Thank you, Natalie, good morning everyone. In our last call in August, I started out by pointing out how far we've come in five years since announcing the metallic fuel for power operates and longer fuel cycles in September 2010 in an industry where progress is typically measured in decades, not months or years. Since the beginning of the third quarter alone, I am pleased to report the following major milestones. First, we entered into a comprehensive nuclear services agreement with Canadian Nuclear Laboratories, also known as CNL. For fabrication of our patented next generation nuclear fuel test samples at CNL's Chalk River, Ontario, Canada. Second, we entered into a binding services agreement for radiation testing of our nuclear fuel samples in the Institute for Energy Technology Halden research reactor in Norway. The Institute for Energy Technology also known as IFE, is a leading international research foundation for energy and nuclear technology. Third, IFE was awarded an export license by the Norwegian Ministry of Foreign Affairs for radiation testing and discharge of our metallic fuel. Fourth, IFE's safety committee approved our planned loop radiation experiment in the Halden research reactor under commercial reactor operating conditions. Fifth, initial task and purchase orders were issued under agreements with the CNL and IFE. Sixth, four of the largest U.S. nuclear power plant operators continue to advise us on our nuclear fuel program and recently they expanded their support to include expert technical advice in the area of U.S. Nuclear Regulatory Commission, NRC; Regulatory licensing activities. Seven, we are engaged in active discussions with leading global nuclear fuel manufacturers. And lastly, we received additional Korean and Australian patents. I'll discuss many of these items in more detail but clearly the industry is embracing our technology as evidenced by the fact that four of the leading U.S. utilities which collectively represent about 50% of all nuclear power production in the country have publicly expressed interest in our technology formally requesting the NRC to review our patented metallic fuel designs. As I mentioned earlier, these utilities are now also providing technical advice in the area of regulatory licensing activities. Our nuclear fuel is safer, produces increased power output, lowers costs, enhances economics and reduces waste without overhauling the existing industry infrastructure. And we are very much on track and in many respects ahead of schedule towards commercialization of our metallic fuel. Most recently IFE which operates the Halden research reactor in Norway was granted an export license by the Norwegian Ministry of Foreign Affairs covering all planned activities relating to our nuclear fuel in Norway. Planned activities include radiation testing of our advanced metallic fuel samples under prototypic commercial reactor operating conditions, as well as discharge of radiated fuel samples from IFE's Halden research reactor. The export license is valid for an initial standard term of three years through October 31, 2018 and is extendable. The award of the Norwegian export license follows an agreement in July 2015 in which Lightbridge and IFE entered into a binding services agreement for radiation testing of our nuclear fuel samples in IFE's Halden research reactor, post radiation examination of the radiated feel samples at Studsvik in Sweden requires a separate Norwegian export license for which IFE plans to apply. Additionally, we announced in late September that IFE's Safety Committee approved our plan to loop radiation experiment in the Halden research reactor. As a next step they have submitted a safety report on our metallic fuel samples to the Norwegian of Radiation Protection Authority as part of an application for regulatory approval of the loop radiation experiment under commercial reactor operating conditions in the Halden reactor. We also announced that initial task and purchase orders have been issued under previously announced agreements with CNL and IFE, work is currently underway on both projects in accordance with the overall project plan. The initial phase of radiation testing is expected to begin in early 2017 and continue for about three years to reach the burnout necessary for insertion of lead test assemblies in a commercial power reactor. The final phase of the radiation testing necessary for batch reloads and full course in commercial reactors operating with a 10% power operate and a 24-month fuel cycle is expected to take an additional two years and be completed while lead test assemblies have begun operating in the core of a commercial power reactor. Given our progress, we plan to begin fuel fabrication and characterization of prototype fuel rods using depleted uranium in mid-2016 followed by fabrication of radiation fuel samples using enrich uranium before the end of 2016. We have held meetings with a large nuclear fuel fabricators with the goal of putting a teaming arrangement in place in 2017 or 2018. We have been encouraged by our progress in this area. It is possible that an arrangement could be finalized sooner than expected. We are very much on-track towards full scale lead test assembly demonstration in a commercial reactor in the 2020 to 2021 timeframe. We believe our commercial goals are aligned with government's priorities. The U.S. Clean Power Plan allows credit for new nuclear power plants and power upgrades or increased efficiency at existing nuclear power plants. We believe these credits for power operates will provide further support for our fuel in the U.S. making it even more economically attractive to power utilities. We designed our metallic fuel to have the specific benefit of increasing the power output of reactors exactly meeting the aforementioned goal of the clean power plant. Our metallic fuel accomplishes the power upgrade by increasing the power generated by the reactor every day the plant operates, as well as by lengthening the fuel cycle when the reactor is shutdown for refueling fewer days per year. States are charged with making plans to achieve these national goals by September 2016. Moreover, we are seeing increased interest in our fuel designs from reactor operators not just in the U.S. or around the world. Other countries are preparing plans that we expect will include similar provisions as the U.S. We look forward to announcing additional partnerships and support for our next generation fuel technology from the global nuclear community. As I mentioned on our last call, nuclear energy policy will be a major agenda item next month in Paris. At the 21st session of the conference of the parties to the United Nations Framework Convention on Climate Change or COP 21. Nearly 40,000 delegates are expected to attend. The conference goal is to arrive at a universal a legally binding agreement that enables nations to combat climate change and accelerate the transition toward resilient low carbon economies. The agreement would enter into force in 2020, the same year we are targeting for first use of our fuel in a commercial reactor in the United States. Participating countries must publish their national plans as soon as possible and before COP21 starts this December. We expect nuclear to be featured as a key solution given its ability to provide reliable base load energy and because nuclear reactors do not emit carbon dioxide. So to wrap up we believe we are in the cost of our fuel technology gaining an important place in the nuclear industry given the significant economic benefits of our fuel for nuclear reactor operators. To put this in perspective, we can produce power at lower incremental cost than natural gas, even the historic lows we've seen in the gas market. Even traditional nuclear can't compete on price at the levels. And we can generate base load energy without CO2 emissions or price volatility of natural gas. In addition to the financial benefits our fuel provide significant safety advantages as evidenced by 1000 degrees Celsius reduction in average fuel operating temperature compared to conventional uranium dioxide pellet fuel. Not only does our fuel operate at lower temperature but in a design basis accident, it does not run the risk of explosive hydrogen gas generation. Assuming just modest penetration of the U.S. market, we have the potential to generate hundreds of millions of dollars annually and high margin royalty fees upon successful commercialization. We will also introduce our fuel technology to large and growing global market. Now here is Lightbridge's Chief Financial Officer, Linda Zwobota to summarize the company's financial results for the quarter.