Minimum Qualification
10th pass or equivalent
Programme Overview
The Professional Certificate in Hydroponic Production & Enterprise Operations is a 90-day advanced, competency-based programme designed to develop technical, operational and managerial competencies required in modern hydroponic and Controlled Environment Agriculture (CEA). Building upon the 30-Day foundation, the programme equips learners with advanced knowledge in protected cultivation, crop planning, smart monitoring, automation, compliance and commercial farm management, preparing them for professional roles in production, farm operations and hydroponic enterprises.
Programme Objectives
- To develop advanced knowledge of hydroponic production and protected cultivation systems.
- To strengthen technical decision-making in crop health, crop planning and production management.
- To develop competency in automation, sensors, environmental monitoring and smart farm operations.
- To build professional competency in commercial farm management, quality compliance and enterprise operations.
- To prepare learners for employment, career progression and entrepreneurship in Controlled Environment Agriculture (CEA).
Programme Outcomes
- Apply advanced principles of hydroponic production and protected cultivation in commercial farming systems.
- Plan crop production cycles, resource utilization and farm operations for efficient commercial production.
- Interpret environmental, production and monitoring data to support technical and operational decision-making.
- Evaluate crop health strategies, automation systems and compliance requirements for commercial hydroponic production.
- Demonstrate professional competency for employment, farm management or enterprise development in Controlled Environment Agriculture (CEA).
Curriculum Overview
Explore all 16 training units below with detailed terminal, theory, and practical outcomes. Download the official syllabus PDF for complete module details.
Topics: Evolution of farming systems, hydroponics introduction, soil vs hydroponics comparison, and applications in controlled environment agriculture.
Terminal Outcomes
- Explain the concept and significance of Controlled Environment Agriculture (CEA).
- Compare conventional farming with hydroponic cultivation.
- Identify major applications and opportunities in hydroponics and Controlled Environment Agriculture (CEA).
Theory – Key Learning Outcomes
- Explain the evolution of agricultural production systems and the need for Controlled Environment Agriculture (CEA).
- Define hydroponics and describe its principles.
- Differentiate between soil-based cultivation and hydroponic production systems.
- Explain the advantages and limitations of hydroponic farming.
- Identify different applications of hydroponics in commercial, urban and protected agriculture.
- Describe the role of hydroponics in food security, water conservation and sustainable agriculture.
- Explain the scope of hydroponic farming, CEA and emerging career opportunities.
Topics: Hydroponic system types, system selection criteria, growing media types, media properties, and media selection logic.
Terminal Outcomes
- Explain different hydroponic production systems and growing media used in Controlled Environment Agriculture.
- Select suitable hydroponic systems and growing media based on crop and production requirements.
- Demonstrate the preparation and commissioning of hydroponic production systems for crop establishment.
Theory – Key Learning Outcomes
- Explain the working principles of major hydroponic production systems.
- Describe the major components and their functions in hydroponic production systems.
- Differentiate between media-based and media-less hydroponic production systems.
- Compare Wick, Kratky, DWC, NFT, DFT, Drip, Ebb & Flow, Vertical Tower and other systems.
- Select appropriate hydroponic systems based on crop type, production scale and commercial application.
- Describe the characteristics and functions of growing media used in hydroponic cultivation.
- Compare physical & chemical properties of Cocopeat, Perlite, Vermiculite, Rockwool & LECA.
- Select suitable growing media for different hydroponic crops.
- Explain growing media preparation, sterilization and reuse practices.
- Explain the importance of root-zone aeration, moisture retention and drainage.
Practical – Key Learning Outcomes
- Identify and compare different hydroponic production systems available at training centre.
- Identify major components of different hydroponic production systems available at training centre.
- Assemble, disassemble and inspect hydroponic production system components safely.
- Prepare, hydrate and condition different growing media before use.
- Fill nursery trays and net pots using recommended growing media.
- Transplant seedlings into appropriate hydroponic production systems.
- Prepare and fill microgreen trays using appropriate growing media and recommended practices.
- Inspect reservoirs, pumps, pipelines, distribution lines, cultivation units & irrigation components.
- Demonstrate cleaning, sterilization and preventive maintenance of hydroponic systems.
- Perform routine inspection of hydroponic system components before crop establishment.
- Verify system functionality before initiating crop production.
- Record system inspection and maintenance activities in the Hydroponic Production Log Book.
