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TrendLines Research monitors the major forecasts
of peak oil depletion from around the globe. The top 19 (and their
average) are plotted on a graph and each month this Tier-1 presentation is
posted to the website. The remainder are plotted on a Tier-2 chart.
For purists, a third chart plots the only 4 forecasts of the narrow definition
of Regular Conventional Crude (light sweet). For posterity purposes, a
final chart tracks the noteworthy historic but failed predictions since 1956.
Peak
Oil:
94-mbd
in
2024
June 30 2010 ~
Below, this month's revision: (a) updates Tier-1 Outlooks by
IEA,
Peter Wells & our own
Hutter Peak Scenario 2200.
We're pleased to report 2010 global production is on a pace that
exceeds the 85.4-mbd annual record set in 2008. Indeed a new quarterly
record was set in 2010Q1. Monthly flow, which had slipped from its
86.7-mbd record of July 2008 record to only 83.2 (Jan-2009) at the depth of the
Recession era, is poised for a new record in January. See the
Monthly Report
for higher resolution charts of current extraction. Historical analysis of
Crude & Gasoline Price components & future target prices (out to 2035) can be
viewed via our Gas
Pump
&
Barrel Meter
charts. See chart comparing our projections with long term
Crude Oil Price Forecasts
by Deutsche Bank, EIA, IEA, IHS, Jeff Rubin, Matt
Simmons & theOilDrum.
Backgrounder
In 1972, the Club of Rome attempted to shock
stakeholders and policy makers with its Limits to Growth study forecast of
All Liquids Peak Oil: 117-mbd in 1995. Their attempt at
awareness that natural resources are finite and in jeopardy with a growing
global population was underscored in 1974 with M K Hubbert's similar prediction:
111-mbd in 1995 (excl NGL, deep sea, polar, Orinoco & tar sands).
Because OPEC manipulation invalidated both these
projections, Colin Campbell attempted to update the long term prospects
for All Liquids. The Irish geologist stunned many when in 1989 he
declared that All Liquids flow (65.5mbd) would never again re-attain its 1979
pre-crisis Peak of 67-mbd (see all 3
charted). Well, he was very wrong (86mbd today!). This
episode made it quite clear that the uncertainty & price volatility caused by
such pessimistic reports (even by well-intentioned professionals) required
addressing by the energy sector.
In that regard, we saw OECD's IEA, USA's EIA,
OPEC and major IOCs step forward with their own annual & bi-annual long term
projections in an attempt to set the record straight and stabilize the
marketplace. It didn't happen. As the ranks of McPeaksters were
swelled by a growing element from the lunatic fringe, their
well-intentioned message was hijacked and discourse deteriorated to the realm of
economic and social collapse as the world runs out of oil. As the rhetoric
escalated, we thought it would be constructive to provide a comparative platform
for these opposing views of the future.
TrendLines Research has been analysing the
world's very best All Liquids long term production profiles (and the
not-so-good ones) since 2003. Our database includes six decades of
forecast studies. A year later we commenced to share these results at our
website.
Back in 2005, the 7-model Average indicated a
94-mbd PEAK in 2020. Our not-so-hidden agenda has been to provide a
venue where collaboration and comparison encourages a merging of the
pessimistic/optimistic camps. After screening hundreds of scenario
proposals, we are humbled with this project's contribution to the narrowing of
the spread by an incredible 2.6-mbd/yr: reduced from 41-mbd (Campbell
85 &
CERA 126) in 2005 to today's 28-mbd (Husseini/Laherrère 86 &
EIA-Sweetnam 114) spread.
Interested in who had the best forecast a dozen
years ago? Scroll to
our Top-16 Vintage Predictions
Scoreboard.
Today's Model Reviews:
IEA gave guidance on two fronts this
month. The MTOMR raised its 2015 signpost by 1-mbd to 92. The Energy
Technology Perspectives 2010 gives us the first look at mid-Century energy
status under the Copenhagen aspirations. After a 105 Peak in 2030, ETP
projects 2050 flows will be a mere 74-mbd ... down from an inferred 95-mbd in
WEO.
Renewables will comprise 40% of primary energy in
2050. Electric power generation will include 48% renewables and 24%
nuclear.
Middle East specialist
Peter Wells has heavily
slashed his 2020 peak: from 2008's 101.5 estimate to only
93-mbd in this Spring's update, citing a 48-Gb cut to Saudi Arabia's
URR (345-Gb).
A favourite member of this 19-model Depletion study is of course my
Peak Scenario 2200.
The only depletion model that publishes
updates monthly, the current revision
reflects a single factor: (a) 75-Gb decrease (mostly Kerogen) of our URR
estimate.
