Thank you, Richard. Before I get into the new data, let's quickly review why we believe selinexor as an XPO1 inhibitor is a rational mechanism to evaluate in patients with myelofibrosis starting on Slide 11. Selinexor prevents the nuclear export of various proteins and messenger RNA molecules inhibiting both JAK and non-JAK pathways, the latter which includes the nuclear localization and activation of p53, an important tumor suppressor in myelofibrosis, given that approximately 95% of myelofibrosis patients are p53 wild type. Let's start by reviewing the unmet need in JAKi-naïve myelofibrosis on Slide 12, selinexor's potential to help patients with myelofibrosis and our opportunity to redefine the standard of care as the first combination therapy. To set the stage, there has been a lack of new treatment options, given that the JAK inhibitors are the only approved class of therapies. Ruxolitinib has been the standard of care for over 13 years. As the potential first combination therapy in myelofibrosis, selinexor plus ruxolitinib would be a convenient all oral therapy that the myelofibrosis community has clearly indicated interest in adopting given the rapid, deep and durable spleen reductions and symptom improvement observed from the Phase I study. Let's now focus on the four key hallmarks in myelofibrosis. First, let's look at spleen volume reduction. I think it's a helpful reminder that only approximately one-third of patients achieve a spleen volume reduction of greater than 35% with ruxolitinib alone. As we have shared before, our Phase I data showed that selinexor plus ruxolitinib more than doubles that SVR35 rate. Second is symptom improvement. As a reminder, data from our Phase I trial of selinexor in combination with ruxolitinib showed an average 18.5 point improvement in absolute TSS at week 24, which suggests a meaningful improvement over the 11 to 14-point improvements achieved by patients on ruxolitinib as observed in the Phase 3 MANIFEST-2 and TRANSFORM-1 trials. Third is hemoglobin stabilization and transfusion burden. The new data we will be reviewing today shows higher hemoglobin levels, lower transfusion burden, in much lower rates of all grade and grade 3 plus anemia in patients randomized to selinexor compared to physician's choice, primarily JAK inhibitors, including ruxolitinib. Fourth is disease modification. There is minimal evidence of disease modification with JAK inhibitors. The new monotherapy data shows substantial reduction in key cytokines that are critical to myelofibrosis pathogenesis, symptom development and anemia. We believe this data likely indicates that selinexor is having an impact on the underlying disease, which enables both monotherapy as well as additive, if not potentially synergistic benefit when combined with other therapies, including ruxolitinib. Turning to Slide 13, our XPORT-MF-035 trial is a randomized Phase 2 trial that is evaluating selinexor monotherapy versus physician's choice. The study was designed to evaluate the efficacy and safety of selinexor in a more heavily pretreated myelofibrosis population. Importantly, this trial allows for patients to cross over from physician's choice to selinexor if their spleen met predefined progression criteria. To be eligible for the trial, patients needed at least six months of prior exposure to a JAK inhibitor. This trial was originally designed to randomize 112 patients. However, we stopped enrollment in 2023 to focus our resources on our ongoing Phase 3 SENTRY trial. Slide 14 contains the baseline characteristics for the 24 patients that we enrolled in the trial. Keep in mind that this trial enrolled a very different patient population than the patients we are enrolling in our Phase 3 SENTRY trial. Patients in this trial were heavily pretreated with an average of two prior lines of therapy with some patients having up to four lines of prior therapy. This is also a very frail high-risk population. I would direct your attention to the fact that 17% of patients are triple negative and 21% are high risk. Furthermore, these patients are generally cytopenic with hemoglobin levels between 9 and 10, five of these patients were transfusion-dependent prior to enrolling in the trial. Slide 15 contains the spleen volume reduction observed in this trial. We evaluated the maximum SVR experienced at any time in the efficacy of valuable populations. The eight patients shown in blue were treated with physician's choice, the patients represented by the solid green bars in the middle of the slide were randomized to selinexor. The additional five patients in the textured green bars on the far right were patients that progressed on physician's choice and crossed over to selinexor. As is clear on this slide, spleen volume reduction was greater in those patients that received selinexor at any time compared to the group that received physician's choice. In fact, all but one patient in the selinexor arm achieved some degree of spleen volume reduction, whereas only half of the patients in the physician's choice arm experienced a decrease in spleen volume. 