Home » Sweden Data Center Cooling Market

Sweden Data Center Cooling Market By Component (Solution, Services); By Cooling Type (Room-Based, Row-Based, Rack-Based); By Data Center Type (Large, Medium, Small); By End-User (IT & Telecom, BFSI, Healthcare, Government & Defense, Others); By Region – Growth, Share, Opportunities & Competitive Analysis, 2025 – 2035

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Executive summary:

The Sweden Data Center Cooling Market size was valued at USD 55.05 million in 2020 to USD 111.71 million in 2025 and is anticipated to reach USD 413.33 million by 2035, at a CAGR of 13.94% during the forecast period.

REPORT ATTRIBUTE	DETAILS
Historical Period	2020-2023
Base Year	2024
Forecast Period	2025-2035
Sweden Data Center Cooling Market Size 2025	USD 111.71 Million
Sweden Data Center Cooling Market, CAGR	13.94%
Sweden Data Center Cooling Market Size 2035	USD 413.33 Million

Growing demand for high-density compute, stronger AI adoption, and ongoing cloud expansion shape the cooling landscape across Sweden. Operators integrate liquid cooling, precision systems, and advanced automation to support rising heat loads and improve energy performance. Innovation in sustainable cooling strengthens compliance with national climate goals and enhances long-term operational stability. These factors make the market strategically vital for investors aiming to capture growth within Sweden’s expanding digital infrastructure.

Stockholm and central Sweden lead market growth due to strong hyperscale and colocation activity supported by robust grid access. Southern regions emerge as attractive zones driven by enterprise expansion and proximity to major transport corridors. Northern Sweden gains traction through renewable power availability and colder climate benefits, which allow operators to optimize cooling operations. Together, these regions form a balanced environment for future data center development.

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Market Drivers

Rising Digitalization, Cloud Growth, And High-Density Compute Demand

Strong growth in cloud, AI, and big data workloads lifts cooling demand. Hyperscale and colocation operators increase rack densities across Swedish facilities. Power usage per rack rises and pushes traditional air systems to their limits. Operators invest in advanced chillers and precision cooling to protect uptime. Free-cooling concepts remain important but need support from smarter equipment. The Sweden Data Center Cooling Market benefits from this shift toward performance. Investors view modern cooling as a core enabler of digital growth. Vendors that deliver scalable, high-capacity solutions gain long-term contracts and sticky revenue.

Focus On Sustainability, Energy Efficiency, And Stringent Climate Targets

Sweden’s climate goals force operators to cut energy use and emissions. Data centers face strong pressure from regulators and municipalities. Cooling systems must support lower PUE targets without risk to resilience. Suppliers introduce variable-speed drives, high-efficiency chillers, and smarter controls. Heat reuse from cooling loops strengthens project economics in urban zones. The Sweden Data Center Cooling Market aligns closely with national sustainability policy. Investors favor projects that combine efficiency with transparent reporting. This driver steers capex toward innovative, future-proof cooling platforms.

For example, EcoDataCenter in Falun, Sweden integrates its operations with the local district heating network run by Falu Energi & Vatten, enabling effective reuse of waste heat from its colocation facilities. Publicly available data indicates the site operates with a PUE reported near the 1.2 range, supported by energy-efficient infrastructure. This approach strengthens the facility’s sustainability profile within Sweden’s data center ecosystem.

Government Support, Renewable Power Access, And Favorable Policy Landscape

Public policy in Sweden encourages digital infrastructure with a green profile. Access to abundant hydro and wind power supports low-carbon operation. Authorities often back energy-efficient designs through planning approvals. Cooling projects that reduce water use and support heat recovery gain support. Tax policy and grid investments strengthen the business case for advanced plants. The Sweden Data Center Cooling Market benefits from this alignment of policy and industry. International operators see Sweden as a stable base for Nordic expansion. Capital flows toward sites that can prove long-term regulatory compatibility.

