Offsite Data Center Power Infrastructure Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented By Data Center Type (Colocation Data Centers, Hyperscale Data Centers, Modular/Containerized Data Centers, Edge Data Centers, Disaster Recovery Data Centers), By Power Capacity (Below 500 kW, 500 kW – 1 MW, 1 – 5 MW, Above 5 MW), By End-User Industry (IT & Telecom, BFSI, Healthcare, Government & Public Sector, Retail & E-commerce, Others), By Region, and By Competition, 2020-2030F

Market Overview

Global Offsite Data Center Power Infrastructure Market was valued at USD 13.52 Billion in 2024 and is expected to reach USD 36.49 Billion by 2030 with a CAGR of 17.82% during the forecast period.

The global Offsite Data Center Power Infrastructure Market is experiencing robust growth, driven by the accelerating demand for outsourced IT infrastructure, especially from hyperscale, colocation, and modular data centers. As organizations continue to prioritize digital transformation, there has been a rapid rise in the volume of data generated, processed, and stored—necessitating resilient and scalable data center infrastructure. Offsite data centers, often located away from the core enterprise facilities, rely heavily on reliable and redundant power systems to maintain 24/7 operations, making power infrastructure a foundational component. The shift toward cloud computing, IoT adoption, and edge computing is further intensifying the need for efficient power solutions that ensure uninterrupted operations, energy efficiency, and real-time monitoring.

Key components of the offsite data center power infrastructure include Uninterruptible Power Supply (UPS) systems, generators, Power Distribution Units (PDUs), transfer switches, busbars, battery systems, and intelligent monitoring tools. These components are critical for ensuring business continuity and minimizing downtime. Among these, UPS systems and PDUs hold a significant market share due to their pivotal role in maintaining a consistent power supply. Lithium-ion batteries are gaining popularity over traditional VRLA batteries due to longer life, reduced footprint, and better thermal stability—especially in hyperscale environments.

The market is highly competitive and includes a mix of global players like Schneider Electric, Eaton, Vertiv, ABB, and Siemens, who are investing in R&D to offer modular, energy-efficient, and intelligent power management systems. Innovation in power infrastructure is being driven by the need for sustainability and energy optimization, with data center operators focusing on green certifications and carbon reduction goals. Furthermore, rising incidences of power outages and the increasing cost of downtime are compelling businesses to invest more in resilient backup power systems.

Regionally, North America leads the global market due to the concentration of hyperscale and colocation data centers in the U.S., followed by Europe and Asia-Pacific. Emerging markets in Southeast Asia, the Middle East, and Latin America are also gaining traction due to growing internet penetration, digital economy initiatives, and cloud adoption. As the global digital infrastructure expands, the demand for efficient, reliable, and scalable offsite data center power infrastructure is expected to continue its upward trajectory, with vendors focusing on integration, modularity, and AI-powered monitoring solutions to enhance performance and reliability.

Key Market Drivers

Rising Adoption of Colocation and Hyperscale Data Centers

The global shift toward cloud computing and digital services has spurred demand for colocation and hyperscale data centers, significantly driving investment in offsite power infrastructure. Businesses are increasingly outsourcing their data storage and processing needs to third-party providers to reduce capital expenditure and improve scalability. Hyperscale data centers, operated by tech giants such as Amazon, Google, and Microsoft, demand highly redundant and energy-efficient power systems to support massive server loads 24/7.

Over 60% of enterprise data is now processed outside traditional centralized data centers. More than 700 hyperscale data centers are currently operational worldwide, with over 300 more in development. The average power requirement for a hyperscale facility exceeds 20 MW, significantly higher than enterprise data centers. Colocation facilities now host 40% of the world’s cloud workloads, requiring modular and scalable power systems. On average, colocation data centers maintain a power redundancy of N+1 or higher to ensure uptime above 99.99%.

This exponential growth in offsite hosting is fueling the demand for power infrastructure components such as UPS systems, generators, and intelligent PDUs that can support higher energy densities, seamless load transfers, and real-time performance monitoring.

