Introducing Hungry Planet Farms:



Vertical Farming
Vertical farming is the growing of high quality organic produce in urban settings, utilizing vertical space and breakthrough LED technology, in a controlled environment.
Farming Efficiency
Vertical farming’s controlled environment allows for large improvements in productivity and efficiency. Crops grow faster due to the consistent environment where every day is ideal for plant growth. Harvesting and delivery can be scheduled using modern logistics, and there are no weather related crop losses. Water and fertilizer that are normally lost to evaporation and run-off are recycled, reducing water use by 90% and fertilizer use by 75%. There is no need for chemical pesticides or herbicides. Total energy inputs, when counting all fossil fuel inputs used in outdoor farming, are roughly equal today, however, as fossil fuel costs rise and renewable electric costs decline, vertical farming will have a significant advantage in energy use.




Food Taste
The taste of produce depends entirely on the nutritional chemical elements (nitrogen, potassium, etc.) it has absorbed, and it’s freshness. Just like a conventional farm, a vertical farm must supply the plant’s root system with the right type and quantity of nutrients, and then deliver produce at its peak freshness. A vertical farm has more precise control over both, and consequently, the capacity to grow the best tasting food.
Food Quality
The quality of food is a more complex topic as it must include the level of environmental impurities that are absorbed by the plant during cultivation as well as the handling of the food from harvest to consumption. Beyond the fact that vertical farms have no need for chemical pesticides and herbicides, it has a fundamental advantage of a pure ‘starting’ point where pristine water and nutrient inputs are assured. As unfortunate as it may be, there are no pristine natural environments remaining.




Farming Predictability
Crop cycles are remarkably consistent in terms of time, quantity and quality. This results in a more efficient and less costly supply chain, as well as higher quality control for taste and appearance.
Seasonal Flexibility
Vertical farming is not constrained to seasonal climate cycles, which allows each farm location to ‘tailor’ it’s produce to the local market conditions, on a season-by-season basis.
Resource Use and Cost Trends
Vertical farming is perfectly suited to a renewable energy future. Today’s vertical farm use no petroleum products in the farming process, a small fraction of the natural-gas based fertilizers of conventional farming, and in our model, no petroleum for transportation. The resource use and cost profile of conventional and vertical farming are heading in opposite directions.


SOURCE

Introducing Hungry Planet Farms:

Vertical Farming

Vertical farming is the growing of high quality organic produce in urban settings, utilizing vertical space and breakthrough LED technology, in a controlled environment.

Farming Efficiency

Vertical farming’s controlled environment allows for large improvements in productivity and efficiency. Crops grow faster due to the consistent environment where every day is ideal for plant growth. Harvesting and delivery can be scheduled using modern logistics, and there are no weather related crop losses. Water and fertilizer that are normally lost to evaporation and run-off are recycled, reducing water use by 90% and fertilizer use by 75%. There is no need for chemical pesticides or herbicides. Total energy inputs, when counting all fossil fuel inputs used in outdoor farming, are roughly equal today, however, as fossil fuel costs rise and renewable electric costs decline, vertical farming will have a significant advantage in energy use.

Food Taste

The taste of produce depends entirely on the nutritional chemical elements (nitrogen, potassium, etc.) it has absorbed, and it’s freshness. Just like a conventional farm, a vertical farm must supply the plant’s root system with the right type and quantity of nutrients, and then deliver produce at its peak freshness. A vertical farm has more precise control over both, and consequently, the capacity to grow the best tasting food.

Food Quality

The quality of food is a more complex topic as it must include the level of environmental impurities that are absorbed by the plant during cultivation as well as the handling of the food from harvest to consumption. Beyond the fact that vertical farms have no need for chemical pesticides and herbicides, it has a fundamental advantage of a pure ‘starting’ point where pristine water and nutrient inputs are assured. As unfortunate as it may be, there are no pristine natural environments remaining.

Farming Predictability

Crop cycles are remarkably consistent in terms of time, quantity and quality. This results in a more efficient and less costly supply chain, as well as higher quality control for taste and appearance.

Seasonal Flexibility

Vertical farming is not constrained to seasonal climate cycles, which allows each farm location to ‘tailor’ it’s produce to the local market conditions, on a season-by-season basis.

