Thank you, Sohanya. Starting off with an overview of our clinical pipeline on Slide 11. We are rapidly advancing our pipeline, which is evaluating 2 complementary novel sign compounds selinexor and eltanexor across multiple cancers of high unmet need, including myelofibrosis, myelodysplastic neoplasms, endometrial cancer and multiple myeloma. Turning now to Slide 12. We continue to optimize the dose of selinexor across our clinical programs. The lower doses of 40 or 60 milligrams weekly that are incorporated in all of our current selinexor clinical trials. A 1/4 to less than half of the original approved dose of 80 milligrams twice weekly. The substantially lower doses optimize the patient benefit by improving its tolerability ultimately enabling patients to stay on therapy longer and improving their overall benefit. I'm going to spend most of my time today talking about our recent data in myelofibrosis and myelodysplastic neoplasms. But first, on Slide 14, it is worth reviewing some of the evidence about the potential benefit of selinexor in T cell fitness. There are a number of published studies, which have shown that selinexor maintains a T cell function in mice and can help maintain the effectiveness of CAR-T therapies in mice pretreated with selinexor. To further expand on these data, we are collaborating with academic institutions on additional preclinical research studies to further explore the impact of signed mechanisms on T cell fitness. In addition, we are leveraging real-world evidence data to determine whether patients who were treated with selinexor prior to receiving CAR-Ttherapy benefit from improved outcomes with CAR-T. Lastly, we are evaluating multiple clinical studies that will evaluate the benefit of selinexor when used before or after BCMA or CAR-T therapy in patients with multiple myeloma. This body of evidence will enhance our understanding of the role of XPO1 inhibition has in maintaining the T cell environment, which may potentially augment the benefit achieved with subsequent T cell therapies. Now let's discuss the data that we presented a few weeks ago at AACR on the efficacy and safety of selinexor plus ruxolitinib in first-line myelofibrosis patients. Since we already discussed these data at the event we hosted on April 18, I will cover these slides quickly. For anyone looking for additional details, I would encourage you to listen to a replay of our webcast from April 18, which is available in the Events and Presentations section of our website. Turning to Slide 16. The only approved class of therapy in myelofibrosis is the JAK inhibitors. Less than 50% of patients achieved in SVR35 and TSS50, and there are notable subgroups, including men and those who start on low dose of ruxolitinib were fewer than 25% achieved in SVR35 at week 24. And First, let's turn to Slide 17, which shows the trial design for our Phase I 034 study from which the efficacy and safety data for the selinexor plus ruxolitinib combination have been observed. On Slide 18 are the SVR35 and TSS50 results broken down by dose. In the efficacy evaluable in ITT populations, the SVR35 rate at week 24 achieved in the 60 milligram dose cohort were 92% and 79%, respectively, which is almost double compared to the rates achieved at 40 milligrams. Furthermore, these reductions occurred rapidly with a 71% SVR35 rate observed at week 12 in the 60 milligram ITT patient population. Consistent with the SVR35 data, treatment with the 60 milligram dose showed greater symptom improvement compared to patients treated with the 40-milligram dose. At week 24 for patients who received a 60 milligram dose of selinexor, TSS50 was observed in 78% of the efficacy evaluable population and 58% of the ITT population. Here as well, you see rapid improvement in symptoms with approximately 67% of the ITT population who received selinexor 60 milligrams achieved a TSS50 as early as week 12. The waterfall on Slide 19 shows the spleen volume response and the efficacy evaluable patients. As you can see, 100% of the evaluable patients treated with selinexor 60 milligrams achieved a spleen volume response of 35% or more at any time. Moving to Slide 20. We have the subgroup data in patients treated with selinexor 60 milligrams. In general, efficacy was similar across all of the subgroups that were evaluated. Highlighted in Orange are 2 important subgroups, specifically the response rates for men and women in the ITT population, which were similar at 78% and 80%, respectively. Similar efficacy was also observed by ruxolitinib starting dose with patients who were treated at starting doses of 15 or 20 milligrams of ruxolitinib achieving an SVR35 of 75% as compared to 83% amongst patients treated with 5 or 10 milligrams of ruxolitinib. On Slide 21, we show a unique subgroup analysis from patients that had their ruxolitinib dose reduced to 5 milligrams as early as cycle 2 and remain on that dose for the remaining duration of their therapy. Even