Charles Dunleavy
Analyst · Ascendiant Capital
Thank you, Brian, and thanks to everyone for being with us today. Brian and I will be available to answer questions following our prepared statement. Turning to Slide 3. I'd like to note some recent developments of which we're particularly proud. We've accomplished a great deal this past quarter and ended this fiscal year on a high note, with plenty of traction heading into fiscal year 2012. We deployed our first utility-scale PB150 PowerBuoy off the coast of Scotland on April 15, 2011. Since that time, we've been measuring the performance of the unit, and we've been very pleased by the results. I'll go into this in a little more detail in a moment. In addition, we have continued to make progress with the construction and land testing of our PB150 unit for Reedsport, Oregon. We've made advances on our next-generation PowerBuoy, the PB500, and also on our Autonomous PowerBuoy for the U.S. Navy's LEAP program. Our grid-connected PowerBuoy in Hawaii continues to be going strong. Total fiscal 2011 revenue rose over 30% compared to fiscal 2010, and during the year, we brought in $10.3 million of new orders. With a record backlog of $8.9 million at April 30, 2011, we are well positioned for further success in fiscal 2012. Moving to Slide 4. Let me add some information about the initial deployment of our PB150 off Scotland. This 150-kilowatt-rated device was designed by OPT to generate utility-scale renewable wave energy in arrays of multiple buoys for commercial power stations in locations around the globe. In January 2011, we are very pleased to announce that OPT achieved an independent certification of the PB150 structure and mooring system by the internationally respected Lloyd's Register. This certification confirmed that the PB150 design complies with certain international standards for floating offshore installations. During recent ocean testing of the PB150, average electrical power of 45 kilowatts was achieved, with wave heights as low as 2 meters, exceeding our performance expectations for the PB150. We believe this capacity factor of 30%, represented by the 45-kilowatt average power, exceeds capacity factors generally seen in other forms of alternative energy, such as wind and solar. The power take-off system also exceeded expectations with respect to energy conversion efficiency in the irregular ocean wave conditions encountered. Overall, the range of PB150 power outputs we saw at specific operating points during the ocean testing was in line with our model predictions for such wave states. And this means that our confidence in power predictions at other sites is greatly increased, particularly since the performance of the Hawaii PowerBuoy has also agreed with our model. We're, therefore, confident that at sites where wave conditions are higher than those encountered thus far during ocean trials, our use can produce 150 kilowatts on average. In addition, the environmental conditions experienced by this PB150 off Scotland included storm waves, with electrical-power-generating peaks of over 400 kilowatts. We find all of this very encouraging, and we'll be testing the Scotland PowerBuoy for another 1 to 2 months. The company is seeking a commercial customer for this PB150 after the trial phase is complete. All in all, our success in this project speaks to just terrific performance by our employees on both sides of the ocean -- the Atlantic Ocean, both within the U.S. as well as in the U.K. Slide 5 shows the towing of the buoy during the deployment process. A video of the deployment is available on the OPT website at oceanpowertechnologies.com. In addition, the Bloomberg Television program, Inside Track, aired a segmented on OPT and the Scotland PowerBuoy on June 28, which you can also see on our website. Slide 6 provides a view of the buoy after its deployment at the site, about 30 nautical miles off the northeastern coast of Scotland. Now turning to Slide 7. I'd like to provide an update on our project in Reedsport, Oregon. The project has 2 phases. The first, on which we are now working, is for the deployment of one PB150 PowerBuoy. This will be followed by a second phase, during which we expect to build and deploy 9 additional PB150s and connect all 10 buoys to the Oregon grid through OPT's proprietary undersea substation pod, all for a total of 1.5 megawatts. We have finished initial construction of the steel structure of the PB150 for the first phase, which is shown in the picture on this slide. The power take-off, or PTO, and our proprietary electronic control system are now undergoing testing in our New Jersey production facility. At this point, we are cycle-testing the complete PTO system under various simulated wave conditions. We expect the first PB150 to be ready for deployment by the end of calendar year 2011, with the exact time of deployment weather-dependent. We are very pleased by the opportunities presented by this project. Earlier this fiscal year, we reported that we and 14 other interested federal, state and nongovernmental stakeholders