Thanks, Ryan, and good afternoon, everybody. Those of you who have followed Rigel for some time know that we have developed extensive expertise in the fields of immunology and oncology. And it bears mentioning that 2 of our long-standing partnerships, one with Daiichi Sankyo and the other one with BerGenBio, have produced 2 cancer-targeting product candidates which are currently in Phase I clinical studies. In addition our partner, AstraZeneca, has a Rigel-discovered small molecule inhibitor of cytokine signaling in inflammatory conditions of the lung that we expect to enter Phase I clinical studies in the near future.
Important to our future direction is the recent collaboration with Bristol-Myers in the immuno-oncology field that is aimed at selecting on orally bioavailable TGF beta receptor inhibitor effective at altering the microenvironment of solid tumors. So these collaborations will select the breadth and depth of our research base, and we hope to deliver more of these collaborations over the near future or the next 12 to 18 months.
Let me now focus on Rigel's preclinical and clinical development programs, which demonstrate our ongoing commitment to the convergence of these 2 fields in immunology and oncology. Our lead and most advanced asset is fostamatinib, and it has been evaluated for its activity to treat various immune disorders and certain types of lymphomas. The results of those advanced clinical studies have resulted in more than 4,000 patient years of information about fostamatinib and provided us with a tremendous amount of insight into its mechanism of action in those different disease areas.
So our research and development team currently is focused on 7 projects for the treatment of oncology and immunology diseases, and each one of these projects is designed to maximize the assets that we already have in hand and take advantage of our expertise. The first 5 projects are opportunities to expand our fostamatinib franchise. This is already a Phase III product candidate. We know a lot about it, so we want to leverage it into new opportunities.
And in work that has already been published, clinical studies have shown the fostamatinib to be effective in patients with chronic lymphocytic leukemia as well as certain forms of lymphomas where the B-cell activation cascade driven by the SYK kinase supports the proliferation of abnormal cells. Research by Rigel and others has shown that inhibiting the SYK kinase can inhibit the activation of B-cells and myeloid cells and may slow or arrest disease progression. So building on this clinical observation, there are 4 specific project areas that we are currently exploring in order to advance additional indications for this product.
The first involves testing fostamatinib in patients who have failed or resistant to ibrutinib, which occurs in patients with CLL who have developed resistance to this drug over a period of 18 to 24 months. It has been suggested by a number of KOLs that their rate of resistance to this product will increase significantly, making room for other agents, including our SYK inhibitor, to provide the appropriate immune regulatory responses.
A second area on which fostamatinib can be applied is in combination therapy with ibrutinib or other agents, focusing on diseases like follicular lymphoma, a B-cell lymphoma which is the most common indolent form of non-Hodgkin's lymphoma, and several key opinion leaders have strongly urged us to go forward in this area as they think it's a very novel opportunity for our product.
The third area of focus is on the potential application in treating Waldenstrom's macroglobulinemia, a type of lymphoma that causes a buildup of IgM antibody in the blood, bone marrow and certain organs. And there's significant new and exciting preclinical data suggesting that fostamatinib might be quite effective in this condition.
And finally, the last of these 4 projects that we are closely evaluating is in the potential use of fostamatinib in treating autoimmune hemolytic anemia. This is a disease where antibodies bind to the red blood cells and precipitate their destruction. There is a significant need for new therapies in this area as steroids are currently only partially effective therapy that's used. We have published the clinical data demonstrating fostamatinib's potential in preventing red blood cell destruction, and this clinical indication really builds on our experience with ITP. We will select opportunities from this list in advance them into the clinic as soon as we can.
An important fifth project we are currently considering with fostamatinib is in the immuno-oncology area that focuses on fostamatinib in combination therapy aimed at solid tumors where B-cells and humoral immunity are implicated in modulating the immune microenvironment of tumors. Much of the news in immuno-oncology has been based around the activation of T-cells. We are focusing on B-cells and macrophages. And preclinical studies have shown that SYK and B-cell inhibition to be effective in reprogramming immunoresponses towards productive antitumor activity, suggesting a novel anticancer strategy when combined with other therapies such as checkpoint inhibitors.
So building on our immuno-oncology pipeline that includes the Bristol-Myers collaboration, our newest immuno-oncology target focuses on the Mer tyrosine kinase inhibitor class. MERTK is a novel target and research suggests that Mer tyrosine kinase plays a role in modulating the macrophage and dendritic cell response in tumor growth. In other words, inhibiting MERTK would enhance the antitumor response in the body's immune system. So our approach in immuno-oncology is focusing on B-cells and macrophages.
Finally in that context, I would like to finish by saying a few words about our IRAK inhibition project. We are exploring the potential of using IRAK inhibition in a number of inflammatory and oncology diseases. IRAK-1, 4 kinases are critical for the sealing of the IL-1 and toll-like receptor families and mediate inflammatory conditions in signals that cause cellular damage.
Our aim is to block the signaling of these modulators in instances where they are overreactive, like in some forms of acute gout or lupus as well as in various hematologic malignancies. In fact, IRAK signaling, for example, has been shown to be activated in a number of mutations where the adaptive protein, MyD88, is associated with certain lymphomas and in the majority of patients with Waldenstrom's macroglobulinemia. Our team has nominated a product candidate, and we expect to have our first IRAK inhibitor in Phase I clinical studies in the first half of 2016.
So thank you for your time today, and I'll turn it back to Raul.