Battery Energy Storage Project Planning and Delivery Course

Course Introduction

Battery energy storage systems are becoming essential to modern electricity networks, renewable energy integration, grid reliability, energy security, and the transition toward lower-carbon power systems. The Battery Energy Storage Project Planning and Delivery Course equips professionals with the strategic, technical, commercial, and project management capabilities required to plan, develop, procure, construct, commission, and operate battery energy storage projects. It addresses utility-scale installations, commercial and industrial applications, renewable energy hybrid systems, microgrids, and distributed storage solutions, emphasizing the practical decisions that determine project viability, safety, performance, and long-term value.

Successful battery energy storage projects require more than selecting battery technology and installing equipment. Developers must establish a compelling business case, evaluate grid and site constraints, understand operational requirements, assess battery degradation, and align system design with intended applications. This course examines the complete project development lifecycle, from opportunity identification and feasibility assessment to investment approval and implementation planning. Participants learn to define project requirements, evaluate technical alternatives, estimate lifecycle costs, assess revenue opportunities, and establish realistic delivery strategies that balance performance, affordability, resilience, environmental responsibility, and stakeholder expectations.

The programme explores the principal technologies, components, and engineering considerations involved in battery energy storage development. Topics include lithium-ion battery chemistries, emerging long-duration storage technologies, battery management systems, power conversion systems, energy management systems, thermal management, fire detection and suppression, and balance-of-system infrastructure. Participants examine capacity and power sizing, duration requirements, round-trip efficiency, degradation, usable state of charge, cycling assumptions, augmentation strategies, and system availability. The course also addresses grid interconnection, protection coordination, power quality, control integration, and interoperability, helping professionals evaluate design proposals and coordinate multidisciplinary engineering interfaces throughout project delivery.

Commercial and financial discipline is another central element of the course. Battery storage investments are influenced by capital expenditure, financing costs, operating expenses, replacement and augmentation requirements, electricity market structures, ancillary service revenues, demand charge savings, and the value of improved renewable energy utilization. Participants learn to assess financial models, compare ownership and contracting structures, evaluate warranties and performance guarantees, and identify the assumptions that materially affect project returns. The programme also examines procurement strategy, supplier due diligence, contract risk allocation, logistics planning, construction management, and contingency development, enabling teams to manage commercial uncertainty and maintain control over budgets, schedules, and expected benefits.

Safety, regulatory compliance, environmental performance, and operational resilience are critical throughout the battery storage lifecycle. The course addresses electrical hazards, thermal runaway, fire propagation, emergency response planning, site access, hazardous materials management, battery transport, and end-of-life handling. Participants consider applicable electrical codes, grid requirements, environmental approvals, permitting obligations, occupational safety controls, and evolving battery safety standards in their respective jurisdictions. Additional attention is given to cybersecurity, digital monitoring, data integrity, remote operational access, and the responsible application of artificial intelligence in forecasting, dispatch optimization, predictive maintenance, and asset performance analysis. These capabilities support safer, more reliable, and more accountable project delivery.

Designed for professionals involved in energy infrastructure investment and implementation, the course combines project governance principles with practical delivery methods, technical decision-making frameworks, and performance assurance techniques. Participants develop an integrated understanding of how feasibility, engineering, procurement, construction, commissioning, and operations influence one another. They explore risk registers, stage-gate approvals, interface management, contractor oversight, quality assurance, testing protocols, operational readiness, and post-implementation evaluation. By the end of the programme, participants will be better prepared to lead battery energy storage initiatives that achieve defined business objectives, comply with applicable requirements, deliver measurable energy value, and remain commercially and technically sustainable over their operating lives.

Duration

10 days

Who Should Attend

• Battery energy storage project managers responsible for planning, coordinating, and delivering energy storage investments.

• Renewable energy developers integrating battery storage with solar, wind, hybrid power, and independent power projects.

• Electrical, power systems, and energy engineers involved in storage system design, grid integration, and technical assurance.

• Project development specialists conducting site assessments, feasibility studies, investment preparation, and project structuring.

