production Advanced fogponics and synthetic meat production using bioreactors. p. 18
Docking &
Dedicated MRO dock, magnetic tube transportation system, autonomous workstations. p. 21
Transport
Radiation shielding, automated AI-based emergency response, pressurized environment
Safety Mechanisms p. 25
control.
Business Viability Space mining, interplanetary ship construction, industrial exports, and research. p. 30