Did Katrina Hide the Real Peak in World Oil Production? and Other Oil Supply Insights
Posted by Gail the Actuary on October 9, 2007 - 10:00am
Topic: Supply/Production
Tags: graphs, hurricane katrina, oil production, original, peak oil [list all tags]
In this post, I collaborate with Matt Mushalik from Sydney, Australia. Matt is a civil engineer, town and regional planner, peak oil advisor, and member of ASPO Australia. Most of the ideas in the post are Matt's. I have added a little to the analysis, particularly in the area of the Katrina impact.
In this post, we use a graphical approach for analyzing oil production since 2001. This analysis shows that more and more countries are showing declining oil production, and that this decline in production is not being offset by increases in production elsewhere. If this pattern continues, this analysis suggests that we may already be past the peak in world oil production.
We also look at the question of whether the impact of Hurricane Katrina may have hidden the real peak in world oil production. We find that if an adjustment is made for hurricane impacts, the peak month of production seems to be December 2005 on a crude and condensate basis, and September 2005 on an all liquids basis. The higher adjusted peaks, and greater declines since the adjusted peaks, further suggest that we may be post-peak.
What Does Figure 1 Show?
One way of analyzing crude oil production is in terms of how much production has increased or decreased in recent years. To get a visual picture of this, Matt has prepared graphs of what he calls incremental crude oil production for various groupings of countries. Figure 1 shows incremental crude oil production for January 2001- June 2007 using EIA data.
The data used in Figure 1 is developed as follows:
(1) For each country, Matt finds the minimum monthly production in the period 2001-June 2007 and subtracts this minimum from each monthly production to arrive at an incremental production relative to the minimum. For example, for the United States, the incremental oil production is the area in dark red on Figure 2. The data used in the analysis is EIA "crude plus condensate" data.
(2) Note that the amount in the "base" is determined by the minimum, and not the first month. If the first month were used, this would result in positive and negative areas which cannot be stacked to give a useful production profile. Also note that when the bases plus the incremental amounts are stacked, as in Exhibit 1 or 2, in total we get back to the full amount of crude for the appropriate grouping.
(3) For each country, the size of the area on the graph is proportional to the variation in production for the period under consideration. This is a measure for the size of the impact changes have had on the overall production profile, both positive and negative. The US, for example, had only a decline of around 600 thousand bpd, if one excludes the impact of Hurricane Katrina in 2005. The big drop in production after Katrina causes the US layer to be much "thicker".
(4) Matt then sorts countries into following groups, from bottom to top in the graph:
(a) US (Figure 2, shown above)
(b) "Post Peak" grouping: Indonesia, Egypt, Syria, Gabon, Argentina, Colombia, Australia, Oman, Yemen, Denmark
(c) North Sea: UK and Norway
(d) Venezuela (thick layer because of the production drop during the strike)
(e) A group of countries with a common, recent peak in 8/2005: Iran, Mexico, Malaysia
(f) A group of countries with a common, recent peak in 9/2006: Ecuador, Vietnam, Qatar, Kuwait, UAE, India and other
(g) Saudi Arabia
(h) Nigeria
(i) Iraq - A line is drawn between Iraq and China. All countries above the line are considered to be countries with increasing production. The countries below the line are either decreasing, or have variable production that appears not to be increasing.
(j) China
(k) Russia
(l) "Growth 8%" group: Algeria, Libya, Sudan, Eq. Guinea, Brazil. These are the countries below the black line in Figure 7.
(m) "Stellar growth" group: Canada, Kazakhstan, Angola, Azerbaijan. These are the countries shown above the black line in Figure 7.
What Can We Learn From the Graphs? (Matt and Gail)
This is a repeat of Figure 1, so you don't have to scroll up:
If a person looks at the black line, and the production beneath the black line, one thing that stands out is the extent of the decline since early 2005. Production for this group of countries is now about 3.8 million barrels a day lower than it was in May 2005 . This decline equates to a decline of about 1.8 million bpd per year for these countries. One reason for the large decline is the increasing number of countries that are now post peak, including the countries in the Peak 8/2005 and the Peak 9/2006 groups.
