indoor farming Archives - Hydroponic Container Farms and Mushroom Farms

What ‘Supporting Local Farms’ Really Means

We often hear the phrase “Support your local farmers.” But what does that really mean?

Well, it contributes to the economic vitality of local communities in a major way. When consumers choose locally produced goods, they help sustain crucial local farming operations, preserving agricultural land and maintaining rural (and urban) livelihoods. In turn, this fosters a stronger economy by generating employment opportunities and encouraging entrepreneurship within the community.

Supporting local farms also promotes environmental sustainability. Locally sourced produce often requires less transportation, reducing the carbon footprint associated with long-distance shipping. This can lead to lower greenhouse gas emissions, contributing to a more eco-friendly and sustainable food system. Many local farms prioritize sustainable farming practices, promoting biodiversity and soil health, too. These elements of the operations can’t be overstated.

Buying from local farms often means fresher and more flavorful products as well. Locally grown produce is typically harvested at peak ripeness, offering consumers higher nutritional value and better taste. This connection to fresh, seasonal ingredients can also foster a greater appreciation for the diversity of crops and promote a healthier diet, while ensuring that people have a longer period of time to eat the food before it goes to waste.

Supporting local farms plays a role in maintaining food security. By diversifying the sources of food production and distribution, local communities become less vulnerable to disruptions in global supply chains, like what we saw during the COVID-19 pandemic. This localized approach helps build resilience against external factors that could impact food availability and affordability.

In a social context, backing local farms fosters a sense of community. Farmers markets and direct-to-consumer sales allow for direct interactions between producers and consumers, creating a stronger bond and understanding of where food comes from. This connection promotes a shared commitment to sustaining local agriculture and can strengthen community ties.

In short, supporting local farms goes beyond the act of buying food; it’s a holistic investment in the economic, environmental and social well-being of communities. Choosing locally sourced products empowers local farmers, promotes sustainability, enhances the quality of food and contributes to the resilience and cohesion of communities. What more can you ask for?

How to Meet Food Demand for a Growing Global Population

Meeting global food needs in the coming years is going to require some ingenuity, marrying a combination of strategic changes and innovations across various aspects of the food system.

As you might have guessed, sustainable agriculture practices are at the forefront of what FarmBox Foods is doing as a company to help move that needle. It’s part of the company’s mission to promote and adopt sustainable farming practices, such as hyperlocal growing, conservation agriculture, and concepts that help minimize environmental impact and enhance long-term soil fertility. FarmBox is well aware that it’s not the entire solution, but we endeavor to play our part to the extent possible.

There are several things happening outside of our purview that we wholly support, among them: embracing precision agriculture technologies including sensors, drones and data analytics. But where we’re strongest is: optimizing resource use, improving crop yields, diversifying available foods, reducing food waste, and lowering the carbon footprint associated with agriculture.

Perhaps the company’s strongest contribution is in helping to shore up the protein needs of communities in need. Conditions are such that raising livestock has become a gamble in some areas of the world, particularly where drought plays a large role. So what can be done? Large-scale mushroom farming in a container is filling those nourishment gaps.

Much work is being done to invest in crucial research and development of climate-resilient crop varieties that can withstand extreme weather conditions, helping ensure stable yields in the face of climate change.

Many nations are also implementing efficient water management practices, including drip irrigation and rainwater harvesting, to conserve water resources and address water scarcity challenges.

Developing and implementing strategies to reduce food loss and waste at every stage of the food supply chain, from production and storage to distribution and consumption, is also a key area of interest for FarmBox Foods, given that our model is meant to empower individual communities with the ability to grow their own food.

Governments worldwide are fostering international collaboration and partnerships to share knowledge, technologies, and resources to address global food challenges collectively. They’re implementing policies that promote sustainable agriculture, support research and innovation, and incentivize environmentally friendly practices. Likewise, more private sector entities are increasing education and awareness regarding sustainable and healthy food choices and promoting consumer understanding of the impact of their dietary habits on both personal health and the environment.

According to the U.N.’s Food and Agriculture Organization, we will need to produce 60 percent more food to feed a world population of roughly 9.3 billion by 2050. It’s an ambitious goal with staggering consequences if we get it wrong. Addressing global food needs requires a holistic, integrated and coordinated approach that considers social, economic and environmental factors. Sustainable and resilient food systems will play a crucial role in ensuring food security for our growing global population. Now is the time for each individual and company to calculate where and how they can contribute.

