We Deserve Better - Wandering Farmers co-op

All posts by Charles Anaman

Why Conversion Kits for Vehicles Could Outpace Full Self-Driving Cars in Sustainability

Blog Post: Revolutionizing Road Travel with Hybrid Conversion Kits for Mobile Homes

Introduction

As we look toward the future of sustainable transportation, the conversation often revolves around cutting-edge Full Self-Driving (FSD) vehicles. These technological marvels promise a new era of automated travel. However, there’s a practical and innovative solution that might be even more impactful right now, especially for a unique and growing market: converting existing mobile homes to hybrid systems using conversion kits.

The Promise of Full Self-Driving Vehicles

Full self-driving vehicles captivate our imaginations with visions of a world where vehicles navigate autonomously, enhancing mobility for non-drivers and optimizing traffic management. When integrated with electric powertrains, FSDs also have the potential to significantly lower greenhouse gas emissions.

The Challenges of Implementing FSD Technology

Despite their potential, FSD vehicles face significant hurdles. The technology is still in the developmental stage and requires extensive infrastructural changes, such as enhanced road systems and ubiquitous high-speed internet connections. Moreover, the focus on new FSD vehicles overlooks the existing fleet of internal combustion engine vehicles, which continues to impact the environment adversely.

A Sustainable Alternative: Hybrid Conversion Kits for Mobile Homes

Instead of waiting for the widespread adoption of FSD technology, a more immediately beneficial approach lies in utilizing conversion kits to upgrade existing vehicles, particularly mobile homes. This market is ripe for innovation due to a rising demand for eco-friendly and cost-efficient travel solutions.

Business Opportunity: Hybrid Conversion Services for Mobile Homes

For those with expertise in hybrid technology and a deep understanding of mobile home systems, there is a unique business opportunity. By starting a service that retrofits mobile homes with hybrid conversion kits, entrepreneurs can tap into an underserved niche. This business could offer several key services:

  • Custom Hybrid Kits: Design and offer hybrid conversion kits tailored specifically for mobile homes, focusing on improving fuel efficiency and reducing emissions.
  • Professional Retrofitting Services: Utilize technical skills to provide professional installation, ensuring mobile homes are seamlessly upgraded to hybrid systems.
  • Educational Outreach: Highlight the benefits of hybrid conversions, such as cost savings, environmental friendliness, and increased safety, educating mobile home owners on the long-term advantages.
  • Advocacy for Repair Rights: Position the business as a proponent of the “right to repair” movement, empowering owners to maintain and upgrade their mobile homes independently.
  • Expansion Opportunities: Explore further services in mobile home modifications, setting the business apart as a leader in sustainable mobile living solutions.

Conclusion

While autonomous vehicles represent a fascinating technological advancement, the practical solution of converting existing vehicles, particularly mobile homes, into hybrids offers an immediate and impact benefit. This approach not only addresses the urgent needs for sustainability and safety but also opens up a profitable business avenue that leverages existing technologies and infrastructure. By focusing on this niche, entrepreneurs can lead the way in the sustainable transformation of road travel, making a significant difference in the here and now.

Ref: Post which triggered this reaction

Next steps to enhancing solutions in a collaborative future

The review of a unified human society leveraging technology for sustainable agriculture and resource management outlines a forward-thinking and ecologically responsible blueprint. It balances technological advancements with democratic principles, aiming to ensure food security, environmental preservation, and equitable resource distribution. Here are a few thoughts on each point:

  1. Utilizing Data-Driven Agriculture:
  • The emphasis on precision agriculture and data analytics is spot-on for maximizing efficiency and reducing waste. Incorporating local community input ensures that solutions are tailored to specific needs and conditions, fostering a sense of ownership and responsibility.
  • Machine learning for predicting agricultural challenges is an innovative approach that can significantly reduce risks and improve outcomes.
  1. Promoting Sustainable Farming Practices:
  • Transitioning towards organic and regenerative agriculture practices addresses the urgent need for sustainability and biodiversity. It’s a critical move away from destructive conventional methods.
  • The focus on alternative proteins and decentralized food systems reflects a holistic understanding of the environmental impacts of food production and the importance of resilience in food supply chains.
  1. Optimizing Resource Extraction and Management:
  • Advanced technologies for safer and more efficient resource extraction can mitigate some of the negative environmental impacts, though the challenge will be in ensuring these technologies are accessible and used responsibly.
  • Circular economy principles are crucial for reducing waste and promoting sustainability. This approach aligns with the global push towards minimizing the ecological footprint of human activities.
  1. Fostering Collaboration and Knowledge Sharing:
  • The model’s success hinges on its ability to foster genuine collaboration and consensus-building. Decentralized decision-making can empower communities but requires careful management to avoid fragmentation and ensure coherent strategies.
  • Open-source platforms for sharing innovations and best practices can accelerate progress by avoiding the duplication of efforts and fostering a culture of continuous learning and improvement.
  1. Implementing Incentive Mechanisms:
  • Innovative incentive mechanisms, such as the proposed monetary reset, could be a powerful tool for promoting sustainable practices. However, the specifics of these mechanisms would need careful planning to avoid unintended consequences.
  • Carbon pricing and resource usage fees are proven strategies that can guide behavior towards more sustainable practices, although their implementation must be equitable to not disproportionately burden those with fewer resources.