Resource Use and Cost Trends

Vertical farming is perfectly suited to a renewable energy future. Today’s vertical farm use no petroleum products in the farming process, a small fraction of the natural-gas based fertilizers of conventional farming, and in our model, no petroleum for transportation. The resource use and cost profile of conventional and vertical farming are heading in opposite directions.

SOURCE

THE ROLE OF DESIGN IN SUSTAINABILITY MANAGEMENT:

Written by M.S. in Sustainability Management student Henry Gordon-Smith (’13)

Population growth and rapid urbanization have forced cities all over the world to prioritize the physical dimensions of sustainability. As a result, ‘green building’ has moved to the forefront of the sustainability industry. Globally, buildings consume more than 2/3 of all electricity and use about 40% of all resources[1]: the built environment therefore best represents how we interfere with the natural world, for we build up barriers, create infrastructure, construct shelter, and exploit finite resources in the process.  We spend 90% of our time inside buildings[2], thus improving their construction and management is a crucial component of sustainable development, and, more subtly but perhaps more importantly, through their design buildings have the potential to communicate—to motivate and inspire their inhabitants to behave more sustainably.

Being able to model solutions visually is a critical component for managers’ intent for solving environmental problems. For that reason, perhaps, advancing the way we design the built environment has always been my keenest interest. Sustainable design requires more than just the ability to create spatially: it requires expansive considerations—materials, energy, water-use, financial feasibility, new technologies. It must successfully execute the maxim “form meets function”. For me, the physical dimensions of sustainability management are the bases from which I launch into finding innovative solutions to environmental concerns.

One project that taught me the critical relationship between form and function in sustainable design was a LEED project some fellow SUMA students and I designed. Our task was to create a LEED platinum dormitory for the Harbor School on Governor’s Island whose design had to satisfy the school’s objectives. As the new structure would be located on the island, waste, energy, and water-use reduction were priorities. After learning the necessary components for a building to meet LEED requirements we began conceptualizing the elements of the structure. As the architect for the team it was my job to represent the ideas that we developed visually. The collaborative aspect of the project was inspiring; we laid out the features our building should achieve—net zero, 400-student capacity, LEED compliance, food producing—and I would be charged to render a model to match our consensus. The first problem we faced was the dormitory for 400 students: it was much larger than we anticipated. By creating a to-scale design we were able to interact with our idea’s spatial presence; this allowed us to discern the massive footprint it would command. Passive design and solar placement—the placing of a structure in a way that makes the most of solar thermal gains—also influenced our plan. After five attempts we reached our final version. Our building made the best of solar thermal gains by implementing a south-facing greenhouse façade that trapped heat from the sun.

designpaperimage1

Project Team: Matthew Codner, Jessica Esposito, Theresa Formato, SangUk  Han, Coury Revan, Henry Gordon-Smith

Project Team: Matthew Codner, Jessica Esposito, Theresa Formato, SangUk Han, Coury Revan, Henry Gordon-Smith

Read More

ELIOOO is an instruction book about how to build a hydroponic system to grow plants, herbs, or vegetables in your apartment, using IKEA components.
The book will contain hand drawn illustrations, showing you everything you need to know about how to build and run ELIOOO step by step.
It will be digitally printed in full color, measuring 21 x 14.5 cm with a soft cover with and 150-200 pages. It will contain instructions for about how to build and run six different types and sizes of hydroponic devices as described below and as shown in the prototypes depicted here.

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City Farming or Plant factories

Plant Factories or City Farming are concepts which are a reaction to the trend for production closer to and often even in the middle of the consumer market. The idea behind the concepts is based on maximum freshness and food safety for consumers, and minimum transport costs and times in the chain. Both Plant Factories and City Farming are aimed at sustainable multi-layer crops with minimum use of resources thanks to a perfectly controlled climate. Certhon is currently developing these concepts in practice, based on our own technology developed in-house.
SOURCE

City Farming or Plant factories

Plant Factories or City Farming are concepts which are a reaction to the trend for production closer to and often even in the middle of the consumer market. The idea behind the concepts is based on maximum freshness and food safety for consumers, and minimum transport costs and times in the chain. Both Plant Factories and City Farming are aimed at sustainable multi-layer crops with minimum use of resources thanks to a perfectly controlled climate. Certhon is currently developing these concepts in practice, based on our own technology developed in-house.

