ARESAM
BENEVECTORAS
Benevectoras is an Earth-Mars cycler
settlement around the sun.
It will provide the foremost facilities and
living environment for 2500 permanent
and 6300 transient population.
Since the settlement is a cycler it has
been equipped with retractable solar
sails to cover more distances in less time
Solar sail
Lower floor
downtown
Residential Floors
ARGONOM
Argonom is built on the surface of Mars, inside a crater. It is not just
a single settlement but consists of a main settlement and other
outlying communities.
To provide protection from dust and radaiation it will be covered by
a protective, transparent, insulating dome
It will provide pleasant living and working environments for 24,000
people and a transient population of 3,000 people.
Over half the people will live in Argonom, the primary settlement
and others in the outlying communities.
It will provide immense capabilities to explore the surface of Mars
and carry out research and excavation/mining operations on the
surface.
Basic structure
of Outlying
Community
Cross-section of Primary
Settlement
Construction Sequence
Construction Materials
Materials for Permanent
Settlement
WURTZITE
BORON
NITRIDE
High tensile
strength
Easily machinable
SUPERADO
BE
(REGOLITH
)
Highly flexible
material
Resistant to
extreme
temperatures
GRAPHENE
AEROGEL
Low thermal
conductivity
High mechanical
strength
HYDROCAL
-BONDED
B-11
Resistant to
extreme
temperatures in
the range -248°C
to 482°C
MATERIAL PROPERTIES
AND USES
TRANSPAR
ENT
ALUMINIU
M
Optically
transparent in the
near ultraviolet,
visible and infrared
regions
FUSED
QUARTZ
SILICA
GLASS
Transparent in
visible and near
ultraviolet
Shows good
tensile strength
and crack-resistive
properties
LEAD
GLASS
Absorbs bursts of
X-Rays and
Gamma Rays.
Transparent Construction Materials
Materials for Dome
Location and Material
Location: Naruko Crater (36.248°S,
198.291°E)
Location chosen due to less amount of
dust storms and perfect texture of soil.
MATERIAL PROPERTIES AND USES
TRANSPARENT
ALUMINIUM
Optically transparent in the near ultraviolet, visible and infrared
regions
FUSED QUARTZ SILICA GLASS Transparent in visible and near ultraviolet
Shows good tensile strength and crack-resistive properties
LEAD GLASS Absorbs bursts of X-Rays and Gamma Rays.
Waste and Water Management
Food and Consumables
Consumable Category Amount
(Residential
Population)
Amount
(Transient
Population)
Food 6,570,500 kg/yr 1,314,000 kg/yr
Water 94,257,600 kh/hr 11,782,200 kh/hr
Oxygen 2,199,520 kg/yr 141,420 kg/yr
Hygiene Products 1,051,200 kg/yr 32,850 kg/yr
Pharmaceuticals 87,600 kg/yr 2,730 kg/yr
Paper Products* 220,320 kg/yr 6,900 kg/yr
Clothing* 4,600 articles/yr 600 articles/yr
Shoes* 9,640 pairs/yr 600 pairs/yr
Electronics 58,900 items/yr 3,600 items/yr
Kitchen Appliances 3,560 items/yr 420 items/yr
Furniture 141,820 items/yr 9,600 items/yr
Research Materials 12,000 items/yr 800 items/yr
*indicates estimation
Food type Example food Daily amount Nutrients provided
Fish Tilapia 200g 52 g protein
300 IU Vitamin D
3.8 µg Vitamin B-12
Vegetables Lettuce/
Cabbage
200g 14,810 IU Vitamin A
18.4 mg Vitamin C
Legumes Soybeans 200g 40g fats
554 mg Calcium
31.4 mg Iron
18g fiber
Starches Rice 600g 780 Calories
Food Production
 Vertical farming
 Quantum dot LEDs
 Vertical stacks
 For 24,000 people, 20
tanks will be needed.
Harvesting: Automated robots
used, harvest when ready
Packaging/Storage:
 Plants: biopolymer
containers
 Surplus is freeze-dried
Delivery: Packaged food sent to
‘vending machines’ for
distribution
Sale: SIC codes used for food
orders
 Meat Production: in vitro
 Paper Production:
bamboo pulp
 Other products: 3D
printed or import from
earth
Gender Calorie Intake
Male 2200 – 2800
Female 2000 – 2600
Human Transport:
 Tram systems between major recreational and
residential areas
 Bicycles for travelling short distances
 Elevators and Service ladders between floors
Goods and Products:
 Pneumatic tubes for small products (e.g.
