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A Primer On Vertical Farming As The Industry Gains Steam
Nearly $1.9 billion of global venture capital was invested in indoor farming in 2020, nearly tripling investment in 2019. And just this week, New York-based vertical farming startup Bowery Farming raised $300 million in its latest funding round, valuing the company at $2.3 billion.
Rich Alternman
May 28, 2021
The modern concept of vertical farming was put forth in 1999 by Columbia University microbiologist Dickson Despommier, who along with his students, came up with a design of a skyscraper farm that could feed 50,000 people.
Since then, vertical farming has become a multi-billion-dollar industry. And it’s growing rapidly.
According to PitchBook data, nearly $1.9 billion of global venture capital was invested in indoor farming in 2020, nearly tripling investment in 2019. And just this week, New York-based vertical farming startup Bowery Farming raised $300 million in its latest funding round, valuing the company at $2.3 billion.
Vertical farming growth may be accelerating at the ideal time, as concerns about population growth and climate change push the food industry to innovate to meet tomorrow’s challenges.
By 2050, around 68% of the world population is expected to live in urban areas, and this growth will lead to an increased demand for food. The use of vertical farming could play a role in preparing for such a challenge. At the same time, it could help restore forests depleted by commercialized agriculture and curb planet-warming emissions caused by farming and transportation. Agriculture and forestry alone account for about a quarter of the world’s greenhouse gases.
What is it?
Vertical farming is the practice of growing crops in vertically stacked layers as opposed to a single level, like a field or greenhouse.
Through the artificial control of temperature, light, humidity, and gases, food can be produced indoors in a way that optimizes plant growth and soilless farming techniques such as hydroponics, aquaponics, and aeroponics. The benefits of which are reliable, environmentally friendly, year-round crop production, significantly reduced water usage (by some estimates up to 95% less), efficient land use, and less exposure to chemicals and disease.
Among its downsides, vertical farms are costly to set up and operate and are too dependent on technologies that have yet to reach full maturity. Further, with its heavy reliance on electricity for lighting and climate control, it uses more energy than traditional farming methods and contributes to greenhouse gas emissions.
With that, the sector continues to innovate. And with vertical farming merely in its infancy, it’s reasonable to expect big things in the coming decades.
Investors certainly think so.
In fact, the global vertical farming market is projected to reach $12.77 billion by 2026, growing at a CAGR of 24.6%, according to Allied Market Research.
Some recent examples of vertical farming going mainstream include:
Newark, N.J.-based AeroFarms planning to double its product offering at Whole Foods and, for Amazon Fresh, expanding from one to five distribution centers, increasing availability throughout the New York metropolitan area.
Albertsons Cos. rolling out indoor-farmed produce from Bowery Farming to 275 Acme and Safeway stores in the Northeast and Mid-Atlantic.
The Kroger Co. rolling out produce from vertical farm 80 Acres Farms to more than 300 stores in Ohio, Indiana and Kentucky.
Giant Eagle introducing more packaged greens products from vertical- and robotic-farming specialist Fifth Season to supermarkets in Pennsylvania and Ohio.
Cost barriers
While investors and environmentalists alike are excited by the prospects of vertical farms, the cost barriers are significant, around 20% to 30% higher than traditional farms.
With that, investors may not be able to live up to the hype they’ve created around the industry, and see their bubble burst before they have a chance to prove themselves, said IDTechEx analyst Michael Dent, in a Bloomberg News article. “If people are expecting world-changing progress and they don’t see it in the first two or three years — and what they see is high-quality salad — there’s a chance they might pull out their investment on the field and move on to the next thing.”
Bringing The Future To life In Abu Dhabi
A cluster of shipping containers in a city centre is about the last place you’d expect to find salad growing. Yet for the past year, vertical farming startup Madar Farms has been using this site in Masdar City, Abu Dhabi, to grow leafy green vegetables using 95 per cent less water than traditional agriculture
Amid the deserts of Abu Dhabi, a new wave of entrepreneurs and innovators are sowing the seeds of a more sustainable future.
A cluster of shipping containers in a city centre is about the last place you’d expect to find salad growing. Yet for the past year, vertical farming startup Madar Farms has been using this site in Masdar City, Abu Dhabi, to grow leafy green vegetables using 95 per cent less water than traditional agriculture.
Madar Farms is one of a number of agtech startups benefitting from a package of incentives from the Abu Dhabi Investment Office (ADIO) aimed at spurring the development of innovative solutions for sustainable desert farming. The partnership is part of ADIO’s $545 million Innovation Programme dedicated to supporting companies in high-growth areas.
