Tasiilaq Powerplant: Engineering and Operations

Overview

The Tasiilaq Powerplant serves as the primary energy hub for Tasiilaq, the most populous town on Greenland's eastern coast. Located on Ammassalik Island within the Sermersooq Municipality, the facility is critical for supplying electricity to approximately 2,000 residents and local industries. As of 2026, the plant is operated by Sermitsiaq Energy, the municipal utility arm responsible for the region's power generation and distribution. The plant’s operational status remains stable, providing the baseline load required to sustain daily life in a remote Arctic environment where energy security is often as vital as thermal comfort.

Unlike many of Greenland’s larger hydroelectric schemes, the Tasiilaq facility relies on a mixed energy source profile. This hybrid approach typically integrates hydroelectric generation with diesel backup or primary power, depending on seasonal water availability and grid demand. The specific mix is dictated by the hydrology of the local river systems feeding the reservoirs or run-of-river intakes. In southeastern Greenland, where glacial melt and precipitation patterns can vary significantly, this flexibility allows operators to balance efficiency and reliability. Hydroelectric units generally handle the base load during high-flow seasons, while thermal units ramp up during winter months or drought periods. This operational strategy minimizes fuel consumption during peak hydro availability, thereby reducing the carbon intensity of the local grid.

Background: Tasiilaq, formerly known as Ammassalik, is a key logistical and cultural center for the southeastern region. Its energy infrastructure must support not only residential needs but also research facilities like the nearby Sermilik Station, which monitors the Mittivakkat Glacier. Reliable power is essential for these scientific operations, which contribute valuable data on climate change impacts in the Arctic.

The role of the Tasiilaq Powerplant in the local energy mix is foundational. It provides the voltage stability and frequency regulation necessary for a small, isolated grid. In such systems, the inertia provided by rotating machinery—whether turbine generators or diesel engines—is crucial for maintaining grid frequency at 50 Hz. The plant’s output is measured in megawatts (MW), with capacity factors influenced by the seasonal variability of the hydro resource. For hydro components, capacity factors can range widely, often between 30% and 60% depending on the specific reservoir size and annual precipitation. This variability necessitates careful operational planning by Sermitsiaq Energy to ensure that fuel reserves are optimized and that blackouts are minimized.

Environmental considerations are increasingly important for the Tasiilaq facility. The integration of hydroelectric power reduces reliance on imported diesel fuel, which is a significant source of CO₂ emissions in Greenlandic towns. By maximizing hydro generation, the plant helps lower the overall carbon footprint of the municipality. However, the construction and maintenance of hydro infrastructure in a fragile Arctic ecosystem require careful environmental management to minimize impact on local flora and fauna. The plant’s operations are thus a balance between energy security, economic efficiency, and environmental stewardship, reflecting the broader challenges faced by remote energy systems in the 21st century.

History and Development

The development of power infrastructure in Tasiilaq reflects the broader evolution of energy systems in southeastern Greenland, shifting from localized, diesel-dependent generation to a more integrated, mixed-source approach. Historically, remote Arctic communities relied heavily on imported fossil fuels due to the logistical challenges of harnessing local renewable resources. Tasiilaq, situated on Ammassalik Island, has long utilized its geographical advantages, particularly the flow of the Ammassalik River, to supplement thermal generation. The transition toward a hybrid system was driven by the need to reduce operational costs, minimize carbon emissions, and enhance energy security for the municipality's growing population.

Early power generation in the town likely involved small-scale hydroelectric installations paired with diesel engines to handle peak loads and seasonal variations in water flow. As of 2026, the facility operates under the management of Sermitsiaq Energy, the utility arm of the Sermersooq Municipality. This operational model allows for coordinated maintenance and strategic planning across the municipality's diverse energy assets. The integration of hydro and thermal sources creates a flexible grid capable of adapting to the volatile weather patterns characteristic of the region.

The technical configuration of the plant leverages the natural head of the Ammassalik River. Hydroelectric generation provides a baseload power supply, while diesel generators offer rapid response capabilities during periods of low inflow or high demand. This hybrid approach is critical in an environment where winter ice can affect river flow and summer glacial melt can cause surges. The balance between these sources is managed to optimize fuel consumption and extend the lifespan of mechanical components. That is the trade-off: complexity in operation for resilience in supply.