Topics: Microgreens production framework, seed biology, substrate science, seed density calculation, and germination physiology.
Terminal Outcomes
- Explain the scientific principles of seed biology and commercial microgreen production.
- Demonstrate scientific seed handling, sowing and germination techniques for microgreen cultivation.
- Produce high-quality microgreens by following standard production practices.
Theory – Key Learning Outcomes
- Explain the concept, characteristics and commercial importance of microgreens.
- Differentiate between sprouts, microgreens, baby leaf vegetables and mature leafy vegetables.
- Describe the morphology and structure of a seed.
- Explain seed dormancy, viability and vigour.
- Explain the factors affecting seed germination.
- Describe the physiological stages of seed germination.
- Explain the influence of temperature, moisture, oxygen and light on seed germination.
- Describe the criteria for selecting seeds for commercial microgreen production.
- Explain the properties and selection of growing media for commercial microgreen cultivation.
- Explain the effect of seed density on germination, crop uniformity and yield.
- Explain blackout management and its role in commercial microgreen production.
- Describe irrigation and moisture management during microgreen cultivation.
Practical – Key Learning Outcomes
- Identify seeds suitable for commercial microgreen production.
- Evaluate seed quality through visual inspection and physical characteristics.
- Calculate seed quantity based on tray dimensions and recommended seed density.
- Prepare and level growing media for uniform seed sowing.
- Sow seeds uniformly using recommended commercial practices.
- Demonstrate proper irrigation and moisture management during germination.
- Implement blackout management using appropriate covering materials.
- Monitor germination percentage, seedling emergence and crop uniformity.
- Remove blackout covers at the appropriate growth stage.
- Maintain hygiene and sanitation throughout the production cycle.
- Harvest microgreens using recommended harvesting practices.
- Record germination, observations, yield and harvest data in Microgreen Production Log Book.
- Clean, sanitize and prepare trays and equipment for subsequent production cycles.
Topics: Root respiration, mold biology, photosynthesis, transpiration, and root physiology in water-based systems.
Terminal Outcomes
- Explain the physiological processes governing plant growth in hydroponic systems.
- Evaluate root health and plant performance based on physiological characteristics.
- Identify physiological disorders affecting hydroponically grown crops.
Theory – Key Learning Outcomes
- Explain the structure and functions of roots in hydroponically grown crops.
- Describe the process of root respiration and its role in water and nutrient absorption.
- Explain the principles of photosynthesis and its contribution to plant growth.
- Describe the process of transpiration and its role in plant water movement.
- Explain the translocation of water, minerals and photosynthates within plants.
- Describe the relationship between root-zone oxygen availability and root development.
- Explain factors influencing root growth and architecture in hydroponic systems.
- Describe the causes and symptoms of common root-zone disorders.
- Explain occurrence and development of moulds affecting seedlings and root systems.
- Describe physiological disorders affecting hydroponic crop growth.
- Explain the relationship between plant physiological processes and crop productivity.
Practical – Key Learning Outcomes
- Observe and distinguish healthy and unhealthy root systems in hydroponic crops.
- Examine root colour, structure, branching and vigour to assess root health.
- Identify symptoms of root stress, oxygen deficiency and root-zone disorders.
- Observe physiological abnormalities affecting plant growth and development.
- Compare root growth and development at different crop growth stages.
- Measure and record plant growth parameters (height, leaf number, canopy).
- Assess crop vigour through visual plant health evaluation.
- Identify mould development affecting seedlings and root systems.
- Demonstrate root-zone hygiene practices to promote healthy crop growth.
- Record root health observations in Hydroponic Production Log Book.
Topics: Essential growth parameters, plant lighting science, climate control, and growth-rate determinants.
Terminal Outcomes
- Explain the role of environmental parameters in the production of hydroponically grown crops.
- Monitor and interpret environmental conditions within a Controlled Environment Agriculture (CEA) facility.
- Operate environmental control systems to maintain optimum crop growth conditions.
Theory – Key Learning Outcomes
- Explain the concept of plant microclimate in Controlled Environment Agriculture.
- Describe the effect of air temperature on crop growth and development.
- Explain the influence of relative humidity on plant performance.
- Describe the concept and significance of Vapour Pressure Deficit (VPD) in CEA.
- Explain the principles of light intensity, light quality, photoperiod and Daily Light Integral (DLI).