“Abu Dhabi is pressing ahead with our mission to ‘turn the desert green’,” explained H.E. Dr. Tariq Bin Hendi, Director General of ADIO, in November 2020. “We have created an environment where innovative ideas can flourish and the companies we partnered with earlier this year are already propelling the growth of Abu Dhabi’s 24,000 farms.”
The pandemic has made food supply a critical concern across the entire world, combined with the effects of population growth and climate change, which are stretching the capacity of less efficient traditional farming methods. Abu Dhabi’s pioneering efforts to drive agricultural innovation have been gathering pace and look set to produce cutting-edge solutions addressing food security challenges.
Beyond work supporting the application of novel agricultural technologies, Abu Dhabi is also investing in foundational research and development to tackle this growing problem.
In December, the emirate’s recently created Advanced Technology Research Council [ATRC], responsible for defining Abu Dhabi’s R&D strategy and establishing the emirate and the wider UAE as a desired home for advanced technology talent, announced a four-year competition with a $15 million prize for food security research. Launched through ATRC’s project management arm, ASPIRE, in partnership with the XPRIZE Foundation, the award will support the development of environmentally-friendly protein alternatives with the aim to "feed the next billion".
Global Challenges, Local Solutions
Food security is far from the only global challenge on the emirate’s R&D menu. In November 2020, the ATRC announced the launch of the Technology Innovation Institute (TII), created to support applied research on the key priorities of quantum research, autonomous robotics, cryptography, advanced materials, digital security, directed energy and secure systems.
“The technologies under development at TII are not randomly selected,” explains the centre’s secretary general Faisal Al Bannai. “This research will complement fields that are of national importance. Quantum technologies and cryptography are crucial for protecting critical infrastructure, for example, while directed energy research has use-cases in healthcare. But beyond this, the technologies and research of TII will have global impact.”
Future research directions will be developed by the ATRC’s ASPIRE pillar, in collaboration with stakeholders from across a diverse range of industry sectors.
“ASPIRE defines the problem, sets milestones, and monitors the progress of the projects,” Al Bannai says. “It will also make impactful decisions related to the selection of research partners and the allocation of funding, to ensure that their R&D priorities align with Abu Dhabi and the UAE's broader development goals.”
Nurturing Next-Generation Talent
To address these challenges, ATRC’s first initiative is a talent development programme, NexTech, which has begun the recruitment of 125 local researchers, who will work across 31 projects in collaboration with 23 world-leading research centres.
Alongside universities and research institutes from across the US, the UK, Europe and South America, these partners include Abu Dhabi’s own Khalifa University, and Mohamed bin Zayed University of Artificial Intelligence, the world’s first graduate-level institute focused on artificial intelligence.
“Our aim is to up skill the researchers by allowing them to work across various disciplines in collaboration with world-renowned experts,” Al Bannai says.
Beyond academic collaborators, TII is also working with a number of industry partners, such as hyperloop technology company, Virgin Hyperloop. Such industry collaborations, Al Bannai points out, are essential to ensuring that TII research directly tackles relevant problems and has a smooth path to commercial impact in order to fuel job creation across the UAE.
“By engaging with top global talent, universities and research institutions and industry players, TII connects an intellectual community,” he says. “This reinforces Abu Dhabi and the UAE’s status as a global hub for innovation and contributes to the broader development of the knowledge-based economy.”
Pontus Submits Building Permit Application for Surrey Aquaponics Facility
The Company has submitted a construction application to the City of Surrey for its 20,570 square foot aquaponics facility. The approval process is estimated to be completed within 6 weeks and is expected to be followed by the immediate commencement of construction of the Facility's leasehold improvements. Accordingly, the leasehold improvements are to consist of a complete retrofit of the Facility to establish Pontus' solar-powered, water recycling CEVASTM aquaponic system
VANCOUVER, BC, Feb. 3, 2021 /CNW/ - Pontus Protein Ltd. ("Pontus" or the "Company"), is pleased to announce it has made significant progress towards the development of its state of the art, integrated aquaponics facility located in Surrey, British Columbia, Canada (the "Facility").
The Company has submitted a construction application to the City of Surrey for its 20,570 square foot aquaponics facility. The approval process is estimated to be completed within 6 weeks and is expected to be followed by the immediate commencement of construction of the Facility's leasehold improvements. Accordingly, the leasehold improvements are to consist of a complete retrofit of the Facility to establish Pontus' solar-powered, water recycling CEVASTM aquaponic system.
The installation of all required equipment for the growth and production is forecasted to take between four and six months to complete. Upon completion, the Facility will be approximately 20 times the size of Pontus' prior prototype facility. The prototype facility has been used to test and develop the technology for the Company's proprietary growing process.
