Wind will never make a significant contribution to energy supplies

9 04 2018

Portrait photographer newcastleMatt Ridley. May 15, 2017. Wind turbines are neither clean nor green and they provide zero global energy. Even after 30 years of huge subsidies, it provides about zero energy. The Spectator.

The Global Wind Energy Council recently released its latest report, excitedly boasting that ‘the proliferation of wind energy into the global power market continues at a furious pace, after it was revealed that more than 54 gigawatts of clean renewable wind power was installed across the global market last year’.

You may have got the impression from announcements like that, and from the obligatory pictures of wind turbines in any BBC story or airport advert about energy, that wind power is making a big contribution to world energy today. You would be wrong. Its contribution is still, after decades — nay centuries — of development, trivial to the point of irrelevance.

Even put together, wind and photovoltaic solar are supplying less than 1 per cent of global energy demand. From the International Energy Agency’s 2016 Key Renewables Trends, we can see that wind provided 0.46 per cent of global energy consumption in 2014, and solar and tide combined provided 0.35 per cent. Remember this is total energy, not just electricity, which is less than a fifth of all final energy, the rest being the solid, gaseous, and liquid fuels that do the heavy lifting for heat, transport and industry.

[One critic suggested I should have used the BP numbers instead, which show wind achieving 1.2% in 2014 rather than 0.46%. I chose not to do so mainly because that number is arrived at by falsely exaggerating the actual output of wind farms threefold in order to take into account that wind farms do not waste two-thirds of their energy as heat; also the source is an oil company, which would have given green blobbers a excuse to dismiss it, whereas the IEA is unimpleachable But it’s still a very small number, so it makes little difference.]

Such numbers are not hard to find, but they don’t figure prominently in reports on energy derived from the unreliables lobby (solar and wind). Their trick is to hide behind the statement that close to 14 per cent of the world’s energy is renewable, with the implication that this is wind and solar. In fact the vast majority — three quarters — is biomass (mainly wood), and a very large part of that is ‘traditional biomass’; sticks and logs and dung burned by the poor in their homes to cook with. Those people need that energy, but they pay a big price in health problems caused by smoke inhalation.

Even in rich countries playing with subsidised wind and solar, a huge slug of their renewable energy comes from wood and hydro, the reliable renewables. Meanwhile, world energy demand has been growing at about 2 per cent a year for nearly 40 years. Between 2013 and 2014, again using International Energy Agency data, it grew by just under 2,000 terawatt-hours.

If wind turbines were to supply all of that growth but no more, how many would need to windmountainbe built each year? The answer is nearly 350,000, since a two-megawatt turbine can produce about 0.005 terawatt-hours per annum. That’s one-and-a-half times as many as have been built in the world since governments started pouring consumer funds into this so-called industry in the early 2000s.

At a density of, very roughly, 50 acres per megawatt, typical for wind farms, that many turbines would require a land area [half the size of] the British Isles, including Ireland. Every year. If we kept this up for 50 years, we would have covered every square mile of a land area [half] the size of Russia with wind farms. Remember, this would be just to fulfil the new demand for energy, not to displace the vast existing supply of energy from fossil fuels, which currently supply 80 per cent of global energy needs. [para corrected from original.]

Do not take refuge in the idea that wind turbines could become more efficient. There is a limit to how much energy you can extract from a moving fluid, the Betz limit, and wind turbines are already close to it. Their effectiveness (the load factor, to use the engineering term) is determined by the wind that is available, and that varies at its own sweet will from second to second, day to day, year to year.

As machines, wind turbines are pretty good already; the problem is the wind resource itself, and we cannot change that. It’s a fluctuating stream of low–density energy. Mankind stopped using it for mission-critical transport and mechanical power long ago, for sound reasons. It’s just not very good.