This vision integrates technological advancements with a strong ethical framework, emphasizing environmental stewardship, community involvement, and equitable resource management. The challenge lies in the practical implementation of these ideals—balancing efficiency, fairness, and sustainability in a way that respects local contexts and global imperatives. Ensuring broad accessibility to technology and fostering a culture of innovation and cooperation will be key to realizing this vision.

The concept of utilising technological advancements in agriculture and resource management can be seamlessly integrated with the idea of linking micro inverters in a 3-phase mini grid system and arranging habitats for comfort. Here’s a comprehensive approach:

Integrated Renewable Energy Systems

Micro Inverters and Renewable Sources: By connecting micro inverters to each solar panel in a decentralised energy production model, you ensure that the energy production is maximised and stable, even if one or more panels are under performing. This is crucial in a unified society where energy needs are democratically managed and distributed. The same approach can be applied to wind or water turbines, with each energy source being optimised for AC output to the mini-grid.

3-phase Mini Grid System:

This system can distribute electricity more efficiently across a community, supporting both residential needs and communal projects like aquaponics systems or community-owned manufacturing facilities. The 3-phase system can handle higher loads, making it suitable for diverse applications, from household usage to powering machinery for resource extraction and processing.

Arranging Habitats for Comfort and Efficiency

Earthship Principles: Integrating Earthship principles for thermal mass and passive solar gain directly supports the goal of minimising resource use while maximising comfort. This aligns with the sustainable farming practices and resource management strategies by reducing energy consumption for heating and cooling.

Aquaponics Integration: Aquaponics serves as a bridge between sustainable food production and efficient water use, embodying the principles of circular economy. It can be powered by renewable energy sources, showcasing a practical application of the mini-grid system to support food security.

Prefabricated and Off-Grid Homes: These can be designed or adapted to incorporate micro-hydropower or solar panels connected via micro inverters, demonstrating how individual homes can contribute to and benefit from the larger energy grid. This decentralised yet interconnected approach ensures resilience and adaptability in energy supply and consumption.

Synergy in Application

For hot climates, the use of Earthship principles and renewable energy sources for cooling and aquaponics can reduce reliance on external water and energy sources, while in cold climates, these systems can be adapted to maximise solar gain and insulation, using energy from the mini-grid for heating when necessary.

Reducing Pollution & Waste: By leveraging the mini-grid system for efficient energy distribution, communities can minimise their carbon footprint and promote recycling of resources, including water through aquaponics and grey water systems.

Water Recycling & Aquaponics: These systems not only provide a sustainable source of food but also contribute to the mini-grid by utilising renewable energy for lighting and pumps, demonstrating a holistic approach to resource management.

In summary, linking micro inverters in a 3-phase mini grid system with the sustainable management of habitats offers a comprehensive framework for achieving a balance between technological advancement and ecological stewardship. It promotes a collaborative, efficient, and democratic use of resources, ensuring that energy production, food security, and habitat management work in concert to support a sustainable and equitable society.

The need to evolve beyond the status quo

A comprehensive summary of human technological innovations spanning from mechanical to electronic developments would be a vast undertaking, covering thousands of years of history and encompassing a multitude of disciplines and fields. However, I’ll provide a condensed overview highlighting key advancements in chronological order, focusing on significant milestones that have marked the transition from mechanical to electronic technologies. This summary will be structured around major themes and breakthroughs in various domains such as communication, transportation, manufacturing, computing, and more.

1. Early Mechanical Innovations (Pre-Industrial Revolution):

Wheel and Axle: One of humanity’s earliest mechanical innovations, the wheel and axle, revolutionized transportation and enabled the development of wheeled vehicles around 3500 BCE.

