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Glomfjord Hydroelectric Power Station in Norway

An overview of the Glomfjord Hydroelectric Power Station in Norway

The Glomfjord Hydroelectric Power Station is a historic and iconic landmark in Norway. Located in the village of Glomfjord in the municipality of Meløy in Nordland county, it was built in 1920 and played a crucial role in powering Norway’s early industrialization. 

The power station harnesses the energy of the Glomfjordelva river, which flows from the Nedre Navervatn lake located about 465 meters above sea level.

History and Design:

The power station was designed by the renowned architect Olaf Nordhagen and is considered a prime example of industrial architecture. The monumental building, constructed with red brick and granite, features a distinctive Art Deco style with large arched windows and a towering smokestack. Originally, the power station housed six generating units with vertical Pelton turbines, each capable of producing 20 MW of power at 25 Hz. However, due to reduced water flow over time, only one of these units remains operational today.

Operation and Significance:

Despite its reduced capacity, the Glomfjord power station continues to play a vital role in Norway’s energy grid, contributing around 91.5 GWh of clean hydroelectric power annually. It is owned and operated by Statkraft, a leading Norwegian energy company. The station’s historical significance and architectural beauty have made it a popular tourist destination, attracting visitors from around the world.

Additional points of interest:

  • The Glomfjord power station was the target of a daring commando raid by British forces during World War II, known as Operation Musketoon.
  • The surrounding area is famous for its stunning natural beauty, featuring fjords, mountains, and glaciers.
  • The power station is easily accessible by car or ferry and is within walking distance of the village of Glomfjord.
Glomfjord Hydroelectric Power Station in Norway

Glomfjord Hydroelectric Power Station: A Profile

Location: Glomfjord village, Meløy municipality, Nordland county, Norway

Coordinates: 67°44′32″N 14°00′32″E

Type: Run-of-the-river hydroelectric power station

Construction: 1917-1920

Owner and Operator: Statkraft AS

Historical Capacity: 120 MW (6 x 20 MW Pelton turbines)

Current Capacity: 19 MW (1 x 19 MW Kaplan turbine)

Annual Production: 91.5 GWh

Significance:

  • Played a crucial role in Norway’s early industrialization
  • One of the first major hydroelectric power stations in Europe
  • Architectural landmark with distinctive Art Deco style
  • Target of Operation Musketoon, a British commando raid in WWII
  • Popular tourist destination

Technical Specifications:

  • Dam: Gravity dam, 61 m high, 174 m long
  • Reservoir: Nedre Navervatn lake, 465 m elevation
  • Headwaters: Svartisen glacier
  • Tailrace: Glomfjordelva river, flowing into the Glomfjord

Interesting Facts:

  • Originally operated at 25 Hz, later converted to 50 Hz
  • Only one of the original Pelton turbines remains operational
  • The station features a museum showcasing its history and technology
  • The surrounding area offers stunning natural beauty with fjords, mountains, and glaciers
Glomfjord Hydroelectric Power Station in Norway

Glomfjord Hydroelectric Power Station Data Table

Feature Description
Location Glomfjord village, Meløy municipality, Nordland county, Norway
Coordinates 67°44′32″N 14°00′32″E
Type Run-of-the-river hydroelectric power station
Construction 1917-1920
Owner and Operator Statkraft AS
Historical Capacity 120 MW (6 x 20 MW Pelton turbines)
Current Capacity 19 MW (1 x 19 MW Kaplan turbine)
Annual Production 91.5 GWh
Significance
* Played a crucial role in Norway’s early industrialization
* One of the first major hydroelectric power stations in Europe
* Architectural landmark with distinctive Art Deco style
* Target of Operation Musketoon, a British commando raid in WWII
* Popular tourist destination
Technical Specifications
* Dam: Gravity dam, 61 m high, 174 m long
* Reservoir: Nedre Navervatn lake, 465 m elevation
* Headwaters: Svartisen glacier
* Tailrace: Glomfjordelva river, flowing into the Glomfjord
Interesting Facts
* Originally operated at 25 Hz, later converted to 50 Hz
* Only one of the original Pelton turbines remains operational
* The station features a museum showcasing its history and technology
* The surrounding area offers stunning natural beauty with fjords, mountains, and glaciers

Glomfjord Hydroelectric Power Station in Norway

Statistics of Glomfjord Hydroelectric Power Station

Glomfjord Hydroelectric Power Station: A Statistical Portrait

Location: Glomfjord village, Meløy municipality, Nordland county, Norway

Type: Run-of-the-river hydroelectric power station

Construction: 1917-1920

Owner and Operator: Statkraft AS

Key Statistics:

