Desalination Plant Project Planning Course

Course Introduction

The Desalination Plant Project Planning Course provides a comprehensive framework for planning and coordinating desalination infrastructure projects in response to growing freshwater demand, water scarcity, climate variability, and increasing pressure on conventional water supply systems. The course examines the strategic, technical, financial, environmental, and operational considerations involved in developing desalination facilities, enabling participants to understand how complex project requirements can be translated into practical execution plans. Particular attention is given to the integration of engineering disciplines, regulatory obligations, stakeholder expectations, and delivery constraints to establish a realistic foundation for successful project implementation.

Desalination projects require specialised planning because their delivery involves interconnected processes such as seawater or brackish water intake, pretreatment, membrane filtration, thermal separation where applicable, post-treatment, product water storage, concentrate management, and distribution infrastructure. The course explores how these elements influence project scope definition, design interfaces, procurement packages, construction sequencing, resource requirements, and commissioning strategies. Participants learn to identify critical technical dependencies early, coordinate multidisciplinary engineering activities, and develop planning assumptions that reflect the specific characteristics of the selected desalination technology, source water quality, treatment capacity, site conditions, and intended water quality standards.

A central component of the programme focuses on feasibility studies, project development strategies, and the preparation of integrated project management plans. Participants examine demand forecasting, preliminary capacity assessment, site selection, technology evaluation, capital expenditure estimation, operating cost forecasting, financing considerations, and economic viability. The course also addresses the importance of reliable baseline data, transparent assumptions, lifecycle costing, sensitivity analysis, and uncertainty assessment when comparing alternative project configurations. These competencies help project managers and technical professionals develop defensible recommendations, improve investment decisions, and establish achievable budgets and schedules before major commitments are made.

The programme also explores project scheduling, procurement management, construction planning, and interface coordination across the desalination project lifecycle. Participants learn how to structure work breakdown structures, develop engineering and construction schedules, identify critical-path activities, plan long-lead equipment procurement, and coordinate civil, mechanical, electrical, instrumentation, automation, and pipeline works. Particular emphasis is placed on managing specialist equipment such as high-pressure pumps, energy recovery devices, membrane systems, chemical dosing units, intake screens, and electrical power systems. The course demonstrates how effective planning can reduce design rework, procurement delays, contractor interfaces, commissioning bottlenecks, and cost overruns.

Environmental protection, regulatory compliance, health and safety, and sustainability are integral to desalination project planning. The course examines environmental and social impact assessment, marine intake considerations, brine discharge management, chemical handling, energy consumption, greenhouse gas emissions, and the protection of sensitive coastal ecosystems. Participants consider how environmental monitoring, permit conditions, community engagement, and climate resilience measures should be incorporated into project schedules, budgets, design reviews, and construction controls. Emerging issues such as renewable energy integration, advanced membrane technologies, digital project controls, water reuse integration, and improved concentrate management are also explored to help participants respond to evolving technical standards and sustainability expectations.

By the end of the course, participants will be better equipped to prepare integrated desalination project plans that connect strategic objectives with practical engineering and delivery requirements. The programme develops the ability to assess risks, manage change, monitor progress, coordinate contractors, evaluate performance indicators, and prepare facilities for safe and reliable operation. Through structured planning methods, practical scenarios, and multidisciplinary case discussions, participants strengthen their capacity to support projects from early concept development through construction and commissioning. The resulting skills are relevant to municipal water supply schemes, industrial water systems, coastal infrastructure developments, public-private partnership projects, and other initiatives where desalination is a critical component of long-term water security.

Duration

5 days

Who Should Attend

• Project managers responsible for the planning, coordination, execution, or oversight of seawater and brackish water desalination projects across municipal, industrial, commercial, and infrastructure environments.

• Project engineers and engineering managers who coordinate process, mechanical, electrical, civil, structural, instrumentation, and control engineering activities throughout project development and delivery.

• Water and wastewater engineers seeking to strengthen their understanding of desalination project development, technology selection, design interfaces, construction sequencing, and commissioning requirements.

• Planning and scheduling engineers responsible for developing integrated project schedules, identifying critical-path activities, monitoring progress, and coordinating engineering, procurement, construction, and commissioning milestones.

• Civil and construction managers involved in site preparation, intake and outfall structures, foundations, buildings, pipework corridors, access roads, reservoirs, and associated desalination infrastructure.

• Procurement and supply chain professionals managing technical specifications, supplier evaluations, tender packages, equipment purchasing, manufacturing schedules, logistics, and delivery of specialised plant components.

• Cost engineers, quantity surveyors, and project controls specialists responsible for estimating capital costs, forecasting expenditure, assessing variations, monitoring budgets, and supporting financial decision-making.

• Environmental managers and sustainability specialists responsible for environmental assessments, marine ecosystem protection, brine discharge planning, energy efficiency, environmental permitting, and sustainability performance.