Evolving Enterprise IT Strategies and Shift Toward Colocation and Edge Sites

Enterprises migrate workloads from legacy server rooms into modern colocation sites. This shift raises demand for reliable and efficient cooling capacity. Edge facilities appear near population centers to cut latency for key services. Each site needs compact but high-performance cooling architectures. Vendors supply modular systems that scale with new edge deployments. The Sweden Data Center Cooling Market supports this decentralizing infrastructure pattern. Investors gain exposure to both hyperscale and distributed assets. Suppliers that offer flexible, modular cooling portfolios secure repeat business.

For example, Vertiv’s Liebert® AFC free-cooling chiller offers capacities up to about 2.2 MW and uses inverter-driven screw compressors with low-GWP refrigerants to improve efficiency. The system delivers up to 20% lower annual energy consumption compared with fixed-screw alternatives, supported by advanced control algorithms. It is engineered for high-density workloads and large data center environments across the EMEA region.

Market Trends

Rapid Adoption of Liquid Cooling for AI, HPC, And High-Rack-Density Environments

AI training and high-performance computing grow across Swedish data centers. Traditional air-based systems struggle to manage dense GPU racks. Operators test rear-door heat exchangers and direct-to-chip liquid solutions. These technologies handle higher heat loads with better stability. Vendors integrate monitoring tools to ensure safe thermal operation. The Sweden Data Center Cooling Market shows clear momentum toward liquid-based designs. Early adopters gain energy savings and more server capacity per rack. This trend reshapes mechanical room layouts and procurement decisions.

Integration of Smart Controls, Automation, And Advanced Thermal Analytics

Cooling plants now link tightly with DCIM and building systems. Sensors collect granular temperature and airflow data across white space. Control software adjusts setpoints and fan speeds in near real time. AI-based algorithms optimize chiller sequencing and free-cooling windows. Operators reduce energy use without risking hotspots or alarms. The Sweden Data Center Cooling Market moves toward data-driven thermal management. Vendors differentiate through software, not only mechanical hardware. This trend supports continuous improvement across large campus portfolios.

Growth of Modular, Prefabricated, And Retrofit-Friendly Cooling Architectures

Operators seek faster deployment for new capacity and expansions. Prefabricated cooling modules shorten project timelines and reduce site work. Containerized plants integrate chillers, pumps, and controls in one package. Retrofit projects use modular units to upgrade aging facilities with less disruption. Standardized blocks simplify maintenance and spare parts planning. The Sweden Data Center Cooling Market shifts toward repeatable modular designs. Investors appreciate lower construction risk and clearer cost profiles. This trend supports replication of successful blueprints across multiple Swedish sites.

Stronger Emphasis On Heat Reuse, District Energy Integration, And Urban Partnerships

Municipalities in Sweden promote district heating and circular energy use. Data centers emerge as stable heat sources for nearby buildings. Cooling systems integrate heat exchangers for efficient transfer to local networks. Projects near cities link with residential and commercial heat loads. These schemes strengthen social acceptance of large facilities. The Sweden Data Center Cooling Market reflects this alignment with urban planning. Operators gain reputational benefits and potential revenue from heat sales. This trend encourages designs that maximize recoverable thermal output.

Market Challenges

High Upfront Capital Costs, Complex Engineering, And Procurement Constraints

Advanced cooling technology often requires significant capital outlay. Chillers, liquid loops, and control platforms demand specialist engineering. Smaller operators struggle to justify these upgrades against budget limits. Procurement teams face long lead times for some critical components. Supply chain disruptions create risk for project schedules. The Sweden Data Center Cooling Market must manage cost and complexity carefully. Investors need clear visibility on payback and long-term savings. These constraints can delay replacement of inefficient legacy systems.

