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Achtung: Learning from Germany’s energy shambles: Terry Etam

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19 minute read

From the Frontier Center for Public Policy

By Terry Etam

No one interviews mechanics about the challenge of an energy transition. In fact, the voices of the many that maintain the system get accused of disinformation for pointing out mechanical realities like “That isn’t gonna work.”

In 1880, a great author, Mark Twain, whom you may never hear spoken of again because he had the audacity to write in the vernacular of the day, wrote an extremely funny essay called The Awful German Language. “Surely there is not another language that is so slipshod and systemless, and so slippery and elusive to the grasp…There are ten parts of speech, and they are all troublesome…Now let the candidate for the asylum try to memorize those variations, and see how soon he will be elected…In German, a young lady has no sex, while a turnip has…a tree is male, its buds are female, its leaves are neuter; horses are sexless, dogs are male, cats are female-tomcats included, of course; a person’s mouth, neck, bosom, elbows, fingers, nails, feet, and body are of the male sex, and his head is male or neuter according to the word selected to signify it…My philological studies have satisfied me that a gifted person ought to learn English (barring spelling and pronouncing) in thirty hours, French in thirty days, and German in thirty years.”

I have no idea if his synopsis is sound, but I do know it is funny as hell and it comes leaping to mind upon any contemplation at all of Germany’s current energy mess. I can’t think of a better turn of phrase than to describe it as slipshod and systemless and slippery and elusive to the grasp.

The lunacy began more than a decade ago, but it took a few years before serious consequences started to appear. They are here now, in full force. Primary among them was the decision to shut down all nuclear power in the country with no suitable base load replacement other than… coal, the last imaginable energy source one could imagine Germany purposely pursuing after a decade of their energy transition shouting. In what had to have been a staggeringly embarrassing moment, the German government even went as far as destroying a village to expand a coal mine. In 2023, not 1923.

To be fair, Germany’s energy demise was hastened by the Russian war and subsequent loss of Russian gas (and to be even more fair, I recognize that as a Canadian I have absolutely no moral high ground to ridicule anyone else’s government). As The Economist put it: “By weaponising the natural gas on which Germany’s mighty industrial base relies, the Russian president is weakening the world’s fourth-biggest economy and its third-biggest exporter of goods.”

But that was an accelerant, and not the match. For more than a decade, Germany has been not just turning away from fossil fuels faster than possible, it has fed mightily into the global narrative that fossil fuels were last century’s news. The overarching anti-hydrocarbon stance, that to maintain a cent in any fossil fuel investment was to risk good money on soon-to-be ‘stranded assets’, has been allowed to take over the public discourse as a fact, with no opposition from even the likes of those now in a very bad spot for allowing these concepts to take root as modern energy givens.

The German war on hydrocarbons is all the more peculiar because of the way in which the country has wrapped almost its entire industrial strategy around them. A physicist named Shaun Maguire outlined it well on Twitter, and thank heavens for people with weird fascinations. (@shaunmmaguire: “I’ve been obsessed with the chemicals industry since I was a kid.”)

Mr Maguire wrote an illuminating thread on Germany’s economy and its relationship to both energy and chemicals (an epic quote right off the top: “Germany’s decision to shut down their nuclear facilities was one of the stupidest political decisions in history. Most of their economy is based on turning energy into chemicals.”).

A profile of Ludwigshafen points out some startling facts. First, the place is enormous. BASF, the massive chemical company, has a ten square kilometre facility in the city with its own transit system.

Ludwigshafen consumes about as much natural gas as Switzerland. The output from Ludwigshafen, per BASF’s website, supports: Agriculture, Automotive/Transportation, Chemicals, Construction, Electronics/Electric, Energy & Resources, Furniture & Wood, Home Care and Industrial/Institutional Cleaning Solutions, Nutrition, Packaging & Print, Paints & Coatings, Personal Care/Hygiene, Pharmaceuticals, Plastics & Rubber, Pulp & Paper, and, finally, Textiles, Leather & Footware. The website has pull-down menus for each category that outline a dizzying array of pretty much everything you’ve ever laid your hands on that wasn’t breathing, photosynthesizing, or dug out of the ground.

Those huge natural gas pipelines flowing into Germany are the very lifeblood of German industry, as much or more so than anywhere else. In many places, without natural gas people would simply freeze. In Germany, they would freeze in many square miles of abandoned petrochemical factories. Sure, it would be steampunk-cool way to go, but other than that there would be nothing aesthetic about it.