Recent expansions have focused on modernizing turbine efficiency and upgrading transmission lines to connect the plant more effectively with the town's distribution network. These improvements aim to reduce technical losses and improve voltage stability. The Sermersooq Municipality has prioritized energy independence, viewing the power plant as a cornerstone of local economic development. By reducing reliance on imported diesel, the municipality can allocate more resources to other public services and infrastructure projects.

Background: Tasiilaq is the most populous community on Greenland's eastern coast, with nearly 2,000 inhabitants as of 2020. Its strategic location makes it a hub for tourism, fishing, and research, including the nearby Sermilik Station studying the Mittivakkat Glacier. Energy reliability is therefore not just a local concern but a regional economic driver.

The operational history of the Tasiilaq Powerplant is marked by incremental upgrades rather than single, massive construction events. This phased approach allows the municipality to manage capital expenditures more effectively, aligning investments with budget cycles and technological advancements. The current operational status reflects a mature system that has adapted to the specific hydrological and climatic conditions of the Ammassalik fjord. Future developments may include further integration of wind or solar power, although the hydro-diesel hybrid remains the backbone of the local grid. The plant's continued operation is essential for maintaining the quality of life in this remote Arctic community.

Engineering and Technical Specifications

The Tasiilaq Powerplant operates as a hybrid energy facility, integrating hydroelectric generation with diesel backup to ensure grid stability in southeastern Greenland. The hydroelectric component utilizes the natural flow of local waterways, characteristic of run-of-river systems common in Arctic regions where large reservoirs are less feasible. This setup minimizes land use while providing a consistent, albeit variable, power output depending on seasonal meltwater and precipitation patterns.

Hydroelectric Components

The hydroelectric turbines are designed to handle the specific hydraulic conditions of the Ammassalik region. While exact turbine models are not always publicly detailed, such installations typically employ Kaplan or Francis turbines, chosen for their efficiency across varying flow rates. The gross head and flow rate determine the theoretical power output, often calculated using the formula P=η⋅ρ⋅g⋅Q⋅H, where η is the efficiency, ρ is water density, g is gravitational acceleration, Q is flow rate, and H is the net head. The system is engineered to maximize energy capture during peak melt seasons, feeding directly into the local distribution network.

Diesel Backup Systems

Given the variability of hydroelectric input, diesel generators provide essential baseload and peak-shaving capabilities. These units are critical during winter months when water flow may decrease or freeze, and during periods of high demand. The diesel engines are typically medium-speed, four-stroke units, optimized for reliability and fuel efficiency in cold climates. They operate in tandem with the hydro units, allowing for flexible dispatching to maintain frequency and voltage stability on the island's grid.

Technical Parameters

The following table summarizes the key technical specifications of the Tasiilaq Powerplant, reflecting its hybrid nature and operational characteristics.

Caveat: Specific capacity figures in MW and exact turbine models can vary with upgrades and seasonal maintenance. For the most current operational data, refer to reports from Sermitsiaq Energy or the Sermersooq Municipality.

The integration of these systems highlights the engineering challenges of remote Arctic energy infrastructure. Balancing renewable hydro power with reliable diesel backup ensures that Tasiilaq, the largest town on Greenland's east coast, maintains a stable energy supply despite its geographical isolation and climatic extremes. This hybrid approach is a pragmatic solution, leveraging local resources while mitigating the intermittency inherent in pure hydroelectric generation.

How does the hybrid power system work?

The Tasiilaq power system operates as a hybrid network, integrating hydroelectric generation with diesel backup to ensure reliability in a remote Arctic environment. This configuration is essential for balancing the variability of water flow against the relatively steady but fuel-intensive output of internal combustion engines. The primary source of renewable energy is the hydroelectric plant, which utilizes the natural topography of the Ammassalik region. Water is diverted from local rivers or reservoirs to drive turbines, converting potential energy into electrical power. This process reduces the overall carbon footprint of the municipality's energy mix. However, hydro generation in Greenland is subject to seasonal fluctuations, particularly during winter months when ice formation and reduced precipitation can lower water levels. Consequently, the system relies on diesel generators to fill the gap when hydro output dips below demand.

Load Balancing and Dispatch

Load balancing in Tasiilaq involves coordinating the output of hydro turbines and diesel engines to match the town's instantaneous power consumption. As of 2026, the operator, Sermitsiaq Energy, manages this through automated control systems that monitor frequency and voltage. When electricity demand rises, the system first increases the output of the hydro turbines, as they offer a lower marginal cost per megawatt-hour compared to diesel. If the hydro capacity reaches its limit, diesel generators are brought online to provide additional power. This hierarchical dispatch strategy minimizes fuel consumption while maintaining grid stability. The interaction can be conceptualized through the power balance equation: Pload​=Phydro​+Pdiesel​+Plosses​, where Pload​ represents the total consumer demand, Phydro​ is the output from the water turbines, Pdiesel​ is the contribution from the backup engines, and Plosses​ accounts for transmission and distribution inefficiencies.