• Energy utilities and independent power producers developing grid-scale storage and flexibility solutions.

• EPC contractors and engineering consultants responsible for design coordination, procurement, construction, and commissioning.

• Procurement and supply chain professionals sourcing battery systems, inverters, controls, installation services, and auxiliary equipment.

• Financial analysts and investment professionals evaluating storage economics, lifecycle costs, project financing, and revenue models.

• Commercial managers negotiating supply agreements, EPC contracts, service arrangements, warranties, and performance guarantees.

• Asset managers responsible for operational performance, degradation management, maintenance planning, and lifecycle optimization.

• Grid operators and electricity market professionals assessing storage dispatch, ancillary services, network constraints, and system reliability.

• Energy transition advisers supporting decarbonization programmes, renewable integration, and energy resilience initiatives.

• Government officials and regulators involved in energy policy, permitting, grid connection, technical standards, and infrastructure planning.

• Environmental, health, safety, and quality professionals managing battery hazards, emergency planning, environmental compliance, and assurance.

• Risk managers, internal auditors, and project assurance specialists overseeing project controls, contractual obligations, and risk mitigation.

• Sustainability and circular economy professionals addressing battery lifecycle impacts, recycling, resource efficiency, and end-of-life management.

• Microgrid and distributed energy practitioners designing resilient power systems for commercial facilities, communities, and remote locations.

• Technical consultants and programme leaders seeking an integrated understanding of battery storage project development and delivery.

Course Objectives

• Develop a comprehensive understanding of the battery energy storage project lifecycle, from opportunity identification and feasibility assessment through design, procurement, construction, commissioning, and operational handover.

• Evaluate battery storage applications across utility-scale, commercial and industrial, renewable hybrid, microgrid, and distributed energy settings using clearly defined operational and commercial requirements.

• Assess battery technologies and system components by comparing performance characteristics, safety considerations, degradation behaviour, scalability, maintainability, and suitability for different storage applications.

• Prepare robust feasibility studies that integrate site suitability, grid access, energy demand, renewable generation profiles, technical constraints, permitting requirements, stakeholder considerations, and implementation risks.

• Apply appropriate methods for sizing storage capacity and power ratings while accounting for duration, efficiency, depth of discharge, usable energy, degradation, cycling profiles, and future augmentation needs.

• Evaluate battery storage investment economics through capital and operating expenditure analysis, lifecycle costing, revenue forecasting, sensitivity testing, financing assumptions, and financial risk assessment.

• Develop procurement and contracting strategies that support competitive sourcing, supplier qualification, quality assurance, equipment traceability, delivery reliability, warranty protection, and effective allocation of project risks.

• Integrate battery storage engineering requirements with grid connection studies, electrical protection, power conversion, energy management, communications, fire protection, civil works, and other critical system interfaces.

• Establish practical project governance, schedule management, cost control, risk management, change control, quality assurance, and performance reporting arrangements for multidisciplinary storage project teams.

• Apply safety-by-design principles and appropriate risk controls to address electrical hazards, thermal runaway, fire propagation, emergency response, battery handling, transportation, and environmental obligations.

• Plan and oversee installation, testing, commissioning, performance verification, operational readiness, and handover activities using measurable acceptance criteria and documented evidence.

• Strengthen long-term asset management through degradation monitoring, predictive maintenance, cybersecurity, responsible analytics, recycling strategies, and continuous improvement of technical and financial performance.

Comprehensive Course Outline

Module 1: Battery Energy Storage Fundamentals and Industry Landscape

• Principles of electrochemical energy storage, power delivery, charging, discharging, and the role of storage in modern electricity systems.

• Overview of utility-scale, commercial and industrial, residential, off-grid, microgrid, and renewable hybrid battery storage applications.

• Key industry drivers, including renewable energy integration, grid flexibility, electrification, energy security, resilience, and decarbonization.

• Emerging market developments, evolving storage business models, long-duration storage requirements, and implications for project development strategies.