consumables)
 Pneumatic tube outlets in rooms/communal areas
 Integrated with SIC system
 Cargo Elevators
Internal Transportation
11
Team 1
places
support
beams Team 2
places
aluminum
tubes
Team 3 welds
tubes to
support
beams and to
following
tubes
Maintenance
bots clear the
trapped
Martian dust
Team 4
installs
magnetic
components
 4 Mag-Lev Trams per route
2 cargo, 2 human
 MARSUV: 8-man, 6 month
Research/Exploration
Vehicles
Designed by Vulture
Aviation
External Transportation
4m
8m
2.5m
0.5m
8m
2.5m
Cargo
Maglev Pod
Public transport Maglev pod
12
Mechanical arms based
in the crater to construct
the levels
Adjustable height will
allow a single jig system
to construct all levels in
the settlement
Construction robots from
Aresam help attach base
of each level to the side
of the crater
Each level will be
constructed on the base
of the crater, raised above
to a suitable height and
fixed at that height
The dome will be
constructed similarly,
raised outside the crater
and fixed to the Jigs
Assembly Area for Jigs
Versatile robot
for exterior
construction
that uses a
welder to cut
and place
panels
Jig Autobot
Argobot 13
Power Generation
 2 Solar Panel Satellite Array(s):
 4 daughter satellites each ~400 mW each in
synchronized orbit
 Multi-junctional halide perovskite solar cells
 Back-up: Clean Modular Nuclear Reactors
(CMNRs):
 Liquid metal and gas cooled
 Better alternative to standard nuclear (Why?
Re-use waste, less waste)
 1 CMNR supplies ~350 megawatts of electricity
14
Satelllites Rectennas
Underground
Power Cables
Substation
Transformers
Battery
Storages
Distribution
Lines
Planet Grid
 Rectenna arrays:
 1.5 km away from settlements
 Power regulation and rectenna control centers
 Convert microwave beams to high voltage DC
electricity (long distance transfer)
 Underground power cables
 Gallium nitrogen transformers at substation(s)
.25 km away
 Metastable xenon difluoride battery storages
 Continuous electricity supply
 Within each settlement:
 Carbon copper nanowire lines polyethylene coated
 Power inverters in homes to change DC to AC or
AC to DC
 Battery banks in homes
 Individual: ~7,500 kilowatts per hour
 Settlements: ~4,300 megawatts per day
15
Water Recycling
Grit + sand filters for
solids
Hydro
turbine
UV radiation for
disinfection
Aquaponics
Utilities apart
from toilet
Drinking
 4KW turbine to power 22W vertical pump & 20 100W UV lamps, excess is stored
 Water from polar ice caps (Maglev robots)
Gray water facilities
(e.g. toilets
Heating
Feces digested by aerobic
bacteria, producing sludge
for sale
water
feces
SEWAGE SYSTEM
Liters per day
Utilities (apart from toilets)
Drinking
Toilets
8,405,936
80,000
772,224
16
Atmosphere
Air Production
Bacteria will be planted in the Martian soil after consumption of the dome which will create the
required atmosphere inside the settlement.
Polluted
Air
Clean Air
Air Composition at 0.8atm
Gases Volume(%)
Oxygen 29%
Nitrogen 70%
Carbon-dioxide 0.03%
Others 0.97%
Heating and cooling systems
The settlement will be heated by Multi Layer Insulation which will not allow the air to escape the
settlement and can withstand small impacts. Also, water tubes will be run of the circumference
of the dome which will be heated and be used to heat the settlement.
Ammonia pipes will all throughout the settlement which will keep the settlement cool.
Multi Layer Insulation
carbon scrubbers,
electrostatic
charcoal
Cargo Handling
1. When a space vehicle enters into the docking zone and then disturbs the laser mesh,
the adjustable hooks and clamps adjust according to the size of the vehicle. This is to
accommodate the diversity of the vehicles arriving at .
2. After the space vehicle is docked the double airlock system opens and transfer the
cargo or crew to the pressurized compartment in the settlement.
Main community Design
Sub Community constructions
1. Tertiary Industrial and
Port Settlement
Community Design
• Argonotos: Rectangular Version
• Base: 100 x 50 m x 7 (h)
• Argolebes and Argomons:
Circular Version
• Base: 30m (r) x 15 m (h)
2. Northern Pole
Industrial Settlement
Community Design
• Argoboreas: Circular
Version
• Base: 70m (r) x 15 m
(h)
Food and Consumables
Consumable Category Amount
(Residential
Population)
Amount
(Transient Population)
Food 6,570,500 kg/yr 1,314,000 kg/yr
Water 94,257,600 kh/hr 11,782,200 kh/hr
Oxygen 2,199,520 kg/yr 141,420 kg/yr
Hygiene Products 1,051,200 kg/yr 32,850 kg/yr
Pharmaceuticals 87,600 kg/yr 2,730 kg/yr
Paper Products* 220,320 kg/yr 6,900 kg/yr
Clothing* 4,600 articles/yr 600 articles/yr
Shoes* 9,640 pairs/yr 600 pairs/yr
Electronics 58,900 items/yr 3,600 items/yr
Kitchen Appliances 3,560 items/yr 420 items/yr
Furniture 141,820 items/yr 9,600 items/yr
Research Materials 12,000 items/yr 800 items/yr
Food type Example
food
Daily amount Nutrients provided
Fish Tilapia 200g 52 g protein
300 IU Vitamin D
3.8 µg Vitamin B-12
Vegetables Lettuce/
Cabbage
200g 14,810 IU Vitamin A
18.4 mg Vitamin C
Legumes Soybeans 200g 40g fats
554 mg Calcium
31.4 mg Iron
18g fiber
Starches Rice 600g 780 Calories
Gender Calorie Intake
Male 2200 – 2800
Female 2000 – 2600
Food Production
 Vertical farming
 Quantum dot LEDs
 Vertical stacks
 For 24,000 people, 20 tanks will be
needed.