As for resource consumption and environmental impacts, the direct effects of wind turbines — killing birds and bats, sinking concrete foundations deep into wild lands — is bad enough. But out of sight and out of mind is the dirty pollution generated in Inner Mongolia by the mining of rare-earth metals for the magnets in the turbines. This generates toxic and radioactive waste on an epic scale, which is why the phrase ‘clean energy’ is such a sick joke and ministers should be ashamed every time it passes their lips.

It gets worse. Wind turbines, apart from the fibreglass blades, are made mostly of steel, with concrete bases. They need about 200 times as much material per unit of capacity as a modern combined cycle gas turbine. Steel is made with coal, not just to provide the heat for smelting ore, but to supply the carbon in the alloy. Cement is also often made using coal. The machinery of ‘clean’ renewables is the output of the fossil fuel economy, and largely the coal economy.

A two-megawatt wind turbine weighs about 250 tonnes, including the tower, nacelle, rotor and blades. Globally, it takes about half a tonne of coal to make a tonne of steel. Add another 25 tonnes of coal for making the cement and you’re talking 150 tonnes of coal per turbine. Now if we are to build 350,000 wind turbines a year (or a smaller number of bigger ones), just to keep up with increasing energy demand, that will require 50 million tonnes of coal a year. That’s about half the EU’s hard coal–mining output.

The point of running through these numbers is to demonstrate that it is utterly futile, on a priori grounds, even to think that wind power can make any significant contribution to world energy supply, let alone to emissions reductions, without ruining the planet. As the late David MacKay pointed out years back, the arithmetic is against such unreliable renewables.

MacKay, former chief scientific adviser to the Department of Energy and Climate Change, said in the final interview before his tragic death last year that the idea that renewable energy could power the UK is an “appalling delusion” — for this reason, that there is not enough land.

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More pouring…..

15 06 2017

The owner builder gods have been smiling upon me…… since expressing concern about maybe having missed the boat with further concreting and Tasmania’s fickle weather, the frosty and rainy weather went on holidays long enough that I decided to persevere, and it’s all paid off….

20170606_103258

shower grates

Mind you, it wasn’t without the odd thing going wrong. As Glenda and I reinvented the bathroom layouts, I had to wait for several days for the new grates we are going to use in the shower area before I was able to finish the second spider (see above link). I ended up buying two of these online for $200, while Bunnings were selling them for $300 each…… always shop around!

While waiting, I made three of the four pipes that run into the riser. The riser was in its position, in the middle of the bathroom mockup in the shed, ready to go; once the fourth pipe was carefully glued together, I assembled the spider, only to discover later that the riser had been sitting for days on the floor upside down……… Sacré bleu! I thought I’d worked a way to get away with it, even dragging it up to the house site for installation, until I realised that the riser is moulded in such a way that all those pipes fall to the fitting (it’s only a two degree fall, but it’s important!) and that now all those pipes were going uphill…… and as we all know, water does not run uphill!

I really hate stuffing things up, but I had to go and buy another fitting (50km return trip and $35 later..), destroy the original one, and refit the entire thing properly. I’m getting really good at problem solving.

20170613_101112

waterproof membrane in place

I re-hired Caleb to do my heavy lifting and unload another couple of tons of crusher dust off the ute to cover up all those bare dirt patches between the trenches while I went to work putting them together.

There’s a lot to think about. I almost forgot to glue the outlet pipe from the second bathroom, and had to dig it up, by hand. No major drama this time, but there you go. These outlets also have to be lagged with 40mm of foam where they penetrate the footing in case the highly reactive soil I seem to continually build on make the concrete move and break the pipes. It pays to know how

20170613_112350

lagged outlet pipe

to read an engineer’s drawings!

Once all the crusher dust was in place, we covered it with the thick plastic moisture proof membrane my supplier sold me, and before you know it, I was ordering another ten cubic metres of concrete.

