A framework for evaluating the topic
Planning note: Not every crop that can grow indoors is operationally or commercially suitable for vertical farming; crop and system are assessed together.
Match crop cycle, architecture, root zone, harvest method and climate requirements with NFT, DWC, substrate and propagation systems. This resource provides general technical information. Final capacity, equipment and implementation choices require engineering calculations based on site and project data.
A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability.
NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently.
Crop choice is not based on biological feasibility alone; the workflow from seeding to packing and sanitation changeover must be mapped.
Topics covered in technical assessment
Crop cycle and harvest frequency
A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability.
Plant height and canopy width
NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently.
Root volume and oxygen demand
Crop choice is not based on biological feasibility alone; the workflow from seeding to packing and sanitation changeover must be mapped.
Light target and photoperiod
A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability.
Temperature, humidity and airflow
NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently.
Labour flow from seeding to harvest
Crop choice is not based on biological feasibility alone; the workflow from seeding to packing and sanitation changeover must be mapped.
NFT, DWC, aeroponic or substrate choice
A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability.
Sanitation and crop-change time
NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently.
Planning and comparison logic
Match crop cycle, architecture, root zone, harvest method and climate requirements with NFT, DWC, substrate and propagation systems.
| Input to verify | Effect on the decision | How to verify it |
|---|---|---|
| Crop cycle and harvest frequency | A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability. | Light target and photoperiod |
| Plant height and canopy width | NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently. | Temperature, humidity and airflow |
| Root volume and oxygen demand | Crop choice is not based on biological feasibility alone; the workflow from seeding to packing and sanitation changeover must be mapped. | Labour flow from seeding to harvest |
Common mistakes
Labour flow from seeding to harvest
NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently.
NFT, DWC, aeroponic or substrate choice
Crop choice is not based on biological feasibility alone; the workflow from seeding to packing and sanitation changeover must be mapped.
Sanitation and crop-change time
A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability.
Why does this matter in your project?
Planning note: Not every crop that can grow indoors is operationally or commercially suitable for vertical farming; crop and system are assessed together.
This resource provides general technical information. Final capacity, equipment and implementation choices require engineering calculations based on site and project data.
Explore the related systemTechnical references
Frequently Asked Questions: Selecting Crops and Growing Systems for Vertical Farming
How should crop cycle and harvest frequency be assessed?
A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability.
How should plant height and canopy width be assessed?
NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently.
How should root volume and oxygen demand be assessed?
Crop choice is not based on biological feasibility alone; the workflow from seeding to packing and sanitation changeover must be mapped.
How should light target and photoperiod be assessed?
A short cycle and compact canopy support space use, but selling value, waste rate and harvest labour also determine system suitability.
How should temperature, humidity and airflow be assessed?
NFT reacts quickly with low solution volume, DWC provides a larger buffer, and substrate systems manage the root zone and drainage differently.