- Describe the role of carbon dioxide (CO₂) in plant productivity.
- Explain the role of air movement and ventilation in maintaining optimum crop growing conditions.
- Describe environmental control methods used to regulate temperature and humidity in CEA.
- Explain environmental monitoring instruments and their applications.
- Interpret environmental data for effective crop management and production decision-making.
Practical – Key Learning Outcomes
- Measure and record air temperature and relative humidity using monitoring instruments.
- Measure and record PPFD at crop canopy level.
- Monitor and interpret VPD using environmental data.
- Monitor and record photoperiod and lighting schedules.
- Operate environmental control systems available at training centre.
- Monitor airflow and ventilation within hydroponic production areas.
- Assess the influence of environmental conditions on hydroponically grown crops.
- Record daily environmental observations in Hydroponic Production Log Book.
- Compare recorded environmental conditions with recommended crop-specific parameters.
- Verify accuracy and proper operation of environmental monitoring instruments before use.
- Prepare a basic environmental monitoring report using observations recorded during crop cycle.
Topics: Essential nutrients, ion dynamics, and water chemistry for hydroponic production.
Terminal Outcomes
- Explain the principles of plant nutrition and water chemistry in hydroponic systems.
- Prepare and manage nutrient solutions for hydroponically grown crops.
- Monitor and maintain nutrient solution quality to ensure optimum plant growth.
Theory – Key Learning Outcomes
- Explain essential macro and micronutrients required for hydroponic crop production.
- Describe functions, mobility and deficiency symptoms of essential plant nutrients.
- Explain principles of nutrient solution chemistry and nutrient availability.
- Describe the importance of water quality in hydroponic nutrient management.
- Explain significance of pH, EC, TDS and alkalinity in nutrient management.
- Describe influence of water quality parameters on nutrient uptake and crop performance.
- Explain preparation and storage of stock nutrient solutions.
- Describe nutrient solution mixing procedures and dilution principles.
- Explain nutrient solution monitoring, replenishment and replacement practices.
- Describe common nutrient imbalances and corrective measures in hydroponic systems.
Practical – Key Learning Outcomes
- Collect water samples for quality assessment.
- Measure and record pH, EC and TDS using digital instruments.
- Interpret water quality test results for hydroponic nutrient preparation.
- Determine suitability of available water sources for hydroponic nutrient preparation.
- Prepare stock nutrient solutions following recommended formulations.
- Prepare working nutrient solutions for hydroponic production systems.
- Calculate and adjust nutrient concentrations according to crop requirements.
- Adjust nutrient solution pH using appropriate corrective agents.
- Replenish and replace nutrient solutions in hydroponic reservoirs.
- Monitor nutrient solution quality throughout production cycle.
- Calibrate pH, EC and TDS meters before use.
- Clean, maintain and store nutrient preparation equipment and measuring instruments.
- Record nutrient preparation, monitoring and adjustment in Hydroponic Production Log Book.
Topics: System structure, maintenance, root-zone pathology, leaf disorders, and pest management basics.
Terminal Outcomes
- Operate and maintain hydroponic production systems for efficient crop cultivation.
- Identify system faults and perform routine troubleshooting and preventive maintenance.
- Implement crop protection strategies to maintain healthy hydroponic production systems.
Theory – Key Learning Outcomes
- Explain engineering principles of water circulation and irrigation in hydroponic systems.
- Describe operation and functions of pumps, pipelines, valves, filters and irrigation accessories.
- Explain preventive maintenance practices for hydroponic production systems.
- Describe common mechanical & operational failures and corrective measures.
- Explain sanitation, hygiene and biosecurity protocols.
- Describe principles of Integrated Pest Management (IPM) in CEA.
- Identify major insect pests, diseases and physiological disorders affecting crops.
- Explain pest and disease monitoring techniques for early detection.
- Describe biological, physical and chemical crop protection methods.
- Explain safe handling, storage and responsible use of crop protection products.
Practical – Key Learning Outcomes
- Inspect pumps, pipelines, valves, reservoirs and irrigation components for operation.
- Perform routine cleaning and preventive maintenance of hydroponic systems.
- Identify and rectify common operational faults in hydroponic production systems.
- Flush and sanitize irrigation systems, production equipment and containers.
- Inspect crops for signs of insect pests, diseases and physiological disorders.