Increasing Power Outages and Downtime Costs

The rising frequency and severity of power disruptions across key data center regions have intensified the demand for resilient power infrastructure. Businesses now perceive unplanned outages as critical risks to operational continuity, especially in financial services, healthcare, and telecom sectors. Offsite data centers must incorporate advanced backup power systems to ensure uninterrupted operations even during grid failures.

The average cost of a single minute of data center downtime is estimated at USD9,000. Data center operators report that 32% of outages are caused by power-related issues. In the U.S. alone, over 300 major power disturbances were recorded annually over the last five years. 75% of enterprises rank power backup and UPS as their top infrastructure priority in colocation environments. 80% of Tier III and Tier IV offsite data centers are equipped with dual power feeds and redundant UPS systems.

The demand for high-reliability UPS, automatic transfer switches, and diesel or gas generators is rising as operators aim to reduce mean time to recovery (MTTR) and improve service-level agreements (SLAs) for their clients.

Shift Toward Energy-Efficient and Sustainable Power Solutions

Sustainability is no longer optional for data center operators, particularly those managing offsite facilities for enterprise clients with ESG commitments. There is a growing push to adopt power infrastructure that minimizes energy waste, carbon footprint, and environmental impact while maintaining reliability. Technologies such as high-efficiency UPS systems, lithium-ion batteries, and intelligent PDUs are gaining rapid traction.

Data centers account for approximately 2% of total global electricity consumption. Energy-efficient power equipment can reduce power usage effectiveness (PUE) from 1.8 to below 1.3. Lithium-ion batteries offer a 60% longer lifecycle and 40% lower total cost of ownership over VRLA. Adoption of modular UPS systems is growing at 20% YoY due to their energy optimization and scalability. Nearly 65% of offsite data centers are pursuing green certifications such as LEED or ISO 50001.

Vendors are responding by offering power systems with intelligent load management, power factor correction, and energy usage monitoring. This aligns with both operational efficiency goals and compliance with regional emissions regulations.

Surge in Edge Computing and Modular Data Centers

The rise of latency-sensitive applications—like IoT, 5G, and real-time analytics—is propelling the demand for edge and modular data centers, which are often located offsite or in distributed geographies. These facilities require compact, efficient, and redundant power solutions that can be deployed rapidly and scaled on demand.

Over 50% of new data center deployments now include modular or containerized elements. The average deployment time of a modular data center is 50–60% faster than traditional builds. Edge data centers typically operate within a 10–500 kW power range but require N+1 or 2N redundancy. 70% of edge operators cite compact UPS and plug-and-play PDUs as top procurement criteria. Nearly 30% of future offsite power infrastructure spending is projected to be allocated to edge sites.

This trend is increasing demand for integrated power modules, lithium-ion UPS systems, and flexible power distribution architectures that can support diverse and decentralized workloads across urban and remote areas.

Growing Complexity of IT Workloads and Virtualization

As organizations adopt hybrid cloud, AI workloads, and virtualization technologies, the underlying data center infrastructure—including power systems—must support higher densities and fluctuating load profiles. Offsite facilities are increasingly preferred for hosting these workloads due to scalability, cost-efficiency, and improved disaster recovery capabilities.

High-performance computing (HPC) workloads can demand rack densities above 30 kW. Virtualized environments lead to 2x–3x more dynamic power usage patterns than traditional workloads. Over 65% of enterprise workloads are already virtualized, requiring smart power load balancing. 45% of colocation operators now deploy AI-powered energy management for predictive power distribution. Modular power infrastructure adoption has grown 25% YoY among facilities supporting AI and big data tasks.

This driver is pushing vendors to develop intelligent UPS systems, real-time monitoring tools, and scalable PDUs that can adapt to workload-driven power fluctuations, ensuring both operational efficiency and system uptime in complex offsite setups.

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Key Market Challenges

High Initial Capital Investment and Operational Costs

Deploying robust and scalable power infrastructure in offsite data centers requires substantial upfront capital and long-term operational expenses. While these systems are essential for ensuring uptime and supporting high-performance workloads, the cost of advanced UPS systems, diesel generators, redundant switchgear, and energy monitoring tools can be prohibitive, especially for smaller colocation or edge data center providers. Capital investment increases further when incorporating energy-efficient technologies or compliance-oriented solutions, such as lithium-ion battery systems or modular UPS units.

