With every click, video playback, file download, or digital interaction, an invisible network of servers is activated, operating continuously, 24/7. This infrastructure — data centers — has become the heart of the digital economy , but it also represents one of the fastest-growing segments in terms of energy demand globally.
Driven by artificial intelligence, cloud computing, and real-time digital services, the expansion of the digital world is placing unprecedented pressure on electrical systems. Data centers consume between 10 and 100 times more electricity per square meter than a traditional commercial building and are estimated to already account for between 1.5% and 3.0% of global electricity consumption (~200 TWh).
A single large data center can demand tens of megawatts of power ( 20–100 MW ), comparable to a medium-sized city.
This phenomenon raises an urgent question: how to ensure that the backbone of the digital age is also compatible with the goals of sustainability and energy transition?
In this article, I analyze in depth the relationship between digitalization and energy: What are the energy requirements of different types of data centers? What strategies are major technology companies adopting to operate more cleanly and efficiently? And what opportunities are emerging for Latin America and Panama in this new global energy landscape?
Types of Data Centers and Their Energy Needs
Not all data centers are created equal. They fall into different categories, each with varying energy needs based on its scale, purpose, and level of criticality. From distributed micro-centers processing information close to the end user to massive, globally interconnected server farms, they all share a key element: the need for a reliable, continuous, and highly efficient power supply.
This is no small challenge. These infrastructures demand large volumes of energy, both to power the IT equipment (servers, networks, storage) and to support the infrastructure: air conditioning, backup power systems (UPS), and electrical distribution. In a typical data center, approximately 67% of the energy consumption is for IT operations, while the remaining 33% is used to maintain optimal operating conditions. The high thermal density necessitates the implementation of increasingly sophisticated cooling solutions.
Despite this, the sector has made significant progress in efficiency. The global Power Usage Effectiveness (PUE) metric is around 1.8 , although next-generation hyperscale data centers have achieved values close to 1.1 . Amazon Web Services, for example, reported an average of 1.15 in 2023 , with some sites operating as efficiently as 1.04 , thanks to optimized architectures, liquid cooling, and intelligent automation.
However, ensuring high levels of availability comes at an additional energy cost. Tier III and IV rated facilities, the most robust in the industry, duplicate all their critical systems (2N+1 scheme) to ensure 99.995% availability, further increasing their energy demand.
The following is a comparative characterization of the main types of data centers, with emphasis on their energy requirements, the sources they use, the most common supply models—such as PPA contracts or dedicated generation—and the innovations they are implementing to operate more sustainably in an increasingly digital and electrified environment.
1. Edge Data Centers
These are smaller installations (modular racks or containers ranging from a few kW to less than 50 kW) geographically distributed to process data closer to the end user. They arise from the need for low latency in applications such as IoT, 5G, cloud gaming, and autonomous vehicles. While each edge node consumes relatively little energy, the massive deployment of hundreds or thousands of micro-data centers can add up to a significant demand. Furthermore, since they are often located in remote or urban sites with limited space, their efficiency can be limited by factors such as less room for cooling equipment. Even so, innovative solutions are being sought: from sealed micro-data centers that utilize passive ventilation, to powering nodes with local solar panels or fuel cells in locations without a reliable power grid. The number of edge data centers is expected to grow substantially in the coming years to support emerging technologies, complementing large, centralized data centers.
2. Traditional Data Centers
These are facilities owned by individual organizations (banks, insurance companies, governments, or corporations) for their internal needs. Their size ranges from small to medium (from tens of kW to a few MW). In the past, they were the backbone of IT infrastructure, but many companies are migrating workloads to the cloud for cost and efficiency reasons. These data centers can have higher PUE (typically 1.5–2.0) if they are older or underutilized. They often operate within corporate buildings, with power and HVAC systems sized for their local peak demand. Server virtualization and consolidation have helped reduce their overall energy consumption over the past decade, but they still represent a significant portion of many firms’ energy expenditures. Their challenge is to modernize or integrate into hybrid strategies (part on-premises, part cloud) to take advantage of efficiency improvements.
