Wastes from fields and wastes from processing are the two kinds of agricultural wastes. Field wastes are present after harvesting crops and include stems, leaves, and stalks, and waste after processing crops includes seeds, peels, husks, etc.
CO2, humidity and temperature sensors must provide accurate and reliable measurement results to the climate control system in the greenhouse. Inaccurate or even false readings impact on productivity and, in the worst case, can jeopardize the entire harvest.
While there are lighting fundamentals that apply no matter what type of facility growers are operating, there are certain strategies that indoor growers must use to be successful that are different than approaches greenhouse growers take.
While yields are attractive, vertical farms have significant capital required for infrastructure, high land costs, and of course significant energy demands. The reality of these COG dynamics requires that vertical farm operators work hard to optimize their production.
Light has a complex relationship with plants. When the light touches a leaf, it can be absorbed by, reflected from, or transmitted through to other leaves. Plants appear green to us because they reflect and transmit slightly more green light than they do blue or red.
By using a computer vision-controlled system to map terrain and identify the size and location of rocks embedded in the soil, the heavy lifting is done by automated machinery which saves farmers a lot of time and money.
Growers who are able to optimize the supplemental light they provide to plants can eliminate seasonal changes in production cycles, increase crop production, ensure crop consistency and grow quality plants year-round.
What is automation? How can automation help farmers do more with less? Is automation in agriculture a good idea? How is automation transforming the farming industry? Farmer's exploring technology tend to ask the same questions.
Right now, the focus is to take vertical farming to the next level by developing smart robots which can increase precision and productivity, while minimizing environmental impact and risk.
Vertical farming technologies allow for collecting the humidity produced by plants. With recirculating and recycling techniques, hydroponic and aquaponic systems can reuse 98% of water, which makes vertical farms feasible in deserts.
The future of farming was on display at the recent "First China Agricultural Robot Innovation Competition" as teams from universities, scientific research institutes and technology companies showcased their innovations.
When precision is needed to improve the yield of a grow room, consider all the factors that must be controlled. Integrating sensors to monitor these attributes are key to improving the environmental conditions of a grower.
Farmers Edge solutions delivered an integrated software platform that helped the Tollefson Farm become more predictive on a number of fronts.
While applications like autonomous driving get most of the headlines around AI, this technology has become essential to the fabric of our digital lives.
Seeing the potential of drones in reshaping agriculture, Japanese farmers now expect the first mass-produced, lightweight farm robot XAG R150 to reap a higher yield with quality fruits.
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There are a lot of factors to consider when designing a bearing pivot, including lifetime, machine purpose, loading capabilities, and environment. However, the most crucial element is knowing how corrosion, the number one cause of pivot failure, affects the housing, shaft and bushing. Read this blog post to learn how you can achieve a successful, maintenance-free pivot design.