Course Introduction
The Energy Efficiency and Clean Technology Project Management Course equips professionals with the knowledge, technical understanding, and practical project delivery skills required to plan, implement, and manage initiatives that improve energy performance and accelerate the adoption of cleaner technologies. As organizations face rising energy costs, increasing sustainability expectations, changing regulatory requirements, and pressure to reduce greenhouse gas emissions, effective project management has become essential to translating energy-saving opportunities into measurable operational and financial benefits. This programme connects energy management principles with disciplined project planning, investment appraisal, procurement, implementation, and performance verification to help organizations deliver reliable, cost-effective, and environmentally responsible energy solutions.
The course examines the principles of energy efficiency, energy conservation, clean technology selection, and sustainable energy management across industrial facilities, commercial buildings, public institutions, infrastructure, and utility systems. Participants explore energy consumption patterns, energy audits, equipment performance, operational inefficiencies, and the identification of opportunities for reducing energy demand without compromising productivity, safety, or service quality. Particular attention is given to energy baselining, consumption profiling, energy performance indicators, and the practical use of technical assessments to establish improvement priorities. Participants will learn how to connect energy performance objectives with organizational targets, operational requirements, and investment decisions.
Successful energy efficiency and clean technology projects require robust business cases, sound technical evaluation, and careful control of implementation risks. The programme develops participants' ability to assess project feasibility, estimate capital and operating costs, evaluate payback periods, and compare technology alternatives using lifecycle costing and financial appraisal techniques. It covers the planning and delivery of high-efficiency motors, variable-speed drives, efficient lighting, building automation, heat recovery, advanced heating and cooling systems, industrial process optimization, and other energy-saving interventions. Participants also explore renewable energy integration, battery storage, smart controls, electrification, and emerging clean technologies, considering their technical readiness, operating requirements, compatibility with existing infrastructure, and contribution to broader sustainability objectives.
The programme emphasizes the practical disciplines needed to deliver projects within approved budgets, schedules, technical specifications, and performance requirements. Participants will examine project scope definition, work breakdown structures, implementation schedules, resource planning, contractor coordination, procurement management, commissioning, and change control. The course addresses common delivery challenges such as equipment lead times, supply chain disruptions, installation downtime, skills shortages, technology integration, and operational interruptions. It also considers how to manage stakeholder expectations, coordinate engineering and facilities teams, supervise vendors, and maintain effective communication between project sponsors, technical specialists, finance teams, procurement professionals, and end users throughout the project lifecycle.
Digitalization and data-driven energy management are increasingly important to improving the performance of energy efficiency and clean technology investments. Participants will explore smart meters, Internet of Things sensors, building energy management systems, industrial energy monitoring platforms, digital twins, predictive maintenance, and artificial intelligence-assisted analytics. The course examines how these tools can support real-time monitoring, identify abnormal consumption, optimize equipment operation, and detect performance deterioration after implementation. It also addresses data integrity, cybersecurity, interoperability, system integration, and the responsible use of AI-generated recommendations. Participants will learn how to establish meaningful key performance indicators and use reliable operational data to distinguish actual energy savings from changes caused by weather, occupancy, production volumes, operating hours, or other external factors.
A central focus of the course is ensuring that energy efficiency and clean technology projects deliver sustained, measurable benefits beyond installation and commissioning. Participants will examine measurement and verification, energy performance contracts, operational handover, maintenance planning, staff training, compliance monitoring, and post-implementation evaluation. The programme also considers emerging developments such as grid flexibility, energy storage, smart electrification, low-carbon industrial heat, green building standards, sustainable procurement, and climate-related investment requirements. Through practical exercises, case studies, and project planning activities, participants will develop an actionable framework for managing energy improvement initiatives from initial assessment to benefits realization, strengthening organizational resilience, reducing energy expenditure, and supporting long-term environmental and operational performance.
Duration
10 days
Who Should Attend
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Project managers responsible for energy efficiency, clean technology, and sustainability improvement projects.