Regulatory Uncertainty, Skills Gaps, And Operational Risk Management Pressure

Rules on energy use, noise, water, and refrigerants continue to evolve. Operators track changes at EU and national levels in parallel. Compliance failures can damage brand reputation in sensitive local communities. Skilled technicians with expertise in advanced cooling remain scarce. Training programs lag behind the pace of technology change. The Sweden Data Center Cooling Market faces pressure to maintain flawless uptime. Operators must balance efficiency goals with strict risk management. These challenges intensify for multi-site portfolios with diverse legacy assets.

Market Opportunities

Expansion of AI, Edge, And Sustainable Hyperscale Campuses Across Sweden

AI workloads and new digital services open space for fresh investment. Edge nodes near users need compact and efficient cooling blocks. Hyperscale campuses in Sweden target global cloud and platform tenants. Each project requires tailored thermal solutions and integration with renewable power. Heat reuse schemes create value in colder urban regions. The Sweden Data Center Cooling Market can capture growth across these build-outs. Vendors that offer end-to-end design and lifecycle support gain advantage. Investors access long-duration contracts with blue-chip counterparties.

Innovation in Low-GWP Refrigerants, Water-Saving Designs, And Service Models

Policy pressure accelerates the shift to low-GWP refrigerants across systems. Engineers seek designs that reduce water use while keeping strong performance. New service models include performance-based contracts tied to energy savings. Remote monitoring and predictive maintenance platforms increase reliability. These innovations create differentiation in a crowded supplier landscape. The Sweden Data Center Cooling Market rewards vendors that prove measurable gains. Customers value transparent metrics for energy, emissions, and lifecycle cost. This opportunity favors technology partners over pure equipment sellers.

Market Segmentation

By Component

By component, solutions account for the dominant share, driven by demand for chillers, precision units, liquid systems, and control platforms, while services grow as operators seek lifecycle optimization. Hardware refresh cycles favor advanced, energy-efficient equipment that can run with renewable-heavy power mixes. Service revenue rises through consulting, design, and maintenance contracts that keep plants efficient. The Sweden Data Center Cooling Market benefits from a balanced mix of capital and recurring income, with solution vendors deepening service offerings to secure long-term client relationships.

By Data Center Cooling Solution

Among cooling solutions, chillers, precision air conditioners, and liquid cooling lead adoption, while air handling units and other systems support specific layouts and retrofit needs. Precision units dominate white space environments that host sensitive enterprise workloads. Liquid technologies gain traction in AI and high-density clusters that outgrow air-only designs. Air conditioners and AHUs remain relevant in legacy rooms and edge nodes. The Sweden Data Center Cooling Market reflects a gradual shift toward hybrid architectures, where multiple solutions combine to optimize performance and energy use.

By Service

Within services, installation and deployment hold a key share, supported by strong growth in support, consulting, and maintenance offerings. Complex plants require expert commissioning to meet efficiency and redundancy targets. Ongoing maintenance ensures stable operation during power and workload variation. Consulting services help operators choose between liquid, free-cooling, or modular options. Remote support models reduce downtime and rely on real-time telemetry. The Sweden Data Center Cooling Market sees service providers move into strategic advisory roles, which strengthens recurring revenue streams.

By Enterprise Size

Large enterprises and hyperscale operators dominate demand, while SMEs grow through colocation adoption. Big players run large campuses that require sophisticated and redundant cooling. Investment capacity allows early adoption of liquid systems and advanced automation. SMEs often shift infrastructure into shared facilities with modern cooling already installed. This dynamic concentrates capex in a limited number of large buyers. The Sweden Data Center Cooling Market therefore focuses on scalable, high-capacity systems, yet still tailors solutions that meet the cost sensitivities of smaller customers.

By Floor Type

Raised floor environments hold a significant share in legacy and many colocation facilities, while non-raised floors gain traction in newer high-density designs. Raised floors support underfloor air distribution and flexible cable routing. Non-raised layouts favor overhead air and liquid distribution for modern racks. Each configuration requires specific containment and airflow strategies. Retrofit programs often upgrade cooling without full reconstruction of floors. The Sweden Data Center Cooling Market must support both architectures and smooth migration paths from one layout to another.