Moreover, operational costs are significant. These include maintenance of mechanical components, regular testing of backup systems, fuel storage and management for generators, and software licensing fees for power monitoring platforms. Additionally, managing energy consumption is a challenge, as offsite facilities often operate in regions with volatile energy prices. Many data center operators must also staff facilities with skilled technicians, which adds labor overhead to OPEX.

For enterprises or service providers expanding in emerging markets, these cost factors may delay infrastructure rollout. Even hyperscale companies need to assess the ROI of power system upgrades against cloud service revenues. This challenge impacts both capital efficiency and deployment speed, particularly in fast-evolving IT landscapes that require rapid scalability.

Space and Integration Constraints in Edge and Modular Environments

As edge computing and modular data centers proliferate, one of the key challenges facing offsite power infrastructure deployment is space limitation. Edge data centers are often installed in urban, remote, or harsh environments with minimal floor area and limited ability to house bulky power equipment. Traditional UPS systems, large diesel generators, and complex power distribution units are not always viable in such constrained locations.

Furthermore, integrating power infrastructure into pre-fabricated or modular environments requires precise design coordination and customization. Power systems must be compact, lightweight, and easy to maintain while still meeting performance requirements like N+1 or 2N redundancy. Poor integration can result in inefficient cooling, overloading, and reduced reliability, which undermines the entire operation.

The challenge is further complicated by the need to future-proof systems. Modular data centers are built for scalability, so power infrastructure must be flexible enough to support future expansions without major retrofits. Finding balance between power density, physical footprint, energy efficiency, and ease of deployment remains a persistent challenge—particularly for edge and containerized applications where operational agility is paramount.

Supply Chain Volatility and Component Lead Times

Offsite data center power infrastructure depends on complex supply chains for components like UPS modules, lithium-ion batteries, control panels, transformers, and power cables. However, global supply chain disruptions—amplified by geopolitical tensions, pandemic-related delays, and semiconductor shortages—have significantly impacted production schedules and lead times.

For example, high-efficiency UPS systems and lithium-ion battery packs often require specialized materials like lithium, cobalt, and semiconductors, which are subject to availability issues and price fluctuations. Delivery delays of even a few weeks can stall entire data center builds or upgrades. Many manufacturers also struggle with sourcing transformers and power distribution units due to constraints in copper and steel supplies.

Additionally, transportation delays, port congestion, and increased freight costs make it difficult for project managers to maintain predictable timelines. This unpredictability affects budgeting, contracts with enterprise clients, and SLA compliance for colocation or hyperscale providers.

The dependency on global manufacturing hubs—especially for critical subcomponents—limits flexibility and regional sourcing. In an industry where uptime is a non-negotiable metric, even minor delays in power infrastructure delivery can cascade into larger project risks and operational inefficiencies.

Skilled Workforce Shortage for Power System Deployment and Maintenance

The increasing complexity of power infrastructure—combined with the rising number of offsite and edge data centers—has led to a growing shortage of skilled professionals capable of installing, maintaining, and troubleshooting these systems. Unlike traditional electrical setups, modern data center power systems involve smart UPS, modular PDUs, lithium-ion battery monitoring, and AI-enabled energy optimization platforms, all of which require specialized knowledge.

Technicians and engineers must be proficient not only in electrical engineering but also in IT systems, remote monitoring tools, and data center management software. However, many regions, especially in emerging markets, face a lack of training programs or formal certification pathways for such hybrid roles. This creates a talent gap, increasing the dependency on third-party service providers, which may compromise long-term system reliability.

The shortage also drives up labor costs and delays commissioning timelines. Many organizations struggle to recruit qualified personnel who can work across multiple facilities, respond to emergency outages, and support 24/7 operational requirements. Without adequately trained staff, even the most sophisticated power infrastructure may face operational inefficiencies, unplanned downtime, or safety risks.

Addressing this challenge requires long-term investment in workforce development, cross-disciplinary training, and the integration of automation and remote monitoring—but these solutions are neither fast nor inexpensive.