The model concludes the onset of terminal production decline can be brought on
by either (a) constraints in securing sufficient proven reserves, or (b) due to
rising Underlying Decline Observed surpassing the trend of annual New Capacity
installations. PS-2200 pegs dates on these two events: 2051 &
2031 ... the latter establishing its 2030 Peak (102-mbd).
From 2004 to March 2009,
PS-2200
& Colin Campbell's Depletion Model were the sole global models conducting
monthly analysis of the narrowly defined Regular Conventional Oil (light sweet
crude). Upon Colin's retirement last year,
PS-2200
uniquely carries on that role. Their opposing views (see
RCO chart) of light sweet crude's future path is representative of
the rift between the optimistic & pessimistic camps.
RCC peaked @ 68-mbd in 2005, and production has been declining at a rapid
2.6%/yr. Whereas
Campbell
foresaw this rate of decline continuing unimpeded 'til 2030, resulting in a mere
36-mbd flow by 2030,
PS-2200
projects a softer 0.9% after 2009 and 55-mbd flow in 2030. Hutter's
contrary position is twofold based: (a) rising surplus capacity in OPEC &
Russia masked the apparent decline; & (b) the recent high Underlying Decline
Rate Observed (UDRO) of 3.1% in 2008 was Recession-inspired, and EOR &
Capacity development activities are driving down UDRO towards an ultimate 2.5%
low in 2012. Whether or not this year's RCC flow deteriorates or moderates
makes 2010 the watershed year in foreshadowing All Liquids future path.
And thus far, light sweet extraction exceeds 2009 flows by 0.6-mbd.
The
Peak Scenario 2200 June Update proposes
that policy makers must target their strategies for substitution of
transportation fuels at the 2050-2065 time frame. The revised projection
forecasts All Liquids production will commence a potentially catastrophic
2.8% decline rate in 2050. Underlying the plunge is RCC's entering a sea
change R/P 10 environment typical to a petroleum province's final exhaustion
phase. At this juncture, with NGL's having peaked in 2043,
non-conventionals meteoric rise can no longer offset RCC's demise.
The update further elaborates
on its bold hypothesis that Underlying Decline Rate Observed (UDRO) rises
and falls with the American Recessions. It contends UDRO has just
demonstrated this phenomenon for a sixth time
since 1970. After troughing in 2012 as mentioned, UDRO should climb back
to 3.5% during a probable 2017 Recession. The model estimates 77-mbd of
Capacity was added since 1970 to address Underlying Decline Observed, and
a further 58-Gb will be required for that purpose by 2030.
The rippled profile results from the harmonics of
the underlying 7 unique flow streams. Visit our
PS-2200
venue for lots more details and charts on URR linearization, non-conventional
dynamics, Underlying Decline and the inherent flaws (and myths) incorporated
within McPeakster
WAG's.
Further to the 19 Tier-1 models, 16
Tier-2 &
Hail Mary
outlooks are tracked regularly. For discussion and posterity purposes, 4
Regular Conventional Crude projections
& 11
Invalidated Outlooks are
presented as well. But, it is the Average of the 19 Tier-1 models
that reveals the very best guidance, such as:
Future Extraction
Rates:
2008: 85.4-mbd
2009: 84.2
2010: 85.9 (pending)
2024: 94 (Peak Year & Peak Rate)
2032: 92 (50% Extraction of URR)
2041: 85 (first year with flow less than today)
2050: 77
2060: 67 (fifty yrs from today)
2075: 55
( 9.2-billion peak of global
population)
2100: 35
2110: 29 (100 yrs from today)
2200: 10 (flows limited to Bitumen/X-Heavy, GTL, CTL & renewable
BTL)
2300: 5-mbd (flows limited to GTL, CTL & renewable BTL)
(June Depletion Scenarios update cont'd above...
)
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Estimated Ultimate Recoverable Resource (EUR-URR)
The Avg URR/EUR Estimate for the Tier-1
practitioners is 3,897-Gb when we deduct from the nominal average the volume
attributable to renewable BTL (biofuels-to-liquid) as calculated by the
Hutter PS-2200
model. It estimates a cumulative 554-Gb of BTL thru to Year 2300.
This net economic resource number compares rather well to the 3,785-Gb Avg
derived from our
URR Study
with its slightly different mix of practitioners.
TrendLines calculates Global Past Extraction
(to 2009/12/31) to be
1229-Gb for All Liquids, of which 1077-Gb is attributable to Regular
Conventional Crude (light sweet) & 4-Gb to BTL.
