Alaska Competition
may spur in-state gas line
Smaller proposals bear examination. By ERIC LIDJI Petroleum News June
28th, 2008
On the natural gas fight
card this year, the main event is clearly the big pipeline: Denali,
created by BP and Conoco Phillips, squaring off against TransCanada,
backed by the state and looking for legislative approval.
That's undoubtedly the heavyweight match, but there is a
highly competitive undercard as well: two smaller proposals for
bringing northern gas to markets in Southcentral Alaska.
The Alaska Natural Gas Development Authority, or ANGDA,
wants to build a spur line connecting the mainline to Anchorage, while
Enstar Natural Gas Co. wants to build a "bullet line" connecting gas
fields in the Brooks Range northern foothills to Anchorage.
The two projects hope to solve the same problem: Declining
production in Cook Inlet threatens to cause a shortage of natural gas
supplies in Southcentral Alaska. According to one forecast, that
shortage could start to be felt as soon as 2014. But the two
projects differ in philosophy. By definition, a spur line requires a
mainline and a bullet line doesn't. That distinction could determine
how fast gas gets to Anchorage, and how much it would cost once it got
there.
The debate came up during legislative hearings this month.
This summer, ANGDA is spending $1.2 million to $2 million,
by far the largest single expense in the five-year history of the state
agency, to study a 370-mile spur line corridor from Delta Junction to
Beluga through Glennallen.
At the same time, Enstar
is planning to spend at least $6 million this year on engineering work
along the 690-mile route for a pipeline from the Gubik gas field near
the village of Umiat to the utility's existing grid in Anchorage along
the Parks Highway.
These projects have been
under way in various forms for years. Until earlier this year, Enstar
had been considering the Parks Highway for a spur line. In the past,
ANGDA has mentioned a bullet line might be the last resort if progress
stalled on a big pipeline.
"If they don't hurry up,
we'll figure out a way to get all the way north," Harold Heinze, chief
executive of ANGDA, told the Palmer Chamber of Commerce in late 2004.
Both ANGDA and Enstar believe in that call to "hurry up,"
but as each company looks into the near future, it sees a different
outcome on the horizon -- one less optimistic than the other.
ENSTAR: TIME IS UP
Enstar believes it can no longer afford to wait on a big
pipeline. The company is expecting major shortages within six years.
And whereas Enstar once enjoyed supply contracts lasting 15 years or
longer, the most recent contract before state regulators would last
only five years.
"We have a precipitous
fall off over a period of time," said Andrew White, of Enstar, talking
to lawmakers about natural gas supplies from Cook Inlet. "And in terms
of where Enstar is right now, that's led us to not only thinking of gas
contracts with Conoco Phillips and Marathon through 2013, but also
looking elsewhere ... for a natural gas pipeline from the foothills to
Southcentral Alaska with a spur into Fairbanks."
With a 20-inch bullet
line, Enstar believes it can get gas to Southcentral five or six years
sooner than it would by waiting for the mainline and building a
spur. The $3.3 billion bullet line could have gas
flowing to Anchorage as soon as 2014, said Gene Dubay, senior vice
president and chief operating officer of Semco, the Michigan utility
that owns Enstar.
But two huge obstacles stand in the way: one with supply and
another with demand.
The Enstar line only became possible because of recent
exploration efforts at Gubik by Anadarko Petroleum. Taking gas from
Gubik rather than the North Slope would shave more than 100 miles off
the length of the pipeline.
But Anadarko doesn't know how much gas is at Gubik. The most
recent reserve figures come from 1951, when a U.S. Geological Survey
expedition estimated the field held 600 billion cubic feet of natural
gas. Enstar needs 3.5 trillion cubic feet for its bullet line.
Enstar doesn't know how much more the bullet line would cost if it had
to run all the way to Prudhoe Bay, White said. Nor has the company
talked with North Slope producers about buying gas from Prudhoe Bay.
