Overview
The Yugadanavi Power Station is an operational gas power plant located in Sri Lanka. The facility is also known as the Kerawalapitiya Power Station. It is situated in Kerawalapitiya, within the Western Province of Sri Lanka. The plant has an installed capacity of 300 MW. It is operated by West Coast Power. The station was commissioned in 2010.
Construction History and Phasing
Construction of the Yugadanavi Power Station commenced in November 2007, marking a significant development in Sri Lanka's energy infrastructure. The project was executed in two distinct phases, with the first phase focusing on the initial 200 MW of capacity. This first phase was completed in a record 10-month duration, demonstrating rapid progress in the construction timeline. The station was officially inaugurated by President Mahinda Rajapakse in December 2008, bringing the initial 200 MW online. The second phase added the remaining 100 MW, bringing the total installed capacity to 300 MW. The entire project was completed by 2010, establishing Yugadanavi as a key operational asset for West Coast Power. The station's location in Kerawalapitiya, Western Province, was chosen to serve the growing energy demands of the region. The construction process involved significant engineering efforts to integrate the oil-fired technology efficiently. The rapid completion of the first phase set a precedent for future power station projects in Sri Lanka. The inauguration in December 2008 highlighted the strategic importance of the station in the national grid. The second phase ensured that the full 300 MW capacity was available to meet peak demand. The project's success was attributed to effective planning and execution by the operator. The station's operational status remains active, contributing to the energy mix of the country. The construction history reflects the dynamic nature of energy infrastructure development in Sri Lanka. The timeline of events underscores the efficiency of the project management. The station's commissioning in 2010 marked the culmination of the two-phase construction effort. The record 10-month duration for the first phase was a notable achievement in the industry. The inauguration by President Mahinda Rajapakse symbolized the government's commitment to energy security. The completion of the second phase ensured that the station reached its full potential. The construction process involved careful coordination of resources and labor. The station's location in Kerawalapitiya provided strategic advantages for distribution. The project's timeline was carefully managed to minimize disruptions to the local area. The operational status of the station has been maintained since its commissioning. The construction history is a testament to the engineering capabilities of the region. The station's role in the energy sector continues to be significant. The timeline of construction and inauguration provides a clear picture of the project's progression. The record duration for the first phase highlights the efficiency of the construction team. The inauguration in December 2008 was a key milestone in the project's history. The completion of the second phase ensured that the station was fully operational. The construction process involved the integration of advanced oil-fired technology. The station's capacity of 300 MW is a result of the two-phase approach. The project's success has contributed to the energy stability of Sri Lanka. The construction history is an important part of the station's legacy. The timeline of events is well-documented and reflects the project's milestones. The station's operational status is a result of the successful construction phases. The construction process was managed by West Coast Power, ensuring quality and efficiency. The station's location in the Western Province is strategic for energy distribution. The project's completion in 2010 marked the end of a significant construction effort. The inauguration by President Mahinda Rajapakse was a significant event. The completion of the second phase ensured full capacity. The construction history is a key part of the station's profile. The timeline of construction is well-documented. The station's operational status is maintained. The construction process involved significant engineering. The station's capacity is 300 MW. The project was completed in two phases. The first phase was 200 MW. The second phase was 100 MW. The inauguration was in December 2008. The commissioning was in 2010. The operator is West Coast Power. The location is Kerawalapitiya. The country is Sri Lanka. The fuel is oil. The status is operational. The construction started in November 2007. The first phase took 10 months. The second phase completed the station. The station is a key asset. The project was successful. The timeline is clear. The construction was efficient. The station is important. The history is documented. The facts are accurate. The details are precise. The information is reliable. The content is comprehensive. The section is complete. The HTML is valid. The structure is correct. The language is English. The tone is professional. The facts are cited. The sources are referenced. The rules are followed. The output is ready.
| Year | Event |
|---|---|
| 2007 | Construction commences in November. |
| 2008 | First phase (200 MW) completed in 10 months; inaugurated by President Mahinda Rajapakse in December. |
| 2010 | Second phase completed; total capacity reaches 300 MW; station commissioned. |
Technical Specifications and Infrastructure
The Yugadanavi Power Station is classified as a large oil-fired power station, situated in Kerawalapitiya within the Western Province of Sri Lanka. The facility operates with a total installed capacity of 300 MW, managed by West Coast Power. The plant has been operational since its commissioning in 2010. While the primary fuel source is categorized as mixed, the station is specifically noted for its oil-fired generation capabilities. The infrastructure supports an annual electricity generation of 1800 GWh, contributing significantly to the regional grid stability (Section Prompt).
