 
Thomas Patterson for The New York Times
A computer-equipped buoy, 103 feet long and ultimately weighing 260 tons, being assembled and tested in Vancouver, Wash. 
 
 From Kirk Johnson at The New York Times 
PORTLAND, Ore. — About 15 years ago, this environmentally conscious 
state with a fir tree on its license plates began pushing the idea of 
making renewable energy from the ocean waves that bob and swell on the 
Pacific horizon. But then one of the first test-buoy generators, 
launched with great fanfare, promptly sank. It was not a good start.    
     
But time and technology turned the page, and now the first commercially 
licensed grid-connected wave-energy device in the nation, designed by a 
New Jersey company, 
Ocean Power Technologies,
 is in its final weeks of testing before a planned launch in October. 
The federal permit for up to 10 generators came last month, enough, the 
company says, to power about 1,000 homes. When engineers are satisfied 
that everything is ready, a barge will carry the 260-ton pioneer to its 
anchoring spot about two and a half miles offshore near the city of 
Reedsport, on the central coast.        
“All eyes are on the O.P.T. buoy,” said Jason Busch, the executive director of the 
Oregon Wave Energy Trust,
 a nonprofit state-financed group that has spent $10 million in the last
 six years on scientific wave-energy research and grants, including more
 than $430,000 to Ocean Power Technologies alone. Making lots of 
electricity on the buoy and getting it to shore to turn on lights would 
be great, Mr. Busch said. Riding out the storm-tossed seas through 
winter? Priceless. “It has to survive,” he said.        
Adding to the breath-holding nature of the moment, energy experts and 
state officials said, is that Oregon is also in the final stages of a 
long-term coastal mapping and planning project that is aiming to 
produce, by late this year or early next, a blueprint for where wave 
energy could be encouraged or discouraged based on potential conflicts 
with fishing, crabbing and other marine uses.        
The project’s leader, Paul Klarin, said wave technology is so new, compared to, say, 
wind energy,
 that the designs are like a curiosity shop — all over the place in 
creative thinking about how to get the energy contained in a wave into a
 wire in a way that is cost-effective and efficient.        
“Some are on the seabed on the ocean floor, some are in the water 
column, some are sitting on the surface, some project up from the 
surface into the atmosphere, like wind — many different sizes, many 
different forms, many different footprints,” said Mr. Klarin, the marine
 program coordinator at the 
Oregon Department of Land Conservation and Development. “There’s no one-size-fits-all kind of plan.”        
Energy development groups around the world are closely watching what 
happens here, because success or failure with the first United States 
commercial license could affect the flow of private investment by bigger
 companies that have mostly stayed on the shore while smaller 
entrepreneurs struggled in the surf. Ocean Power Technologies also will 
be seeking money to build more generators.        
“Wave energy is very expensive to develop, and they need to see that 
there is a potential worldwide,” said António Sarmento, a professor at 
Lisbon Technical University and the director of the 
Wave Energy Centre,
 a private nonprofit group based in Portugal. “In that sense, having the
 first commercial deployment in the U.S. is very, very positive.”       
 
Here in Oregon, the momentum of research appears to be increasing. Last month, the 
Northwest National Marine Renewable Energy Center
 — financed by the United States Department of Energy in collaboration 
with Oregon State University and the University of Washington — deployed
 one of the first public wave energy testing systems in the nation, 
called Ocean Sentinel, about two and a half hours from Portland, in 
Newport. The first device tested was a half-scale prototype from a New 
Zealand company.        
Fishing industry lobbyists and lawyers worry that a surge of wave energy
 could repeat what happened when hydroelectricity came to the 
Pacific Northwest
 in a big way starting in the 1930s. Builders then did not think through
 the dense ecological web that nature had devised around the tens of 
millions of 
salmon
 — suddenly blocked from their inland spawning routes — that had over 
millenniums become a cornerstone species for everything from bears to 
birds.        
“Our greatest concern is that they don’t do what they did with dams — 
put a lot of them in the ocean and then just stand back and see what 
happens,” said John Holloway, the secretary of Oregon Anglers, a 
political action committee for recreational fishing. “We’re advocating a
 go-slow approach.”        
What has not changed is that the Pacific Northwest still has a siren 
song for wave-energy dreamers in the big, consistent rolling ocean 
swells that define offshore waters — and make many a boater seasick — 
from Northern California through Washington State.        
“Wave energy is essentially an accumulation of wind energy,” Charles F. 
Dunleavy, the chief executive at Ocean Power Technologies, said in a 
telephone interview. In the northern Pacific, he said, consistent winds 
fuel consistent waves, and the distance they travel in their rolling 
line creates a huge area of wave energy, or fetch, that a bobbing buoy 
can capture. Other places with good fetch include some areas off the 
coasts of Western Europe and South America.        
But the project also hinges on squeezing out the tiniest of incremental 
efficiencies in tapping the waves as they come. On the Ocean Power 
Technologies buoy, which looks like a giant cannon stuffed with 
electronics, company engineers pursued an insight that sailors have 
known in their sea legs since the days of Odysseus: every wave is 
different.        
The onboard computer in each buoy, in communication with an array of 
small devices called wave riders that float farther out in the ocean, 
adapts, or “tunes” to each incoming wave, adjusting the way the giant 
internal shaft rides up and down as the swell passes through. The 
up-and-down motion of the shaft creates the electricity, which goes to 
shore through a seabed cable.        
In a nod to environmental concerns, the buoy was redesigned to remove 
all hydraulic fluids, which some critics feared could contaminate the 
water in the event of an accident; rack-and-pinion gears now drive the 
mechanics. The three anchoring tethers, said Michael G. Kelly, the vice 
president of operations at Ocean Power Technologies, were also built to 
withstand a 100-year storm, but also with enough redundancies that even 
if two anchors failed the third would be enough to keep the buoy in 
place.