Koulutus
Overview
This course provides a technical exploration of how energy enters, moves through, and exits a modern data centre environment. Learners will examine how infrastructure design, operational efficiency, and sustainability initiatives influence energy consumption, resilience, and long-term environmental impact.
Through practical discussions and real-world scenarios, participants will explore the complete energy lifecycle within a data centre facility, including electrical utilities, cooling systems, backup power, renewable energy integration, waste heat re-use, and sustainability reporting. The course also examines how organisations can reduce carbon impact, improve operational efficiency, and align energy strategies with broader business and sustainability objectives.
We believe organisations of the future will require teams that can combine operational performance with responsible environmental practices. This course helps learners develop the knowledge needed to support more sustainable, resilient, and energy-efficient data centre operations.
Prerequisites
Participants should have:
- A foundational understanding of data centre operations or infrastructure environments.
- Familiarity with electrical, mechanical, or facilities management concepts.
- Basic knowledge of energy management or sustainability principles is recommended but not required.
- An interest in improving operational efficiency, resilience, and sustainability within technical environments.
Target audience
This course is designed for:
- Data centre operations professionals.
- Facilities and infrastructure managers.
- Sustainability and energy management teams.
- Engineers responsible for electrical, cooling, or mechanical systems.
- Technical professionals supporting energy optimisation initiatives.
- Organisations seeking to improve sustainability practices across critical infrastructure environments.
Objectives
By the end of this course, learners will be able to:
- Align data centre business objectives with energy and sustainability strategies.
- Identify and analyse energy sources used within data centre environments.
- Explain how energy flows through critical infrastructure systems.
- Assess the operational challenges associated with partial-load performance.
- Identify opportunities for energy-efficient and lower-carbon operational improvements.
- Evaluate the risks and benefits of implementing renewable and low-energy solutions.
- Create energy flow maps to support operational analysis and optimisation.
- Assess waste heat re-use opportunities and associated operational considerations.
- Calculate and evaluate the carbon impact of a data centre energy profile.
- Apply monitoring, measurement, and reporting practices to support sustainability goals.
- Support the development of sustainability-focused operational cultures within technical teams.
Outline
Understanding energy in the data centre
- Introduction to energy flow within data centre environments
- The relationship between operational performance and sustainability
- Understanding energy demand across critical infrastructure
- Aligning business objectives with energy planning
The critical load
- Understanding critical IT and operational loads
- Energy demand characteristics of compute environments
- Load balancing and operational efficiency
- The impact of utilisation patterns on sustainability objectives
Electrical utility and power distribution
- Overview of utility power infrastructure
- Understanding power quality and reliability
- Distribution design considerations
- Energy efficiency considerations within electrical systems
Uninterruptible power supply systems
- The role of uninterruptible power supply systems in resilience
- Energy losses and efficiency considerations
- Battery technologies and sustainability implications
- Managing partial-load performance challenges
Emergency power generation
- Backup generation technologies and operational considerations
- Fuel efficiency and emissions management
- Sustainability considerations for standby power systems
- Evaluating alternative and lower-carbon generation approaches
Cooling systems and thermal management
- Fundamentals of cooling within data centre environments
- Airflow and thermal management strategies
- Energy consumption within cooling systems
- Opportunities for improved cooling efficiency
Waste heat re-use
- Understanding waste heat generation within facilities
- Opportunities for heat recovery and re-use
- Operational limitations and implementation challenges
- Evaluating the commercial and environmental value of re-use initiatives
BMS, EMS, and DCIM integration
- Introduction to building management systems, energy management systems, and data centre infrastructure management platforms
- Using monitoring systems to support operational efficiency
- Data collection and reporting strategies
- Supporting informed decision-making through operational insight
Sustainability principles in data centres
- Understanding sustainability within critical infrastructure environments
- Environmental impact considerations
- Water conservation and waste management practices
- Supporting long-term operational sustainability
Energy efficiency and renewable energy
- Identifying low-energy operational opportunities
- Renewable energy integration considerations
- Evaluating implementation risks and operational impact
- Improving efficiency through infrastructure optimisation
Sustainable design and construction
- Sustainability considerations during facility design
- Embodied energy within infrastructure and consumable resources
- Sustainable construction approaches
- Designing for long-term operational efficiency
Monitoring, measurement, and reporting
- Measuring energy consumption and efficiency
- Carbon reporting and sustainability metrics
- Developing energy flow maps and performance baselines
- Supporting compliance and stakeholder reporting requirements
Stakeholder engagement and collaboration
- Building cross-functional sustainability initiatives
- Aligning operational and organisational sustainability goals
- Supporting collaboration between technical and business teams
- Communicating sustainability progress effectively
Creating a sustainable culture
- Embedding sustainability into operational practices
- Encouraging continuous improvement initiatives
- Developing sustainability awareness across teams
- Supporting long-term behavioural change
Case studies and best practices
- Reviewing real-world sustainability initiatives
- Lessons learned from operational environments
- Identifying common challenges and mitigation strategies
- Applying best practices within different organisational contexts
Action planning and next steps
- Developing practical sustainability improvement plans
- Identifying immediate and long-term opportunities
- Establishing operational priorities and goals
- Supporting ongoing learning and development pathways
Exams and assessments
Learners will complete knowledge checks, practical discussions, and scenario-based exercises throughout the course to reinforce learning outcomes.
There are no formal examinations included as part of this course. Participants will instead focus on applying sustainability and energy management concepts to realistic operational scenarios within data centre environments.
Hands-on learning
This course includes:
- Scenario-based exercises focused on energy efficiency and sustainability planning.
- Guided analysis of energy flow and operational performance.
- Practical discussions around renewable energy, waste heat re-use, and sustainability reporting.
- Real-world examples of sustainability initiatives within data centre environments.
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ITIL®, PRINCE2® are registered trademarks of the PeopleCert group. Used under licence from PeopleCert. All rights reserved.
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