- Monitor insect pests and disease incidence using routine crop scouting techniques.
- Demonstrate safe preparation and application procedures for crop protection products.
- Maintain hygiene and sanitation in hydroponic and microgreen production areas.
- Dispose of infected plant material following recommended safety procedures.
- Record maintenance activities and protection measures in Hydroponic Production Log Book.
Topics: High-demand crops, crop morphology, yield science, and harvest indicators.
Terminal Outcomes
- Identify commercially important hydroponic crops and their production requirements.
- Plan and manage crop production from transplanting to harvest.
- Evaluate crop performance based on commercial production standards.
Theory – Key Learning Outcomes
- Classify hydroponic crops based on growth habit and commercial application.
- Describe production requirements of leafy vegetables, herbs, fruiting vegetables and microgreens.
- Explain crop selection based on climate, production system and market demand.
- Describe growth and development stages of commercially important crops.
- Explain crop spacing, planting density and canopy management principles.
- Describe crop scheduling for continuous commercial production.
- Explain crop maturity indices for commercially important hydroponic crops.
- Describe factors affecting crop quality, uniformity and marketability.
- Explain crop yield estimation and production efficiency.
- Describe production planning for year-round hydroponic cultivation.
Practical – Key Learning Outcomes
- Identify commercially important hydroponic crops cultivated at training centre.
- Classify hydroponic crops based on growth habit and commercial application.
- Compare crop production requirements for leafy vegetables, herbs, fruiting crops & microgreens.
- Select appropriate hydroponic production systems for different crops.
- Identify crop growth stages in commercially grown hydroponic crops.
- Assess crop spacing, planting density and canopy development under commercial conditions.
- Determine crop maturity using recommended maturity indices.
- Estimate crop yield using crop observations and production records.
- Evaluate crop quality and marketability based on commercial standards.
- Prepare a basic crop production plan for continuous hydroponic cultivation.
Topics: Post-harvest physiology, handling, storage, hygiene, and packaging hygiene.
Terminal Outcomes
- Apply post-harvest handling practices to maintain quality and shelf life of hydroponic produce.
- Implement food safety, hygiene and traceability practices during post-harvest operations.
- Prepare hydroponic produce for storage, transportation and marketing.
Theory – Key Learning Outcomes
- Explain objectives and importance of post-harvest management in hydroponic production.
- Describe physiological changes occurring in fresh produce after harvest.
- Explain factors affecting post-harvest quality and shelf life of leafy greens, herbs & microgreens.
- Describe post-harvest handling chain from harvest to consumer.
- Explain grading standards and quality parameters for hydroponic produce.
- Describe cleaning, washing and sanitization practices for fresh produce.
- Explain packaging materials and packaging methods for hydroponic produce.
- Describe storage and cold chain requirements for maintaining produce quality.
- Explain principles of food safety, personal hygiene and contamination prevention.
- Describe traceability requirements and quality assurance in produce supply chains.
Practical – Key Learning Outcomes
- Harvest hydroponically grown produce using hygienic harvesting practices.
- Handle harvested produce to minimize mechanical damage and quality loss.
- Sort and grade produce according to commercial quality standards.
- Clean and sanitize harvested produce using recommended procedures.
- Select appropriate packaging materials for different hydroponic produce.
- Pack and label produce according to basic traceability and marketing requirements.
- Store harvested produce under recommended environmental conditions.
- Maintain hygiene and sanitation in the post-harvest work area.
- Follow food safety protocols during harvesting, handling and packaging operations.
- Record post-harvest operations in Hydroponic and Microgreen Log Books.
Topics: Standard Operating Procedures (SOPs), farm operations, production records, data analytics, farm economics, inventory management, packaging, entrepreneurship, business management, and career development.
Terminal Outcomes
- Apply Standard Operating Procedures (SOPs) for commercial hydroponic farm operations.
- Maintain production records and interpret farm data for operational decision-making.
- Demonstrate basic entrepreneurship and professional skills required for employment in hydroponics.
Theory – Key Learning Outcomes
- Explain importance of Standard Operating Procedures (SOPs) in commercial production.
- Describe routine operational activities performed in commercial hydroponic farms.
- Explain purpose and importance of production records and farm documentation.
- Describe use of production data for crop monitoring and decision-making.
- Explain basic production costing and resource utilization in hydroponic farming.