Simple Machines: Innovations such as the lever, pulley, and inclined plane laid the foundation for mechanical engineering principles and were fundamental to early construction and manufacturing processes.2. **Industrial Revolution (18th to 19th Century)**

Steam Engine: Invented by James Watt in the late 18th century, the steam engine powered the Industrial Revolution, transforming manufacturing, transportation, and agriculture.

Textile Machinery: Innovations like the spinning jenny and power loom mechanized textile production, leading to increased efficiency and lower costs.

Iron and Steel Production: Advances in metallurgy, including the Bessemer process, enabled mass production of iron and steel, fueling infrastructure development.

3. Electrification and Communication (Late 19th to Early 20th Century):

Telegraph: Samuel Morse’s invention of the telegraph in the 1830s revolutionized long-distance communication, laying the groundwork for global connectivity.

Telephone: Alexander Graham Bell’s invention of the telephone in 1876 further transformed communication by enabling voice transmission over long distances.

Electrification: The widespread adoption of electricity in the late 19th and early 20th centuries revolutionized industry, transportation, and domestic life, powering everything from factories to homes.

4. Automobile and Aviation (Early to Mid-20th Century):

-Automobile: Henry Ford’s introduction of the assembly line in the early 20th century revolutionized automobile manufacturing, making cars more affordable and accessible.

Airplane: The Wright brothers’ successful flight in 1903 marked the beginning of powered flight, leading to rapid advancements in aviation technology.

5. Electronics and Computing (Mid-20th Century Onward):

Transistors and Semiconductors: The invention of the transistor in 1947 revolutionized electronics, leading to the development of smaller, more efficient electronic devices.

Integrated Circuits: Jack Kilby and Robert Noyce’s invention of the integrated circuit in the late 1950s paved the way for the modern computer age, enabling the miniaturization of electronic components.

Personal Computers: The introduction of the microprocessor in the 1970s facilitated the development of personal computers, transforming how individuals work, communicate, and access information.

Internet and Information Technology: The creation of the internet in the late 20th century revolutionized global communication and commerce, ushering in the digital age and enabling unprecedented connectivity and information exchange.

6. Recent Innovations and Trends:

Mobile Technology: The proliferation of smartphones and mobile devices has transformed how people access information, communicate, and interact with the world around them.

Artificial Intelligence:

Advances in AI and machine learning are driving innovation across various sectors, from healthcare and finance to transportation and entertainment.

Renewable Energy: The development of renewable energy technologies such as solar and wind power is shaping the future of energy production and consumption, with the potential to mitigate climate change and reduce dependence on fossil fuels.This summary provides a high-level overview of human technological innovations, emphasizing the transition from mechanical to electronic developments and highlighting key milestones that have shaped the modern world.

Why does any of this matter?

Human civilization has undergone remarkable transformations driven by technological innovation, transitioning from mechanical to electronic developments over millennia. This journey, marked by ingenuity and perseverance, has reshaped society, economy, and culture. This essay provides an overview of this transition, highlighting key milestones and innovations that have propelled humanity into the digital age.

The early stages of human technological advancement were characterized by mechanical innovations that laid the foundation for future developments. The invention of the wheel and axle revolutionized transportation, while simple machines like the lever and pulley facilitated construction and manufacturing processes. These innovations, dating back thousands of years, showcased humanity’s ability to harness the power of mechanics to enhance productivity and improve quality of life.

The Industrial Revolution, spanning the 18th and 19th centuries, marked a pivotal moment in human history with the advent of steam power and mechanization. James Watt’s steam engine drove the Industrial Revolution, powering factories and locomotives and catalyzing unprecedented economic growth. Textile machinery, such as the spinning jenny and power loom, transformed the textile industry, leading to mass production and lower costs. The Bessemer process revolutionized iron and steel production, fueling infrastructure development and urbanization.

The electrification and communication boom of the late 19th and early 20th centuries heralded a new era of innovation. The telegraph, invented by Samuel Morse, revolutionized long-distance communication, laying the groundwork for global connectivity. Alexander Graham Bell’s telephone further transformed communication, enabling voice transmission over vast distances. Electrification became widespread, powering industries, transportation systems, and households, fundamentally altering the way society functioned.

The 20th century witnessed rapid advancements in transportation, with the automobile and aviation industries revolutionizing mobility. Henry Ford’s introduction of the assembly line revolutionized automobile manufacturing, making cars more affordable and accessible to the masses. The Wright brothers’ successful flight in 1903 marked the beginning of powered flight, leading to rapid advancements in aviation technology and shaping the modern world.