On the day, I was training Caleb on how I wanted him to rake the concrete towards himself while he stood on the first footing and I inserted the concrete vibrator into the pile of the wet stuff that would land in the middle of the trench. To my amazement, and Caleb’s visible delight, as soon as the vibrator started doing its thing, the concrete came to the end of the trench all by itself, like water in a flash flood……  I tell you, that device is worth its weight in gold! It easily does the work of at least one other man, and maybe more. Mind you, I also had to deal with the end of the machine vibrating itself off, and having to work out the thread was mysteriously left hand – very odd, as left hand threads are usually used to stop things vibrating off! No pressure….  I only had a concrete truck waiting for me to get going again…….

We had two truck loads of concrete in place within just forty-five minutes……. and I had expected it to take twice this long with only two of us on the job!

Now all I have to do is pour a perfectly level and perfectly flat slab on top of the whole thing (after I return from another trip to Queensland to celebrate our fortieth wedding anniversary!), and we can start BUILDING! I really can’t wait to be past this stage; I didn’t want to do this in the first place, but I am saving so much money, it will all be worth it. And to be honest, it’s all turned out even better than I expected, and I am justifiably proud of my handy work……  watch this space.

20170614_134454.jpg





More signs the deflationary spiral is upon us

11 11 2015

I’m feeling poorly this morning, the victim of some bug apparently doing the rounds in my neck of the woods. Ute I is having minor repairs done to pass the safety certificate it needs to have its new shiny Tassie plates screwed to its bumper bars, so I’m taking the time to do a bit more blogging.

This scary item from Zerohedge turned up in my inbox the other day, and it really rattled my cage…….  All the ducks are lining up on the wall… I better start spending the proceeds from selling Mon Abri quick smart.

It’s no secret that Beijing has an excess capacity problem.

Indeed, the idea that a yearslong industrial buildup intended to support

i) the expansion of the smokestack economy,

ii) a real estate boom, and

iii) robust worldwide demand ultimately served to create a supply glut in China is one of the key narratives when it comes to analyzing the global macro picture.

That, combined with ZIRP’s uncanny ability to keep uneconomic producers in business, has served to drive down commodity prices the world over, imperiling many an emerging market and driving a bevy of drillers, diggers, and pumpers to the brink of insolvency.

As we noted late last month, if you want to get a read on just how acute the situation truly is, look no further than China’s “ghost cities”…

Here’s the simple, straightforward assessment from the deputy head of the China Iron & Steel Association:

“Production cuts are slower than the contraction in demand, therefore oversupply is worsening. Although China has cut interest rates many times recently, steel mills said their funding costs have actually gone up.”

To which we said, “meet the deflationary commodity cycle in all its glory”:

China’s mills — which produce about half of worldwide output — are battling against oversupply and sinking prices as local consumption shrinks for the first time in a generation amid a property-led slowdown. The fallout from the steelmakers’ struggles is hurting iron ore prices and boosting trade tensions as mills seek to sell their surplus overseas.Shanghai Baosteel Group Corp. forecast last week that China’s steel production may eventually shrink 20 percent, matching the experience seen in the U.S. and elsewhere.

“China’s steel demand evaporated at unprecedented speed as the nation’s economic growth slowed,” Zhu said. “As demand quickly contracted, steel mills are lowering prices in competition to get contracts.”

Right. Well actually there’s that, and the fact that they can’t get loans despite multiple RRR cuts and attempts on Beijing’s part to boost China’s credit impulse. In fact, over half the debtors in China’s commodity space are generating so little cash, they can’t even cover their interest payments.

So, considering all of the above, the obvious implication is that China will simply export its deflation…

Given that, it shouldn’t come as any surprise that on Friday, the world’s biggest steelmaker suspended its dividend and cut its outlook.

Here’s more from Bloomberg:

The world’s biggest steelmaker on Friday cut its full-year profit target and suspended its dividend, putting the blame on the flood of cheap steel from China’s loss-making mills. The market is being overwhelmed with material coming from the nation’s state-owned and state-supported producers, a collection of industry associations said Thursday.