By Containment

Raised floors with cold aisle containment often dominate traditional layouts, while hot aisle containment and non-contained designs fill niche roles. Containment raises cooling efficiency by separating cold supply air from hot exhaust. Cold aisle systems fit many retrofits with modest structural change. Hot aisle concepts suit new builds that target very low PUE values. Some legacy rooms still operate without containment due to design or cost limits. The Sweden Data Center Cooling Market tracks a clear trend toward higher containment adoption across both old and new sites.

By Structure

Room-based cooling continues to hold a significant share in older facilities, while row-based and rack-based systems gain ground in high-density zones. Room-based configurations suit moderate density and simpler operational models. Row-based solutions improve control for specific aisles or pods with varying loads. Rack-based cooling brings thermal management closest to the source, ideal for GPU-heavy clusters. Hybrid deployments apply different structures within the same data hall. The Sweden Data Center Cooling Market favors flexible systems that allow gradual upgrades from room-based designs to more granular structures.

By Application

Hyperscale data centers account for a large share, followed by colocation and enterprise sites, while edge and other facilities expand from a smaller base. Hyperscale campuses demand large, efficient plants with strong redundancy. Colocation providers focus on flexible cooling that supports many customer profiles. Enterprise data centers continue to modernize, often with incremental upgrades. Edge data centers require compact, resilient systems tailored to remote locations. The Sweden Data Center Cooling Market aligns equipment portfolios with these varied application needs and growth profiles.

By End-User

Telecom and IT users represent major demand segments, supported by retail, healthcare, BFSI, energy, and other sectors that digitize operations. Telecom and cloud companies drive capacity growth through network and platform expansion. Healthcare and BFSI require strict uptime and regulatory compliance, which raises cooling expectations. Retail and energy firms link digital systems to customer experience and grid stability. Each vertical values efficiency but has specific resilience and compliance needs. The Sweden Data Center Cooling Market adapts solution features and service bundles to each industry’s operational profile.

Regional Insights

Strong Concentration in Stockholm and Central Sweden with High-Capacity Campuses

Stockholm and central Sweden hold a leading position, with an estimated 50% share. The area attracts hyperscale and colocation builds due to strong grid access and connectivity. Municipal support for heat reuse and sustainable design strengthens this concentration. Many international cloud firms select sites around the capital region first. The Sweden Data Center Cooling Market in this zone focuses on high-capacity, highly efficient plants. Advanced chillers, liquid loops, and heat recovery schemes see strong deployment. Investors view this region as the core anchor for national digital infrastructure.

For instance, atNorth’s Stockholm metro site delivers high-density data center solutions with support for up to 100 kW per rack, utilizing innovative in-rack liquid cooling technology designed for accelerated AI and machine learning workloads. The site is officially documented by atNorth and highlighted in recent industry coverage.

Expanding Footprint Across Southern and Western Sweden with Growing Colocation Hubs

Southern and western Sweden, including cities with strong logistics links, account for roughly 30% of capacity. These subregions benefit from proximity to European fiber routes and transport corridors. Colocation providers expand here to serve regional enterprises and content platforms. Cooling demand rises for mid-size facilities that require flexible but efficient systems. Designs often balance free-cooling with scalable mechanical backup. The Sweden Data Center Cooling Market in these areas emphasizes modular solutions that can grow with customer demand. Operators focus on reliability and cost control to attract new tenants.

Emerging Growth in Northern Sweden with Renewable Power and Climate Advantages

Northern Sweden holds an estimated 20% share but shows strong growth potential. The region offers cool ambient temperatures and rich access to renewable power. Large land plots allow development of new campuses with modern layouts. Cooling concepts often favor free-cooling, indirect air systems, and efficient chillers. Heat reuse projects can support nearby communities in cold seasons. The Sweden Data Center Cooling Market in the north appeals to operators that prioritize low emissions and long-term energy cost stability. This subregion increasingly competes for global hyperscale and AI-focused investments.