Regulatory Compliance and Environmental Restrictions

As governments and international agencies tighten environmental and energy-efficiency regulations, data center operators face growing pressure to ensure that offsite power infrastructure meets evolving standards. From emissions limits on diesel generators to energy usage caps and mandates for renewable integration, regulatory complexity is rising—especially in regions like the EU, North America, and parts of Asia-Pacific.

For example, many jurisdictions are restricting the deployment of diesel backup generators due to air quality concerns. This forces operators to explore alternative solutions such as gas generators, hydrogen fuel cells, or renewable energy integration—each of which comes with its own set of technological and logistical challenges. UPS systems must now comply with energy-efficiency labeling schemes, and PUE metrics are often subject to public reporting for large colocation providers.

Complying with these rules requires continuous investment in monitoring systems, emissions reporting tools, and system retrofits. Failure to comply can result in project delays, fines, or even revocation of operating licenses. Moreover, navigating differing regulations across multiple geographies adds administrative burden, especially for hyperscalers with global footprints.

This challenge is particularly acute for operators in fast-growing regions with underdeveloped policy frameworks, where rules may be ambiguous, poorly enforced, or subject to frequent change—further increasing risk and uncertainty in power infrastructure planning.

Key Market Trends

Integration of AI and Machine Learning in Power Monitoring

Artificial Intelligence (AI) and Machine Learning (ML) are being increasingly integrated into data center power infrastructure to enhance efficiency, reliability, and predictive maintenance. Offsite data centers—especially hyperscale and colocation sites—are turning to intelligent power management platforms that use AI to analyze energy usage, forecast demand spikes, and proactively detect anomalies in UPS systems, battery health, or load balancing.

Modern power infrastructure now comes equipped with smart sensors and IoT-enabled meters embedded in PDUs, switchgear, and UPS modules. These devices feed real-time data into cloud-based platforms, where AI algorithms identify usage patterns, detect inefficiencies, and recommend optimizations. For instance, operators can shift loads, calibrate redundancy levels, or initiate battery cycling based on ML-generated insights.

One key application is predictive failure detection. AI systems can analyze trends in voltage drops, harmonic distortion, and temperature anomalies to alert technicians before a critical failure occurs. This reduces unplanned downtime and lowers maintenance costs by up to 30%.

Additionally, AI supports load forecasting in dynamic IT environments. As virtualization, AI workloads, and containerization create fluctuating power demands, ML algorithms optimize power provisioning in real time. This ensures right-sizing of UPS and generator usage, minimizing energy waste and improving Power Usage Effectiveness (PUE).

Around 45% of new hyperscale and colocation data centers are now incorporating AI-driven energy management tools, and the trend is accelerating as data volumes increase. Integration with Building Management Systems (BMS) and DCIM platforms allows a centralized, intelligent overview of energy consumption and infrastructure health, empowering better decisions and sustainable growth.

Growing Use of Modular and Scalable Power Solutions

As demand for rapid data center deployment rises, particularly in offsite and edge environments, the market is witnessing strong momentum toward modular and scalable power infrastructure. Traditional fixed-capacity UPS systems and distribution architectures are being replaced by modular units that can be easily expanded or reconfigured based on load growth.

Modular power systems allow data center operators to build incrementally—adding UPS modules, PDUs, or switchgear sections as the facility scales. This "pay-as-you-grow" model optimizes capital expenditure and reduces underutilization of infrastructure. For instance, a 500 kW UPS can start at 100 kW and be scaled in 50 kW steps, with minimal downtime or rewiring.

Moreover, modular solutions simplify maintenance and upgrades. If a module fails, it can be hot-swapped without affecting overall operations—minimizing mean time to repair (MTTR). This level of redundancy and flexibility is crucial for offsite environments where access may be restricted or remote.

Compact, pre-engineered modular power skids and pods are also gaining traction. These systems integrate UPS, battery banks, switchgear, and controls into a single deployable unit, significantly reducing installation time. Many providers now offer prefabricated power rooms that can be installed in weeks instead of months.