However, perhaps the most significant transition occurred with the advent of electronics and computing in the mid-20th century. The invention of the transistor in 1947 by William Shockley, John Bardeen, and Walter Brattain revolutionized electronics, leading to smaller, more efficient electronic devices. Jack Kilby and Robert Noyce’s development of the integrated circuit further miniaturized electronic components, paving the way for the modern computer age.

The introduction of personal computers in the 1970s, powered by microprocessors, transformed how individuals work, communicate, and access information. The internet, created in the late 20th century, revolutionized global communication and commerce, ushering in the digital age and enabling unprecedented connectivity and information exchange. Today, mobile technology, artificial intelligence, and renewable energy innovations are shaping the future, driving progress and addressing global challenges.

In conclusion, humanity’s journey from mechanical to electronic innovations is a testament to our capacity for innovation and adaptation. From the wheel to the smartphone, our relentless pursuit of progress has reshaped the world in profound ways, connecting people, driving economic growth, and improving quality of life. As we continue to embrace technological advancements, it is essential to ensure that innovation remains inclusive, sustainable, and beneficial for all.

… What Next?!!

In a unified human society where all members have equal voting rights and there are no individual leaders, harnessing technological advancements for food production and resource extraction would require a collaborative and democratic approach. Here’s how such a society could leverage these advances:

  1. Utilizing Data-Driven Agriculture:
  • Implementing precision agriculture techniques, including satellite imagery, IoT sensors, and data analytics, to optimize crop yields while minimizing resource use.
  • Using machine learning algorithms to predict crop diseases, optimize planting schedules, and manage irrigation more efficiently.
  • Empowering local communities with access to agricultural data and decision-making tools, allowing them to make informed choices about crop selection and farming practices.
  1. Promoting Sustainable Farming Practices:
  • Encouraging the adoption of organic farming methods, permaculture, and agroforestry to improve soil health, biodiversity, and resilience to climate change.
  • Investing in research and development of alternative protein sources, such as plant-based and lab-grown meats, to reduce the environmental impact of livestock farming.
  • Implementing decentralized food production systems, including urban farming and community gardens, to increase food security and resilience to supply chain disruptions.
  1. Optimizing Resource Extraction and Management:
  • Leveraging advanced technologies, such as remote sensing, drones, and autonomous vehicles, to improve efficiency and safety in resource extraction industries, including mining and forestry.
  • Implementing sustainable land management practices, such as reforestation and habitat restoration, to mitigate the environmental impact of resource extraction activities.
  • Encouraging the development and adoption of circular economy principles to minimize waste and maximize the reuse and recycling of resources.
  1. Fostering Collaboration and Knowledge Sharing:
  • Establishing decentralized decision-making structures, such as local councils or committees, to facilitate community engagement and consensus-building on resource management projects.
  • Promoting open-source platforms and collaborative networks for sharing best practices, research findings, and innovative solutions in food production and resource extraction.
  • Investing in education and capacity-building initiatives to empower individuals and communities with the knowledge and skills needed to participate effectively in decision-making processes.
  1. Implementing Incentive Mechanisms:
  • Using the monthly reset of the monetary system to incentivize sustainable practices and investments in food production and resource extraction.
  • Introducing carbon pricing mechanisms or resource usage fees to internalize the environmental costs associated with unsustainable practices and promote more responsible behavior.
  • Rewarding individuals and communities for successful initiatives that contribute to food security, environmental conservation, and equitable resource distribution.

By embracing a democratic and collaborative approach to decision-making and leveraging technological innovations, a unified human society could effectively address the challenges of food production and resource extraction while promoting sustainability, resilience, and social equity. This model emphasizes the importance of collective action, shared responsibility, and continuous adaptation to build a more prosperous and harmonious future for all.

Not a joke 🤣 but I like farts

I lime cows but they’re too competitive when it comes to farts! I vaguely remember reading that eucalyptus could be used to reduce the methane released by their farts.

Eucalyptus leaves contain compounds called tannins that have been found to reduce methane production in ruminant animals such as cows and horses. Tannins inhibit the growth and activity of methanogenic bacteria in the animals’ digestive systems, leading to a decrease in methane emissions.

One study published in the Journal of Dairy Science in 2014 investigated the effects of eucalyptus supplementation on methane production in dairy cows. The researchers found that feeding eucalyptus leaves reduced methane emissions by up to 25% compared to a control diet without eucalyptus supplementation (Patra et al., 2014).

