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The Shale Revolution in the United States:

Myths and Realities


Briefing Washington D.C. May 22, 2013

J. David Hughes

Conventional Wisdom
The United States is on the verge of Energy Independence thanks to the Shale REVOLUTION. Shale Gas production will continue to grow for the foreseeable future (2040 at least) and prices will remain below $4.50/mcf for the next 10 years and below $6.00/mcf for the next 20 years. Shale Gas can replace very substantial amounts of oil for transport and coal for electricity generation. The way is clear for U.S. LNG exports to monetize the shale bounty. Tight Oil will allow U.S. production to exceed that of Saudi Arabia and U.S. imports will shrink to zero.
Hughes GSR Inc, 2012

U.S. Natural Gas Supply Projection by Source, 2010-2040, EIA Reference Case 2013
35
30
LNG Imports Alaska Associated Canada Imports Coalbed Methane Conventional Shale Gas Tight Gas Offshore

55% increase in production by 2040 50% of 2040 Production

Trillion Cubic Feet per Year

U.S. domestic consumption

25 Shale Gas 20 15 10 5 0 2010 Tight Gas Associated Conventional Offshore 2015 2020 2025 2030 2035 2040
Alaska

Year
Hughes GSR Inc, 2012
(data from EIA Annual Energy Outlook 2013, Tables 13 and 14, http://www.eia.gov/forecasts/aeo/er/excel/yearbyyear.xlsx)

EIA Projections of Gas Price and U.S. Production Compared to History, 1995-2040
21 18 35 30 25 Russian Gas Price Indonesia LNG Gas Price in Japan U.S. Henry Hub Gas Price EIA Forecast U.S. Gas Price ($2011) Actual U.S. Gas Production EIA Forecast U.S. Gas Production 20 15 10 5 0 2011 2015 2019 2023 2027 2031 2035 2039

Annual Gas Production (Trillion cubic feet)

Gas Price ($US/mcf)

15 12 9 6 3 0 1995 1999 2003 2007

Year
Hughes GSR Inc, 2012
(data from EIA Annual Energy Outlook 2013, EIA, 2012; International Monetary Fund)

U.S. Gas Production and Imports, 1998-2012


30 Net LNG Imports Net Canadian Imports Dry Gas Production 25

Net LNG Imports

Trillion Cubic Feet per Year

20

Net Canadian Imports

15

10

Dry Gas Production

0 1998

2000

2002

2004

2006

2008

2010

2012

Year
Hughes GSR Inc, 2013

(data from EIA current to August, 2012)

U.S. Dry Gas Production, 2010-2013


30

U.S. production plateau September 2012 - February 2013


25

Trillion Cubic Feet per Year

20

15

10

0 2010
Hughes GSR Inc, 2013

2011

2012

2013

Year

(data from EIA Natural Gas Monthly, May, 2013)

Shale Gas Production by Play, 2000-2012


25 Other Austin Chalk Bone Spring Bossier Antrim Niobrara Bakken Woodford Eagle Ford Fayetteville Marcellus Barnett Haynesville 40% of U.S. production

Billion Cubic Feet per Day

20

15

10

Barnett

Haynesville

0 2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 2012

Year
Hughes GSR Inc, 2012
(data from DIdesktop, September, 2012, fitted with 3 month centered moving average including data up to June, 2012)

Shale Gas Production by Play


7

Billion Cubic Feet per Day

6
5 4 3

Top 3 Plays = 66% of Total Top 6 Plays = 88% of Total

2
1 0

Shale Play
Hughes GSR Inc, 2012

(data from DI Desktop, September, 2012, for production in most cases through May-June, 2012)

Production from Top Five Shale Gas Plays Constituting 80% of 2012 Production (3-month moving average)
25 PA Marcellus Woodford Fayetteville Barnett Haynesville

Production ex-Marcellus peaked in January 2012

Billion Cubic Feet per Day

20

Marcellus
Woodford

15

Fayetteville
Barnett

10

Haynesville
0

Year

Top Five Shale Gas Plays Constituting 80% of Shale Gas Production, 2011-2012
Production
25
PA Marcellus Woodford Fayetteville Barnett Haynesville

30000

Number of Wells

Billion Cubic Feet per Day

20

Marcellus
Woodford

Number of Operating Wells

25000

20000

Fayetteville
15000

15

Fayetteville
Barnett

10

10000

Barnett

Haynesville
0

5000

Haynesville
0

Month

Month

The Shale Play Life Cycle


Discovery followed by leasing frenzy.

Drilling boom follows to meet held-by-production lease requirements.


Sweet spots identified, targeted and drilled off.