SOURCE

A preview of the Bronx vertical farming complex  –  BXVF
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“The BXVF is a model light urban factory composed of indoor growing systems layered in green infrastructure. Stacked, stand-alone modular grow labs are at the core of two separate farm complexes. One for aquaponics and hydroponics, and the other for aeroponics. These grow towers are on top of an above-grade foundation that serves as green infrastructure, space for distribution, and more grow labs”
-Henry Gordon-Smith 
Stay tuned for more agritecture…

A preview of the Bronx vertical farming complex  – BXVF

———————————————————————————————————-

“The BXVF is a model light urban factory composed of indoor growing systems layered in green infrastructure. Stacked, stand-alone modular grow labs are at the core of two separate farm complexes. One for aquaponics and hydroponics, and the other for aeroponics. These grow towers are on top of an above-grade foundation that serves as green infrastructure, space for distribution, and more grow labs”

-Henry Gordon-Smith

Stay tuned for more agritecture…

The Book Vase: 

Be careful when you’re snooping in someone else’s bookshelf. When you’re reaching for a text on plantlife, you might be grabbing an entire planter, like YOY’s flower pot, which masquerades as a book.

The Book Vase:

Be careful when you’re snooping in someone else’s bookshelf. When you’re reaching for a text on plantlife, you might be grabbing an entire planter, like YOY’s flower pot, which masquerades as a book.

A Timeline of Vertical Farming by Jessica Piccolino

600 BC - King Nebuchadnezzar of ancient Babylon constructed the Hanging Gardens of Babylon for his homesick wife, Amyitis. The Hanging Gardens encompassed an array of plants and trees, imported from Medes, overhanging the terraces within the city’s walls and up the sides of the mountain. Since the area suffered a dry climate, the gardens were watered using a chain pull system, which carried water from the Euphrates River and streamed it to each landing of the garden (Krystek).