3. Colocation Data Centers
In this model, specialized providers ( Equinix , Digital Realty , Ascenty , etc.) operate facilities where multiple clients host their equipment. These are multi-tenant data centers, typically large (several MW), located in technology hubs or near urban centers for better connectivity. In terms of energy, they offer economies of scale to companies that no longer need to maintain their own site. Colocation providers often advertise high efficiency standards and green energy to attract sustainability-conscious clients. Many have signed their own renewable energy purchase agreements to power their sites. For example, in Brazil, colocation companies like Ascenty and ODATA – An Aligned Data Centers Company – take advantage of the fact that more than 86% of the country’s electricity comes from renewable sources to power their data centers. This type of center shares challenges with hyperscale centers (in cooling and backup), although on a smaller scale, and its operators continually invest in improvements (hot/cold aisle containment, more efficient UPS, lithium-ion batteries, etc.) to lower energy costs, which are their main expense.
4. Hyperscale Data Centers
These are the mega-facilities operated by giants like Google , Amazon Web Services (AWS) , Microsoft Azure , Meta , and Alibaba Group . They house tens of thousands of servers (more than 10,000 according to a common definition) and can consume 50 MW or more of electrical power each. These campuses are typically built on large tracts of land, close to electrical substations or sources of inexpensive energy. Their design prioritizes efficiency: they implement advanced cooling (external air, evaporative, or liquid), large-scale power distribution, and load management software to maximize the use of every watt. A single hyperscale data center can deliver services to users worldwide 24/7, so it requires uninterrupted power supply and robust backup systems. Paradoxically, thanks to its cutting-edge technology, a well-managed hyperscale data center can be more efficient than dozens of small business centers combined – Google reports that, on average, its facilities offer 1.8 times more energy efficiency than a conventional data center, quadrupling the computing power supplied with the same electricity as 5 years ago.
5. High-Density Data Centers and HPC (High Performance Computing)
At one end of the specialized spectrum are centers geared towards scientific supercomputing, AI training, or cryptocurrency mining. These combine hyperscale characteristics (extremely high power consumption, sometimes exceeding 20 MW in a single project) with extreme thermal densities per rack due to high-performance hardware (GPUs, ASICs). Their cooling typically requires advanced solutions such as direct-on-chip liquid cooling or immersion cooling. For example, new Exascala supercomputers reach densities of several hundred kW per rack, unthinkable in traditional data centers, and consume as much electricity as tens of thousands of homes. Companies like Meta, Microsoft, and Google are integrating AI clusters of this type into their data centers, which increases the energy load and necessitates securing additional power sources to meet peak demand. Efficient design is critical here: Meta has stated that it is implementing automation and AI for energy management in its facilities, anticipating the significant load that generative AI models will add.
Big Tech Energy Supply Strategies
The digital revolution has brought with it an energy paradox: the more we move toward the cloud, the greater our dependence on energy-intensive physical infrastructure. Companies like Google , Amazon , Microsoft , Meta , and Apple are not only leading global technological innovation, but are also profoundly transforming how corporate energy supply is managed.
From multi-billion dollar investments in solar and wind farms to the pioneering deployment of hydrogen fuel cells, large-scale energy storage, nuclear power, and innovative clean energy purchase agreements, these companies are charting their own paths toward a cleaner, more reliable, and more sustainable electricity supply. Along the way, they are establishing themselves as new players in the energy sector.
Next, we will review the main strategies of these Big Tech companies: their sustainability goals, the alliances they have established with developers, operators and utilities, the emerging technologies they are incorporating, and the challenges they face in operating with a zero or negative carbon footprint.
Google: 100% renewable and aiming for 24/7 carbon-free operation
Google was a pioneer in recognizing the environmental impact of its operations and acting accordingly. Since 2007, it has been carbon neutral (offsetting its emissions), and in 2017 it achieved 100% renewable electricity consumption through direct purchases of wind and solar power. This set the tone for Google’s initial strategy: investing in additionality, that is, financing new renewable capacity that would not otherwise exist, and thus matching every MWh consumed with one generated from clean sources.
However, Google wasn’t content with annual averages. Its goal is even more ambitious: to operate on carbon-free energy 24/7 across all its locations by 2030. This means that every hour of every day, in every data center, electricity must come directly from zero-emission sources—such as renewables or nuclear—instead of relying on offsets. Achieving this goal requires sophisticated coordination: combining diverse clean energy sources with intelligent demand management to ensure a continuous, carbon-free supply. To this end, Google has pursued strategic energy partnerships that allow it to innovate in how it acquires and consumes electricity.
