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Natural Gas & Electric Power
Industries Analysis 2002
Robert E. Willett, editor
Financial Communications
Summary |
Editor | Order |
Contents
chapters two, seven, thirteen,
sixteen
Also by this author:
Natural Gas
Industry Analysis
|
Preface to Natural Gas and
Electric Power Industries Analysis (2002) xi
Preface to Natural Gas Industry Analysis (for the Gas Year 2000-2001) xii
PART ONE—INDUSTRY GROWTH AND
CONSOLIDATION CONTINUE
Chapter 1—Gas and Power Join as GISB Becomes NAESB (Rae J.
McQuade) 1
NAESB Formation
and Meetings on Energy Standards 2; Keeping to the Agenda while Expanding the
Scope 9; GISB and the Internet 14; GISB’s Organizational Structure and
Principles 15; GISB’s Importance for All Industry Segments 18; Conclusion 19
Chapter
2—Transmission-Investment Increase on Horizon
(Douglas M. Logan) 20 Existing Transmission
System 21; Planned Transmission Construction
22; Drivers of Transmission Construction 25; Financing Transmission
Construction 33; Role of RTO's; Technology 39; Transmission Restructuring 33;
Conclusion 44
Chapter
3—In Long Run, Prices to Increase Relative to Oil
(Carl V. Swanson) 44 Energy Information
Administration's 2001 Outlook 45; Gas Supply Depends on Ever-More-Difficult
Prospects and Technology 46; Natural Gas Is Different From Crude Oil 48; U.S.
Gas Consumption and InterFuel Competition at the Margin 49; Cost of Gas Supply
Depends on Technology 51; North American Gas Production Has Become More
Efficient 54; Cost of Finding Gas Reserves in the United States 57; Future 59;
The Last Few Months 60
Chapter 4—Free-Market
Power and Gas Are Increasing Value of Storage (Howard C. “Rusty” Cates) 61 Storage Use by
Customer Segment 61; Storage and the Development of Market Centers 70; Storage
Developed from Need at End-Use Site 74; Conclusion 79
Part two—Technology and Marketing Science
Chapter 5—Using Statistics to Hedge Keeps Regret at a Minimum (Cynthia A. Kase) 83 Varying
Lookback Length 85; Verifying Earlier Observations 87; Summary of Findings and
Recommendations for Strategy 88;
Data Used in the Study 89; Analysis of Data 90; Markets Remain in Favorable
Zone for Average 15 Weeks 92; Variability of Hedge Window Data 94; Using the
“Window of Opportunity” Results to Develop Strategy 95; Maturities from 3- to
12-Month Strips Behave the Same 96;
Using the “Weeks Hiatus” Results to Develop Strategy 96; Using the Strip
Maturity Results to Develop Strategy 96; Out of Unfavorable Zone Behavior 97;
Length of Time Unfavorable by Strip Maturity 97; Variability of Unfavorable
Window Data 98; Using the Unfavorable Zone Results to Develop Strategy 99;
Dollar Cost Averaging 99; Key Elements Revisited 99
Chapter 6—Emission
Trading Expands, Increasingly Affects Gas and Power (Alexander E. Farrell) 101 Emission Reduction Credit
Systems 101; Cap-and-Trade Systems 102; State and Federal ERC Systems 104; Acid
Rain Program—a National SO2 C/T System 105; State C/T Systems 106;
Regional NOX C/T Systems 106; CO2 Emission Trading 109;
Looking Ahead: An Integrated Approach 112; Conclusions 113
Chapter 7—Distributed
Energy Resources Show Promise Wellhead to Burnertip (David E. Dismukes, Ritchie
D. Priddy, Martin J. Collette, and Jeffrey M. Burke) 114 Disincentives Associated with DER Applications 119;
Environmental Regulations and Their Impacts on DER 121; DER Opportunities for
Oil and Gas Production 122; DER Opportunities for Retail Natural Gas Providers
129; Conclusions 131
Chapter
8—Wind Power Most Likely Renewable Threat to Gas (Robert C. Means) 132 Perverse Law of Renewables 133; Wind and Solar 134;
Competitive Position of Wind 138; The Geography of Wind 146; Promoting Wind