With over 60% of new data center builds in 2024 expected to include modular elements, this trend is becoming foundational in future-proofing power infrastructure. It supports faster deployment, improves operational agility, and allows data centers to respond quickly to evolving demand without sacrificing reliability or efficiency.

Emphasis on Green Power and Renewable Integration

Sustainability is a top priority in the offsite data center sector, with a growing emphasis on green energy sourcing and renewable power integration. Pressure from regulatory bodies, investors, and environmentally conscious clients is compelling operators to adopt clean energy strategies for both primary and backup power systems.

Many offsite data centers are now integrating solar, wind, and hydrogen-based power as supplements or alternatives to traditional diesel generators. Microgrid technologies and on-site renewable generation are being explored, particularly in regions with favorable climates or incentives. For instance, combining rooftop solar with battery storage and gas generators enables hybrid backup systems that reduce carbon emissions while maintaining uptime.

Diesel generators—long the standard for backup—are increasingly being replaced or augmented by natural gas gensets or hydrogen fuel cells, which emit fewer greenhouse gases. Additionally, high-efficiency UPS systems and transformers with lower energy losses are being prioritized to reduce operational emissions.

Green initiatives are being tracked via metrics such as Carbon Usage Effectiveness (CUE) and PUE, which are now often part of colocation SLA agreements. Over 70% of global colocation providers now offer green-certified services, and sustainability is becoming a competitive differentiator.

Data center operators are also signing Power Purchase Agreements (PPAs) to source renewable energy from offsite locations, making their infrastructure more environmentally friendly without on-site generation. As regulations tighten and carbon-neutral targets proliferate, renewable integration is not just a trend but a necessity for long-term compliance and brand reputation.

Expansion of Edge and Micro Data Centers Driving Localized Power Solutions

The proliferation of edge computing is transforming power infrastructure strategies for offsite data centers. As data workloads move closer to users to reduce latency—especially for applications like 5G, IoT, AR/VR, and real-time analytics—there’s a growing need for micro and edge data centers that can be deployed rapidly in diverse, often challenging locations.

This has created demand for localized, compact, and energy-efficient power systems that can operate independently or with minimal external grid support. Edge sites often lack space and HVAC systems, so power components must be small-footprint, low-maintenance, and modular. For instance, compact lithium-ion UPS systems with remote monitoring capabilities are widely preferred.

Unlike traditional centralized facilities, edge environments require decentralized power strategies, often incorporating solar panels, microturbines, or fuel cells. Remote management is critical, so systems increasingly rely on cloud-based power monitoring, autonomous diagnostics, and AI-driven fault prediction.

Many edge data centers are now designed as fully prefabricated modules, with power infrastructure embedded as part of the containerized setup. This speeds up deployment while ensuring consistent power quality. Additionally, manufacturers are innovating with plug-and-play power skids that combine distribution panels, PDUs, and breakers into a single enclosure for easy installation.

Edge and micro data centers are expected to account for 30–40% of new data center rollouts globally by 2026. As this segment grows, so will the need for agile, intelligent, and remote-ready power infrastructure—marking a decisive shift away from large, centralized systems toward nimble, distributed architectures that support emerging digital use cases.

Segmental Insights

Data Center Type Insights

Colocation Data Centers segment dominates in the Global Offsite Data Center Power Infrastructure market in 2024 due to their large-scale deployment, rising enterprise outsourcing trends, and growing need for high-availability infrastructure. Enterprises are increasingly moving away from maintaining their own on-premise data centers and instead opting for colocation services to reduce CAPEX, improve scalability, and ensure better uptime performance. Colocation providers are responding by rapidly expanding their footprint and investing heavily in advanced power infrastructure to meet Tier III and Tier IV reliability standards. These facilities require highly resilient power systems—including N+1 or 2N UPS configurations, diesel generator sets, redundant switchgear, lithium-ion battery solutions, and intelligent power distribution units (PDUs)—to ensure seamless 24/7 operations.