This annual decline of 1.8 million bpd can be broken down to about .6 million bpd annual decline relating to the countries Nigeria, Iraq, and Saudi Arabia (combined), and about 1.2 million bpd for other countries below the black line. One might argue that the production of Nigeria, Iraq, and Saudi Arabia (Figure 8) is not necessarily in long-term decline, so should not be below the black line. Since the production for these countries has recently declined, it is shown in this group.
What is offsetting this decline in oil production below the black line? Figure 9 shows a graph of the increases in production for all of the growing countries (the countries above the black line in Figure 1).
This group of countries has been increasing its production by an average of about 1.2 million bpd a year. While this is good, it is not enough to keep up with the decline in production of about 1.8 million bpd per year of the declining group of countries. Clearly, if the mismatch between increases and declines continues, a long-term decline in world crude oil production can be expected. If this happens, world oil production is past its peak.
If a person looks only at the group of countries that are currently level or declining, the overall rate of decrease in production has recently been 4% per year. This suggests that some day, world production may decrease by something in the range of 4% per year, once there is little new production being added. If there are many offshore wells (which tend to have high decline rates), or if there are above ground issues (like hoarding), the decline rate could be much higher than this.
Where is there a possibility for change?
One possible change is in the countries shown in Figure 8 - Iraq, Saudi Arabia, and Nigeria. If their production can be increased, it could eliminate the recent 0.6 million bpd per year decline, and possibly even increase production. At this point, there is no evidence of this happening, however.
Another possible change is in China and Russia. These are the countries with the greatest oil production in the growing group. Many are forecasting that their production will begin to decline in the next few years. If this happens, the mismatch between countries with increases and decreases will be worse, leading to more of an overall decline.
Another issue is whether the Azerbaijan and Kazakhstan can continue to grow at the rate they have in the recent past. The capacity of the BTC pipeline (1 million bpd) and of other infrastructure are limiting factors in bringing oil to the market. Thus it is not clear their high rate of growth in the past can continue very long into the future.
Impact of Hurricane Katrina (and Rita) (Matt and Gail)
The graphs of EIA oil production we are used to looking at are distorted by the impact of Hurricane Katrina (August 23, 2005) and Hurricane Rita (September 2005). Figure 2 above indicates that these hurricanes clearly had an impact on US crude oil production. What happens if we make an adjustment for this impact?
Figure 10 shows an estimate of the extent of the impact of these hurricanes. Since it is not possible to distinguish which hurricane, we call this the Hurricane Katrina adjustment.
The adjustment shown on Figure 10 applies to crude and condensate. It is also possible to use a similar approach to calculate an adjustment to all liquids. With these adjustments, one can then approximate what world oil production would have looked like, in the absence of the hurricanes. The revised graphs are shown in Figure 11.
The numeric amounts corresponding to the production amounts used in Figure 11 are shown in Figure 12.
With these adjustments, the peak moves to late 2005, on both a "crude and condensate" and an "all liquids" basis. On a crude and condensate basis, the peak was December 2005, so perhaps Kenneth Deffeyes was correct after all. On an all liquids basis, the peak month appears to be September 2005. With these adjusted peaks, the June 2007 crude amount is 1.90 million bpd below peak and the all liquids is 1.37 million bpd below peak. These adjustments make a stronger case that (apart from the hurricanes) production in late 2005 was the true peak, and we are now on a declining slope.
What Should We Do Now? (Matt)
One of the things we need to do now is monitor the data, and confirm the 2005 peak in world oil production. We cannot know whether this peak was a geological peak per se, or whether there were other factors, such as geopolitical feed back loops involved.
Besides confirming the 2005 peak, it is time (and past time) for governments to take action. I strongly recommend that governments set aside oil and gas fields for the sole purpose of serving as an energy input into all those projects which are required to:
(A) Mitigate the impact of peak oil (e.g. rail development)
(B) De-carbonize our economies (e.g. renewable energy systems)
If this is not done immediately, all these projects may get stuck in diesel shortages. In the worst case scenario, peak oil may damage our economy and financial system to such an extent that we no longer have the strength to decommission and replace our coal fired power plants. The result of all of this could be a different planet Earth (2-3 degree Celsius warming, sea level rises, and crop failures, as warned by NASA climatologist James Hansen).
