Thanks, Ed. While we have successfully reduced our operating expenses and controlled our cost structure, our employees have shown great resilience in advancing our multiplexed engineered iPSC-derived CAR NK and CAR-T-cell programs. In the second quarter, we submitted and the FDA allowed our investigational new drug application for FT522, or off-the-shelf CD19 targeted CAR NK cell program for B-cell lymphoma. Notably, FT5Q2 is the company's first product candidate to incorporate our proprietary alloimmune defense receptor or ADR technology, which is designed to engage 4-1BB expressing host immune cells and induce NK cell activation and functional persistence. In preclinical studies, we've shown that ADR armed IPS-derived carnK cells exhibit potent antitumor activity in the presence of alloreactive T-cells. These data suggest that 522 has the potential to drive clinical responses without administration of intense conditioning chemotherapy to patients. which may enable 522 to be therapeutically differentiated and seamlessly combined with standard of care immunotherapies widely used in the community-based settings. We are currently conducting study startup activities at multiple sites. The study is designed to assess a 3-dose treatment schedule of 522 in combination with CD20 targeted monoclonal antibody therapy, including with and without administration of conditioning chemotherapy to patients. This study includes 2 regimens: Regimen A, which consists of 3 days of standard conditioning chemotherapy, 1 dose of rituximab and 3 doses of 522. We and Regimen B, which consists of 1 dose of rituximab and 3 doses of FT522 without conditioning chemotherapy. Each 3-dose treatment regimen will commence at 300 million cells per dose. Patient enrollment in regimen A will open first subject to clearance of dose-limiting toxicities, patient enrollment into regimen B will then open at 300 million cells per dose. Dose escalation of each regimen will proceed independently with each regimen permitted to dose escalate at up to 3x its then current tolerated dose level. The study's eligibility criteria allow for enrollment of patients with relapsed/refractory disease following at least one prior systemic regimen containing an anti-CD20 monoclonal antibody and does not require that patients received prior treatment with a T-cell engager or with autologous CD19 targeted CAR T-cell therapy. That said, we expect to initially enroll patients that are heavily pretreated, including patients that have previously been treated with autologous CD19 targeted CAR T-cell therapy. We remain on-track to enroll the first patient in the second half of 2023. We are also pleased with recent clinical progress in the conduct of our dose-escalating Phase I studies of FT576 in multiple myeloma and of FT819 in B-cell lymphoma. In our dose-escalating Phase I study of FT576, we have now enrolled the first patient in the 3 dose treatment cohort at 1 billion cells per dose in combination with CD38-targeted monoclonal antibody therapy. No dose-limiting toxicities were observed in the 2-dose treatment cohort at 300 million cells per dose. Similarly, in our dose-escalating Phase I study of FT819, we did not observe any dose-limiting toxicities in the single-dose treatment cohort at 540 million cells. And we have now expanded patient enrollment in that single dose cohort. Each Phase I study is now open for patient enrollment at over 10 sites during the second half of 2023, we believe we are well positioned to effectively drive patient enrollment with FT576 in the 3-dose treatment cohort at 1 billion cells per dose and with FT819 in the single-dose treatment cohort at 540 million cells. We expect that the clinical and translational data from these cohorts will be sufficient to inform each program's therapeutic profile. While the field of autologous CAR-T-cell therapy has delivered remarkable outcomes for patients with hematologic malignancies and Significant hurdles have stifled the safety and effectiveness of CAR T-cell therapy in treating solid tumors. We believe our multiplex engineered iPSC-derived CAR T-cell product platform is uniquely suited to bring a constellation of antitumor mechanisms to the fight against solid tumors. Our first product candidate emerging from our CAR T-cell product platform for solid tumors is being codeveloped under our collaboration with ONO Pharmaceutical. FT825 incorporates 7 novel synthetic controls designed to enhance effector cell function, including a novel CAR targeting HER2, a high affinity non-cleavable CD16 Fc receptor, a synthetic TGF-beta signal redirect receptor and a synthetic CXCR2 receptor. In preclinical studies, FT-825 demonstrated potent and preferential targeting of HER2 expressing tumors across a range of expression levels. Additionally, FDA 25 resisted TGF-beta-mediated suppression, maintaining robust activity across multiple rounds of tumor challenge and TGF exposure and also showed potent migration to CXCR2 ligands, which are often expressed on solid tumors. Robust antitumor efficacy in vivo has been observed in various subcutaneous HER2-positive xenograft models. Under our collaboration with Ono, we are currently conducting IND-enabling activities and GMP manufacture. And alongside the ONO clinical development team, we are jointly finalizing the Phase I study design for clinical investigation. At this time, we plan to assess the safety and activity of A25 as a monotherapy. In addition, while antibody-dependant cellular cytotoxicity or ADCC, is commonly associated with innate immunity, we also plan to clinically assess the safety and activity of FTA25 in combination with monoclonal antibody therapy. Leveraging the potential of the product candidate's high-affinity, noncleavable CD16 receptor to exploit ADCC enable dual antigen targeting and overcome solid tumor heterogeneity. We remain on track to submit an IND application in the second half of 2023 for FT825 in patients with HER2 expressing solid tumors. Finally, we continue to assess with keen interest, the potential to bring off-the-shelf cell therapies to patients with severe autoimmune diseases, where there is significant need for therapeutic solutions that can durably deplete a patient's pathogenic immune cells, drive immunologic reset and meaningfully improved quality of life. We are continuing our preclinical assessment with FT819 as well as with FT522, including in combination with monoclonal antibody therapy to selectively target and durably deplete pathogenic B cells, plasma cells and autoreactive T-cells. As part of our ongoing assessment, we have now reviewed Phase I clinical data from our FT819 CAR T-cell and our FT596 CAR-NK cell studies in patients with B-cell malignancies. With the intent of assessing the kinetics and depth of B-cell depletion observed in the clinical setting during the first 30 days following treatment. We identified a cohort of 6 patients from our FT819 Phase I study and a cohort of 7 patients from our FT596 Phase I study that had measurable B cells prior to treatment. We were encouraged to observe through this translational analysis that most patients in these cohorts experienced rapid and complete B-cell depletion following treatment with the durability of depletion extending out for at least 3 to 4 weeks. We are in the process of reviewing these proof-of-concept clinical data with multiple key opinion leaders and potential investigators to support extending the clinical reach of our iPSC product platform into auto immunity. Based on our conversations to date, we believe that the value proposition for an off-the-shelf cellular therapy in autoimmune diseases is compelling with the potential to afford a significant therapeutic advantage as compared to autologous CAR T-cell therapy. In closing, we've made great strides during the first 6 months of this year in focusing our operations on our most innovative and differentiated programs, reducing our cost structure and extending our operational runway to reach key inflection points across our pipeline. We remain confident in our belief that our proprietary iPSC product platform is uniquely suited to create highly differentiated, multiplexed engineered product candidates that incorporate novel synthetic controls of cell function with the potential to deliver multiple mechanisms of action and therapeutic benefit to patients with cancer and autoimmune disorders. I would now like to open the call up to any questions.