Google has established long-term contracts – between 10 and 20 years – that not only ensure clean electricity at stable prices, but have also enabled renewable projects in communities from Atacama (Chile) to North Carolina (USA), generating additional benefits in employment and local investment.
One of the most emblematic cases is the agreement signed with The AES Corporation in September 2020, through which both companies announced the first 24/7 Carbon Free contract to operate one of Google’s data centers in Virginia. This pioneering agreement not only set a precedent for the industry but also demonstrated the viability of large-scale 24/7 energy supply contracts. Thanks to this model, Google secured an additional 1 GW of renewable capacity for its operations.
Google currently operates 28 of its own data centers in 11 countries. All of them are designed for world-class efficiency: on average, they achieve a PUE of ~1.1, and each new generation of infrastructure improves upon the previous one. The company has even experimented with Google DeepMind ‘s artificial intelligence to optimize the climate control of its data centers in real time, achieving further reductions in energy consumption.
Google claims that thanks to these initiatives, it now offers four times more computing power with the same amount of electricity as it did five years ago , demonstrating the impact of efficiency improvements and the migration of workloads to its more optimized infrastructures.
Amazon Web Services: the largest corporate buyer of green energy
Amazon , through its Amazon Web Services (AWS) division (the world’s largest public cloud platform), operates a vast network of data centers that support everything from Netflix to the enterprise applications of thousands of companies. This giant has moved rapidly in recent years to achieve a sustainable energy supply.
In 2019, Amazon set a goal to power 100% of its operations with renewable energy by 2030, but progress accelerated so much that it achieved this goal in 2023, seven years ahead of schedule. This announcement meant that all the electricity consumed by its global data centers (as well as offices, stores, and logistics) was matched by renewable energy production that year , solidifying Amazon’s position as the world’s largest corporate purchaser of renewable energy for four consecutive years, according to BloombergNEF .
It’s worth noting that “100% renewable” in practice means that Amazon finances enough green energy generation to offset its annual consumption. The next step could be a 24/7 approach. Currently, unlike Google, Amazon hasn’t announced a matched-hours target; however, its Chief Sustainability Officer emphasized that they will continue investing in wind and solar power “while supporting other forms of carbon-free energy, such as nuclear, battery storage, and emerging technologies,” acknowledging that full decarbonization will require a broad energy mix. Amazon has also joined the Climate Pledge, committing to net-zero emissions by 2040. This includes its indirect supply chain emissions, which is another complex issue. For now, in Scope 2 (purchased electricity), it has already substantially reduced its emissions thanks to renewable energy agreements (from 3.14 to 2.79 million tons of CO₂ between 2022 and 2023).
To date, Amazon has invested in more than 500 solar and wind projects in 27 countries, totaling 28GW of installed capacity – a huge portfolio that surpasses even many regional electric companies.
Another interesting aspect to highlight is that Amazon is diversifying its energy sources beyond wind and solar, seeking to secure firm, carbon-free power. On the one hand, it is investing in storage: large-scale batteries to support its renewable energy farms at night. On the other, it is not ruling out nuclear power: in 2023, it purchased a data center in Pennsylvania adjacent to a nuclear power plant, intending to power it directly from that constant source. In fact, the company has declared nuclear power as “a solid option” to ensure a reliable, emissions-free supply. It is also exploring emerging technologies: pilot projects for on-site carbon capture in data centers, the use of alternative fuels (since 2023, it has used HVO biofuel to replace diesel in some backup generators), and construction improvements (low-carbon concrete and steel) to reduce the embedded carbon footprint of its new buildings.
Additionally, AWS has reported notable efficiency improvements : its average PUE for 2023 was 1.15 across all its data centers, and it plans to reduce it to 1.08 in new facilities with liquid cooling and other advancements.
Microsoft: green cloud, innovative agreements and a commitment to hydrogen
Microsoft, provider of Azure Cloud and services like Microsoft Office 365 , has also made bold commitments for its data centers. The company has set a goal that, by 2025 at the latest, 100% of Azure’s electricity will come from renewable sources. This is part of a larger corporate objective: to be carbon negative by 2030 (removing more CO₂ than it emits) and to offset all of Microsoft’s historical emissions by 2050.