Last year, I stood slack-jawed in wonder at news that Germany had constructed an LNG import terminal in 5 months flat (an LNG-Importeinrichtung – feminine). How on earth… it takes a year to get a permit for anything in the western world. How could they build her so fast?

Now I know. They had to. The bedrock of Germany’s mighty industrial base depended on it.

There are no grounds for entertaining the thought that Germany is incapable of designing, building, and operating an optimal energy system. It is crazy to think otherwise; Germany is collectively a formidable engineering talent.

Yet it is equally crazy to shut down a bunch of nuclear reactors with no suitable backup base load power (and remember, the nuclear plants were put on the boat to Valhalla before Russian antics).

Some of Germany’s current energy plans are equally as crazy, such as being short of power and simultaneously activating a mass conversion to electrical heat pumps. Whatever you do in an electrical grid, the one thing you don’t want to do is increase demand peaks. An overarching goal should be to reduce them, because the highest possible load, the point of maximum demand, sets the capacity need for the entire system. If on the coldest, highest demand day of the year, a system needs 1,000 units, it needs to be built and maintained to provide 1,000 units, even if the average demand is only half that.

Germany’s heat pump rollout plan is a scheme that will do exactly the wrong thing. It will significantly increase demand at the exact worst time. It is like taking the example above and resetting the peak to 1,200 units, even if the average remains at 500. The entire system now needs to be able to provide 1,200 on demand.

What happens if it doesn’t? Well, what do you think happens if there is a power failure during the coldest snap of the year, when wind and solar output are low, or if reliance on wind/solar is too great and they can’t perform? It will be catastrophic.

So you might be driven to madness trying to unravel this knot, because on the face of it Germans can’t both be engineering-competent and simultaneously run their energy system into the ground.

The answer to this impossible scenario, how such a contradiction can exist in reality, is due to two things: the politicization of the energy system, and the failure of that energy system to explain and defend itself.

Politics, as we know, is where logic goes to die. Popularity means power; and you can gain popularity in general by keeping citizens happy (hard to do, always something to complain about), or by terrifying them. It should not be a surprise that out of that swamp (one rude Trump-derived nomenclature that I can’t disagree with) comes a plethora of committees and committee decisions made by people for whom reality will always be steamrolled by the quest for popularity (there are exceptions that prove this rule, showing up about three times per century somewhere on the globe).

Thus we get governments fighting to eliminate hydrocarbons for political reasons; because they want to be seen as ‘being on the right side’, and because one side has been so much better at it (more on that in a second), being ‘an environmentalist’ is now colloquially equivalent with being anti-hydrocarbon.

Stuck in the middle of the fear mongering are the plumbers, the farmers, the mechanics, the drivers, the people that actually keep the wheels turning, the ones with their feet grounded in reality and not in armchair-industrialism. Included in that camp are the ones that check the valves and drill the wells that keep the world’s fuel flowing. Others can argue about what it will look like in 40 years, but for the hands-on people, the story is all about today.

But those voices get lost in the noise storm. No one interviews mechanics about the challenge of an energy transition. In fact, the voices of the many that maintain the system get accused of disinformation for pointing out mechanical realities like “That isn’t gonna work.” Capable, knowledgeable people that point out the rising risks of an unreliable electrical grid are shouted down as ‘fossil fuel shills’ or agents of misinformation.

Sadly then, we are forced to live with these pile-driving spasms of bad decisions as part of a political process, democracy, that most would never abandon. And hey, it’s not easy for participants either – Imagine the chaos between the ears of German Chancellor Olaf Scholz, coming to Canada seeking more LNG, then sitting at a press conference listening to Justin Trudeau say there is no business case to be made for LNG to Germany, and being unable to speak against such gibberish because Climate, knowing full well he would go to another country to get an assured supply (and he did, Qatar).

One can’t help but summon sympathy for Mr. Twain’s German-themed bewilderment when hearing what has happened thus far in 2024. Germany recently approved $44 billion in new expenditures to build brand new gas-fired power plants (pacifying their supporters by declaring that the plants must be able to burn hydrogen and are ‘expected to’ do so by 2040 – not hard to spot the weasel words, is it). Note that new natural gas power plants can not be blamed on Russia, because this is just more consumption and not a replacement for supply. To rub salt in the Energiewende-wound, Bloomberg via Yahoo chimes in with the headline, “Germany’s Budget Chaos Leaves Green-Energy Projects in Limbo.” Seems that they found $44 billion for natural gas easily enough though. What was that transition stuff about, again?