- Describe inventory and consumable management practices in commercial farms.
- Explain fundamentals of hydroponic entrepreneurship and business opportunities.
- Describe workplace ethics, communication skills and professional behaviour expected.
- Explain career opportunities, job roles and skill requirements in CEA.
- Describe interview preparation, resume writing and career development.
Practical – Key Learning Outcomes
- Follow Standard Operating Procedures during routine farm operations.
- Maintain Hydroponic Production Log Book and Microgreen Production Log Book accurately.
- Compile and interpret production data collected during the crop cycle.
- Prepare basic production reports using crop performance and operational records.
- Estimate input consumption and basic production costs for a crop cycle.
- Maintain inventory records for seeds, growing media, nutrients and consumables.
- Demonstrate effective teamwork and communication during routine farm operations.
- Demonstrate proper workplace documentation and reporting practices.
- Interpret production records to support operational decision-making.
- Prepare and present a comprehensive crop production report based on practical work.
Topics: Site selection, protected cultivation structures, environmental control, irrigation and fertigation, climate management, and basic automation.
Terminal Outcomes
- Explain principles and applications of protected cultivation systems used in commercial agriculture.
- Select appropriate protected structures and environmental control strategies based on crop requirements.
- Operate and manage protected cultivation systems for efficient crop production.
Theory – Key Learning Outcomes
- Explain concept and importance of protected cultivation in modern agriculture.
- Differentiate between polyhouse, greenhouse, net house, shade house and other structures.
- Explain criteria for site selection (climate, topography, water, power, market access).
- Classify structures based on design, covering materials and environmental control.
- Explain principles of natural and forced ventilation in protected cultivation.
- Describe shading, cooling and humidity management methods used in protected structures.
- Explain principles of drip irrigation and fertigation in protected cultivation.
- Describe environmental factors affecting crop performance inside protected structures.
- Explain integration of hydroponic production systems within protected cultivation.
- Describe role of basic automation in protected cultivation systems.
- Explain transition from soil-based cultivation to soilless cultivation under protected environments.
Practical – Key Learning Outcomes
- Evaluate and select suitable sites for protected cultivation using standard site selection criteria.
- Explain principles of structure orientation & layout planning for light interception & ventilation.
- Identify different types of protected cultivation structures through visits & models.
- Evaluate suitability of protected structures for different crops and systems.
- Identify major functional components of commercial protected cultivation systems.
- Demonstrate operation of ventilation, shading, cooling and irrigation systems.
- Monitor environmental conditions inside protected cultivation systems.
- Interpret environmental observations to support crop management decisions.
- Inspect protected cultivation systems for routine operational and maintenance requirements.
- Evaluate crop suitability for different protected cultivation environments.
- Analyse commercial protected cultivation layouts and production workflows through case studies.
- Record observations and recommendations related to protected cultivation management.
Topics: Integrated crop protection, nutrient diagnosis, corrective fertigation, and crop health management.
Terminal Outcomes
- Develop integrated crop protection and nutrient management strategies for commercial hydroponics.
- Diagnose crop health problems and recommend appropriate corrective measures.
- Evaluate nutrient and crop protection practices to improve crop productivity and quality.
Theory – Key Learning Outcomes
- Explain principles of Integrated Pest Management (IPM) in commercial hydroponic production.
- Describe interaction between plant nutrition, environmental conditions and crop health.
- Explain nutrient interactions and their influence on nutrient availability & performance.
- Describe causes and symptoms of nutrient deficiencies, toxicities and nutrient antagonism.
- Explain methods for diagnosing nutrient-related and crop health disorders.
- Describe biological, cultural, physical and chemical strategies for integrated protection.
- Explain pesticide resistance management and resistance rotation strategies.
- Describe principles of corrective fertigation planning for different crop growth stages.
- Explain decision-making approaches for nutrient correction and crop protection.
- Describe integrated crop health management strategies for sustainable hydroponic production.
Practical – Key Learning Outcomes
- Diagnose crop health problems using plant observations and production records.
- Differentiate nutrient deficiencies, physiological disorders, insect damage & disease symptoms.
- Evaluate nutrient solution data and recommend corrective nutrient management strategies.
- Develop corrective fertigation plans for different crop growth stages.
- Analyse pest monitoring records and recommend appropriate IPM strategies.
- Select suitable biological, cultural, physical or chemical control measures.