To fuel the growth of its data centers, Microsoft has signed multiple power purchase agreements with clean energy sources. In 2022, it signed a groundbreaking agreement with AES Andes that combined a solar project with battery storage in the Antofagasta region and a wind farm in Biobío, designed to power its future data center region in Chile. A year later, in 2023, it replicated this strategy in Brazil by signing a 15-year PPA with AES Brasil for the production of a new 154 MW wind farm in Rio Grande do Norte, avoiding the emission of approximately 28,700 tons of CO₂ per year.
Microsoft has replicated similar partnerships in Virginia and California (USA) – with The AES Corporation and others – securing solar energy quotas for its data centers in those critical hubs. In fact, the company claims to have already contracted the equivalent of 100% renewable energy for all its global operations by 2025; the challenge now is coordinating those acquisitions with real-time consumption.
Beyond purchasing green electricity, Microsoft is innovating in how it supplies and backs up its data centers. One of its most striking projects is the use of hydrogen fuel cells to replace typical diesel backup generators. In January 2024, it announced, along with Caterpillar Inc. , that it had successfully powered a data center for 48 continuous hours using a 1.5MW hydrogen fuel cell system in a backup test in Wyoming. Microsoft had already experimented in 2020, powering servers with a smaller 250kW fuel cell for two days, and has now scaled up to a plant-wide scale.
While green hydrogen is still expensive and faces significant challenges (storage, secure supply), Microsoft is betting that by 2030 it will be economically viable to deploy these solutions in production, helping it meet its goal of eliminating the use of diesel that same year.
Another bet on future energy sources is the nuclear fusion power purchase agreement (PPA) that Microsoft signed in 2023 with the startup Helion. Under this futuristic PPA, Helion is committed to delivering 50MW of power to Microsoft from a prototype fusion reactor by 2028. While fusion technology is still under development, this contract—the first of its kind—positions Microsoft as a visionary player willing to drive disruptive sources of clean energy for its data centers. Helion has already begun construction of its “Orion” plant in Washington state, and if it manages to bring it online on schedule, Microsoft could power its data centers with fusion electricity in just three years, setting a historic precedent.
Additionally, with the goal of reducing its environmental footprint, Microsoft is incorporating eco-efficient design criteria into all its new data centers. Among the measures adopted are evaporative cooling systems with lower water consumption, energy-efficient servers—designed in-house, in the style of Apple—and buildings constructed with sustainable materials. A striking example is Finland, where the company is building data centers with laminated timber structures, which reduces the carbon footprint by 50% compared to traditional concrete and steel constructions. These initiatives complement its renewable energy sourcing strategy.
Microsoft also promotes transparency: its energy efficiency, measured by PUE, averages 1.18 globally in 2024, but its new campuses already achieve values of 1.12. The company aims to further reduce this indicator through the use of artificial intelligence for real-time thermal management.
Meta, Apple and others: 100% renewable commitment and focus on efficiency
While Google, AWS, and Microsoft lead in energy consumption and purchasing volume, other major technology companies have also achieved significant milestones in the sustainable supply of their data centers:
Meta (Facebook)
- Meta achieved 100% renewable energy across its global operations in 2020, reaching net-zero emissions in its data centers and offices. Since then, Meta has aggressively expanded its renewables portfolio to power its growing infrastructure (driven by new demands from AI and the metaverse). In 2025, it announced a massive 791MW deal (solar and wind) with Invenergy in the US, bringing its global contracted clean capacity to nearly 10GW.
Meta adds projects near where it builds data centers: for example, a 240MW solar park in Texas dedicated to its facilities, or multiple wind farms in Iowa, Utah, Ohio, and other states where it operates. The philosophy is to add renewables to local grids to physically power its data centers.
