Green Ammonia Production Facility Project Planning Course

Course Introduction

The Green Ammonia Production Facility Project Planning Course provides a comprehensive understanding of how to plan, develop, and prepare green ammonia production projects for successful implementation. As industries accelerate their transition toward low-carbon energy and sustainable chemical production, green ammonia is emerging as an important solution for fertilizer manufacturing, clean energy storage, maritime fuel, and international hydrogen transportation. This course explores the project planning principles, technical considerations, commercial requirements, and sustainability objectives that shape the development of modern green ammonia facilities. Participants will learn how to translate strategic investment objectives into structured project plans that support feasibility assessment, design coordination, regulatory compliance, cost control, and long-term operational readiness.

The course examines the complete project development lifecycle, beginning with opportunity identification and progressing through preliminary feasibility studies, site selection, technology assessment, engineering coordination, financing preparation, and implementation planning. Participants will explore how renewable electricity availability, water resources, hydrogen production capacity, nitrogen supply, ammonia synthesis technology, storage infrastructure, and transportation access influence project viability. Particular attention is given to the integration of renewable energy systems with electrolysers, air separation units, ammonia synthesis loops, and associated utility infrastructure. Through these interconnected planning considerations, learners will develop a stronger understanding of how to coordinate technical workstreams, identify project dependencies, assess infrastructure constraints, and establish realistic development schedules for green ammonia production facilities.

A key component of the course focuses on technical scope definition and engineering project preparation. Green ammonia projects require careful coordination between renewable power generation, hydrogen production, nitrogen separation, compression systems, catalytic synthesis, refrigeration, storage, and product handling facilities. Participants will examine how project teams establish design bases, preliminary process requirements, equipment specifications, utility balances, and interface management arrangements before advancing into detailed engineering and construction. The course also addresses technology selection, process integration, modularization opportunities, constructability reviews, and design maturity assessments. By understanding these requirements, participants will be better prepared to coordinate multidisciplinary engineering teams and identify technical uncertainties before they affect procurement decisions, capital expenditure, or implementation milestones.

Effective planning also requires robust financial, commercial, and supply chain strategies. The course introduces methods for estimating capital and operating expenditure, evaluating levelized production costs, assessing renewable electricity price exposure, and identifying major project financing requirements. Participants will explore procurement planning for electrolysers, compressors, pressure vessels, synthesis equipment, storage tanks, electrical systems, and specialized instrumentation. Additional attention is given to supplier qualification, long-lead equipment management, logistics planning, contract packaging, interface risks, and contingency development. The course considers how changing electricity prices, technology performance, equipment availability, financing costs, and ammonia market conditions can influence project economics. These insights help participants build credible project business cases, prepare procurement strategies, and support investment decisions with structured assumptions and transparent risk assessments.

Safety, environmental performance, and regulatory compliance are fundamental to the development of green ammonia infrastructure. Although green ammonia can reduce emissions associated with conventional ammonia production when supported by low-carbon electricity and appropriate lifecycle management, projects must still address ammonia toxicity, hydrogen flammability, high-pressure systems, chemical handling, process safety, and emergency response requirements. This course examines how environmental impact assessments, hazard identification studies, process safety reviews, water management plans, emissions accounting, and permitting schedules can be integrated into project preparation. Participants will also consider renewable electricity sourcing, lifecycle greenhouse gas accounting, certification requirements, and the implications of evolving national and international standards. The emphasis is on identifying compliance obligations early and incorporating appropriate safeguards into project scope, budgets, schedules, and governance arrangements.