Enstar is meeting with Anadarko in mid-July to discuss the
results of the exploration program at Gubik this past winter, Dubay
said.
A lack of gas at Gubik would make the bullet line physically
impossible, but failing to attract major industrial customers would
make the bullet line economically impossible. If the cost of the
project fell entirely on the shoulders of residential and small
commercial customers along the Railbelt, the rates would probably be
prohibitively high.
Enstar won't build the project without commitments from
large industrial users, like an expansion of the Kenai liquefied
natural gas plant or a revived Agrium fertilizer plant, Dubay said. He
said Enstar is drafting a letter to Agrium, hoping to get a commitment
about the future of the plant should the bullet line move forward.
Either way, Dubay remains hopeful. "We're
approaching this project with quite a bit of certainty that when it
comes time for the industrial users to sign up for a capacity in this
line that we're going to get commitments from the industrial users that
are going to take capacity in the line," he said.
Enstar plans to decide whether to sanction the bullet line
by June 2009.
ANGDA: APPROVE TRANSCANADA
While Enstar no longer
wants to wait for a pipeline, Heinze says it's not too late. He
believes the Alaska Gasline Inducement Act, or AGIA, prompted the
producers to create Denali-The Alaska Gas Pipeline LLC and quickly
prefile with the Federal Energy Regulatory Commission, an early first
step toward permitting the 48-inch main pipeline.
Believing the entire timeline is now moving fast, Heinze
wants lawmakers to approve the TransCanada application and let the
company battle it out with Denali in the marketplace. "Frankly,
the only reason I can't start building tomorrow is that people don't
know and aren't sure if a big project is going to be built," Heinze
told lawmakers.
Even with pre-building, where work on a 20-inch spur line
begins as soon as the main line gets final approval, the project could
take longer to bring online than a bullet line.
Still, ANGDA sees its $1.25 billion project as the cheapest
source of gas for Alaska, because local prices would be tied to an
outside market, rather than competing with oil.
Heinze points to Fairbanks Natural Gas as the alternative.
The natural gas utility of Fairbanks charges residential customers
$23.35 per thousand cubic feet of gas, most likely the highest natural
gas rate in the country.
But whether the price is high depends on the context.
Compared by energy content, natural gas is still cheaper than fuel oil
in Fairbanks, but it's also more than two and a half times more than
what natural gas customers pay in Anchorage. "You pay
the competitive alternative price and you're locked into it," Heinz
told lawmakers. "And that's one of the things you're trying to break by
bringing a big pipeline down through the spine of the state."
Enstar
disagrees.
"I don't think the size of the pipe is going to have
an impact on the cost of the gas. I think it's going to be an
index-based price whether it's a 48-inch pipe or a 20-inch pipe," Dubay
said.
Enstar uses indexes now to
price its natural gas supply from Cook Inlet. In the new contracts
before state regulators, Enstar pulls the middle price from a selection
of indexes as a way to avoid unexpected cost swings in the market like
those felt after Hurricane Katrina.
With these indexes, Anchorage would probably pay a little
more to get natural gas from the bullet line than it currently does
from Cook Inlet, while Fairbanks would probably pay a lot less than it
does now to get that same Cook Inlet gas trucked north.
"We are paying market prices and we will continue to pay
market prices," said Enstar spokesman Curtis Thayer.
ANGDA also believes the spur line is the best way to create
a petrochemical industry in Alaska, using by-products from the gas
stream on the North Slope.
COMPATIBLE VS. COMPETITIVE
As the debate continues on
the large pipeline, both Enstar and ANGDA want to avoid a provision
within AGIA that keeps the state from supporting a competing project
after awarding a license. In fact, speaking to
lawmakers, both companies said they planned to work with either
TransCanada or Denali and both companies used almost identical language
to defend their respective plans for bringing gas to
Southcentral. "We're not a competitive project. We're
a compatible project," Heinze said.
"This is not a competing project and it's a complementary
project," Dubay said.