Hansen writes in his latest paper Global Warming: East-West Connections:
The Earth’s history provides a sobering perspective on prospects for climate change. The Earth’s climate is sensitive to changes in climate forcings, human-made forcings now overwhelm natural climate forcings, and the climate system is dangerously close to tipping points that could have disastrous consequences. Atmospheric composition is now near the limits that must not be exceeded if we wish to maintain a planet resembling the one on which civilization developed, with the equable climate of the Holocene.
How urgent action on global warming is will be seen when the summary IPCC report comes out in November. Tim Flannery, author of the book "The Weathermakers" and Australian of the year, informed us about new data presented in this report in an interview with the Australian public broadcaster ABC TV:
TIM FLANNERY: ..... We thought we'd be at that threshold within about a decade, we thought we had that much time. But the new data indicates that in about mid 2005 we crossed that threshold. So as of mid 2005, there was about 455 parts per million of what's called carbon dioxide equivalent. And that's a figure that's gathered by taking the potential of all of the 30 greenhouse gases and converting them into carbon dioxide potential, so we call it CO2 equivalent.
So 2005 seemed to have been the tipping point year both on peak oil and global warming.
To close on a more positive note, here is an example from the Australian city of Perth how to prepare for peak oil. The mass transit authority Transperth has built a rail line on the median strip of 2 freeways.
Park & Ride facilities as well as bus interchanges at stations allow long distance commuters access to the rail line from low density suburbs. Perth has also introduced TravelSmart, individualized marketing, bringing together various modes of transport including car pooling and cycling.




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we thank you for your support.
People don't often associate our soils with the main solution to Global Warming, but there is a growing body of evidence that cooking up agricultural WASTE could both give us a little diesel to maybe run farming, and be a "Silver Bullet" for reducing Co2 back down to safer levels. Just farming an area the size of France in this method is reputed to be able to absorb ALL Anthropogenic Greenhouse gases.
Eprida state:
The Eprida model is an international, decentralized, self supporting approach to carbon sequestration. Because making charcoal locks up carbon which can then be added to the soil, it is offers a method whereby agriculture can become a form of carbon sequestration. The machine they have developed for doing the charcoal burning basically takes 10 tons of any woody or plant biomass and turns it into 1 ton of charcoal and 3.2 tons of diesel.
See also "Black is the new Green" at Worldchanging.
http://www.worldchanging.com/archives/004815.html
And don't forget the ABC Catalyst special with Australian of the Year and Global Warming author, Tim Flannery, at the world's first International Agrichar conference.
http://www.abc.net.au/catalyst/stories/s2012892.htm
Remember that this is vastly different to just storing CO2 underground where it does nobody any good and could potentially be dangerous. Instead we can convert CO2 into useful charcoal that works for us in replenishing the soil. If Agrichar can be scaled up quickly enough, then we have a chance to mitigate the worst of the CO2 emissions until fossil fuel depletion takes over at peak coal in 2025.
Why on earth are we wasting money investigating carbon capture and storage underground, when we could store it in our soils and prepare agriculture for peak oil at the same time?
Eclipse Now
Free peak oil posters to put up at your local library, university, school, or notice board.
Don't want to look for the hair in the soup, especially because I generally agree with what you are saying.
1. Either you take an area the size of France out of the presently farmed area in order to accomplish this goal (which is pol. difficult (!) in an environment of rising produce prices)
OR
2. You create new agricultural area the size of France. This is theoretically possible - just wondering tho, where are you planning on getting the water for it?
OR
3. You could create a Carbon Tax in Kind (i.e. payment to be paid in carbon) to be placed on all agriculture and then systematically build up the soils of run down areas with the procedes...
I could continue my comments, BUT..
btw, wouldn't this post be more appropriate on a drumbeat?
Cheers, Dom
---
Just remember the Golden Years, all you at the top!
The great thing about the EPRIDA model of production is that it DOES NOT take land out of production-- it actually makes the land more productive, by generating carbon negative fertilizer to go along with the biofuels:
http://www.eprida.com/home/index.php4
So, not only do you sequester carbon, you do it in a way that makes the soil more productive, long term, and frees farmers from the need to buy fertilizers generated with fossil fuels. The Amazonians were doing this thing 4000 years ago, just not generating the biofuels along with it.
Yes, terra preta was and is a great method.
A real silver bullet.
I'm quite curious how modern man will screw this one up.
(who, me? negative? naaaaaaaa......)
