Promethean Labs Projects Expanded Overview
concept art By I.S. McArdle

Promethean Labs Projects Expanded Overview

By Ian Sato McArdle

1. POWER NODE: Decentralized Hybrid Power Generation

Objective: Develop a decentralized hybrid power generation system that integrates solar, wind, hydro, and HOH gas with AI control for optimal performance.

Key Components:

  • Solar Panels:High-efficiency 680-watt 24V DC panels.Photovoltaic cells designed for maximum energy capture.
  • Micro-VAWT (Vertical Axis Wind Turbines):Operate at low wind speeds, starting at 4 mph.Rated output of 12,000 watts at 23 mph.Compact and less intrusive compared to horizontal axis wind turbines.
  • Hydro Power:Small-scale hydroelectric generators for consistent power generation.Use of local water sources to harness energy.
  • HOH Gas (Hydroxy Gas):High output HOH generation for supplemental power.Provides additional power during peak demand or low renewable output.
  • AI Control System:Manages the integration and balance of different power sources.Optimizes performance based on real-time data and predictive analytics.

Applications:

  • Powering remote or off-grid facilities.
  • Enhancing energy resilience in urban and rural settings.
  • Providing sustainable energy solutions for residential, commercial, and industrial applications.

2. FIRE SCOUT: Wildfire Detection

Objective: Detect and monitor wildfires using drones and sensor technology.

Key Features:

  • Drones:Equipped with thermal imaging cameras for heat detection.Environmental sensors to detect changes in temperature, humidity, and smoke.Autonomous operation with predefined patrol routes.
  • Ground-Based Sensors:Early detection of smoke and heat.Networked sensors provide real-time data to a central monitoring system.
  • Data Integration:Real-time data analysis and reporting to emergency services.Integration with GIS for accurate location tracking.
  • Automation:Autonomous data collection and analysis.Automated alert systems for rapid response.

Applications:

  • Early detection and monitoring of wildfires.
  • Enhancing the response time of emergency services.
  • Reducing the impact of wildfires on communities and ecosystems.

3. PROJECT NEOMINE: Automated CPU Recycling and Metals Refining

Objective: Automate the recycling of CPUs and refining of metals.

Process:

  • Mechanical Separation:Use of mechanical processes to separate metallic from non-metallic components.Shredding and sorting technologies for efficient separation.
  • Casting:Melting and casting valued metals into crude anodes.High volume HOH/propane casting foundry.
  • Electrorefining:Purifying metals to +99.997% purity.Electrochemical processes to refine copper, silver, and gold.

Power Source: Powered by Power Node Proto 1 (combining VAWT and solar panels).

Safety Features:

  • Ground vaulted and redundancy flame blowback prevention.
  • High safety standards for handling and processing materials.

Output:

  • Processes 20 to 40 tons of processors annually.
  • Extracts significant quantities of copper (10,000s of grams), silver (1000s of grams), and gold (1000 to 100s of grams) per ton.

Applications:

  • Efficient recycling and metal recovery from electronic waste.
  • Reducing environmental impact of electronic waste disposal.

4. SUSTAINABLE HOME: Automated Mill and Smart Housing

Objective: Create sustainable, smart housing using locally sourced timber.

Components:

  • Automated Prefabrication Facilities:Efficiently produce quick assembly prefabricated smart cabins and cottages.Uses advanced milling technologies for precision and minimal waste.
  • Smart Home Technology:Integration of IoT devices for energy management, security, and automation.Features such as smart thermostats, lighting, and security systems.
  • Sustainable Practices:Use of renewable energy sources (solar, wind) for powering homes.Utilization of sustainable and locally sourced materials.
  • Short Life Cycle Design:Smart cabins and cottages have a 10 to 15-year lifecycle.Designed for disassembly and separation of wood and non-wood elements.Wood elements can be repurposed for biofuels.

Applications:

  • Sustainable housing developments.
  • Eco-friendly residential communities.
  • Reducing carbon footprint through smart home technologies.
  • Combined with GROVE reforestation project for sustainable forestry management.

5. GROVE PROJECT: Drone GIS Mapping and Tree Sampling

Objective: Use drones for GIS mapping, tree sampling, genetic profiling, and cryogenic banking.

Components:

  • Drones:Equipped with LIDAR and multispectral imaging for high-precision mapping.Capable of collecting data on tree health, species, and growth patterns.
  • GIS Mapping:High-precision mapping for environmental monitoring.Creation of detailed maps for forestry management and research.
  • Genetic Profiling:Sampling and profiling of tree genetics.Preservation of genetic diversity through cryogenic banking.
  • Cryogenic Banking:Preservation of genetic material for future use.Ensures the longevity and resilience of tree species.

Deployment Area: Centered around Coos County in southern Cascadia Coastal watersheds.

Applications:

  • Forestry management and conservation.
  • Environmental monitoring and research.
  • Preservation of genetic diversity in tree species.

6. PROJECT CASTOR: Hydrological Restoration

Objective: Restore hydrological features using micro dams and fish ladders.

Components:

  • Micro Dams:Small-scale dams for water management and ecosystem restoration.Designed to minimize environmental impact while maximizing benefits.
  • Fish Ladders:Facilitate fish migration and support biodiversity.Structures that enable fish to navigate around obstacles.
  • Monitoring:Environmental impact assessment and ongoing monitoring.Use of sensors and data collection to track project success.

Deployment Area: Throughout the southern Cascadia Coastal watersheds, with LITTLE LAKES involving a large expansion achieved with an airlifter system allowing roadless deployment.

Applications:

  • Restoration of natural watercourses.
  • Support for local biodiversity and ecosystems.
  • Sustainable water management practices.

7. CASTOR - LITTLE LAKES: Distributed AWG and Renewable Energy Systems

Objective: Implement distributed Atmospheric Water Generation (AWG), solar, VAWT, hydroelectric generation, and mag-lev rail systems for energy transmission.

Components:

  • AWG (Atmospheric Water Generation):Extracting water from the atmosphere for potable use.Provides a sustainable water source in arid regions.
  • Solar Panels:High-efficiency panels for consistent energy supply.Integration with other renewable energy sources.
  • VAWT (Vertical Axis Wind Turbines):Compact and efficient wind energy generation.Suitable for various locations with variable wind conditions.
  • Hydroelectric Generation:Small-scale hydro systems for additional power.Utilizes local water resources efficiently.
  • Mag-Lev Rail for Energy Transmission:Small-level maglev tracks as a linear hub for a distributed hydroelectric pipeline network.Avoids overhead transmission lines, providing efficient and reliable energy transmission in rural settings.

Deployment Method: Large expansion achieved with an airlifter system allowing roadless deployment.

Applications:

  • Sustainable water and energy generation in remote or urban areas.
  • Advanced energy transmission solutions with reduced environmental impact.

8. GROVE - RE-TREE: Neo-Industrial Reforestation

Objective: Regenerate plant cells and establish modular tree farms.

Components:

  • Automated Plant Cell Regeneration/Replication/Propagation:Combined clone factory with bot and drone-operated tree nursery.Ensures healthy growth and development of trees.
  • Large Bot and Drone Planter Workforce:Efficiently plant and manage large areas of reforestation.
  • Cryobank System:Small number of cells (10 mm diameter by 35 mm length) from biodiversity cryobank.Genetic material preserved for future use.
  • Blockchain Tracking:Each tree is individually identified as a blockchain block with linked genetic profile.Transaction ledger tracks and records tree attributes and all genetic daughters.

Applications:

  • Large-scale reforestation projects.
  • Restoration of degraded land and ecosystems.
  • Sustainable forestry management and carbon sequestration.

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