Exhaustion of the first trillion barrels of
All Liquids reserves occurred in 2002. Via the 19-model avg, the
second trillion will have passed by Year 2034; then the third by
Year 2074 (excl BTL). Annual flow will finally breach the
5-mbd threshold in Year 2300 ... signifying the virtual exhaustion
of fossil fuels. From that juncture, only BTL sourced
renewable liquids and the last vestiges of CTL & GTL provide
production.
Of the Tier-1 model
contributors, the lowest URR tally is the 2,439-Gb used by
Chris Skrebowski. The high is
the EIA-Sweetnam hybrid with its
9.0-Tb URR.
Peak
Date & Peak Rate
The 2024 94-mbd PEAK indicated by the 19-model
Avg rests atop a backdrop Plateau (defined as within 2-mbd of Peak Rate) running
from 2018 to 2032. As such, even minor Peak Rate variances of the Avg can
result in significant shifts of the PEAK DATE. Our first exercise in
averaging, using seven models, indicated a 94-mbd PEAK in 2020.
Depletion Scenarios' Updates since 2005 have highlighted PEAK DATE "average"
ranging from 2013 to 2030; and we have reported PEAK RATE "average" running from
91 to 96-mbd.
Today's Tier-1 models' Peak Date range
from
2011 (Sadad Al Husseini & Jean Laherrère) to the 2090
hybrid projection by EIA-Sweetnam.
June's forecasts of Peak Rate range from
86-mbd (Sadad Al Husseini & Jean Laherrère) to EIA-Sweetnam's
114-mbd.
We are humbled with this project's contribution
to the narrowing of the spread by an incredible 2.6-mbd/yr. Today's
high-to-low spread of 28-mbd (Husseini/Laherrère 86 & EIA-Sweetnam 114)
has been diminished from 41 (Campbell 85 &
CERA 126) just five years ago. While the pessimists have only upped
their forecasts by 0.2-mbd/yr, the optimists have in turn been dropping by
2.5-mbd/yr (trivia alert: if this unholy methodology continues, by 2018
the camps should merge with both agreeing to a Peak Rate of "94").
Depletion
A well, field or
province depletes from the first day it is drilled. The total
crude extracted from a field thus far divided by its original volume
is its status of Depletion. Based on the 19-model avg,
and excluding 4-Gb accrued BTL, the 1,225-Gb of consumed petroleum
divided by the 3,897-Gb avg URR reveals
global Depletion of 31% (to 2009/12/31).
The global
Gross Depletion Rate (31-Gb annually extracted liquids as a
percentage of global URR) is 0.8%/yr today. If measured
as a percentage of remaining resource (2,672-Gb), the Net
Depletion Rate is a higher
1.1%/yr.
The consensus 2024
PEAK occurs at 44% Depletion. The 50% crossover of the
inferred URR avg will occur in 2032.
Underlying Decline Rate Observed (UDRO)
The IEA WEO-2008 calculates
that the Natural Underlying Decline Rate is 5% in post-peak
Regular Conventional Crude fields and as much as 15% in
non-conventional post-peak Deep Sea fields, for a weighted avg of
9%.
A Producer's EOR activities can
improve extraction results and diminish the loss factor.
After EOR activity, IEA calculates the loss to be 6.7% for
Conventional & Deep Sea fields.
I call this net
absolute figure, more applicable to our depletion studies,
Underlying Decline Observed (UDO). It is
expressed in millions of barrels per day (mbd) per annum. More
commonly, analysis of RCC or All Liquids is conducted in
percentage terms per time interval - appropriately the Underlying
Decline Rate Observed (UDRO). To maintain a
production plateau, Production Capacity must be incrementally
increased each year to match UDO loss. And, when the
New Capacity trend no longer exceeds the UDO trend, Terminal
Production Decline will commence.
Since November 2007,
Peak Scenario
2200
has uniquely provided regular monthly
reporting of
Global UDO/UDRO
status. Its long term analysis found that over the last 40
years, UDRO has averaged 2.7% annually. This means that of the
119-mbd of new facilities built since 1970, 77 served to address UDO
& only 42-mbd raised Extraction Capacity from 51 in 1969 to 93-mbd
today. The UDRO rises and falls in surges coinciding with the
American economic recessions. Below, the PS-2200
finding is compared to short/medium term practitioner estimates of
present/future All Liquids UDRO:
1.5%
- CERA (2009-2030 Avg)
1.9%
- Adam Brandt (2007 - sole peer-reviewed contribution)
1.9%
- IEA (2008-2030 Avg)
2.9%
- Freddy Hutter's
Peak Scenario 2200
- 2010 ytd (rising to 4.7% by 2050)
4.1%
- Matt Simmons (2009-2030 Avg)
4.2%
- EIA (2009-2030 Avg)
4.2%
- Jeff Rubin (2009)
4.5%
- OPEC (2008)
4.7%
-
Chris Skrebowski (2010)
5.0%
- Deutsche Bank (2009, rising to 8% by 2030)
5.0%
- Total (2009)
5.2%
- Schlumberger (2009-2030 Avg)
5.25%
- Sadad al Husseini (2009)
6.0%
- PFC (by 2030)
7.0%
- UK Energy Research Centre (2009)
9.0%
- consensus at theOilDrum & PeakOildotcom (2009)
CERA's 2009 study has
determined that flow from currently in-place Capacity will
deteriorate by only 31-mbd in the next 21 years. In its
recent WEO-2008,
IEA
presumes 45-mbd of new Capacity is required to sustain a plateau
'til 2030. My own PS-2200 projects a figure of 58-mbd
is more probable.