“It is obvious that we are operating in a very challenging market,” Chief Financial Officer Aditya Mittal said on a call with reporters. “This is essentially the result of very low export prices out of China that are impacting prices worldwide.”

The steel industry has been roiled by the slowest economic growth in two decades in China, the biggest consumer.

The flood of cheap exports from the nation has drawn complaints from Europe and the U.S. that the shipments are unfair. Bloomberg Intelligence estimates Chinese steel shipments overseas will exceed 100 million metric tons this year, more than the combined output of Europe’s top four producing countries.

While demand for steel in the company’s largest markets of the U.S. and Europe is recovering, producers’ profits are being hit by slumping prices because China has been pushing excess supply onto the world market as its economy slows.

So again, we’re seeing disinflation (the exact opposite of what DM central bankers intended when they decided to expand their balance sheets into the trillions) as global growth and trade enters a new era, characterized by a systemic slump in demand. Here’s the damage in terms of the Arcelor’s equity:

And here’s more from The New York Times on the impact of Chinese “dumping:

“The Chinese are dumping in our core markets,” Mr. Mittal said. “The question is how long the Chinese will continue to export below their cost.”

The company’s loss for the period compared with a $22 million profit for last year’s third quarter.

ArcelorMittal, which is based in Luxembourg, also sharply cut its projection for 2015 earnings before interest, taxes, depreciation and amortization — the main measure of a steel company’s finances. The new estimate is $5.2 billion to $5.4 billion, down from the previous projection of $6 billion to $7 billion.

On a call with reporters, Aditya Mittal, Mr. Mittal’s son and the company’s chief financial officer, said that a flood of low-price Chinese exports was the biggest challenge for ArcelorMittal in the European and North American markets.

The company estimates that Chinese steel exports this year will reach 110 million metric tons, compared with 94 million tons last year and 63 million tons in 2013. ArcelorMittal produced 93 million metric tons of steel in 2014.

Of course when the standing government policy is to roll over bad debt and avoid SOE defaults at all costs, uneconomic producers can and will continue to produce. This means the deflationary impulse ArcelorMittal cites isn’t likely to dissipate anytime soon, and on that note we close with what we said just a week ago:

The cherry on top is that China itself is now trapped: it simply can’t afford to let anyone default, as one bankruptcy would cascade across the entire bond market and wipe out countless corporations leaving millions of angry Chinese workers unemployed, and is therefore forced to keep bailing out insolvent companies over and over. By doing so, it is adding even more deflationary capacity and even more production into the market, which leads to even lower prices, and even greater bailouts! In short: this is a deflationary toxic spiral.





Wind turbines hit limits to growth before 50% wind power penetration

2 03 2015

Here is another blogpost clearly explaining the limits of renewable energy using mathematics… you know, that discipline you cannot argue with?  Originally published at Energy Skeptic dot com where loads of other interesting stuff on energy matters are accessible.  I highly recommend that site to all my DTM followers…..

thisisweherewindturbinescomefrom


Material requirements of 50% wind power in the USA hit limits to growth

Wind turbines can’t be made forever because natural gas, coal, oil, uranium (thorium), neodymium, and other energy resources and minerals needed for wind turbines are finite, and the energy to recycle is limited.

Oil, the master resource, coal, and natural gas are required to make the millions of tons of steel, copper, fiberglass, plastic, epoxy, and concrete as well as deliver and maintain hundreds of thousands of wind turbines providing 50% or more of electricity as fossil fuels decline.

