Thermo No. 1 Geothermal Project

By Matheus_

(2024-07-05)

Cove Fort Geothermal Power Plant

By Matheus_

(2024-07-05)

Blundell Geothermal Facility

By Matheus_

(2024-07-05)

Paisley Geothermal Plant

By Matheus_

(2024-05-01)

Neal Hot Springs

By Matheus_

(2024-05-01)

Lightning Dock KGRA

By Matheus_

(2024-04-14)

Whitegrass No. 1

By Matheus_

(2024-04-08)

Stillwater Triple Hybrid Power Plant

By Matheus_

(2024-04-08)

The Stillwater GeoSolar Hybrid Plant is a combined 61 MW solar energy and geothermal power plant in the U.S. state of Nevada. Located 12 miles (19 km) NE of Fallon, near Stillwater, the site includes a 26MW solar photovoltaic plant and a 2MW solar thermal plant that were added to a 33MW geothermal plant.

Steamboat Hills Geothermal Plant

By Matheus_

(2024-04-08)

Soda Lake Power Plant

By Matheus_

(2024-04-08)

The Soda Lake Geothermal Field is located on the northeast flank of the Soda Lakes volcano, west of the city of Fallon, Nevada in Churchill County.

Exploration of the geothermal site occurred from 1972 to 1986. The Soda Lake I geothermal power plant came online in 1987. The larger Soda Lake II plant started in 1991. Construction of Soda Lake 3 was announced in late 2016. The expansion and upgrades at the combined site are planned to be a total of 37 megawatts

San Emidio Geothermal Plant

By Matheus_

(2024-04-08)

San Emidio Geothermal Plant, in Washoe County, Nevada, is a geothermal power plant with a design capacity of 11.8 megawatts (15,800 hp). The upgraded plant went online on May 25, 2012.

Salt Wells Geothermal Plant

By Matheus_

(2024-04-08)

Richard Burdett Geothermal Plant

By Matheus_

(2024-04-08)

Patua Geothermal Power Plant

By Matheus_

(2024-04-08)

The Patua Geothermal Power Plant is a 60 MW modular binary cycle power plant located in Hazen, Nevada. The Patua Plant is currently the largest binary plant ever constructed. The plant’s output is supplied to the Sacramento Municipal Utility District.

McGinness Hills Geothermal Complex

By Matheus_

(2024-04-08)

The McGinness Hills Geothermal Complex is a complex of 3 geothermal power stations located in a valley between the Toiyabe Range and Simpson Park Range in Lander County, Nevada. It is the largest geothermal complex in Nevada and the fourth largest in the United States.

Jersey Valley Geothermal Plant

By Matheus_

(2024-04-08)

Galena II Geothermal Plant

By Matheus_

(2024-04-08)

Don Campbell 1 Geothermal Plant

By Matheus_

(2024-04-08)

Dixie Valley Geothermal Plant

By Matheus_

(2024-04-08)

Desert Peak Geothermal Plant

By Matheus_

(2024-04-08)

Ormat Brady Geothermal Complex

By Matheus_

(2024-04-08)

Blue Mountain Faulkner 1 Geothermal Power Plant

By Matheus_

(2024-04-08)

Blue Mountain Faulkner 1 Geothermal Power Plant is a geothermal power plant located in Humboldt County, Nevada, United States. It is owned and operated by Nevada Geothermal Power Inc.[1][2][unreliable source?] Produced electricity is sold to NV Energy through a 21-mile (34 km) 120-kV transmission line to the transmission grid connection at Mill City, Nevada

Beowawe Geothermal Power Plant

By Matheus_

(2024-04-07)

Raft River Plant

By Matheus_

(2024-02-10)

North Brawley Power Station

By Matheus_

(2023-11-14)

Mammoth Geothermal Unit

By Matheus_

(2023-11-14)

Vulcan Power Station

By Matheus_

(2023-11-14)

The Geysers

By Matheus_

(2023-11-13)

The Geysers is the world's largest geothermal field, containing a complex of 18 geothermal power plants, drawing steam from more than 350 wells, located in the Mayacamas Mountains approximately 72 miles (116 km) north of San Francisco, California.

