To reduce the high cost of automation in traditional farming, growers have looked towards vertical farming and linear robotics to grow their operations.
Background: While the majority of the world’s agricultural and horticultural products are grown through traditional farming over an outdoor space in natural environments, a growing number of farmers are beginning to embrace modern, vertical farming. Vertical farming is the practice of growing plants in vertically stacked layers. It’s typically done indoors and is highly automated. This provides several benefits:
Many growers use HVAC (heating, ventilation, and air conditioning) and building controls to maintain tight regulation of the environmental temperature, humidity, carbon dioxide, oxygen, and light, as well as systems that care for the plants managing nutrient delivery, watering cycles, and other factors that change with plant growth phases. Understandably, the sophisticated equipment required to manage and tend to the plants can be costly.
That’s why some operators that don’t want to buy (or can’t afford) 20 or 30 systems to service stationary rows of plants instead employ vertical farming composed of movable walls that enter and exit stations serviced by one sophisticated robot that executes several plant-management tasks.
In these operations, rack walls filled with growing plants roll into and out of one or two automated stations for servicing. Cartesian robots at these stations execute various jobs. One function of a Cartesian robot might be to move a vision system around the plants to visually inspect for health and quality — and even track states of growth or collect images for analysis. Other functions might be to move a sampling array around the plants to verify pH levels or to take a trimmer around the plants for pruning.
This design concept borrows from the design of automatic storage and retrieval systems (AS/RS), an industry where Cartesian robots have often been employed. In this use-case, this concept services a living X-Y-Z matrices — using many of the same servomotor-driven gantry designs.
Like AS/RS, vertical farming necessitates linear motion designs capable of long travel distances — as much as 12 to 15 feet wide to 15 feet tall for some vertical farming walls. In addition to wide span capabilities, these systems also need to be able to manage heavy payloads, especially if they will be transporting water. Macron’s versatile H-Bot Gantry Robots are ideally suited for these tasks.
Learn how Macron Dynamics can use it’s AS/RS expertise to support your automated vertical farming operations by reaching out to one of our application engineers.
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