Thank you. Good afternoon, and thanks, everyone, for joining us for the Fate Therapeutics third quarter 2022 financial results call. Shortly after 4:00 p.m. Eastern Time today, we issued a press release with these results, which can be found on the Investors section of our website under Press Releases. In addition, our Form 10-Q for the third quarter ended September 30, 2022, was filed shortly thereafter and can be found on the Investors section of our website under Financial Information. Before we begin, I would like to remind everyone that except for statements of historical facts, the statements made by management and responses to questions on this conference call are forward-looking statements under the safe harbor provisions of the Private Securities Litigation Reform Act of 1995. These statements involve risks and uncertainties that can cause actual results to differ materially from those in such forward-looking statements. Please see the forward-looking statement disclaimer on the company's earnings press release issued after the close of market today as well as the risk factors included in our Form 10-Q for the quarter ended September 30, 2022, that was filed with the SEC today. Undue reliance should not be placed on forward-looking statements, which speak only as of the date they are made, as the facts and circumstances underlying these forward-looking statements may change. Except as required by law, Fate Therapeutics disclaims any obligation to update these forward-looking statements to reflect future information, events or circumstances. Joining me on today's call are Dr. Wayne Chu, our Chief Medical Officer; Ed Dulac, our Chief Financial Officer; and Dr. Bob Valamehr, our Chief Research and Development Officer. We will focus today's discussion on upcoming clinical and preclinical data presentations for our off-the-shelf IPS-derived CAR NK and T cell programs for the treatment of cancer, and how we expect our first-in client pipeline to advance and evolve in the coming months, including through our collaborations with Janssen and ONO. At the Society for Immunotherapy of Cancer annual meeting being held next week in Boston, we will present clinical and preclinical data for FT536, which is our first CAR NK cell program for the treatment of solid tumors to reach clinical investigation. The multiplex engineered product candidate incorporates four functional elements including a CAR targeting the alpha three domain of the MICA and MICB proteins. High expression of MICA and MICB proteins, which is induced by cellular stress, damage or transformation has been reported on many solid tumors. And while the alpha 1 and alpha 2 domains of MICA and MICB prone to proteolytic shedding and can lead to tumor escape. The alpha-3 domain, in particular, is resistant and provides a promising targeting strategy for reengaging tumor cells. FT536 also incorporates our proprietary high-affinity, non-cleavable CD16 FC receptor to enhance antibody-dependent cellular cytotoxicity and enable multiantigen targeting in combination with monoclonal antibody therapy. We believe the novel multiantigen targeting strategy of FT536, can drive significantly improved outcomes for patients with solid tumors. The Phase I study of FT536 is designed to assess the safety and activity of a 3-dose treatment schedule, as monotherapy and in combination with monoclonal antibody. At SITC, we plan to report clinical data of the first three patients treated with FT536, as monotherapy, in the first dose escalation cohort at 100 million cells per dose. The study is currently enrolling patients as monotherapy in the second dose escalation cohort at 300 million cells per dose. In addition to leverage the mechanism of action of our high affinity non-Cleavable CD16 Receptor, which is incorporated into FT536. We have also initiated enrollment with the EGFR-targeted monoclonal antibody cetuximab, in the first dose escalation cohort at 100 million cells per dose. As the study advances, we intend to also investigate combinations with trastuzumab, amivantamab and pembrolizumab to promote multiantigen targeting a solid. At SITC, we also plan to unveil and present preclinical data for three new multiplexed engineered iPS-derived CAR T cell product candidates for solid tumors that are advancing towards IND-enabling studies. The first CAR T cell product candidate, FT873 targets the antigen B7H3, which is an immunoregulatory protein overexpressing cancer and promotes tumor growth metastasis and drug resistance. This newly disclosed product candidate incorporates three functional elements into the TRAC locus, a novel camelid nanobody CAR targeting B7H3 and an IL-7 receptor fusion protein and our CD16 Fc Receptor. FT873 did a wholly owned program. The second CAR T cell product candidate FT862 is partnered with Janssen and targets KLK2, an antigen with prostate restricted expression that is maintained during prostate cancer progression. Preclinical data generated under our collaboration with Janssen demonstrated that multiplex engineered iPS-derived CAR T cells targeting KLK2 have the potential to effectively infiltrate tumor mass and eliminate tumor cells in a highly selective manner and to prolong survival in xenograft models of prostate cancer. As a reminder, Janssen funds all preclinical development of the FT862 program and has the right to exercise an exclusive option to conduct worldwide clinical development and commercialization, and we maintain the right to co-commercialize and share equally in profits and losses of FT862 in the US. The third CAR T cell product candidate, FT825 is partnered with ONO and targets an undisclosed tumor-associated antigen with a novel binding domain developed by ONO. FT862 incorporates multiple innovative elements, including their receptors designed to promote cell trafficking and prevent immunosuppression in the tumor microenvironment. Preclinical data generated under our collaboration with ONO demonstrate its potential to overcome several unique challenges in treating solid tumors with cell-based cancer immunotherapies. We have