Harvesting: Automated robots used, harves
when ready
Packaging/Storage:
 Plants: biopolymer containers
 Surplus is freeze-dried
Delivery: Packaged food sent to ‘vending
machines’ for distribution
Transportation
Human Transport:
 Tram systems between major
recreational and residential areas
 Quad-cars for personal travelling
 Bicycles for travelling short distances
 Elevators and Service ladders between
floors
Housing designs
Studio Exterior:16 m height 6m x 9m
base, 579 ft2
Apartment exterior: 2.5 m height, 9m x 8 m base, 1,600 ft2
Duplex Exterior
Villa Exterior
Housing plans
4.3 Donning and Doffing
Single Airlock Chamber for Community
Compartments
4.6 m. by 9.2 m.
Triple Airlock Chamber for
Doffing
4.6 m. by 9.2 m.
Space suit
Work Suits In - Space
Operation Suits
Exploration and
Research Suits
Standard Work
Suits
Subcontractor Extreme Survival
Technologies
Extreme Survival
Technologies
Extreme Survival
Technologies
Cost per Suit $500,000 $350,000 $250,000
Number of Suits 100 200 500
Specialty Custom Fit
Greater Mobility
Flexible
Converts CO2 to O2
Hard Shelled
Frequent Use
Dimensions of: 1.7 m. height, 0.6
m. width
Work Suit is shown in the left
Dimensions of: 1.8 m. height,
0.7 m. width
Recreational Suit is shown in the
right
Personal Demographic Distribution
0
5000
10000
15000
20000
25000
30000
35000
40000
45000
0 20 40 60
ResidentialPopulation
Years rom Establishment
Estimated Population
Growth Pattern
Group Percent Population
Married Adults 50% 12,000
Single Men 28% 6,720
Single Women 21% 5,040
Children 1% 240
Transient 3,000
Robot/Jig/Device Design Description Quantity
Autobot (2m x 2m and
3m arms)
Construction of the external hull by working
on the jig
Capable of lifting, cutting and assembling
panels on the exterior hull and the outermost
frame due to its welding capabilities.
10
Argobot (3.5m x 1.5m) Multi-purpose construction robot
Tool dispensing arm with 6 tools which can
weld, glue, drill etc.
Constructs houses
Helps with prefabricated base assembly
(inflation with water)
Constructs mag lev rail at 25 km/day
146
Briobot (1m x 0.6m) Equipped with suction cups for tiling, paint
nozzles and a mechanical arm
Interior finishing and install utilities
Maintain facilities as well
200
3-D Printer Standard 3D printer Will build interior infrastructure and surfaces
like furniture, household objects
50
5.1 Construction
5.2 Contingency Plans
Problem Procedure Response
Mechanism
Time
Fire Smoke Detector detects fire
Alert sent to people
Sonic extinguisher is deployed
Low frequency sounds
from inbuilt speakers
which extinguish fire
5 to 10 seconds
Pipe leakage Mainframe detects any leak
Briobot will be deployed
Hypo-eutectic alloy
will be sprayed onto
the leak to seal it
30 seconds
Robot
Malfunction
Any damaged robot is recalled to the
Warehouse/Repair Centre
Hardware:
Warehouse repairs
Software: Mainframe
Hardware:1-2 hours
Software: 10-15
minutes
Computer
Malfunction
Highly redundant & autonomous systems
ensure that malfunctions don’t
compromise settlement operations
Human Engineers
reprogram buggy code
in any malfunctioning
computer
5-10 hours
Exterior Structure
Failure
Pressure sensors detect breach
Airlock activated
Repair robots are sent
Airlock
Briobot
Airlock: instantly
Robots: depends
on the damage
Internal
Communications:
 Li-Fi will be used to
achieve 250 Gbps of
speeds
 LEDs connected with
fibre optics will act as
routers
External Communications:
 Vulture’s satellite
constellation will be
used for
all communication
 Laser communication
terminals will relay all
signals between these settlements
SHA-256 encryption will be used to
protect all data exchanges
5.2 Communication
32
5.3 Verification Systems
5.3 Repair and Safety
34
Uses two
assembly
lines, one for
construction
and one for
repair of
robots
Repair line
has scanner
at the start
Construction
line has 3D
printer at the
start for basic
framework of
robot
Robotic arms
designed to
do specific
tasks placed
next to
conveyer belt
Warehouse
has one more
level for
storing robots
The
warehouse
will be placed
in the
Maintenance
Level of the
settlement
Robot Warehouse
(325 sq. meter, 2 levels)
Storage of robots on second level
5.4 Personal Device
Component Description
Biometric
Sensors
Monitors vital signs and also uses biometrics for payments and user
identification
Self
Sustaining
Charging
A kinetic charger inside charges the HoloLex charges it while users are
moving. Backup charge is provided by the clothing (mentioned later).
