FreshLeaf Hydro Farms — Operations Plan

The 5-hectare facility will comprise climate-controlled multi-span polyethylene greenhouses equipped with advanced hydroponic growing systems, automated fertigation infrastructure, integrated pest management (IPM) systems, environmental monitoring sensors, and post-harvest packing and cold storage facilities. The facility is designed to operate on a continuous…

FreshLeaf Hydro Farms (Pty) Ltd Business Plan › Operations Plan

Section 8 · Business Plan

Operations Plan

The 5-hectare facility will comprise climate-controlled multi-span polyethylene greenhouses equipped with advanced hydroponic growing systems, automated fertigation infrastructure, integrated pest management (IPM) systems, environmental monitoring sensors, and post-harvest packing and cold storage facilities. The facility is designed to operate on a continuous…

8.1 Farm Infrastructure

The 5-hectare facility will comprise climate-controlled multi-span polyethylene greenhouses equipped with advanced hydroponic growing systems, automated fertigation infrastructure, integrated pest management (IPM) systems, environmental monitoring sensors, and post-harvest packing and cold storage facilities. The facility is designed to operate on a continuous cropping cycle, enabling year-round production independent of external weather conditions.

8.2 Hydroponic Growing Systems

The facility will deploy two primary hydroponic growing systems optimised for the Company’s product portfolio:

Nutrient Film Technique (NFT)

NFT systems will be used for leafy greens and culinary herbs. In NFT, a thin film of nutrient solution flows continuously through shallow channels in which plant roots are suspended. NFT systems offer rapid growth cycles, efficient nutrient uptake, high plant densities, and ease of harvesting, making them ideal for high-turnover leafy crops.

Dutch Bucket System

Dutch bucket systems will be used for fruit vegetables including cherry tomatoes, bell peppers, and cucumbers. Each plant grows in an individual bucket filled with an inert growing medium (perlite or coconut coir), with nutrient solution delivered via drip irrigation. Dutch bucket systems provide the structural support required by larger fruiting plants and enable precise nutrient management for each crop type.

8.3 Production Process

The production process follows a structured workflow encompassing six key stages:

  • Stage 1: Propagation – Seeds are germinated in climate-controlled nursery chambers using rockwool or foam plugs under optimised temperature, humidity, and lighting conditions.

  • Stage 2: Transplanting – Seedlings are transplanted into NFT channels or Dutch buckets once they reach the appropriate vegetative stage, typically 10–14 days after germination.

  • Stage 3: Growing – Plants grow under controlled greenhouse conditions with automated management of temperature, humidity, CO₂ levels, and nutrient solution composition (EC and pH levels).

  • Stage 4: Harvesting – Crops are harvested at optimal maturity and immediately transferred to the packing facility to maintain freshness and cold chain integrity.

  • Stage 5: Post-Harvest Handling – Harvested produce undergoes quality grading, washing (where required), packaging, and labelling in the on-site packing facility.

  • Stage 6: Distribution – Packaged produce is stored in the cold room facility and dispatched to customers via refrigerated transport within 24 hours of harvest.

8.4 Farm Development Timeline

Phase Activity Timeline Capital Allocation
Phase 1 Land preparation and site development Months 1–3 R2,000,000
Phase 2 Greenhouse construction (2.5 ha) Months 3–8 R5,500,000
Phase 3 Systems installation and commissioning Months 7–10 R5,000,000
Phase 4 First commercial harvest Month 12
Phase 5 Phase 2 greenhouse expansion (2.5 ha) Months 12–18 R5,500,000
Phase 6 Full production capacity achieved Month 24

8.5 Technology and Automation

The facility will incorporate advanced agricultural technology systems to maximise production efficiency and minimise labour costs:

  • Automated fertigation systems with real-time EC and pH monitoring and adjustment.

  • Environmental control systems (temperature, humidity, ventilation, shade screens) managed by central greenhouse management software.

  • IoT sensor networks for continuous monitoring of plant health, nutrient levels, and environmental conditions.

  • Data analytics platform for yield optimisation, predictive maintenance, and resource efficiency tracking.

  • A 200kW solar photovoltaic installation to offset approximately 40% of the facility’s electricity consumption and reduce exposure to Eskom tariff escalations and load shedding disruptions.

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