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Energy managers overseeing energy consumption, performance optimization, and energy reduction programmes.
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Facilities managers responsible for commercial buildings, institutional facilities, and operational energy performance.
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Electrical and mechanical engineers implementing energy-saving equipment and clean technology solutions.
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Sustainability and ESG professionals integrating energy efficiency into organizational environmental commitments.
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Industrial operations managers seeking to reduce energy intensity and improve production efficiency.
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Renewable energy project developers coordinating clean energy and energy optimization investments.
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Building services engineers involved in HVAC optimization, lighting upgrades, automation, and building retrofits.
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Maintenance and asset management professionals responsible for equipment reliability and energy performance.
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Procurement and supply chain managers sourcing energy-efficient equipment and clean technology systems.
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Finance professionals evaluating energy project business cases, lifecycle costs, financing options, and returns.
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Government officials and public-sector managers implementing energy efficiency programmes and public building upgrades.
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Utility professionals working on demand-side management, grid efficiency, and distributed energy solutions.
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Construction and infrastructure professionals delivering energy-efficient buildings and low-energy infrastructure.
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Environmental and compliance officers monitoring energy performance, regulatory requirements, and sustainability indicators.
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Consultants advising organizations on energy audits, energy management systems, and clean technology investments.
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Monitoring and evaluation specialists assessing project performance, energy savings, and environmental benefits.
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Internal auditors and risk managers evaluating project controls, procurement integrity, and energy performance evidence.
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Corporate executives and department heads responsible for capital investment, operational efficiency, and sustainability outcomes.
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Technology specialists implementing smart metering, energy analytics, automation, and digital energy management systems.
Course Objectives
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Develop a comprehensive understanding of energy efficiency principles, clean technology applications, and project management practices required to deliver measurable energy and environmental improvements.
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Conduct structured energy assessments to identify consumption patterns, establish credible energy baselines, evaluate equipment performance, and prioritize opportunities for reducing energy waste.
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Formulate clear project scopes, work breakdown structures, implementation schedules, budgets, resource plans, and performance targets for energy improvement initiatives.
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Evaluate energy-saving technologies and clean technology alternatives using technical feasibility, lifecycle costing, operational compatibility, maintenance requirements, and environmental performance.
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Prepare robust business cases incorporating capital expenditure, operating costs, energy tariff assumptions, maintenance savings, payback periods, and long-term financial benefits.
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Apply effective procurement and contract management practices to specify energy performance requirements, assess supplier capabilities, evaluate bids, and manage contractor delivery obligations.
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Integrate risk management, quality assurance, change control, health and safety, and operational continuity planning into energy project implementation and commissioning.
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Apply digital monitoring technologies, energy management software, and data analytics to improve consumption visibility, detect inefficiencies, and support evidence-based operational decisions.
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Design measurement and verification frameworks that establish performance indicators, normalize energy consumption data, and validate actual savings against approved project baselines.
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Strengthen the integration of renewable energy, battery storage, electrification, automation, and other clean technologies into existing facilities and operational systems.
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Improve stakeholder coordination, workforce engagement, technical training, and organizational change management to support the successful adoption of energy-efficient practices.
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Develop sustainable operation, maintenance, and benefits realization plans that preserve energy savings, improve asset performance, and support continuous improvement after project completion.
Comprehensive Course Outline
Module 1: Fundamentals of Energy Efficiency and Clean Technology Project Management
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Principles of energy efficiency, energy conservation, demand reduction, and clean technology adoption across industrial, commercial, institutional, and infrastructure settings.
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The project lifecycle for energy improvement initiatives, from opportunity identification and feasibility assessment to implementation and benefits realization.
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Roles and responsibilities of project sponsors, energy managers, engineers, contractors, procurement teams, financiers, and operational stakeholders.
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Alignment of energy projects with organizational strategies, sustainability commitments, regulatory obligations, operational priorities, and long-term cost reduction objectives.
Module 2: Energy Audits, Baselines, and Opportunity Identification
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Conducting preliminary and detailed energy audits to evaluate consumption patterns, equipment performance, operating practices, and avoidable energy losses.
