Thank you, Mark and good afternoon to everyone. Please turn to Slide 7. On today's call, I am first going to review the results of our Phase III PRESENT interim analysis, followed by a discussion on our ongoing clinical programs. Our PRESENT trial, in addition to the evaluation performed by our internal team, we have consulted with outside experts, including Dr. Beth Middendorf, the trial principal investigator and with Dr. George Peoples, both of whom are expert in the field of immunotherapy and have essential experience with NeuVax. Our initial focus was to confirm that there were no irregularities in the operations of the trial and, as previously reported, we found no deficiencies, including in the area of data management, randomization, drug manufacturing and supply. We've then been focused on data review and analysis of the primary endpoint of disease-free survival or DFS, to understand the unexpected trial results. Of note, there were no major demographic imbalances such as age, tumor size or other based-on characteristics, including past medical history in patients enrolled in the trial. Before I go into the specifics, it is important to note that this data is from the data card prepared for the review by the IDMC at the time of the pre-specified interim analysis. We expect the database spot to occur by the end of the year and do not expect any significant changes in the data. Please turn to Slide 8 for the Kaplan-Meier plot showing our topline interim DFS results. By design, a KM plot is an estimator used to measure the proportion of the patients living free of disease for certain amounts of time after treatment. As you can see, there is a separation of the curves which is more substantial around 12 and 24 months. The median follow-up was 19.7 months. The control group performed better than the treatment group, but this difference was not statistically significant, with a P value of 0.07. At 36 months, although the number of the patients remaining in the trial is limited, the curves appear to be converging. Based on this data, the IDMC recommended the trial be stopped per the prespecified criteria or futility. As expected, the treatment was well tolerated and although the difference between the vaccine and control arm is not statistically significant, the overall recurrence rate in control group, control arm, was lower than expected based on the expected recurrence rate included in the protocol. The study protocol called for a three-year DFS rate of 77% for the control arm and 85% for the vaccine arm. Their assumptions were based on the published data and the results from the Phase I/II NeuVax clinical trial and were incorporated into this special protocol assessment approved by the FDA. Recent data from Sears Database shows that the breast cancer survival rate increased approximately 1.9% per year from 2004 to 2013. Earlier diagnosis and the combined modality of care have resulted in overall treatment improvement in patient care. For example, improved and more widely used hormonal therapies such as aromatase inhibitors have provided significant systemic treatment advances while radiation treatment also enhanced with more targeted therapy. We believe that this overall improvement in the standard of care may explain the unexpected low DFS rate in the control group. In the next few minutes, I'm going to discuss the results of this study in light of two major notions which have generated great attention over the last several years in the immunotherapy field proactive imaging to identify recurrences in the advanced setting and through the progression in the context of cancer immunotherapy. First, proactive imaging to identify recurrence in the adjuvant setting. Please now turn to Slide 9 to discuss the timing of the imaging used in the PRESENT trial. The study design required baseline imaging via CT scan and bone scan showing no evidence of disease before a patient could be enrolled and treatment could begin. Additional prespecified imaging was scheduled to be performed around months 12, 24 and 36, with some flexibility to accommodate personal schedules for patients. This is in contrast with the routine clinical practice where the recurrence of breast cancer after primary treatment is identified on the basis of clinical presentation, such as symptoms or laboratory findings. CT scan and pet scans are used to evaluate these findings farther and potentially confirm the cancer recurrence. In the Phase III trial, the imaging was performed proactively which likely lead to identification of a certain number of micro metastases which otherwise would have only been seen or diagnosed if they had become clinically relevant. Proactive imaging also would identify micro metastases earlier than they might have otherwise been identified clinically. This interval imaging incorporated into the protocol was agreed upon by the FDA to ensure patients were disease-free upon enrollment and to eliminate physician bias in choosing when to evaluate patients who did not have symptoms of recurrence. Therefore, the identification of recurrences clusters around 12 and 24 months and those did not reflect the natural history of the disease, but most likely an identification of a lesion with unknown clinical significance at the time of its discovery. And finally, acknowledging only a small number of patients were followed for 36 months and beyond occurs to appear to converge over time. This may indicate the delayed cancer immunotherapy effect. The last item to note on this slide is the table at the bottom. As we have stated, there were 71 total adjudicated DFS events. Of those, 47 were identified via proactive imaging and