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1. The two initial terraforming settlements will be placed at the two deepest points of the Hellas Basin . They will use modular construction to allow for future movement. TERRAFORMING SETTLEMENT INTRODUCTION 1 2.0 Fig: Top view of Bradburyom Source: Rayirth S., Blender Fig: Top view of Terraforming Settlement Source: Rayirth S., Blender The main part of our settlement will be placed at the rim of Hellas Basin housing the entire permanent residential population, and the entire industrial and manufacturing park MAIN SETTLEMENT Bradburyom will be comprised of 2 major parts, the main settlement 2 Terraforming settlements. CASSSC Repurposing Unit Rectenna Antenna Residential Dome Waste Management Warehouse Launchpad PTM base CTM base CASSSC repurposing unit Industrial Unit Isolated Dome Terraforming Lab Exploratory Research Dome Biological Dome Chemical Dome

2. EXTERNAL CONFIGURATION 2 2.1 Antenna: It will be built to establish communication and will be subcontracted to OrbitLink Communications Rectenna: It will be used to supply power to the entire settlement STRUCTURAL COMPONENTS USES VOLUME (m³) Residential Population per dome=2050, residential, commercial 46,712,611 Warehouses Storage for CASSSCs 4.350,930 Industrial Research bases, Manufacturing 6,590,119 Waste Management Waste management 4,671,261 Launchpad Transportation of cargo and passenger to and from the settlement 63,617 Table: Major Structural Components Source: Sumay M., Microsoft Excel Fig: Top view of Bradburyom Source: Rayirth S., Blender 220m 180m 125m 90m 60m 30m

3. EXTERNAL CONFIGURATION 3 2.1 220m 45m Fig: Top view of Bradburyom Source: Rayirth S., Blender Fig: Residential Dome Source: Rayirth S., Blender 180m 180m 30m Fig: Industrial Structure Source: Rayirth S., Blender 60m 10m Fig: Waste Management Unit Source: Rayirth S., Blender Fig: Cargo Terminal Source: Rayirth S., Blender 125m 125m 20m Fig: Launchpad Source: Rayirth S., Blender 90m 10m 30m 10m Fig: Passenger Terminal Source: Rayirth S., Blender

4. ENTRY/EXIT SYSTEM 4 2.1 Airlocks will be the entry/exit point for all the structural components of the settlement and will subcontracted to Lossless Airlocks. There are 2 types of airlocks: “Cargo” airlocks and “PTM Vehicle and Personnel Airlocks”. Fig: Passenger/PTM vehicle airlock Source: Rayirth S., Blender 4 m 4.5 m PTM Vehicle and Personnel airlocks will be designed to handle people and PTM vehicles to and from the major structural components of the settlement. HF DUST MITIGATION CROSS SECTIONAL RENDER HF DUST MITIGATION TEXT Fig: Passenger/vehicle air lock dust mitigation Source: Rayirth S., Blender

5. ENTRY/EXIT SYSTEM 5 2.1 18 m 16 m Cargo airlocks will be designed and subcontracted to Lossless Airlocks handle CASSSCs carrying cargo transport vehicles to and from the major structural components of the settlement. Fig: Cargo airlock Source. Rayirth S., Blender HF DUST MITIGATION CROSS SECTIONAL RENDER DUST MITIGATION TEXT Fig: Cargo airlock dust mitigation Source. Rayirth S., Blender

6. INTERIOR LAYOUT 6 2.2 There will be a total of 10 domes which will have a population of 2050 each. Each dome will accommodate residential, commercial and agricultural uses. Each dome will be divided into two sectors to separate the residential area, with each sector housing a population of 1025. Windows will be built for the provision of natural settlement in each dome. Residential Commercial Facilities Utilities Recreational Parks Roads Transportation Emergency Services Fig: Piechart : Areas In Bradburyom Source: Sumay M., Microsoft PPT Fig: Interior Layout Source: Aatreyi S, Sumay M., Microsoft PPT

7. ZONAL MAP 7 2.2 PTM base CTM base Residential Dome Waste Management Industrial Units CASSSC repurposing unit Launch Pad Warehouse Terraforming Lab Isolated Dome Chemical Dome Biological Dome Exploratory Research Dome STRUCTURALCOMPONENTS SURFACE AREA (m 2 ) Residential 46,712,611 Warehouses 145,031 Industrial 6,590,119 Waste Management 4,671,261 Launchpad 63,617 Table: Components And Surface Areas Source: Adarsh C. Microsoft Powerpoint Fig: Terraforming Zonal Map Source: Adarsh C., Microsoft PPT Fig: Bradburyom Zonal Map Source: Adarsh C., Microsoft Powerpoint

