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Sustainability transformation defines a new energy landscape for data centres

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06 May, 2024

This post was originally published on Sustainability Matters

In the realm of technology and digital transformation, data centres stand as critical infrastructures, powering the backbone of the internet, cloud computing, and the Edge. Yet, with great power comes great responsibility, especially in the context of sustainability and energy management. These facilities are among the largest consumers of energy worldwide; however, there lies a vast potential within them to redefine their energy consumption patterns and, in doing so, level-up their business operations.

“Optimising the journey towards sustainability in data centres encompasses adoption of renewable energy, distributed energy resources (DERs), strategic establishment in regional areas, and innovative use of technology, including artificial intelligence. This is all to foster energy independence, and thereby operational resilience and efficiency,” said Joe Craparotta, Vice President, IT Business, Pacific Zone at Schneider Electric. 

This shift aligns with the global energy transition towards renewables across all markets and positions data centres as strong leaders in sustainable business practices. Several important factors contribute to this.

Electrification is pivotal to the energy transition and the foundation of our new energy landscape

Electrification has emerged strongly as a pivotal strategy in the energy transition for data centres committed to sustainable practices. It readily and steadily facilitates the shift from reliance on fossil fuels to the renewable sources, playing a critical role in mitigating the environmental footprint of these essential technological infrastructures without sacrificing resilience and reliability.

“By embracing electrification powered by renewables, data centres can contribute to reducing greenhouse gas emissions and partake in a global movement towards a cleaner, more sustainable energy future,” said Craparotta.

Distributed energy resources and microgrids: a game changer

Embracing DERs and microgrids signifies a transformative step towards enhancing sustainability and energy resilience within data centre operations.

They empower data centres to produce their own electricity, often leveraging renewable sources, which serves to diminish their dependence on traditional energy grids and notably curtail their carbon emissions. Microgrids, by their design, afford data centres heightened resilience and adaptability, providing a reliable energy supply even in the event of grid failures.

“Being strategic with implementing DERs, especially microgrids, to facilitate seamless integration into existing infrastructures, heralds a new era in which data centres can achieve greater energy autonomy. In doing so, they are participating in the global transition towards a more sustainable and efficient energy ecosystem,” added Craparotta.

The benefits of establishing data centres in regional areas and importance of aligning with the country’s renewables investment strategy

Having data centres in regional locales offers a myriad of sustainability advantages in capitalising on the natural and economic resources of these areas. These locations typically provide more direct access to renewable energy sources and the investment in these energy sources will accelerate in the short term. It is very important that the energy and data centre sectors collaborate to ensure the energy transition and data centre expansion are fully leveraged. The ambient conditions of certain regional areas, particularly those with naturally cooler climates, significantly minimise the reliance on energy-intensive cooling systems, enhancing energy efficiency.

Establishing data centres in less densely populated regions helps distribute technological infrastructure more evenly across the landscape, promoting technological accessibility and economic growth outside of traditional urban centres.

“Data centre decentralisation reduces environmental impact associated with energy consumption and stimulates regional economies and communities, contributing to sustainable development that extends beyond the data centre’s operational boundaries,” said Craparotta.

The role of AI and machine learning in sustainable operations

In a newer evolution of data centre operations, artificial intelligence (AI) and machine learning (ML) are an emerging cornerstone of enhanced sustainability.

Through sophisticated algorithms, AI and ML can forecast demand surges, enabling real-time adjustments to cooling systems and optimising power distribution. By analysing data patterns, these technologies pre-emptively identify potential malfunctions, allowing for timely interventions that prevent downtime and ensure continuous, efficient service in their contribution to advanced predictive maintenance strategies.

Integrating AI with ML into data centre infrastructures exemplifies a profound shift towards smarter, more resilient, and environmentally conscious operations, marking significant progress in sustainable energy management. The rise of AI has spurred notable transformations and complexities in data centre design and operation, with data centre operators working to swiftly construct and operate energy-stable facilities that are both energy-efficient and scalable.

Responding to the anticipated trajectory of AI adoption, Schneider Electric is leveraging its expertise in data centre infrastructure with NVIDIA’s advanced AI technologies to introduce the first publicly available AI data centre reference designs. These designs are set to redefine the benchmarks for AI deployment and operation within data centre ecosystems, marking a significant milestone in the industry’s evolution.

Addressing the evolving demands of AI workloads, the reference designs will offer a robust framework for implementing NVIDIA’s accelerated computing platform within data centres, while optimising performance, scalability, and overall sustainability. Partners, engineers, and data centre leaders can use these reference designs for existing data centre rooms that must support new deployments of high-density AI servers and new data centre builds that are fully optimised for a liquid-cooled AI cluster.

Leveraging innovation for sustainable transformation

Electrification supported by digitalisation using advanced technologies is the paramount commitment to innovative energy solutions. The operational efficiency gains translate to economic and environmental benefits that exemplify a forward-thinking approach in the shift towards a more sustainable and efficient operating environment in our new energy landscape.

“In the pursuit of sustainability, data centres are turning to groundbreaking technologies and methodologies that redefine energy efficiency and environmental impact. Commitment to innovation marks a significant stride establishing new industry norms for energy management and sustainability, urging continuous adaptation in the face of a rapidly changing energy landscape. The new energy landscape in which we are operating is being brought about by a shift in the way we consume, control, and produce energy, leveraging technologies,” said Craparotta.

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Navigating the supply chain for Scope 3 emissions

Navigating the supply chain for Scope 3 emissions

With more data centres transitioning to renewable energy sources, Scope 3 emissions become a data centre’s largest contributor to its greenhouse gas (GHG) emissions. This category of emissions is also the least reported and understood.