The final component of the course brings these planning disciplines together through project controls, stakeholder coordination, execution strategy, and readiness assessment. Participants will explore how to develop integrated master schedules, establish stage-gate decision processes, manage risk registers, define performance indicators, and prepare reporting systems that support informed decision-making. The course also addresses coordination among project developers, engineering contractors, equipment manufacturers, renewable power providers, regulators, investors, utilities, port operators, and prospective ammonia customers. Emerging developments, including flexible ammonia production, renewable energy hybridization, digital project controls, low-carbon fertilizer markets, ammonia-fueled shipping, and hydrogen-based energy trade, are considered throughout the programme. By the end of the course, participants will understand how to prepare a coordinated, risk-informed project plan that supports the responsible development of commercially viable green ammonia production facilities.

Duration

5 days

Who Should Attend

• Project managers responsible for planning, coordinating, or overseeing green ammonia production facility development and other renewable energy-based industrial infrastructure projects.

• Project development professionals seeking to strengthen their understanding of feasibility studies, investment preparation, technology assessment, and project execution planning for green ammonia facilities.

• Chemical and process engineers involved in defining production processes, hydrogen integration, nitrogen separation, ammonia synthesis, utilities, and associated industrial infrastructure.

• Renewable energy engineers and project specialists coordinating wind, solar, battery storage, grid connections, and electricity supply arrangements for electrolysis-based ammonia production.

• Mechanical, electrical, instrumentation, and civil engineers responsible for planning equipment installation, utility systems, storage facilities, electrical infrastructure, and supporting civil works.

• Engineering, procurement, and construction professionals seeking practical knowledge of scope definition, design coordination, contracting strategies, procurement scheduling, and construction readiness.

• Project planners and schedulers responsible for preparing work breakdown structures, integrated master schedules, critical path analyses, resource plans, and milestone reporting systems.

• Cost engineers, estimators, and project finance professionals involved in capital cost estimation, operating expenditure forecasts, financial modelling, contingency planning, and investment appraisal.

• Procurement and supply chain managers responsible for sourcing electrolysers, compressors, pressure vessels, synthesis equipment, storage systems, and other long-lead industrial components.

• Environmental and sustainability professionals working on environmental assessments, lifecycle emissions accounting, renewable electricity sourcing, water management, and green ammonia certification.

• Health, safety, and process safety professionals involved in hazard identification, ammonia handling, hydrogen safety, risk assessment, emergency preparedness, and regulatory compliance.

• Risk managers and project assurance specialists responsible for identifying technical, commercial, environmental, operational, and schedule-related uncertainties during project development.

• Investors, infrastructure financiers, and investment analysts evaluating green ammonia business cases, project bankability, market demand, financing requirements, and potential commercial returns.

• Government officials, energy regulators, and industrial development agencies involved in renewable hydrogen strategies, green industrialization, permitting frameworks, and low-carbon infrastructure development.

• Fertilizer manufacturers, chemical producers, and industrial gas companies considering investment in green ammonia production, plant modernization, or integration with existing industrial facilities.

• Port developers, shipping professionals, logistics managers, and terminal operators planning ammonia storage, transportation, export infrastructure, and potential maritime fuel supply chains.

• Technical consultants and advisory professionals supporting feasibility studies, front-end engineering design, environmental approvals, technology selection, and project development strategies.

• Business development professionals and corporate strategists evaluating partnerships, offtake agreements, renewable energy procurement, and emerging green ammonia market opportunities.

Course Objectives

• Develop a comprehensive understanding of the green ammonia project lifecycle, from initial opportunity assessment and prefeasibility studies through engineering preparation, financing, implementation planning, and operational readiness.

• Evaluate the technical and commercial feasibility of proposed green ammonia facilities by examining renewable electricity availability, hydrogen production requirements, nitrogen supply, water resources, site conditions, and market access.

• Identify and coordinate the principal process systems required for green ammonia production, including electrolysers, air separation units, hydrogen compression, ammonia synthesis, refrigeration, storage, and supporting utilities.

• Prepare structured project scopes, work breakdown structures, preliminary design requirements, interface registers, and deliverable schedules that support coordinated multidisciplinary engineering and project development.