End-to-end
integration
Minerva will be integrated with the housing mainframe and will allow users
to control all home appliances 35
5.4 Enhanced Livability
Smart KitchenSmart Office Space
Butler Functions Security Personal Assistant
Linked to the home security
system
Alerts the authorities in case
of intruders or emergencies
such as fires
Alex acts as a smart
personal assistant and
secretary, giving
reminders and also taking
care of children
Is responsible for
general
household work
and
maintanence
1.2m
0.6m
Delivery bot capable of
carrying 25 kg
Business Development
Argomons
Argonotos
Argolebes
Argolebes
Mines
for
Raw materials
Argonotos
Near-
vacuum,
Dry ice cold
soak
Transparent
Aluminum
Extruding, rolling,
forming, cutting
Finished
Export
Product
Argomons
Export Spacecraft
Construction
38
Heating Plant 1
Sheet Rolling
Cold Soak Plant 1
Heating Plant
21 1
Cutting Plant
Cold Soak Plant 2
Polishing
Schedule
39
2060 2061 2062 2063 2064 2065 2066 2067 2068 2069 2070 2071 2072 2073 2074 2075
R& D(phase1)
R& D(phase2)
Transp.of materials
Construction
Jig
Cylinder
Dock
Anntena
Rotation interphase
Initial trials
Spokes
Torus
Interiors
Final trials
People arrive
Total Cost : $674,698,453,000
Cost
40
Material Quantity(tonnes) Rate (million $/tonne) Cost(million $)
Fused Quartz Silica glass 4775440.75 0.0028 13371.2341
Aluminium oxynitride glass 9624583.25 0.4 3849833.3
lead glass 1994283.01 0.015 29914.24515
Wurtzide Boron Nitride 2731300.65 0.34 928642.221
Superadobe 1317960.95 0.15 197694.1425
Hydrocal bonded B-11 199428.301 0.016 3190.852816
Graphene aerogel 208.1 0.015 3.1215
Demron 2178103.88 0.003 6534.31164
Polyurethane foam 43007.146 0.0022 94.6157212
Fusible lead calcium tin alloy 3988566.03 0.002 7977.13206
RTV 3145 fiber 235256 0.0005 117.628
Boron Nitride Nanotubes 6947.35 0.02 138.947
Borotron 3737980.04 0.03 112139.4012
M5 Fiber 1474035.28 0.02 29480.7056
D30 1825202.5 1.674 3055388.985
Titanium(Ti-62222) alloy 1920581.25 0.08 153646.5
Silicon Carbide 2783325.43 0.036 100199.7155
TOTAL 8488367.059
Cost
41
OCCUPATIONAL BREAKDOWN
Occupation Annual Salary(million $) Phase 1 Phase 2 Phase 3 Phase 4 Phase 5 Phase 6
Technicians 1 150 240 180 250 450 500
Doctors 0.4 10 30 30 50 50 50
Engineers 1.2 100 200 150 300 400 500
Researchers 1.5 40 80 100 150 200 200
Duration(years) 1.5 1 1.5 2 1.5 1.5
Total 501 612 850.5 1710 1875 2130
GRAND TOTAL 7678.5
Cost
42
TOTAL COST OF SETTLEMENT = 1,225,571,360,000
Imported Items Quantity Rate(million $) Cost(million $)
Microwave transmission 8 37 296
Internal Vehicle(Quads) & Bicycle 8000 0.55 4,400
Solar Panels 8 2 16
MARSUV 1000 1 1,000
MAGLEV train 15 6.9 104
Modular nuclear reactor 14 100 1,400
Satellites 8 500 4,000
Metastable xenon difluoride batteries 8000 0.01 80
Pet robot 10000 0 500
Medical Station 0 15,000 300
Microbots & Nanobots 60000 0 360
Minobot & maintenance bot 2 50 100
Hololex 27000 0 15
Cleaningbot & Dust bot 85000 0 340
Briobot and argobot 2 550 1,100
Mars Rover 20 40 800
Super-computer 12 20 240
Biometric system NA NA 40
Volumetric Air flow Tracking System NA NA 4
Energy Particle Analyzers NA NA 20
Waste collection sysytem NA NA 5
Quantum-computer 11 7 77
On-space operation suits 1 100 50
Exploration and research suits 200 0.35 70
Standard work suits 500 0.25 125
Daily needs NA NA 56
Stationery NA NA 25
Recreational needs NA NA 14
Miscellaneous NA NA 100
TOTAL COST 15,637

Students Press Presentation

  • 2.