- Meta also boasts leading efficiency: its average PUE is around 1.08, with highly customized designs (e.g., indirect evaporative cooling in cold climates, free-cooling ventilation, etc.). In fact, some of its campuses, such as Prineville, Oregon, operate almost without air conditioning for much of the year. The company has placed additional emphasis on thermal and AI innovation: it uses algorithms to distribute workloads across data centers based on renewable energy availability and hourly efficiency, and it is experimenting with new dielectric fluids to cool servers with less energy consumption. Meta plans to achieve net-zero emissions across its entire value chain by 2030 and is also investing in long-term carbon offset credits. Its climate mission can be summarized as ensuring that the expansion of its digital operations (which in 2024 consumed approximately 239 TWh in the US alone, including industrial operations) does not proportionally increase emissions. Each new Meta data center comes with a clean energy package under its arm – be it a solar field in Alabama or wind turbines in Illinois – to maintain the green balance.
Apple
- Although Apple has a smaller data center footprint, it was one of the pioneers in achieving 100% renewable energy use, a milestone it reached in 2014 for all of its own data centers. The company built some of the first dedicated solar farms: it installed 130 MW of photovoltaic capacity in North Carolina for its iCloud data center, integrated solar panels and biogas cells into its Newark, California, data center, and, in 2017, opened two data centers in Denmark powered entirely by local wind energy.
- Since 2020, all the electricity used in its global operations—including offices, stores, and data centers in 44 countries—has come from renewable sources. But Apple didn’t stop there: it has extended its climate commitment to its supply chain. More than 70 of its major suppliers, including giants like TSMC and Foxconn , have committed to using 100% renewable energy in Apple-related processes, a key measure to reduce its indirect emissions (Scope 3).
- In terms of efficiency, Apple’s data centers stand out for their custom design. The company has developed its own servers, based on Apple Silicon, optimized for exceptional energy efficiency, achieving a 54% reduction in power consumption per watt despite growing demand, according to its environmental report. Furthermore, it employs passive solutions such as natural ventilation in cold climates and battery systems to reduce peak demand (peak shaving).
- Apple has committed to achieving carbon neutrality across its entire value chain by 2030. Its data centers are already carbon neutral; the biggest challenge now is making its suppliers and logistics operations carbon neutral as well. In terms of energy consumption, its data centers used approximately 2.34 TWh in 2023, all from renewable sources, and the company continues to build new solar farms to meet the growing demand of its digital services.
Other actors
- Companies like IBM , Oracle , and SAP operate smaller data centers compared to the major tech giants, but they too have embraced the path toward 100% renewable energy supply over the past decade. IBM, for example, reached the milestone of covering 75% of its electricity consumption with renewable sources in 2020 and has set a goal of reaching 90% by 2030 through a combination of wind power contracts and Energy Attribute Certificates (RECs). Oracle Cloud, meanwhile, powers its main facilities with carbon-free energy, using nuclear electricity from the grid in the UK and combinations of solar and wind power through green utilities in other regions.
- Large colocation providers—such as Equinix and Digital Realty—have also set ambitious carbon neutrality targets. Equinix was one of the first to exceed 90% renewable energy for its more than 200 data centers, through power purchase agreements (PPAs) in countries like the US, Mexico, and Finland, and certifications in areas where open electricity markets do not yet exist.
- Even content companies like Netflix, which uses both AWS and its own infrastructure, are investing in renewable projects to offset the energy consumed by streaming on their platform.
The trend is clear: the data center industry as a whole is aligning itself with renewable energy sourcing, driven by increasing climate pressure, corporate sustainability goals and —increasingly— long-term cost competitiveness.
Opportunities for Latin America as a Strategic Hub for Sustainable Digital Infrastructure
Given this global geopolitical and digital landscape, Latin America has a strategic opportunity: to position itself as a global hub for high-performance digital infrastructure, leveraging three competitive advantages that few regions in the world possess simultaneously: large-scale clean energy, abundant natural resources, and a privileged geographical location for global data traffic.
Countries like Brazil, Chile, Uruguay, and Colombia are already emerging as key destinations for the installation of large-capacity data centers (≥100 MW), especially those linked to artificial intelligence, which demand 24/7 power, low latency, and a minimal carbon footprint. These countries have:
- Electricity matrix mostly renewable , with penetrations exceeding 80% in some cases.
- World-class solar, wind, hydro and geothermal potential , often close to urban or industrial areas.
- Emerging regulatory and fiscal conditions that offer incentives to attract digital investments.