Post-Peak Decline
The absolute
volume of decreased annual production in a post-peak well, field or
petroleum provinces is its Decline; often quoted in
percentage terms as an annual Decline Rate. The
TrendLines 19-model avg declines at
0.7% per annum measured from the 2024 Peak to Year 2050.
Alternatively, when calculated from PEAK to the 10-mbd exhaustion
threshold in Year 2201, it will average
1.3% annually. It is a very manageable reality when
compared to the most aggressive rate mathematically possible (4.9%)
as illustrated in the hypothetical
Worst Case Scenario.
Among our Tier-1 practitioners,
predictions of First Year Production Decline range from Year 2012
(Sadad Al Husseini & Jean Laherrère) to Year 2091 by
EIA.
The Avg Production Decline Rates to exhaustion
range
from
OPEC's
1.0%/yr to
4.2%/yr shared by both EU/WETO &
Chris Skrebowski.
(June Depletion Scenarios update cont'd above...
)
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Worst Case Scenario
This hypothetical projection was introduced in Feb/2008 to put in
perspective the ludicrous & persistent "running out of oil"
comments by McDoomer &
Lunatic Fringe
elements within the
McPeakster
fraternity!
Using the lowest recognized estimate of All Liquids URR/EUR (2021-Gb by
EWG/LBST 2008), and assuming things collapse after 2010 (85.7-mbd), this
projection depicts the Average Decline Rate (4.9%)
required mathematically to completely exhaust this very conservative Resource
figure.
Significantly, this exercise reveals that half (42.5) of this year's 85-mbd All
Liquids production rate will still be flowing in Year 2034, and in fact won't
dip below 10-mbd until Year 2054. Finally, All Liquids
exhausts in 2083. A post-peak production decline rate higher than 4.9%
"strands URR" ... and that phrase is an oxymoron. Ignore all pundits that
suggest a decline rate of post-peak production of over 4.9% in their musings.
And, please read their alarmist
TEOTWAWKI forecasts with these hard numbers in mind...
TrendLines Vintage Predictions Scoreboard
|
Practitioner |
2008 Forecast
(actual
85.4) |
2009 Forecast
(actual
84.2) |
2010 Forecast
(pending
86.0) |
URR
(Gb) |
3-yr Error
Score |
|
Jean Laherrère '97 |
85.0-mbd |
85.5-mbd |
86.0-mbd |
2700 |
1.7mbd |
|
Jean Laherrère '99 |
86.0 |
86.0 |
86.5 |
2750 |
2.9 |
|
EIA 1995 |
86.0 |
87.1 |
88.4 |
2273 |
5.9 |
|
Peter Odell Y2k |
88.2 |
89.5 |
90.7 |
6000 |
12.8 |
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Michael Lynch '96 |
88.0 |
90.0 |
92.0 |
2273 |
14.4 |
|
EIA 1996 |
90.0 |
91.0 |
92.1 |
2273 |
17.5 |
|
EIA Y2k |
89.6 |
91.4 |
93.2 |
3000 |
18.6 |
|
EIA 1999 |
89.8 |
91.5 |
93.2 |
3000 |
18.9 |
|
Colin Campbell '99 |
92.6 |
93.0 |
91.7 |
2625 |
21.7 |
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IEA 1995 |
91.5 |
93.3 |
95.2 |
2300 |
24.4 |
|
EIA 1998 |
91.3 |
93.4 |
95.5 |
3000 |
24.6 |
|
IEA Y2k |
91.2 |
93.6 |
95.8 |
1919 |
25.0 |
|
EIA 1997 |
92.6 |
94.1 |
95.6 |
3000 |
26.7 |
|
IEA 1996 |
93.3 |
95.7 |
97.1 |
2300 |
30.5 |
|
IEA 1998 |
96.2 |
97.1 |
98.0 |
2300 |
35.7 |
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Colin Campbell '89 |
36.7 |
35.6 |
34.5 |
1575 |
148.8 |
Post OPEC-Crisis
forecasting of an All Liquids PEAK commenced in
1989. Our archive of pre-2001 projections reveals
that the
Jean Laherrère
1997 Outlook (France)
is the current title holder for best overall Vintage
Predictions, by merits of its least cumulative errors
over the three year span.