2,029,104,500 MWh = Wind power to equal 50% of annual electricity generation in 2013 (4,058,209,000 MWh / 2)
5,606.4 MWh power per year per 2 MW turbine (2 MW * .32 national average capacity * 24 hours * 365 days) summer
361,926 Number of 2 MW turbines required (2,029,104,500 MWh / 5,606.4 MWh) You’d need 531,318 wind turbines to allow for the lowest capacity of .218 in august 2013 (EIA).
Area required 104,586 square miles — the entire state of Colorado (361,926 2 MW turbines * 2 * 92.47 acres per MW) (AWEO)
Materials per 2 MW turbine in short tons: 265.5 steel, 1025.5 concrete, 39 iron, 3 copper, 24.3 fiberglass, 10 epoxy, 2.4 plastic (average of Elsam, Guezuraga), and rare earth metals neodymium 800 pounds, dysprosium 130 pounds (ED).
Total amount of materials needed for 361,926 wind turbines in short tons: 96,091,353 steel, 371,155,113 concrete containing 74,213,022 cement (20% of concrete), 144,770 tons neodymium, 23,525 dysprosium, 14,115,114 iron, 1,085,778 copper, 8,794,802 fiberglass, 3,619,260 epoxy, 868,622 plastic
Annual steel production world-wide 1,833,395 tons in 2014 (worldsteel) = 52 years of world steel production (96,092,353 / 1,833,395)
Annual cement production USA 142,464,000 tons (USGS) = 52% of annual cement production (roads, buildings, sewers, and other infrastructure will suffer)
Neodymium world production is 7,840 tons/year. Windmill turbines would require 18.5 years of production. Dysprosium production is 112 tons/year requiring 210 years of dysprosium production (ED).
Fossil energy required to build windmills: The vehicles that mine iron ore run on diesel. Vehicles and equipment that process iron ore are mostly made of steel. Iron and steel are made by blast furnace or direct reduction using coal or natural gas. Imported steel arrives on ships burning diesel. Cement (20% of concrete) is made in a kiln using coal or natural gas. Fiberglass, epoxy, and plastic are made out of petroleum.

If the plan is to build 150% wind power to increase the capacity credit for reliable power, or immigration and birth rates increase the US population to 1 billion as expected in census projections by 2100, triple all of the above figures. Since the rest of the world also wants wind power and have increasing populations, perhaps multiplying by 10 would be more realistic, or by 12, since many material requirements were left out (i.e. transmission / distribution lines and towers, substations, roads, etc).

ED. 2015. Neodymium. Dysprosium. ElementsDatabase.org

EIA. 2015. Table 6.7.B. Capacity Factors for Utility Scale Generators Not Primarily Using Fossil Fuels, January 2008-November 2014. U.S. Energy Information Administration.

Prieto, P. A. 21 Oct 2008. Solar + Wind in Spain/ World. Closing the growing gap? ASPO International conference.

USGS. 2011. Cement production. United States Geological Society. 127,200,000 long tons converted to 142,464,000 short tons (2,000 lbs)

Worldsteel. 2014. Monthly Crude Steel Production 2014. Pig iron 2013 + DR 2013. worldsteel.org (converted from long to short tons).





Prove This Wrong

27 11 2014

My Photo

John Weber

Another guest post by John Weber..  I have already pronounced more than once that building ‘renewables’ involves intensive use of fossil fuels, the emissions from which the machines made to generate this renewable energy can never be removed by the machines.  So while they may reduce the emissions that might have been caused by using fossil energy to generate this electricity, the machines do not remove them.  In fact, it doesn’t matter how many wind turbines are erected, the fossil energy use just keeps growing…..  and if we decided tomorrow to shut down all fossil fuel use (a darn good idea…), then not one more wind turbine would be erected, and not one more solar panel would be built.  It’s really that simple……..

 

It would be elegant if wind and solar energy capturing devices could actually maintain a modicum of the wonderfully rich lifestyles many of us live.  I believe this is a false dream and that BAU (business as usual) is not sustainable or “green” nor really desirable for the future of the earth or even our species.

Prove This Wrong

Many people believe wind and solar energy capturing devices can replace a substantial percentage if not all of our fossil fuel usage. Below you will find pictures and charts detailing the necessity of the fossil fuel supply system and the massive industrial infrastructure in this “renewable” dream.