Geysers produced about 20% of California's renewable energy in 2019.

Yamagawa Geothermal Power Station

By Matheus_

(2023-06-23)

Ogiri Geothermal Power Plant

By Matheus_

(2023-06-23)

Hatchōbaru Geothermal Power Plant

By Matheus_

(2023-06-23)

Takigami Power Station

By Matheus_

(2023-06-23)

Yanaizu-Nishiyama Geothermal Power Station

By Matheus_

(2023-06-23)

Uenotai Geothermal Power Station

By Matheus_

(2023-06-21)

Kakkonda Geothermal Power Plant

By Matheus_

(2023-06-21)

Matsukawa Geothermal Power Plant

By Matheus_

(2023-06-21)

The Matsukawa Geothermal Power Plant (松川地熱発電所, Matsukawa Jinetsu Hatsudensho) is Japan's first commercial geothermal power station. It is located in the city of Hachimantai, Iwate Prefecture in the Tōhoku region of northern Japan.

Sumikawa Geothermal Power Plant

By Matheus_

(2023-06-21)

Mori Geothermal Power Station

By Matheus_

(2023-06-21)

Azerbaijan Thermal Power Plant - Largest power station in Azerbaijan

By kkeps

(2017-03-29)

Hrazdan Thermal Power Plant - Largest power plant in Armenia

By kkeps

(2017-03-29)

Svartsengi Power Station

By Mike1989

(2014-11-28)

Geothermal power plant

By giove

(2014-11-21)

http://www.enelgreenpower.com/en-GB/plants/renewable_energy/geothermal/index.aspx

Ngatamariki Power Station

By kkeps

(2014-11-20)

Te Huka Power Station

By jbottero

(2013-01-13)

The Te Huka Geothermal Power Station, also known as Tauhara One, is a 23 MW binary cycle geothermal power station situated near Taupo, New Zealand. The power station is operated by Contact Energy.

Salton Sea Power Station

By jbottero

(2013-01-12)

This cluster of seven geothermal plants is the largest of three major geothermal energy production sites in the Imperial Valley. A network of deep wells drilled in the geothermal field allow water, heated by the earth's mantle, to come to the surface and to power electrical generators. Owned by the CalEnergy Company, the electricity is sold to the local power utility and put on the grid. The seven plants in this field produce enough electricity to power over 100,000 homes.

See also: http://en.wikipedia.org/wiki/Salton_Sea_Power_Station

Nesjavellir Geothermal Power Station

By jbottero

(2013-01-12)

The Nesjavellir Geothermal Power Station is the second largest geothermal power station in Iceland. The facility is located 177 m (581 ft) above sea level in the southwestern part of the country, near Thingvellir and the Hengill Volcano.

Kamojang Geothermal Power Plant

By jbottero

(2013-01-12)

Kamojang, popularly known as Kawah Kamojang or (the Kamojang crater), is a geothermal field and tourist spot in West Java, Indonesia. The crater is located in sub-district (kecamatan) Ibun in the Bandung Regency, approximately 45 km to the southeast of Bandung through the towns of Majalaya and Ibun. The crater can also be reached from the opposite direction through the town of Garut, in Garut Regency (the distance by road from Garut to the northwest through the township of Samarang is around 25 km).

The volcano that the crater is located on is Mount Guntur but the crater itself is listed as an active volcano of Indonesia because of its geothermal activities.

San Jacinto Tizate Geothermal Power Plant

By Mike1989

(2013-01-12)

Olkaria-I Geothermal Power Station

By adrbr

(2013-01-11)

Makiling-Banahaw Geothermal Power Plant

By kkeps

(2013-01-11)

Malitbog Geothermal Power Plant

By kkeps

(2013-01-11)

Malitbog Geothermal Power Station is a 232.5 MW geothermal power plant and is the world's largest geothermal power plant under one roof located in Malitbog, Kanangan, Leyte, Philippines.

