Thank you, Richard. There is a substantial need to develop new treatment options for patients with myelofibrosis. As shown on Slide 7, this disease is heterogeneous and is defined by 4 hallmarks or defining features. These hallmarks include an enlarged spleen, abnormal blood cell production, bone marrow fibrosis, and constitutional symptoms. Furthermore, the median overall survival for intermediate to high-risk myelofibrosis patients is only 4 to 5 years. Lastly, JAK inhibitors are the only approved therapy for myelofibrosis. And while they may decrease symptom burden and lead to very modest spleen reduction, relevant JAK inhibitors, including ruxolitinib, the standard of care in frontline myelofibrosis, do not target all of the relevant pathways implicated in myelofibrosis, including NF-kappa beta, p53, and fibrosis-inducing pathways. As a result, treatment of frontline myelofibrosis patients with monotherapy JAK inhibitors do not adequately address the relevant drivers of pathogenesis in myelofibrosis. On Slide 8, our confidence in selinexor's potential in myelofibrosis is based upon a growing body of preclinical, nonclinical, translational and clinical efficacy and safety data sets. These data suggest XPO1 inhibition is a key mechanism that may facilitate potential synergy with ruxolitinib and other drugs relevant in myelofibrosis. This multi-targeted approach enables treatment of the underlying mechanisms that lead to myelofibrosis, and we believe may lead to meaningful efficacy across the key treatment drivers as well as a generally safe and manageable side effect profile. This is supported by our blinded safety data, which I will take you through in a few slides as well as our substantial safety database with selinexor, where approximately 30,000 patients have been treated in clinical trials and in the post-market setting. This underscores our confidence in the ongoing Phase III SENTRY trial. As seen on Slide 9, while JAK inhibitors directly inhibit the JAK-STAT pathways, multiple other pathways downstream of JAK-STAT support malignant clone proliferation and survival, bone marrow fibrosis, cytokine storms and proliferation of abnormal megakaryocytes. These pathways include NF-kappa beta, PI3-kinase, AKT/mTOR, and TGF-β, a multifaceted approach with dual XPO1 and JAK inhibition simultaneously target upstream and downstream effectors of the JAK-STAT pathway, ultimately enabling apoptosis or cell death of the malignant clones. Let's now focus on the key treatment drivers in myelofibrosis as seen on Slide 10, spleen reduction, symptom improvement and lower rates of Grade 3+ anemia. First, spleen volume reduction. As a reminder, note that only approximately 1/3 of patients achieved a spleen volume reduction of greater than 35% with ruxolitinib alone. In contrast, our Phase I data suggests that the combination could more than double the SVR35 rate at 79%. A substantial proportion of patients achieving an SVR35 is coupled with very encouraging durability, specifically a 100% duration of response as of the data cutoff. Second is symptom improvement. Data from this trial also showed an average 18.5-point improvement in absolute TSS at week 24, which suggests this combination could provide a meaningful improvement over the 11 to 14 points achieved by patients on ruxolitinib as observed in the Phase III MANIFEST-2 and TRANSFOR-1 trials. Third is lower rates of Grade 3+ anemia. The data that we presented in June at EHA from our Phase II 035 monotherapy trial showed lower rates of all grade and Grade 3+ anemia in myelofibrosis patients previously treated with JAK inhibitor therapies. Blinded safety data from the ongoing Phase III SENTRY study suggests a similar trend. Meaningful improvement of these treatment drivers requires disease modification or the elimination of the underlying mechanisms leading to development of an enlarged spleen constitutional symptoms and worsening cytopenias. Data observed from selinexor monotherapy studies in a pretreated myelofibrosis population as well as our Phase I combination data in JAK inhibitor-naive myelofibrosis suggest meaningful reductions in key cytokines that are critical to myelofibrosis pathogenesis, symptom development and anemia as well as improvements in bone marrow fibrosis, increases in erythroid progenitors and mutational burden. Turning to Slide 11. We are super excited that our Phase III SENTRY trial has completed enrollment with top line data expected in March 2026. The co-primary endpoints in SENTRY are SVR35 and absolute TSS, which are tested sequentially. As we have discussed before, it is important to reemphasize based upon learnings from other myelofibrosis trials that we believe we have optimized SENTRY for success. In alignment with the FDA, we changed the co-primary endpoint of TSS50 to absolute TSS and exclude the fatigue domain in the primary analysis of absolute TSS due to the ambiguity of patients' assessment of their fatigue. We are certainly not the first to exclude fatigue. In fact, both the pivotal trials that led to