Power in a Partly Restructured Electricity Sector 148; Future Competition
between Natural Gas and Renewables 154; The Long Term, the Near Term, and the
Role of Renewable Energy 155
Chapter 9—Chance for
Gulf Storms Increases; End-Use Areas, Moderate Weather (Jill F. Hasling, Dr. John C. Freeman, Mon
Nguyen, and Lindsey Blott) 157 Orbital Cyclone Strike
Index Used to Forecast Gulf Hurricanes 157; Astronomical-Effects
Study Anticipates Moderate Weather in End-User Zones 167; References 177
Part Three—International
Chapter
10—Lower Prices, Changed Fuels, and Liberalization Characterize European Electric
Scene (Bertrand Chateau) 181 Belgium 182; Finland 184;
France 185; Germany 186; Greece188; Ireland 189; Italy 189;
Netherlands 191; Portugal 192; Spain 194; United Kingdom 195
Chapter
11—Natural Gas in Europe: Facing the Opening of the Market (Nicole Jestin-Fleury) 198 Natural Gas Demand and Supply in Europe: Situation and Outlook
199; Natural Gas Trade to Europe
Will Increase 209; Organization of the Gas Market 212; Consequences of
Gas-on-Gas Competition on the Long-Term Price of Gas 219; Conclusion 221;
Appendix 11–1—The Existing European Natural Gas Transmission Grid 224; Appendix
11–2—New Gas Routes into European Union 226; Appendix 11–3—Medium- and
Long-Term Generating Programming and Prospects 227; Appendix 11–4— Former Legislative
Trends in Europe 228
Chapter 12—Latin American Gas and Gas-Fired Power Shows Progress, Risk
(Michelle Michot Foss, Ph.D.) 230 Establishing Context: Latin
American Economic Performance 233; National Oil Companies and Their Roles 235;
Investment and Regulatory Commissions 239; Market Issues for Gas 241; Looking for the Upside, Mindful of
the Downside 242; Conclusions 246;
Appendix 12–1—Summary of Major Gas Export Pipeline Projects in Latin
America 247
Chapter 13—Mexico: Good
Start, Great Regulators, but Mixed Results for Participants (Dana Contratto) 248 Scope of the Mexican Gas
Industry Initiative 249; Gas Industry Segments and the Results of Opening the
Industry 249; The CRE 258; An Assessment from the Industry 259; Future Challenges
262; Conclusion 269
Part Four—Federal Oversight of Electricity and Gas
Chapter 14—FERC Busy as
Ever with Gas Matters (Richard G. Smead)
273 FERC Priorities and
Organization 274; Order 637 276; Marketing Affiliates 282; New Pipeline
Facilities 284; New and Revised Services
287; Traditional Rate Issues 289; Conclusion—There Is a Lot to Do 291;
How We Got Here—FERC Evolved from Directing Market to Tinkering with It 291
Chapter
15—FERC Electric Regulation—Accomplishing Regional Electricity Markets (William
L. Massey) 295 Regional Transmission
Organizations 295; Getting the RTO's up and Running 299; Demand Response 299;
Infrastructure 300; Interconnection Standards 300; Market Analysis Framework
301; Gas Market Issues 301; Conclusion 302.
Chapter 16—MMS, Interior in Center of
Debate about Production Activity, Regulation (Cynthia L. Quarterman) 303 Management of the OCS 303;
Revenue Management 305; Current Issues—OCS 305; Miscellaneous Issues 317
Chapter 17—Legislation
Affecting Natural Gas and Distributed Generation Still Evolving (Beverly E.
Jones) 319 President Points to the
Need for a “Comprehensive” Policy 321; It's Not over 'til It's Over 328; Appendix
17–1—Brief Overview of the President’s Energy Plan 330; Appendix 17–2—Salient
Features of H.R. 4 for Natural Gas 333; Appendix 17–3—H.R. 4's Promotion of
R&D and Distributed Energy 335; Appendix 17–4—Overview of Relevant Portions
of Bingaman Energy Bill 337
Part Five—State-Level Oversight of
Gas and Electricity
Chapter
18—Further State Electric Deregulation Can Be Guided by Gas Experience (Karl A.