now initiated the generation of the master cell bank for the multiplex engineered iPSC-derived CAR T-cell collaboration candidate. In addition, we are positioned to achieve a specified preclinical milestone and initiate IND-enabling activities later this year for FT825. Upon achievement of this specified preclinical milestone, ONO has the right to exercise an exclusive option to conduct clinical development and commercialization, and we maintain the right to co-develop and co-commercialize FT825 in the US and Europe. We believe we have one of the most novel, diverse and deep cell-based cancer immunotherapy pipeline for solid tumors, which is uniquely enabled by our proprietary iPSC product platform and in particular, our ability to multiplex engineer iPSCs with synthetic modalities designed to achieve target specificity, overcome tumor heterogeneity, promote cell trafficking and induced cell activation in response to aggressive signaling in the macro environment. At the American Society of Hematology Annual Meeting & Exposition being held next month in New Orleans, we will present initial clinical data for FT819, our CD19 targeted CAR T-cell product candidate for B-cell lymphoma and for FT576, our BCMA-targeted CAR NK cell product candidate for multiple myeloma. As a reminder, FT819 incorporates a biallelic insertion of an anti-CD19 CAR transgene into the T-cell receptor alpha constant locus, with complete disruption of T-cell receptor expression and its CAR construct is comprised of a novel 1XX co-stimulatory domain that is designed to balance T-cell activation and exhaustion. To our knowledge, FT819 is the first ever T-cell product candidate manufactured from a clonal iPSC line to undergo clinical investigation. The Phase 1 study for B-cell lymphoma is assessing both a single dose and a three-dose treatment schedule. And dose escalation is currently ongoing in the third single dose escalation cohort of 360 million cells. And the second three-dose escalation cohort of 60 million cells per dose At this early stage of dose escalation with FT819, the enrollment is primarily ongoing at US academic medical centers, where we continue to see investigator enthusiasm for our off-the-shelf iPSC-derived CAR T-cell program. While there are three FDA-approved CD19-targeted autologous CAR T-cell therapies, there remains a significant unmet need for patients at these medical centers that are either unfit for or have already received autologous CAR T cell therapy and require effective treatment. At ASH, the initial clinical data presentation for FT819 will include nine patients in single dose escalation cohorts of 90 million cells and 180 million cells. As well as three patients in the three dose escalation cohort of 30 million cells per dose. Consistent with the high unmet need, the majority of patients administered FT819 have aggressive disease and are heavily pre-treated, having received at least four lines of prior therapy with approximately half of patients having received prior CD19 targeted autologous CAR T cell therapy. At ASH, we will also present initial clinical data for FT576, our BCMA-targeted CAR NK cell product candidate for multiple myeloma. Despite the recent launch of two FDA-approved BCMA target autologous CAR T cell therapies, we believe there is tremendous opportunity for FT576 and as an off-the-shelf CAR NK cell therapy with a differentiated product configuration and mechanism of action. FT576 incorporates a novel BCMA binding domain that triggers target cell lysis at low levels of BCMA expression. The Multiplexed Engineering product candidate also incorporates our proprietary high-affinity non-cleavable CD16 receptor to promote antibody-dependent cellular cytotoxicity and enable multiantigen targeting of myeloma cells in combination with daratumumab. Importantly, combination with daratumumab is enabled uniquely by knockout of CD38, which eliminates the possibility of CD38 mediated refractory sub. The Phase 1 study for multiple myeloma is designed to assess single-dose and multi-dose treatment schedules as monotherapy and in combination with daratumumab. We are pleased to announce that the single-dose escalation cohort at 300 million cells as monotherapy has clear dose-limiting toxicity. We are now currently enrolled patients in two-dose escalation cohorts at 300 million cells per dose of monotherapy and in combination with daratumumab. And upon clearance of these cohorts, we plan to initiate enrollment in three-dose cohorts at 300 million cells per dose, both as monotherapy and in combination with daratumumab. At ASH, the initial clinical data presentation for FT576 will include approximately nine patients, six patients in the single-dose escalation cohorts of 100 million cells and 300 million cells is monotherapy and three patients in the single-dose escalation cohort of 100 million cells in combination with daratumumab. At this early stage of dose escalation, the majority of patients administered FT576 are triple-class refractory, including refractory to last prior therapy, having received at least four prior lines of therapy. As we seek to build the highly differentiated myeloma franchise, we are excited to unveil our development of FT 555 under our collaboration with Janssen. FT555 is a multiplexed engineered IPS-derived CAR NK cell Product Candidate targeting GPRC5D, an orphan G-protein-coupled receptor found to be highly expressed on myeloma cells. Importantly, GPRC5D expression is independent of BCMA expression, suggesting that it is a target of unique therapeutic value for patients with relapsed/refractory myeloma regardless of treatment with prior BCMA targeted therapy. In May, Janssen exercised its commercial option to FT555 for which we received a milestone payment of $10 million. We are currently conducting IND-enabling activities with Janssen to support first-in-human clinical investigation in 2023 of FT555, including in combination with daratumumab to simultaneously target GPRC5D and CD38 antigens. At ASH, the companies will jointly present preclinical data of FT555, demonstrating its