The Long-Term Impacts of Indoor Agriculture

Container farming, a version of indoor farming also known as vertical farming, involves growing crops in controlled environments within shipping containers or other enclosed spaces. The advent of this technology, which relies on sensors to control the growing parameters, holds a lot of promise, especially as climate shifts continue to farmers and ranchers in traditional settings. While it’s difficult to predict the future with absolute certainty, it’s now possible identify several potential long-term impacts of container farming.

Sustainable agriculture: Container farming offers a more sustainable and efficient way to grow crops compared to traditional outdoor agriculture. By using less land, water, and pesticides, it can help reduce the environmental impact of agriculture. This could lead to a decrease in deforestation, habitat destruction and the use of harmful chemicals that end up in our food and drinking supply.

Local Food Production: Container farming allows for year-round production of fresh produce, regardless of the local climate. This can reduce the need for long-distance transportation of food and promote local food systems. It may also help address food security and reduce the carbon footprint associated with food distribution.

Improved Resource Efficiency: Container farms can make more efficient use of resources like water, energy, and space. They often use hydroponic or aeroponic systems, which consume less water than traditional soil-based farming. Advanced climate control and LED lighting systems can optimize energy use. Colorado-based FarmBox Foods uses pre-insulated to help energy draws.

Food Security: Container farming can play a crucial role in ensuring a stable food supply in areas with food scarcity or those affected by natural disasters. The ability to control growing conditions can help mitigate the effects of climate change and other environmental challenges.

Job Creation: The container farming industry is growing, creating jobs in areas such as plant science, engineering, data analysis, business planning, and farm management. This can contribute to local and regional economic development.

Technology Advancements: As container farming technologies continue to evolve, they may lead to breakthroughs in agriculture, such as improved crop genetics, pest and disease management, and data-driven decision-making. These advancements are expected to benefit traditional agriculture as well.

Reduced Food Waste: By enabling on-demand production and minimizing transportation distances, container farming can help reduce food waste — currently a significant global issue — because food arrives on the plates of consumers much sooner after being harvested.

Educational Opportunities: Container farming can serve as a valuable educational tool, teaching people about plant biology, technology, and sustainable farming practices. Schools, universities, and community organizations use container farms to engage students and the public, including the South Carolina Governor’s School of Science and Math, Delaware State University, the EPIC Campus in Littleton, Colo., and more to come.

Space Exploration: Container farming concepts have been explored for space missions, such as Mars colonization, where growing food in a controlled environment is essential due to harsh environmental conditions. Research in this area may have applications for future space exploration.

The long-term impact of container farming is likely to be positive, with the potential to transform agriculture, reduce its environmental footprint, and address food security issues. But it will depend on continued technological advancements, cost reductions and successful integration into existing food production systems for it to make a sizable impact as we head into an uncertain agricultural future.

Why Localized Food Production Matters

Local food production, or “localized agriculture,” offers a range of benefits that can have positive impacts on individuals, communities, and the environment.

Freshness and Flavor Matter!

When food is grown nearby, like in a shipping container farm, it can be harvested at its peak ripeness and delivered to consumers more quickly, which results in fresher and more flavorful produce compared to items that have traveled long distances.

Nutritional Value

Fresher produce typically retains more of its nutritional value because it spends less time in transit and storage.

Reduced Food Miles

Growing food locally reduces the distance it needs to travel from farm to plate. This reduces the carbon footprint associated with transportation, helping to mitigate climate change.

Support for the Local Economy

Local agriculture supports local farmers, creating jobs and contributing to the economic vitality of the community. It keeps money circulating within the local economy, which can have a multiplier effect.

Community Engagement

Growing food near the consumer often fosters a sense of community. Customers can connect with the farmers who grow their food, fostering relationships and trust.

Food Security

Hyperlocal food systems can enhance food security by reducing reliance on distant sources of food. In times of disruption, such as natural disasters or supply chain issues, local food production can ensure a more stable food supply.

Preservation of Open Space

Supporting local agriculture can help protect open spaces and agricultural lands from development, preserving the rural character of communities.

Customization and Diversity

Local farmers may be more responsive to consumer preferences, allowing for a greater variety of crops and specialty products. This can lead to a diverse and unique food offering, in addition to food that’s culturally relevant to the community as a whole.