Second place goes to the
Jean Laherrère
1999 Outlook &
third place to the
EIA 1995 Int'l Energy Outlook (USA).
We also add 3 honourable
mentions to the
Jean Laherrère
1997 Outlook
for its best forecast for all three of the monitored
years ... all of 'em being accurate to within 1-mbd!
(rev 9.1231)
Methodology revisions
a)
If an Outlook does not fully
address post-peak production Decline, a progressive decline rate (to ultimate
R/P = 10) is arbitrarily applied to exhaust its designated URR.
b) Outlooks exhibiting extreme "doglegs"
not reflective of conventional/non-conventional transitions, but rather created
by our reconciliation with URR risk downgrade to Tier-2
status
c) To improve the integrity, accuracy and
due diligence of both the Scenarios illustrated and more importantly their
cumulative Average, Outlooks with unreasonably optimistic medium term flow rates
have been routinely disqualified since Feb/2008. In the spirit of
transparency, TrendLines Research has been publishing the qualifying threshold:
via current MegaProject analysis, we calculate the 2014 potential flow rate to
be 96.8-mbd (incl Surplus Capacity and UDO discrepancy), albeit the
probable rate is 90.0mbd (PS-2200) or 90.2mbd via IEA 2009 MTOMR.
We suggest that inferred flow rates that breach
the 96.8-mbd 2014 threshold to the upside are seriously flawed.
This newer rate gives 6.8-mbd latitude above the probable 90-mbd target rate.
We feel this is overly generous but grants consideration to differing opinions
by modellers wrt Surplus Capacity & Underlying Decline Observed.
d) Where a practitioner provides two or
more Outlooks, we often use discretion to feature the more conservative version
& their "Hail Mary" scenario is relegated to the Tier-2
presentation.
e) Scroll down to view
Footnotes for:
Tier-1 Scenarios,
Tier-2 &
"Hail Mary" Scenarios &
Invalidated Archive
Scenarios.
f) Scroll further for the 1989-2009 Colin
Campbell Depletion Model
tracking,
Regular Conventional Crude tracking
& Excluded Practitioners
g) For comparative purposes, all Scenarios
are adjusted to the 2009 EIA All Liquids baseline, and thus, their Peaks
and mileposts may vary from published data
h) In the interest of data integrity
for the 20-model TrendLines Average, Outlooks may be downgraded to Tier-2 after
36 months of inactivity.
Underlying Decline Observed (UDO),
Underlying Decline Rate Observed (UDRO) & Underlying Decline Rate (UDR) are
terms coined by Freddy Hutter of TrendLines in our 2008/11/12 & 2007/12/19
Depletion Scenarios updates
McPeakster:
coined by Freddy Hutter of TrendLines in our 2008/2/11 Scenarios update
McDoomer:
coined by Freddy Hutter of TrendLines in our 2009/1/23 PS-2200 update, but he
originated the term at the PeakOildotcom forums
in June 2008
Demand Destruction Barrier was coined by Freddy Hutter in
the November 2009
Barrel Meter
Discussions.
This media release comprises the highlights of a
broader analysis & charts available at our website each month.
Click here
for an archive of releases since 2004.
Click here for an archive of charts only since
2004.
And, please visit our 21-model
URR Estimates
venue for more on this topic. Please
email me
if u can suggest a worthy Presentation candidate, new Outlooks, questions,
comments or permissions.
Thanx to all that participate and provide feedback...
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Regular
Conventional Oil Scenarios
Campbell drawn from Retirement for 2010 update
July 29 2010 ~ There have been only 4 modellers worldwide that study
Regular Conventional Oil ... the light sweet crude: Albert Bartlett
(USA), Colin Campbell (Ireland), M King Hubbert (USA) &
TrendLines' own Freddy Hutter (Yukon Canada).
Hubbert's initial RCO
projection commenced the discourse on Peak Oil in 1956. It's
Y2k Peak Date was intuitive but the model was flawed by its lowly
1,250-Gb estimate of URR. His 1974 update boosted the resource
base to 2-Tb, a figure that is still relevant by modern standards,
but the second projection was truncated by OPEC interference the
following year...
A subsequent effort was the 1998
Bartlett
model with its forecast of a 73-mbd peak in 2004. In actual
fact,
RCO
extraction peaked in 2005 (68-mbd), while the midpoint of its
URR/EUR was crossed in January 2008. By the end of 2009,
production had deteriorated to 61.8-mbd.