McDermott and Carl R. Peterson) 343 Institutional Structures
344; Organizational Issues in Restructured Electricity Markets 349;
Restructuring the Natural Gas Market 358; Conclusions 368; References 370
Chapter 19—User-State
Governments Remain Focus for Electric, Gas Issues (William H. Smith, Jr.) 373 Recent Events Influencing
Regulation 373; Evolving Nature and Scope of State Regulation 385
Chapter 20—Producer-State Regulation:
Deregulation Production Patterns Match Demand (Walter Davis) 391Texas and Oklahoma Together 393; Weather 398; Natural Gas Prices
and Gas Well Completions: A Control Experiment 399; Louisiana Used to Interpret
Production Data from Texas and Oklahoma 405; Louisiana and Kansas Together 406;
New Mexico 410; Some History That Is Still Relevant 411
Part six—Lasting Effects of Mega-Events:
Trader Bankruptcy, california Crisis
Chapter 21—Creditors,
Judge Will Determine Fate of Enron Bankruptcy, Like Others (Anthony M. Sabino)
417 Doors Can Stay Open 418;
Court Review 419; Assets to Be Preserved or Auctioned 420; Contracts Reviewed
for Profitability 421; Enron’s Plan
422; Court, Creditors, and Public Interest 423; Effects on Deregulation
424; For the Benefit of the Creditors 425
Chapter 22—Economic
Lessons Available from California’s Gas versus Electricity Crisis (Dr. Robert
B. Weisenmiller, Karen Lang, and Heather Vierbicher) 427 Demand for Natural Gas 428;
California’s Natural Gas Infrastructure 430; Natural Gas Prices 434; Market and
Regulatory Responses to High Natural Gas Prices 443; Mitigating Electricity
Wholesale Price Volatility 450; Lessons Learned 451
Section Seven— A Perspective on Gas and Electric
Industry
Chapter 23 Reasons for
Electricity-Industry Restructuring Gridlock (Charles G. Stalon) 457 Abbreviations 457;
Methodological Observations 458; Summary of the Argument 459; Symbiotic
Relationships between U.S. Electric Utilities and Governments 460; Diversity of
Electric Industry and its Significance in Restructuring Debates 466; Congressional
Gridlock as a Business Strategy 470;
Recapitulation and Conclusions 487
Appendices
Appendix 1—Basic
Structure and Regulation of the NATURAL
GAS Industry (Richard G. Smead) 493 Industry Structure,
Wellhead to Burner-Tip 493; Regulation of Parts of the Natural Gas Industry
495; FERC Regulation of Pipelines 496; Summary and Conclusion 497
Appendix 2—Basic
Structure and Regulation of the ELECTRIC Industry
(William H. Smith, Jr.) 499 Electric Industry Structure,
Generation to End-User 499; Regulation of Electric Industry Sectors 500; FERC
Regulation of Wholesale and Transmission Service 502; State Regulation of
Electric Service 503; Summary 503
Glossary 505
List
of Contributors 510
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Chapter 2
Transmission-Investment
Increase on Horizon
Douglas
M. Logan
Transmission constraints have become a matter of
concern at the highest level of U.S. government. The
National Energy Policy released by the White House in
May 2001 observes that an antiquated and inadequate
transmission grid prevents us from routing electricity
over long distances and thereby avoiding regional
blackouts, such as California's.” The document
further notes, “The system is simply unequipped for
large-scale swapping of power in the highly
competitive market of the 21st century.” It
declares, “we must greatly enhance our ability to
transmit electric power between geographic regions.”
In early 2001, inadequate transmission from
Southern California to Northern California on Path 15
was indeed a cause of some of the rotating blackouts
in Northern California. In 1998, transmission
constraints were a factor in the Midwest price spikes.
Curtailments of transactions across some interfaces in
the Midwest and East, if not routine, occur
repeatedly, but less dramatically: only money is lost,
not load.
Solutions to the problem are still on the
drawing board. The North American Electric Reliability
Council continues to refine transmission loading
relief (TLR) procedures to determine and prioritize
curtailments when constraints become binding.
Independent system operators (ISOs) and regional
transmission organizations (RTOs) wrestle with
congestion management schemes. RTOs and transmission
providers propose various financial incentive
mechanisms to reward investment in system
improvements.
Clearly, there are inadequacies in America's
existing transmission infrastructure. Clear, too, is
that something needs to be done. However, not so clear
is what. Nor is it clear what institutional
arrangements, regulatory and commercial, are needed to
attract the investments required to eliminate the
inadequacies.
Nevertheless, there is another way in which
investment in transmission is likely to surge in the
next few years in the buying and selling of
transmission assets and in the restructuring of the
transmission business. In 2001, the beginnings of this
movement became visible as Trans-Elect, a new entrant,
has acquired the transmission assets of two utilities.
It may be that the dollar volume of such financial
transactions rivals that of investment in new and
upgraded facilities in the next three to five years.