- Interpret crop health trends using production records and environmental observations.
- Prepare integrated crop health management plans for commercial hydroponic production.
- Evaluate effectiveness of implemented nutrient and crop protection strategies.
- Document crop diagnosis, corrective actions and follow-up recommendations.
Topics: Crop planning, production scheduling, resource management, yield forecasting, and farm simulation.
Terminal Outcomes
- Develop crop production plans for commercial hydroponic farming based on technical & market needs.
- Prepare production schedules and resource plans for continuous crop production.
- Evaluate farm performance using production planning and simulation techniques.
Theory – Key Learning Outcomes
- Explain principles of crop planning in commercial hydroponic production.
- Describe crop calendars for leafy vegetables, herbs, fruiting vegetables and microgreens.
- Explain staggered production planning for continuous harvesting and market supply.
- Describe crop spacing, plant population and production capacity planning.
- Explain resource planning for seeds, growing media, nutrients, water and labour.
- Describe production scheduling for nursery establishment, transplanting & harvesting.
- Explain principles of yield forecasting and production estimation.
- Describe batch tracking and production record management.
- Explain production planning based on market demand and seasonal variations.
- Describe farm simulation techniques for evaluating production efficiency & profitability.
Practical – Key Learning Outcomes
- Prepare crop calendars for different hydroponic crops.
- Develop staggered production schedules for continuous crop harvesting.
- Calculate plant population and production capacity for different hydroponic systems.
- Estimate resource requirements (seeds, media, nutrients, water) for planned crop cycles.
- Prepare nursery, transplanting and harvesting schedules for commercial production.
- Forecast crop yield using production records and crop growth data.
- Analyse batch-wise production records to evaluate farm performance.
- Develop production plans based on simulated market demand and production constraints.
- Evaluate alternative production scenarios using farm simulation exercises.
- Present a commercial crop production plan for a hydroponic farming enterprise.
Topics: Automation systems, environmental sensing, smart monitoring, data interpretation, and digital agriculture technologies.
Terminal Outcomes
- Explain principles and applications of automation and smart monitoring in commercial hydroponics.
- Operate and interpret data from sensors and automated environmental control systems.
- Evaluate automation strategies to improve production efficiency, resource utilization and crop performance.
Theory – Key Learning Outcomes
- Explain role of automation in modern hydroponic and Controlled Environment Agriculture (CEA) systems.
- Describe different levels of automation used in commercial hydroponic production.
- Explain working principles and applications of environmental, water quality & nutrient sensors.
- Describe automated irrigation, fertigation and environmental control systems.
- Explain principles of Internet of Things (IoT) and remote monitoring in smart farming.
- Describe data acquisition, monitoring and basic data visualization for farm management.
- Explain alarm systems and decision support tools used in automated hydroponic production.
- Describe applications of artificial intelligence (AI) and data analytics in precision farming.
- Explain benefits, limitations and economic considerations of automation.
- Describe future trends in automation and smart farming technologies.
Practical – Key Learning Outcomes
- Identify sensors and automation devices commonly used in commercial hydroponic production.
- Demonstrate operation and applications of environmental and nutrient monitoring instruments.
- Monitor and interpret sensor data for crop management and operational decision-making.
- Evaluate performance of automated irrigation, fertigation and environmental control systems.
- Configure basic monitoring parameters for hydroponic crop production.
- Analyse environmental and production data collected from smart monitoring systems.
- Evaluate automation solutions for different production systems based on technical & economic factors.
- Develop a basic automation plan for a commercial hydroponic production facility.
- Interpret smart farming case studies to recommend operational improvements.
- Prepare a technical report on automation and smart monitoring applications in hydroponics.
Topics: Quality standards (GAP & GlobalG.A.P.), regulatory compliance, workforce management, occupational safety, and government support schemes.
Terminal Outcomes
- Explain quality standards, regulatory requirements and compliance practices in commercial hydroponics.
- Apply farm management principles for workforce coordination, safety and quality assurance.
- Evaluate government support schemes and compliance frameworks to strengthen commercial enterprises.
Theory – Key Learning Outcomes
- Explain principles and importance of Good Agricultural Practices (GAP) in commercial production.
- Describe objectives and requirements of Global GAP certification and relevance to commercial farming.
- Explain farm documentation, traceability and record management for compliance.