Such mystifying behviour is at least partially explained by the second reason that energy system contradictions can exist – the dumbfounding size of the energy education deficit, and for that the hydrocarbon industry can at least partly look in the mirror, because the energy system has not done enough to explain and defend itself.

Consider Alex Epstein for example, a one-man energy-education army that has amassed a huge following. He’s written great books, and even appeared before congress, largely because he has taken the time and effort to point out the colossal benefits that hydrocarbons have brought humanity. Humanity as we know it wouldn’t exist without the hydrocarbon system, nor would most (or all) of the technological innovations we enjoy. Mr. Epstein spells this out, of his own accord, to far greater effect than the entire industry has in the past 30 years.

Many of those energy points are not hard to make, such as this foundational one that even Big Oil CEOs seem unable to articulate: “If one wishes to ascribe certain negative characteristics to hydrocarbon usage, it is only rational to consider the benefits that are derived from same.” And yet the opponents of hydrocarbons have done such a resoundingly thorough and effective job of amplifying any negativity that that simple statement is heard almost nowhere, except by Alex and a handful of others. Those earning massive pay stubs should be leading the charge, and they just aren’t. Not effectively anyway.

A general recognition of the boundless value of current fuels is coming; the question is, now much pain until that becomes commonly understood. The reality is that hydrocarbon usage continues to grow and set record consumption levels, including coal, and will for a long time. The evidence is pretty stark and clear, even for the likes of the IEA that predicts an imminent demise in hydrocarbon demand over and over and over, then keeps re-upping demand estimates as they happen.

A great number of innovative ideas are making their way to market that will start making inroads on how we deal with energy and industry. But until proven at scale, the existing system needs to be protected from frightened mobs, and someone needs to explain reality to them.

We all know what’s going to happen; an energy transition will happen over the next century at a realistic pace as new technology/nuclear/whatever becomes dominant. The challenge is: How much damage will be done before our elected representatives start choosing optimization, as opposed to whatever it is they’re doing now?

Terry Etam is a columnist with the BOE Report, a leading energy industry newsletter based in Calgary.  He is the author of The End of Fossil Fuel Insanity.  You can watch his Policy on the Frontier session from May 5, 2022 here.

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Alberta

The permanent CO2 storage site at the end of the Alberta Carbon Trunk Line is just getting started

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Wells at the Clive carbon capture, utilization and storage project near Red Deer, Alta. Photo courtesy Enhance Energy

From the Canadian Energy Centre

By Deborah Jaremko

Inside Clive, a model for reducing emissions while adding value in Alberta

It’s a bright spring day on a stretch of rolling farmland just northeast of Red Deer. It’s quiet, but for the wind rushing through the grass and the soft crunch of gravel underfoot.

The unassuming wellheads spaced widely across the landscape give little hint of the significance of what is happening underground.

In just five years, this site has locked away more than 6.5 million tonnes of CO₂ — equivalent to the annual emissions of about 1.5 million cars — stored nearly four CN Towers deep beneath the surface.

The CO₂ injection has not only reduced emissions but also breathed life into an oilfield that was heading for abandonment, generating jobs, economic activity and government revenue that would have otherwise been lost.

This is Clive, the endpoint of one of Canada’s largest carbon capture, utilization and storage (CCUS) projects. And it’s just getting started.

 

Rooted in Alberta’s first oil boom

Clive’s history ties to Alberta’s first oil boom, with the field discovered in 1952 along the same geological trend as the legendary 1947 Leduc No. 1 gusher near Edmonton.

“The Clive field was discovered in the 1950s as really a follow-up to Leduc No. 1. This is, call it, Leduc No. 4,” said Chris Kupchenko, president of Enhance Energy, which now operates the Clive field.

Over the last 70 years Clive has produced about 70 million barrels of the site’s 130 million barrels of original oil in place, leaving enough energy behind to fuel six million gasoline-powered vehicles for one year.

“By the late 1990s and early 2000s, production had gone almost to zero,” said Candice Paton, Enhance’s vice-president of corporate affairs.

“There was resource left in the reservoir, but it would have been uneconomic to recover it.”

Facilities at the Clive project. Photo courtesy Enhance Energy

Gearing up for CO2

Calgary-based Enhance bought Clive in 2013 and kept it running despite high operating costs because of a major CO2 opportunity the company was developing on the horizon.