• Apply appropriate project cost estimation and financial evaluation techniques to assess capital expenditure, operating costs, electricity price exposure, production economics, contingency allowances, and investment viability.

• Develop practical procurement and contracting strategies for major process equipment, renewable power infrastructure, engineering services, construction packages, and other specialized project components.

• Integrate environmental management, lifecycle emissions assessment, water resource planning, green ammonia certification considerations, and applicable permitting requirements into the overall project development framework.

• Identify and evaluate project risks associated with process safety, technology maturity, renewable energy variability, supply chain limitations, financing uncertainty, construction interfaces, and evolving market conditions.

• Establish integrated project schedules, milestone plans, resource requirements, reporting arrangements, and performance indicators that support effective monitoring of project progress and development readiness.

• Strengthen the ability to coordinate stakeholders, evaluate emerging industry opportunities, and prepare an actionable project development plan aligned with technical feasibility, commercial viability, environmental responsibility, and implementation objectives.

Comprehensive Course Outline

Module 1: Fundamentals of Green Ammonia and Industry Development

• Principles of ammonia production and the differences between conventional, blue, and green ammonia pathways, including their energy inputs and emissions implications.

• The role of renewable hydrogen, nitrogen separation, and ammonia synthesis in developing low-carbon fertilizer, industrial chemical, energy storage, and maritime fuel applications.

• Global green ammonia market development, emerging demand centres, export opportunities, policy incentives, and the commercial drivers influencing new production facility investments.

• Key project development stakeholders, including technology providers, renewable energy developers, engineering contractors, regulators, investors, fertilizer manufacturers, and prospective offtakers.

Module 2: Project Identification, Feasibility Studies, and Site Selection

• Preparation of project concepts, initial business cases, opportunity assessments, prefeasibility studies, and screening criteria for proposed green ammonia production investments.

• Assessment of site suitability based on renewable energy resources, grid connectivity, water availability, land requirements, transport access, geological conditions, and proximity to industrial customers.

• Evaluation of alternative production configurations, including dedicated renewable power, grid-connected electrolysis, hybrid energy systems, and integration with existing industrial infrastructure.

• Development of feasibility assumptions, decision criteria, preliminary project risks, data collection plans, and stage-gate requirements for progressing from concept development to detailed studies.

Module 3: Process Technology Selection and Facility Design Planning

• Evaluation of electrolyser technologies, including alkaline and proton exchange membrane systems, with consideration of capacity, efficiency, operating flexibility, maturity, and integration requirements.

• Planning for air separation units, nitrogen purification, hydrogen conditioning, compression, ammonia synthesis loops, heat recovery, refrigeration, and associated process utility systems.

• Definition of preliminary process design criteria, production capacity targets, equipment duty requirements, material balances, utility requirements, and major engineering deliverables.

• Coordination of process integration, equipment layout, modular construction opportunities, plant expansion provisions, maintainability considerations, and interfaces between renewable energy and chemical processing systems.

Module 4: Renewable Energy Integration and Utility Infrastructure

• Assessment of wind, solar, grid electricity, battery storage, and hybrid renewable energy configurations for supplying reliable electricity to electrolysers and other facility equipment.

• Evaluation of renewable power variability, electrolyser operating flexibility, hydrogen storage options, production continuity requirements, and their implications for ammonia synthesis operations.

• Planning for electrical substations, transmission connections, power conversion systems, backup arrangements, water treatment, cooling systems, compressed air, and other essential utilities.

• Development of energy balance assumptions, power demand profiles, renewable electricity procurement strategies, and preliminary measures for improving energy efficiency and production reliability.

Module 5: Capital Cost Estimation, Financial Modelling, and Investment Appraisal

• Preparation of preliminary capital expenditure estimates covering renewable energy systems, electrolysers, process equipment, storage facilities, civil works, utilities, engineering, and project management.

• Estimation of operating expenditure, including electricity, water, maintenance, catalyst replacement, labour, consumables, logistics, insurance, and other recurring production costs.