  • 3.
    BENEVECTORAS Benevectoras is anEarth-Mars cycler settlement around the sun. It will provide the foremost facilities and living environment for 2500 permanent and 6300 transient population. Since the settlement is a cycler it has been equipped with retractable solar sails to cover more distances in less time Solar sail Lower floor downtown Residential Floors
  • 4.
    ARGONOM Argonom is builton the surface of Mars, inside a crater. It is not just a single settlement but consists of a main settlement and other outlying communities. To provide protection from dust and radaiation it will be covered by a protective, transparent, insulating dome It will provide pleasant living and working environments for 24,000 people and a transient population of 3,000 people. Over half the people will live in Argonom, the primary settlement and others in the outlying communities. It will provide immense capabilities to explore the surface of Mars and carry out research and excavation/mining operations on the surface. Basic structure of Outlying Community Cross-section of Primary Settlement
  • 5.
  • 6.
    Construction Materials Materials forPermanent Settlement WURTZITE BORON NITRIDE High tensile strength Easily machinable SUPERADO BE (REGOLITH ) Highly flexible material Resistant to extreme temperatures GRAPHENE AEROGEL Low thermal conductivity High mechanical strength HYDROCAL -BONDED B-11 Resistant to extreme temperatures in the range -248°C to 482°C MATERIAL PROPERTIES AND USES TRANSPAR ENT ALUMINIU M Optically transparent in the near ultraviolet, visible and infrared regions FUSED QUARTZ SILICA GLASS Transparent in visible and near ultraviolet Shows good tensile strength and crack-resistive properties LEAD GLASS Absorbs bursts of X-Rays and Gamma Rays. Transparent Construction Materials Materials for Dome
  • 8.
    Location and Material Location:Naruko Crater (36.248°S, 198.291°E) Location chosen due to less amount of dust storms and perfect texture of soil. MATERIAL PROPERTIES AND USES TRANSPARENT ALUMINIUM Optically transparent in the near ultraviolet, visible and infrared regions FUSED QUARTZ SILICA GLASS Transparent in visible and near ultraviolet Shows good tensile strength and crack-resistive properties LEAD GLASS Absorbs bursts of X-Rays and Gamma Rays.
  • 9.
    Waste and WaterManagement
  • 10.
    Food and Consumables ConsumableCategory Amount (Residential Population) Amount (Transient Population) Food 6,570,500 kg/yr 1,314,000 kg/yr Water 94,257,600 kh/hr 11,782,200 kh/hr Oxygen 2,199,520 kg/yr 141,420 kg/yr Hygiene Products 1,051,200 kg/yr 32,850 kg/yr Pharmaceuticals 87,600 kg/yr 2,730 kg/yr Paper Products* 220,320 kg/yr 6,900 kg/yr Clothing* 4,600 articles/yr 600 articles/yr Shoes* 9,640 pairs/yr 600 pairs/yr Electronics 58,900 items/yr 3,600 items/yr Kitchen Appliances 3,560 items/yr 420 items/yr Furniture 141,820 items/yr 9,600 items/yr Research Materials 12,000 items/yr 800 items/yr *indicates estimation Food type Example food Daily amount Nutrients provided Fish Tilapia 200g 52 g protein 300 IU Vitamin D 3.8 µg Vitamin B-12 Vegetables Lettuce/ Cabbage 200g 14,810 IU Vitamin A 18.4 mg Vitamin C Legumes Soybeans 200g 40g fats 554 mg Calcium 31.4 mg Iron 18g fiber Starches Rice 600g 780 Calories Food Production  Vertical farming  Quantum dot LEDs  Vertical stacks  For 24,000 people, 20 tanks will be needed. Harvesting: Automated robots used, harvest when ready Packaging/Storage:  Plants: biopolymer containers  Surplus is freeze-dried Delivery: Packaged food sent to ‘vending machines’ for distribution Sale: SIC codes used for food orders  Meat Production: in vitro  Paper Production: bamboo pulp  Other products: 3D printed or import from earth Gender Calorie Intake Male 2200 – 2800 Female 2000 – 2600
  • 11.
    Human Transport:  Tramsystems between major recreational and residential areas  Bicycles for travelling short distances  Elevators and Service ladders between floors Goods and Products:  Pneumatic tubes for small products (e.g. consumables)  Pneumatic tube outlets in rooms/communal areas  Integrated with SIC system  Cargo Elevators Internal Transportation 11
  • 12.
    Team 1 places support beams Team2 places aluminum tubes Team 3 welds tubes to support beams and to following tubes Maintenance bots clear the trapped Martian dust Team 4 installs magnetic components  4 Mag-Lev Trams per route 2 cargo, 2 human  MARSUV: 8-man, 6 month Research/Exploration Vehicles Designed by Vulture Aviation External Transportation 4m 8m 2.5m 0.5m 8m 2.5m Cargo Maglev Pod Public transport Maglev pod 12
  • 13.