During periods of low demand, such as late at night, the system may reduce diesel output to maintain the engines within their optimal efficiency range. Diesel generators often suffer from "part-load inefficiency," meaning their fuel consumption per unit of energy increases significantly when operating below 70% of their rated capacity. Therefore, the control logic may keep a diesel unit running at a steady state rather than cycling it on and off frequently, depending on the specific characteristics of the installed engines. This operational nuance is critical for cost-effective management of the hybrid grid.

Background: Hybrid systems in remote Arctic communities often prioritize reliability over pure cost efficiency. The high cost of transporting diesel fuel to Tasiilaq makes every saved liter economically significant, driving the optimization of hydro usage.

Grid Stability Mechanisms

Maintaining grid stability in a hybrid system requires careful management of frequency and voltage. In a purely diesel-based grid, the rotating mass of the engines provides significant inertia, which helps resist sudden changes in frequency. Hydro turbines also contribute to this inertia, but their response time can vary depending on the type of turbine used, such as Pelton or Francis wheels. When the hydro plant is the dominant source, the grid may become more susceptible to frequency fluctuations if the water flow is not precisely regulated. To counteract this, the diesel generators are often kept in "spinning reserve" mode, meaning they are synchronized with the grid and ready to inject power almost instantly if a disturbance occurs.

Voltage regulation is another critical aspect. The excitation systems of the diesel generators and the automatic voltage regulators (AVR) on the hydro turbines work in tandem to maintain voltage within acceptable limits, typically around 400V for low-voltage distribution in Tasiilaq. If the hydro plant experiences a sudden drop in output due to a change in water head or turbine speed, the diesel engines must quickly adjust their reactive power output to prevent voltage sags. This coordination is managed by the grid's supervisory control and data acquisition (SCADA) system, which provides real-time data to the operators at Sermitsiaq Energy. The seamless integration of these sources ensures that the town's 1,985 inhabitants experience minimal interruptions, even during the harsh seasonal variations characteristic of southeastern Greenland.

What are the main challenges of Arctic hydropower?

Hydropower in the high Arctic presents a distinct set of engineering and operational hurdles that differ significantly from temperate zone counterparts. For facilities like the one in Tasiilaq, the primary adversary is not just the volume of water, but its phase state. The interplay between freezing temperatures, glacial meltwater, and limited daylight creates a volatile operational environment. Engineers must design systems that can handle rapid thermal cycling and the mechanical stress of ice, while maintaining reliability in a location where logistical support is often months away.

Thermal and Hydrological Volatility

Greenland’s eastern coast experiences extreme seasonal variations. In winter, ambient temperatures can plummet well below -20°C, while summer melt seasons bring rapid inflows of cold, sediment-laden water. This thermal shock affects both the turbine components and the penstock infrastructure. The coefficient of thermal expansion for steel penstocks, typically around α≈12×10−6/∘C, means that a 30°C swing can result in significant dimensional changes, requiring flexible joints and robust anchorages to prevent fatigue failure.

Caveat: The "mixed" fuel designation for Tasiilaq is critical. Unlike large reservoir dams in southern Scandinavia, Tasiilaq’s hydro capacity is often supplemented by diesel generation. This hybrid approach is a direct response to the unpredictability of Arctic hydrology, where a late winter or early summer can drastically alter the water head and flow rate.

Glacial silt is another major factor. The Mittivakkat Glacier and surrounding ice caps contribute fine-grained sediment to the river systems. This abrasive material accelerates wear on turbine blades, particularly in Francis or Kaplan units common in small-scale hydro. Maintenance schedules must account for higher erosion rates than standard ISO ratings suggest, often requiring more frequent inspections of runner surfaces and seal integrity.

Ice Formation and Mechanical Stress

Ice formation poses two distinct threats: surface ice on the intake and internal icing within the turbine draft tube. Ice lenses can form at the intake grates, reducing effective flow area and increasing head loss. If not managed, this can lead to cavitation, where vapor bubbles form and collapse against the metal surfaces, causing pitting and noise. The power loss due to intake blockage can be modeled by the Darcy-Weisbach equation, where increased roughness coefficients from ice buildup directly impact the friction head loss hf​.