Reduced Food Waste

Because local food doesn’t have to travel long distances, it is less likely to spoil in transit. This can help reduce food waste, which is a significant issue in many parts of the world. Around one-third of food grown in the U.S. goes to waste.

Cultural and Culinary Connections

Local food systems often celebrate regional culinary traditions and cultural diversity. Consumers can enjoy foods that are unique to their area and learn about local food traditions.

Seasonal Eating

Eating locally encourages seasonal eating, as consumers rely on what is currently in season in their region, which promotes a healthier and more diverse diet.

Health Benefits

Fresher produce can be more nutritious and may encourage people to consume more fruits and vegetables, leading to improved health outcomes.

Transparency and Accountability

With shorter supply chains, it’s often easier for consumers to trace the origin of their food and ensure it meets certain quality and safety standards.

While there are numerous benefits to growing food close to the consumer, it’s important to recognize that not all types of food can be grown locally in all regions due to climate and other factors. Therefore, a balanced approach that combines local production with responsible global sourcing may be necessary to meet all food needs sustainably. We will always need traditional farming to grow staple crops like corn and wheat!

What Types of Plants Grow in a Vertical Hydroponic Farm?

We dedicated more than two years to research and development, figuring out what will and will not grow in our containerized Vertical Hydroponic Farm.

The following list is not meant to be all-encompassing, but rather provide a snapshot of the types of crops that we and our customers have focused on, like yellow onions, collard greens, kale, a range of different micro greens, bok choy, red leaf beet and watercress. Of course, we’re always experimenting and adding to the list.

Peppers

- Jalapeno- Jefe, Jalafuego
- Habanero- Helios, Paper Lantern
- Serrano- Altiplano
- Sweet Pepper- Lunch Box
- Cayenne- Red Flame
- Ghost peppers

Tomatoes

- Slicer- Mountain Fresh
- Grape- Verona
- Cherry- Sakura

Lettuces

- Romaine
- Muir
- Rex
- Magenta
- Rouxai
- Red Butterhead
- Green Butterhead
- Green Star
- Ezflor
- Grazion
- Red Oak
- Tropicana
- Frisee

Herbs

- Cilantro
- Parsley
- Chives
- Oregano
- Prospera Basil
- Genovese Basil
- Purple Basil
- Spicy Bush Basil
- Dill
- Lavender
- Purslane
- Mint

Greens

- Rainbow Chard
- Collard Greens
- Red Vein Sorrel
- Arugula
- Dandelion
- Golden Frills
- Kale
- Tatsoi
- Red Kingdom
- Spinach- Lizard, Space

Flowers

- Viola
- Marigold
- Nasturtium

Cucumbers

- Pickler- Excelsior

Beans

- Bush Beans

Starters

- Pumpkin- Jack O’Lantern
- Sunflower- Giant, Skyscraper, Mixed Colors
- Marigold- Crackerjack, French Double Dwarf

Celebrating the Unsung Heroes of the Pandemic

There’s no doubt that healthcare professionals deserve to be recognized and celebrated for their tireless efforts and unwavering dedication during the pandemic.

Police and fire personnel and even restaurant workers also should be lauded for continuing to work in very uncertain times. But a group that gets little recognition for adapting to the times (albeit less consequential) is local farmers.

When the supply chain dried up, people turned to local farmers, who played a vital role in helping to provide fresh, healthy food to their communities. Some did it through direct-to-consumer community-supported agriculture programs, or CSAs; others partnered with local grocers.

When the pandemic hit, grocery store shelves were emptied due to panic buying and supply chain disruptions, leading to food shortages in some areas. In response, local farmers stepped up to fill the gap, including Sutton’s Vertical Gardens in Nova Scotia. The husband-and-wife team that owns SVG noticed that the produce arriving in their area near Halifax was lacking in quality and was priced quite high.

Local farmers largely had more flexibility to adjust their production and distribution strategies to meet the needs of their communities. For example, some farmers shifted their focus from supplying restaurants and institutions to selling more products directly to consumers.

Local farmers also played a critical role in supporting food banks and other organizations that serve vulnerable populations. Many farmers donated excess produce or sold it at discounted prices to food banks and other organizations, helping to ensure that everyone had access to quality produce during a time of crisis.

