Skip to content

Out-of-the-Box-Astronautics-LLC/StrongBox

Repository files navigation

Strong Box

Greenhouse to the grey Moon!

Only human life has ventured to explore the Moon. Let’s bring new beauty and life to the moon in a 2.00 x 2.00 x 2.00 ft (60.9 x 60.9 x 60.9 cm) Strong Box™ by Out of the Box Astronautics LLC. Constructed from 6.00 x 6.00 x 0.250 inch (15.24 x 15.24 x 0.640 cm ) 304L Hollow Structural (Stainless) Steel (HSsS) and filled with Central American Air Plants, Antarctica McMurdo Dry Valley lichen, four 2.5 lbs carbon dioxide (CO2) bottles, two NVIDIA® Jetson AGX ORIN, six 2 km LIDAR, and twelve 5 MP (2560 x 1920) Sony IMX568 cameras inside Ultem 1010 3D printed enclosures with M12x0.5 Lens Holders, and a single Class O or Class S solid rocket engine.

Screenshot from 2024-03-24 06-37-03

Figure 1 - OnShape 3D Model of the internal Strong Box frame, 6 in x 6 in and 0.25 inch thick 304L HSS

The Air Plant One mission using the Strong Box produxt by 'Out of the Box Astronautics LLC' has three main objectives:

  1. Embark on a pioneering journey to bring the vibrancy of terrestrial plant life to the Moon’s stark, grey landscape. Our mission is to sustain life in an extraterrestrial environment for at least 13.65 Earth days, capturing and sharing stunning images of thriving greenery against the Moon’s mystical backdrop with the world. This endeavor is not just about proving survival, but also about inspiring awe and wonder.
  2. Lay the foundation for a lunar base by scaling our Strong Box from a compact 2 x 2 x 2 feet (60.9 x 60.9 x 60.9 cm)  to an expansive 12 x 12 x 12 feet (365 x 365 x 365 cm) with workng HVAC / enviromental control. Utilize the formidable capabilities of the SpaceX Starship to accomplish this monumental task, signaling a new era of lunar colonization.
  3. Demonstrate the feasibility of a semi-hard lunar landing at approximately 100.0 mph (160.9 km/h = 44.69 m/s), using a single solid rocket engine, CO2 based cold gas thrusters, and camera based computer vision. This innovative approach promises to revolutionize lunar exploration, offering a cost-effective, efficient, and thrilling new pathway to uncover the secrets of the Moon.

2024 Test Plan:

  1. Lift Strong Box to ~333 feet (on Earth) using a 15K USD crane or rented large drone to simulate a 100 mph terminal velocity impact on the Moon (See math HERE)
  2. 12 x 12 x 12 foot vacuum chamber pod (from Moe Build LLC) with JSC-1A lunar regolith, vanta black painted sky, and 11.69 kW Halogen spotlight (sun sim) to test computer vision code on a MIL-SPEC NVIDIA AGX
  3. Test fire suicide burn with small Sugar & Potassium Nitrite (KNO3) solid rocket engine with impluse of 159 N*s

2025 Test Plan:

  1. Hang Strong Box inside a 12 x 12 x 12 foot vacuum chamber pod to test CO2 based four nozzle cold gas thruster
  2. Test fire Class O solid rocket engine with Tripoli Vegas Rocketry which is part of https://www.tripoli.org



MORE INFO:

Rockets:

  1. Earth to Moon Trans-Lunar Injection (TLI) launch provider via $5M Falcon 9 or $200K StarShip via SpaceX

Landers / Orbiters:

  1. Intuitive Machines Lander with decent rate of less than 250.0 m/s at 1 km, suborbital trajectory speed of 575.0 m/s or less at 319.0 km, and orbital speed of 1544 m/s at 320.0 km (See math HERE)
  2. Astro Lab Moon Rover with direct surface placement, with electrical power and RF data transfer support.
  3. Blue Origin Blue Ring drop off in Low Lunar Orbit (LLO) below 100 km (62 mi) at 1633 m/s

Cameras:

  1. PRIMARY CAMERA: E-Conn Sony IMX568 TBD LINK
  2. Ultem 1010 Camera Enclosures for Sony IMX568 above (3DX Tech 3D printing filament)[https://www.3dxtech.com/tech-data-sheets-safety-data-sheets/]
  3. BACKUP CAMERA: https://www.eclipticenterprises.com/

Plants:

Lunar Lichen:
TODO

South American Air Plants:
TODO



Why open source?

The adoption of open source hardware offers numerous benefits for society and companies alike, providing a model that encourages innovation, collaboration, and accessibility. Here’s why open source hardware is beneficial:

For Society

  1. Promotes Innovation and Collaboration: Open source hardware fosters an environment where engineers, designers, and hobbyists can collaborate globally to improve designs and innovate. This collective effort accelerates the development of new technologies and solutions to real-world problems.
  2. Increases Accessibility: By making hardware designs freely available, open source hardware lowers the barriers to entry for individuals and small organizations who wish to create custom solutions or learn about hardware development. This democratizes technology, making it more accessible to people around the world, including those in resource-constrained environments.
  3. Educational Value: Open source hardware serves as a valuable learning tool for students and educators in STEM fields. It allows hands-on experience with real-world engineering projects, facilitating a deeper understanding of design principles, electronics, and manufacturing processes.
  4. Sustainability: The open source model encourages the sharing and reuse of hardware designs, which can lead to more sustainable practices. For example, designs can be iterated to be more energy-efficient, use fewer resources, or be easier to repair, reducing waste and environmental impact.

For Companies

  1. Reduces Development Costs: Leveraging existing open source designs can significantly reduce research and development costs. Companies can build upon the work already done by others, focusing their resources on customization and innovation rather than reinventing the wheel.
  2. Speeds Up Time to Market: With access to a wealth of open source hardware designs, companies can bring products to market more quickly. This rapid prototyping and development process is vital in industries where technology evolves quickly.
  3. Builds Community and Brand Loyalty: Companies that contribute to open source hardware projects can build a community of passionate users and developers around their products. This not only aids in improving the products through community feedback but also fosters a loyal customer base that values transparency and collaboration.
  4. Encourages Standardization: Open source hardware can help establish industry standards, making it easier for products to interoperate. This standardization can lead to broader adoption of new technologies and can drive innovation within the industry.
  5. Risk Mitigation: By using and contributing to open source hardware, companies can mitigate the risk of dependency on single suppliers for proprietary components. This open ecosystem can provide more flexibility and security in supply chains.

In conclusion, the open source hardware movement has the potential to bring about significant social and economic benefits by fostering an open culture of sharing, learning, and collaboration. It aligns with broader trends towards openness and transparency in technology, contributing to a more equitable and innovative future.



NOTEPAD:

Under Construction Strong Box Project Website

https://wp.me/PfFjRT-2