Usina Termelétrica do Vale do Açu

By adrbr

(2013-01-10)

Sunchon Power Plant

By Mike1989

(2012-05-03)

Steamboat Springs Geothermal Field

By Tyco

(2010-12-03)

SB Geo Inc. operates four generating plants as a combined facility located near the junction of U.S. Highway 395 and State Route 431. The SB Geo wells produce from fractured material along a north-northeast-striking fault zone. Submersible pump technology application studies at the plant are ongoing, and a high-efficiency turbine retrofit was completed in 2001. The U.S. Department of Energy provided initial funds ($200,000) to Steamboat Envirosystems LLC to evaluate enhanced geothermal systems technology at Steamboat, and $270,000 for geothermal resource exploration and definition through the GeoPowering the West program. In 2001, SB Geo drilled a 610-m temperature slim hole on its Meyberg Property, 1.5 km south of the SB Geo plants. A maximum temperature of 162C between 335 and 427 m was measured; temperatures decrease below this interval.

Puna HI Geothermal plant

By javelinpr

(2010-11-29)

Puna Geothermal Plant.

Krafla Power Station

By kkeps

(2010-11-27)

The Krafla Power Station is a geothermal power station located near the Krafla Volcano in Iceland. Since 1999, it produces 60 MW of energy.

Central térmica Talnique

By adrbr

(2010-11-26)

Travale geothermal power station

By giove

(2010-11-26)

Reykjanes Geothermal Power Station

By kjfitz

(2010-08-05)

The Reykjanes Power Station is a geothermal power station located in Reykjanes at the southwestern tip of Iceland. As of 2009, the plant produces 100MW of electricity, with an expansion plan to increase by 50MW in 2010.

Wayang Windu Geothermal Power Station

By kjfitz

(2010-08-05)

The Wayang Windu Geothermal Power Station is the largest geothermal power station in Indonesia. The facility utilizes two units, one with 110 MW and the other with 117 MW, totalling the installed capacity to 227 MW. The power station is located in Pangalengan, West Java, in Indonesia. An estimated cost of US$200 million was incurred in constructions and development.

Hellisheiði Power Station

By kjfitz

(2010-08-05)

The Hellisheiði Power Station is the second largest geothermal power station in the world, and the largest in Iceland. The facility is located in Hengill, southwest Iceland, 11 km (7 mi) from the Nesjavellir Geothermal Power Station. As of February 2009, the plant produces 213 MW of electricity, with a target capacity of 300 MW of electricity and 400 MW of thermal energy. Once this capacity is reached, it would rank as the largest geothermal power station in the world, in terms of installed capacity.

Cerro Prieto Geothermal Power Station

By kjfitz

(2010-08-05)

The Cerro Prieto Geothermal Power Station is the largest geothermal power station in the world, with an installed capacity of 720 MW, with plans for expansion up to 820 MW by 2012.

World's First Geothermal Power Station

By hhgygy

(2010-05-25)

Kawerau Power Station

By adrbr

(2009-09-02)

Ngawha Power Station

By adrbr

(2009-09-02)

Ohaaki Power Station

By adrbr

(2009-09-02)

Poihipi Power Station

By adrbr

(2009-09-02)

Rotokawa Power Station

By adrbr

(2009-09-02)

Wairakei Power Station

By adrbr

(2009-09-02)

The Wairakei Power Station is a geothermal power station near the Wairakei Geothermal Field in New Zealand. Wairakei lies in the Taupo Volcanic Zone.

Tiwi Geothermal Power Plant

By adrbr

(2009-02-06)

The Tiwi Geothermal Power Plant complex is located in Tiwi, Albay province. It consists of three generating units, namely, Plant A with two 60-MW units, Plant B with two 55-MW units, and Plant C with two 57-MW units. Plant B's Unit 4 was retired or decommissioned in 2003. The complex was first commissioned in 1979. The Power Sector Assets & Liabilities Management Corporation will auction off the complex in June 4, 2008

Geothermal Power Plant

By KRL

(2008-03-03)

The Geysers. One of 21 power plants in Sonoma & Lake Country, California. Surface pipelines, well pads and cooling towers at steam plants clearly visible. Link below for more info.

Geothermal Power Plant

By KRL

(2007-11-29)

Navy 1; Coso Hot Springs, China Lake. Surface pipelines from wells visible. Two other operational plants and one under construction to the south. Link to more info.