Those who got to know nearby farmers forged new friendships and supported local economies, all while strengthening and reshaping food systems. Many consumers decided to stick with the new model after realizing it was important to know where their food comes from and it helped reduce the carbon footprint associated with transporting food over long distances.

Farmers Adapting to Changing Times and Conditions

The shifting climate is having a big impact on the agricultural sector, and farmers around the world are being forced to adapt to numerous challenges. Here are some of the challenges that farmers are facing due to climate change:

Changing weather patterns: Climate change is causing shifts in weather patterns, leading to extreme weather events such as droughts, floods, heatwaves, and storms. These changes can damage crops, reduce yields, and affect the timing of planting and harvesting.
Water scarcity: Changing rainfall patterns can result in water scarcity, making it harder for farmers to irrigate their crops. This can lead to reduced yields and even crop failure.
Increased pests and diseases: Rising temperatures and changing weather patterns can lead to the proliferation of pests and diseases that can damage crops and reduce yields.
Soil degradation: Climate change can cause soil degradation, making it less fertile and less able to support healthy crops. This can result in lower yields and reduced food quality.
Reduced biodiversity: Climate change is causing shifts in ecosystems, which can reduce biodiversity and disrupt natural pollination cycles, leading to lower crop yields.
Financial pressures: Climate change can lead to increased costs for farmers, such as higher irrigation costs, increased pest management expenses, and greater investments in technology and infrastructure to adapt to changing conditions.

What Can We Do?

Promote sustainable farming practices: Encouraging sustainable farming practices such as conservation agriculture, crop rotation, and agroforestry can help to improve soil health and reduce the need for fertilizers and pesticides. This can also help to reduce greenhouse gas emissions from agriculture.
Develop and promote drought-resistant crops: Developing crops that are more tolerant of drought conditions can help farmers adapt to changing rainfall patterns and reduce water usage.
Improve water management: Improved water management techniques, such as drip irrigation and rainwater harvesting, can help farmers to conserve water and reduce the impact of droughts.
Expand access to climate information: Providing farmers with access to reliable climate information can help them make better decisions about when to plant, what crops to grow, and how to manage their farms.
Support research and development: Investing in research and development to improve agricultural productivity, develop new crop varieties, and enhance soil health can help farmers adapt to changing conditions and improve their resilience.
Provide financial support: Providing financial support, such as subsidies or insurance, can help farmers to manage the financial risks associated with climate change and adopt new practices.
Reduce greenhouse gas emissions: Reducing greenhouse gas emissions from agriculture through practices such as conservation tillage, improved nutrient management, and the use of renewable energy can help to mitigate the impact of climate change on agriculture.

Educating Future Generations Using Innovation, Hands-On Learning

Is there any greater gift than bestowing life-changing knowledge to younger generations?

For schools that focus on science, technology, engineering and math — or those that simply think outside the box when it comes to how they educate their students — it’s a no-brainer. The trend of implementing curriculums that emphasize hands-on learning is on an upward trajectory, and it shows no signs of slowing.

The Governor’s School of Science and Mathematics in South Carolina is a prime example of how to promote greater interest in learning among all students, including those who struggle in a traditional, straight-out-of-the-textbook setting. The high school recently began growing in a Vertical Hydroponic Farm made by FarmBox Foods that will serve as an interactive classroom for years to come. It’s housed inside an upcycled shipping container that’s been outfitted with all of the plumbing, electrical components and sensor technology needed to grow food.

Oftentimes, engagement is the key that unlocks the door to improved attentiveness, and producing something tangible hammers home the potential impacts. When a student is able to hold, say, a fresh head of lettuce that was grown via ingenuity, it can spark something greater: intense motivation to learn more. They suddenly — and satisfyingly — have used both existing and newfound knowledge of science and technology to grow fresh, nutritious food, perhaps for those who face hunger in their community. The students can literally hold the real-world impact in their hands.

GSSM’s Hydroponic Research Lab, however, isn’t necessarily centered on what it can produce, but how it produces, and, perhaps more importantly, why. It’s a venue for all-encompassing lessons in everything from civics and social responsibility to inventing new indoor farming techniques and creating avenues for environmental stewardship that previously didn’t exist. The educational promise is boundless, as are the practical applications that result.