The focus on quantifying Scope 3 emissions in the value chain is part of a broader effort by organisations to assess and manage their environmental impact comprehensively. However, it requires a data-driven approach to helping data centre operators identify and categorise emissions from operations and the supply chain, then prioritise efforts to make impactful carbon reductions. This includes outsourced IT services from cloud and colocation service providers.

Undertaking this process allows for more informed decision-making and targeted efforts to reduce carbon emissions throughout the value chain. Developing a strategy that identifies the biggest source of carbon emissions in the value chain is quickly becoming a data centre industry priority, alongside the urgency to establish easy-to-use frameworks.

Data collection practices for a reporting framework

The effort to quantify and manage Scope 3 emissions aligns with broader trends in sustainability and corporate responsibility. Many organisations are recognising the importance of transparently addressing their environmental impact as part of their commitment to sustainable practices, but they don’t know where to start, which reporting framework to use, or how often they should be collecting and reporting data.

However, quantifying and reporting on Scope 3 presents a significant challenge for data centre operators. This is mainly due to a lack of three resources: reliable supplier data, quantitative tools, and an accounting and reporting methodology.

Establishing and implementing a framework that incorporates accurate carbon counting and target setting, while systematically reviewing company data and emission sources, is the foundation to creating an achievable reduction plan.

Electricity generation, GHG emissions and water consumption determine the carbon and water footprint of data centres, including that of its suppliers. To be successful, suppliers must provide data centre operators with their own Scope 3 emissions data, related to the products used in their data centres.

These emissions vary significantly depending on many factors including data centre size, redundancy level, location, electricity emission factor, core and shell construction, IT equipment configuration, energy efficiency, equipment lifespan and replacement frequency, and value chain activities.

Sustainability reporting can provide a competitive advantage

The proactive stance of data centre operators towards achieving net-zero climate goals reflects a broader shift in business attitudes toward sustainability. As environmental concerns become more prominent, companies are recognising the need to align their operations across the value chain with climate goals to meet the expectations of a diverse range of stakeholders including customers, investors and vendors, and contribute to a more sustainable future.

Aside from being a compliance necessity, GHG reporting encompassing Scope 3 emissions is increasingly being recognised as a strategic and beneficial practice for the data centre industry. It aligns with the growing emphasis on sustainability, helps manage risks, and positions companies as responsible and forward-thinking entities in an environmentally conscious market.

Robust emissions reporting can enhance investor confidence and attract investment from those seeking sustainable and responsible opportunities. Data centres that prioritise emissions reduction and extend their sustainability efforts to their supply chains can provide a competitive edge. A resilient and sustainable supply chain can contribute to business continuity and enhance the overall reputation of a company.

Vendor commitment to reducing embodied carbon

Scope 3 emissions are by far the most challenging to report for data centre operators who should integrate sustainability into their evaluation criteria when selecting data centre equipment suppliers and service providers to minimise Scope 3 value chain carbon footprint.

Vendors need to commit to reducing the embodied carbon of their product portfolio. Finally, data centre equipment suppliers must make environmental product disclosure documents freely available and easily understandable for their products.

By actively seeking equipment suppliers and service providers committed to reducing their environmental impact, data centre operators can play a crucial role in mitigating the overall carbon footprint associated with their operations related to Scope 3 emissions. The call for transparency and the availability of environmental product information further enhances the ability to make sustainable choices in the selection of data centre equipment.

Many organisations have focused on measuring and reporting Scope 1 and 2 emissions associated with their IT resources and implementing strategies to reduce them. Knowing where to start on your Scope 3 emissions metrics journey can be daunting. By quantifying Scope 3 emissions from their value chain, organisations can measure their total carbon footprint, including outsourced IT services from cloud and colocation service providers. Organisations can then prioritise their efforts to make impactful carbon reductions.

Schneider Electric offers many resources and tools to help organisations define Scope 3 emissions, including an inventory of nine emissions source categories and their data centre-specific subcategories for accounting and reporting purposes. This includes a modelling tool to simulate and model energy consumption within data centres that can help to estimate associated CO2 emissions. It also considers other factors such as power consumption, cooling systems, and overall data centre efficiency.

Its supply chain decarbonisation services help users leverage technology to measure and model resource use in the supply chain, educate and engage supplier partners, and support actions to decarbonise supplier operations.

By following these initial steps, data centres can expand their understanding of Scope 3 emissions and implement the right tools and measurement practices to work towards reducing their overall environmental impact and meeting reporting requirements with improving results.

Joe Craparotta

Top image credit: iStock.com/kohei_hara

Investing in Resilience: Blue Carbon Ecosystems, Communities, and Finance for the Indo-Pacific

Investing in Resilience: Blue Carbon Ecosystems, Communities, and Finance for the Indo-Pacific

Investing in Resilience: Blue Carbon Ecosystems, Communities, and Finance for the Indo-Pacific

Teaser Text
USAID’s “Investing in Resilience” report brings together the evidence and analyses that can help guide USAID Mission staff, partners, host country governments, and communities to advance blue carbon initiatives in the Indo-Pacific region.

jschoshinski
Tue, 11/12/2024 – 21:43

Publication Date
11/12/2024

Sectors

Natural Climate Solutions
Climate Finance

Country

Fiji
Kiribati
Republic of the Marshall Islands
Federated States of Micronesia
Nauru
Papua New Guinea
Philippines
Solomon Islands
Tonga
Tuvalu
Vanuatu
Micronesia

Region

Asia

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