Zunil Geothermal Power Plant

By kaiken

(2006-08-31)

Akranes-Borgarfjordur Geothermal Transmission Pipeline over the Leirarvogre

By AlbinoFlea

(2005-11-09)

From http://www.geothermie.de/egec-geothernet/ghc/19-4art3.pdf:

The springs at Deildartunga supply 180 L/s of water at
96oC and the wells at Baer can produce about 20 L/s in artesian
flow. Thus, the combined supply capacity is 200 L/s.
Currently, however, the system is using only 170 L/s at peak

load, which are taken from the Deildartunga hot springs. The
wells at Baer are only used if the supply from Deildartunga is
interrupted for some reason and flows cannot be maintained
by the storage tanks.
The collection system at the springs is very simple. An
arrangement of low walls guides the boiling water into the
collection pipes. These conduct the fluid to a nearby pumping
station that pumps the water up to a storage tank at the

highest point in the pipeline at Kroppsmuli a few km away.
The system also includes two storage tanks to maintain supplies
to Akranes and Borgarnes if breaks in the transmission
pipeline occur. The tank at Borgarnes has a capacity of 2,500
m3 and that at Akranes 2,000 m3. These give the
nmaanicnete c-rews several hours in which to repair breaks. Pumping
stations are at six different places in the system.
The distribution system is a single pipeline system, made
of buried steel pipes, pre-insulated by polyurethane. The total

pipe length of the distribution system is 107 km; thereof,
57 km in Akranes, 23 km in Borgarnes and 27 km in the rural
areas. The water supplied is used directly by the users in their
is disposed of through the local wastewater system.
radiator systems and as domestic hot water. The return water is
disposed of through the local wastewater system.

Borgarnes Geothermal Water Pumping Station

By AlbinoFlea

(2005-11-09)

From http://www.geothermie.de/egec-geothernet/ghc/19-4art3.pdf:

The springs at Deildartunga supply 180 L/s of water at
96oC and the wells at Baer can produce about 20 L/s in artesian
flow. Thus, the combined supply capacity is 200 L/s.
Currently, however, the system is using only 170 L/s at peak

load, which are taken from the Deildartunga hot springs. The
wells at Baer are only used if the supply from Deildartunga is
interrupted for some reason and flows cannot be maintained
by the storage tanks.
The collection system at the springs is very simple. An
arrangement of low walls guides the boiling water into the
collection pipes. These conduct the fluid to a nearby pumping
station that pumps the water up to a storage tank at the

highest point in the pipeline at Kroppsmuli a few km away.
The system also includes two storage tanks to maintain supplies
to Akranes and Borgarnes if breaks in the transmission
pipeline occur. The tank at Borgarnes has a capacity of 2,500
m3 and that at Akranes 2,000 m3. These give the
nmaanicnete c-rews several hours in which to repair breaks. Pumping
stations are at six different places in the system.
The distribution system is a single pipeline system, made
of buried steel pipes, pre-insulated by polyurethane. The total

pipe length of the distribution system is 107 km; thereof,
57 km in Akranes, 23 km in Borgarnes and 27 km in the rural
areas. The water supplied is used directly by the users in their
is disposed of through the local wastewater system.
radiator systems and as domestic hot water. The return water is
disposed of through the local wastewater system.

Akranes-Borgarnes Geothermal Water Pumping Station

By AlbinoFlea

(2005-11-09)

From http://www.geothermie.de/egec-geothernet/ghc/19-4art3.pdf:

The springs at Deildartunga supply 180 L/s of water at
96oC and the wells at Baer can produce about 20 L/s in artesian
flow. Thus, the combined supply capacity is 200 L/s.
Currently, however, the system is using only 170 L/s at peak

load, which are taken from the Deildartunga hot springs. The
wells at Baer are only used if the supply from Deildartunga is
interrupted for some reason and flows cannot be maintained
by the storage tanks.
The collection system at the springs is very simple. An
arrangement of low walls guides the boiling water into the
collection pipes. These conduct the fluid to a nearby pumping
station that pumps the water up to a storage tank at the