1150 AD – Aztec Indians created chinampas, which were floating gardens of rectangular plots built on swamps. Since they were incapable of growing crops on the lake’s marshy shore, they built rafts out of reeds, stalks, and roots, topped the rafts with soil and mud from the bottom of the lake, and then drifted out to the center of the water. Crops would grow on top of the rafts as their roots grew through the rafts and down into the water. The rafts often attached together to form floating fields the size of islands (Turner).
1627 – Sir Francis Bacon first introduced the theory of hydroponic gardening and farming methods in his book Sylva Sylvarum, in which he established the idea of growing terrestrial plants without soil (Saylor).
1699 – English scientist, John Woodward, conducted water culture experiments with spearmint and found that plants would grow better in less pure water than they would in distilled water and that plants derive minerals from soil mixed into water solutions (Turner).
1909 – The earliest drawing of a vertical farm was published in Life Magazine, depicting an open-air building of vertically stacked stories of homes cultivating food for consumption (Jurkiewicz).
1915 - American geologist Gilbert Ellis Bailey coined the term “vertical farming” in his book, “Vertical Farming,” in which he introduced a method of underground farming contingent on the use of explosives. Multiplying the depth of fertile land, such explosives allow and enable farmers to farm deeper, while increasing area and securing larger crops. Bailey focused on less land rather than expanding as he observed it was more profitable to double the depth than double the area (Globacorp).
1922 - Seeking efficient techniques to house sizeable communities of people, Swiss architect Charles-Édouard Jeanneret, “Le Corbusier,” developed Immeubles-Villas, his project consisting of five-story blocks into which one hundred singular apartments are stacked on top of one another. The plan’s basic unit is the single-person apartment, each isolated from its neighbors, giving them all secluded open space imbedded with greenery (Gallagher).
1937 - In a scientific journal article, William Frederick Gericke coined the term “hydroponics,” the process of growing plants in sand, gravel, or liquid, with added nutrients but without soil combining “hydro” meaning water, and “ponos” meaning labor (Jones).
1940 – Hydroponic systems were used in the Pacific during World War II, where US troops cultivated fresh lettuce and tomatoes on barren islands (Jones).
1972 - SITE (Sculpture in the Environment) proposed the concept “Highrise of Homes,” which calls for a conventional steel tower framework accommodating dirt plots, as it supports a vertical community of private homes (SITE).
1975 – Allan Cooperman introduced the nutrient film technique in which a thin film of nutrient solution flows through plastic channels, which contain the plant roots (Jones).
1989 – Architect Kenneth Yeang envisioned mixed-use buildings that move seamlessly with green space in which plant life can be cultivated within open air, known as vegetated architecture. This approach to vertical farming is based on personal and community use rather than production and distribution matters (Mulder).
1999 – American ecologist Dr. Dickson Despommier reinvented vertical farming, as it emerged at Columbia University, promoting the mass cultivation of plant and animal life for commercial purposes in skyscrapers (Globacorp). Vertical farms, several floors tall, will be sited in the heart of the world’s urban centers, providing sustainable production of a secure and diverse food supply, and the eventual restoration of ecosystems that have been sacrificed for horizontal farming (Despommier).
2006 –  Nuvege, the forerunner in technology for the innovative growth method of hydroponically grown vegetables, developed their proprietary lighting network, which increases the return rate of vegetable growth by balancing light emissions that also advance photosynthesis through amplified levels of carbon dioxide (Inada).
2009 – Sky Green Farms built a vertical farm consisting of over 100 nine-meter tall towers in Singapore where green vegetables such as bak choi and Chinese cabbage are grown, stacked in greenhouses, and sold at local supermarkets (Doucleff). Singapore’s vertical farm is the world’s first water-driven, tropical vegetable urban vertical farm that uses green urban solutions to maintain enhanced green sustainable production of safe, fresh and delicious vegetables, using minimum land, water and energy resources,” (SkyGreens). It uses sunlight as its energy source, and captured rainwater to drive a pulley system to rotate the plants on the grow racks, ensuring an even circulation of sunlight for all the plants (Despommier).
2011 – Dutch agricultural company, PlantLab uses red and blue LEDs instead of sunlight in their vertical farms and grow plants in completely controlled environments. By giving the plants only blue and red light, PlantLab can avoid heating its plants up needlessly, leaving more energy for growth (Hodson).
2012 – Farmed Here, a sustainable indoor vertical farming facility opened in a 90,000 square foot post-industrial building in Bedford Park, IL. Fresh, healthy, local greens such as arugula, basil, and sweet basil vinaigrette are produced here, away from the bugs, diseases, and weather that impact most produce today (Despommier).
2012 – Local Garden, North America’s first ever VertiCrop farm, was constructed in Vancouver, Canada, shifting sustainable farming and food production practices. VertiCrop, a new technology for growing healthy, natural vegetables in a controlled environment maximizes space usage and eliminates need for pesticides. The garden is capable of growing and harvesting up to 3,500 pounds of a variety of fresh greens every week, such as kales, spinach, arugula, endive, lettuce, bak choi, escarole, basil, parsley, chards, etc. (Despommier).
SOURCE

A Timeline of Vertical Farming by Jessica Piccolino

600 BC - King Nebuchadnezzar of ancient Babylon constructed the Hanging Gardens of Babylon for his homesick wife, Amyitis. The Hanging Gardens encompassed an array of plants and trees, imported from Medes, overhanging the terraces within the city’s walls and up the sides of the mountain. Since the area suffered a dry climate, the gardens were watered using a chain pull system, which carried water from the Euphrates River and streamed it to each landing of the garden (Krystek).

1150 AD – Aztec Indians created chinampas, which were floating gardens of rectangular plots built on swamps. Since they were incapable of growing crops on the lake’s marshy shore, they built rafts out of reeds, stalks, and roots, topped the rafts with soil and mud from the bottom of the lake, and then drifted out to the center of the water. Crops would grow on top of the rafts as their roots grew through the rafts and down into the water. The rafts often attached together to form floating fields the size of islands (Turner).

1627 – Sir Francis Bacon first introduced the theory of hydroponic gardening and farming methods in his book Sylva Sylvarum, in which he established the idea of growing terrestrial plants without soil (Saylor).

1699 – English scientist, John Woodward, conducted water culture experiments with spearmint and found that plants would grow better in less pure water than they would in distilled water and that plants derive minerals from soil mixed into water solutions (Turner).

1909 – The earliest drawing of a vertical farm was published in Life Magazine, depicting an open-air building of vertically stacked stories of homes cultivating food for consumption (Jurkiewicz).