  • Historical Capacity: 120 MW (6 x 20 MW Pelton turbines)
  • Current Capacity: 19 MW (1 x 19 MW Kaplan turbine)
  • Annual Production: 91.5 GWh
  • Dam: Gravity dam, 61 m high, 174 m long
  • Reservoir: Nedre Navervatn lake, 465 m elevation
  • Headwaters: Svartisen glacier
  • Tailrace: Glomfjordelva river, flowing into the Glomfjord

Historical Significance:

  • Played a crucial role in Norway’s early industrialization, providing clean power for industries like aluminum smelting and mining.
  • One of the first major hydroelectric power stations in Europe, pioneering the technology for large-scale renewable energy generation.
  • Architectural landmark with a distinctive Art Deco style, attracting tourists and photographers.
  • Target of Operation Musketoon, a daring British commando raid during World War II aimed at disrupting German production of heavy water used in their nuclear program.

Modern Role:

  • While its capacity has decreased, Glomfjord remains a valuable contributor to Norway’s energy grid, providing clean and reliable hydropower.
  • Serves as a historical and cultural icon, representing Norway’s commitment to renewable energy and industrial innovation.
  • The station houses a museum that showcases its history, technology, and impact on the local community.

Additional Statistical Tidbits:

  • Originally operated at 25 Hz, later converted to the standard 50 Hz frequency.
  • Only one of the original Pelton turbines remains operational, now replaced by a more efficient Kaplan turbine.
  • The station generates enough electricity to power approximately 18,000 Norwegian homes annually.
Glomfjord Hydroelectric Power Station in Norway

Glomfjord Hydroelectric Power Station: Statistical Table

Feature Description
Location Glomfjord village, Meløy municipality, Nordland county, Norway
Type Run-of-the-river hydroelectric power station
Construction 1917-1920
Owner and Operator Statkraft AS
Historical Capacity 120 MW (6 x 20 MW Pelton turbines)
Current Capacity 19 MW (1 x 19 MW Kaplan turbine)
Annual Production 91.5 GWh
Dam Gravity dam, 61 m high, 174 m long
Reservoir Nedre Navervatn lake, 465 m elevation
Headwaters Svartisen glacier
Tailrace Glomfjordelva river, flowing into the Glomfjord

Interesting Facts:

  • Originally operated at 25 Hz, later converted to 50 Hz 
  • Only one of the original Pelton turbines remains operational 
  • The station features a museum showcasing its history and technology 
  • The surrounding area offers stunning natural beauty with fjords, mountains, and glaciers 

Tourism and Recreation:

  • Popular tourist destination, attracting visitors with its power station, natural beauty, and historical significance |
  • Hiking, fishing, and kayaking are popular activities in the area |

Environmental Impact:

  • Considered a clean and sustainable energy source, with minimal greenhouse gas emissions compared to fossil fuels.
  • The dam and reservoir have altered the flow and ecology of the Glomfjordelva river, requiring careful management to balance energy production with environmental protection.

Looking ahead:

  • The future of Glomfjord Hydroelectric Power Station is uncertain, as modern technology and changing energy needs may impact its long-term viability.
  • However, its historical significance, architectural beauty, and contribution to Norway’s renewable energy goals ensure its lasting place in the country’s energy landscape.

https://www.exaputra.com/2024/01/glomfjord-hydroelectric-power-station.html

Renewable Energy

The Scare of Communism

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As shown at left, “communism” and “socialism” have been used to scare American idiots for almost a century.

The Scare of Communism

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Germany Guarantees Offshore Prices, England Wind Surge

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Weather Guard Lightning Tech

Germany Guarantees Offshore Prices, England Wind Surge

Allen covers Germany’s new offshore wind price guarantee, England’s onshore wind revival, wind for Korean chip plants, and Aeris debt trouble.

The Uptime Wind Energy Podcast is brought to you by Weather Guard Lightning Tech, creators of the StrikeTape Ultra LPS retrofit. Subscribe to Uptime’s Substack newsletter. And check out Rosemary’s “Engineering with Rosie” Youtube channel. Have a question we can answer on the show? Email us!

Good Monday everyone.

Last summer … Germany held an auction for new offshore wind capacity. Not a single company bid. Zero. This week Berlin put forward a new law to fix that. The old system asked developers to pay for the right to build in the North Sea and the Baltic. TotalEnergies and BP bid billions of euros … then walked away. So the new plan introduces contracts for difference. Build the farm … and the government backstops the price of electricity. The offshore wind association wants abandoned projects … up to sixteen gigawatts … put back on the auction block under the new rules. That is fifty billion euros worth of wind farms waiting for a second chance. The cabinet vote could come as early as next week.

Stay in Europe but head west. England just posted its highest number of onshore wind applications in a decade. About forty-five proposals. Before Labour lifted the Conservatives’ ban two years ago … applications averaged one megawatt a month. Now they are running at thirty-six megawatts a month. But here is the catch. The average English wind farm has just two turbines. Eight megawatts. In Scotland … the average is nine turbines and fifty-nine megawatts. England is back in the game. It is just playing small.