Gas production rises rapidly and is maintained for cash-flow despite uneconomic full-cycle costs.
Sweet spots become saturated and well quality and field production decline. Plays like the Haynesville become middle aged after just five years.
Hughes GSR Inc, 2012

Haynesville Gas Production and Number of Operating Wells, 2007-2012


9 4000

Gas Production (Billion cubic feet per day)

8 7 Gas Production Number of Wells

3500

Number of Operating Wells

3000 2500

6
5 2000 4 1500 3 2

1000
500 0 2008 2009 2010 2011 2012

1
0 2007

Year
Hughes GSR Inc, 2013

(data from DrillingInfo/HPDI, March, 2013)

Haynesville Type Gas Well Decline Curve


8000 7000 6000 5000 Yearly Declines First year = 66% Second year = 49% Third year = 41% Fourth year = 49%

Gas Production (Thousand cubic feet per Day)

4000
3000 2000 1000 0 1 6 11 16 21 26 31 36 41 46

Months on Production
Hughes GSR Inc, 2013

(data from DrillingInfo/HPDI, March, 2013)

Overall Field Decline for Haynesville Gas Production based on Production Decline from pre-2012 Wells
8 4000

Gas Production (Billion cubic feet per Day)

Number of Operating pre-2012 Wells

7
6 5

Production from pre-2012 Wells Number of pre-2012 Wells

3500
3000 2500

Overall Field Decline = 47%


4 3 2000 1500

2
1 0 2007

1000
500 0 2008 2009 2010 2011 2012

Year
Hughes GSR Inc, 2013

(data from DrillingInfo/HPDI, March, 2013)

Haynesville Average Production per Well


4000 3500 3500

3000

Average Production per Well (Thousand cubic feet per day)

3000
2500

2500

Number of Wells

2000 2000 1500 1500 1000 1000 Average Production per Well Number of Wells

500
0 2008
Hughes GSR Inc, 2013

500

0 2009 2010 2011 2012


(data from DrillingInfo/HPDI, March, 2013)

Year

Haynesville Annual Production Added per New Well


5000 4000 1000 3000 2000 1000 0 -1000 -2000 -3000 -4000 2009
Hughes GSR Inc, 2013

1200

Annual Production Added per Well (Thousand cubic feet per day)

Annual Number of Wells Added

800

Need 680 wells per year to keep production flat

600

400

Yearly Production Added per Well Yearly Wells Added

200

0 2010 2011 2012


(data from DrillingInfo/HPDI, March, 2013)

Year

Haynesville Sweet Spot Well Footprint

1 mile

Hughes GSR Inc, 2013

Type Gas Well Decline Curves for Top Five Shale Gas Plays Constituting 80% of Shale Gas Production
8000 7000 6000 5000 4000 3000 2000 1000 0 1
Hughes GSR Inc, 2013

Gas Production (Thousand cubic feet per Day)

Haynesville Marcellus Barnett Fayetteville Woodford

Average 3-Year Decline = 84%

3-Year Decline Haynesville = 89% Marcellus = 79% Barnett = 79% Fayetteville= 80% Woodford = 77%

11

16

21

26

31

36

41

46

Months on Production
(data from DrillingInfo/HPDI, March, 2013)

Overall Field Decline for Top Five Shale Gas Plays based on Production Decline from pre-2012 Wells
8

Gas Production (Billion cubic feet per Day)

7
6 5 4 3

Field Decline (per year) Haynesville = 47% Marcellus = 29% Barnett = 28% Fayetteville = 35% Woodford = 44%

Average Field Decline = 37%

2
1 0 2008

Haynesville Marcellus Barnett Fayetteville Woodford

2009

2010

2011

2012
(data from DrillingInfo/HPDI, March, 2013)

Year
Hughes GSR Inc, 2013

Pennsylvania Marcellus Production By County


Production (billion cubic feet per day)
1.8 1.6 1.4 1.2 1 0.8 0.6 0.4 0.2 0 Top 2 counties = 46% of production Top 4 counties = 68% of production Top 6 counties = 85% of production

County
Hughes GSR Inc, 2013

Type Decline Curves for Marcellus Horizontal Wells by County


6000 Bradford (24%) Susquehanna (22%) Lycoming (12%) Greene (10%) Tioga (10%) Washington (9%) Remaining 27 Counties (15%)

Gas Production (Mcf per Day)

5000

4000

3000

2000

1000

0 1
Hughes GSR Inc, 2013

11

16

21

26

31

36

Months on Production

Estimated Ultimate Recovery for Pennsylvania Marcellus Horizontal Wells By County


Production (billion cubic feet per day)
5 4.5 4
3.5 3 2.5 2 1.5 1 0.5 0 Remaining Well Life First 3 years 62%-77% produced in first 3 years. EIA EUR estimate of 1.56 bcf underestimates best counties.