In 2008, Enhance and North West Redwater Partnership had launched development of the Alberta Carbon Trunk Line (ACTL), one of the world’s largest CO2 transportation systems.

Wolf Midstream joined the project in 2018 as the pipeline’s owner and operator.

Completed in 2020, the groundbreaking $1.2 billion project — supported by the governments of Canada and Alberta — connects carbon captured at industrial sites near Edmonton to the Clive facility.

“With CO2 we’re able to revitalize some of these fields, continue to produce some of the resource that was left behind and permanently store CO2 emissions,” Paton said.

Map of the Alberta Carbon Trunk Line courtesy of Wolf Midstream

An oversized pipeline on purpose

Each year, about 1.6 million tonnes of CO2 captured at the NWR Sturgeon Refinery and Nutrien Redwater fertilizer facility near Fort Saskatchewan travels down the trunk line to Clive.

In a unique twist, that is only about 10 per cent of the pipeline’s available space. The project partners intentionally built it with room to grow.

“We have a lot of excess capacity. The vision behind the pipe was, let’s remove barriers for the future,” Kupchenko said.

The Alberta government-supported goal was to expand CCS in the province, said James Fann, CEO of the Regina-based International CCS Knowledge Centre.

“They did it on purpose. The size of the infrastructure project creates the opportunity for other emitters to build capture projects along the way,” he said.

CO2 captured at the Sturgeon Refinery near Edmonton is transported by the Alberta Carbon Trunk Line to the Clive project. Photo courtesy North West Redwater Partnership

Extending the value of aging assets

Building more CCUS projects like Clive that incorporate enhanced oil recovery (EOR) is a model for extending the economic value of aging oil and gas fields in Alberta, Kupchenko said.

“EOR can be thought of as redeveloping real estate,” he said.

“Take an inner-city lot with a 700-square-foot house on it. The bad thing is there’s a 100-year-old house that has to be torn down. But the great thing is there’s a road to it. There’s power to it, there’s a sewer connection, there’s water, there’s all the things.

“That’s what this is. We’re redeveloping a field that was discovered 70 years ago and has at least 30 more years of life.”

The 180 existing wellbores are also all assets, Kupchenko said.

“They may not all be producing oil or injecting CO2, but every one of them is used. They are our eyes into the reservoir.”

CO2 injection well at the Clive carbon capture, utilization and storage project. Photo for the Canadian Energy Centre

Alberta’s ‘beautiful’ CCUS geology

The existing wells are an important part of measurement, monitoring and verification (MMV) at Clive.

The Alberta Energy Regulator requires CCUS projects to implement a comprehensive MMV program to assess storage performance and demonstrate the long-term safety and security of CO₂.

Katherine Romanak, a subsurface CCUS specialist at the University of Texas at Austin, said that her nearly 20 years of global research indicate the process is safe.

“There’s never been a leak of CO2 from a storage site,” she said.

Alberta’s geology is particularly suitable for CCUS, with permanent storage potential estimated at more than 100 billion tonnes.

“The geology is beautiful,” Romanak said.

“It’s the thickest reservoir rocks you’ve ever seen. It’s really good injectivity, porosity and permeability, and the confining layers are crazy thick.”

Suitability of global regions for CO2 storage. Courtesy Global CCS Institute

CO2-EOR gaining prominence 

The extra capacity on the ACTL pipeline offers a key opportunity to capitalize on storage potential while addressing aging oil and gas fields, according to the Alberta government’s Mature Asset Strategy, released earlier this year.

The report says expanding CCUS to EOR could attract investment, cut emissions and encourage producers to reinvest in existing properties — instead of abandoning them.

However, this opportunity is limited by federal policy.

Ottawa’s CCUS Investment Tax Credit, which became available in June 2024, does not apply to EOR projects.

“Often people will equate EOR with a project that doesn’t store CO2 permanently,” Kupchenko said.

“We like to always make sure that people understand that every ton of CO2 that enters this project is permanently sequestered. And we take great effort into storing that CO2.”

The International Energy Forum — representing energy ministers from nearly 70 countries including Canada, the U.S., China, India, Norway, and Saudi Arabia — says CO₂-based EOR is gaining prominence as a carbon sequestration tool.

The technology can “transform a traditional oil recovery method into a key pillar of energy security and climate strategy,” according to a June 2025 IEF report.

Drone view of the Clive project. Photo courtesy Enhance Energy

Tapping into more opportunity

In Central Alberta, Enhance Energy is advancing a new permanent CO2 storage project called Origins that is designed to revitalize additional aging oil and gas fields while reducing emissions, using the ACTL pipeline.