    Mechanical arms based inthe crater to construct the levels Adjustable height will allow a single jig system to construct all levels in the settlement Construction robots from Aresam help attach base of each level to the side of the crater Each level will be constructed on the base of the crater, raised above to a suitable height and fixed at that height The dome will be constructed similarly, raised outside the crater and fixed to the Jigs Assembly Area for Jigs Versatile robot for exterior construction that uses a welder to cut and place panels Jig Autobot Argobot 13
  • 14.
    Power Generation  2Solar Panel Satellite Array(s):  4 daughter satellites each ~400 mW each in synchronized orbit  Multi-junctional halide perovskite solar cells  Back-up: Clean Modular Nuclear Reactors (CMNRs):  Liquid metal and gas cooled  Better alternative to standard nuclear (Why? Re-use waste, less waste)  1 CMNR supplies ~350 megawatts of electricity 14
  • 15.
    Satelllites Rectennas Underground Power Cables Substation Transformers Battery Storages Distribution Lines PlanetGrid  Rectenna arrays:  1.5 km away from settlements  Power regulation and rectenna control centers  Convert microwave beams to high voltage DC electricity (long distance transfer)  Underground power cables  Gallium nitrogen transformers at substation(s) .25 km away  Metastable xenon difluoride battery storages  Continuous electricity supply  Within each settlement:  Carbon copper nanowire lines polyethylene coated  Power inverters in homes to change DC to AC or AC to DC  Battery banks in homes  Individual: ~7,500 kilowatts per hour  Settlements: ~4,300 megawatts per day 15
  • 16.
    Water Recycling Grit +sand filters for solids Hydro turbine UV radiation for disinfection Aquaponics Utilities apart from toilet Drinking  4KW turbine to power 22W vertical pump & 20 100W UV lamps, excess is stored  Water from polar ice caps (Maglev robots) Gray water facilities (e.g. toilets Heating Feces digested by aerobic bacteria, producing sludge for sale water feces SEWAGE SYSTEM Liters per day Utilities (apart from toilets) Drinking Toilets 8,405,936 80,000 772,224 16
  • 17.
    Atmosphere Air Production Bacteria willbe planted in the Martian soil after consumption of the dome which will create the required atmosphere inside the settlement. Polluted Air Clean Air Air Composition at 0.8atm Gases Volume(%) Oxygen 29% Nitrogen 70% Carbon-dioxide 0.03% Others 0.97% Heating and cooling systems The settlement will be heated by Multi Layer Insulation which will not allow the air to escape the settlement and can withstand small impacts. Also, water tubes will be run of the circumference of the dome which will be heated and be used to heat the settlement. Ammonia pipes will all throughout the settlement which will keep the settlement cool. Multi Layer Insulation carbon scrubbers, electrostatic charcoal
  • 18.
    Cargo Handling 1. Whena space vehicle enters into the docking zone and then disturbs the laser mesh, the adjustable hooks and clamps adjust according to the size of the vehicle. This is to accommodate the diversity of the vehicles arriving at . 2. After the space vehicle is docked the double airlock system opens and transfer the cargo or crew to the pressurized compartment in the settlement.
  • 20.
  • 21.
    Sub Community constructions 1.Tertiary Industrial and Port Settlement Community Design • Argonotos: Rectangular Version • Base: 100 x 50 m x 7 (h) • Argolebes and Argomons: Circular Version • Base: 30m (r) x 15 m (h) 2. Northern Pole Industrial Settlement Community Design • Argoboreas: Circular Version • Base: 70m (r) x 15 m (h)
  • 22.
    Food and Consumables ConsumableCategory Amount (Residential Population) Amount (Transient Population) Food 6,570,500 kg/yr 1,314,000 kg/yr Water 94,257,600 kh/hr 11,782,200 kh/hr Oxygen 2,199,520 kg/yr 141,420 kg/yr Hygiene Products 1,051,200 kg/yr 32,850 kg/yr Pharmaceuticals 87,600 kg/yr 2,730 kg/yr Paper Products* 220,320 kg/yr 6,900 kg/yr Clothing* 4,600 articles/yr 600 articles/yr Shoes* 9,640 pairs/yr 600 pairs/yr Electronics 58,900 items/yr 3,600 items/yr Kitchen Appliances 3,560 items/yr 420 items/yr Furniture 141,820 items/yr 9,600 items/yr Research Materials 12,000 items/yr 800 items/yr Food type Example food Daily amount Nutrients provided Fish Tilapia 200g 52 g protein 300 IU Vitamin D 3.8 µg Vitamin B-12 Vegetables Lettuce/ Cabbage 200g 14,810 IU Vitamin A 18.4 mg Vitamin C Legumes Soybeans 200g 40g fats 554 mg Calcium 31.4 mg Iron 18g fiber Starches Rice 600g 780 Calories Gender Calorie Intake Male 2200 – 2800 Female 2000 – 2600 Food Production  Vertical farming  Quantum dot LEDs  Vertical stacks  For 24,000 people, 20 tanks will be needed. Harvesting: Automated robots used, harves when ready Packaging/Storage:  Plants: biopolymer containers  Surplus is freeze-dried Delivery: Packaged food sent to ‘vending machines’ for distribution
  • 23.