For example, Meta’s Luleå data center in northern Sweden uses the region’s cool climate and renewable hydropower to support extensive free-air cooling, reducing reliance on mechanical chillers. Public project documentation confirms that the facility is designed for year-round outside-air cooling under suitable conditions. This approach strengthens its energy efficiency profile and supports Meta’s broader sustainability goals.

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Competitive Insights:

Schneider Electric
Vertiv Group Corp.
Danfoss
Carrier
Mitsubishi Electric Corporation
STULZ GmbH
Rittal GmbH & Co. KG
Johnson Controls
ABB Group
Airedale (a Modine company)

The Sweden Data Center Cooling Market features a concentrated group of global OEMs and specialist cooling vendors that compete on efficiency, reliability, and lifecycle cost. Large players such as Schneider Electric, Vertiv, and Carrier provide integrated portfolios spanning chillers, precision units, liquid cooling, and controls. It pushes suppliers to differentiate through software-driven optimization, low-GWP refrigerants, and heat reuse capabilities tailored to Nordic conditions. Danish and German engineering brands strengthen their position through strong regional service networks and customization for high-density and hyperscale sites. Competitors pursue partnerships with hyperscalers, colocation providers, and utilities to co-develop sustainable campuses. Local integration partners and contractors remain important for installation, retrofits, and maintenance, which shapes long-term account control.

Recent Developments:

In June 2024, Vertiv was selected by EcoDataCenter in Sweden to supply high-efficiency Vertiv™ Liebert® chilled water cooling units for two new data centers in Falun, scheduled to commence operations in early 2025. Under this agreement, Vertiv’s floor-mounted cooling systems totalling roughly 12 MW of cooling capacity were chosen for their energy efficiency and ability to facilitate effective waste heat reuse.
In June 2024, EcoDataCenter, a leading Swedish data center company, announced a notable partnership with Vertiv to deliver high-efficiency chilled water cooling solutions for its state-of-the-art facilities currently under development in Falun, Sweden. This collaboration is focused on deploying advanced and environmentally conscious cooling infrastructure, supporting EcoDataCenter’s commitment to energy efficiency and sustainability in its new-generation data centers.