This paper considers the trends and prospects
for both types of transmission investment.
Existing
Transmission System
Figure 2–1 shows one indicator of a declining trend
in transmission construction over the past decade. The
bars show the net incremental transmission investment
for investor-owned utilities (IOUs), while the line
shows total U.S. electricity sales. Net incremental
investment is calculated as the year-to-year change in
transmission assets reported by utilities filing
Federal Energy Regulatory Commission (FERC) Form 1 and
reflects the net effect of new investment less
depreciation. In 1999, new investment was insufficient
even to keep up with depreciation. The North American
transmission infrastructure has withstood the stresses
of events in the past few years only because of heavy
investments made in the years prior to those shown in
the exhibit.
Figure 2–1—Transmission Investment TrendSource:
RDI POWERdat
Over the decades the existing transmission system has
evolved to meet the needs of the electric utilities
within their own service territories. Transmission
between service territories has generally been built
only to accommodate shares of generating plants in one
area owned by utilities elsewhere and to provide
modest levels of generation reserve sharing between
utilities and regions. Thus, today the transmission
system can be characterized as a set of networks
covering the service territories of the dominant
utilities, separated by relatively weak. |
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Chapter 7
Distributed
Energy Resources Show Promise Wellhead
to Burnertip
David
E. Dismukes, Ritchie D. Priddy, Martin J. Collette,
and Jeffrey M. Burke
The changes in energy markets over the past ten years
have created significant opportunities for end-user
choice. One of the more exciting opportunities that
has developed within the energy industry restructuring
process has been associated with distributed energy
resources (DER). In this current environment of energy
uncertainty, DER offers end-users a physical hedcge
against price volatility, outages, and power quality
problems. Despite these opportunities, there is still
widespread confusion about DER, its technologies, and
operating performance characteristics.
DER refers to the generation, storage, or
demand-side management devices, measures, and/or
technologies that are connected to or injected into
the distribution level of the transmission and
distribution (T&D) grid (i.e., “below” the
bulk power transmission system). Micro-turbines, fuel
cells, photovoltaics, wind turbines, and flywheels are
some examples of DER technologies. Because these
devices are more modular and flexible than a large
central power station, they can be located at the
customer’s premises on either the system side or the
customer-side of the meter, or at other points in the
distribution system such as a utility distribution
company (UDC) substation. DER covers a wide range of
technologies and is not limited to
co-generation—commonly referred to as combined heat
and power (CHP) for small power applications. Table
7-1 presents the cost and operating characteristics of
a number of commercially available or developing DER
technologies.
|
Cost
and Operating Performance Categories
|
Fuel
Cell
|
Microturbine
|
Microturbine/CHP
|
Reciprocating
Engines
|
Reciprocating/CHP
|
|
|
|
|
|
|
|
|
Capital
costs ($/kW)
|
2,000
|
800
|
800
|
450
|
450
|
|
Capacity
(kW)
|
200
|
400
|
400
|
400
|
400
|
|
Capacity
Factor
|
0.95
|
0.95
|
0.95
|
0.95
|
0.95
|
|
Net
Annual Generation (kWh)
|
16,644,000
|
3,328,800
|
3,328,800
|
33,288,000
|
33,288,000
|
|
Total
Capital Cost ($)
|
400,000
|
320,000
|
320,000
|
180,000
|
180,000
|
|
Finance
Costs ($)
|
40,000
|
32,000
|
32,000
|
18,000
|
18,000
|
|
Capital
Costs ($/kWh)
|
0.2644
|
0.1057
|
0.1057
|
0.0595
|
0.0595
|
|
O&M
($/kWh)
|
0.05
|
0.005
|
0.005
|
0.005
|
0.005
|
|
Heat
Rate (Btu/kWh)
|
6,000
|
10,000
|
8,000
|
13,000
|
10,000
|
|
Fuel
Costs ($/MCF)
|
2.25
|
2.25
|
2.25
|
2.25
|
2.25
|
|
Gas
Use (MMBtu)
|
9,986
|
33,288
|
26,630
|
43,274
|
33,288
|
|
Total
Fuel Cost ($)
|
22,469
|
74,898
|
59,918
|
97,367
|
74,898
|
|
Fuel
Costs ($/kWh)
|
0.0135
|
0.0225
|
0.0180
|
0.0293
|
0.0225
|
|
Estimated
Levelized Cost
|
0.2829
|
0.1332
|
0.1287
|
0.0937
|
0.0870
|
|
Interest
(Annual Percent)
|
0.1000
|
0.0800
|
0.0800
|
0.0800
|
0.0800
|
Table 7- 1—Costs of DER (Source:
Gas Research Institute, "The Role of Distributed
Generation in Competitive Energy Markets,"
Distributed Generation Forum (Chicago
1999), 9)
While DER refers to a broad range of
technologies and applications, most attention is being
directed at those opportunities to generate
electricity. Four major distributed generation
technology categories include reciprocating engines,
gas turbines, micro-turbines, and fuel cells.