Internally, if the water temperature hovers near 0°C, "ice crystals" can form in the low-pressure zone of the draft tube. This phenomenon, known as internal icing, can unbalance the rotor and cause severe vibration. Operators in Arctic regions often employ air injection systems or heated intake structures to mitigate this risk. The cost of these mitigation systems is a small fraction of the total capital expenditure but is essential for year-round reliability.

Logistics and Maintenance

The logistical challenge of maintaining infrastructure in Tasiilaq is profound. Located on Ammassalik Island, the town is accessible by air and sea, but the sea route is often blocked by ice or storms for several months a year. This means that spare parts, specialized tools, and technical crews must be pre-positioned or flown in during narrow weather windows. The cost per kilowatt-hour (kWh) is heavily influenced by these logistical overheads.

Maintenance strategies often shift from "run-to-failure" to "condition-based maintenance" to minimize downtime. This involves deploying vibration sensors, oil analysis kits, and thermographic cameras to monitor the health of generators and turbines. For a municipality like Sermersooq, operating via Sermitsiaq Energy, the ability to diagnose a fault remotely can save thousands of dollars in helicopter charter fees and crew accommodation costs.

The human factor is also significant. Technicians working in Tasiilaq must be versatile, capable of handling electrical, mechanical, and even civil engineering tasks. The isolation requires a high degree of autonomy and problem-solving skills. Training programs for Arctic energy operators often emphasize cross-disciplinary skills to ensure that a single technician can keep the plant running during a critical breakdown.

Ultimately, the success of Arctic hydropower lies in its adaptability. It is not merely about harnessing water, but about managing the complex interplay of ice, sediment, and distance. For Tasiilaq, the hydro plant is a vital component of the local energy mix, providing a cleaner alternative to diesel while demanding a rigorous, context-specific approach to engineering and maintenance.

Grid Integration and Energy Distribution

The electrical infrastructure serving Tasiilaq is characterized by its isolation and the necessity for high reliability in a harsh Arctic environment. As the most populous community on Greenland's eastern coast, the town relies on a localized distribution network managed by Sermitsiaq Energy, the energy division of the Sermersooq Municipality. The grid is not part of a continent-spanning supergrid; instead, it functions as a semi-autonomous system, often described as a "weak grid" due to its limited inertia compared to larger continental networks. This structural reality dictates specific operational strategies for integrating the mixed power sources available to the plant.

Local Grid Architecture and Voltage Levels

Power generated at the Tasiilaq Powerplant is stepped up for transmission and then distributed through a radial network that extends from the town center into surrounding residential and industrial zones. While precise historical voltage specifications for the entire municipal network are not always publicly detailed in international databases, typical Greenlandic municipal grids operate with a primary distribution voltage of 20 kV or 33 kV, stepping down to the standard 400/230 V three-phase system for end-users. The proximity of the power generation facilities to the load center minimizes transmission losses, a critical efficiency factor given the high cost of energy in the region.

Caveat: Grid stability in remote Arctic towns is more sensitive to sudden load changes than in larger networks. The integration of hydro and thermal sources requires careful balancing to maintain frequency and voltage within acceptable limits.

The distribution system must accommodate both steady base loads from residential heating and lighting, as well as peak demands from local industries, which may include fish processing facilities. The radial nature of the grid means that a fault in one feeder can isolate a significant portion of the town unless switching infrastructure is utilized. Sermitsiaq Energy maintains this infrastructure to ensure continuity, often relying on a combination of automated reclosers and manual switching to restore power quickly after outages caused by ice storms or equipment failure.

Integration of Mixed Energy Sources

The Tasiilaq Powerplant utilizes a mixed energy source profile, primarily combining hydroelectric power from the nearby Angmagssalik River and thermal backup, often diesel-based. This hybrid approach is essential for managing the variability inherent in hydro generation, particularly during seasonal fluctuations in water flow. The hydro component provides a relatively low-marginal-cost base load, while the thermal units offer rapid response capabilities to handle peak demands or compensate for sudden drops in hydro output.