Jean Laherrère & Colin
Campbell have been the sector's most stalwart peak oil study
practitioners. Both have openly shared their annual analysis
with fellow modellers for two decades. This month Colin came
out of retirement with a surprise update.
Campbell's 2010 Depletion Model still assumes RCO's
dramatic 2.5% production decline rate will continue unabated 'til
2030, but it increases RCO resource by 63-gb to 1,963-Gb. This is a
career high estimate for the DM.
Conversely, the Hutter Peak Scenario
2200
(the only other active model) projects a softer 1.5% avg annual
decline rate to 2030, with a resource of 2,064-Gb. While
Campbell forecasts the annual flow rate deteriorates to 35-mbd (down
1) by 2030, Hutter takes the position 47mbd (down 8) is more
probable. On the longer term, whereas Campbell predicts
the annual Decline rate will soften after 2030, and even more
post-2050, Hutter sees major resource constraint culminating
in an R/P 9 (10% decline) environment in 2051. Prior to that,
Hutter forecasts a secondary peak to 55-mbd while RCO
reserves are used to replenish waning arctic & deep-sea extraction
from 2030-2050.
The basis for the Hutter Peak
Scenario 2200
interpretation lies in its analysis that the four-year extraction
decline was actually a masking of reality by ever increasing surplus
capacity ... mostly by OPEC members. 2010 will be the
watershed year in determining which premise is correct. If
Campbell's hypothesis of continued aggressive decline of 2.5% is
in play, RCO should be only 60.2-mbd this year. OTOH,
if
RCO stays above that threshold, then the Hutter
position may be superior. And by extension, the scenario
with the correct interpretation will likely be rewarded with the
more accurate All Liquids projection as well. Thus
far in 2010,
year-to-date figures indicate there
has been a pause in the decline ... 62.3-mbd.
Using the proper historic narrow
definition of Regular Conventional Oil, these production
profiles exclude NGL, processing gains & the non-conventionals
(Bitumen, X-heavy, Arctic, Deep Sea, Biofuels, GTL, CTL & Kerogen).
Hence, we have excluded the wider "conventional" projections
by Guseo, Korpela, Kuwait University, Laherrère & Walsh.
RCO comprises only 73% of All Liquids production today,
and it is clear that NGL & the non-conventionals play an ever
increasing role. The
PS-2200 model projects RCO will be a mere 50.3% of 2030 All
Liquids, and will fall below 50% in 2054 ... a significant
threshold for posterity.
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Footnotes:
(rev
2010/3/31)
Tier-1 Scenarios Chart:
Pierre-René Bauquis (ver 8.0122) -
n/a
CERA (ver 9.1106) - Has
probably the second best database (IHS) of world's oil fields.
Consistently the most optimistic Peak Rate forecast since 2004.
Deutsche Bank
- Author Sankey models on premise Peak Demand in 2016 will precede
supply issues.
EU WETO-POLES
2007 (carbon constraint case) - n/a
EIA 2010 AEO (reference case - sweetnam hybrid) -
EIA's 1995 version sports the Third
best overall record on TrendLines long-term prediction Scoreboard.
At 9-Tb, boasts the
highest URR of all models.
ExxonMobil 2009 - n/a
Sadad al
Husseini 2007 - most pessimistic of Tier-1 practitioners:
Peak is 86-mbd in 2011
Freddy Hutter's
Peak Scenario 2200 - only model that
updates monthly; Energy
Analyst for TrendLines Research
IEA
(2009-WEO, 2010-MTOMR & ETP-2010 hybrid) - Assumes questionably low
1.9% Underlying Decline Rate Observed.
Jean Laherrère (linearization ver 10.0517) -
TrendLines Most Accurate 10-yr Forecaster in 2008 & 2009, and on
target as best in 2010 as well. Based on his two decade
studies of Linearization modeling, Jean's Model is the sole
mathematics curve-based Outlook in our
Tier-1 presentation, and was one of our
original six back in 2004.
Richard Miller
2009 (in practice scenario) - UKERC has assisted in
rebasing this Outlook to include NGL, CTL, GTL, Bitumen & BTL
OPEC 2009
(reference scenario) - n/a
PFC 2009 (ver 10.0309) - n/a
Royal Dutch
Shell 2008 (scramble scenario) - Major dogleg after
2200 represents renewable BTL production.