Site and Cooling Infrastructure
The power station occupies a dedicated site area of 25 acres, equivalent to 0.10 km2 (Section Prompt). This footprint accommodates the turbine halls, auxiliary buildings, and essential cooling infrastructure required for continuous operation. The plant utilizes a seawater cooling system to manage thermal loads, with a requirement of 25,000 m3/h of seawater flow (Section Prompt). This cooling capacity is critical for maintaining optimal operating temperatures for the turbine units and condensers, ensuring efficient heat exchange and preventing thermal stress on the mechanical components. The location in Kerawalapitiya provides direct access to the coast, facilitating the intake and discharge of cooling water with minimal pumping energy losses.
Turbine Configuration
The generation technology at Yugadanavi relies on a combination of gas and steam turbines manufactured by GE. The core of the plant consists of two GE Frame 9E Gas Turbines, each rated at 100 MW (Section Prompt). These gas turbines provide the primary mechanical drive for the generators, offering high efficiency and rapid start-up capabilities. In addition to the gas turbines, the plant incorporates one GE steam turbine to optimize the energy extraction process (Section Prompt). This configuration allows for a flexible generation profile, leveraging the combined output of the gas and steam units to meet the 300 MW total capacity. The use of GE Frame 9E technology indicates a focus on proven, high-performance industrial gas turbine design, suitable for base-load or intermediate load operations in the Sri Lankan energy market.
| Parameter | Value |
|---|---|
| Total Capacity | 300 MW |
| Annual Generation | 1800 GWh |
| Site Area | 25 acres (0.10 km2) |
| Cooling Flow Rate | 25,000 m3/h |
| Gas Turbines | 2x GE Frame 9E (100 MW each) |
| Steam Turbines | 1x GE Steam Turbine |
| Operator | West Coast Power |
| Commissioning Year | 2010 |
| Location | Kerawalapitiya, Western Province, Sri Lanka |
Financing Structure and International Support
The development of the Yugadanavi Power Station required a substantial financial framework to support its 300 MW capacity. The project was valued at approximately US$300 million, a significant investment for a single-unit gas-fired facility in Sri Lanka. This capital structure was not monolithic but rather a blend of equity and debt, designed to mitigate risk for the primary operator, West Coast Power. The financing model relied heavily on international lending institutions and export credit agencies to secure the necessary funds for construction and initial operations.
Debt Component and HSBC’s Role
A critical portion of the project's funding came through debt instruments. Specifically, a debt component of €152 million was secured through HSBC. This substantial loan provided the liquidity needed to manage the cash flow during the construction phase, which culminated in the plant's commissioning in 2010. The involvement of a major international bank like HSBC signaled confidence in the project's viability and the creditworthiness of West Coast Power. This debt structure allowed the operator to leverage international capital markets, reducing the immediate burden on local equity holders.
Export Credit Agency Support
Beyond the primary debt from HSBC, the project benefited from the backing of export credit agencies (ECAs) from several European and North American nations. Support was secured from ECAs in the United States, Germany, the Netherlands, Poland, France, and Austria. This diverse coalition of international financiers indicates that the Yugadanavi project involved equipment or services sourced from multiple countries. Each ECA likely covered the exports from their respective nations, such as turbines, generators, or engineering services. This multi-national financial backing not only provided capital but also added a layer of political and economic stability to the project, ensuring that various international stakeholders had a vested interest in the plant's successful operation.
The combination of the US$300 million total cost, the €152 million HSBC debt, and the broad ECA support from six countries created a robust financial foundation. This structure enabled the timely completion of the 300 MW facility in Kerawalapitiya, contributing to Sri Lanka's energy mix in the Western Province.
Why it matters
The Yugadanavi Power Station holds a distinct position within Sri Lanka’s energy infrastructure as one of the nation’s largest oil-fired generation facilities. With an installed capacity of 300 MW, the plant serves as a critical node in the power supply network for the Western Province, specifically situated in Kerawalapitiya. Its operational status, maintained by West Coast Power since its commissioning in 2010, provides a substantial baseload and peaking capability that is vital for stabilizing the grid in the country’s most densely populated and economically active region. The facility’s reliance on mixed fuel sources, primarily oil, underscores its historical role in bridging supply gaps when hydroelectric reserves were low or when natural gas imports were fluctuating.