IMO, what our mathematical modeling primarily shows is the rise and fall of the large oil fields. Regardless of one's political philosophy--Ayn Rand capitalist or Marxist Communist--we tend to find the big fields first. And the smaller fields that we find post-peak can't offset the declines from the old, large fields--whether it is the East Texas Field decline in Texas, or the Ghawar Field decline in Saudi Arabia.
One of the more bizarre discussions I had in the past few months was whether world oil production could grow if every single oil field that has ever produced one mbpd or more of crude oil is definitely in decline.
"One of the more bizarre discussions I had in the past few months"
Yes, however you are surely now ready to admit that your earlier prognostications are almost singly responsible for the depleting credibility of the peak oil community.
Are you kidding?
So far everything that is happening over the last 2 years has consistent with what WT has been saying. Don't know yet if this will continue to be the case, but so far nothing is challenging the peak oil community credibility except CERA and other's CLAIM that the peak is still to come. Over a year since total liquids peak, over 2 yrs since oil peak - if the numbers aren't exceeded in the next couple of yrs I think the game is up.
Way to go, WT!
I personally hold you singularly responsible for the decline and fall of Western Civilization. No wait I mean the Western Front.
No no wait I'm confused. (sips more coffee, laced with pathosanol, jots note to self: diol substitution? )
I have a rendezvous with death...
Remember WT has presented two things the Export Land model and ELP. It looks like as usual we are going to make the right decision way to late but ELP is not a bad life especially if coupled with the electric rail proposals.
I for one will not be sad to see the infinite growth lie to be exposed and a saner more realistic way of living take its place. So the ELP message needs as much exposure as ExportLand.
Its saddening that we are so arrogant and wasteful that it looks like millions if not billions will die because we are wasting our current oil supplies feeding the dying infinite growth propaganda machine.
The only thing I can say is that the Third world is as guilty as the first of turning its back on sustainable living so they share in the blame its not just wasteful Americans.
But hopefully ELP and electric rail will become important soon so don't forget WT second message from the mount or more apt the plain :)
The third world ha been duped into believing that they can all live the American model, They are reaching or this goal in india and china, the reality is that the world can not support another major first world economy based on the current model of buy bury and waste resources.
A perfect example of this is made in a recent TV show in Ireland Future Shock: End of the Oil Age at http://www.rte.ie/tv/futureshock/
While Ireland is not a poor country anymore, it was so just a generation ago, the country has so emulated the American model that it is has gone to a very different place than it was. From a country that while poor was basically starting from scratch in the 70s and 80s, the road that they went down was one of suburbia and sprawl Dublin is getting bigger than la with a 7th of the population. As a tabla blanca the planners and government could have gone down the other path but there was no obvious need to do so.
The blame goes to the planners and oil execs who knew as far back as the 70's that peak oil was a reality. How much of the suffering that is going to occur in the future could have been avoided if big oil had let onthat the future was not as energy rich as they let on.
So it's the third world that has been duped? Somehow I thought it was the first world that has been duped into believing that everything can continue just as it is. I haven't seen any big move away from SUV's, cheap airfares, weekend vacations in the sun, driving to 7-11 for a slurpee, fresh flowers from Africa, my entitlement to a 4,000 sq ft home, cars for the kids, ATVs, living in Phoenix or Las Vegas, etc etc (all parts of our non-negotiable lifestyle that need buckets of energy). So whether there are Katrina effects or not we have some nasty big problems ahead of us. And you think it was a tough sell just trying to get PO on the agenda. Now try to explain that maybe we have also had Peak Lifestyle.
The point is everyone is guilty of drinking the kool-aid.
Certainly if the third world had not tried to follow in the footsteps of the first world and rejected aspiring to the American dream you outlined and instead invested in sustainable high tech they would not be getting the shaft now.
Simply because they waste less does not mean they made the right decisions and I'm sure given the chance they would be just as bad as any American look at the consumption of China's growing middle class. We are all pigs just some are skinner pigs.
I'm sure the peak oil message is not going over any better in the third world than the first and ELP is a hard sell to those who should adapt the most.
Put it this way the third world countries tend to have reasonable natural resources they could have easily leveraged those to buy/build learn technology/medicine to create a ELP culture.
They did not.