Currently, reciprocating engines are the most mature
small-scale power generation technology on the market.
Slightly larger gas turbines are equally important
technologies that are commercially available for DER
applications.
The popularity of reciprocating engines and gas
turbines is based upon availability, low capital cost,
modest exhaust emissions, extended service intervals,
long service lives, and well-developed sales and
marketing infrastructure. Industry sources estimate
that recent sales of reciprocating engines amount to
approximately 35 gigawatts. The installed capital
costs of these technologies range from $300 a kilowatt
for a 200-kilowatt unit to $724 a kilowatt for a
12.5-kilowatt unit. Gas turbine costs are equally
competitive $350 a kilowatt to $1,000 a kilowatt range
(Table 7–1).
Two emerging technologies that are attempting
to challenge the reciprocating engine market are
microturbines and fuel cells. Microturbines are
essentially mini-jet aircraft engines that are based
upon the same aerospace technologies that
revolutionized the larger combustion turbine market of
the electric power industry over the past twenty
years. On the other hand, fuel cells facilitate a... |
| Chapter
13
Mexico:
Good Start, Great Regulators, but Mixed Results for
Participants
Dana Contratto
Throughout
1995 and early 1996 the Mexican government and its
newly enhanced energy regulatory commission, the
Comision Reguladora de Energia (CRE) created the legal
and regulatory infrastructure to open the natural gas
industry downstream of production to private
investment and ownership. Until then, as a legal and
practical matter, the Mexican government had exercised
almost sixty years of strict state ownership and
control over that sector of the economy. This dramatic
departure from state to private sector has now had a
full five years of operating experience. This chapter
assesses the results of the Mexican natural gas
initiative and provides some observations about its
pros and cons from several different perspectives.
The
specifics of the opening of the downstream natural gas
industry have been written about extensively.
It is not the purpose of this chapter to review
the regulatory and legal minutiae of that exercise.
Rather, the purposes here are to summarize the
developments in the “opened” downstream industry,
to provide an assessment of the successes, or lack of
successes, of that initiative, and to postulate some
future implications for the Mexican energy sector. One
section of this chapter includes a candid assessment
from the perspective of Mexican gas industry
participants themselves and is based upon confidential
responses to a primary data collection survey.
SCOPE OF THE MEXICAN
GAS INDUSTRY INITIATIVE
For decades, the
Mexican oil and gas industry has been generally
reserved for exploitation by the Mexican state through
its wholly owned governmental unit known as Petroleos
Mexicanos (Pemex). Within the Pemex organizational
structure, natural gas matters downstream of
production are in the province of Pemex Gas and Basic
Petrochemicals. It is important to understand the
scope of the Mexican government's natural gas
initiatives in 1995 and 1996. They were not
a privatization of Pemex or Pemex Gas, nor
did they legally restrict the activities of Pemex
in the sector. Rather, the private sector was simply
permitted to compete against Pemex in areas otherwise
legally or practically reserved to Pemex, that is,
natural gas storage, transportation, distribution, and
marketing.
For
sake of clarification and further understanding, it
should also be noted that as a legal matter, natural
gas distribution was previously and technically not
“off limits” to private investment and ownership.
Indeed, as discussed below, at the time of the
government initiatives in the sector there were a
number of privately owned natural gas distribution
systems in Mexico. However, the economic viability of
those systems was tied to a regulatory structure that
seriously discouraged private investment in
distribution.
GAS INDUSTRY
SEGMENTS AND THE RESULTS OF OPENING THE INDUSTRY
The results have thus
far been generally positive.