• Risk managers and quality assurance professionals who develop project risk registers, coordinate technical reviews, establish inspection and testing requirements, and monitor compliance with contractual and regulatory obligations.

• Consultants and engineering design professionals involved in feasibility studies, conceptual and detailed design, technical due diligence, constructability reviews, and preparation of project execution strategies.

• Government officials, utility representatives, and public infrastructure programme managers overseeing water security initiatives, capital investment programmes, desalination procurement, and delivery assurance.

• Contractors, EPC managers, and construction supervisors responsible for coordinating multidisciplinary work packages, managing interfaces, controlling site activities, and preparing facilities for commissioning.

• Operations and maintenance managers who contribute operational requirements to project design, maintainability reviews, spare parts planning, reliability planning, and handover preparation.

• Investment analysts, commercial managers, and public-private partnership specialists involved in project appraisal, lifecycle cost evaluation, contract strategy, financial risk assessment, and infrastructure investment decisions.

• Technical directors and senior decision-makers who need a structured understanding of desalination project risks, delivery models, performance requirements, and long-term operational sustainability.

Course Objectives

• Develop a comprehensive understanding of desalination project development, including the strategic drivers, technical requirements, infrastructure interfaces, and delivery considerations that influence project feasibility and successful implementation.

• Apply structured feasibility assessment methods to evaluate water demand, source water characteristics, site suitability, treatment capacity, technology alternatives, infrastructure requirements, and long-term project viability.

• Establish integrated project scope statements, work breakdown structures, responsibility matrices, and project execution plans that clearly define deliverables, accountabilities, interfaces, and acceptance criteria.

• Prepare realistic project schedules that coordinate engineering design, permitting, procurement, manufacturing, site preparation, construction, installation, testing, commissioning, and operational handover activities.

• Strengthen cost estimation and financial planning capabilities through capital expenditure analysis, operating cost forecasting, lifecycle costing, contingency development, and structured budget control.

• Improve procurement and contract planning by identifying long-lead equipment, defining technical package requirements, assessing supplier capabilities, and coordinating purchasing strategies with project milestones.

• Identify, assess, and manage technical, commercial, environmental, regulatory, construction, and operational risks through structured risk registers, mitigation plans, contingency measures, and regular reviews.

• Integrate environmental protection, occupational health and safety, regulatory compliance, community engagement, and sustainability objectives into project planning, design coordination, and construction management.

• Establish effective project monitoring and control systems using performance indicators, progress measurement, change management, quality assurance, reporting procedures, and corrective action processes.

• Develop commissioning, performance testing, operational readiness, and handover strategies that connect project delivery requirements with water quality objectives, reliability expectations, maintainability, and lifecycle performance.

Comprehensive Course Outline

Module 1: Desalination Industry Fundamentals and Project Development

• Overview of global water scarcity, water security priorities, desalination demand drivers, and the role of desalination infrastructure in municipal and industrial water supply strategies.

• Comparison of reverse osmosis, multi-stage flash distillation, multi-effect distillation, and emerging desalination technologies, including their planning implications and typical application requirements.

• Examination of major desalination plant components, including intake facilities, pretreatment systems, membrane or thermal treatment units, post-treatment, storage, and product water distribution.

• Definition of project development stages from initial concept and business case preparation through feasibility studies, preliminary engineering, detailed design, construction, commissioning, and operational handover.

Module 2: Feasibility Studies, Demand Forecasting, and Site Selection

• Assessment of current and projected water demand, seasonal consumption patterns, industrial requirements, population growth, and the implications of forecast uncertainty for plant capacity selection.

• Evaluation of seawater and brackish water characteristics, including salinity, temperature, turbidity, biological activity, contaminants, and other parameters affecting treatment design.

• Comparison of potential sites based on coastal access, intake and outfall conditions, land availability, geotechnical conditions, power supply, transport logistics, and connection to water distribution networks.

• Preparation of preliminary feasibility reports incorporating alternative analysis, capital and operating cost estimates, regulatory requirements, financial assumptions, environmental constraints, and implementation recommendations.

Module 3: Technology Selection and Engineering Design Coordination

• Evaluation of desalination process alternatives according to feedwater quality, recovery rate, product water requirements, energy consumption, operational complexity, and lifecycle cost considerations.

• Coordination of process engineering deliverables, including process flow diagrams, mass and energy balances, preliminary equipment sizing, hydraulic requirements, and design basis documentation.

• Planning interfaces between civil and structural works, mechanical equipment, electrical distribution, instrumentation, automation, chemical systems, pipelines, and water storage facilities.

• Management of design reviews, interdisciplinary coordination meetings, constructability assessments, design maturity tracking, technical deviations, and interface registers to minimise rework.