• Evaluation of project economics using discounted cash flow analysis, net present value, internal rate of return, payback period, levelized production cost, and sensitivity analysis.

• Assessment of financing structures, government incentives, carbon pricing exposure, offtake agreements, electricity price risks, contingency allowances, and conditions affecting project bankability.

Module 6: Engineering, Procurement, and Construction Planning

• Development of engineering work packages, design deliverable registers, work breakdown structures, responsibility matrices, interface registers, and engineering review milestones.

• Preparation of procurement plans for electrolysers, compressors, synthesis equipment, pressure vessels, electrical systems, instrumentation, storage tanks, and specialized industrial components.

• Evaluation of supplier capability, equipment lead times, technical specifications, quality assurance requirements, logistics constraints, import considerations, and contract packaging alternatives.

• Planning for construction sequencing, temporary facilities, site access, modularization, installation interfaces, contractor coordination, commissioning preparation, and project handover requirements.

Module 7: Environmental Management, Safety, and Regulatory Compliance

• Identification of environmental approval requirements covering land use, water abstraction, wastewater management, construction impacts, biodiversity, emissions, and community considerations.

• Application of hazard identification, hazard and operability studies, quantitative risk assessment where appropriate, and safety reviews for hydrogen and ammonia process systems.

• Planning for ammonia toxicity management, hydrogen flammability controls, high-pressure equipment safety, hazardous-area classification, emergency response, and occupational health protection.

• Assessment of lifecycle greenhouse gas emissions, renewable electricity sourcing, chain-of-custody requirements, sustainability certification frameworks, and applicable national and international regulations.

Module 8: Project Risk Management, Schedule Development, and Cost Control

• Identification and prioritization of technical, commercial, regulatory, environmental, financing, procurement, construction, and market risks affecting green ammonia project development.

• Preparation of integrated master schedules, critical path analyses, resource-loaded plans, engineering milestones, procurement schedules, construction interfaces, and approval dependencies.

• Development of risk registers, mitigation actions, contingency strategies, quantitative risk analysis where suitable, and escalation procedures for material project uncertainties.

• Implementation of project cost baselines, change control procedures, progress measurement systems, performance indicators, management reporting, and schedule recovery planning.

Module 9: Commercial Strategy, Offtake, Logistics, and Stakeholder Engagement

• Assessment of potential ammonia customers across fertilizer manufacturing, industrial chemicals, maritime transport, energy storage, power generation, and emerging low-carbon fuel markets.

• Development of commercial strategies covering offtake agreements, pricing mechanisms, product specifications, delivery terms, market risks, and coordination between production and customer requirements.

• Planning for ammonia storage, loading and unloading systems, pipelines, road and rail transportation, port terminals, export facilities, and relevant transport safety requirements.

• Management of stakeholder relationships involving communities, regulators, investors, utilities, technology licensors, contractors, renewable energy suppliers, customers, and infrastructure partners.

Module 10: Emerging Technologies, Project Readiness, and Implementation Strategy

• Evaluation of emerging developments in flexible electrolysis, advanced catalysts, improved synthesis processes, digital plant modelling, predictive analytics, and integrated renewable energy management.

• Assessment of green ammonia applications in maritime fuel, low-carbon fertilizer production, hydrogen transportation, industrial decarbonization, and international clean energy trade.

• Preparation of project readiness assessments covering design maturity, permitting status, financing, land access, power supply, procurement commitments, risk closure, and implementation resources.

• Development of an integrated green ammonia project planning framework, including an executive project brief, preliminary schedule, cost assumptions, risk register, stakeholder plan, and implementation roadmap

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

Tailor-Made Course

This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808

Training Venue 

The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant

Certification

Participants will be issued with Upskill certificate upon completion of this course.

Airport Pickup and Accommodation

Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808

Terms of Payment:

Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.