The Facility, as seen in the image above and video below, will utilize an array of additional technologies to create a clean and sustainable aquaponics ecosystem. Solar energy panels will be installed to capture renewable energy and power the closed-loop water system, which recycles up to 95% of all water inputs. The implementation of the Facility's unique, sustainable technology in conjunction with Pontus' proprietary CEVAS™ automated growth technology will allow the Company to emphasize biosecurity in its agricultural production processes, removing the need for additional chemicals, pesticides, and other non-native components.
Pontus CEO, Conner Yuen states: "Entering the construction application process is a major milestone for the Company as we move toward the commissioning of the Facility. Our aim is to create a state of the art process that will incorporate the latest in sustainable agriculture technology. The ability to implement this highly efficient technology solves many issues we see with current methods of food production such as land scarcity and low yields and contamination.
Pontus' biosecurity and renewable food sources are intended to create a proactive solution to these issues by reducing the potential for contamination and the need for pesticides. Pontus hopes the Facility will revolutionize how traditional agriculture is conducted and show the power of technological food advancements."
Plant-based Protein Powder Market
The Company's plant-based protein powder is a premium entry into the global protein and supplements market, which is currently valued at USD$15 Billion and is expected to grow to USD$20 Billion by 2025 according to Grand View Research. This growth is expected to be fuelled by many North Americans reducing or eliminating the regular consumption of animal products. The North American plant-based protein market is also anticipated to grow at a compound annual growth rate of 14% from 2019 through 2025.
About Pontus Protein Ltd
Pontus Protein Ltd. makes pure plant-based protein powder sourced from nutritious water lentils, farm-grown in Vancouver, BC, with development plans to expand to Surrey, B.C.. Not only does Pontus Protein Powder exceed certified organic standards, but it's also gluten-free, pure and allergen safe. It's jam-packed full of antioxidants, minerals, vitamins and ALL the essential amino acids.
This is not your average lentil, these are water lentils; a crop that can be harvested every 24 hours in an indoor aquaponic farm that uses 95% less water than traditional agriculture, using Pontus' proprietary Closed Environment Vertical Aquaponics System (or CEVAS™) aquaponic agritech technology. This is wonderful news for a planet populated with us hungry and health-conscious humans.
NASA's Challenge To Grow Food In Space Can Win You Up To $500,000
There are thousands of bizarre challenges doing the rounds on the internet. These unique challenges soon go viral on the internet, with countless participants hopping on board. A number of these challenges also involve some form of food. If you're a food innovator who's looking for the next interesting challenge to take up, NASA (National Aeronautics and Space Administration) may have something for you. The NASA, in collaboration with Canada's CSA (Central Space Agency), has launched a 'Deep Space Food Challenge'. The one-of-a-kind competition seeks to find food production technologies which are sustainable in long duration missions to outer space.
NASA has launched a 'Deep Space Food Challenge' to prompt innovation of food production techniques and technologies viable in outer space.
There are thousands of bizarre challenges doing the rounds on the internet. These unique challenges soon go viral on the internet, with countless participants hopping on board. A number of these challenges also involve some form of food. If you're a food innovator who's looking for the next interesting challenge to take up, NASA (National Aeronautics and Space Administration) may have something for you.
The NASA, in collaboration with Canada's CSA (Central Space Agency), has launched a 'Deep Space Food Challenge'. The one-of-a-kind competition seeks to find food production technologies which are sustainable in long duration missions to outer space.
Our cargo resupply missions can only go so far! That's why we need your help to design a food system to keep our astronauts feed during long duration space exploration.
— NASA Wallops (@NASA_Wallops) January 30, 2021
Check out the @NASAPrize Deep Space Food Challenge: https://t.co/9mxtZXbwaC pic.twitter.com/izU8nSqPDc
A short video explaining the purpose behind the challenge was shared by the official handle. The 56-second clip elaborated on how astronauts embarking on lunar space exploration missions usually rely on pre-packaged meals or resupply of food through shuttles from Earth.
Thus, creating a brand, new food production system with minimal input and nutritious output with minimal wastage can go a long way in fuelling longer duration space explorations. The challenge's focus is on identifying food production technologies that can help feed a crew of four astronauts and help fill food gaps for a three-year round-trip mission with no resupply required from Earth.
These innovative food production methods may also help communities on Earth living in harsh conditions and extreme climates. This could also help tackle food insecurity in the future, which is one of the biggest issues that loom large today. "Solutions identified through this Challenge could support these harsh environments, and also support greater food production in other milder environments, including major urban centres where vertical farming, urban agriculture and other novel food production techniques can play a more significant role," stated the Deep Space Food Challenge's official website.
