Meadowbank on spill

Derwent

For more than a century, our power stations have electrified Tasmania. We’re working to generate clean, reliable electricity today and for generations to come.

Butlers Gorge Power Station

The power station is supplied by the water stored at Lake King William. Water then flows to Tarraleah Power Station.

1951

Date commissioned

12.7 MW

Generating capacity

1

Number of turbines

Francis hydropower

Type of turbines

Nieterana mini-hydro

Nieterana is the Aboriginal name for little brother. This mini-hydro station sits alongside ‘big sibling’ Butlers Gorge Power Station and was commissioned in 2004.

When additional turbines were added to Tarraleah Power Station, a second canal needed to be built to carry enough water from Lake King William to make full use of all turbines. Nieterana was built at the base of Lake King William to make use of the water flowing through the second canal.

2004

Date commissioned

2.2 MW

Generating capacity

1

Number of turbines

Francis hydropower

Type of turbines

Lake Echo Power Station

Water flows from Lake Echo to Dee Lagoon and on to Tungatinah Power Station.

1954

Date commissioned

33.5 MW

Generating capacity

1

Number of turbines

Francis hydropower

Type of turbines

Tarraleah Power Station

Water flows from Butlers Gorge Power Station via a series of tunnels, canals and pipes to Tarraleah. The water drops 290 m through penstocks (steel pipes) to the power station. The water from the station meets with water from Tungatinah Power Station and flows to Lake Liapootah.

1938–51

Date commissioned

93.6 MW

Generating capacity

6

Number of turbines

Pelton hydropower

Type of turbines
Tarraleah Power Station

What's happening at Tarraleah?

Wind watermark

What's happening at Tarraleah?

The iconic Tarraleah hydropower scheme is reaching the end of its operational life. We’re planning to redevelop it to deliver more energy and flexible capacity, while retaining iconic heritage elements. We’ll modernise how water is transported and build a new, bigger station, so the scheme can generate more energy when it’s most needed and most valued. 

Find out more

Tungatinah Power Station

Water is brought together from various lakes and lagoons to Tungatinah Power Station through natural and built systems. Once through the station, the water flow meets with water from Tarraleah and flows to Lake Liapootah.

1953–56

Date commissioned

142.2 MW

Generating capacity

5

Number of turbines

Francis hydropower

Type of turbines

Liapootah Power Station

This is the first power station in the lower run-of-river system and is where the cascade effect begins. Water from Lake Liapootah runs through to Liapootah Power Station and continues to Wayatinah Lagoon.

1960

Date commissioned

87.3 MW

Generating capacity

3

Number of turbines

Francis hydropower

Type of turbines

Wayatinah Power Station

Water from Wayatinah Lagoon flows through to Wayatinah Power Station, continuing to Lake Catagunya. 

1957

Date commissioned

45 MW

Generating capacity

3

Number of turbines

Francis hydropower

Type of turbines

Catagunya Power Station

Water from Lake Catagunya flows into Catagunya Power Station and then on to Lake Repulse.

1962

Date commissioned

50 MW

Generating capacity

2

Number of turbines

Francis hydropower

Type of turbines

Repulse Power Station

Water from Lake Repulse turns the turbines at Repulse Power Station and then continues to Cluny Lagoon. 

1968

Date commissioned

29.1 MW

Generating capacity

1

Number of turbines

Kaplan hydropower

Type of turbines

Cluny Power Station

Water from Cluny Lagoon flows into Cluny Power Station and then on to Lake Meadowbank. 

1967

Date commissioned

19.7 MW

Generating capacity

1

Number of turbines

Kaplan hydropower

Type of turbines

Meadowbank Power Station

Meadowbank Power Station is the last in the run-of-river system. Water continues its journey along the Derwent River and eventually out to sea. 

1967

Date commissioned

43.8 MW

Generating capacity

1

Number of turbines

Kaplan hydropower

Type of turbines