    Transportation Human Transport:  Tramsystems between major recreational and residential areas  Quad-cars for personal travelling  Bicycles for travelling short distances  Elevators and Service ladders between floors
  • 24.
    Housing designs Studio Exterior:16m height 6m x 9m base, 579 ft2 Apartment exterior: 2.5 m height, 9m x 8 m base, 1,600 ft2
  • 25.
  • 26.
    4.3 Donning andDoffing Single Airlock Chamber for Community Compartments 4.6 m. by 9.2 m. Triple Airlock Chamber for Doffing 4.6 m. by 9.2 m.
  • 27.
    Space suit Work SuitsIn - Space Operation Suits Exploration and Research Suits Standard Work Suits Subcontractor Extreme Survival Technologies Extreme Survival Technologies Extreme Survival Technologies Cost per Suit $500,000 $350,000 $250,000 Number of Suits 100 200 500 Specialty Custom Fit Greater Mobility Flexible Converts CO2 to O2 Hard Shelled Frequent Use Dimensions of: 1.7 m. height, 0.6 m. width Work Suit is shown in the left Dimensions of: 1.8 m. height, 0.7 m. width Recreational Suit is shown in the right
  • 28.
    Personal Demographic Distribution 0 5000 10000 15000 20000 25000 30000 35000 40000 45000 020 40 60 ResidentialPopulation Years rom Establishment Estimated Population Growth Pattern Group Percent Population Married Adults 50% 12,000 Single Men 28% 6,720 Single Women 21% 5,040 Children 1% 240 Transient 3,000
  • 30.
    Robot/Jig/Device Design DescriptionQuantity Autobot (2m x 2m and 3m arms) Construction of the external hull by working on the jig Capable of lifting, cutting and assembling panels on the exterior hull and the outermost frame due to its welding capabilities. 10 Argobot (3.5m x 1.5m) Multi-purpose construction robot Tool dispensing arm with 6 tools which can weld, glue, drill etc. Constructs houses Helps with prefabricated base assembly (inflation with water) Constructs mag lev rail at 25 km/day 146 Briobot (1m x 0.6m) Equipped with suction cups for tiling, paint nozzles and a mechanical arm Interior finishing and install utilities Maintain facilities as well 200 3-D Printer Standard 3D printer Will build interior infrastructure and surfaces like furniture, household objects 50 5.1 Construction
  • 31.
    5.2 Contingency Plans ProblemProcedure Response Mechanism Time Fire Smoke Detector detects fire Alert sent to people Sonic extinguisher is deployed Low frequency sounds from inbuilt speakers which extinguish fire 5 to 10 seconds Pipe leakage Mainframe detects any leak Briobot will be deployed Hypo-eutectic alloy will be sprayed onto the leak to seal it 30 seconds Robot Malfunction Any damaged robot is recalled to the Warehouse/Repair Centre Hardware: Warehouse repairs Software: Mainframe Hardware:1-2 hours Software: 10-15 minutes Computer Malfunction Highly redundant & autonomous systems ensure that malfunctions don’t compromise settlement operations Human Engineers reprogram buggy code in any malfunctioning computer 5-10 hours Exterior Structure Failure Pressure sensors detect breach Airlock activated Repair robots are sent Airlock Briobot Airlock: instantly Robots: depends on the damage
  • 32.
    Internal Communications:  Li-Fi willbe used to achieve 250 Gbps of speeds  LEDs connected with fibre optics will act as routers External Communications:  Vulture’s satellite constellation will be used for all communication  Laser communication terminals will relay all signals between these settlements SHA-256 encryption will be used to protect all data exchanges 5.2 Communication 32
  • 33.
  • 34.
    5.3 Repair andSafety 34 Uses two assembly lines, one for construction and one for repair of robots Repair line has scanner at the start Construction line has 3D printer at the start for basic framework of robot Robotic arms designed to do specific tasks placed next to conveyer belt Warehouse has one more level for storing robots The warehouse will be placed in the Maintenance Level of the settlement Robot Warehouse (325 sq. meter, 2 levels) Storage of robots on second level
  • 35.
    5.4 Personal Device ComponentDescription Biometric Sensors Monitors vital signs and also uses biometrics for payments and user identification Self Sustaining Charging A kinetic charger inside charges the HoloLex charges it while users are moving. Backup charge is provided by the clothing (mentioned later). End-to-end integration Minerva will be integrated with the housing mainframe and will allow users to control all home appliances 35
  • 36.
