My book, Future Harvests, is expected to be published before the end of August.
Here is a preview to give you a flavor of the content.
For a full view, please click on the thumbnails.
Here is a sample containing the table of contents and the preface of the book:
For the video trailers, please visit my YouTube channel.
The editing of my book “Future Harvests – The next agricultural revolution” is about completed. All that is left to do is developing the cover and start the publishing.
I have already received orders, even before the book is out. That is quite a good sign. And a great surprise for me.
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To describe the topics addressed, I have posted three short promotional videos on YouTube. In previous articles (The fun of writing this book and The next agricultural revolution), I had already given an idea about the content of the book.
Video #1: The Fundamentals (duration 2:37) – Introduction to the background and fundamental principles mentioned in the book “Future Harvests – The next agricultural revolution” to achieve food security for 9 billion people in 2050. Topics such as demographics, the shift in economic power, the control of food and food security strategies are reviewed. Sustainability, innovation, efficient market driven food production and strong leadership are required.
or click here if video does not appear
Video #2: The Actions (duration 2:12) – A short review of some of the actions mentioned in the book to achieve the objectives. Solving the water challenge, finding new land for production, urban farming, hydroponics, farming the desert, rebuilding fisheries and developing aquaculture further are all possibilities.
or click here if video does not appear
Video #3: The Questions (duration 3:08) – A sample of some of the questions raised in the book. They cover technology, land deals in Africa, improving yields, restoring soil fertility, change in consumer needs, organic farming, risks of conflicts, biofuels or meat are some of the topics presented.
or click here if video does not appear
If you know someone who could be interested by the topics on this page, please pass it on!
Dutch researchers have extracted cells from a live pig and put them in a broth derived from the blood of animal fetuses. After the cell have multiplied, the researchers have obtained a mass of muscle tissue.
The texture is obviously not what they are looking for, but they are optimistic about the possibilities. They have not tasted it, but I think they should have, just to show that they believe in the quality of the meat. Nonetheless, they expect that such meat could be on the market within 5 years.
This project is backed by the Dutch government and by Stegeman, a Dutch subsidiary of Sara Lee that produces sausages and deli products.
After all, if such meat goes into processing, grinding and soaking, the physical properties of the meat do not have to match “true” meat, and it could be a good alternative to meat from a slaughtered pig. A cost analysis will be necessary to see if this indeed has a future. Moreover, it is quite interesting to see this project backed by the government of a country that produces and exports a lot of agricultural products.
The Ministry of Agriculture from Israel organized an architectural competition for the design of a new generation of layer hen houses for the North of the country.
It is interesting to see how much architecture is involved in the design of future systems, as it is the case of vertical farming that I mentioned in my article “The vertical farm”
The design had to integrate all aspects of production, including efficiency, energy, sustainability and dealing with waste. It can produce its own energy from litter, and it is equipped with solar panel and wind turbines.
The winning design meets European regulations on animal welfare, and is suitable for free-range production as well as more intensive systems.
The only thing that does not appear in this article is the financial aspects. They do not tell anything about the price of the house and of its cost of operation and maintenance, as well as the impact on the cost price of eggs.
Nanotechnology is the technology of building structures from atoms, molecules or molecular clusters to make materials and devices that have new properties. It is a new field in agriculture and food production, but it offers a wide variety of applications that can help overcome a number of problems we are facing today. They can help improve food safety, traceability, reduce the use of chemicals and reduce waste.
Thanks to nanotechnology, agriculture and food production will be able to use very efficient devices and sensors that can help make better and faster decisions.
For instance, in “Controlled Environment Agriculture”, which is an intensive hydroponics greenhouse system used in the USA, in the European Union and in Japan, nanotechnology is a great fit for the already sophisticated computerized management that optimizes growing conditions.
There is also a lot of potential for precision farming, in which nanoparticles can be used to store and release pesticides and herbicides in a targeted and controlled manner. Nano-clay capsules can store fertilizers and release them slowly, allowing only one application during the cycle of the crop, thus saving time and fuel to the farmer. This helps reducing the use of chemicals, too. Further, nanosensors can be used to measure crop growth, help diagnose diseases even before the farmer can visually notice them, or help him carry out microbiological tests and get results within an hour. The use of nanosensors also helps the farmer make better decisions and act effectively faster than today, as they can help him monitor soil moisture, temperature, pH, nitrogen availability, and in the future could open the path toward a remote farm surveillance system.