38% of the evaluable patients in the physician's choice arm achieved in SVR25 at any time were 67% in the selinexor arm, including patients that crossed over achieved an SVR25. For SVR35 rates were more than double for selinexor, 13% of patients in the physician's choice arm achieved this level of spleen volume reduction or greater compared to 33% in the selinexor arm. Slide 16 contains a very compelling spider line graph that looks at the impact that selinexor has on spleen size on patients that crossed over and thus had progressed on prior therapy. Of the six patients who crossed over from physician's choice to selinexor, five were evaluable and are shown on the slide. Four of these five patients received ruxolitinib as a physician's choice prior to crossover. So in fact, the spider line graph really demonstrates selinexor's effect on the spleen size in ruxolitinib refractory patients. The first column is represented by the Y axis, represents the baseline spleen level for each patient. The second series of data points represents the maximum reduction of spleen volume on physician's choice of ruxolitinib. The third series of data points represent the spleen volume growth experienced at the time of progression. The fourth series of data points then represents spleen volume relative to baseline after the patients crossover to selinexor. The interpretation of these data are very clear, each patient that crossed over to selinexor demonstrated clear and meaningful reductions in their spleen volume after crossing over, likely indicating that selinexor is targeting pathways beyond the JAK-STAT pathway, enabling both monotherapy activity as well as additive, if not synergistic activity when combined with ruxolitinib. Similar to spleen volume reduction, we also see meaningful symptom improvement with selinexor monotherapy. As you see on Slide 17, there was no improvement in symptoms for the patients randomized physician's choice, in contrast, the seven efficacy evaluable patients randomized to selinexor reported a 5.9 point improvement in absolute TSS at week 24 and 29% achieved TSS50. If you look at all patients treated with selinexor, including those that crossed over, this group reported a 3.7 point improvement in absolute TSS and 18% achieved a TSS50 at week 24. Please note that all of these figures exclude the fatigue domain, which is consistent with how we are calculating absolute TSS in our Phase 3 SENTRY trial. As we have previously discussed, we have aligned with FDA on this approach, and it is consistent with the comfort and JAKARTA trials that led to approvals for ruxolitinib and fedratinib, respectively. Turning to Slide 18, we show how hemoglobin levels changed over time. Patients randomized to selinexor are shown in green, patients on physician's choice are shown in blue. Visually, you can see that hemoglobin levels are substantially higher in the selinexor arm throughout the study duration. Let's take this a step further and look at transfusion burden, as shown on Slide 19. Starting with the swimmer plot on the left, we use the same colors from the prior slide. Patients randomized to selinexor are in green, patients randomized to physician's choice are in blue, and patients that crossed over to selinexor are shown in the yellow extensions at the end of the blue lines. The red dots represent transfusions. Five patients were transfusion dependent at baseline, three in the physician's choice arm and two in the selinexor arm. Notably, patient 4112-003 in the selinexor arm was transfusion-dependent prior to randomization. Visually, you can see right away that patients that start on physician's choice received many more transfusions. Why? It is likely because XPO1 inhibition is modifying the underlying disease and helping the patients produce more healthy bone marrow. We expect to be able to answer this question more definitively with the results from the Phase 3 SENTRY trial. Now, we ask ourselves why are we seeing higher hemoglobin levels and less transfusion. Let's look at Slide 20, which outlines the key cytokines that are relevant in myelofibrosis. Starting with myelofibrosis pathogenesis, IL-6 and IL-8 are relevant to malignant mutated clonal expansion, hepatosplenomegaly and bone marrow angiogenesis. IL-6 and IL-8 also affect constitutional symptoms and drive inflammation as does TNF alpha. Anemia is affected by IL-6 hepcidin and TNF alpha, which plays a role in suppressing normal hematopoiesis and also blocks iron availability. Please keep all of this in mind as we review Slide 21. We obtained plasma samples at baseline and again at week 4 on a subset of the patients that participated in the trial, five from the selinexor arm and five from the physician's choice arm. We plotted the cytokine changes using a standard dendrogram