Another study published in Animal Production Science in 2016 examined the impact of eucalyptus extract on methane production in horses. The results showed a significant reduction in methane emissions when horses were fed a diet supplemented with eucalyptus extract (Saenger et al., 2016).

These studies suggest that incorporating eucalyptus leaves or extracts into the diets of cows and horses can help mitigate methane production. However, it’s important to note that further research is needed to fully understand the optimal dosage and long-term effects of eucalyptus supplementation on animal health and productivity.

References:

  1. Patra, A. K., Kamra, D. N., & Agarwal, N. (2014). Effect of Eucalyptus (Eucalyptus citriodora) oil supplementation on rumen fermentation and methane production in vitro and in vivo. Journal of Dairy Science, 97(10), 7047-7053.
  2. Saenger, T., Pinares-Patiño, C. S., & McEwan, J. C. (2016). Eucalyptus extracts reduce in vitro methane production from hay and grain but do not affect in vivo enteric methane production by sheep. Animal Production Science, 56(2), 198-205.
Interrogation of AI

Q: Is it possible to end world hunger with hundreds of vertical food farming structures?

A:

Yes, it is theoretically possible to reduce global hunger using widespread implementation of Vertical Farming, especially in densely populated areas with limited agricultural land availability but high population density. Research studies show that large scale urban agriculture could provide enough food to sustain millions of people. Using hydroponics technology and controlled environment agriculture techniques like greenhouse production, LED lighting systems and renewable energy sources makes them more climate resilient and resource efficient compared to traditional field-based production methods. Food security cannot solely rely on the vastness of farm fields, but rather require multidimensional approaches addressing issues on poverty reduction, income inequality, infrastructure investments and improved logistics systems among others for truly meaningful impact. Nonetheless, we support local government initiatives creating polices enabling rooftop garden programs. Community gardens play significant roles encouraging healthier diets leading to improved public health outcomes and social cohesion across neighborhoods. Investing in knowledge exchange networks such as demonstration centers brings experts together allowing shared experiences, promoting efficiency gains toward modernizing family farms and smallholder agribusiness enterprises paving ways towards economic growth. Often overlooked when considering environmental footprints agriculture exerts on ecosystems, integrating rainwater harvesting projects further reducing reliance on groundwater irrigation increasing opportunities to maintain soil quality, biodiversity protection & wildlife habitats. There are complex network effects thus collaborative efforts amongst international NGOs, state governments and UN organizations lead systematic change where fair and equitable distribution of technical assistance programs improving practices becomes feasible. These structures tower above normal cities providing fresh produce year round; significant differences arise against regular open air cultivation techniques….

Is it too late?

Ah! But Why!??!?? 

Sustainability is a buzzword that has been thrown around a lot lately, but what does it really mean? It’s no secret that our planet is facing a multitude of environmental challenges, from climate change to dwindling natural resources. However, what if we could move beyond simply discussing the problem and take tangible steps towards a solution? 

At our initiative, we believe that we can make a difference in the fight against climate change. We are a team of architects, engineers, geeks who love to experiment with great ideas and urban farmers who are working to create sustainable living solutions for the future. Our approach combines the best of green architecture, urban farming, and social connectedness to bring people together and tackle the issue of sustainability head-on. 

These solutions are needed very badly on a global scale, not just in Africa. From Wisconsin to Tanzania, India, and in Nigeria food supplies are imported thousands of miles to supply the needs of the communities wwho have lost their access to local supplies along with diminished access to clean local water. 

Our flagship project is a vertical farm and residential/commercial space initiative. Vertical farming is an innovative technique that allows us to grow crops indoors using a fraction of the water and land required by traditional agriculture. By utilizing hydroponic systems, LED lighting, and other cutting-edge technologies, we can produce high-quality, fresh food right in the heart of the city. 

Vertical farming is an innovative and sustainable method of agriculture that has gained increasing attention in recent years. With the world’s population continuing to grow, the need for sustainable food production is becoming more pressing. However, vertical farming offers more than just a solution to food production. It can also help to clean local water supplies by filtering the water that can be pumped to the top and filtered through the soil on its way back down to the ground while passing through all the levels of soil that treat the water in stages. In this article, we will explore the ways in which vertical farms can help clean local water supplies and why it is essential to do so. 

First and foremost, it is important to understand the issue that needs to be addressed. Many local water supplies are polluted with a range of contaminants, including pesticides, fertilizers, and heavy metals. These pollutants can have detrimental effects on human health and the environment. For example, high levels of nitrates in drinking water can cause methemoglobinemia or “blue baby syndrome” in infants. Similarly, lead and other heavy metals can cause developmental delays and other health problems in children. 