.@NASA & @csa_asc are launching a Deep Space Food Challenge to develop food production tech in space.
— NASA STI Program (@NASA_STI) January 28, 2021
Hey @GuyFieri, how about Diners, Drive-Ins, Dives & Deep Space? #STIdocs #Flavortown 🚀🥘
Read about it: https://t.co/fnz80uwpJT
See research: https://t.co/18q6RG3L2G pic.twitter.com/lSRTiiAFes
Registrations for the challenge close on 28th May, and submissions are due 30th July, 2021. Winners of Phase 1 of the challenge will be announced in the month of September this year. The prize money for winners of Phase 1 can go up to USD 500,000 (Rs. 3.64 crores approximately). So, if you have an exciting idea to produce food which could help future space missions - you know what to do!
The Rise of Vertical Farming
Using Controlled Environment Agriculture (CEA) technology, the artificial control of temperature, light, humidity, and gases makes it possible to produce a vast array of crops on an industrial scale — without any outdoor exposure
It is estimated that one acre of vertical farming offers the equivalent production of at least four to six acres using conventional outdoor methods.
Darcy Simonis | ABB
09/17/19
With over 7,800 high-rise buildings, the city of Hong Kong soars above all others. More than 300 of its buildings surpass 490 feet, with more people living over 15 floors above ground level than anywhere else in the world. Having a skyline in the clouds helps the densely populated metropolis to prosper where space is restricted. Agriculture has taken note of this construction technique, as vertical farming creates impressive yields.
Darcy Simonis, industry network leader for ABB’s food and beverage segment, explains how.
Vertical farming is the process of food being produced in vertically stacked layers, instead of on a single level such as in a field or greenhouse. The layers are commonly integrated into urban structures like skyscrapers, shipping containers and repurposed warehouses.
Using Controlled Environment Agriculture (CEA) technology, the artificial control of temperature, light, humidity and gases makes it possible to produce a vast array of crops on an industrial scale — without any outdoor exposure.
The sky’s the limit
By 2050, around 80 per cent of the world’s population will live in urban areas. With agricultural space in these areas scarce or completely non-existent, how do we deliver produce?
It is estimated that one acre of vertical farming offers the equivalent production of at least four to six acres using conventional outdoor methods. As the plant’s growth is not dependent on sunlight or affected by meteorological conditions, production can continue at the same rate all year round. In terms of resources, the plants require as much as 70 per cent less water than traditional farms.
Organic crops are a huge market, with demand often outstripping supply. As vertically farmed crops are produced in a well-controlled area, there is far less need for chemical pesticides. It is also believed that vertical farming could bring fresh produce closer to urban populations, reducing the risk of nutrients diminishing during transport.
No more soil
Hydroponics is a predominant growing method in vertical farming. The process involves growing plants in nutrient solutions that are essentially free of soil, as roots are submerged into the solution and the plants are regularly monitored to maintain the correct levels of chemical composition.
If we’re ever to fulfill futuristic plans of colonizing Mars, we’re going to need to grow our own food. So, where on Earth has the conditions to test out this method?
It may not share the same qualities as the Red Planet, but Antarctica’s nonstop winters make it impossible to grow produce outdoors, and fruits and vegetables are shipped long distances from overseas just a few times a year.
In a step closer to extraterrestrial farming, a semi-automated hydroponic facility grows plants without soil, using mineral nutrient solutions in a water solvent. Scientists on Germany’s Neumayer Station III grow produce in a 20-foot-long shipping container, cultivating greens in an area where such produce is usually limited. This is just one example of how vertical farming techniques can be used in areas affected by harsh weather conditions.
Sensing growth
To hit high levels of production, growth conditions in vertical farms must be continuously optimized. Sensors and data must be used to effectively track variables such as climate, nutrient composition and light levels.
Climate is characterized by a combination of air temperature, humidity, and carbon dioxide (CO2) levels. The effects of these factors are tremendous. The difference between plant and air temperature, for example, can tell us whether the leaves’ stomata are open. If they’re closed, the plant cannot absorb CO2 and convert it into biomass. We can also measure the light level and spectrum as perceived by the plants and the pH of irrigation water for optimal growth.
Using smart sensors that can monitor these variables will ensure that vertical farms produce yields that greatly exceed those of conventional farms, which are impacted by uncontrollable conditions.
With a skyline full of modern, gleaming constructions, Hong Kong makes the most of its space to deliver prosperity. While vertical farming still has a long way to go before it is commercially viable, it is certain that food producers can learn from the techniques it applies to help deliver produce our rising populations.
The content & opinions in this article are the author’s and do not necessarily represent the views of AgriTechTomorrow