Module 2: Battery Technologies, Chemistry and System Components

• Comparison of lithium iron phosphate, nickel manganese cobalt, and other relevant battery chemistries based on safety, cost, energy density, and lifecycle performance.

• Overview of battery modules, racks, enclosures, battery management systems, power conversion systems, and energy management platforms.

• Assessment of alternative and emerging storage technologies, including sodium-ion batteries, flow batteries, and other long-duration solutions.

• Evaluation of thermal management, fire protection, auxiliary power, communication interfaces, and balance-of-system requirements for integrated installations.

Module 3: Project Opportunity Identification and Application Definition

• Identification of suitable storage applications through analysis of electricity demand, renewable generation, network constraints, resilience needs, and market opportunities.

• Translation of stakeholder requirements into measurable project objectives, operating profiles, performance specifications, and functional requirements.

• Assessment of dispatch patterns, peak shaving, load shifting, backup power, renewable firming, frequency response, and other potential value streams.

• Development of an initial project concept, options assessment, strategic alignment, stakeholder map, and preliminary implementation roadmap.

Module 4: Feasibility Studies, Site Selection and Project Development

• Evaluation of site conditions, land availability, access roads, geotechnical characteristics, drainage, environmental constraints, and construction logistics.

• Assessment of grid connection opportunities, interconnection capacity, network upgrade requirements, permitting pathways, and utility coordination.

• Preparation of technical, commercial, environmental, social, and operational feasibility assessments for investment decision-making.

• Development of feasibility assumptions, project development budgets, decision gates, risk registers, and criteria for progressing to detailed engineering.

Module 5: Storage Sizing, Performance Modelling and Technical Specifications

• Determination of power rating, usable energy capacity, discharge duration, operating reserve, and performance margins based on intended applications.

• Incorporation of round-trip efficiency, state-of-charge limits, depth of discharge, temperature effects, cycling frequency, and degradation assumptions.

• Development and interpretation of dispatch simulations, energy balance calculations, load profiles, renewable generation forecasts, and sensitivity scenarios.

• Preparation of technical specifications covering availability, response time, auxiliary consumption, efficiency, capacity retention, and operating limits.

Module 6: Electrical Design, Grid Integration and Interconnection

• Coordination of electrical architecture, transformers, switchgear, cabling, grounding, protection systems, metering, and power conversion equipment.

• Assessment of grid connection studies, fault levels, voltage and frequency performance, reactive power capability, and applicable interconnection requirements.

• Integration of battery controls with inverters, plant controllers, supervisory systems, utility interfaces, and grid operator dispatch requirements.

• Management of power quality, protection coordination, grid compliance testing, interface risks, and changing network connection requirements.

Module 7: Project Business Cases, Financial Modelling and Investment Appraisal

• Preparation of capital expenditure estimates, operating cost forecasts, contingency allowances, replacement assumptions, and lifecycle cost models.

• Assessment of revenue opportunities from energy arbitrage, ancillary services, demand charge management, capacity arrangements, and renewable energy optimization.

• Evaluation of net present value, internal rate of return, payback period, levelized cost measures, financing structures, and bankability considerations.

• Application of sensitivity analysis and scenario modelling to examine electricity prices, degradation, availability, augmentation costs, and revenue uncertainty.

Module 8: Procurement Strategy, Supplier Selection and Contract Management

• Development of procurement plans, technical bid requirements, qualification criteria, supplier due diligence, and competitive evaluation frameworks.

• Comparison of turnkey EPC, equipment supply, engineering services, owner-managed delivery, and other contracting and ownership arrangements.

• Negotiation of performance guarantees, warranties, capacity retention commitments, liquidated damages, service obligations, and remedies for underperformance.

• Management of long-lead equipment, manufacturing quality, factory acceptance testing, logistics, import requirements, and supply chain disruption risks.

Module 9: Engineering Coordination and Detailed Design Management

• Coordination of civil, structural, electrical, mechanical, fire protection, communications, and control system design interfaces.