In the area of pest control, using nanocapsules is useful in the system called “Integrated Pest Management”. Not only, the problems can be identified earlier, but also plants can be treated much more effectively. Giving treatment to farm animals also can benefit from this technology, which is already used in human medicine.
Nanotechnology is already used for water treatment, and there seem to be many possibilities in that particular field to help solve existing environmental problems. For instance, the American firm Altairnano from Reno, NV produces lanthanum nanoparticles that have the ability to absorb phosphates in water, which offers interesting possibilities to reduce algae growth in ponds and rivers.
Similar applications of nanotechnology can be used to decontaminate soils and groundwater by using iron particles that help break down dioxins and PCBs into less toxic carbon compounds. They also can help remove arsenic from drinking water, a problem that occurs in many regions.
Agriculture is not the only field where this technology can bring benefits, but the food production industry is very interested by the possibilities, too. Some nanodevices can be used to tags food items. This can be of great use to ensure traceability and to help optimize the supply chain. Large retailers like Wal-Mart and Tesco are investigating such devices made out of silicon, but it appears to be too costly at this early stage. We can be sure that this will change in the future.
Food packaging is an area with interesting potential, and there are new packaging materials in development. The nanotechnology helps reducing the risks of food contamination. Some systems reduce the ability for oxygen and gases to travel through the plastic wrap, which extends the shelf life of the product. Other food packaging systems are aimed at controlling the level of humidity, of oxygen, as well as reduce bacteria counts and eliminate any problems of odor and flavor. Antibacterial packaging using nanosilver particles is in development and the applications range from plastic cling wrap to plastic bags, containers, even teapots and kitchenware. Packaging containing nanosensors are made of carbon nanotubes or of titanium dioxide that can be activated by UV help detect microorganisms, toxic protein or food spoilage. The firm AgroMicron, from Hong Kong, has developed a spray which contains a luminescent protein that has been engineered to bind to the surface of microbes such as Salmonella and E. coli. When it is bound, it emits a visible glow, which allows the detection of contaminated food or beverages much more easily.
Developing “molecular food manufacturing” which consists of building food from component atoms and molecules is already a possibility that some are considering. Although such a development is far into the future, such a technology could allow a more efficient and sustainable food production in which less raw materials are consumed, and food that would be obtained would have a higher nutritional quality.
Nanotechnology obviously offers interesting possibilities for food production. Yet, some people express a number of concerns. This is what can bring the next controversy in the food business.
The problem is that nanotechnology in food is relatively new, and we know very little about the long-term effects of using these components. Moreover, because it is so young, food safety regulations are not properly written to deal with this, and the status of the nanoproducts is unclear. One of the concerns is that such particles are very active and very reactive because of their size; and by the nature of the chemicals that they are made of; they could bring health risks as well.
There are new very promising possibilities, but we must be vigilant and address the risks as well, and true progress is about to use this new technology, for our benefit.
Copyright 2009 The Happy Future Consulting Group Ltd.
Coca-Cola will start selling its beverages in a special bottle, called the PlantBottle, which is made from PET plastic and from plant-based materials by the end of 2010. A first launch will take place in Western Canada during the Olympic Games held in Vancouver, BC.
In the US and Canada, the bottles will include 30% of plant material, and the bottles are 100% recyclable. The biological material will come from sugar cane by-products, originating from the production of ethanol, mostly from Brazil. Including this material in the PET plastic reduces the carbon footprint of the bottles, and reduces the dependence on oil-based materials. The benefits are both environmental and economic.
The ultimate goal of the company is to produce bottles that will be made of 100% non-food plant-based materials such as wood chips and wheat stalks.
For further details, read the Coca-Cola press release at http://www.thecoca-colacompany.com/presscenter/presskit_plantbottle.html.
Here is a think-out-of-the-box article about the “vertical farm”.
It is an interesting vision of a replacement of agricultural land, by indoor robot-tended hydroponic agriculture. They also envision the possibility of raising farm animals and developing aquaculture in the water used to grow the plants; and the fish waste would be used as fertilizer.