ruxolitinib and fedratinib approvals also excluded fatigue in their TSS50 analyses. Encouragingly, amongst approximately 350 patients enrolled in SENTRY, the mean baseline TSS, excluding fatigue is approximately 22.5. Note that the 21.9 that you will see in our ASH abstract today was preliminary data and before enrollment was completed. Our mean baseline of approximately 22.5 compares favorably to other comparable trials. Importantly, as you compare our number to other trials, please remember other Phase III trials may include fatigue in their baseline scores. How does the fatigue domain affect the score? Given that in the Phase III MANIFEST-2 trial, the average fatigue score at baseline was approximately 5 points. Our baseline score, if we included fatigue, would be approximately 5 points higher, which gives us confidence in the patient population that we have enrolled. Shifting back to our trial design, absolute TSS in the Phase III SENTRY trial will be analyzed using the mixed models repeated measure approach, or MMRM, which is viewed as a more sensitive and potentially more robust method by which to analyze absolute TSS. Now let's review the encouraging preliminary blinded aggregate safety data from this trial. As these are preliminary and blinded data, please keep in mind that this data may not be reflective of the trial's actual top line results. The data on Slide 12 are from the first 61 patients that enrolled in the Phase III portion of SENTRY that have now been followed for a median of over 12 months. These patients were included in the successfully passed futility analysis conducted in the beginning of the year. We have continued to track the safety events over time and took a snapshot of the blinded safety data from these 61 patients on July 1, 2025, which continue to look favorable. The most common TEAEs are provided for the first 61 patients randomized to the trial and include patients randomized to both the combination of selinexor plus ruxolitinib or ruxolitinib arms in a 2:1 ratio. Because these are blinded data, we do not know the rates by each arm. In an effort to improve comparability, we then took our analysis one step further. Knowing that the 61 patients were randomized 2:1, we used the historical data on ruxolitinib to extrapolate the preliminary safety data for the approximately 40 patients that received the combination, which is shown in the orange boxes in the middle of the slide. The number that I am most optimistic by is the extrapolated rate of Grade 3/4 anemia. At approximately 26%, the extrapolated rate of Grade 3/4 anemia for the combination is meaningfully lower than the 37% historically reported for ruxolitinib. Grade 3/4 thrombocytopenia rates are relatively similar, with 9% suggested for the combination treated patients compared with the approximately 6% reported for ruxolitinib alone. Finally, the extrapolated rate of treatment-emergent adverse events leading to discontinuation is only approximately 5% to 7% for the combination, lower than the 6% to 11% range that has been historically reported from ruxolitinib, which we view as an encouraging observation. We are very encouraged about these data and what it could mean for patients if we see something similar in the top-line results in the Phase III SENTRY trial. Specifically, it could suggest a combination therapy that has a safety profile similar, if not potentially better than standard of care ruxolitinib, given that both Grade 3 plus anemia and thrombocytopenia are similar, if not better, than ruxolitinib alone, could suggest decreased blood draws for the patient and reduced monitoring burdens for physicians and health care staff. As we await our Phase III data, it is informative to review a case study on Slide 13 that shows meaningful efficacy, overall tolerability, and the potential for disease modification. This patient is enrolled in the Phase I combination study of selinexor and ruxolitinib and has been on the study treatment for over 3.5 years. This 81-year-old female was diagnosed with myelofibrosis secondary to polycythemia vera. She initiated treatment with selinexor 60 milligrams in combination with ruxolitinib in March 2022. Her baseline spleen volume was 2,058 cubic centimeters for TSS without fatigue at baseline was 7, and variant allele frequency burden or VAF was 83%, meaning that 83% of her cells had a cancer-driving mutation. She achieved an SVR35 and TSS50 at week 24 and complete resolution of her symptoms by approximately week 52. Furthermore, her VAF levels decreased to 0, signifying eradication of the cancer-driving mutation. To this day, she still continues on therapy with minimal side effects, with more than 3.5 years on therapy. This patient exemplifies the potential a multi-pathway approach can deliver in a disease as complex as myelofibrosis. XPO1 inhibitors' unique ability to simultaneously target multiple relevant pathways suggest their foundational potential in all patients with MS as well as other myeloproliferative neoplasms. I will now turn the call to Sohanya.