1915 - American geologist Gilbert Ellis Bailey coined the term “vertical farming” in his book, “Vertical Farming,” in which he introduced a method of underground farming contingent on the use of explosives. Multiplying the depth of fertile land, such explosives allow and enable farmers to farm deeper, while increasing area and securing larger crops. Bailey focused on less land rather than expanding as he observed it was more profitable to double the depth than double the area (Globacorp).

1922 - Seeking efficient techniques to house sizeable communities of people, Swiss architect Charles-Édouard Jeanneret, “Le Corbusier,” developed Immeubles-Villas, his project consisting of five-story blocks into which one hundred singular apartments are stacked on top of one another. The plan’s basic unit is the single-person apartment, each isolated from its neighbors, giving them all secluded open space imbedded with greenery (Gallagher).

1937 - In a scientific journal article, William Frederick Gericke coined the term “hydroponics,” the process of growing plants in sand, gravel, or liquid, with added nutrients but without soil combining “hydro” meaning water, and “ponos” meaning labor (Jones).

1940 – Hydroponic systems were used in the Pacific during World War II, where US troops cultivated fresh lettuce and tomatoes on barren islands (Jones).

1972 - SITE (Sculpture in the Environment) proposed the concept “Highrise of Homes,” which calls for a conventional steel tower framework accommodating dirt plots, as it supports a vertical community of private homes (SITE).

1975 – Allan Cooperman introduced the nutrient film technique in which a thin film of nutrient solution flows through plastic channels, which contain the plant roots (Jones).

1989 – Architect Kenneth Yeang envisioned mixed-use buildings that move seamlessly with green space in which plant life can be cultivated within open air, known as vegetated architecture. This approach to vertical farming is based on personal and community use rather than production and distribution matters (Mulder).

1999 – American ecologist Dr. Dickson Despommier reinvented vertical farming, as it emerged at Columbia University, promoting the mass cultivation of plant and animal life for commercial purposes in skyscrapers (Globacorp). Vertical farms, several floors tall, will be sited in the heart of the world’s urban centers, providing sustainable production of a secure and diverse food supply, and the eventual restoration of ecosystems that have been sacrificed for horizontal farming (Despommier).

2006 – Nuvege, the forerunner in technology for the innovative growth method of hydroponically grown vegetables, developed their proprietary lighting network, which increases the return rate of vegetable growth by balancing light emissions that also advance photosynthesis through amplified levels of carbon dioxide (Inada).

2009 – Sky Green Farms built a vertical farm consisting of over 100 nine-meter tall towers in Singapore where green vegetables such as bak choi and Chinese cabbage are grown, stacked in greenhouses, and sold at local supermarkets (Doucleff). Singapore’s vertical farm is the world’s first water-driven, tropical vegetable urban vertical farm that uses green urban solutions to maintain enhanced green sustainable production of safe, fresh and delicious vegetables, using minimum land, water and energy resources,” (SkyGreens). It uses sunlight as its energy source, and captured rainwater to drive a pulley system to rotate the plants on the grow racks, ensuring an even circulation of sunlight for all the plants (Despommier).

2011 – Dutch agricultural company, PlantLab uses red and blue LEDs instead of sunlight in their vertical farms and grow plants in completely controlled environments. By giving the plants only blue and red light, PlantLab can avoid heating its plants up needlessly, leaving more energy for growth (Hodson).

2012 – Farmed Here, a sustainable indoor vertical farming facility opened in a 90,000 square foot post-industrial building in Bedford Park, IL. Fresh, healthy, local greens such as arugula, basil, and sweet basil vinaigrette are produced here, away from the bugs, diseases, and weather that impact most produce today (Despommier).

2012 – Local Garden, North America’s first ever VertiCrop farm, was constructed in Vancouver, Canada, shifting sustainable farming and food production practices. VertiCrop, a new technology for growing healthy, natural vegetables in a controlled environment maximizes space usage and eliminates need for pesticides. The garden is capable of growing and harvesting up to 3,500 pounds of a variety of fresh greens every week, such as kales, spinach, arugula, endive, lettuce, bak choi, escarole, basil, parsley, chards, etc. (Despommier).

SOURCE

About me

This blog is all about Building-Integrated Agriculture (BIA). 'Agritecture' is the fusion of architecture and agriculture. We explore cutting edge innovations, businesses, and developments of Agritecture.

Ask me about Agritecture