County
Hughes GSR Inc, 2013

Well Footprint Dimock, Susquehanna County, PA

1 Mile

Hughes GSR Inc, 2013

Horizontal Well Quality Trends Top Five Shale Gas Plays


1.2 Marcellus Youth

Average Intial Productivity per Well Indexed to 2010

Fayetteville Early Middle Age


1 Barnett Middle Age

0.8

0.6

Haynesville Late Middle Age

Woodford Early Old Age 0.4 Marcellus Haynesville Barnett Fayetteville Woodford 2009 2010 2011 2012

0.2

0 2008
Hughes GSR Inc, 2013

Year
(data from DrillingInfo/HPDI, March, 2013)

Annual Capex Required to Offset Overall Annual Decline by Shale Play


Field Rank Number of Wells Needed Annually to Offset Decline 774 1507 561 707 945 222 239 699 1111 ~400 21 206 127 122 7641 Approximate Well Cost (million $US) Annual Well Cost to Offset Decline (million $US)

Haynesville Barnett Marcellus Fayetteville Eagle Ford Woodford Granite Wash Bakken Niobrara Antrim Bossier Bone Spring Austin Chalk Permian Delaware Midland Total
Hughes GSR Inc, 2013

1 2 3 4 5 6 7 8 9 10 11 12 13 14

9.0 3.5 4.5 2.8 8.0 8.0 6.0 10.0 4.0 0.5 9.0 3.7 7.0 6.9

6966 5275 2525 1980 7558 1776 1434 6990 4444 200 189 762 889 842 41829

(well cost data from various sources and is approximate)

The Reality Check

"We are all losing our shirts today. We're making no money. It's all in the red.
(Rex Tillerson, CEO of Exxon Mobil, Wall Street Journal, June 2012)

Hughes GSR Inc, 2013

Citigroup 2012 Projection of U.S. Shale Oil, 2010-2022 (limitless well locations and no declines)

Thousand Barrels per Day

Crude Oil and Other Liquids Production by Shale Play


600

Thousand Barrels per Day

500 400

Top 2 Plays = 81% of Total Top 5 Plays = 92% of Total

300
200 100

Shale Play
Hughes GSR Inc, 2012

(data from HPDI, September, 2012, for production in most cases through May-June, 2012)

Top Two Tight Oil Plays Constituting 80% of Production (3-month moving average)
1600 1400 Eagle Ford Bakken

Thousand Barrels per Day

1200

1000
800 600 400 200

Eagle Ford

Bakken
2009 2010 2011 2012
(data from DrillingInfo/HPDI, March, 2013)

0 2008
Hughes GSR Inc, 2013

Year

Top Two Tight Oil Plays Constituting 80% of Tight Oil Production, 2011-2012
Production
1600 1400 Eagle Ford Bakken 12000

Number of Wells
Eagle Ford Bakken

1200

Number of Operating Wells

10000

Thousand Barrels per Day

8000

1000
800 600 400 200

Eagle Ford

6000

Eagle Ford

4000

Bakken

2000

Bakken

Year
Hughes GSR Inc, 2013

Year
(data from DrillingInfo/HPDI, March, 2013)

Type Oil Well Decline Curves for Top Two Tight Oil Plays Accounting for 80% of Tight Oil Production
600 Eagle Ford Bakken

Oil Production (Barrels per Day)

500

400

Average 3-Year Decline = 89%


300

3-Year Decline Bakken = 85% Eagle Ford = 95%

200

100

0 1
Hughes GSR Inc, 2013

11

16

21

26

31

36

41

46

Months on Production
(data from DrillingInfo/HPDI, March, 2013)

Overall Field Decline Top Two Tight Oil Plays based on Production Decline from pre-2012 Wells
700

Oil Production (Thousand bbls/day)

600

Eagle Ford Bakken

500

Average Field Decline = 41%

Field Decline (per year) Bakken = 44% Eagle Ford = 38%

400

300

200

100

0 2007
Hughes GSR Inc, 2013

2008

2009

2010

2011

2012
(data from DrillingInfo/HPDI, March, 2013)

Year

Eagle Ford Tight Oil Production vs Operating Wells


1200 16000
Peak 1031 Kbbls/day in 2015 if 2500 wells added each year Peak 891 Kbbls/day In 2016 if 1983 wells added each year

Production (Thousand Barrels per Day)

14000

1000

Number of Producing Wells

12000 800
Assumptions - EIA estimate of 11406 remaining locations is as of 1/1/2010 is correct. - Well quality is maintained at 2011 levels.