No disagreement from me, the cities like those you mentioned as well as Orlando, are unsustainable in an energy scarce future, Take away cheap AC and water from them and they will be very harsh places to live especially if you live in a house designed after the advent of AC. Even if the power goes of for a few hours in one of these homes on a day in the summer it takes a couple of days for the house to cool off again at full AC.
Peak Lifestyle is what the RTE documentary is all about but of course much of what is said can apply to the new cities of America.
Its indefatigable ignorance as a cultural choice. Until the peak lifestyle becomes apparent to enough people that the opinion makers catch on to attract and point the masses attention. Which is ALWAYS too late . . . http://newenergyandfuel.com/ . . . So you're right, peak lifestyle was and is shrinking for many right now. With more to come of course.
umass82 -
Jimmy Carter knew - and he told everybody. Actually, everybody knows that everything will have a peak, and they always have known. But, in the 1970's, no one had a clue as to when peak oil would occur worldwide - just WAG's. Right now, the world is running out of 100's of key items, but no one "knows" when the real problems will begin, oil excepted, because of the size of the oil market and the attention it gets.
JC did try to wean the US of of foreign oil, it is one of the things that cost him the election in 1980. The US did not want to deal with this perhaps what we have here is a ostrich feedback loop, Politicians will not try to force the country to change because hey believe it is political suicide, and because there has been little leadership on this issue then the country is not going to make the changes needed,
I do not believe that there is a real awareness on this issue. I believe that people just do not want to know, the reality is too much for the soccer mom and dad crowd.
That is what doomed JC's reelection bid people did not want to hear gloom and doom they wanted it to be morning again on America and for a while perhaps it was but at the expense of so much.
Awareness it seems will only come when it is too late. The days of a cornucopias society are of course limited, the commodities markets are a reflection of this from iron to copper etc et. It took a lot to convince people on global warming, and still some do not believe in it or do not see it as a bad thing, more days at the beach, long term this will screw us but at least there is some awareness of it, however PO is a train wreck that is going to hit soon and the lack of government and media attention is astounding.
toilfor oil-
That seems odd that you should say the peak oil community has decreasing credibility, as it appears the opposite is true to me. Peak oil is being mentioned with more regularity in the mainstream media, and even the National Petroleum Council is using some of the charts with ASPO predictions on them .
Which of WT's prognostications do you consider as depleting credibility, and why? Or did you just post this as a gratuitous ad hominem attack? Bob Ebersole
Uuucchh..uumm, he grunted, as though clearing his throat.
WT-
when did you start making your first "prognostications"?
-----
Just remember the Golden Years, all you at the top!
Probably January, 2006, regarding net oil exports, followed up by work regarding Saudi production specifically, and overall world production.
Well then, which "earlier" forecasts do you think he would be talking about? The ones in the early '90s?-)
Are we slow to recognize some big fields? I've become curious about esitmates of 400 bbl in the Bakken formation. You can read the Leigh Price paper here.
Chris
It's not oil; it's shale. It needs extensive energy-intensive processing to be useable. There is no way it can be ramped up quickly enough- It's the size of the tap that counts, not the size of the tank.
Plus it would be environmentally catastrophic.
Actually, not so far as I can tell, the formation is shale but it drips oil which is recovered as oil using horizontal wells. The claim then is that there may be 200 bbl recoverable.
Any oil is catastrophic at this point. I'm just wondering if we could be in a situation where large fields exist but we just don't recognize them as quickly?
Chris
md solar
Chris,
There's lots of oil in the world. But what makes an oil field economic to produce is the speed at which it can be recovered from the ground and the cost of drilling and production.
When deciding whether to invest in an oil and gas project a company looks at how quickly they will get their money back from drilling and completing the well and the total expected profits from the well. As prices for oil go up, lower volume wells become more profitable.
Right now stripper oil wells in Texas sell for approximately $50,000 per barrel of oil per day, which should pay out in about 48 months. There's some other considrations, too. Low volume wells are very hard to sell unless someone has some other wells located close by because of the labor involved in operating the wells. Somebody needs to check the tanks and repair equipment as it breaks down,call for the salt water disposal truck and generally at least look at a well every day.