The region has the capacity not only to host training and inference workloads for AI models, but also to become a hub for cloud services, edge computing and intensive data processing for the Americas and the world, with lower operating costs, a smaller environmental footprint and a strong alignment with the ESG commitments of major technology companies.
What is needed to capitalize on this opportunity?
Becoming a sustainable digital hub requires more than just energy capacity. It is essential to develop a series of key enabling conditions that make this transformation viable and competitive:
- International connectivity, including submarine cables and regional digital interconnection nodes, is essential. The value of a data center depends not only on its energy efficiency but also on its ability to connect to the rest of the world with low latency. The convergence of physical connectivity and energy availability is what defines the new data center location maps for big tech companies.
- Robust transmission infrastructure is needed to connect renewables to digital data centers. The growth of energy-intensive data centers demands electrical grids capable of transporting large volumes of electricity from renewable sources—often located far from urban centers—to industrial areas or digital nodes. This involves building new high-voltage lines, reinforcing substations, implementing smart controllers, and reducing system losses. Furthermore, the infrastructure must be resilient to climate events and adaptable to the inherent variability of renewable energy.
- Regulatory agility and expedited permitting are crucial , especially for large-scale projects. The installation of critical infrastructure such as data centers, transmission lines, or backup power plants often faces administrative bottlenecks. To attract investment in a competitive global environment, countries must offer clear regulatory frameworks, simplified permitting processes, and effective coordination among national, regional, and local entities. Regulatory predictability is as important as tax or energy incentives.
- Low- or zero-emission backup solutions. To ensure continuous 24/7 operation, data centers need backup power beyond variable renewables. Large-scale batteries allow for the storage of clean energy and its release when needed, while natural gas—used efficiently and as a transition technology—can provide firm power with lower emissions than other fossil fuels. Other sustainable options include geothermal energy, a constant renewable source ideal for critical loads, and small modular reactors (SMRs), which offer firm, carbon-free capacity. In the long term, green hydrogen could also be integrated as a clean and flexible backup solution. The right mix will depend on the resources and conditions of each country, but all aim for the same goal: operational continuity with a minimal carbon footprint.
- Training technical and professional talent in data center operations, advanced cooling, AI, cybersecurity, digital resilience, and energy efficiency. Operating modern data centers requires a new type of human capital. Investing in technical training, certifications, and partnerships with universities and institutes will be essential to avoid labor bottlenecks and maximize the socioeconomic impact of investments.
Multiplier effect
The development of sustainable digital hubs in Latin America could generate multiplier effects:
- Attract foreign direct investment from global technology companies.
- Boost new renewable capacity by securing long-term contracts (PPAs) with high bankability.
- Improve regional energy resilience through modern and flexible infrastructure.
- Strengthening digital sovereignty by bringing data processing closer to the Latin American end user.
- Stimulate skilled employment and the creation of digital and energy innovation ecosystems.
Latin America can not only power the cloud: it can host it, operate it, and make it sustainable . It has the electrons, the territory, and the timing. What’s missing is a consolidated enabling framework that transforms its structural advantages into critical infrastructure for the global digital economy .
In a world where data flows are as strategic as energy flows, the region has the opportunity to be much more than a provider: it can be a protagonist of the clean cloud of the 21st century .
Panama: Strategic Node on the Digital Map of the Americas
In the regional context, Panama possesses unique conditions to position itself as a key hub for digital infrastructure in Latin America . While it is not currently among the leaders in the deployment of hyperscale data centers, its geographic location, international connectivity, and logistical development make it a natural candidate to attract investment in strategic data centers , especially in colocation, edge, and regionalized cloud services.
Key competitive advantages:
- A hub for digital connectivity , Panama is home to one of the continent’s most important interconnection points: more than seven submarine fiber optic cables converge in the country, connecting it directly to North America, South America, Europe, and Asia. This infrastructure positions it as an ideal gateway for low-latency digital services , which are crucial for real-time applications, edge computing, and content distribution.
https://www.bnamericas.com/es/reportajes/los-proximos-cables-submarinos-de-america-latina
- Macroeconomic stability and a favorable legal framework. Panama has a dollarized economy, a sound financial system, and a legal regime geared towards attracting foreign investment , including specific laws for data centers, digital free zones, and tax benefits for technology activities in certain special economic areas.