Effective grid integration in this context involves sophisticated load forecasting and dispatch strategies. The operator must predict energy demand based on weather patterns, industrial activity, and seasonal variations. The formula for calculating the effective capacity factor of the hybrid system can be expressed conceptually as:

CF_effective = (E_hydro + E_thermal) / (C_total × T)

Where E represents energy output, C is the total installed capacity, and T is the time period. This metric helps operators optimize the mix of hydro and thermal generation to minimize fuel consumption while maintaining grid stability. The thermal units also provide crucial inertia to the grid, helping to stabilize frequency during transient events, a function that pure hydro or emerging renewable sources like wind might not provide as effectively without additional power electronics.

As of 2026, the grid remains operational and continues to serve the growing needs of Tasiilaq. Future upgrades may focus on enhancing the flexibility of the thermal units and potentially integrating more renewable sources, but the core challenge remains balancing reliability with cost-efficiency in a remote, resource-constrained environment. The local grid infrastructure is a testament to the engineering adaptations required to power Arctic communities effectively.

Applications and Regional Impact

The Tasiilaq Powerplant serves as the critical energy backbone for the southeastern coast of Greenland, supplying electricity to the town of Tasiilaq and its surrounding settlements. As the most populous community on the eastern coast, Tasiilaq relies on a hybrid energy system that combines hydroelectric generation with thermal backup. This mixed-fuel approach is essential for managing the variability inherent in renewable sources in a region characterized by distinct seasonal hydrological patterns. The plant ensures grid stability for residential, commercial, and institutional consumers within the Sermersooq Municipality.

Hydroelectric power forms the primary base load for the region. Water from local reservoirs is channeled through turbines to generate electricity, offering a relatively low-carbon energy source compared to traditional diesel generation. However, the hydrological output is subject to seasonal fluctuations. During periods of high runoff, typically in the summer months, hydro capacity increases. In contrast, winter months may see reduced water flow, necessitating the activation of thermal units. These thermal generators, often fueled by diesel or oil, provide crucial peaking power and reserve capacity. This hybrid configuration minimizes the need for extensive pumped-storage infrastructure while maintaining high availability.

The operational strategy involves balancing the marginal cost of hydro generation against the fuel costs of thermal backup. The effective capacity factor of the hydro component depends on the reservoir volume and inflow rates. The total energy output E over a period t can be approximated by integrating the power output P(t):

Regional Industrial and Residential Support

Local industry in Tasiilaq is modest but significant for the regional economy. Key sectors include fisheries, tourism, and light manufacturing. The power plant provides the stable voltage and frequency required for fish processing facilities, which are critical for preserving catch quality before transport. Tourism infrastructure, including hotels and the nearby Sermilik Station for glacial research, also depends on uninterrupted power supply. Residential consumption accounts for a substantial portion of the load, with heating and lighting demands peaking during the long, dark winters.

Caveat: Energy prices in Greenland are among the highest in the world due to transportation costs for fuel and the complexity of grid infrastructure. The Tasiilaq plant helps mitigate these costs by leveraging local hydro resources, but the reliance on thermal backup during low-flow periods keeps prices volatile.

Future Expansion and Grid Integration

Future development plans for the Tasiilaq power system focus on increasing the share of renewable energy and enhancing grid resilience. Potential expansions include upgrading turbine efficiency and adding storage capacity to smooth out generation profiles. There is also interest in integrating wind power, which could complement hydro generation during different seasonal windows. However, the remote location of Tasiilaq presents logistical challenges for transporting large equipment and skilled labor. Any expansion must be carefully evaluated against the carrying capacity of the local grid and the environmental impact on the surrounding fjord landscape.

The municipality continues to invest in modernizing the control systems of the power plant. Advanced monitoring allows for better prediction of hydro inflows and more precise dispatch of thermal units. This digitalization supports the gradual transition toward a more sustainable energy mix. The goal is to reduce greenhouse gas emissions while maintaining affordability for residents. The success of these initiatives will depend on continued investment and effective coordination between local operators and national energy planners.

Worked examples: Energy balance calculation

Hybrid power systems in remote Arctic locations require balancing intermittent renewable generation with flexible thermal backup. Tasiilaq’s infrastructure typically relies on a mix of hydroelectric runoff and diesel generation to meet the town’s load. Calculating the annual energy balance helps engineers size storage or determine fuel logistics. We will walk through three simplified scenarios using representative figures for a community of this scale.

Scenario 1: Baseline Hydro Contribution

Assume the hydro plant operates at a net capacity of 1.5 MW. In southeastern Greenland, seasonal variation is significant. A typical annual capacity factor for a small run-of-river scheme might be 35%. To find the annual hydro output, multiply the net capacity by the total hours in a year and the capacity factor.