Nansen Saleri
(ver 8.0304) - may fail future robustness test
Chris Skrebowski
(ver 10.0202) - Renowned for development of the bottom-up
Megaprojects flow analysis. Until the 2010 version, worst-case
methodology had been subject to frequent upward revisions as new
facilities announced. Lowest URR estimate in Tier-1
Total
(ver 8.0602) - n/a
Turner, Mason & Company Consulting
Engineers (ver 9.1123) - Our newest member of the Tier-1
family
Peter Wells (ver 10.0412) -
Has probably the best database of world's oil fields (IHS +
proprietary)
TIER-2 & "Hail Mary" Scenarios Chart:
BP 2004
- Downgraded to Tier-2 only 'cuz it is stale-dated.
Brandt-Farrell 2009 -
Failed 2014 milepost test suggesting 105-mbd by that date (84 - 96
acceptable), production profile overly optimistic.
William Carlson
2007 (logistic analysis) - Excellent effort, but the Tier-1
Chart is limited to a single mathematical curve model contribution
(Laherrère preferred at this time).
EIA/Caruso
2005 -
Included in Top 4 most accurate 10-yr forecasts. Downgraded to
Tier-2 only 'cuz it is stale-dated. Also, this
is the Hail Mary version of EIA's multiple efforts.
Reference Scenario Sweetnam hybrid preferred.
EU 2007
WETO-POLES (reference case) - This is the Hail Mary
version of WETO's 2 scenarios.
Robert Hirsch
2009 - No serious modeling available. His effort is mainly
for pundit entertainment purposes.
IHS 2007 (ver 7.0109) -
Failed 2013 milepost test suggesting 103-mbd by that date (83 - 92
acceptable), production profile overly optimistic.
ITPOES 2010
- UK's Industry Taskforce Peak Oil Energy Security second report
abandoned its own science to produce a shameful agenda-driven
political document.
Rembrandt Koppelaar 2009 (rapid conventional depletion/
accelerated nonconventional growth or rd/ag scenario) - Downgraded
'cuz latest version shifts profile to below Worst Case Scenario
zone.
Kuwait Energy
2007 (ray leonard ver 7.0917) - Failed 2013 milepost test
suggesting 97.5-mbd by that date (83 - 92 acceptable), production
profile overly optimistic. Intentional "dogleg"
represents non-conventionals.
Michael Lynch 1996 - 7.3-Tb URR is largest of Tier-2.
4th best on the Vintage Forecast Scoreboard ... downgraded to
Tier-2 only 'cuz it is stale-dated.
Peter Odell 2009 - Fails some reconciliation tests.
Appears to be a conjecture-based update of better previous dated
models.
Fredric Robelius 2007 - Failed
2013 milepost test suggesting 98.5-mbd Peak prior to that date (83 -
92 acceptable), production profile overly optimistic. An
overly aggressive Decline Rate of 1.8% causes major production
profile "dogleg" after 2050.
Royal Dutch
Shell 2009 (blueprint scenario) - n/a
Michael Smith
2007 (ver 7.04) - Failed 2013 milepost test suggesting 101-mbd
by that date (83 - 92 acceptable), production profile overly
optimistic.
Wood MacKenzie
2007 - Failed 2013 milepost test suggesting 99-mbd by that date (83
- 92 acceptable), production profile overly optimistic.
Invalidated Scenarios Archive Chart:
Kjell Aleklett 2009 (ver 9.1109) - Erred by declaring 2008
was Peak Year
Samsam Bakhtiari 2003 WOCAP - Erred by a 2006 Peak of 81-mbd.
Also, overly aggressive
Decline Rate of 2.7% causes major production profile "dogleg"
after 2020. The most error-riddled effort, Bakhtiari
mistakenly built the model on ASPO's 1800-Gb Regular Conventional
URR platform instead of Campbell's 2900-Gb All Liquids URR.
Also integrity issue: upon failure,
claimed
it was
not an All Liquids model.
Colin Campbell 1989 - Erred by
declaring a 1989 Peak of 66-mbd. Listed for historical
significance purposes only. To be fair, this original All
Liquids projection was updated annually from 1999 onwards.
Colin Campbell 2009
(ver 90310) - Erred by declaring 2008 was Peak Year
Club of Rome's 1972 "Limits to
Growth" - Representing All Liquids, it has been misrepresented
as forecasting "running out of oil". Presented two years
before Hubbert conventional oil release.
In 1972, the Club of Rome commissioned the
MIT Globe3 model to design its long term outlook "Limits to Growth".
The petroleum projections within its global energy analysis seem to have
inspired MK Hubbert's 1974 major revision. Built on a 2.15-Tb URR, LTG
forecast a 117-mbd All Liquids Peak in 1995. Quick on its tail, Hubbert's
paper focused on Regular Conventional Crude only and projected a 111-mbd Peak,
also in 1995, but employing a 2-Tb URR void of NGL & non-conventionals.
Hubbert's previous paper had predicted a 34-mbd Peak.