1. Introduction

1.1. Market Definition & Scope

1.2. Research Methodology

1.2.1. Primary Research

1.2.2. Secondary Research

1.2.3. Data Validation & Assumptions

1.3. Market Segmentation Framework

2. Executive Summary

2.1. Market Snapshot

2.2. Key Findings

2.3. Analyst Recommendations

2.4. Market Outlook (2025–2035)

3. Market Dynamics

3.1. Market Drivers

3.2. Market Restraints

3.3. Market Opportunities

3.4. Challenges & Risks

3.5. Value Chain Analysis

3.6. Porter’s Five Forces Analysis

4. Sweden Data Center Cooling Market – Market Sizing & Forecast

4.1. Historical Market Size (2020–2025)

4.2. Forecast Market Size (2026–2035)

4.3. Market Growth Rate Analysis

4.4. Market Outlook by Country

5. Capital Expenditure (CapEx) Analysis

5.1. CapEx Trends by Cooling Solution

5.1.1. Investment patterns across air-based, liquid-based, hybrid, and immersion cooling

5.1.2. CapEx share by cooling equipment type (CRAC/CRAH, chillers, cooling towers, economizers, etc.)

5.1.3. Country-wise CapEx trends

5.1.4. OEM vs. retrofit investment analysis

5.2. Return on Investment (ROI) & Payback Period Analysis

5.2.1. ROI by cooling technology type

5.2.2. Cost-benefit comparison: air cooling vs. liquid cooling vs. immersion cooling

5.2.3. Payback period across Tier I–IV data centers

5.2.4. Case examples of cost savings through energy-efficient cooling adoption

6. Data Center Cooling Capacity & Utilization

6.1. Installed Capacity (MW & Sq. Ft.) by Cooling Solution

6.1.1. Installed cooling capacity by solution type and Country

6.1.2. Cooling system density (kW/rack and per sq. ft.)

6.1.3. Capacity expansion trends by hyperscale vs. colocation vs. enterprise

6.2. Utilization Rates & Efficiency Metrics

6.2.1. Cooling system utilization vs. design capacity

6.2.2. Average and peak load management practices

6.2.3. Equipment lifecycle and performance benchmarks

6.3. Power Usage Effectiveness (PUE) & Energy Efficiency

6.3.1. Average PUE by data center size and cooling technology

6.3.2. Comparison of traditional vs. green cooling systems

6.3.3. Cooling system contribution to total facility energy consumption

6.4. Rack Density & Cooling Efficiency

6.4.1. Average rack density (kW/rack) trends

6.4.2. Cooling adequacy vs. rack load

6.4.3. Relationship between high-density workloads (AI, HPC) and cooling requirements

7. Data Center Cooling Market, Energy & Resource Consumption Analysis

7.1. Energy Consumption Analysis

7.1.1. Total energy consumption by cooling solution type (air-based, liquid, hybrid, immersion)

7.1.2. Energy intensity per MW of IT load

7.1.3. Energy share of cooling in total facility power (cooling load ratio)

7.1.4. Annualized Energy Efficiency Ratio (EER / SEER) by cooling system type

7.1.5. Trend in energy consumption reduction through automation, AI, and free cooling technologies

7.2. Water Consumption Analysis

7.2.1. Water Usage Effectiveness (WUE) – liters per kWh of IT load

7.2.2. Water consumption by cooling technology (evaporative cooling, adiabatic cooling, etc.)

7.2.3. Water recycling and reuse systems in data centers

7.2.4. Impact of Country-wise water scarcity regulations on cooling system choice

7.2.5. Shift from water-intensive to air-based or hybrid systems

7.3. Combined Energy–Water Efficiency Metrics

7.3.1. Energy-Water Nexus in cooling optimization

7.3.2. Correlation between PUE, WUE, and total operational cost (OpEx)

7.3.3. Case studies of zero-water or waterless cooling deployments

7.4. Benchmarking & Comparative Analysis

7.4.1. Benchmarking against ASHRAE, Uptime Institute, and DOE standards

7.4.2. Comparison of Sweden WUE/PUE averages by Country

7.4.3. Best practices adopted by hyperscalers (AWS, Google, Microsoft, Meta, etc.)

8. Sweden Data Center Cooling Market – By Component

8.1. Solution

8.2. Services

9. Sweden Data Center Cooling Market – By Data Center Cooling Solution

9.1. Air Conditioners

9.2. Precision Air Conditioners

9.3. Chillers

9.4. Air Handling Units

9.5. Liquid Cooling

9.6. Others

10. Sweden Data Center Cooling Market – By Service

10.1. Installation & Deployment

10.2. Support & Consulting

10.3. Maintenance Services

11. Sweden Data Center Cooling Market – By Enterprise Size

11.1. Large Enterprises

11.2. Small & Medium Enterprises (SMEs)

12. Sweden Data Center Cooling Market – By Floor Type

12.1. Raised Floors

12.2. Non-Raised Floors

13. Sweden Data Center Cooling Market – By Containment