with the subtherapeutic dose of ruxolitinib, all patients evaluable at week 24 achieved a spleen volume reduction of 35% or more. Similarly, symptom score improvement was observed in all patients with 5 out of 6 patients achieving a 50% or greater improvement in their total symptoms. These data suggest that XPO1 is a fundamental mechanism in myelofibrosis. Slide 22 presents a breakdown of adverse events. The most common adverse events were nausea, anemia, fatigue and thrombocytopenia and the most common grade 3/4 AEs were anemia, thrombocytopenia and neutropenia. While 75% of patients experienced nausea, the vast majority of these events were Grade 1 and transient with the majority of these events resolving within 2 cycles. Amongst the patients who received one prophylactic antiemetic, nausea rates was decreased and occurred at only a Grade 1 severity. We anticipate that these rates will further decrease in the Phase III study, which will incorporate mandatory dual antiemetics for the first 2 cycles. On Slide 23, even though some patients experienced nausea and vomiting, there was a median absolute weight gain of 2.5 kilograms observed at week 24 in patients treated with selinexor 60 milligrams. As shown on Slide 24, we highlight the potential findings for disease modification given that the median hemoglobin levels return to baseline and there's a rapid normalization of platelet levels contrast this with findings from patients who have received ruxolitinib as a single agent where hemoglobin levels drop after treatment initiation and stay low. The increase in hemoglobin over time, coupled with the rapid normalization of platelet levels between cycles 2 to 3 may be evidence of disease modification. Critical finding for patients given that thrombocytopenia is the leading cause for ruxolitinib discontinuation. In summary, as we turn to Slide 25, we believe selinexor 60 milligrams in combination with ruxolitinib has the potential to transform frontline myelofibrosis treatment paradigms. The combination is generally well tolerated and manageable, allowing most patients to remain on therapy. Rapid, deep and sustained spleen response and robust symptom improvement was found in patients treated with selinexor 60 milligrams in combination with ruxolitinib appearing to work together synergistically. As seen on Slide 26, the planned Phase III trial will enroll JAK inhibitor naive patients with intermediate and high-risk myelofibrosis, 306 patients will be randomized 2:1 to ruxolitinib plus selinexor or ruxolitinib plus placebo. We are eagerly looking forward to initiating the Phase III trial this quarter. Now let's turn our attention to our research in patients with myelodysplastic neoplasms or MDS, starting on Slide 28. Between 12,000 to 20,000 people in the United States are expected to have been diagnosed with higher-risk MDS in 2022. Hypomethylating agents are the current standard of care for newly diagnosed higher-risk MDS patients. However, only approximately 50% of patients respond. Prognosis and higher-risk relapsed/refractory disease is poor with an expected overall survival of only 4 to 6 months, and there are currently no approved therapies for HMA refractory MDS. Given the importance of XPO1 inhibition in MDS, eltanexor has the potential to meaningfully improve survival and provide benefit to patients who are in need of effective therapies. Turning to Slide 29. You can see the design of our Phase II study of eltanexor in relapsed/refractory higher-risk MDS. The data that we will be discussing today is from the 30 patients enrolled as part of the Phase II interim analysis. All patients were treated with the recommended Phase II dose of eltanexor identified in the Phase I, which was 10 milligrams daily for 5 days of each week. As shown on Slide 30, the objective response rate observed in the ITT population was 27%. All of the responses were marrow CRs with 2 of these patients also achieving hematologic improvement. Noteworthy was the transfusion independence rate observed in 29% of the patients who were transfusion dependent on red blood cells or platelets at baseline. The median overall survival was 8.7 months, which is encouraging given the median overall survival for patients with higher-risk relapsed or refractory MDS is typically only 4 to 6 months. Finally, on Slide 31, side effects were generally tolerable and manageable. The most common AEs were asthenia, diarrhea and nausea, the most common grade 3 plus AEs were neutropenia, thrombocytopenia and asthenia. There were no treatment-related adverse events leading to death, and 3 patients discontinued due to a treatment-related adverse event. Overall, the data from our interim analysis points to the potential importance of XPO1 inhibition in MDS. We plan to study these data further and determine the optimal development plan for eltanexor in MDS in the second half of this year. With that, please turn to Slide 32, and I will now hand it over to Mike.