only 24 were identified by clinical presentation. This means that 66% of the DFS events were found by proactive imaging. With this preliminary look at the data, up to two-thirds of the events were diagnosed around the time of proactive imaging at 12, 24 and 36 months. This is a strong indication that clinical presentation as it is in the clinical practice was not the driver for identification of recurrent cancers in most patients. A recommendation from the ASCO in 2013 argued against PAD-4 PET CT scans to be used for detection of a cancer recurrence in patients with no symptoms who have finished treatment that was intended to eliminate the cancer, meaning in an adjuvant setting. Moving to Slide 10, I would like to discuss the specific composition of the DFS event at the time of interim analysis. Looking at the table in the PRESENT trial, an event was defined in one of three ways -- as recurrence of the primary breast cancer, the occurrence of another unrelated cancer or death from any cause. As shown on the first row of the table, the imbalance in DFS events is overwhelmingly due to recurrence of the primary cancer with 9.6% in the NeuVax group and 6% in the control group or a median follow-up of 19.7 months. There were no significant differences in the occurrence of another cancer or death as a component of DFS. In the graph at the bottom, we also show overlapping waterfall plot of the DFS rates attributed to the active or NeuVax arm and the placebo or control arm. The red oval circle encapsulates the number of DFS events identified by the proactive imaging scan around 12 months. This shows that 60% of the event in NeuVax arm and 32% of the event in the control arms were identified around the prespecified CT scans. This indicates that the majority of the recurrences in the NeuVax group are identified by proactive imaging with undetermined clinical significance. Those patients where this continued from this study at the time of DFS event per protocol and were not followed clinically. This is in contrast with the recurrence in the control group, where only a minority were identified around the time of the prespecified CT scan. This is an important point in understanding the study outcome. Now let's turn our attention to the second notion, pseudo-progression in the context of the cancer immunotherapy. Please turn to Slide 11 to expand upon Mark's earlier comments on pseudo-progression in terms of clinical outcome and how this is relevant to the Phase III trial. In PRESENT study, the majority of the recurrences seen on imaging were in a distant site, including the bone, lungs and liver, indicating that the micro metastases in this patients existed at the time of the primary treatment but were undetectable at the baseline imaging. Beginning with the first block on this slide, in the period of immuno stimulation, immune inflammatory cells such as NeuVax induced T cells enter in tumor or micro metastases and create inflammation which includes edema and attracts inflammatory cells. This inflammation changes the consistency of the macro metastases and renders them more opaque and therefore visible on x-ray. It also increases the volume of the tumor with edema and infiltrating cells. Both of these factors make the tumor look larger on the CT scan and, in the case of micro metastases, make it visible that otherwise would not have been detected. This information can be potentially beneficial as it is the main process by which immunotherapy treatment for cancer produces results. Paradoxically, when the proactive imaging is performed, the micro metastases become visible earlier and more often and appear as a progression of the disease which could inaccurately be assessed as a recurrence. Now, to put both notions together, it appears that the combination of the proactive imaging in the context of adjuvant setting and additional -- through the progression in the context of immunotherapy can explain the data. Additionally, in the adjuvant study where PRESENT took place, immunological therapies may require extended monitoring over time to evaluate their effectiveness in preventing recurrence with clinical significance. Although the rate of recurrence is highest in the first 24 months, the recurrence can occur years later, indicating that, in these late recurring patients, a number of micro metastases stay dormant and don't become clinically significant for many years. Although this has not been known previously to the field, I would like to introduce the notion of pseudo-recurrence to explain this phenomenon in the adjuvant setting. Turning to Slide 12, we released our summary of PRESENT interim analysis. First, we believe that the low rate of recurrences in the control group arm resulted from an overall improvement in the standard of care. In addition, proactive imaging led to the discovery of lesions, some of which may not have had any clinical significance at the time of identification. Finally, the inflammation caused by tumor infiltrating lymphocytes, TILs, within the micro metastases and more specifically the NeuVax-induced cytotoxic cells, made them visible on scans in the NeuVax group and not in the control group. We now believe that causing this inflammation which is a mechanism through which the immunotherapy can eradicate the micro metastases in a group of patients, may have identified lesions that may have never progressed to clinical tumor. Because patients were discontinued from this study at the time were identified as having DFS event, we don't know if some of these patients who were diagnosed with a recurrence on the CT scan would have progressed cancer. In summary, we have learned a great