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LNG Trade 2008
Al_Safliya The first Q-flex ship
By Stephen Chan, Global Business Manager, Gas Ships, Lloyd’s Register
Americas, Inc.
The world gas consumption has grown faster than total energy
consumption, at a rate of 2.4% per year over the last 10 years, with
world energy consumption growing at an average 2.1% per year. Liquefied
Natural Gas (LNG) trade takes the lead in this growth and remains one
of the fastest growing sectors in the energy industry — one that is
essential for the world gas requirement.
In the last decade, LNG growth has averaged 7.7% outpacing
the
international pipeline trade, which averaged 4.7%.
In the 1980s the introduction of higher efficiency
combined-cycle gas
turbine generation power stations was one of the main factors for the
demand in natural gas consumption. This is also due to its
environmentally friendly nature and stable supply through long-term
contracts.
Energy-hungry countries like Japan and Korea spurred the
impetus of LNG
trade in Asia. In 2006, both Japan and Korea set records in their
import of LNG with a 7% increase up to 62.1 million tonnes and 13.25%
increase up to 25.3 million tonnes respectively.
Another milestone was set in 2006 when China and Mexico
become two new
LNG importing countries, making a total of 17 importing countries.
The LNG fleet
We have seen an increase in capacity of 16% with 26 new
ships being
delivered in 2006, but other milestones are also being set. As of June
2007, there are 242 LNG ships in operation, with another 141 on order
with a combined capacity of 52.4 million cubic meters.
Traditionally, LNG ships are propelled by steam turbine
system where
the boil-off gas is burned in the boilers. In December 2006, we saw the
delivery of the first large size (154,000 cubic meters) LNG ship with a
dual-fuel diesel electric system, able to use the boil-off gas as fuel
in the diesel engine.
In other significant progress, there was an increase in
cargo carrying
capacity, with the first orders of Qataris Q-flex and Q-max LNG ships
of capacity up to greater than 160,000 cubic meters and greater than
260,000 cubic meters, respectively. The first Q-flex ships were
delivered at the end of 2007 and the launching of the first Q-max ships
was in November 2007. These Q-flex and Q-max ships are also significant
in that they are the first to be fitted with slow speed diesel engines
with onboard reliquefaction plants.
The pool of ship ownership and operators has also widened in the last
few years from the traditional oil majors and shipping companies. The
practice of shared ownerships has also increased — another indication
of the industry moving from a very conservative nature to a much more
open and flexible nature.
South Korea continues to dominate the bulk of the new building orders.
Some shipyards will be delivering their first LNG ships in the next few
years; or example, STX in Korea, Imabari in Japan and
Hudong-Zhonghua in China.
New Challenges
With innovation and increased efficiencies in the transportation of
LNG, the traditional LNG value chain structure has grown more complex
and challenging. The combination of new technologies and greater demand
for this environmentally-friendly energy promotes a more globalized
market.
Potential projects waiting for the final investment decision are being
postponed, with no light at the end of the tunnel for many of them.
Some reasons for this are higher construction costs and tighter and
more expensive labor costs. Liquefaction plants under construction are
delayed, with ships for these projects being delivered on time and
waiting for their first cargo.
Sourcing for competent and experienced crew for running these newer and
bigger types of ships with different propulsion systems and
reliquefaction plants onboard is an uphill task. Many shipowners are
investing in training of late but there is still a big gap to fill.
Asset Life Cycle Risk Management
The key decision makers in the LNG transportation industry need to be
wise. When a shipbuilding contract is signed, the specification must be
correct, and there must be confidence that the contracting parties can
deliver what is needed.
Successful LNG ventures often arise from the creation and application
of commercial trading models which are managed simultaneously with the
development of contract specifications and the securing of gas supplies
and charter rates. Success does not come without experience, nor is it
simple to achieve.