• Review of equipment layouts, access clearances, separation distances, ventilation, drainage, foundations, cable routing, and maintainability requirements.

• Management of design reviews, technical submittals, interface registers, engineering changes, constructability assessments, and design approvals.

• Application of design assurance, configuration management, standards compliance, and technical documentation controls throughout project development.

Module 10: Construction Planning, Installation and Project Controls

• Development of integrated schedules, construction work packages, resource plans, site logistics, installation sequences, and milestone control systems.

• Management of contractor coordination, equipment deliveries, installation quality, workforce competence, site access, and construction interfaces.

• Application of cost forecasting, earned value principles, progress measurement, change control, risk escalation, and corrective action planning.

• Oversight of installation inspections, nonconformance management, material traceability, environmental controls, and construction documentation.

Module 11: Battery Safety, Fire Protection and Environmental Risk Management

• Identification of electrical, chemical, thermal, mechanical, and operational hazards associated with battery storage equipment and installation activities.

• Understanding of thermal runaway mechanisms, fire propagation risks, gas hazards, detection systems, emergency isolation, and appropriate suppression strategies.

• Development of emergency response plans, site-specific safety procedures, incident communication arrangements, and coordination with emergency services.

• Management of environmental approvals, hazardous materials, battery transportation, waste handling, recycling pathways, and end-of-life compliance obligations.

Module 12: Commissioning, Testing and Performance Acceptance

• Preparation of commissioning plans, inspection checklists, energization procedures, test protocols, and readiness criteria for integrated storage systems.

• Execution planning for factory acceptance testing, site acceptance testing, functional tests, protection checks, and control system verification.

• Verification of usable capacity, round-trip efficiency, response time, availability, operating limits, and contractual performance guarantees.

• Management of defects, punch lists, test evidence, corrective actions, acceptance certificates, and formal transfer of project responsibilities.

Module 13: Operations, Maintenance and Lifecycle Performance Management

• Development of preventive and condition-based maintenance plans for battery racks, inverters, cooling systems, protection equipment, and controls.

• Monitoring of state of health, state of charge, capacity fade, thermal behaviour, cycle counts, efficiency, and operational availability.

• Assessment of battery augmentation, module replacement, warranty claims, spare parts strategies, service agreements, and lifecycle cost implications.

• Establishment of operational KPIs, performance dashboards, incident reporting, maintenance records, and continuous improvement processes.

Module 14: Digitalization, Artificial Intelligence and Cybersecurity

• Application of energy management systems, remote monitoring, telemetry, digital twins, and advanced analytics to improve storage operations.

• Use of forecasting and optimization models for renewable generation, electricity prices, demand profiles, dispatch scheduling, and revenue management.

• Evaluation of responsible AI applications for predictive maintenance, anomaly detection, degradation forecasting, and operational decision support.

• Management of cybersecurity threats, access controls, software updates, communications security, data integrity, and incident response procedures.

Module 15: Project Governance, Risk, Regulatory Compliance and Sustainability

• Establishment of project governance structures, stage-gate approvals, delegated authorities, reporting lines, assurance plans, and decision accountability.

• Management of technical, financial, contractual, regulatory, schedule, supply chain, environmental, and stakeholder risks across the project lifecycle.

• Application of applicable electrical codes, fire safety requirements, grid rules, permitting obligations, quality standards, and contractual compliance controls.

• Integration of lifecycle carbon considerations, responsible mineral sourcing, resource efficiency, recycling, circular economy principles, and sustainability reporting.

Module 16: Integrated Delivery Strategy, Handover and Practical Project Simulation

• Development of an integrated delivery plan linking feasibility, design, procurement, construction, commissioning, operational readiness, and asset handover.

• Application of project scenarios involving cost overruns, supplier delays, grid connection constraints, performance shortfalls, and emerging safety concerns.

• Preparation of a project control dashboard incorporating milestones, costs, risks, change requests, performance indicators, and management actions.

• Presentation of a battery storage project delivery case with investment rationale, technical strategy, risk controls, commissioning criteria, and lifecycle performance objectives.

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.