Module 4: Project Scope Definition, Scheduling, and Execution Planning

• Development of project charters, scope statements, deliverable registers, work breakdown structures, responsibility assignment matrices, and project execution strategies for desalination facilities.

• Preparation of integrated schedules connecting permitting, engineering, procurement, supplier manufacturing, delivery logistics, construction, installation, pre-commissioning, and performance testing.

• Identification of critical-path activities, schedule dependencies, resource constraints, float consumption, milestone requirements, and recovery strategies for potential delays.

• Application of project planning software, progress measurement systems, schedule risk analysis, digital coordination tools, and change control procedures to maintain reliable project baselines.

Module 5: Capital Cost Estimation, Budgeting, and Financial Planning

• Preparation of preliminary and detailed capital cost estimates covering engineering, land acquisition, intake and outfall works, process equipment, pipelines, power infrastructure, construction, and commissioning.

• Assessment of operating expenditure drivers, including electricity, pretreatment chemicals, membrane replacement, maintenance, labour, concentrate management, and water distribution costs.

• Development of project budgets, cost breakdown structures, cash flow forecasts, contingency allowances, escalation assumptions, and financial reporting arrangements appropriate to project maturity.

• Evaluation of lifecycle costs, alternative financing structures, financial sensitivity scenarios, energy price uncertainty, water tariff assumptions, and economic risks affecting long-term project affordability.

Module 6: Procurement Strategy, Contract Management, and Supply Chain Planning

• Development of procurement plans that align equipment specifications, technical bid evaluations, commercial assessments, purchase orders, supplier approvals, and delivery schedules with project milestones.

• Planning for long-lead equipment such as membrane elements, pressure vessels, high-pressure pumps, energy recovery devices, electrical transformers, control systems, and specialist treatment packages.

• Comparison of engineering, procurement, and construction delivery models, design-build arrangements, multiple-package contracting, and public-private partnership approaches.

• Management of vendor documentation, factory acceptance testing, quality inspections, shipping logistics, customs requirements, equipment preservation, contract variations, and supplier performance.

Module 7: Construction Management, Site Coordination, and Quality Assurance

• Planning site establishment, access arrangements, temporary utilities, earthworks, foundations, concrete structures, equipment installation, pipeline construction, and coordination of multiple construction work fronts.

• Coordination of mechanical, electrical, instrumentation, control, and process installation activities, including equipment alignment, pipework testing, cable installation, and integration of control systems.

• Application of construction risk assessments, method statements, permit-to-work systems, lifting plans, confined-space controls, chemical safety measures, and emergency response arrangements.

• Establishment of inspection and test plans, material traceability, nonconformance management, quality documentation, site progress reporting, and systematic resolution of construction defects.

Module 8: Environmental Management, Regulatory Compliance, and Sustainability

• Integration of environmental and social impact assessment requirements, coastal planning approvals, abstraction or intake permits, discharge authorisations, and other applicable regulatory obligations.

• Assessment of marine intake impacts, impingement and entrainment risks, concentrate discharge characteristics, chemical residuals, and potential effects on receiving water ecosystems.

• Development of energy efficiency strategies, renewable electricity integration, carbon footprint assessment, water recovery optimisation, and lifecycle sustainability performance indicators.

• Examination of emerging concentrate management approaches, resource recovery opportunities, improved pretreatment methods, advanced membranes, and the potential role of digital monitoring in environmental compliance.

Module 9: Risk Management, Project Controls, and Stakeholder Coordination

• Development of project risk registers covering feedwater variability, technology performance, permitting delays, equipment availability, construction interfaces, cost escalation, and commissioning uncertainty.

• Application of qualitative and quantitative risk analysis, probability and impact assessment, schedule contingency planning, cost contingency allocation, and risk ownership assignments.

• Establishment of project control procedures for baseline management, progress measurement, earned value analysis where appropriate, forecast reporting, variation assessment, and corrective action implementation.

• Coordination of utilities, regulators, communities, equipment suppliers, engineering consultants, contractors, financiers, and future operators through stakeholder engagement and structured decision-making processes.

Module 10: Commissioning, Operational Readiness, and Emerging Desalination Trends

• Development of system completion strategies, mechanical completion records, pre-commissioning checklists, flushing and cleaning procedures, instrumentation calibration, and integrated functional testing.

• Planning of start-up sequences, membrane conditioning where applicable, treatment process optimisation, product water quality verification, performance testing, and contractual acceptance requirements.

• Preparation of operational readiness plans covering staffing, training, operating procedures, maintenance strategies, critical spare parts, chemical inventories, documentation, and asset handover.

• Evaluation of emerging developments such as artificial intelligence for predictive maintenance, digital twins, advanced energy recovery, renewable-powered desalination, next-generation membranes, and lower-impact concentrate management.

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.