Storage
Natural gas storage
projects in Mexico were not necessary during the first
years of the opening of the downstream industry. This
was because the Pemex Gas pipeline system, which was
and is extensive nationwide, operated at the time with
a utilization rate of about 50 percent of capacity on
a systemwide basis. Thus, the Pemex Gas transmission
system itself was able to serve a supply/demand
balancing function, which has been largely sufficient,
especially given the near absence of heating load in
Mexico and attendant absence of peak demands. Thus,
storage projects and permits for such were not present
during this period.
Marketing
Unfortunately,
marketing, i.e., buying and selling the commodity
natural gas, has not developed as a business sector
since the opening of the industry. All natural gas in
Mexico is owned by Pemex, transferred from the Pemex
exploration subsidiary, and marketed virtually
exclusively by Pemex Gas on a bundled with
transportation service basis or sold separately as a
pure commodity sale. Further, all so-called first hand
sales—that is first sales of domestic Mexican gas by
Pemex Gas to a nonaffiliated Pemex entity—are
subject to a maximum lawful price regime set
concerning a defined Houston Ship Channel commodity
price in the United States.
In
short, the commercial basis for competing against
Pemex Gas for marketing was, and is, generally not
present. All domestic natural gas is initially
See, e.g., Mathis, Hollis, de Erice &
Escobedo, “Electric Power and Natural Gas
Legislation in Mexico and the New Regulatory
Framework” in Energy
Law and Transactions at 165-1 (1998); D.
Contratto , ”New Opportunities in Mexico"
in The 1997
Natural Gas Yearbook , Robert E.
Willett, editor (New York: John Wiley and Sons,
1997) p. 219; International Energy Agency, Regulatory Reform in Mexico’s Natural Gas Sector (1996).
|
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Chapter 16
MMS,
Interior
in Center of Debate about Production Activity,
Regulation
Cynthia
L. Quarterman
This is the first-ever
chapter about the regulation of exploration for and
production and development of natural gas on the Outer
Continental Shelf (OCS) and the collection of
associated revenues in the Natural Gas and Electric
Power Industries Analysis series. Therefore, some
introductory information is offered here. The
Department of the Interior is widely recognized as one
of the largest land managers in the United States
government. It is responsible for overseeing the
nation’s sprawling park and federal land holdings.
Those lands are assumed by many to be primarily
concentrated in the Western United States. However,
the department’s largest federal land management
responsibility is over the OCS, which covers 1.76
billion acres. Since 1982, the department’s Minerals
Management Service (MMS) has been responsible for
managing the mineral resources on those lands.
Management of the OCS
MMS is responsible for
overseeing the leasing, exploration, production and
development of natural gas as well as oil and mineral
resources on the OCS. The MMS regulates natural gas
production on the OCS from cradle to grave. Its
responsibility starts with permitting geological and
geophysical operations, analyzing the information
obtained from those operations, performing
environmental studies concerning OCS lands, and
determining whether and under what conditions those
lands should be leased. Once a decision to lease the
OCS has been made, MMS is responsible for holding
lease sales, evaluating bids, analyzing proposed
exploration and production activities for compliance
with environmental and other laws, and permitting
exploration and production activities. If production
and development on the OCS goes forward, MMS is
responsible for reviewing OCS facility and pipeline
construction plans; performing technical and
technological studies; monitoring OCS activities for
compliance with environmental and safety laws; and
once production is to cease, approving and overseeing
abandonment and removal of OCS facilities.
Since 1953, the OCS has contributed
more than 140 trillion cubic feet of natural gas to
the United States's domestic production. In 2000, the
last full year with information available, more than 5
trillion cubic feet of natural gas was produced on the
OCS, accounting for approximately 26 percent of the
United States’s natural gas production. Although
that contribution would be considered impressive by
most measures, in 2000 OCS natural gas production was
at the lowest level since 1995 (Figure 16–1]. The
OCS is estimated to contain 362.2 trillion cubic feet
of the nation’s conventionally recoverable natural
gas resources (with economically recoverable resources
estimated at 116.8 trillion cubic feet). See Tables
16–1 and 16–2.
Figure 16–1—Federal
Offshore Natural Gas Production 1990-2000.
(Source: TIMS Database Report generated August 14, 2001)
|
Region
|
Natural
Gas (Tcf)
|
|
|
|
Low
|
High
|
Mean
|
|
Alaska
|
55.0
|
226.8
|
122.6
|
|
Atlantic
|
23.9
|
34.1
|
28.0
|
|
Gulf of Mexico
|
180.4
|
207.2
|
192.7
|
|
Pacific
|
15.2
|
23.2
|
18.9
|
|
Total OCS
|
292.1
|
468.6
|
362.2
|
Table 16–1—Undiscovered, Conventionally Recoverable
Reserves
|
| Chapter 21
Creditors,
judge will determine fate of enron bankruptcy, like
others
Anthony
M. Sabino
A dark shadow has
fallen over the landscape of the energy industry, and
its hopes for continued deregulation. The shadow has a
name, and it is “Enron.”