highest point in the pipeline at Kroppsmuli a few km away.
The system also includes two storage tanks to maintain supplies
to Akranes and Borgarnes if breaks in the transmission
pipeline occur. The tank at Borgarnes has a capacity of 2,500
m3 and that at Akranes 2,000 m3. These give the
nmaanicnete c-rews several hours in which to repair breaks. Pumping
stations are at six different places in the system.
The distribution system is a single pipeline system, made
of buried steel pipes, pre-insulated by polyurethane. The total

pipe length of the distribution system is 107 km; thereof,
57 km in Akranes, 23 km in Borgarnes and 27 km in the rural
areas. The water supplied is used directly by the users in their
is disposed of through the local wastewater system.
radiator systems and as domestic hot water. The return water

is disposed of through the local wastewater system.

Borgarnes Geothermal Water Storage Tank

By AlbinoFlea

(2005-11-09)

From http://www.geothermie.de/egec-geothernet/ghc/19-4art3.pdf:

The springs at Deildartunga supply 180 L/s of water at
96oC and the wells at Baer can produce about 20 L/s in artesian
flow. Thus, the combined supply capacity is 200 L/s.
Currently, however, the system is using only 170 L/s at peak
load, which are taken from the Deildartunga hot springs. The
wells at Baer are only used if the supply from Deildartunga is
interrupted for some reason and flows cannot be maintained
by the storage tanks.
The collection system at the springs is very simple. An
arrangement of low walls guides the boiling water into the
collection pipes. These conduct the fluid to a nearby pumping
station that pumps the water up to a storage tank at the
highest point in the pipeline at Kroppsmuli a few km away.
The system also includes two storage tanks to maintain supplies
to Akranes and Borgarnes if breaks in the transmission
pipeline occur. The tank at Borgarnes has a capacity of 2,500
m3 and that at Akranes 2,000 m3. These give the
nmaanicnete c-rews several hours in which to repair breaks. Pumping
stations are at six different places in the system.
The distribution system is a single pipeline system, made
of buried steel pipes, pre-insulated by polyurethane. The total
pipe length of the distribution system is 107 km; thereof,
57 km in Akranes, 23 km in Borgarnes and 27 km in the rural
areas. The water supplied is used directly by the users in their
is disposed of through the local wastewater system.
radiator systems and as domestic hot water. The return water is disposed of through the local wastewater system.

Akranes Geothermal Water Pumping Station and Storage Tank

By AlbinoFlea

(2005-11-09)

From http://www.geothermie.de/egec-geothernet/ghc/19-4art3.pdf:

The springs at Deildartunga supply 180 L/s of water at
96oC and the wells at Baer can produce about 20 L/s in artesian
flow. Thus, the combined supply capacity is 200 L/s.
Currently, however, the system is using only 170 L/s at peak
load, which are taken from the Deildartunga hot springs. The
wells at Baer are only used if the supply from Deildartunga is
interrupted for some reason and flows cannot be maintained
by the storage tanks.
The collection system at the springs is very simple. An
arrangement of low walls guides the boiling water into the
collection pipes. These conduct the fluid to a nearby pumping
station that pumps the water up to a storage tank at the
highest point in the pipeline at Kroppsmuli a few km away.
The system also includes two storage tanks to maintain supplies
to Akranes and Borgarnes if breaks in the transmission
pipeline occur. The tank at Borgarnes has a capacity of 2,500
m3 and that at Akranes 2,000 m3. These give the
nmaanicnete c-rews several hours in which to repair breaks. Pumping
stations are at six different places in the system.
The distribution system is a single pipeline system, made
of buried steel pipes, pre-insulated by polyurethane. The total
pipe length of the distribution system is 107 km; thereof,
57 km in Akranes, 23 km in Borgarnes and 27 km in the rural
areas. The water supplied is used directly by the users in their
is disposed of through the local wastewater system.
radiator systems and as domestic hot water. The return water is disposed of through the local wastewater system.

Heber Geothermal Plants

By kjfitz

(2005-07-29)

Several geothermal facilities generate electricity from hot brine that bubbles up from the ground in the Imperial Valley, at the southern end of the Salton Sea. The two plants at Heber generate around 50 megawatts and are operated by the Covanta Energy Company.