- A consolidated logistics ecosystem. In addition to the Canal and its ports, Panama has developed a logistics ecosystem that facilitates the transport, installation, and maintenance of critical infrastructure. The presence of multiple IT, telecommunications, and technical logistics service providers reinforces its attractiveness as a base for regional operations.
- Underutilized energy potential. Panama boasts a diversified electricity mix, where renewable sources—primarily hydroelectric, wind, and solar—contribute over 70% of national generation. This is further bolstered by the addition of more than 1 GW of firm natural gas-fired capacity in recent years, thanks to strategic investments such as AES Colón , the Costa Norte LNG terminal , and the Gatún Power Plant . This infrastructure has reduced dependence on more expensive and polluting fuels, while simultaneously strengthening energy security, stabilizing the grid, and expanding reserve capacity. In this new context, the country offers particularly attractive conditions for energy-intensive industries—such as data centers—that require an abundant, reliable, and competitive electricity supply.
https://www.aes.com/energy-insights/savings-natural-gas
And what about water considerations and water availability?
It is true that, in addition to the enabling factors mentioned above, the sustainable availability of water has become an increasingly crucial criterion in the location of data centers, especially large-scale ones that use evaporative or liquid cooling systems . Some facilities can consume millions of liters of water per day , depending on the design, climate, and operational efficiency.
In this respect, Panama has a significant natural advantage : high water availability for most of the year and across large areas of the country, thanks to its rainfall patterns and abundant surface water sources. This gives it a competitive edge over other regions experiencing increasing water stress , as has already been seen in several South American countries.
However, this advantage must be managed with a strategic vision of sustainability . The installation of data centers in the country must consider the impact on shared watersheds, the prioritization of urban land uses, and the interaction with other critical infrastructure such as the Panama Canal and IDAAN (National Water and Sewerage Institute).
Conclusion
In the digital age, the infrastructure that makes every click, every video, and every cloud query possible has ceased to be an invisible technical component and has become a top-tier strategic asset. Data centers are now not only engines of economic growth but also key players in the global energy transition.
The challenge is clear: sustaining the digital boom without compromising climate goals. Big tech companies have begun to chart this course, investing in clean energy, operational efficiency, and innovative supply models. But the success of this transformation will also depend on where—and how—the new hubs of this digital economy are built.
In a world where bits travel at the speed of light but consume energy like entire industries, planning energy-responsible data centers is not an option: it is a strategic necessity for the coming decade.
Latin America, and Panama in particular , has a unique opportunity: to become hosts of this new infrastructure, combining abundant clean energy, privileged international connectivity, and macroeconomic stability . The country already has the fundamental pillars—a robust renewable energy mix, firm capacity backed by natural gas, and a strategic fiber optic network—to position itself as a sustainable digital hub for the Americas.
Turning this opportunity into reality will require coordinated action among the public, private, and academic sectors. Now is the time to align energy, connectivity, and technological development policies to attract investment, foster innovation, and cultivate talent.
Because in the next decade, the countries that manage to power, host, and decarbonize the cloud will be the ones that lead not only the energy transition, but also the new global economy.
References
Data Centers: What are they and what are they used for? https://impactotic.co/tecnologia/data-centers-que-son-y-para-que-sirven/
Data Centers: Central to Digitalization and Energy Efficiency Potential – Jun 2020 https://unepccc.org/wp-content/uploads/sites/3/2020/10/data-centres-digitalisation-powerhouse-and-energy-efficiency-potential-es.pdf
Beyond Data Center Decarbonisation Hype: Sustainable Solutions in Clean Firm Power and Grid-Enhancing Technologies https://www.extantia.com/stories/beyond-data-center-decarbonisation
How Google Uses Data Centers to Accelerate Global Clean Energy Adoption https://www.aes.com/es/como-google-utiliza-los-centros-de-datos-para-acelerar-la-adopcion-global-de-energia-limpia
Abundance of renewable energy attracts large data centers to Brazil https://www.nodal.am/2025/06/abundancia-de-energia-renovable-atrae-grandes-centros-de-datos-a-brasil/
A new data center in Latin America https://blog.google/intl/es-419/noticias-de-la-empresa/de-google/un-nuevo-centro-de-datos-en-america-latina/