As of 2024, over 55% of new offsite power infrastructure demand originates from colocation facilities, driven by cloud service providers, fintechs, AI startups, and government agencies colocating their mission-critical applications. Colocation centers also often serve as regional hubs for hybrid cloud architecture, requiring highly adaptable and scalable power modules to support fluctuating workloads. Additionally, many colocation operators are pursuing green certifications and ESG compliance, prompting investments in energy-efficient UPS systems, battery monitoring, and renewable power integration. Unlike hyperscale or enterprise-owned data centers that often rely on in-house power configurations, colocation centers must provide SLA-based reliability guarantees to multiple tenants, elevating the need for sophisticated and redundant power infrastructure.

Moreover, the competitive colocation landscape pushes providers to differentiate through better uptime, energy efficiency, and lower PUE, further driving innovation in power systems. With geographic expansion into emerging markets and edge locations, colocation centers are increasingly deploying modular and pre-engineered power systems to shorten construction timelines and optimize floor space. This makes them the primary driver of demand in the offsite data center power infrastructure market in 2024.

Power Capacity Insights

500 kW – 1 MW segment dominated the Global Offsite Data Center Power Infrastructure market in 2024 due to its alignment with the power needs of mid-sized colocation centers, edge facilities, and enterprise-grade modular data centers. This capacity range offers an ideal balance between scalability, cost-efficiency, and redundancy (N+1 or 2N setups) for most offsite deployments. It supports hybrid IT workloads, AI/ML processing, and regional cloud services without the complexity or high cost of multi-megawatt setups. Additionally, rapid digital expansion in emerging markets has fueled demand for compact, scalable infrastructure within this range, further solidifying its market dominance.

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Regional Insights

Largest Region

North America dominates the Global Offsite Data Center Power Infrastructure market in 2024 driven by its highly developed data center ecosystem, increasing demand for scalable digital services, and widespread presence of hyperscale and colocation providers. The region is home to several major data center clusters—such as Northern Virginia, Silicon Valley, Dallas, and Phoenix—that house thousands of offsite data centers requiring robust and resilient power infrastructure. These facilities cater to cloud giants, tech enterprises, financial institutions, and AI-focused organizations that demand uninterrupted power availability and low latency performance.

One of the primary reasons for North America’s leadership is the rapid expansion of hyperscale and colocation data centers. U.S.-based providers like Equinix, Digital Realty, CyrusOne, and CoreSite are investing in new facilities and upgrading existing ones with modular UPS systems, lithium-ion batteries, intelligent switchgear, and AI-driven energy management platforms. Many of these deployments fall within the 500 kW to 1 MW power range, which is dominant in the market due to its scalability and cost-efficiency.

North America is also a leader in energy-efficient and sustainable power solutions. Strict regulatory standards and ESG commitments from major companies are pushing data centers to integrate renewable energy sources, adopt high-efficiency UPS systems, and reduce carbon emissions through innovative power architectures. Furthermore, government incentives and tax breaks for green energy adoption contribute to ongoing modernization of power infrastructure.

The region also benefits from technological maturity and availability of skilled labor, enabling faster deployment and better maintenance of advanced power systems. With strong digital infrastructure, stable grid connectivity, and widespread 5G and AI adoption, North America continues to invest in future-ready offsite power technologies. These factors collectively position the region as the global leader in offsite data center power infrastructure in 2024, with continued momentum expected in the years ahead.

Emerging Region

Europe is the emerging region in the Global Offsite Data Center Power Infrastructure market in the coming period due to rising demand for digital sovereignty, cloud adoption, and data localization regulations. Countries like Germany, the Netherlands, Ireland, and Sweden are witnessing a surge in colocation and edge data center development. The region’s strong push for renewable energy integration, green data center certifications, and stringent carbon neutrality goals is accelerating investments in advanced, energy-efficient power infrastructure. Additionally, increased AI, IoT, and 5G deployments across sectors are driving demand for scalable and resilient offsite power systems, positioning Europe as a strategic growth hub in the forecast period.