Wind, Water, and Solar Power for the World

Nix nuclear. Chuck coal. Rebuff biofuel. All we need is the wind, the water, and the sun

By Mark Delucchi/ SEPTEMBER 2011

“We don’t need nuclear power, coal, or biofuels. We can get 100 percent of our energy from wind, water, and solar (WWS) power. And we can do it today— efficiently, reliably, safely, sustainably, and economically.  We can get to this WWS world by simply building a lot of new systems for the production, transmission, and use of energy. One scenario that Stanford engineering professor Mark Jacobson and I developed, projecting to 2030, includes: 3.8 million wind turbines, 5 megawatts each, supplying 50 percent of the projected total global power demand.”

http://spectrum.ieee.org/energy/renewables/wind-water-and-solar-power-for-the-world/

Mark Z. Jacobson Department of Civil and Environmental Engineering, Stanford University was coauthor of another article. It can be found in Scientific America – “A Path to Sustainable Energy by 2030”.

http://www.scientificamerican.com/article/a-path-to-sustainable-energy-by-2030/

They proposed that starting in 2012, 50% of the worlds needs could be supplied by 3,800,000 five megawatt wind capturing devices to be installed by 2030. Here are the numbers:

3,800,000 5 megawatts each supply 50% of the world’s energy needs in 18 years

THIS MEANS

211,111.11 Machines a year

578.39 Machines a day for 18 years

24.10 Machines each hour each day for 18 years EACH ONE INSTALLED EACH DAY

http://spectrum.ieee.org/energy/renewables/wind-water-and-solar-power-for-the-world/0

http://www.scientificamerican.com/article.cfm?id=a-path-to-sustainable-energy-by-2030

I am choosing wind energy capturing devices because they have a higher Energy Return on Energy Invested than solar energy capturing devices. I continually use the phrase “capturing devices” for what are usually called solar panels and wind machines because these are devices that capture the sun or wind energy. It is misleading to not realize they require energy and natural resources.

Let me cut right to the results of this study. The base of this 2.5 megawatt turbine in the pictures that follow (half the megawatts in the Jacobson/Delucchi study) used 45 tons of rebar and 630 cubic yards of cement. This computes in barrels of oil and in tons of CO2 for each base:

For the Concrete

478.8 Barrels of oil in 630 yards of concrete.

409.5 Tons of CO2 released for 630 yards of concrete.

For the Rebar

Taking a conservative 3 barrels of oil per ton the rebar would require 135 barrels of oil for the base of the 2.5 MW Turbine.

89 tons of C02 released for 45 tons of steel for the base.

All Together

The concrete and steel together for one base use

613 barrels of oil for each base alone.

Each base release 498 tons of CO2

(A barrel of oil is 42 gallons – or 160L)

Before looking at two of the energy requirements to install these 3,800,000 machines here are some interesting pictures of installing a wind energy capturing device from http://www.cashton.com/North_Wind_Turbine_Const-DM-CS-SB-2-reduced-in-size.pdf .

https://damnthematrix.files.wordpress.com/2014/11/6f504-windinstallation12bcopy.jpg

https://damnthematrix.files.wordpress.com/2014/11/192c6-windinstallation22bcopy.jpg

https://damnthematrix.files.wordpress.com/2014/11/6f3bd-120tower.jpg

https://damnthematrix.files.wordpress.com/2014/11/fb37f-setting.jpg

https://damnthematrix.files.wordpress.com/2014/11/1ee08-top.jpg

https://damnthematrix.files.wordpress.com/2014/11/5a470-parts.jpg

https://damnthematrix.files.wordpress.com/2014/11/5d852-in2bfield.jpg

The machine we are looking at is only 2.5 MW turbine not the larger 5 MW proposed by Jacobson and Delucchi.

The turbines, each standing 485 feet tall and weighing 2,000 tons

The project utilizes 2.5 MW turbines on 100 metre towers.