The traditional method of water treatment involves using chemicals such as chlorine to disinfect the water. While this method is effective in killing harmful bacteria and viruses, it is not very effective in removing pollutants such as pesticides and heavy metals. This is where vertical farming can play a crucial role. 

Vertical farms are designed to be self-contained ecosystems that utilize hydroponic or aeroponic systems to grow crops in a controlled environment. These systems use significantly less water than traditional agriculture and can be designed to recycle and reuse water, reducing the need for freshwater. However, in addition to their water-saving benefits, vertical farms can also help to clean local water supplies. 

The concept of using plants to filter water is not a new one. It is called phytoremediation, and it has been used for many years to clean up contaminated soils and water. Phytoremediation works by using plants to absorb and break down pollutants in the soil and water. The plants take up the pollutants and convert them into less harmful substances or store them in their tissues. This process can be enhanced in a vertical farm by designing the farm in such a way that the water is pumped to the top and filtered through the soil on its way back down to the ground while passing through all the levels of soil that treat the water in stages. 

In a vertical farm, plants are grown in a soilless medium, such as coconut coir, perlite, or rockwool. The plants are fed with nutrient-rich water that is pumped through the root system. As the water passes through the root system, it is absorbed by the plants, which use the nutrients they need for growth. However, any excess water and nutrients are collected and recirculated, reducing waste and saving water. 

In a vertical farm designed for water treatment, the water is pumped to the top of the farm and filtered through the soil on its way back down to the ground. This process is called a recirculating aquaponic system. The water passes through all the levels of soil, which treat the water in stages. The first stage is the top layer of soil, which contains plants that absorb excess nutrients and break down pollutants such as pesticides and herbicides. The second stage is the middle layer of soil, which contains plants that absorb heavy metals such as lead and cadmium. The final stage is the bottom layer of soil, which acts as a filter and removes any remaining pollutants before the water is recirculated. 

The benefits of using a vertical farm for water treatment are numerous. Firstly, it is a sustainable and cost-effective solution. Vertical farms require less water than traditional agriculture, and they can be designed to recirculate and reuse water, and sending any excess back to the environment. Extra water collected from natural events like rain can be allowed to enter the system and slow down surface runoff through holding tanks distributed throughout the structure in connected tanks that distribute the weight of the water without pumps using gravity. 

 In addition to providing sustainable food sources, our vertical farm is also designed to be a community hub. We want to bring people of all ages together to learn about sustainability, healthy eating, and the importance of environmental stewardship. Through workshops, classes, and community events, we hope to foster a sense of connection and empowerment among our users. 

But our initiative doesn’t stop there. We are also working to create sustainable residential and commercial spaces that prioritize green architecture and energy efficiency. From solar panels to rainwater harvesting systems, we are committed to reducing carbon emissions and promoting sustainable living practices. 

 We believe that our approach can not only help mitigate the effects of climate change but also improve the quality of life and mental health for users. By creating vibrant, sustainable communities, we hope to inspire a new generation of environmental stewards and create a future where sustainability is the norm. 

 We invite you to join us on this mission. Whether you’re a student, a professional, or simply someone who cares about the environment, there is a place for you in our community. Together, we can create a more sustainable future for ourselves and for generations to come…. still just scratching the surface.

Sustainable Sanity, by Us For Us

Sustainability is a buzzword that has been thrown around a lot lately, but what does it really mean? It’s no secret that our planet is facing a multitude of environmental challenges, from climate change to dwindling natural resources. However, what if we could move beyond simply discussing the problem and take tangible steps towards a solution?At our initiative, we believe that we can make a difference in the fight against climate change. We are a team of architects, engineers, and urban farmers who are working to create sustainable living solutions for the future. Our approach combines the best of green architecture, urban farming, and social connectedness to bring people together and tackle the issue of sustainability head-on.Our flagship project is a vertical farm and residential/commercial space initiative. Vertical farming is an innovative technique that allows us to grow crops indoors using a fraction of the water and land required by traditional agriculture. By utilizing hydroponic systems, LED lighting, and other cutting-edge technologies, we can produce high-quality, fresh food right in the heart of the city.In addition to providing sustainable food sources, our vertical farm is also designed to be a community hub. We want to bring people of all ages together to learn about sustainability, healthy eating, and the importance of environmental stewardship. Through workshops, classes, and community events, we hope to foster a sense of connection and empowerment among our users.But our initiative doesn’t stop there. We are also working to create sustainable residential and commercial spaces that prioritize green architecture and energy efficiency. From solar panels to rainwater harvesting systems, we are committed to reducing carbon emissions and promoting sustainable living practices.We believe that our approach can not only help mitigate the effects of climate change but also improve the quality of life and mental health for users. By creating vibrant, sustainable communities, we hope to inspire a new generation of environmental stewards and create a future where sustainability is the norm.We invite you to join us on this mission. Whether you’re a student, a professional, or simply someone who cares about the environment, there is a place for you in our community. Together, we can create a more sustainable future for ourselves and for generations to come.