10000 8000 6000 4000

600

400

200

Production at 1983 wells/year Production at 2500 wells/year Drilling Rate 1983 wells/year Drilling Rate 2500 wells/year

2000 0

0 2008
Hughes GSR Inc, 2012

2013

2018

2023
(data from DI Desktop, HPDI, September, 2012)

Year

Bakken/Three Forks Production By County, North Dakota and Montana


Production (Thousand Barrels per day)
250 Total Production = 694 Kbbls/day Top 2 counties = 52% of production Top 4 counties = 85% of production

200

150

100

50

0 Montrail Mckenzie Williams Dunn Remaining 9 counties Montana

County
Hughes GSR Inc, 2013

700

Bakken/Three Forks Type Decline Curves for Horizontal Wells by County including Montana
Montrail (29%) Mckenzie (23%) Williams (16%) Dunn (16%) Bottom 9 counties (9%) Montana (6%)

Oil Production (Barrels per Day)

600

500

400

Overall Average Oil First year = 70% Second year = 36% Third year = 24% Fourth year = 19%

300

200

100

0 1
Hughes GSR Inc, 2013

11

16

21

26

31

36

41

46

Months on Production
(data from DrillingInfo/HPDI, March, 2013)

Bakken/Three Forks Estimated Ultimate Recovery per Well By County, North Dakota and Montana
Cumulative Production (Thousand Barrels)
800 700 600 500 400 300 200
All wells hit stripper status (10 barrels per day) within 12-25 years. The 10% terminal decline assumed is likely highly optimistic.

Cumulative for remainder of well life Cumulative during first four years

EIA assumes 550 Kbbls Ultimate Recovery for All Wells

100
0 Montrail Mckenzie Williams Dunn Lowest 9 counties Montana

County
Hughes GSR Inc, 2013

Horizontal Well Development in the Parshall Area Sweet Spot of the Bakken

Hughes GSR Inc, 2013

3 Miles

(data from North Dakota DNR, 2013)

Bakken Shale Oil Production vs Operating Wells


18000

Production (Thousand Barrels per Day)

1200

Peak 1099 Kbbls/day in 2015 if 2000 wells added each year

Peak 973 Kbbls/day in 2017 if 1500 wells added each year

16000

Number of Producing Wells

1000
Production at 1500 wells/year Production at 2000 wells/year Drilling Rate 1500 wells/year Drilling Rate 2000 wells/year

14000 12000 10000

800

600

400

Assumptions - EIA estimate of 9767 remaining locations as of 1/1/2010 is correct. -Well quality is maintained at 2011 levels.

8000 6000 4000 2000

200

0 2000
Hughes GSR Inc, 2012

2005

2010

2015

2020

0 2025

Year
(data from DI Desktop, HPDI, September, 2012)

Horizontal Well Quality Trends Top Two Tight Oil Plays


1.6 Eagle Ford Youth 1.4

Average Intial Productivity per Well Indexed to 2010

1.2
1 0.8

Bakken Eagle Ford

Bakken Middle Age


0.6 0.4

0.2
0 2008

2009

2010

2011

2012

Year
Hughes GSR Inc, 2013

(data from DrillingInfo/HPDI, March, 2013)

There is no such thing as a FREE LUNCH

There has been a great deal of pushback by many in the general public and in State and National governments to environmental issues surrounding hydraulic fracturing.

Hughes GSR Inc, 2013

There is no such thing as a FREE LUNCH

High levels of water consumption


Methane contamination of groundwater Disposal of produced fracture fluid potentially contaminating groundwater and inducing earthquakes Industrial footprint truck traffic, air emissions etc.

Full cycle greenhouse gas emissions which may be worse than coal

Hughes GSR Inc, 2013

The Shale REVOLUTION


Over-hyped in terms of long-term supply, especially at low forecast prices. High quality shale plays are not ubiquitous:

88% of shale gas production comes from 6 of 30 plays.


81% of tight oil production comes from 2 of 21 plays. High field decline rates require a drilling treadmill to maintain production: 30-50% of production must be replaced each year with more drilling. The drilling treadmill will accelerate as sweet spots are drilled off and well quality declines as drilling moves into more marginal areas. Collateral environmental impacts associated with fracking have already created (and will continue to create) public opposition to unfettered access to drill sites which are mandatory to maintain supply.

Hughes GSR Inc, 2013

Implications for the U.S.


The Shale Revolution has been a game-changer in that it has temporarily reversed a terminal decline in supplies from conventional sources. Long-term sustainability is highly questionable and environmental impacts are a major concern. Almost all eggs are in the shale basket as a hope in meeting U.S. energy supply growth projections from oil and gas.

US Energy Independence with the forecast energy consumption trajectory is highly unlikely, barring a radical reduction in consumption.
The Shale Revolution has provided a temporary respite from declining oil and gas production, but should not be viewed as a panacea for increasing energy consumption and exporting the bounty. Rather, it should be used as an opportunity to create the infrastructure needed for a lower energy throughput and alternative energy sources.

Hughes GSR Inc, 2013

Download the report at shalebubble.org

davehughes@twincomm.ca

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