Lloyd’s Register understands these issues in the context of both the
pre- and post-contract phases. We have years of experience helping
builder and operator clients with these challenges. Lloyd’s Register
was the first classification society to help clients develop a
practical approach to using safety cases for qualification of
cutting-edge technologies such as reliquefaction plants, dual-fuel,
diesel—electric propulsion systems, and novel LNG-delivery systems,
including the regasification technology that facilitated the import of
LNG into the US. These services, usually delivered jointly to the
contracting parties, have provided our clients with a fuller
understanding of the designs of these systems, adding clarity and
confidence as the design process has moved forward. Our experience is
extensive, and includes the delivery last month of the first-ever
209,000 cubic meter Q-flex LNG ship from Korea’s Daewoo Shipbuilding
& Marine Engineering.
Americas Focus
Russia and the U.S. together accounted for 39.7% of global supply of
natural gas in 2006. Most of the production in the US is used
domestically and in Russia it is for both domestic use and for export
by pipeline.
The growth of LNG trade has been influenced primarily by the supply
from Middle Eastern, Asia/Pacific and West African countries as well as
the demand for natural gas in faraway countries where pipeline
infrastructure is not possible.
The U.S. is expected to be one of the key drivers for the growth in the
LNG trade. Dwindling domestic gas production and the demand for energy
has placed the US as one of the key drivers for growth in the LNG trade.
There are currently five import terminals in the U.S. with a combined
peak capacity of 44.5 million tons per annual (mtpa). Cheniere’s Sabine
Pass and Freeport LNC terminals are both expected to commence
commissioning work in April 2008. An additional 63.3-mtpa capacity
could be added, considering new terminals under construction and
planned expansions to existing terminals.
However, looking at the imports in the last few years, utilization of
the existing terminals has been disappointing. In 2005 it was down 3.2%
and in 2006 a further 7.6% decrease was reported. With limited
availability of spot cargoes and a general appetite for more energy
elsewhere, American importers are not able to compete with Asia
importers on price, more so during the crisis in Japan when nuclear
power plants were shut down. In March and April in 2007 there were
successive monthly records of growth, but unfortunately this has not
been repeated and LNG terminals in the U.S. have gone quiet again in
2008.
Another contributing factor in determining import cargoes in
the US is pipeline domestic natural gas prices, which is a deregulated
market As most of the U.S. LNG imports are spot- or short-term cargoes,
the deciding factor in securing an LNG cargo by seaborne to the U.S.
markets against pipeline supply is how competitively priced the
seaborne cargo is against pipeline.
The Gulf Gateway, the first offshore LNG terminal in the Gulf of
Mexico, was commissioned in 2005.
This terminal is based on
subsea pipeline and submerged turret loading (STL) buoy technology, by
which gas is sent ashore to the gas distribution network directly. LNG
ships with onboard regasification plants are used to serve this
terminal, The push towards offshore gas floaters are mainly driven by
local environmental issues and strong opposition to the ‘not in my
backyard” (NIMBY) stand.
Offshore floaters also make financial sense, as they cost less and
construction time is shorter. This has generated a lot more interest
these days, and it is expected that many more investors will look into
this alternative to a traditional onshore terminal.
Another new development emerged recently with Petrobras awarding a
10-year term agreement to Golar LNG to convert two of their LNG ships
to floating, storage, regasification units (FSRU). These ships are now
being converted in Singapore.
Of the 383 LNG ships in operation and on order, 124 of these are being
classed by Lloyd’s Register, which equates to a 32% market share.
However, the breadth of a classification society’s LNG knowledge cannot
be judged purely on the numbers of ships it has classed. There is no
substitute for experience, whether that applies to innovation,
risk-based services or relationships with the LNG sector’s key players.
Transporting LNG by sea requires dedicated engineering techniques and
contingency measures to minimize the risk inherent in the carrying of
this hazardous cargo. Building and maintaining a liquefied gas ship to
the classification requirements of Lloyd’s Register allows our clients
to place a high level of confidence in the safety of their ships and
cargo and gives owners the assurance that every practical step has been
taken to protect the operator and the environment.
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