In many respects, encouraging initial failure provides interdisciplinary opportunities for critical thinking and problem solving. GSSM’s students will have the ability to experiment with different controlled environments, study the research findings, and help answer questions about its effects on the agricultural community in its region, state and beyond. The lab will also help students to develop and standardize hydroponic research protocols for model plants used in plant science, plants of interest and plants beneficial to the area.

“The GSSM Hydroponic Research Lab provides unprecedented opportunities for students to engage in meaningful research on issues of worldwide significance right here on the GSSM campus in Hartsville, SC,” said GSSM Director of Research and Inquiry, Dr. Josh Witten. “Because this lab represents a unique research resource, it will also be a platform for GSSM students, faculty, and staff to collaborate with researchers beyond our campus. These innovative and immersive experiences are a hallmark of the GSSM education, which prepares students to become the problem solvers of tomorrow.”

The container farm contains elements of — and applications for — biology, chemistry, environmental science, engineering, computer science, robotics and economics, and is ‘being used as a teaching tool to engage their creativity,” the school said.

Creating a curriculum

Within the next 1-2 years, FarmBox Foods plans to roll out a curriculum specific to each controlled-climate farm it manufactures. The Colorado company is fortunate to be surrounded by educators of all types who have offered to contribute their expertise to the endeavor, largely because they can see the enormous potential. The goal is to create plug-and-play lesson plans that fit with current science and technology curriculums.

User-friendly automation within the Vertical Hydroponic Farm puts control in the hands of the students and teachers. For example, they can tweak the watering schedule or crank up the humidity and witness first-hand its effects on the plants, and learn precisely why it has such a big influence on the growing process. They can also explore how plants that historically haven’t been able to grow in low humidity can survive.

Higher learning

One of FarmBox Foods’ prototype hydroponic container farms was delivered to the campus of Delaware State University in Fall 2022. Consider for a moment all of the different academic disciplines and tracks that a single farm can touch, from marketing and business development to mechanics and horticulture.

“We have a lot of interested clients looking for ag-tech solutions to bring to schools,” said Michael Choi, owner of Ponix, which equips indoor farms with specialized software. “It offers a compelling story for schools — how they can work with the community, and offer things like workforce training. It’s how you program around it.”

Choi, who sold the used farm to Delaware State University, said they will use it for both food security and educational purposes.

“I’ve been working with a network of schools for many years, and that particular school wanted to move forward quickly,” he said.

Valor Christian High School, in Highlands Ranch, Colo., has a project-based learning environment that is helping to lead the next generation of agriculturists to the greener pastures of the future.

The Applied STEM Program, led by director Rick Russon, enables students to put into practice what they learn in the classroom, preparing them for successful careers in a number of industries, including agriculture. Members of Valor’s agriculture club, in particular, have an infectious enthusiasm for ideas that combine brain power with a desire to make a positive impact on the world, and it’s already leading to groundbreaking results. For their capstone project, Russon and the club members built a four-tube vertical hydroponic unit using prototype parts donated by FarmBox Foods.

The Applied STEM Program is aiming to modify the four-tube hydroponic system and build several models to bring them into food deserts to feed people in need. Valor Christian sends nearly 40 teams throughout the world each year on missions, and Russon’s hope is that they can help deploy a workable system in areas with little arable land and few natural resources.

The Valor-based vertical hydroponic setup continues to draw interest from students and faculty who want to grow their own farm-fresh greens and help others learn the science behind the hydroponic growing process.

By the numbers

The farms are housed inside an insulated, 40-foot-long shipping container
A Vertical Hydroponic Farm — or VHF — produces 200-250 lbs. of veggies each week; a Gourmet Mushroom Farm yields around 400 lbs. of mushrooms per week
The farms have a 320-square-foot footprint
A Vertical Hydroponic Farm can grow approximately 8,000 plants in various stages of growth simultaneously (4,100 in the grow walls, 3,800+ in the seed table)
Because of its ability to capture, filter and recycle water, the Vertical Hydroponic Farm uses around 5 gallons of water per day
The VHF yields the equivalent of approximately 2.5 acres of farmland annually
The VHF grows peppers, grape/cherry tomatoes, microgreens, tree seedlings, as well as a variety of leafy greens, like lettuce, kale, cabbage and culinary herbs
Estimated labor required for a VHF is 15-20 hours per week. Labor for the Gourmet Mushroom Farm is about 30 hours per week