Conventional “open air” field farming benefits from free natural resources provided by sunlight, air circulation, and rainfall. While these free resources can be great assets, they can also become liabilities when conditions change beyond the toleration limits of a crop. Nature dictates which plant varieties can be successfully grown in any particular geography, and these conditions can and do change over time.
Farming within an enclosure can provide relief from several variables—such as inclement weather, pest infestation, disease, and seasonal variation—that could otherwise adversely impact the ultimate success of a crop. Furthermore, enclosures enable farming of crops in otherwise unsuitable geographies or seasons. These benefits are offset by increased costs of the enclosure and the resources used to control the resulting environment within the structure. Farming with an enclosure can be achieved using greenhouse farming, container farming and various related technologies.
A light panel 21, a light panel 22, a light panel 23, a light panel 24, a light panel 25 and a light panel 26 are mounted on light support system 103 at various locations over grow trays 11 through 19. As shown in
For example, on each of light panels 21 through 26 are arranged first lights 41 and second lights 42. For example, first lights 41 are a first color and second lights 42 are a second color different than the first color. For example, the first color is blue and the second color is red. Alternatively, the first color and the second color can be any colors that are different and are used to grow plants.
The pattern of first lights 41 and second lights 42 on each of light panels 21 through 26 can vary to allow for each location in a tray to be closer to either one of first lights 41 or one of second lights 42. The variation of the pattern of lights for light panels 21 through 26 can be controlled to ensure that over the course of each of trays 11 through 19 traversing across shelf 10 towards stop 104 (shown in
The pattern of first lights 41, second lights 42 and third lights 43 can be used to vary the specific light spectrum and intensities at various locations along shelf 10. This allows adjustment of lighting to be most appropriate for each stage of plant growth or plant variety. Coordination of tray placement and light arrangement can thus be configured to ensure optimal growth conditions for plants within grow trays 11 through 19.
Arrangement of grow trays 11 through 19 on shelf 10 (shown in
For example,
When grow tray 17, grow tray 18 and grow tray 19 are replaced on shelf 10 so that grow tray 17 is adjacent to grow tray 16 this returns the arrangement of grow trays 11 through 19 to the configuration shown in
Using the cycle illustrated by
One or more grow trays at the lower left of grow tray 220 may then be removed, watered and placed in open area 212 in shelf 210. The remaining grow trays on shelf 220 slide down and to the left, leaving an open area 222 in shelf 220. This is shown in
One or more grow trays at the lower left of grow tray 230 may then be removed, watered and placed in open area 222 in shelf 220. The remaining grow trays on shelf 230 slide down and to the left, leaving an open area 232 in shelf 230. This is shown in
One or more grow trays at the lower left of grow tray 240 may then be removed, watered and placed in open area 232 in shelf 230. The remaining grow trays on shelf 240 slide down and to the left, leaving an open area 242 in shelf 240. This is shown in
One or more grow trays at the lower left of grow tray 250 may then be removed, watered and placed in open area 242 in shelf 240. The remaining grow trays on shelf 250 slide down and to the left, leaving an open area 252 in shelf 250. This is shown in
For large grow operations, an array of racks can be used and configured for flow of grow trays through multiple lighting configurations. In this case, grow trays can flow from rack to rack. Lighting configuration at each shelf of each rack can be varied to take into account different stages of growth for plants within the grow trays. For example,
For example, row of racks 50 is shown to include a rack 51, a rack 52, a rack 53, a rack 54, a rack 55, a rack 56, a rack 57, a rack 58, a rack 59, a rack 60, a rack 61. Row of racks 70 is shown to include a rack 71, a rack 72, a rack 73, a rack 74, a rack 75, a rack 76, a rack 77, a rack 78, a rack 79, a rack 80, a rack 81. Row of racks 90 is include to support a rack 91, a rack 92, a rack 93, a rack 94, a rack 95, a rack 96, a rack 97, a rack 98, a rack 99, a rack 100, a rack 101. Row of racks 110 is shown to include a rack 111, a rack 112, a rack 113, a rack 114, a rack 115, a rack 116, a rack 117, a rack 118, a rack 119, a rack 120, a rack 121. For example, each rack has multiple shelves arranged in a vertical configuration, as is illustrated in
On the shelves of each rack, grow trays may be laid out in one or more lanes. For example,
For example, row of racks 50, row of racks 70 and row of racks 90 have lighting configured to maximize vegetative healthy growth while row of racks 110 has lighting configured to maximize healthy flowering. As grow trays traverse through rows of racks 50, 70, 90 and 110, they progress through a complete growth cycle.
For example, after a period of hours or days, an adjustment is made to the grow trays arranged on the racks. Gravity is used so that after one or more grow trays are removed from a rack, other grow trays on the rack slide down the rack. The locations made available by grow trays sliding to the left may be taken up by other grow trays placed on the rack. For example, trays can flow from rack to rack and from row of racks to row of racks in a predetermined order to facilitate cycles of growth.
For example, in one implementation, grow trays might spend days one through three in rack 51, top shelf. At the end of day three, three grow trays are removed from the top shelf of rack 51, watered, and then placed on the top shelf of rack 71. The grow trays then spend days four through six in the top shelf of rack 71, then removed, watered, and placed into the top shelf of rack 91 and so on. A complete cycle in this implementation for the three grow trays would be twelve days through racks 51, 71, 91, and 111, all on the same shelf level. Racks 51, 71, 91, and 111 can each have different lighting configurations to optimize the desired growth stage. Arrow 125 illustrates this flow. This is just one implementation, as the flow pattern of grow trays through arrays of racks can be configured according to user preference.
Although the present invention has been described in accordance with the embodiments shown, one of ordinary skill in the art will readily recognize that there could be variations to the embodiments, and those variations would be within the spirit and scope of the present invention. Accordingly, many modifications may be made by one of ordinary skill in the art without departing from the spirit and scope of the appended claims.
Number | Name | Date | Kind |
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5673511 | Holtkamp, Jr. | Oct 1997 | A |
8677942 | Bodlovich | Mar 2014 | B2 |
9357752 | Collinson | Jun 2016 | B2 |
11212969 | Baras | Jan 2022 | B1 |
20180343810 | Counne | Dec 2018 | A1 |
Number | Date | Country |
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112020015542 | Feb 2021 | BR |
3097969 | Oct 2019 | CA |
Entry |
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DE 102011050545 B3, English translation (Year: 2012). |
Number | Date | Country | |
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20190239447 A1 | Aug 2019 | US |
Number | Date | Country | |
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Parent | 15255137 | Sep 2016 | US |
Child | 16387409 | US |