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PANAMINSPACE

BUILDING CITIES IN SPACE 
WITH ARTIFICIAL GRAIVITY

 

POLAR COORDINATES
"TO INFINITY"

3D PRINTED MODULAR ROCKETS

The basis of the space city is an innovative polar coordinate 3D printing system which allows the rapid building of modular rockets which are the essential building blocks of the space city.

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LARGE SCALE

THE LARGEST MACHINE HAS AN 8 FOOT DIAMETER BUILD PLATFORM WHICH ALLOWS THE PRINTING OF INDIVIDUAL STACKABLE ROCKET MODULES.

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MEDIUM SCALE

We are developing a smaller Electron Beam Powder Bed Fusion (EB-PBF) machine using polar coordinates for the commercial market, the design emphasizes efficiency, precision, and cost-effectiveness. This setup, with a rotating bed and continuous powder delivery, offers better use of materials and optimized print times, especially for circular or cylindrical parts. The machine will cater to small-to-medium businesses in industries like aerospace, automotive, and medical, offering reliable performance, compact size, and versatility with a range of metal powders like titanium or stainless steel.

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SMALL SCALE

The smallest machine in development will cater to universities and research groups who are trying to use the technology to advance additive manufacturing efficiency and productivity.

ABOUT THE TEAM

We have gathered a  multidisciplinary team of mechanical, electrical, and software engineers along with experienced machinists, welders, and fabricators to design and build the initial prototype printers.

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GRAVITY

To create 1G (Earth's gravity) on a spaceship or space station, you would need to simulate gravity using centrifugal force. This can be achieved by rotating the station or a section of it. The centripetal acceleration required to produce 1G depends on the station's rotation speed and radius. For example, a rotating space station with a large enough radius would need to spin at a specific rate to generate the necessary force for occupants to experience gravity similar to Earth's. Larger radii allow for slower rotation and a more comfortable environment.

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SUSTAINABILITY

Metal 3D printing in space offers immense benefits for space missions by enabling on-demand manufacturing of tools, replacement parts, and even structural components, reducing the need to launch extensive spare parts from Earth. By producing metal parts in space, astronauts can adapt to unexpected situations, performing repairs or creating specialized equipment tailored to mission needs. In-space 3D printing also saves valuable cargo space and reduces mission costs, as materials can be stored in compact, raw forms rather than pre-manufactured.

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G-Force

A 100m diameter station, or cluster of our modular rockets, need to rotate around its center axis 1RPM in order to generate the simulated gravity. Due to the fact that only the outer ring will experience full gravity, the inner portions will be used for storing equipment and other non-habitable modules.

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MARKETING REVENUE

Marketing large brand signs on space modules within a space city offers several unique benefits, blending commerce with cutting-edge innovation. These eye-catching advertisements not only enhance brand visibility in a futuristic setting but also engage a diverse audience of residents, tourists, and space travelers. The captivating environment of a space city creates a memorable backdrop for brands, fostering a sense of adventure and exclusivity.

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SPACE TRAVEL

Traveling in a space station involves careful planning and coordination. Astronauts must adapt to microgravity conditions, which affect movement, orientation, and daily tasks. The station is equipped with life support systems, research facilities, and exercise equipment to maintain physical health. Travel between modules and handling supplies require specific techniques to ensure safety and efficiency. Communication with mission control is crucial for operations and emergency responses. Overall, living and working in a space station presents unique challenges and experiences that contribute to scientific research and exploration.

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NUTRITION

Growing food in space presents unique challenges due to the lack of natural sunlight, gravity, and soil found on Earth. Microgravity affects how water and nutrients move through plants, requiring innovative hydroponic or aeroponic systems to deliver nutrients directly to roots. Not only does it supports long-term missions by providing fresh produce but also contributes to crew well-being, offering psychological benefits through interaction with living plants.

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MEDICAL FACILITIES

Having a medical facility on board during space travel is crucial for ensuring the health and safety of astronauts on long missions. A medical facility allows for immediate response to injuries, illnesses, and space-specific health challenges like muscle atrophy and radiation exposure. Equipped with diagnostic tools, medications, and basic surgical capabilities, it enables astronauts to manage conditions that could otherwise jeopardize the mission

REACTOR

Unlike solar power, which diminishes with distance from the Sun and is unreliable during long periods of darkness, nuclear reactors provide a continuous energy supply. This is especially crucial for missions to the outer planets and beyond, where solar energy is too weak to sustain vital systems. With nuclear power, spacecraft can operate advanced scientific instruments, life-support systems, and propulsion technologies necessary for prolonged exploration, potentially transforming our ability to reach and study distant worlds.

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FUTURE CLIENTS

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CLIENTS

CONTACT

Inquiries

For any inquiries, questions or commendations, please e-mail us at info@panaminspace.com or fill out the following form.

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