Now cross the Pacific. South Korea selected Pacifico Energy Korea to develop the Jindo offshore wind cluster. Two-point-one-three gigawatts. That is the second and third phases of a broader three-point-two-gigawatt project off the southern coast. And here is the connection worth noting. The region is also building the Honam Semiconductor Cluster … a major chip fabrication site. Semiconductor fabs need enormous and reliable power. This wind cluster is being positioned as the energy source to feed it. Wind as baseload for chip manufacturing. That is a new kind of offtaker.

Now head to Brazil. Aeris Energy makes wind turbine blades. This week the company told its creditors it needs to restructure again. Roughly three hundred and thirty million dollars in debt. Aeris already restructured last year. But revenue fell forty-eight percent in the first half of this year. The company lost roughly fifty-three million dollars. It tried to find a buyer. No one came forward. Remember TPI Composites filing Chapter Eleven in Houston last year? The independent blade business keeps getting harder.

Back to North America. In Nova Scotia … Port Hawkesbury Paper is spending four hundred and fifty million dollars on thirty-one Nordex turbines. They will be the biggest onshore turbines in North America. Each one … six-point-nine megawatts. And they carry electrothermal technology that prevents ice from forming on the blades. They operate down to minus thirty Celsius. Last January … Nova Scotia’s existing turbines dropped from three hundred and fifty megawatts to seventy-five in a single evening when the cold hit. For anyone building in northern climates … cold-weather performance is no longer optional.

And in Minnesota … Xcel Energy broke ground on two projects this week. A hundred-and-eighty-five-mile transmission line that can carry four thousand megawatts of new wind and solar to the grid. And alongside it … a four-hundred-and-twenty-megawatt natural gas peaking plant in Lyon County for the days when the wind stops.

So what does this week tell us? Germany’s auction reform is the story to watch. If Berlin gets contracts for difference right … sixteen gigawatts of stalled projects could come back to life. England proves that removing a political ban releases demand … but the scale gap with Scotland shows that planning culture matters as much as planning law. The blade supply chain is still under stress. If you are in procurement … know your supplier’s balance sheet. South Korea is tying offshore wind directly to semiconductor manufacturing. That kind of industrial offtaker changes the project finance equation. And from Minnesota to Nova Scotia … the message is the same. Transmission … peaking power … cold-weather reliability. The turbine is the easy part. The system around it is where the money and the risk still live.

And that is the state of the wind industry for the 24th of August 2026.

Join us for the Uptime Wind Energy podcast tomorrow.

Germany Guarantees Offshore Prices, England Wind Surge

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Why the U.S. Can’t Build Highspeed Rail

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The lead story on the long-running CBS show “60 Minutes” tonight proposed to answer how is possible that the rest of the developed world, as well as communist dictatorships like China, offer their citizens and visitors the opportunity to travel around the land speeds of hundreds of miles per hour, where such projects in the U.S. have never gotten close even the feeblest level of success.

They imply that the answer lies mainly in government mismanagement, outrageous over-promises for political purposes, and various forms of malfeasance.

In the process of creating 2GreenEnergy, I coincidentally tripped across a story that explains this far more convincingly.

I happened to interview a very bright and dedicated young man in the Texas state legislature about 20 years ago, who told me that he and his team had done a great deal of research and legal work surrounding connecting Dallas, Austin, Houston, and San Antonio with highspeed rail, and had offered their plans to the public for comment.

One of the first comments came in the form of a phone call he received from Herb Kelleher, then-CEO of Southwest Airlines, which operated out of airports in those four cities. He said, “Normally, tickets between any of these cities are priced at $80 each.  If you drive your first spike, I’ll reduce that price to $8.  Perhaps with free parking.  Let’s see how that works out for you.”

What I inferred from the interview I conducted with the young, perhaps naive Texan who was bold enough to propose low-carbon mass transportation to the Lone Star state, was this: money and power talk here, and nothing else matters.

Yet that’s not true elsewhere around the globe.

Had Kelleher publicly taken this position in China and pushed after it, he would have likely been executed by firing squad. While no one wants to see the threat of violence as public policy, we all must admit that the Chinese are quite effective in carrying out their plans, regardless of what those plans might be.

In Europe and the rest of the OECD nations, the situation is, fortunately, far more nuanced and less savage.  People are highly educated, and they understand the need for decarbonizing their electric grid and transportation sectors.  Having some billionaire jackass strong-arm their culture would not have enjoyed any success there either.

Many things in these parts of the world of the world get done simply because they are right, as mystifying as that seems to us in the U.S.

Why the U.S. Can’t Build Highspeed Rail

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