Media references to LTG often mistakenly
quote its pessimist view of "running out oil" before the end of the century.
By depicting its findings in Invalidated Archive, it is seen that its
forecast for exhaustion was not 'til 2075 and clearly this reference is out of
context. It is but one more example that the alarmist rhetoric by zealots
within the McPeakster, McDoomer & Global Warming fraternities have much to do
with the marginalization of those movements by the Mainstream Media and policy
makers over the last two decades...
Duncan-Youngquist 1999 - Best
overall record on TrendLines Vintage prediction Scoreboard.
Eventually erred with a 2007 Peak of 87-mbd.
EWG/LBST 2007 - Erred by
a 2006 Peak of 81-mbd. Also, an overly aggressive Decline Rate
of 3.0% causes major production profile "dogleg" after 2030.
M K Hubbert 1956 - Erred by a
Y2k Peak of 34-mbd. Note production profile does not incl NGL,
Bitumen, X-Heavy, Polar Arctic, Deep Sea, CTL, GTL, Kerogen or BTL.
M K Hubbert 1974 - Erred by a
1995 Peak of 111-mbd. Note production profile does not incl
NGL, Bitumen, X-Heavy, Polar Arctic, Deep Sea, CTL, GTL, Kerogen or
BTL.
Jeff Rubin 2009 -
Erred by declaring 2008 was Peak Year;
Production profile fails robustness
test by not addressing post 2015 exhaustion. His effort is
mainly for pundit entertainment purposes.
Matt Simmons 2008 (ver
8.0416) - Erred by declaring a 2007 Peak of 84.4-mbd. Also, an
overly aggressive Decline Rate of 7.0% infers a 1575-Gb URR that is
449-Gb less than the most conservative recognized geologist estimate
(2024-Gb by EWG/LBST). His effort is mainly for pundit
entertainment purposes.
Tracking of Colin Campbell - ASPO/IE Depletion Model since 1989:
The highlighted years of distinction
are: 2008 (highest peak 97mbd), 2002 (2900-Gb URR high), 2009
(current update), 2004 (Colin Campbell's dark days call: 80mbd peak
coming in 2006) & 1989 (Campbell's initial 66-mbd scenario).
Since 2004, TrendLines Research has
conducted due diligence on the
Depletion Model for inclusion in our Peak Oil Depletion
Scenarios. This includes reconciling the model's production
profile with its URR. Because Campbell's
Depletion Model
newsletter graphic ends in 2050, it was unapparent to viewers that
many of the model's early All Liquids projections failed to
sufficiently exhaust URR.
The above post-2050 resolution chart
exposes the methodology errors of the Depletion Model in its early
days. In short, Campbell's low and/or early Peaks and/or harsh
post-Peak Decline Rates were too aggressive to consume all his
attributed URR, leaving production profile "doglegs" in 1999,
Y2k, 2001, 2002, 2003 & 2004. In the dark days of 2004, it
seems that Campbell was unduly influenced by zealot members of the
McPeakster fraternity: he corrected his doglegs
by slashing All Liquids URR from 2900-Gb to 2400 albeit the
URR Estimates 17-model Avg was 2942-Gb at the time. All
Liquids Peak was advanced from 2012 to 2006 & Peak Rate was reduced
to 80-mbd from 87-mbd. Motivations at the time were
questionable ... and i did!!
My intervention and vigilant scrutiny
led to better quality projections by Campbell in late 2005, 2006,
2007. Unfortunately, the Campbell 2008 Newsletters saw his
stated 2007 production trimmed from 87-mbd in January to a pathetic
81-mbd by December. As stated in the Tier-2 footnotes,
upon reconciling Campbell's data, we found that he justified the low
number by reducing NGL flow rates for 2007 & 2008 to a mere 5-mbd
from his previous 8-mbd tally. When the elusive 3-mbd NGL
error is added back, his figures are in complete agreement with the
84.4-mbd at EIA. Previously an eager and forthright
responder, it is with dismay that we report that to date, Colin
Campbell has refused to address this recent discrepancy brought to
his attention via our emails. (addendum: In his Nov 9
2009 model update, Kjell Aleklett has conceded that he erred in
advising Campbell that an NGL downgrade was in order as he finds EIA
has already made the BTU adjustment)
Excluded Practitioners:
These 5 contributors to the Peak Oil
debate have done excellent studies that unfortunately are limited to
more narrowly defined flows than All Liquids:
Regular Conventional
Crude - Albert Bartlett (USA) ... actually, see his
projection in our new
RCC Scenarios chart!
RCC + NGL - Ken
Deffeyes (USA), Seppo Korpela
(USA), Renato Guseo (Italy), Kuwait University
(Nashawi et al) & John Walsh (Canada)
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