All of this would be grown in a 30-floor skyscraper located in the city, powered by the energy coming from city sewage, and the ground floor would be a food supermarket that would provide food for 50,000 people.
Such projects are under review in Abu Dhabi, South Korea, Seattle, WA and Las Vegas, NV.
It looks like science-fiction, yet there are some really interesting arguments in favor of such a development.
The level of automation in processing plants have increased continuously over the years and the statement made above makes some sense.
This article from MeatPoultry.com reports of an interview with Jeff Burnstein, president of the Robotics Industries Association. Although there is no specific details of things, if any, that may come, other examples in other food industry can be an indicator of future possibilities.
Something to follow on.
We all have heard about this rule across all industries, including agriculture and food. Eighty percent of the food would be produced on 20% of the farms and vice-versa. If it still applies in the future, it can indicate us how our food production and supplies will look like in the future. Of course, this is always a theoretical exercise, but it is quite convenient to elaborate on our thoughts.
As the population is expected to grow quite strongly in the coming decades, especially in urban areas, this could indicate two dominant trends:
• Further size increase of the largest farms and further industrialization of agriculture and food for global markets, although the number of farms in this segment would not increase strongly.
• Strong increase of the number of small farms involved in specific value chains and strongly linked with their local economy.
Industrial agriculture
This group will continue to be involved in mass production of commodities for global supplies, like this is the case today.
Yet, they will face an increased pressure to adapt to the requirements of sustainability, which technically is quite possible. New systems and more efficient technologies will be the pillars of its growth and development. They will have to find ways of reducing the amount of chemicals in crops and the amount of pharmaceuticals in animal productions
The requirements for capital will be quite high and the sector will be led by increasing larger corporations, by an increasing level of capital by large private investors and, last but not least, by some governments. This agriculture will innovate further and will be developed thanks to this capital. It will use automation and mechanization to reduce the dependence on labor. Mergers & acquisitions will continue in the agricultural sector and a few large blocks will remain, dominating their sectors.
Their mandate will be about more control the natural conditions of production and about reducing to a minimum their impact on air, water and soil, by using less polluting transport methods, water preservation, effluent treatment and soil preservation. They also will have to engage in maintenance of their environment.
The role of this type of agriculture will be to bring to market large amounts of affordable food for the masses, and should play an important role in strategies around food security, which is where corporations and government will interact on a regular basis.
Local food value chains
This sector should undergo a strong growth and be build in a market-driven approach. These are the farmers that produce specialty products aimed at serving either a very specific segment of the retail or foodservice market.
This trend, which has been already initiated around concepts such as organic or authentic, will evolve into a more integrated local economy, and the initial concepts will probably become less differentiated as food production in general, be it industrial or traditional, will use more sustainable techniques.
Contrarily to the common belief, this agriculture will be developed thanks to very efficient techniques, but will be centered relatively more about labor and relatively less about capital. In this case, efficiency does not necessarily mean intensification.
We must not underestimate the significance of this part of the food production, as it will play an important role. However, we must not expect this type of agriculture to be the solution to feed the world, and this is not the purpose of the farmers involved in such food production chains.
This type of farming will grow in two different environments:
In emerging countries, the development of a local agriculture, and aquaculture, will be a key driver of economic development for under industrialized and/or under urbanized regions. It also will be a way of slowing down the migration of population to urban centers and limit social problems, by creating satisfying economic conditions and by securing food supplies locally. This farming will be about basic needs, before marketing.Copyright 2009 The Happy Future Group Consulting Ltd.
Here is a nice illustration of what I meant with my article “Innovation and tradition shape the future“.
This is an article from WorldGrain.com describing the result of a test on a new harvesting system for grain carried out by the USDA. They tested the stripper header on millet and wheat.
The idea of this system is to strip away the grain and leave as long as possible a stubble, so that it protects the soil from erosion and enhances precipitation storage. So far results tend to indicate that yields are not affected by this harvesting method.
Just an example of using new technology and innovation to help improve a rather traditional method of getting organic matter in the soil.
The Food Futurist - Anticipate, Adapt, Succeed 