    5.4 Enhanced Livability SmartKitchenSmart Office Space Butler Functions Security Personal Assistant Linked to the home security system Alerts the authorities in case of intruders or emergencies such as fires Alex acts as a smart personal assistant and secretary, giving reminders and also taking care of children Is responsible for general household work and maintanence 1.2m 0.6m Delivery bot capable of carrying 25 kg
  • 38.
    Business Development Argomons Argonotos Argolebes Argolebes Mines for Raw materials Argonotos Near- vacuum, Dryice cold soak Transparent Aluminum Extruding, rolling, forming, cutting Finished Export Product Argomons Export Spacecraft Construction 38 Heating Plant 1 Sheet Rolling Cold Soak Plant 1 Heating Plant 21 1 Cutting Plant Cold Soak Plant 2 Polishing
  • 39.
    Schedule 39 2060 2061 20622063 2064 2065 2066 2067 2068 2069 2070 2071 2072 2073 2074 2075 R& D(phase1) R& D(phase2) Transp.of materials Construction Jig Cylinder Dock Anntena Rotation interphase Initial trials Spokes Torus Interiors Final trials People arrive Total Cost : $674,698,453,000
  • 40.
    Cost 40 Material Quantity(tonnes) Rate(million $/tonne) Cost(million $) Fused Quartz Silica glass 4775440.75 0.0028 13371.2341 Aluminium oxynitride glass 9624583.25 0.4 3849833.3 lead glass 1994283.01 0.015 29914.24515 Wurtzide Boron Nitride 2731300.65 0.34 928642.221 Superadobe 1317960.95 0.15 197694.1425 Hydrocal bonded B-11 199428.301 0.016 3190.852816 Graphene aerogel 208.1 0.015 3.1215 Demron 2178103.88 0.003 6534.31164 Polyurethane foam 43007.146 0.0022 94.6157212 Fusible lead calcium tin alloy 3988566.03 0.002 7977.13206 RTV 3145 fiber 235256 0.0005 117.628 Boron Nitride Nanotubes 6947.35 0.02 138.947 Borotron 3737980.04 0.03 112139.4012 M5 Fiber 1474035.28 0.02 29480.7056 D30 1825202.5 1.674 3055388.985 Titanium(Ti-62222) alloy 1920581.25 0.08 153646.5 Silicon Carbide 2783325.43 0.036 100199.7155 TOTAL 8488367.059
  • 41.
    Cost 41 OCCUPATIONAL BREAKDOWN Occupation AnnualSalary(million $) Phase 1 Phase 2 Phase 3 Phase 4 Phase 5 Phase 6 Technicians 1 150 240 180 250 450 500 Doctors 0.4 10 30 30 50 50 50 Engineers 1.2 100 200 150 300 400 500 Researchers 1.5 40 80 100 150 200 200 Duration(years) 1.5 1 1.5 2 1.5 1.5 Total 501 612 850.5 1710 1875 2130 GRAND TOTAL 7678.5
  • 42.
    Cost 42 TOTAL COST OFSETTLEMENT = 1,225,571,360,000 Imported Items Quantity Rate(million $) Cost(million $) Microwave transmission 8 37 296 Internal Vehicle(Quads) & Bicycle 8000 0.55 4,400 Solar Panels 8 2 16 MARSUV 1000 1 1,000 MAGLEV train 15 6.9 104 Modular nuclear reactor 14 100 1,400 Satellites 8 500 4,000 Metastable xenon difluoride batteries 8000 0.01 80 Pet robot 10000 0 500 Medical Station 0 15,000 300 Microbots & Nanobots 60000 0 360 Minobot & maintenance bot 2 50 100 Hololex 27000 0 15 Cleaningbot & Dust bot 85000 0 340 Briobot and argobot 2 550 1,100 Mars Rover 20 40 800 Super-computer 12 20 240 Biometric system NA NA 40 Volumetric Air flow Tracking System NA NA 4 Energy Particle Analyzers NA NA 20 Waste collection sysytem NA NA 5 Quantum-computer 11 7 77 On-space operation suits 1 100 50 Exploration and research suits 200 0.35 70 Standard work suits 500 0.25 125 Daily needs NA NA 56 Stationery NA NA 25 Recreational needs NA NA 14 Miscellaneous NA NA 100 TOTAL COST 15,637

Editor's Notes

  • #13 Teams 1, 2, 3, and 4 consist of a pair of Argobots Construction begins on both settlements and finishes in the halfway point
  • #15 Primary: 2 Solar Panel Satellite Array(s): Consists of 4 daughter satellites each Synchronized orbit around Mars Multi-junctional halide perovskite solar cells Retro-directive phased array antenna/rectennas Avoid issues with dust storms Rectennas convert microwaves into high voltage DC electricity Each satellite supplies ~400 megawatts Subsidiary: Clean Modular Nuclear Reactors (CMNRs): Back up generation in case of emergencies (i.e dust storms, satellite failure) Liquid metal and gas cooled Better alternative to standard nuclear 1 CMNR supplies ~350 megawatts of electricity 2 modular nuclear reactors for each settlement