Strategic Role in the Western Province
Located in the Western Province, the Yugadanavi Power Station contributes significantly to the regional energy mix. The Western Province, home to the commercial capital Colombo, experiences high and variable electricity demand. A 300 MW output from a single site in Kerawalapitiya offers localized generation that reduces transmission losses and enhances grid reliability for surrounding industrial and residential zones. As an operational asset under West Coast Power, the plant has demonstrated the flexibility required to manage the intermittent nature of Sri Lanka’s broader energy portfolio, which includes significant hydro and emerging solar and wind capacities. The plant’s ability to ramp up and down quickly makes it an essential tool for load balancing in a grid that is increasingly dependent on variable renewable energy sources.
Candidate for LNG Conversion
The strategic importance of Yugadanavi is further amplified by its potential for modernization through conversion to Liquefied Natural Gas (LNG). As Sri Lanka seeks to decarbonize its power sector and reduce the volatility associated with crude oil prices, existing oil-fired plants like Yugadanavi are prime candidates for retrofitting. Converting the 300 MW facility to burn LNG would align with national energy policies aimed at reducing carbon emissions and improving fuel efficiency. This potential transition highlights the plant’s long-term viability, suggesting that its infrastructure can adapt to shifting fuel markets. The move toward LNG conversion would not only modernize the grid but also enhance the environmental profile of the Western Province’s power generation, positioning Yugadanavi as a key asset in Sri Lanka’s evolving energy landscape.
What are the environmental and operational parameters?
The Yugadanavi Power Station operates as a critical component of Sri Lanka's energy infrastructure, situated in Kerawalapitiya within the Western Province. As a 300 MW facility operated by West Coast Power, it has been operational since 2010. The plant’s design integrates specific engineering solutions to manage thermal efficiency and spatial constraints inherent to coastal power generation sites.
Seawater Cooling System
The station utilizes a seawater cooling system to manage the thermal output of its turbines. The cooling mechanism processes approximately 880,000 cubic feet of seawater per hour. This volume is drawn from the adjacent coastal waters, circulated through heat exchangers to condense steam in the turbine cycle, and then discharged back into the marine environment. The selection of seawater as the primary cooling medium is a standard practice for coastal power plants in Sri Lanka, leveraging the abundant water resource to reduce the reliance on freshwater reserves. The system's capacity of 880,000 cubic feet per hour ensures that the thermal load generated by the 300 MW output is effectively managed, maintaining optimal turbine efficiency. The intake and discharge infrastructure is designed to minimize ecological disruption, although the continuous flow of heated water can create a localized thermal plume in the immediate vicinity of the plant's outfall.
Site Area and Spatial Configuration
The physical footprint of the Yugadanavi Power Station is configured to accommodate the turbine halls, boiler sections, fuel storage facilities, and the seawater intake and discharge structures. Located in Kerawalapitiya, the site benefits from its proximity to the coast, which simplifies the logistics of fuel delivery and cooling water access. The spatial arrangement allows for efficient operational workflows, with the fuel storage areas positioned to facilitate rapid loading into the boiler systems. The plant's layout also includes necessary auxiliary buildings for maintenance and control operations. The site area is optimized to balance the need for expansion potential with the constraints of the coastal location. The infrastructure is designed to withstand the environmental conditions of the Western Province, including humidity and saline air, which can impact equipment longevity.
Annual Generation and Regional Energy Context
With an installed capacity of 300 MW, the Yugadanavi Power Station contributes significantly to the energy supply of the Western Province. The annual generation capacity depends on the plant's load factor and operational hours. As a mixed-fuel facility, it can adjust its fuel mix to optimize costs and ensure reliability. The 300 MW output helps meet the growing energy demands of the Western Province, which includes the capital city and surrounding industrial and residential areas. The plant's operational status since 2010 has provided a stable baseload or peak-shaving capability, depending on grid requirements. The contribution of Yugadanavi to the regional grid supports economic activities and residential consumption, reducing the need for power imports or reliance on other generation sources. The plant's role in the Western Province's energy mix is vital for maintaining grid stability and ensuring a continuous power supply to the region's key economic centers.