- Describe food safety, worker hygiene and biosecurity practices in commercial farms.
- Explain labour planning, workforce supervision and team management principles.
- Describe occupational health, safety protocols and emergency response procedures.
- Explain government policies, subsidy schemes and institutional support available for CEA.
- Describe legal, environmental and regulatory considerations applicable to hydroponic enterprises.
- Explain audit preparedness and compliance monitoring in commercial farm operations.
- Describe sustainable farm management practices for long-term commercial success.
Practical – Key Learning Outcomes
- Assess farm operations against basic GAP principles using a compliance checklist.
- Evaluate commercial farm documentation for traceability and quality assurance.
- Prepare standard operating checklists for hygiene, sanitation and food safety.
- Develop workforce allocation and task schedules for commercial operations.
- Demonstrate safe working practices and emergency response procedures in facilities.
- Analyse commercial farm case studies to identify compliance gaps and recommend corrective actions.
- Evaluate eligibility requirements and application processes for government support schemes.
- Conduct a basic compliance audit simulation using farm records & operational checklists.
- Prepare a compliance improvement plan for a commercial hydroponic farm.
- Present recommendations for improving quality, safety and operational compliance.
Topics: Career preparation, technical interviews, professional communication, professional portfolio development, commercial farm case studies, and industry interaction.
Terminal Outcomes
- Prepare professional documents and demonstrate employability skills for careers in CEA and hydroponics.
- Analyse commercial hydroponic operations and recommend technical and operational improvements.
- Demonstrate technical competency, communication skills and conduct through placement-oriented assessments.
Theory – Key Learning Outcomes
- Explain career opportunities and job roles in hydroponics and Controlled Environment Agriculture.
- Describe recruitment process, employer expectations and workplace ethics in hydroponics.
- Explain principles of professional resume writing and job application preparation.
- Describe effective communication, teamwork and problem-solving skills in farm operations.
- Explain interview preparation techniques for technical and supervisory roles.
- Describe methods for analysing commercial farm operations using technical data.
- Explain professional networking, continuous learning and career development strategies.
- Describe entrepreneurship pathways and self-employment opportunities in hydroponics.
- Explain importance of industry interaction, expert guidance and lifelong professional development.
- Describe professional standards and responsibilities expected in commercial production.
Practical – Key Learning Outcomes
- Prepare a professional resume and job application for hydroponic and CEA positions.
- Participate in mock technical interviews and demonstrate effective interview skills.
- Analyse commercial farm case studies and recommend technical/operational improvements.
- Deliver technical presentations on hydroponic production or farm management.
- Demonstrate workplace communication, teamwork & behaviour through simulated activities.
- Prepare and present a comprehensive farm performance review using operational data.
- Interact with industry experts and document key technical and professional learnings.
- Develop a personal career development plan aligned with individual goals.
- Complete a comprehensive capstone assessment integrating technical & managerial skills.
- Present a professional portfolio comprising production records, reports & assignments.
- Participate in technical group discussions and professional communication exercises.
Download Full Syllabus (PDF)
Complete 21-page unit outline, programme objectives, outcomes, assessment criteria, and grading system for the Professional Certificate in Hydroponic Production & Enterprise Operations.
Eligibility
To be eligible for admission to the Professional Certificate in Hydroponic Production & Enterprise Operations, applicants must meet the following requirements:
Age
18 years and above
Who Can Apply
Students, entrepreneurs, job seekers
Background Required
Basic knowledge of biology or agriculture is desirable but not mandatory.
Commitment
Full-time 3-month commitment required
Language Ability
Basic understanding of Hindi or English
Applicants are expected to actively participate in classroom sessions, practical training, assessments, and professional activities throughout the programme.
Career Pathways
Example roles this programme can prepare learners to explore across production, CEA, operations, agritech, and entrepreneurship.
Commercial Hydroponic Production
Hydroponic Technician, Production Executive
Controlled Environment Agriculture (CEA)
CEA Technician, Hydroponic Production Executive
Protected Cultivation
Greenhouse Technician, Protected Cultivation Technician
Farm Operations
Farm Operations Executive, Farm Supervisor*
Agritech Industry
Technical Support Executive, Field Executive
Entrepreneurship
Hydroponic Farm Entrepreneur, Commercial Microgreen Producer
Note: This programme develops professional competencies for careers in hydroponics, Controlled Environment Agriculture (CEA), protected cultivation, and agritech. Placement assistance is provided; however, career outcomes may vary depending on educational qualifications, prior experience, employer requirements, and individual performance.