(http://www.kansasenergy.org/wind_projects_WI.htm)

The pictures clearly illustrate that the fossil fuel supply system and a vast industrial infrastructure support the manufacture and installation of these wind energy capturing devices. The tons of rebar and the yards of concrete offer a chance to look at the energy requirements for both. It is also important to point out that all the equipment used to install the turbines also have the fossil fuel supply system and the massive industrial infrastructure supporting them.

In researching this, the information for concrete was more definite than the range of energy required to make rebar.

_________________________________________________________________________________

REBAR

“Common rebar is made of unfinished tempered steel, making it susceptible to rusting. Normally the concrete cover is able to provide a pH value higher than 12 avoiding the corrosion reaction. Too little concrete cover can compromise this guard through carbonation from the surface, and salt penetration. Too much concrete cover can cause bigger crack widths which also compromises the local guard. As rust takes up greater volume than the steel from which it was formed, it causes severe internal pressure on the surrounding concrete, leading to cracking, spalling, and ultimately, structural failure. This phenomenon is known as oxide jacking. This is a particular problem where the concrete is exposed to salt water, as in bridges where salt is applied to roadways in winter, or in marine applications. Uncoated, corrosion-resistant low carbon/chromium (microcomposite), epoxy-coated, galvanized or stainless steel rebars may be employed in these situations at greater initial expense, but significantly lower expense over the service life of the project. Extra care is taken during the transport, fabrication, handling, installation, and concrete placement process when working with epoxy-coated rebar, because damage will reduce the long-term corrosion resistance of these bars.” http://en.wikipedia.org/wiki/Rebar

   https://damnthematrix.files.wordpress.com/2014/11/3c8ad-steel-ironmineenergy.jpg

“Under the most ideal circumstances, the energy required to produce solid iron from iron oxide can never be less than 7 million Btu per ton (MMBtu/ton). Since the energy required to melt iron under the most ideal circumstances is about 1 MMBtu/ton, the inherent thermodynamic advantage of making liquid steel from scrap rather than from iron ore is about 6 MMBtu/ton. When process heat losses are included, the advantage falls in the range of 9 to 14 MMBtu/ton. . . . current total energy requirements for the pro- Petroleum provides only a small amount of enduction of finished steel products in different pIants and countries from iron ore range from 25 to 35 MMBtu/net ton.”

https://www.princeton.edu/~ota/disk3/1983/8312/831210.PD

https://damnthematrix.files.wordpress.com/2014/11/a8934-steelenergy2003.jpg

https://damnthematrix.files.wordpress.com/2014/11/0a3a9-primarysteelproductionchart.jpg

 

http://www.eurosfaire.prd.fr/7pc/documents/1355390994_jrc_green_steel.pdf

The range above supports the 25 to 35 MMBtu/net ton. With various iron making processes, iron has a range of Btus per ton.   Converted to barrels of oil the range is 2.17 to 4.83 barrels of oil per ton of rebar.

Taking a conservative 3 barrels of oil per ton the rebar would require 135 barrels of oil for the base of the 2.5 MW Turbine.

On average, 1.8 tonnes of CO2 are emitted for every tonne of steel produced.

http://www.worldsteel.org/publications/position-papers/Steel-s-contribution-to-a-low-carbon-future.html

This means 1.98 tons of C02 emitted for every ton of steel produced.

IRON ORE PROCESS

https://damnthematrix.files.wordpress.com/2014/11/cf8cf-colorsteelprocesschart.jpg

CEMENT ENERGY

Multiply 1.10231 to convert tonnes to tons

One yard of concrete equals two tons

http://www.cemexusa.com/ProductsServices/ReadyMixConcreteFaq.aspx

Two tons equals 1.81437 tonnes

4,426,832.62 Btus in a yard of concrete

5,800,000 Btus per barrel of oil

0.76 barrels of oil in a yard of concrete

32.06 gallons of oil in a yard of concrete

0.65 tons of CO2 per yard of concrete

478.8 Barrels of oil in 630 yards of concrete

20,195.52 Gallons of oil in 630 yards of concrete

409.5 Tons of CO2 per 630 yards of concrete

http://www1.eere.energy.gov/manufacturing/industries_technologies/imf/pdfs/eeroci_dec03a.pdf