Recent Developments

• In May 2025, Vodafone Idea (Vi) announced the launch of its high-speed 5G services in the Delhi-NCR region, effective from May 15. This marks a significant milestone in Vi’s nationwide 5G deployment. Following earlier launches in Mumbai, Chandigarh, and Patna, the company plans to extend 5G coverage across all 17 priority circles where it holds spectrum licenses by August 2025, reinforcing its commitment to expanding advanced connectivity across India.
• In April 2025, Anaplan announced the opening of a new data center in India, part of its USD 500 million investment to drive innovation and expand its global footprint. The new facility addresses rising demand for scalable, high-performance planning solutions across sectors such as finance, retail, manufacturing, and technology. Amit Bagga, Managing Director for APAC, emphasized that the data center ensures data residency, regulatory compliance, and highlights India’s growing market significance.
• In Nov 2024, Equinix has partnered with the National University of Singapore (NUS) to explore innovative sustainability and energy solutions for data centers. This collaboration aims to enhance energy efficiency and environmental impact reduction in data center operations. By leveraging NUS's research expertise and Equinix’s global data center platform, the partnership seeks to advance the development of green technologies, supporting the global shift towards sustainable infrastructure. The initiative underscores Equinix's commitment to achieving net-zero emissions and promoting eco-friendly solutions in the data center industry.
• In May 2024, Equinix has launched dual-metro data centers in Malaysia, further boosting the country’s digital economy ambitions. These state-of-the-art facilities are designed to meet the growing demand for digital infrastructure, supporting key industries such as finance, e-commerce, and cloud computing. The new data centers will enhance connectivity, enabling businesses to scale rapidly and improve performance. Equinix’s investment in Malaysia underscores its commitment to supporting the region's digital transformation and fostering economic growth through secure and efficient data center solutions.
• In Oct 2024, NTT has announced the launch of a new advanced data center in Japan, designed to meet the growing demand for digital infrastructure and support business continuity. The facility will enhance NTT’s cloud and managed services offerings, enabling businesses to leverage cutting-edge technologies and improve operational efficiency. With a focus on sustainability, the data center will integrate energy-efficient solutions to reduce environmental impact. This move strengthens NTT’s position as a leader in providing reliable, secure, and scalable data center services.
• In July 2023, NTT has expanded its global presence with the opening of a new data center in Singapore, aimed at supporting the growing demand for cloud, connectivity, and managed services in the region. This state-of-the-art facility will enhance NTT’s ability to deliver secure, high-performance solutions to businesses across Southeast Asia. By integrating cutting-edge technologies and energy-efficient practices, the new data center further strengthens NTT's commitment to providing sustainable, scalable infrastructure for enterprises in the rapidly evolving digital landscape.

Key Market Players

• Schneider Electric SE 
• Eaton Corporation plc
• Vertiv Holdings Co
• ABB Ltd.
• Siemens AG
• Legrand SA
• Mitsubishi Electric Corporation
• Huawei Technologies Co., Ltd.
• Cummins Inc.
• Caterpillar Inc

Report Scope:

In this report, the Global Offsite Data Center Power Infrastructure Market has been segmented into the following categories, in addition to the industry trends which have also been detailed below:

•  Offsite Data Center Power Infrastructure Market, By Data Center Type:

o   Colocation Data Centers

o   Hyperscale Data Centers

o   Modular/Containerized Data Centers

o   Edge Data Centers

o   Disaster Recovery Data Centers

• Offsite Data Center Power Infrastructure Market, By Power Capacity:

o   Below 500 kW

o   500 kW – 1 MW

o   1 – 5 MW

o   Above 5 MW

• Offsite Data Center Power Infrastructure Market, By End-User Industry:

o   IT & Telecom

o   BFSI

o   Healthcare

o   Government & Public Sector

o   Retail & E-commerce

o   Others

• Offsite Data Center Power Infrastructure Market, By Region:

o   North America

§  United States

§  Canada

§  Mexico

o   Europe

§  Germany

§  France

§  United Kingdom

§  Italy

§  Spain

o   South America

§  Brazil

§  Argentina

§  Colombia

o   Asia-Pacific

§  China

§  India

§  Japan

§  South Korea

§  Australia

o   Middle East & Africa

§  Saudi Arabia

§  UAE

§  South Africa

Competitive Landscape

Company Profiles: Detailed analysis of the major companies present in the Global Offsite Data Center Power Infrastructure Market.

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Company Information

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