| Agricultural system (2) |  |
| Agronomy (5) | |
| Farming (10) | |
| Greenhouse (37) | |
| Agricultural system (2) | |
| Agronomy (5) | |
| Farming (10) | |
| Greenhouse (37) | |
and plant sciences department. f a population from the blue soup region mixes with a population from the red soup region their offsprings would appear as a purple soup. he more genetic admixture that takes place,
The Astronaut 4 is one of a range of robotic farming systems made by Lely, including robotic cowshed cleaners and forage pushers.
Submissions ranged from self-filling water bottles, to extreme dehumidification, to a large-scale water sources for greenhouse drip irrigation, to emergency water for lifeboats, to self-filling canteens for the military,
They can use greenhouses in order to take advantage of the sun s energy, or grow indoors with the help of artificial lights.
It takes advantage of the vertical space of city buildings rather than turning over wide expanses of land to agriculture and uses advanced greenhouse technology:
Singapore has taken local urban farming to a high level Skygreens has built the world s first commercial vertical farm in large three-story greenhouses, providing a sustainable source of fresh vegetables.
Considerable energy is required to power a closed, indoor greenhouse facility s artificial lighting, heating and cooling
and wind turbines with greenhouses to provide self-generated renewable electricity on-site. But the single technology that will be key to making vertical farms possible is lighting.
There is potential for these multifunctional techno-greenhouses built around LED grow lights to increase the quality of the food we eat
But this isn just a greenhouse: Toshiba plant factory will be a high-tech facility. Itl include optimized lights set to a wavelength to grow perfect plants
Those and other smarter farming methods including techniques used early in the growing cycle are reducing weather-related crop damage by as much as 25 percent in some areas ensuring that fewer crops are wasted
Coupling predictive analytics and modeling techniques with other sophisticated farming methods can prove to be quite beneficial
Calling this"the best documented case of efficient biocontrol in open agricultural systems, "the researchers think more farmers should make use of ant control.
though hydrogen-fuelled airliners would not emit greenhouse-increasing gases such as carbon dioxide, sulphur oxides or soot like today subsonic airplanes,
the system could provide enough water to irrigate a small farm m
#Putting Sensors In Bridges And Tunnels Could Make Their Walls Talk Trying to get a building to tell you how it feeling is,
but alone they won't be enough to curb greenhouse emissions given the projected rise in demand for cars globally
Sensor-based irrigation systems show potential to increase greenhouse profitability Wireless sensor-based irrigation systems can offer significant benefits to greenhouse operators.
Advances in sensor technology and increased understanding of plant physiology have made it possible for greenhouse growers to use water content sensors to accurately determine irrigation timing and application rates in soilless substrates.
The authors of a report published in Horttechnology said that the use of sensor-based irrigation technology can also accelerate container and greenhouse plant production time.
#Argentine greenhouse robot brings automation to the masses BUENOS AIRES--The new Trakür agricultural robot does not have the brains, firepower or complexity of one of the Transformers,
for its Spanish initials) to promote automation in Argentine greenhouse agrobusiness. Designed to apply pesticides in greenhouses,
the Trakür is meant to increase production of vegetables and flowers while protecting farm workers--who in the past would apply pesticides by hand--from the toxicity of the chemicals."
"When one applies these chemicals in a confined environment like a greenhouse, one likelihood of intoxication increases notably,
Designed for small farmers who, because of Argentina's regular economic collapses, are not eager or able to make large investments,
Thus, the Trakür could make farm automation possible not only for small farmers in Argentina but also for those in developing countries around the globe.
Greenhouse robots are generally small wheeled vehicles that carry a tank of pesticide, a sprayer to distribute the liquid,
and the amount of remaining chemical to a computer outside the greenhouse, where an operator directs the Trakür virtually.
which is selling technology that its founder first put to the test in Turkish greenhouses,
-or solar-powered sensors that are distributed in a greenhouse or field. These sensors connect to backend servers that process the data collected,
since about 2005 in hundred of installations in Turkey focused on growing greenhouse tomatoes. Those systems were sold by Climateminder's predecessor corporation,
#How LEDS Are Set to Revolutionize Hi-tech Greenhouse Farming It won't come as a surprise to discover that consumers all over the developed world are increasingly demanding seasonal vegetables all year round even
Which is why greenhouse farming has become a major factor in the food supply of the developed world.
Consequently the number of commercial greenhouses and the area they occupy is rocketing. In The netherlands for example greenhouses occupy around 0. 25 percent of the land area of the entire country.
And The netherlands isn t even the largest producer of greenhouse vegetables in Europe. That position is held by Spain.
And the largest producer of greenhouse vegetables in the world is now China. This kind of farming has a significant impact on the environment.
Commercial greenhouses have to be lit and heated in a way that optimizes growth. And up to 35 percent of the cost of greenhouse tomatoes comes from this heating and lighting.
So an important question is how to minimize the energy it takes to grow these crops.
One obvious answer is to convert greenhouses from the traditional incandescent lighting usually high pressure sodium lamps to more energy-efficient LEDS.
That might seem like an economic no-brainer but the industry has been slow to make this change because of the high initial cost of LEDS.
These guys have compared the life-cycle costs of traditional high pressure sodium lamps against those of LEDS for greenhouse lighting.
For the moment the strategy for greenhouse farmers seems clear: convert to LED lighting as quickly as possible.
Greenhouses allow for a wider variety of fruit and vegetable for a given climate. LEDS give farmers greater flexibility at a lower cost and a smaller environmental footprint.
Italy. he main target of this project is to create alternative sources of plant production in areas where environmental conditions make it extremely difficult to grow crops through conventional farming,
including underground, inside a skyscraper, in a tiny greenhouse and even in the cloud, to try and deal with the issue.
in agriculture, more effective harvesting of solar energy and its conversion into heat via greenhouses could enable year-round production as well as access to crops not currently available in certain climates.
which helps agronomists to verify in real time if plants are enjoying good health. Infrared imagine of an experimental field of wheat in Cigliano, near Vercelli.
Agronomists need to verify if a poor state of health is caused by disease or a lack of water anyway,
Connecting these results with those gathered by agronomists and sensors on the ground, the farmer can have a complete overview of
allowing agronomists and farmers to check the results in real time. Despite the strict parameters that define a Slow food presidium,
sustainable farming business. rowing Underground (love the name!)uses hydroponics systems and LED lighting to produce a range of vegetables
but it also provides the latest glimpse of how farming is moving into the 21st Century thanks to some pioneering high-tech agriculture ideas.
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