BP Energy Outlook 2035 and Royal Dutch Shell ‘New Lens Scenario’ download PDF’s

BP Energy Outlook 2035 and Royal Dutch Shell ‘New Lens Scenario’ PDF’s | 17/01/14
by John Brian Shannon John Brian Shannon

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BP Energy Outlook downloads

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The BP Energy Outlook 2035 – contains our projections of long-term energy trends

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Energy Outlook 2035 (by country or region)

Background papers

Royal Dutch Shell Report Spells Big Changes for Energy

by John Brian Shannon

Royal Dutch Shell has published a startling report in which it lays out it’s future view and it has detailed huge global implications for citizens, governments and the energy industry.

Shell’s New Lense Scenarios (policy paper) paints a picture of a new order among the different kinds of energy and how energy use will change between now and 2100.

Two different scenarios are discussed and named. The two, named ‘Mountains’ and ‘Oceans’ take different views of the many factors likely to affect the industry over the next 87 years,  but there is more consensus than disagreement between the two views.

The boom in natural gas figures prominently in both scenarios with natural gas dramatically ramping-up to become the number one kind of energy in the world by 2030.

“In 2030, natural gas becomes the largest global primary energy source, ending a 70-year reign for oil.” — NLS report

Due to enhanced Carbon Capture and Storage, clean combustion technology and the use of CO2 gas for industrial processes by 2100, Shell sees global emissions of carbon dioxide dropping by 2100, to nearly zero.

A quote from the report’s main authour Jeremy Bentham, speaks volumes about the anticipated level of demand for natural gas; “The underlying pent-up demand for gas is very strong…we see it being sucked up, every molecule.”

By 2060, the report has PV solar power moving into number one position to provide at least 38 percent of global energy supply — well up from today’s distant ranking of 13th place. See; Shell Sees Solar As The Biggest Energy Source After Exiting It in 2009.

Due to enhanced Carbon Capture and Storage, clean combustion technology and the use of CO2 gas for industrial processes by 2100, Shell sees “global emissions of carbon dioxide dropping to near zero by 2100”.

By 2100, energy from oil will account for only 10 percent of worldwide energy use and natural gas will account for just 7.5 percent of the global total, Shell said.

What might lie ahead 50 years from now… or even in 2100? We consider two possible scenarios of the future, taking a number of pressing global trends and issues and using them as “lenses” through which to view the world.

The scenarios provide a detailed analysis of current trends and their likely trajectory into the future. They dive into the implications for the pace of global economic development, the types of energy we use to power our lives and the growth in greenhouse gas emissions.

The scenarios also highlight areas of public policy likely to have the greatest influence on the development of cleaner fuels, improvements in energy efficiency and on moderating greenhouse gas emissions.

Mountains

The first scenario, labelled “mountains”, sees a strong role for government and the introduction of firm and far-reaching policy measures. These help to develop more compact cities and transform the global transport network. New policies unlock plentiful natural gas resources – making it the largest global energy source by the 2030s – and accelerate carbon capture and storage technology, supporting a cleaner energy system.

Oceans

The second scenario, which we call “oceans”, describes a more prosperous and volatile world. Energy demand surges, due to strong economic growth. Power is more widely distributed and governments take longer to agree major decisions. Market forces rather than policies shape the energy system: oil and coal remain part of the energy mix but renewable energy also grows. By the 2060s solar becomes the world’s largest energy source. – Shell

Download New Lens Scenarios PDF (PDF, 9 MB) – opens in new window

After selling off it’s global solar holdings in 2009, except for those located in Japan, Shell, having taken a long, studious look into the future, has since embraced PV solar as never before and is presently buying back it’s own shares at a brisk pace.

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JOHN BRIAN SHANNON

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CO2 or Methane: Who do you Love?

by John Brian Shannon

Greenhouse gas is a catch-all term used to describe a class of gases — either naturally-occurring or man-made (anthropogenic) which have a detrimental effect on the Earth’s atmosphere. It is no longer in academic dispute that any upset to the natural atmospheric equilibrium can wreak havoc on the climate of the entire planet.

As more of these gases are added to the planet’s atmosphere they allow more of the Sun’s rays to penetrate into the air mass which surrounds our planet, instead of bouncing harmlessly back into space. Scientists refer to this process as ‘solar forcing’ whereby more heat is added to the Earth each year than can be removed by natural systems. When more heat is allowed in, more of the polar ice caps melt each summer. It’s a simple equation.

It is likely that later this century there will be no northern ice cap. The other ice cap covers the continent Antarctica which is nearly the size of the United States, and is permanently covered in ice. The ice cap in Antarctica is dissipating at an increasing rate and that is no longer in academic dispute either. Both effectively function as the air-conditioning system for planet Earth and trillions of dollars are at stake for the world farming community.

Heat and drought are the deadly enemies of food crops and both excessive heat and drought are on the increase as more solar forcing is added to Earth’s climate equation. Scientists say that in the best-case scenario — with modern technology and farming practices, that up to a 2 degree worldwide average temperature increase can be accommodated with the only disruptions being in the number of food-producer bankruptcies and higher food costs for consumers. According to scientists, it is beyond our present-day ability to compensate for any worldwide temperature increase of more than 2 degrees.

Here is a staggering number to keep in mind, it costs farmers, ag corporations, consumers and governments one-trillion-dollars per year, for each one degree of worldwide temperature increase – costs which are already starting to be passed on to consumers and taxpayers.

So, who do you love: CO2 or methane? There is no doubt all greenhouse gases contribute to global warming, but some are worse than others — which is why a significant and growing movement is afoot these days to enhance and enlarge the Montreal Protocol an international agreement which limits ozone-depleting gases — to include selected greenhouse gases such as methane and nitrous oxide.