signed a groundbreaking agreement for the Reedsport project. This agreement supports the responsible, environmentally-sensitive development of the 10 PowerBuoy 1.5-megawatt wave power station, which will be America's first commercial-scale grid-connected wave power station. This 1.5-megawatt wave power station is subject to the receipt of appropriate final licensing from the U.S. Federal Energy Regulatory Commission and additional funding for the build-out of the second phase, encompassing 9 more PowerBuoys in the grid connection infrastructure. Moving to Slide 8. Let me comment briefly on 2 other major projects that are moving ahead and will show further progress in fiscal 2012. In Hawaii, we continue to demonstrate the in-ocean performance of our first grid-connected wave energy PowerBuoy, which was deployed in December, 2009 at the Marine Corps Base in Oahu. This PowerBuoy recently reached a significant milestone with the completion of over 5 million cycles in operation. This is an important achievement and confirms the durability of our grid-connected system, which has successfully survived severe storms and also tsunamis originating in both Japan and Chile. In addition, we continue to utilize and leverage our experience with the Hawaii PB40 and our Scotland PB150 to refine the design of the company's next-generation PowerBuoy, the PB500. We're making significant progress with concept design and wave tank testing of this larger-scale system, aimed at further lowering the cost per kilowatt hour of wave power, making it more competitive with other energy sources. We expect the PB500 to be ready for ocean trials in late calendar 2013, and we're working on appropriate grants and other funding from a range of sources to make this a reality. In the interim, our PB150 PowerBuoy will be our workhorse for utility-grade installations over the next several years. Now turning to Slide 9. I'd like to give an update on our LEAP project. This highlights our Autonomous PowerBuoy that can operate in remote ocean applications where there is little access to grid-connected power. The Navy's Littoral Expeditionary Autonomous PowerBuoy program has as its goal the generation of remote reliable energy for long-term homeland security and maritime surveillance. OPT is making solid progress completing the LEAP PowerBuoy structure, incorporating a new power take-off system, which has successfully completed its land testing at our facilities in New Jersey. We plan to integrate the PTO into the PowerBuoy and deploy it for testing in the Atlantic Ocean off the coast of New Jersey later this year. We are pleased with our pace on this autonomous project and look forward to working with the U.S. Navy during ocean testing within the coming months. Turning to Slide 10. I'd like to talk about our overseas initiatives in Japan and Australia. We've made continued progress with regard to bringing clean wave energy to Japan, and following the recent, very tragic events there, demand now seems greater than ever. We are working with Mitsui Engineering & Shipbuilding, or MES, on developing a new mooring system for our PowerBuoys customized for wave power stations off the coast of Japan. We've also worked with MES to conduct certain development engineering in connection with the project as well as to perform tests at their wave tank facilities. The company has continued to make progress towards the next steps of completing economic assessments and identifying a project site for an in-ocean trial of the PowerBuoy system. Following an expected agreement for that work and the identification of a project site, MES and OPT would then enter into a contract to conduct ocean trials of the demonstration PowerBuoy system. The trial PowerBuoy system would provide the basis for the expected build-out of a commercial-scale OPT wave power station with an initial capacity of several megawatts, scalable to 10 megawatts or more. It's very exciting, and Mitsui is proving to be an excellent partner. We've seen accelerated interest by the Japanese government and industry since the dangers of nuclear power were exposed earlier this year. Moving to Australia. And, as previously reported, our joint venture there with Leighton Contractors won a AUD $66.5 million grant from the Commonwealth government, the equivalent of about USD $71 million, with the purpose of building a 19-megawatt wave power station off the coast of Victoria, supplying electricity for up to 10,000 homes. The grant is conditional on Leighton obtaining the balance of funding needed for the project, although it is expected this can be raised in stages. Leighton and OPT have been discussing the best methods for securing project financing. We are encouraged by the strong interest in our power applications and by the support of the Australian government, and we look forward to providing an update on this important project as we get more visibility on the project financing. I will now turn the call over to Brian Posner, who will discuss our financial performance for the fourth quarter and fiscal year in detail.