“Origins is a hub that’s going to enable larger scale EOR development,” Kupchenko said.

“There’s at least 10 times more oil in place in this area.”

Meanwhile, Wolf Midstream is extending the pipeline further into the Edmonton region to transport more CO2 captured from additional industrial facilities.

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Alberta

Canadian Oil Sands Production Expected to Reach All-time Highs this Year Despite Lower Oil Prices

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From Energy Now

S&P Global Commodity Insights has raised its 10-year production outlook for the Canadian oil sands. The latest forecast expects oil sands production to reach a record annual average production of 3.5 million b/d in 2025 (5% higher than 2024) and exceed 3.9 million b/d by 2030—half a million barrels per day higher than 2024. The 2030 projection is 100,000 barrels per day (or nearly 3%) higher than the previous outlook.

The new forecast, produced by the S&P Global Commodity Insights Oil Sands Dialogue, is the fourth consecutive upward revision to the annual outlook. Despite a lower oil price environment, the analysis attributes the increased projection to favorable economics, as producers continue to focus on maximizing existing assets through investments in optimization and efficiency.


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While large up-front, out-of-pocket expenditures over multiple years are required to bring online new oil sands projects, once completed, projects enjoy relatively low breakeven prices.

S&P Global Commodity Insights estimates that the 2025 half-cycle break-even for oil sands production ranged from US$18/b to US$45/b, on a WTI basis, with the overall average break-even being approximately US$27/b.*

“The increased trajectory for Canadian oil sands production growth amidst a period of oil price volatility reflects producers’ continued emphasis on optimization—and the favorable economics that underpin such operations,” said Kevin Birn, Chief Canadian Oil Analyst, S&P Global Commodity Insights. “More than 3.8 million barrels per day of existing installed capacity was brought online from 2001 and 2017. This large resource base provides ample room for producers to find debottlenecking opportunities, decrease downtime and increase throughput.”

The potential for additional upside exists given the nature of optimization projects, which often result from learning by doing or emerge organically, the analysis says.

“Many companies are likely to proceed with optimizations even in more challenging price environments because they often contribute to efficiency gains,” said Celina Hwang, Director, Crude Oil Markets, S&P Global Commodity Insights. “This dynamic adds to the resiliency of oil sands production and its ability to grow through periods of price volatility.”

The outlook continues to expect oil sands production to enter a plateau later this decade. However, this is also expected to occur at a higher level of production than previously estimated. The new forecast expects oil sands production to be 3.7 million b/d in 2035—100,000 b/d higher than the previous outlook.

Export capacity—already a concern in recent years—is a source of downside risk now that even more production growth is expected. Without further incremental pipeline capacity, export constraints have the potential to re-emerge as early as next year, the analysis says.

“While a lower price path in 2025 and the potential for pipeline export constraints are downside risks to this outlook, the oil sands have proven able to withstand extreme price volatility in the past,” said Hwang. “The low break-even costs for existing projects and producers’ ability to manage challenging situations in the past support the resilience of this outlook.”

* Half-cycle breakeven cost includes operating cost, the cost to purchase diluent (if needed), as well as an adjustment to enable a comparison to WTI—specifically, the cost of transport to Cushing, OK and quality differential between heavy and light oil.

About S&P Global Commodity Insights

At S&P Global Commodity Insights, our complete view of global energy and commodity markets enables our customers to make decisions with conviction and create long-term, sustainable value.

We’re a trusted connector that brings together thought leaders, market participants, governments, and regulators and we create solutions that lead to progress. Vital to navigating commodity markets, our coverage includes oil and gas, power, chemicals, metals, agriculture, shipping and energy transition. Platts® products and services, including leading benchmark price assessments in the physical commodity markets, are offered through S&P Global Commodity Insights. S&P Global Commodity Insights maintains clear structural and operational separation between its price assessment activities and the other activities carried out by S&P Global Commodity Insights and the other business divisions of S&P Global.

S&P Global Commodity Insights is a division of S&P Global (NYSE: SPGI). S&P Global is the world’s foremost provider of credit ratings, benchmarks, analytics and workflow solutions in the global capital, commodity and automotive markets. With every one of our offerings, we help many of the world’s leading organizations navigate the economic landscape so they can plan for tomorrow, today. For more information visit https://www.spglobal.com/commodity-insights/en.

SOURCE S&P Global Commodity Insights

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