13.1. Raised Floor with Hot Aisle Containment (HAC)

13.2. Raised Floor with Cold Aisle Containment (CAC)

13.3. Raised Floor without Containment

14. Sweden Data Center Cooling Market – By Structure

14.1. Rack-Based Cooling

14.2. Row-Based Cooling

14.3. Room-Based Cooling

15. Sweden Data Center Cooling Market – By Application

15.1. Hyperscale Data Center

15.2. Colocation Data Center

15.3. Enterprise Data Center

15.4. Edge Data Center

15.5. Other Data Centers

16. Sweden Data Center Cooling Market – By End-user

16.1. Telecom

16.2. IT

16.3. Retail

16.4. Healthcare

16.5. BFSI

16.6. Energy

16.7. Others

17. Sustainability & Green Data Center Cooling

17.1. Energy Efficiency Initiatives

17.1.1. Deployment of free cooling, adiabatic cooling, and economizers

17.1.2. Smart control systems for temperature and airflow optimization

17.1.3. Case studies of efficiency improvement programs

17.2. Renewable Energy Integration

17.2.1. Integration of solar, wind, or geothermal sources in cooling operations

17.2.2. Hybrid systems combining renewable energy with mechanical cooling

17.3. Carbon Footprint & Emission Analysis

17.4. GHG reduction initiatives

17.5. LEED & Green Certifications

17.5.1. Share of cooling systems installed in LEED, BREEAM, or Energy Star certified facilities

17.5.2. Compliance with ASHRAE and ISO energy efficiency standards

18. Emerging Technologies & Innovations

18.1.1. Emerging Technologies & Innovations

18.1.2. Liquid Cooling & Immersion Cooling

18.1.3. Adoption rate and technology maturity

18.1.4. Key vendors and installations by Country

18.1.5. Comparative analysis: performance, cost, and energy savings

18.2. AI & HPC Infrastructure Integration

18.2.1. Cooling demand driven by AI training clusters and HPC systems

18.2.2. Adaptation of cooling design to high heat density workloads

18.3. Quantum Computing Readiness

18.3.1. Cooling requirements for quantum processors

18.3.2. Potential cooling technologies suitable for quantum environments

18.4. Modular & Edge Data Center Cooling

18.4.1. Cooling strategies for prefabricated and modular facilities

18.4.2. Compact and adaptive cooling for edge sites

18.5. Automation, Orchestration & AIOps

18.5.1. Integration of AI-driven thermal management

18.5.2. Predictive maintenance and automated cooling optimization

19. Competitive Landscape

19.1. Market Share Analysis

19.2. Key Player Strategies

19.3. Mergers, Acquisitions & Partnerships

19.4. Product & Service Launches

20. Company Profiles

20.1. Schneider Electric

20.2. Vertiv Group Corp.

20.3. Danfoss

20.4. Carrier

20.5. Mitsubishi Electric Corporation

20.6. STULZ GmbH

20.7. Rittal GmbH & Co. KG

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Frequently Asked Questions:

What is the current market size for Sweden Data Center Cooling Market, and what is its projected size in 2035?

The Sweden Data Center Cooling Market reached USD 111.71 million in 2025 and is projected to hit USD 413.33 million by 2035. The market builds on strong growth from its 2020 base of USD 55.05 million.

At what Compound Annual Growth Rate is the Sweden Data Center Cooling Market projected to grow between 2025 and 2035?

The Sweden Data Center Cooling Market is forecast to expand at a CAGR of 13.94% through 2035, driven by sustainability mandates and high-density compute adoption.

Which Sweden Data Center Cooling Market segment held the largest share in 2025?

In 2025, the solutions segment held the largest share of the Sweden Data Center Cooling Market due to strong demand for chillers, precision cooling, and liquid-based systems.

What are the primary factors fueling the growth of the Sweden Data Center Cooling Market?

The Sweden Data Center Cooling Market grows through rapid AI and cloud adoption, strong energy-efficiency policy, and rising investment in hyperscale and colocation campuses.

Who are the leading companies in the Sweden Data Center Cooling Market?

Top vendors in the Sweden Data Center Cooling Market include Schneider Electric, Vertiv, Danfoss, Carrier, Mitsubishi Electric, STULZ, Rittal, Johnson Controls, ABB, and Airedale.

Which region commanded the largest share of the Sweden Data Center Cooling Market in 2025?

Stockholm and central Sweden held the largest share of the Sweden Data Center Cooling Market in 2025, accounting for about half of national cooling capacity due to strong hyperscale activity.

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