deal from PRESENT trial and we're applying this knowledge moving forward for our other immunotherapy programs. We plan to lock the database and we'll continue to study the data with the plan to ultimately present our findings in a future medical conference and potentially in a publication to enhance the body of medical knowledge around immuno therapy. Moving to our ongoing program on Slide 13, we still have numerous trials ongoing with both NeuVax targeting HER2 and the GALE-301/302 targeting fully funding protein. On Slide 14 is our pipeline of clinical programs. Importantly, our combination trials for NeuVax are continuing with full support from the investigators and partners and I believe they will provide additional clinical benefits. It is important to note that these trials are not proactively scanning patients but instead are evaluating recurrences by additive clinical care. The most advanced of our NeuVax trials is the Phase IIb combination study with trastuzumab. Last month, the interim safety data from this trial was presented at the European Society for Medical Oncology demonstrating that this novel combination of trastuzumab and NeuVax in HER2 low to intermediate expressing patients is well tolerated and, most importantly, that the cardiac effect of trastuzumab are not impacted by the addition of NeuVax. We now expect enrollment for this trial to be completed in the first quarter of 2017 and the interim efficacy results 12 months after the last patient is enrolled. In addition, our other ongoing NeuVax combination trial and other planned trials are proceeding as planned. During the quarter, positive data was presented at two medical conferences on our GALE-301 GALE-302 programs targeting fully finding protein for the prevention of the recurrence in ovarian, endometrial and breast cancer. Additional booster and immunology data from those programs will be presented this weekend at the Society for the Immunotherapy of Cancer Conference and the breast cancer data will be presented next month at the San Antonio Breast Cancer Conference. In conclusion, I would like to confirm my belief in immunotherapy for cancer. This is an area that is still evolving and as any other evolving area in medicine, we may encounter unexpected results. This has been a common scenario with many great discoveries that have ultimately led to a better quality of life for human beings. These situations are very valuable learning opportunities. In science and research, we need to seriously consider methodologies used to assess our results and how they can show unexpected outcomes. Those may be more related to the methodology than to the underlying disease itself. Now please turn to Slide 15 for a discussion around our Phase III program with GALE-401, our controlled-release version of Anagrelide used to lower the elevated platelet count in patients with essential thrombocythemia or ET. Moving to Slide 16, I wanted to provide more information on ET and the challenges faced by patients suffering from this hematologic condition. ET is a chronic hematologic malignancy with no known cause. It is not an inherited disease, although there are -- there may be a familial disposition and recent research has discovered genetic mutations that may be a factor. Common symptoms include headache, vision disturbances or migraines, dizziness or lightheadedness, coldness or blueness of the fingers and toes, burning, redness and pain in the hands and feet. Some of the more severe complications for the patients with ET are thrombotic in nature, such as a stroke, heart attack, TIA DVT or blood clotting in other locations. On this slide, I've also listed risk factors associated with ET. Moving to Slide 17, I have included the treatment currently prescribed for ET patients. As with other NPNs, there is no single treatment option that is appropriate or effective for all ET suffers. While some ET patients may be asymptomatic and require no treatment, others may require various treatments and therapies based on the symptoms, their risk factors and potential complications. The treatment options are limited and include hydroxyurea generally prescribed as a first-line, followed by other treatments, including Anagrelide Immediate Release, interferon, aspirin or other agents, depending on the patient's condition. Of these, only Anagrelide Immediate Release is approved for treatment of ET patients. We believe these limited treatment options that are often accompanied by severe side effects present a great opportunity for GALE-401. On Slide 18, I have offered a development summary providing the strong clinical and development rationale to advance GALE-401 into late stage development. In our Phase II trial, GALE-401 demonstrated consistent efficacy and potential for faster onset of action and improved tolerability compared to Anagrelide IR and has advantages to twice-a-day dosing. We believe we will be able to utilize the 505(b)(2) regulatory pathway for approval and have a strong patent protection for the asset. Slide 19 is a snapshot of our development opportunity for GALE-401. Over the past several weeks, we have collaborated with regulatory experts and world leaders in the treatment of myeloproliferative neoplasms on the trial design and patient population for our Phase III trial. We have made significant progress on all fronts and we plan to meet with FDA by the end of the year and receive their agreement on our clinical plan in the first quarter of 2017. This would then allow us to initiate the Phase III trial in the second quarter. With that, I would now like to hand the call over to John Burns to discuss our financials. Please turn to Slide 20.