THE CONCRETE PROCESS

https://damnthematrix.files.wordpress.com/2014/11/0d19c-productionofcement.jpg

http://www1.eere.energy.gov/manufacturing/industries_technologies/imf/pdfs/eeroci_dec03a.pdf

On-site energy values are based on actual process measurements taken within a facility. These measurements are valuable because the on-site values are the benchmarks that industry uses to compare performance between processes, facilities, and companies. On-site measurements, however, do not account for the complete energy and environmental impact of manufacturing a product. A full accounting of the impact of manufacturing must include the energy used to produce the electricity, the fuels, and the raw materials used on-site. These “secondary” or “tacit” additions are very important from a regional, national, and global energy and environment perspective.

Normal weight concrete weighs about 4000 lb. per cubic yard. Lightweight concrete weighs about 3000 lb. per cubic yard. If a truck is carrying 10 cubic yards, then the weight of the concrete is approximately 40,000 lb.

The tonne (British and SI; SI symbol: t) or metric ton (American) is a non-SI metric unit of mass equal to 1000 kilograms;[ it is thus equivalent to one megagram (Mg). 1000 kilograms is equivalent to approximately 2 204.6 pounds,

 

http://www1.eere.energy.gov/manufacturing/industries_technologies/imf/pdfs/eeroci_dec03a.pdf

It is important to realize we have only looked at the energy for the concrete and rebar for the base of a 2.5 MMwatt turbine. Behind this device and most sun and wind capturing devices are a global system of providing energy and materials. And this support is further supported.   Here is one mining truck among a worldwide fleet of trucks that also must be manufactured. It is like a thread on a knitted sweater that when you pull it thinking you will get a small piece, you end up with a whole ball of yarn.

YOU DO THE MATHS





The False Solutions of Green Energy

13 10 2014

Max Wilbert & Cameron Foley expose the fallacies of “green” technology by tracing the process of industrial production for these technologies and exposing the destruction they cause.

I suggest you download the pdf file that has the slides in it, and watch that while you listen to the youtube video…….

Powerpoint slides available at https://dl.dropboxusercontent.com/u/123254/Long%20Term%20Shares/PIELC%20Talk.pdf





With fossil fuels…… you can do ANYTHING!

14 02 2014

The much heralded Ivanpah Solar Thermal Power station in California is being commissioned as I type.  Mighty impressive too….  Sprawling across almost thirteen square kilometres of land near the California-Nevada border, it looks pretty damn beautiful…….

ivanpah

Take 300,000 computer-controlled mirrors, each 2 metres high and 3 metres wide, control them with computers to focus the Sun’s light to the top of 150 metre high towers where water is heated to steam, to power turbines, and….. Ta dah…: you have the world’s biggest solar power plant, the Ivanpah Solar Electric Generating System.

Long-mired by regulatory issues and legal tangles, the enormous solar plant–jointly-owned by NRG EnergyBrightSource Energy and Google opened for business today…….

From the official news release:

The Ivanpah Solar Electric Generating System is now operational and delivering solar electricity to California customers. At full capacity, the facility’s trio of 450-foot high towers produces a gross total of 392 megawatts (MW) of solar power, enough electricity to provide 140,000 California homes with clean energy and avoid 400,000 metric tons of carbon dioxide per year, equal to removing 72,000 vehicles off the road.

BUT……  check out how much steel and concrete has gone into this beast…  how much embodied energy are we looking at..?  anyone trying to tell you this can’t be done without fossil fuels had better watch this…:

Now I’m not saying this shouldn’t be done, and I agree it is an engineering marvel, but I still ask, how will this sort of construction continue, let alone maintenance and eventual replacement post Peak Oil, Peak Coal, Peak Uranium, and Peak Debt…..  Just asking.

More photos here…