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Establishing energy baselines using utility bills, interval meter data, production records, building occupancy information, and equipment operating schedules.
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Identifying energy-saving opportunities through benchmarking, load profiling, system inspections, process analysis, and engineering assessments.
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Prioritizing energy interventions according to expected savings, technical feasibility, implementation complexity, operational impact, and investment requirements.
Module 3: Energy Performance Indicators and Technical Assessment
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Developing energy performance indicators, including energy intensity, consumption per unit of output, building energy use intensity, and peak demand measures.
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Evaluating motors, pumps, compressors, boilers, chillers, lighting systems, heating systems, and other significant energy-consuming assets.
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Using measurement instruments, submetering, thermal imaging, power quality analysis, and equipment performance data to diagnose inefficiencies.
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Accounting for production volumes, weather conditions, occupancy, operating hours, and other variables when comparing energy performance over time.
Module 4: Project Planning, Scope Definition, and Scheduling
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Translating energy audit findings into defined project objectives, scope statements, deliverables, acceptance criteria, and measurable performance requirements.
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Developing work breakdown structures, resource plans, activity schedules, milestones, dependencies, and implementation responsibilities for energy projects.
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Coordinating engineering design, equipment procurement, installation, testing, commissioning, and operational handover activities within agreed timelines.
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Managing shutdown windows, site access, installation sequencing, stakeholder communication, schedule risks, and continuity of critical operations.
Module 5: Feasibility Studies, Business Cases, and Financial Appraisal
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Preparing technical and commercial feasibility studies that assess energy-saving potential, technology suitability, implementation constraints, and operating requirements.
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Calculating capital expenditure, operating expenditure, energy cost savings, maintenance savings, payback periods, and lifecycle financial performance.
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Applying net present value, internal rate of return, sensitivity analysis, and scenario modelling to compare alternative energy investment options.
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Assessing energy tariff changes, financing costs, equipment replacement cycles, performance uncertainty, and other factors affecting project bankability.
Module 6: Energy-Efficient Equipment and Industrial Optimization
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Planning high-efficiency motor upgrades, variable-speed drives, compressed air improvements, efficient pumping systems, and industrial process optimization projects.
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Evaluating boiler efficiency, steam distribution, heat recovery, insulation, combustion optimization, and industrial heating system improvements.
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Reducing process energy losses through equipment right-sizing, preventive maintenance, operational controls, and improved production scheduling.
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Assessing technology specifications, compatibility, installation requirements, commissioning procedures, and measurable performance guarantees for industrial equipment.
Module 7: Building Energy Efficiency and Smart Building Systems
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Managing building retrofits involving efficient lighting, HVAC upgrades, insulation, glazing improvements, passive design, and high-performance building systems.
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Optimizing heating, ventilation, and air conditioning through commissioning, controls tuning, occupancy scheduling, and equipment performance monitoring.
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Integrating building management systems, smart thermostats, occupancy sensors, daylight controls, and automated energy management functions.
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Evaluating indoor environmental quality, occupant comfort, building operating costs, and energy performance when selecting retrofit interventions.
Module 8: Renewable Energy Integration and Distributed Energy Solutions
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Evaluating solar photovoltaic, wind, solar thermal, and other renewable energy technologies for facilities, industrial sites, and distributed energy applications.
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Assessing electricity demand profiles, generation potential, interconnection requirements, grid reliability, and renewable energy system sizing.
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Integrating battery storage, hybrid power systems, backup generation, and smart energy controls to improve reliability and manage peak demand.
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Coordinating renewable energy projects with energy efficiency improvements, electrical infrastructure upgrades, commissioning requirements, and operating procedures.
Module 9: Emerging Clean Technologies and Electrification
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Assessing heat pumps, efficient electric heating, industrial electrification, electric mobility charging, and alternative low-emission process technologies.
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Evaluating emerging solutions such as green hydrogen, advanced energy storage, smart grids, and low-carbon industrial heat for suitable applications.
