Crop and cultivation assessment
Soil, substrate and hydroponic options are reviewed.
LAYERED PRODUCTION, INTEGRATED TECHNOLOGY
Vertical Farming Systems
We design vertical farming systems around the crop, number of levels, rack layout, working aisles and cultivation method.
Structural racks, LED lighting, irrigation and fertigation, climate control and automation are assessed as one production environment.
- Crop-based rack layout
- Integrated LED and irrigation
- Controlled growing environment
- Modular expandable design
How Is a Vertical Farming System Planned?
Vertical farm design starts with crop height, root-zone needs and the operating cycle. Soil, container, substrate or hydroponic production can be assessed for the project; no method is assumed suitable for every crop. Rack count, tier spacing and depth reflect plant growth, LED clearance, air movement and operator access as well as available volume.
The structure must support growing equipment, water, luminaires and service loads. Row length, module connections and working aisles affect operations. Fitting the maximum number of racks is not sufficient design: harvesting, cleaning, maintenance, material movement and emergency access require usable space.
From Rack Layout to Production Infrastructure
At each level, luminaire height, spectrum and distribution are matched to the crop. Electrical load and lighting heat enter climate planning. Irrigation, drainage and fertigation must reach tiers predictably, avoid standing water and remain safely separated from electrical services. Temperature, humidity and airflow differences between levels influence fans, distribution and sensor placement.
Cable and pipe routes preserve maintenance access. Sensors represent different levels, while central automation coordinates LED, irrigation, fertigation and climate status. Commissioning checks structure, flow, drainage, lighting groups, sensors and scenarios. Where future expansion is expected, modular connections and technical reserves are reviewed during design. Cleaning routes, operator ergonomics and access to valves, sensors and luminaires remain part of the final coordination.
- Crop and cultivation methodSelecting an approach for plant and root-zone needs.
- Racks, levels and aislesCoordinating loads, ergonomics and service access.
- Lighting, water and climate integrationManaging light, drainage and air at each level.
- Automation and commissioningVerifying sensors, equipment, alarms and scenarios.
VERTICAL FARMING SYSTEMS
What Is Included in a Vertical Farm Project?
Space, capacity and layout
Ceiling, tiers, aisles and technical areas are arranged.
Rack and structural design
Geometry, connections and operating loads are defined.
Horticultural LED lighting
Height, distribution and control are planned by tier.
Irrigation, drainage and fertigation
Supply, return and dosing routes remain accessible.
Climate and air movement
Temperature, humidity and airflow differences are assessed.
Sensors and central automation
Measurement, control and alarms are defined.
Installation and commissioning
Mechanical, electrical, flow and control functions are tested.
LAYERED PRODUCTION, INTEGRATED TECHNOLOGY
Vertical Farming Project Process
- 01
Collecting crop, space and production goals
Crop, area, operations and expansion expectations are recorded.
- 02
Defining cultivation and tiers
Root-zone method, level count and geometry are assessed.
- 03
Planning racks, aisles and technical space
Work, harvest, cleaning and equipment access enter the plan.
- 04
Designing LED, water, climate and automation
Capacities, routes and interfaces are coordinated.
- 05
Manufacturing, installation and integration
Racks and services are installed in sequence.
- 06
Testing, adjustment and commissioning
Flow, drainage, light, climate and controls are checked.
Proje takvimi; alan, yöntem, raf düzeni, teknik sistemler ve saha hazırlığı değerlendirildikten sonra belirlenir.
INTEGRATED VERTICAL FARM
Bir Dikey Tarım Sisteminin Katmanları
Raf ve taşıyıcı yapı, LED aydınlatma, sulama ile fertigasyon, iklimlendirme ile hava hareketi ve merkezi otomasyon tek üretim düzeninin bağlantılı katmanlarıdır.
Racks and structure: Modular support for tiers, equipment loads and access.
What Determines Vertical Farm Design?
Yerleşim ve teknik altyapı, ürün ile kullanılabilir alanın birlikte değerlendirilmesiyle belirlenir.
- Crop
- Root, light and climate needs guide the system.
- Plant height
- Tier and luminaire clearances match growth.
- Cultivation method
- Soil, substrate or hydroponics are assessed.
- Area and ceiling height
- Net volume limits racks, aisles and services.
- Tier count and rack size
- Loads, access and workflow are coordinated.
- Working aisles
- Space supports harvest, cleaning and maintenance.
- Light, water and energy
- Capacities and safe routes fit the racks.
- Climate and automation
- Zones, sensors and control define architecture.
Vertical Farming Models
No model suits every crop. Root zone, tier spacing, drainage, hygiene and workflow are assessed.
Hydroponic channel racks
Distribution, return and channel access are coordinated.
Substrate growing racks
Root volume, emitters and drainage are planned.
Soil or container tiers
Loads, watering, cleaning and access are reviewed.