Calculation: 1.5 MW × 8,760 hours/year × 0.35 = 4,599 MWh/year. This output covers the base load during the summer months when daylight and meltwater increase inflow. The remaining demand must be met by diesel generators, which operate at higher marginal costs but offer instant ramping capability.

Scenario 2: Diesel Backup and Fuel Consumption

If the total annual electricity demand for Tasiilaq is estimated at 12,000 MWh, the diesel contribution is the residual. Subtract the hydro output from the total demand: 12,000 MWh – 4,599 MWh = 7,401 MWh. Diesel generators in such plants typically have an efficiency of around 35% (net electrical output per unit of fuel energy). To find the fuel required, divide the energy output by the efficiency.

Calculation: 7,401 MWh / 0.35 = 21,146 MWh of fuel energy. Converting to liters, assuming diesel has an energy density of approximately 10.2 kWh per liter: 21,146,000 kWh / 10.2 kWh/liter ≈ 2,073,137 liters. This volume dictates the annual shipping schedule for fuel tankers navigating the Sermilik Fjord.

Scenario 3: Impact of Increased Hydro Capacity

Consider an upgrade increasing the hydro net capacity to 2.2 MW with an improved capacity factor of 40% due to better turbine selection. The new hydro output is: 2.2 MW × 8,760 hours × 0.40 = 7,709 MWh/year. The diesel demand drops to: 12,000 MWh – 7,709 MWh = 4,291 MWh. The fuel savings are substantial. New diesel consumption: 4,291 MWh / 0.35 = 12,260 MWh fuel energy. In liters: 12,260,000 kWh / 10.2 ≈ 1,201,961 liters.

The upgrade saves approximately 871,000 liters of diesel annually. This reduction lowers operational costs and decreases CO₂ emissions, assuming a standard emission factor of 2.68 kg CO₂ per liter of diesel. The environmental benefit is roughly 2,330 tonnes of CO₂ avoided each year. That is the trade-off: higher capital expenditure on turbines yields long-term fuel and carbon savings.

Background: In remote Greenlandic municipalities, energy independence is often measured by the percentage of load covered by hydro or wind. Sermitsiaq Energy manages these assets to minimize the reliance on expensive imported diesel, which must be shipped during the short summer navigation window.

Frequently asked questions

What type of energy generation system does the Tasiilaq power plant use?

The facility operates as a hybrid system that combines hydroelectric power with diesel generation to ensure a stable energy supply. This dual approach allows the plant to leverage renewable water resources while maintaining diesel backups for periods of low flow or high demand.

Why is a hybrid approach necessary for power generation in Tasiilaq?

Arctic conditions present unique challenges, such as seasonal variations in water flow and extreme temperatures, which can affect the reliability of single-source generation. Integrating hydro and diesel systems provides operational flexibility and resilience against these environmental fluctuations.

How does the power plant integrate with the local electrical grid?

The plant manages grid integration by balancing the variable output from hydro turbines with the more consistent, yet fuel-intensive, diesel generators. This coordination ensures voltage and frequency stability for the regional distribution network serving the town and its surroundings.

What are the primary operational challenges faced by hydropower in this Arctic region?

Key challenges include managing ice formation in water intakes and turbines, dealing with permafrost affecting infrastructure stability, and coordinating maintenance during short summer windows. These factors require specialized engineering solutions to maintain efficient year-round operation.

What is the regional impact of the Tasiilaq power plant's energy distribution?

The plant plays a crucial role in supporting the local economy and daily life by providing reliable electricity for residential, commercial, and industrial applications. Its efficient operation helps reduce fuel dependency and supports the broader energy balance of the East Greenland region.

See also

• Lilla Edet Power Plant: Engineering and Operations
• Hojum Hydroelectric Power Station: Engineering and Operations
• Pļaviņas Hydroelectric Power Plant: Engineering and Operations
• Thermalito Diversion Dam and Hydroelectric Plant: Engineering and Operations
• Buksefjorden Power Plant: Engineering and Operations
• Olidan Hydroelectric Power Station: History and Engineering
• Stalon Powerplant: Engineering and Operations
• Kegums Hydroelectric Power Plant: Engineering and Operations

References

1. "Tasiilaq" on English Wikipedia
2. Tasiilaq Power Plant - Global Energy Monitor
3. Energy in Greenland - IEA
4. Sermitsiaq - Greenland's National Newspaper (Search: Tasiilaq Power Plant)
5. Energy Greenland - Official Energy Authority