plot. Blue and purple use represent a decrease in cytokines, red and peach use represent an increase. The decreases are what we are looking for. As you look at the slide, please focus on the box in the middle of the screen. This is where the four cytokines that are relevant to myelofibrosis are shown. You'll see the arrows pointing to IL-6, IL-8 hepcidin and TNF alpha. For these four key cytokines, we are seeing clear reductions as early as week 4 in the selinexor arm, while there are increases in the cytokines in the physician's choice arm. In the blue box at the bottom, you can see the actual percentage changes, including a 37% median reduction in IL-8, 29% median reduction in IL-6, 25% median reduction in TNF alpha and a 30% median reduction in hepcidin for those patients in the selinexor arm. In contrast, three of the four medians increased for the physician's choice arm. These data suggest that selinexor is modifying the underlying disease is something that JAK inhibitors have not been able to adequately demonstrate. Let's now turn to the safety data on Slide 22. Selinexor continues to demonstrate a manageable safety profile. Selinexor is similar to physician's choice for both all grade and grade 3+ AEs. In particular, nausea was only 33% in the selinexor arm compared to physician's choice. Similar rates of thrombocytopenia were observed across the two arms. A notable exception is anemia, where both all grade and grade 3+ anemia are meaningfully decreased in the selinexor arm compared to physician's choice. Specifically, all grade anemia was 25% in the selinexor arm compared to 58% in the physician's choice arm and grade 3+ anemia was 17% in the selinexor arm compared to 58% in the physician's choice arm. These data are notable, given that we are not only seeing higher hemoglobin levels and lower transfusion burdens, which I discussed on the prior slides, but also lower anemia AEs and our safety data further suggestive of disease modification. Lastly, I'll note that none of the patients randomized to selinexor, discontinued treatment due to an adverse event. Turning to Slide 23, we are pleased that our Phase 3 SENTRY trial successfully passed its prespecified futility analysis. The DSMB recommended that the study continue as planned without modification, following a review of safety and efficacy data in the first 61 patients, all of whom were followed for at least 24 weeks. In the study, we continue to make strong progress towards our goal of enrolling 350 patients. We expect to complete enrollment very shortly in the June-July timeframe. With the data that I just shared with selinexor monotherapy in a hard-to-treat heavily pretreated patient population, I'm very encouraged with the consistency that is being observed across our multiple clinical and preclinical data sets. These data continue to suggest that the combination of selinexor plus ruxolitinib has the potential to be clinically additive, if not synergistic in a JAKi-naïve patient population thus leading to substantially higher SVR and TSS improvements as compared to each agent alone as observed in our Phase 1 combination study. Together with the hemoglobin stabilization and lower transfusion burden as well as the potential for disease modification, the data continue to suggest that selinexor is affecting each of the four key hallmarks of myelofibrosis. We look forward to continuing to demonstrate this with the upcoming results from our Phase 3 SENTRY trial, and building upon selinexor's well-established safety profile with over 30,000 patients treated across multiple indications and the potential for patient convenience with an all-oral combination. Now, let's shift our focus to endometrial cancer, where p53 wild type is such an important biomarker. As seen on Slide 25, patients with both MMR proficient and TP53 wild-type tumors make up approximately 50% of all advanced or recurrent endometrial cancer cases, representing a very sizable group of patients. Selinexor primarily functions by blocking the export of p53 from the nucleus to the cytoplasm. When p53 accumulates in the nucleus, it leads to disruptive DNA repair processes, cell cycle arrest and increased apoptosis. I remain encouraged with the potential of selinexor to achieve clinically meaningful outcomes in the maintenance setting for patients with p53 wild-type endometrial cancer. On Slide 26, we outlined the study design for our ongoing XPORT-EC-042 trial. Enrollment in the trial is progressing steadily, and we continue to expect to report top line data in the middle of 2026. Lastly, our Phase 3 EMN29 SPd trial is outlined on Slide 28. This trial aims to address the unmet need of patients with multiple myeloma by offering an all-oral triplet treatment option that could also benefit those undergoing pre- and post T-cell engaging therapies. We expect to report top line data from this event-driven trial in the first half of 2026. I will now turn the call to Sohanya.