Several of Labrador's
rivers are capable of generating large amounts of
hydro-electricity. The lower Churchill River has an
estimated 2,800-Mw of hydro-electric potential, while extra
power may be generated on the Goose, Naskaupi and several
other rivers. Private companies could develop Labrador's
untapped hydro-electric potential estimated at over
6,000-Mw, building privately-owned hydro-electric dams that
produce hydrogen for export to markets in Europe and the
Northeastern United States. Ships transporting hydrogen from
Labrador may be able to sail into Lake Melville to take on
hydrogen at an inland terminal, provided that shipping lanes
to such a terminal could be kept open year round.
Parts of Newfoundland's
and Labrador's coast lines have heavy wind and rough seas.
Entrepreneurs could erect wind turbines at suitable
locations on land and offshore to generate electric power
to produce hydrogen. New technologies that are capable of
converting ocean wave energy to electric power are being
developed abroad. One such technology may be built at
coastal locations while another technology may be secured
between offshore islands by cables. Another technology is a
water turbine that operates like an underwater windmill,
generating electric power from water flowing in and out of
ocean inlets as tides rise and fall, which can be located at
the mouths of rivers and ocean inlets.
Another episode of state
malinvestment |
Several governments
worldwide have already begun promoting hydrogen as a transportation fuel. However, the over-regulation of
electric power production in many nations runs the risk of
causing future hydrogen shortages. Private businesses that
produce electricity and generate hydrogen for export from
Newfoundland and Labrador could supply that needed hydrogen
if they had the freedom to do so in a
regulation-free environment. A future market demand for
hydrogen would likely develop in the American Northeast as
well as in Western Europe, allowing Newfoundland and
Labrador to evolve into a significant hydrogen producing
region.
While governments are
promoting hydrogen fuel cell technology for use in road
vehicles, a private European company converted an existing
commercial aircraft to use hydrogen as jet fuel a decade
ago. As jet fuel prices are likely to rise over the long term, hydrogen prices could decline and become a
cost-competitive aviation fuel. Hydrogen generated in
Atlantic Canada could be shipped by ocean to airports at New
York, Boston, London, Amsterdam and Paris where the fuel may
be used to power commercial airliners on the busy
trans-North Atlantic service. An intensive use of
hydrogen in road vehicles in the future may now be doubtful due to recent
developments in lithium-based storage battery technology and
its subsequent demonstration in a road vehicle in Japan.
There is the risk that a
new energy-storage technology could unexpectedly appear and
oust hydrogen as a transportation fuel, turning the massive
amounts of funding that governments have already allocated
to hydrogen energy development into another episode of state
malinvestment. Unexpected research breakthroughs have
occurred in polymer (giant molecule) chemistry and in
high-temperature super-conductivity. Further breakthroughs
in this latter field could lead to the development of a
compact, high-energy density storage technology that could
enable commercial aircrafts to undertake trans-ocean
flights. Electrical energy generated in Newfoundland and
Labrador could be stored in such devices and flown to
international airports to "refuel" airliners. Due to the
unpredictable nature of scientific breakthroughs,
governments would avoid malinvestment by allowing private
interests to develop Atlantic Canada's renewable energy
potential.
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