8. CONSTRUCTION STEPS 8 2.3 Fig: Construction Steps Source: Rayirth S., Blender Construction will be initiated with the erection of a struction shack subcontracted to Blown Away .  Construction will begin at the rim of Hellas Basin A Rectenna will be built to establish power for future construction. An antenna subcontracted to OrbitLink Communications will be built to create sustained communication. 2069-69 2069-69 2069-69 2069-69 1 2 3 4 A CTM base and PTM base will be built along with a Launchpad to facilitate transportation to and from the settlement. The trusses for 10 residential domes will be laid down using external construction bots. Construction Shack Rectenna Antenna Launchpad PTM base CTM base Residential Trusses Industrial Trusses

9. 2069-69 2069-69 2069-69 2069-69 CONSTRUCTION STEPS 9 2.3 Fig: Construction Steps Source: Rayirth S., Blender The domes will be completed along with 4 Industrial units , 2 warehouses , a CASSSCs Reimbursement Unit will be built.  1 waste management units will be built which are subcontracted to Toss It To Me An Isolated Dome will be built to prevent any contingency during the terraforming experimentation process. 5 6 7 8 The Biological Dome housing the Botany and Biological Laboratories and the Chemical dome housing the Chemical and Aerological Laboratories will be built to facilitate research and experimentation A Terraforming and experimentation dome , and an exploratory research dome will be built to complete the construction of the settlement Isolated Dome Biological Dome Chemical Dome

10. COMPRESSION/TENSION 10 2.3 Fig: Joining Method: Unclasped Source: Rayirth S., Blender Fig: Joining Method: Clasped Source: Rayirth S., Blender STEP-1 STEP-2 Compression Collar Interlocking Jaws Fig: Compression Rings Source: Adarsh C., Blender Fig: Tension Rings Source: Adarsh C., Blender Ball joint Truss Interlocked and compressed Joint Fig: Residential Dome Source: Rayirth S., Blender The dome's shape naturally creates high compression and tension at its top and bottom; to prevent contingencies, the apex is extruded downward. The joining mechanism of modular trusses of domes has connecting trusses with jaws which interlock linearly. To hold it in a straightened position , the compression collar secures the joint in place by clasping the interlocked jaws. This mechanism enables 360° mobility of the trusses.

11. CASSSC REPURPOSING UNIT 11 2.3 Fig: CASSSCs repurposing unit cross-sectional Source: Adarsh C., Blender Fig: CASSSC repurposing unit Source: Adarsh C., Blender Conveyer belt Forklift CASSSC Airlock 3 rd floor: The finishing touches such as painting, buffing, texturing occur at this stage, finalized CASSSCs are brought back to the first floor by a forklift and sent out through a cargo airlock. 1 st floor: The major purpose of the floor is initial surveying and assessment of the CASSSCs. 2 nd floor: The CASSSCs are brought up by a forklift onto the conveyer belt. Major structural breakdown happens at this stage. Initial surveying and assessment Major Structural changes Finishing touches-painting, buffing, texturing Airlock Fig: CASSSCs repurposing unit exit point Source: Adarsh C., Blender Fig: CASSSCs repurposing unit mechanism flowchart Source: Adarsh C., Blender

12. TERRAFORMING DOMES 55 2.4 The Biological and Botanical dome will consist of 4 main sectors . The fourth sector will comprise of Environmental Chamber to simulate Martian environment for biological experiments and Automated Bioreactors for cultivating, engineering and testing microbes. The third sector will be the Biological Sample Storage , which will have secure, temperature and humidity-controlled units for maintaining living organisms like microbes, seeds, plant tissue, and soil samples with modified organisms. The first sector will be the In-Situ Research Analysis lab , and Automated Handling systems containing robotic arms and conveyor belts to reduce human contact and contamination risks. The second sector will be the Bio-Containment Chamber with multiple containment layers and automated sterilization to reduce contamination. 130m 40m 120m 35m Fig: Terraforming Dome Source: Rayirth S., Blender Fig: Biological And Botanical Source: Rayirth S., Blender Fig: Biological And Botanical cross section Source: Rayirth S., Blender In-Situ Lab Containment Chamber Storage Zone Environmental Chamber

13. TERRAFORMING DOMES 55 2.4 The Chemical And Aerological dome will consist of 4 main sectors . The fourth sector is the  Industrial Research Facility , where resource filters are used to test industrial processes for building and manufacturing on Mars. The third sector is the safe storage area with controlled pressure and separate zones for different materials. The first sector is the  In-Situ Resource Analysis Lab , with a conveyor belt, scanner, robotic arm, furnace, crusher, and sifting unit to study and process Martian materials The second sector is the  Reaction and Synthesizing Lab , with equipment to test reactions using controlled pressure, gas injection, stirring rigs, and an analysis unit Fig: Isolated Dome Source: Rayirth S., Blender Fig: Chemical Dome Source: Rayirth S., Blender Fig: Chemical and Aerological cross section Source: Rayirth S., Blender 110m 35m 180m 45m In-Situ Lab An experimental machinery will be built: Brick Press which will crush and filter In-Situ Resources collected. Industrial Research Facility Reaction and Synthesizing Lab Synthesizing Lab