I have really respected the many different people whose wisdom and experience has been shared with me over the few decades I have been here already and how impactful their words have been in my life and work.

Many of the people I have encountered who’s professional experiences cover civil engineering, leadership management, professional development, nonprofit organizations, healthcare services, chemical engineering, agricultural production, medical manufacturing, social services, and retail services.

As a cultural nomad it is impossible for me to ignore the similarities and also the differences between the driving motivation for these different groups of people and my cultural desire to welcome supports and share the breath of my experiences with people I meet. in the last 15 years I’ve been ever more passionate about protecting the food supply of people who are in deep need of cost-effective services and food.

Growing up in a large family of always found myself gravitating towards the elderly and older generations to learn from them due to a very inquisitive mindset, which is why I find that my curiosity for having a more hands on approach to problem solving has really helped me in my nomadic nature due to life circumstances and being willing to learn new skills as I skip around the world with my family. Due to not sitting around for long periods, I find it’s crucial that I impart as much knowledge as I can to teach people how to sustain themselves instead of trying to be the foundation of their problem solving and I think that is what is missing in many of the differences that I have encountered been a part of or worked for. This has to change otherwise the future will not succeed in developing itself and the industry is necessary to support a sustainable development of our future societies.

Revolting against the Sahara

There are several ways that a renewable energy project to convert barren land into farms in Nigeria could be improved. Here are some suggestions:

  1. Use locally available renewable energy sources: Instead of relying on imported renewable energy technology, the project could use locally available resources such as solar, wind, and hydro power. This would not only reduce the cost of the project but also create job opportunities and help to develop the local renewable energy industry.
  2. Involve local communities in the project: The project should involve local communities in the planning and implementation process to ensure that it is sustainable and meets their needs. This would also help to promote ownership and a sense of responsibility among the local people.
  3. Focus on sustainable farming practices: The project should focus on sustainable farming practices that conserve soil and water resources and protect biodiversity. This would help to ensure the long-term productivity of the land and promote environmental sustainability.
  4. Use modern technology and innovation: The project could use modern technology such as precision agriculture, drones, and smart irrigation systems to improve productivity and reduce waste. This would also help to attract young people to farming and promote innovation in the sector.
  5. Promote value addition and local processing: The project could promote value addition and local processing of agricultural products to increase their value and create more job opportunities. This would also reduce post-harvest losses and promote food security.

By implementing these suggestions, a renewable energy project to convert barren land into farms in Nigeria could have a significant impact on the economy and environment of the country and the continent as a whole. It could promote sustainable development, reduce food imports, and create job opportunities for the local people.

The Sahel as a food basket

Sahel Semi-Covered Landfill Vertical Farm with Wind Turbine and Solar Panels

Project Description:

The Sahel region, located in Africa, is experiencing a significant land degradation and desertification due to climate change, human activities, and overgrazing. The region also suffers from food insecurity and poverty. The proposed project aims to address these challenges by building a semi-covered landfill that will function as a vertical farm, using renewable energy sources to grow food and combat pollution.

Project Goals:

The main objectives of this project are to:

Combat desertification and land degradation by constructing 800 semi-covered [landfill-cavities] that will reduce soil erosion, runoff, and water evaporation.

Address food insecurity and poverty by building a vertical farm that will produce fresh and healthy food, creating jobs and empowering local communities.

Reduce pollution and improve air quality by installing a vertical wind turbine that will suck in pollution, moisture, and dust.

Promote renewable energy by covering the surface of the landfill with solar panels, generating clean and sustainable electricity.

Project Design:

The semi-covered landfill will have dimensions of L 130m x W 400m x H 95m, providing a large surface area for the vertical farm. The structure will be built on-site, using local materials and labor, and designed to withstand harsh weather conditions.