Which makes some amount of sense, as methane causes 72 times more global warming per tonne than CO2. Nitrous oxide causes 289 times more global warming per tonne than CO2. Others are exponentially worse, such as sulfur hexafluoride which contributes 16,300 times it’s weight to our atmospheric problems. Get used to hearing the term CO2-equivalent we will be hearing a lot about that in the coming months.

The worldwide tonnage of these pollutants are much lower than the billions of tonnes of carbon dioxide added to the atmosphere each year, but at those ratios even a few million tons can do a lot of lasting damage. Also, some of these emissions can stay in the atmosphere for up to 50,000 years eating ozone the entire time.

Atmospheric lifetime and GWP relative to CO2 at different time horizon for various greenhouse gases.

Gas name

Chemical
formula

  Lifetime
(years)

Global warming potential (GWP) for given time horizon

20-yr

100-yr

500-yr

Carbon dioxide

CO2

See above

1

1

1

Methane

CH4

12

72

25

7.6

Nitrous oxide

N2O

114

289

298

153

CFC-12

CCl2F2

100

11,000

10,900

5,200

HCFC-22

CHClF2

12

5,160

1,810

549

Tetrafluoromethane

CF4

50,000

5,210

7,390

11,200

Hexafluoroethane

C2F6

10,000

8,630

12,200

18,200

Sulfur hexafluoride

SF6

3,200

16,300

22,800

32,600

Nitrogen trifluoride

NF3

740

12,300

17,200

20,700

This chart is courtesy of Wikipedia, to view it full size, click here.

More CO2 is produced by our civilization than any other gas and it is prudent to limit CO2 emissions wherever possible — and to use carbon capture and storage to mitigate anthropogenic CO2 production. But it is beginning to look like all of the other greenhouse gases are the real story — and the ones most easily reduced.

At one-trillion-dollars per one-degree-of-global-warming, it is already costing consumers and taxpayers a huge amount of money. If our civilization spent just ten percent of that mitigating all of the other greenhouse gases besides CO2, we might be starting to show our planet and each other some respect.

And then, we would then know the answer to the question; Who do you Love?

JOHN BRIAN SHANNON

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The Next Trillion-dollar Business

by John Brian Shannon

High energy costs to pump crude oil from the bottom two-thirds of an oil reservoir is one of two main reasons that some of the largest oil wells have been capped and abandoned. Therefore, until recently much of the global proven reserves have lain dormant in so-called ‘ageing’ or ‘spent’ oilfields.

Carbon Capture and Sequestration (CCS) can allow oil companies to resume extraction of crude oil at previously abandoned facilities.

This kind of CCS is a fine way to alleviate greenhouse gas emissions by storing the CO2 deep underground forever — and helping to help bring crude oil to the surface.

https://i0.wp.com/www.ico2n.com/wp-content/uploads/2010/07/ICO2N-Enhanced-Oil-Recovery-Carbon-Capture-and-Storage.jpg
ICO2N Enhanced Oil Recovery – Carbon Dioxide Capture and Storage

Recently, and where vast quantities of CO2 are available locally from industry, millions of tons of CO2 gas have already been pumped deep into the underground crude, increasing the volume and raising the overall pressure of the oil reservoir, thereby ‘forcing’ more crude oil to the surface. This is starting to become a common practice in Canada, the U.S.A., and in Saudi Arabia.

More often than not, this process has made economic sense based on it’s own economic merit, but government subsidies have also been employed on and off over the years — on an experimental and case-by-case basis.

So, why isn’t this being done everywhere if it is such a great idea? It turns out that much of the industry-produced CO2 that is available for CCS use is already being used for that purpose. But two factors have (so far) limited more CCS injection for oilfield rejuvenation:

  1. The remote locations of some oilfields can limit the use of industrial CO2 emissions for use, as pipelines to deliver the gasses to capped wells are expensive.
  2. The high energy costs of pumping supercritical (liquified) greenhouse gasses deep underground at high pressure — and pumping the crude oil up the pipe and out through the wellhead

_

And… Voila! Just like that, high energy costs are no longer a factor in that equation — thanks to the dramatic fall in solar panel prices over the past 26 months! What?

It’s true! Up ‘till now, the high cost of all kinds of energy have prevented many CCS projects from going forward, as Carbon Capture and Storage requires huge amounts of energy. But solar costs have now dropped so dramatically that free energy from the Sun is being harnessed to inject liquified CO2 deep underground to rejuvenate massive oilfields — while at the same time, sequestering millions of tons of harmful greenhouse gasses.

Semprius Inc. 33.9% efficiency solar panel arrays mounted on Solar Tracker

It’s a win-win for the environment. Some might argue that point. But each year, our civilization is consuming more crude oil producing billions more tons of greenhouse gasses.

“The burning of fossil fuels produces around 21.3 billion tonnes (21.3 gigatonnes) of carbon dioxide (CO2) per year, but it is estimated that natural processes can only absorb about half of that amount, so there is a net increase of 10.65 billion tonnes of atmospheric carbon dioxide per year…” — Wikipedia Fossil Fuel

We can continue to allow those gasses to escape unimpeded into the atmosphere, further warming the planet — or we can inject billions of tons of these gasses underground where they will stay for millennia.

The millions of tons of CO2 per year already being injected underground (now) and billions of tons of CO2 per year (in the near future) can only be seen as positive. If only all of the industry-produced CO2 could be so treated! Suddenly, that noble goal seems a lot closer to becoming a reality.

Who could have predicted that the oil industry and the solar industry would become such strong and complementary partners in this great and lofty enterprise?

Highly Recommended CCS articles:
JOHN BRIAN SHANNON

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