* Supervisory roles may depend on educational qualifications, prior experience, and employer requirements.
Programme Fee Structure
| Category | Fee |
|---|---|
| Programme Fee (Without Accommodation) | ₹49,999 per student |
| Registration Fee | ₹1000 (Registration fee is non-refundable but adjustable against total course fee.) |
Note: Registration fee is non-refundable but adjustable against the total programme fee.
Installment Facility
| Installment | Amount | Due Time |
|---|---|---|
| First Installment | 50% of total fee (after adjusting registration fee) | One day before programme commencement |
| Second Installment | 25% of total fee | At the beginning of the second month |
| Third Installment | 25% of total fee | At the beginning of the third month |
Note: A late payment charge of ₹50 per day is applicable for delayed installment payments.
Assessment Criteria & Weightage
Student performance is evaluated across theoretical knowledge, practical exercises, log book accuracy, viva-voce, project work, and professional discipline.
| Assessment Component | Description | Weightage |
|---|---|---|
| Theory Examination | Evaluation of conceptual knowledge through written examination (MCQs, short and descriptive questions). | 25% |
| Practical Assessment | Evaluation of technical skills through laboratory exercises, crop production activities and equipment handling. | 35% |
| Production Log Books | Assessment of Hydroponic Production Log Book and Microgreen Production Log Book based on completeness, accuracy and observations. | 15% |
| Viva-Voce | Assessment of technical understanding, problem-solving ability and practical knowledge. | 10% |
| Project / Assignment | Evaluation of production records, case studies, crop reports or business-related assignments, as applicable. | 10% |
| Professional Conduct & Attendance | Assessment of attendance, punctuality, teamwork, discipline, laboratory safety and professional behaviour. | 5% |
| Total | 100% |
Minimum Qualifying Criteria
- Minimum 85% attendance to appear for the final assessment.
- Minimum 40% marks in Theory Examination.
- Minimum 40% marks in Practical Assessment.
- Minimum 40% aggregate marks to successfully complete the Programme.
Grading System
Grades are awarded based on aggregate percentage achieved in final evaluation:
| Percentage | Grade | Performance |
|---|---|---|
| 90–100% | A+ | Outstanding |
| 80–89% | A | Excellent |
| 70–79% | B+ | Very Good |
| 60–69% | B | Good |
| 50–59% | C+ | Above Average |
| 40–49% | C | Average |
| Below 40% | F | Not Qualified |
Accommodation
Accommodation is available on request through an independent accommodation provider. Accommodation is optional. Charges are payable directly to the accommodation provider and are not included in the programme fee charged by Hydroposhan Academy.
Hydroposhan Academy Merit Scholarship Test (HAMST)
Hydroposhan Academy offers merit-based scholarships of up to 40% for eligible candidates through the Hydroposhan Academy Merit Scholarship Test (HAMST). The scholarship is awarded based on the candidate’s performance in the scholarship examination and is applicable as a fee concession on the programme.
| Feature | Details |
|---|---|
| Scholarship Type | Merit-Based |
| Scholarship Benefit | Up to 40% Fee Concession |
| Selection Method | HAMST (Scholarship Test) |
FAQs
This programme is suitable for students, graduates, entrepreneurs, working professionals, farmers, and individuals who want to build practical skills in hydroponics and Controlled Environment Agriculture (CEA). Applicants must meet the eligibility criteria specified by the Academy.
The programme follows a competency-based learning approach that combines classroom instruction with extensive hands-on practical training. Participants gain experience through live production cycles, system operation, crop management, and enterprise-oriented activities.
Yes. Participants who successfully meet the attendance, assessment, and programme completion requirements will be awarded the Professional Certificate in Hydroponic Production & Enterprise Operations by Hydroposhan Academy.
Graduates may explore opportunities in commercial hydroponic production, Controlled Environment Agriculture (CEA), protected cultivation, farm operations, agritech companies, or entrepreneurship. Career outcomes depend on educational qualifications, prior experience, employer requirements, and individual performance.
Yes. Hydroposhan Academy provides placement assistance to eligible participants by connecting them with industry opportunities whenever available. However, placement assistance does not constitute a guarantee of employment.