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Applying technology readiness assessments, pilot projects, lifecycle evaluations, and performance validation before committing to large-scale deployment.
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Examining electricity carbon intensity, grid capacity, technology interoperability, critical material availability, and future operating cost uncertainty.
Module 10: Procurement, Contracting, and Supplier Performance
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Preparing technical specifications that define efficiency thresholds, equipment performance, lifecycle requirements, warranties, and acceptance criteria.
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Evaluating supplier proposals using technical compliance, lifecycle cost, proven performance, service capability, delivery schedules, and total cost of ownership.
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Structuring contracts with measurable energy performance obligations, commissioning requirements, maintenance provisions, and appropriate remedies for non-performance.
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Managing contractor supervision, procurement documentation, variations, equipment traceability, supply chain disruption, and supplier quality assurance.
Module 11: Project Risk, Quality, Safety, and Commissioning
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Identifying and managing technical, financial, operational, environmental, schedule, procurement, and technology integration risks throughout project delivery.
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Establishing quality assurance plans, design reviews, installation inspections, testing protocols, and acceptance procedures for energy systems.
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Integrating electrical safety, working-at-height controls, equipment isolation, construction safety, and site-specific risk assessments into implementation plans.
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Conducting functional testing, system optimization, commissioning, defect resolution, documentation, and operational handover to responsible facility teams.
Module 12: Digital Energy Management, AI, and Predictive Analytics
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Deploying smart meters, connected sensors, Internet of Things platforms, and automated monitoring systems for timely energy performance information.
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Applying AI-assisted analytics, anomaly detection, forecasting, and predictive maintenance to identify consumption deviations and optimize equipment operation.
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Using digital twins, energy modelling, and scenario analysis to compare operating strategies and improve project design and asset performance.
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Establishing data quality controls, cybersecurity safeguards, access permissions, interoperability standards, and human oversight for digital energy systems.
Module 13: Energy Management Systems and Regulatory Compliance
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Establishing energy management processes aligned with recognized frameworks such as ISO 50001 and continuous improvement principles.
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Understanding applicable energy efficiency regulations, equipment performance standards, building requirements, reporting obligations, and compliance documentation.
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Integrating energy objectives into organizational governance, management reviews, internal controls, operational procedures, and performance accountability.
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Conducting compliance reviews, internal audits, corrective actions, and management reporting to address energy performance gaps and regulatory risks.
Module 14: Climate Finance, Incentives, and Energy Performance Contracting
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Evaluating green finance, concessional funding, equipment leasing, energy service agreements, and other financing mechanisms for clean technology projects.
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Assessing grants, tax incentives, rebates, and other policy instruments where available, including eligibility, evidence, and reporting requirements.
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Understanding energy performance contracting, shared savings arrangements, guaranteed savings models, and allocation of technical and financial risks.
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Preparing lender-ready business cases, investment proposals, cash flow models, and supporting documentation for energy efficiency financing decisions.
Module 15: Measurement, Verification, and Benefits Realization
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Designing measurement and verification plans that establish baselines, define project boundaries, specify data sources, and document calculation methodologies.
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Applying recognized measurement and verification principles to compare actual energy performance with expected savings and agreed project targets.
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Normalizing results for weather, occupancy, production output, operating schedules, and other material factors affecting energy consumption.
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Maintaining auditable evidence, validating financial savings, documenting deviations, and implementing corrective actions when actual performance falls short.
Module 16: Strategic Implementation, Resilience, and Continuous Improvement
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Developing integrated energy efficiency and clean technology roadmaps that align project pipelines, funding, delivery capacity, and organizational objectives.
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Assessing emerging issues such as grid flexibility, AI-related electricity demand, battery lifecycle management, critical material supply, and climate resilience.
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Establishing long-term maintenance, operator training, asset performance reviews, and continuous improvement processes to preserve realized energy savings.
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Preparing an actionable project delivery plan with prioritized interventions, accountable owners, budgets, milestones, risk controls, and verification arrangements.
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.