With the downfall of that once mighty
corporation, the hue and cry has gone up, not only
that deregulation has failed, but that reregulation
is now imperative. It is not enough that Enron
represents the largest corporate Chapter 11 of all
time.
In addition, it is the sense of common dread
that the energy industry may be relegated back to the
dark ages of overt government regulation and
interference.
However,
enough doom and gloom for the moment. No sane person
can doubt the gravity of the Enron bankruptcy, least
of all the energy industry participants so directly
affected. The purpose of this writing is to studiously
avoid the hyperbole and the melodrama. The developing
story at Enron is much too important for talking heads
and ten-second sound bites. Rather, our stated purpose
here is to calmly dissect the legal and business
implications of this record breaking bankruptcy
filing, what is and what will exactly happen in the
corridors of the bankruptcy court, and conclude with
some broad observations as for what this all means for
the energy industry. What matters to you, and thus
this writer, is how this affects the conduct of your
business, and that is what we will stick to.
DOORS
can stay OPEN
We know that Enron is
still in business, operating under Chapter 11 of the
Bankruptcy Code.
By now, American businesses are generally
familiar with broad contours of bankruptcy. It is
common knowledge that a bankruptcy case filed under
Chapter 7 is a liquidation, causing the appointment of
a trustee, and the forced sale of all the debtor’s
assets, with the concomitant customary lower return
and mere morsels paid out to creditors. Enron is not
there—at least, not yet.
Enron is
merely the latest and largest of U.S. corporate titans
to file for reorganization of their businesses under
Chapter 11 of the Bankruptcy Code. To be sure, this
path has already been well traveled by the likes of
blue chips such as Johns-Manville, Texaco, Federated
Stores, Macy’s, and Continental Airlines. None of
these firms were insignificant in terms of size,
market share, or by any measure. Enron merely trumps
them for the moment because, measured in today's
dollars, it is the largest bankruptcy filing ever
recorded.
Notably,
each of the aforementioned titans that fell from Wall
Street’s good graces were restored to past glories.
Enron's ultimate goal is the same; to reorganize its
business, restructure its finances, and then reemerge
from the bankruptcy process as a viable, going
concern. In the energy sector, Texaco skillfully
negotiated its way through Chapter 11 (not without a
few close calls, however), settled its difference with
industry rival Pennzoil, and reemerged a healthy
company, so healthy in fact that it is now one-half of
the newly christened “super major” ChevronTexaco.
Enron would like to do the same.
However,
just how does a troubled company stay in business
while in bankruptcy?
Key to Enron and any debtor is the privilege to
stay in possession of its assets and continue to
operate its business.
All attempts to repossess, reclaim, or assert
jurisdiction over Enron's assets by the usual means in
state courts are specifically prevented by the
automatic stay of the Bankruptcy Code, the statute
that stays (read: stops) all litigation.
All claims are centralized and all creditors
confined to being heard within the walls of the
bankruptcy court. This avoids the piecemeal
dismemberment of the debtor. Enron, like any Chapter
11 debtor large or small, enjoys such protection while
it travels the path of reorganization.
Interestingly,
litigation against related parties, such as investor
lawsuits against Enron's directors and officers or its
accounting firm, is another matter entirely. Those
individuals or entities are not in bankruptcy, and
therefore the automatic stay does not protect them.
Only if such a lawsuit might ultimately impact on an
Enron asset, such as an insurance policy that protects
the firm, would it be held in abeyance while the
company continues in bankruptcy. This is why numerous
lawsuits are continuing unabated in places other than
the New York bankruptcy court hearing Enron's Chapter
11.
Finally, the
automatic stay makes a key exception for police or
regulatory enforcement actions. Any action by a
governmental agency pursuant to its
Anthony M. Sabino, “Litigation: Further
Effects of Columbia Bankruptcy and Order 636
Dominate,” 1997 Natural Gas Yearbook
Edited by Robert E. Willett (New York: John Wiley
& Co., 1997), p. 91.
11 USC §1107 and §1108,
respectively.
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