But looking for overlooked and bypassed oil is what our friend WesTexas does for a living. I'm looking in old oil fields for oil that has been left stranded when the wells became uneconomic about 50 years or more ago when oil was $2 or $3 a barrel. there's plenty of oil left, but its not able to be produced in volumes big enough for the car culture to continue using internal combustion engines. Bob Ebersole
Hi Bob,
Thanks. From what I've been reading, getting this oil requires a new way of drilling but it would count as a large field at 200 billion barrels recoverable. Apparently production is increasing rapidly with some oil costing only $5/barrel to produce in Canada. So, I wonder if we are seeing a slower recognition of big fields just because more detailed geology is needed. Since so much of the analysis depends on the behavior of large fields, this might have a large effect on conclusions about decline. If we are seeing slow recognition rather than slow discovery then the discovery rate may not be as low as assumed.
Chris
Essentially a correct assessment of the large field/small field conundrum.
In a presentation I am doing I show that the "first peak" of UK offshore C+C production was accomplished with 32 fields, 75% of which were more than 2 million cubic meters production in 1985 with the largest (Forties, Brent, Ninian, Claymore, Thistle, and several others) past peak. Just the first 3 fields on that list have production 1/4 of the UK's offshore production since 1975.
In the lastest peak (1999), the combined contribution of 136 fields was required to exceed the 1985 peak and that just barely by just under 2 million cubic meters for the year. For 2006, the number of fields had increased to 171 with even more in 2007, but the peak(s) are long since past.
While the Forties field continues to produce at a rather prodigious rate compared to the other fields online in 2006(beat only by the Elgin and the Schiehallion fields) , it really is looking like Brent is going away for good over the next couple of years. Each of the fields shows a relatively quick peak and then decline. The current "buzz" is Buzzard, but given the history in this region, it's output will be short-lived.
A similar review of Norway's production is also possible (though I have the information, I just haven't had the time to turn the crank on the data yet).
I think I would have the same reaction (bizarre) as you did.
If you look closely at Norway's production you can see also two peaks:
Hi Khebab,
Powerful graph!
Thanks,
Dave
Cool graph.
This seems to show that the swarm effect I've proposed for smaller fields is real esp the offshore developments.
Basically since the 1980's-1990's a lot of the production has been from small generally offshore wells that are produced quickly and shutin when at best secondary recovery is finished. These well will never be produced to the extremes seen in Texas. In this graph you get a beautiful example in my opinion of the swarm effect acting in aggregate as a giant field. And its clear from your graph that the swarm of small offshore fields developed of the last few decades may in aggregate be in decline.
So not only do we have the big fields in decline which will ensure that we are probably past peak. But also I believe we are facing fairly serious declines in this swarm of small offshore fields which make up a significant amount of production today.
The key point is that these fields decline quickly but new discoveries and the support of the giant fields has allowed us to grow. With both of these exhausted the aggregate decline rate of the small offshore fields should be very steep and play a large role in the overall global decline rate as we past peak.
We'll call it "Twin Peaks." Oh, somebody already used that.
Thanks. Iw was retty sure it would look something like the UK curves.
I also see two peaks in the UK North Sea discovery curves. One strong one and a later broader blip. This plus the disturbance the 1988 Piper Alpha platform fire can cause a purely extraction limited valley between the production peaks.
Khebab,
are there other countries/areas that follow this pattern when split (eg US, russia, the whole world) - large fields peak first, sum of small fields peak second?
Andrew
Perhaps, in some cases, this is what the "dog-leg up" pattern is really showing...the addition of smaller wells all at once.
The infamous dogleg :)
Its and obvious example of a technical change influencing production rate and thus HL results. A more insidious problem is that this swarm of small fields has generally been developed later with more advanced extraction methods so we don't see the "dogleg" from them. In general this means that HL is probably systematically high in its URR estimates for the smaller fields. In effect URR for large fields and URR for many small fields esp ones developed using advanced technology are not equal. The small fields have a bias and URR is over reported and post peak decline rates are probably under reported.
The dogleg highlights a problem with HL thats actually systematic through the data set if its not corrected for small field/technical bias.
Now of course the big question is how big is this correction. My opinion is its fairly large and we are of by a substantial amount especially for global production since swarms of small fields generally offshore produced using advanced methods make up a large portion of current production.
Taken in aggregate we can consider these swarms as another super giant field or sets of super giants divided by region.
Not only are the real giant fields declining but these swarms are also in steep decline and probably decline faster than a real giant field.