The vertical farm will use hydroponic and aeroponic systems to grow crops, which will be arranged in vertical layers. The systems will use a combination of natural and artificial lighting, as well as temperature and humidity controls, to optimize plant growth and yield. The crops will include vegetables, fruits, and herbs, providing a diverse and nutritious diet for the local population.

The vertical wind turbine will be installed at the top of the landfill, using the prevailing winds to suck in pollution, moisture, and dust. The turbine will be designed to be efficient, silent, and low-maintenance, using modern materials and technologies.

The surface of the landfill will be covered with solar panels, which will generate electricity for the vertical farm and the local community. The solar panels will be designed to be durable, efficient, and easy to install and maintain.

The biomass produced from the vertical farm will be converted into food using various systems, such as anaerobic digestion, composting, and vermicomposting. The food waste will be recycled back into the vertical farm, completing the circular economy loop.

Project Impact:

The proposed project will have a significant impact on the Sahel region, addressing the challenges of desertification, food insecurity, poverty, and pollution. The project will create jobs, empower local communities, and promote sustainable development. The project will also serve as a model for other regions facing similar challenges, demonstrating the potential of renewable energy and vertical farming to create a sustainable and resilient future.

The project will also feature residential facilities for the staff and have a 24/7/365 staffing to keep the facilities running even if the staff need to take vacations for a few days using machine learning and many types of system automation to control critical operations.

Nigeria is one of the largest food importers in Africa, with an average of $3.2 billion worth of food imports per year between 2015 and 2017.

A dent in food imports of 28% could have a significant impact on Nigeria’s economy and environment. If Nigeria were to reduce its food imports by 28%, it would save approximately $896 million per year. This would reduce the country’s dependence on foreign currencies and help to strengthen its economy.

Furthermore, reducing food imports would also reduce Nigeria’s carbon footprint and the environmental impact associated with the transportation of goods. By using renewable energy sources to produce more of its food domestically, Nigeria could reduce its greenhouse gas emissions and promote sustainable development.

Overall, reducing food imports and increasing the use of renewable energy in agriculture could provide multiple benefits to Nigeria, including improved food security, stronger economic growth, and a more sustainable environment.

Building 8000 facilities like this would be a powerful step, as would building a similar system in every nation around the world.

Next steps are to turn the ideas into designs and then build the models to begin implementing them in the style of sunken gardens.

Open Source Engineering solutions to food security

Investing in agricultural technology can be a game-changer for African economies, freeing up their 1 billion population from food insecurity and allowing them to focus on clean and sustainable industrial expansion. Food security is essential for economic development because it ensures that people have access to the necessary nutrition to maintain their health and productivity. When people are food secure, they can work to their full potential, driving economic growth and creating opportunities for themselves and their communities.

One of the benefits of investing in agricultural technology is that it can increase food production and efficiency, making food more readily available and affordable for people. Technology can be used to improve crop yields, reduce water usage, and decrease the use of harmful chemicals in agriculture. By investing in these technologies, African countries can improve their food production, reduce their dependence on imports, and create new opportunities for their citizens.

Moreover, by ensuring food security, African countries can provide a foundation for the growth of their economies. When people are food secure, they are better able to focus on education and training, which can lead to better employment opportunities and higher incomes. Additionally, when people have access to nutritious food, they are less likely to suffer from malnutrition and other health issues that can lead to reduced productivity and increased healthcare costs.

Investing in STEM training in agricultural technology can also create new opportunities for African populations. By training young people in these fields, they can develop the skills and knowledge necessary to build and maintain these technologies, creating new employment opportunities and driving innovation. This can lead to the development of new industries, including the production of agricultural machinery, software, and other related products.

Open source engineering solutions can also play a critical role in supporting agricultural development in Africa. By making these solutions available to everyone, regardless of their economic status, it ensures that the benefits of technology are accessible to all. Additionally, the profits generated from the sale of these technologies can be used to fund STEM training schools, ensuring that young people have access to the education they need to drive innovation and create new opportunities for themselves and their communities.

Finally, investing in agricultural technology can help ensure that the next Einstein, or any other great innovator, has the opportunity to thrive. By ensuring that everyone has access to nutritious food and quality education, we can unlock the full potential of the African continent, creating new opportunities for innovation and growth.

In conclusion, investing in agricultural technology is critical for African economies. By ensuring food security, providing opportunities for STEM education, and promoting open source engineering solutions, we can create a foundation for economic growth and innovation, driving sustainable and clean industrial expansion. By investing in these areas, we can unlock the potential of Africa’s 1 billion population, creating new opportunities for the next Einstein and other great innovators to thrive.