Propagation systems
Tray layout, light and irrigation follow growth stage.
Microgreen racks
Short cycles, tray flow, hygiene and access matter.
Research units
Independent zones and measurements support trials.
How Do Integrated Systems Work Together?
Systems selected independently can create imbalance, maintenance difficulty or infrastructure conflicts.
- 01
LED applies the light program
Each tier follows defined photoperiod and controls.
- 02
Water and fertigation manage roots
Water and supplied recipes reach the correct lines.
- 03
Climate manages the environment
Temperature, humidity and airflow are assessed across tiers.
- 04
Sensors monitor the area
Representative light, climate and status values are measured.
- 05
Central automation coordinates
Programs, states, alarms and manual actions share one system.
Kontrol kapsamı, bağlı ekipmanların arayüzleri ve işletmenin operasyon gereksinimlerine göre proje sırasında belirlenir.
Üretim Alanı Kadar Çalışma Alanı da Planlanır
En fazla rafı sığdırmak doğru tasarım anlamına gelmez. Ergonomi, hava hareketi, ışık dağılımı, bakım ve operasyon erişimi birlikte değerlendirilir; sabit ölçüler proje verisi olmadan standart kabul edilmez.
Raf genişliği ve kat aralığı
- Planlama girdisi
- Ürün hacmi, armatür mesafesi ve ekipman ölçüleri alınır.
- Tasarım yaklaşımı
- Raf ve kat geometrisi üretim düzenine göre kurulur.
- Erişim kontrolü
- Operatörün ürüne ve teknik bileşenlere ulaşması kontrol edilir.
Sıra uzunluğu ve modül bağlantıları
- Planlama girdisi
- Alan biçimi, taşıyıcı düzen ve hat güzergâhları incelenir.
- Tasarım yaklaşımı
- Modüller yapısal ve teknik bağlantılarla bölümlendirilir.
- Erişim kontrolü
- Arıza veya bakımda ilgili bölümün ayrılabilmesi değerlendirilir.
Servis ve çalışma koridorları
- Planlama girdisi
- Personel, kasa, araç ve malzeme hareketi tanımlanır.
- Tasarım yaklaşımı
- Koridorlar günlük operasyon akışına göre konumlandırılır.
- Erişim kontrolü
- Dönüş, geçiş ve acil erişim noktaları açık tutulur.
Bakım, hasat ve ekipman erişimi
- Planlama girdisi
- Armatür, vana, sensör ve yetiştirme ekipmanı konumları belirlenir.
- Tasarım yaklaşımı
- Servis boşlukları ve sökme yönleri yerleşime eklenir.
- Erişim kontrolü
- Bakım işleminin diğer katları gereksiz etkilememesi hedeflenir.
Why Plan Vertical Farming Systems Together?
Balanced conditions between tiers
Light, water and air represent different levels.
Compatible infrastructure
Racks, power, pipes and drainage avoid conflicts.
Maintenance and operations access
Daily work and service have usable space.
Modular expandable structure
Future modules and reserves can be considered.
Üretim Sürekliliği İçin Erişilebilir Tasarım
Hijyen, drenaj ve bakım yaklaşımı proje kapsamına ve uygulama öncesinde belirlenecek gerekli standartlara göre netleştirilir.
- Drenaj ve temizlenebilir hatlar
- Su birikmesini önleyen eğim ve toplama yaklaşımıyla hatların temizlenebilirliği değerlendirilir.
- Su ve elektriğin ayrılması
- Kablo, bağlantı ve su hatları uygun koruma ve güvenli güzergâhlarla düzenlenir.
- Ekipman ve raf altı erişimi
- Armatür, vana, sensör, bağlantı ve raf altlarına temizlik ile bakım erişimi sağlanır.
- Bölgesel ayırma
- Arıza veya bakım sırasında ilgili modülün diğer alanlardan ayrılabilmesi planlanır.
Frequently Asked Questions About Vertical Farming
What is a vertical farming system?
A layered growing system integrating racks, lighting, water, climate, power and automation.
Which crops can be grown vertically?
Suitability depends on height, roots, light, climate and operating goals.
How do soil and hydroponic systems differ?
Root zone, loads, water, drainage, cleaning and operations differ.
How are tier count and spacing set?
Plant height, lighting, loads, airflow, access and ceiling are assessed.
How is LED lighting selected?
Crop, geometry, distance, light target, heat and control are considered.
How do irrigation and fertigation work?
Water and supplied recipes reach tiers; drainage and zones match the method.
Can an existing space be converted?
Structure, height, loads, utilities, climate and access must be reviewed.
What information is needed?
Crop, method, dimensions, tiers, workflow and existing utilities are required.
LET’S PLAN YOUR PROJECT
Let’s Discuss Your Next Project
Share your requirements for a new greenhouse or an existing facility. Our technical team will contact you to develop a practical solution plan.