activity profile. As a reminder, under the collaboration, Janssen has the right to worldwide clinical development and commercialization, and we maintain an opt-in right to co-commercialize and share equally in profits and losses in the US. At ASH, we will also highlight the novel multiplex engineering strategies to eliminate the need for intense lympho conditioning chemotherapy, which is currently required throughout the field of cell-based cancer immunotherapy. These traditional chemotherapeutic regimens are believed to create a favorable cytokine environment, including by depleting host immune cells, so that adoptively transfer cells may thrive. However, these conditioning regimens are often associated with significant hematologic toxicities and as such, creates significant barriers to cell therapy adoption, utilization and patient access. And while much has been native engineering cell to a laid post immune cell rejection, it is important to recognize that invasion strategies do not aviate the need for chemotherapy conditioning that will allow for cytokine-induced activation and persistence of adoptively transferred cells. To overcome the requirement for chemotherapy conditioning in the field of cell-based cancer immunotherapy, we are particularly excited about the potential to incorporate our proprietary alloimmune defense receptor or ADR technology into our iPSC product platform. Our synthetic ADR receptor is designed to target 4-1BB expressing activated post immune cell while providing a CD3-zeta signaling boost upon engagement to potentiate the cell product. In preclinical models, we have shown that ADR armed IPS-derived CAR NK cells resist post mediated rejection, and in fact, expand persist and maintain antitumor activity in the presence of alloreactive cells. These preclinical data provide proof of concept that ADR arm cell therapies have the potential to persist and induce potent antitumor activity without requiring conditioning chemotherapy. We look forward to highlighting our 4-1BB targeting ADR technology ay ASH, and further discussing as clinical applications, which we believe extend beyond cell-based cancer immunotherapy. For example, recent publications have highlighted the potential of autologous CD19 targeted CAR T cell therapy to induce drug-free remission in patients with certain life threatening autoimmune disease. We believe the incorporation of ADR technology into our iPSC product platform provides an opportunity to bring novel cell therapies designed to target multiple disregulated cell types and achieve a deep reset of the immune system for patients with severe autoimmune disease. Turning to the first quarter of next year. We plan to hold a Research & Development Day to highlight our industry-leading IPS-derived NK and T cell product pipeline with a focus on our clinical stage programs for hematologic malignancies. We plan to cover our franchises in lymphoma, myeloma and AML with clinical data updates across our programs and key milestones that we seek to achieve in 2023. In particular, with respect to our FT596 program in combination with rituximab for the treatment of relapsed/refractory B-cell lymphoma. We plan to review clinical data of approximately 35 patients treated in single dose escalation cohorts ranging from 90 million cells to 1.8 billion cells. Recall that despite our request at the time of IND submission to initiate clinical investigation of the FT596 program with a three-dose treatment schedule based on activity assessments observed in our preclinical studies, the FDA required us to complete escalation prior to initiating multi-dose treatment schedules. We are now currently enrolling three, two and three dose cohorts at 900 million cells per dose and at 1.8 billion cells per dose, and we plan to review clinical data of approximately 25 patients treated in these multi-dose cohorts. Given that we have observed a highly favorable safety profile with our FT596 program and given the FDA's focus on optimization of dose and dose schedule to maximize therapeutic index. We do believe the assessment of both two and three dose treatment schedules as these two dose levels is prudent. Additionally, with respect to our FT538 program for the treatment of relapsed/refractory AML, we are currently enrolling patients in the four, three dose escalation cohort at 1.5 billion cells per dose and expect to complete Phase I dose escalation by the end of this year. During our R&D Day, we plan to review clinical data of approximately 30 patients with relapsed/refractory AML treated in three dose escalation cohorts, ranging from 100 million cells to 1.5 billion cells per dose. In addition to our program reviews, we also plan to share feedback from the FDA under our FT516 RMAT designation where our interactions to date have spanned the entirety of our iPSC product platform from iPSC generation, engineering and cell banking, routine GMP production and drug control strategy, clinical development considerations, including optimized dose and dose schedule and pathways to approval for patients with aggressive B-cell lymphoma. In September, we received positive feedback from the FDA, regarding our production, characterization and release of clonal master iPSC bank for use in the routine manufacture of drug product, as well as potential registrational pathways for the treatment of patients with relapsed/refractory aggressive lymphomas, including for patients who have relapsed or refractory to FDA approved CD19 targeted CAR T cell therapy. We were also granted a follow-up meeting scheduled for December to review with the FDA key CMC components of our iPSC product platform, including drug product release specification. We believe we have made great strides through our interactions with the FDA toward our pursuit of pivotal readiness for our iPSC-derived product platform. We also plan to highlight our state-of-the-art multi-drug product manufacturing facility located in Poway, California, which is designed to support all phases of clinical development, as well as initial commercial launch. I am pleased to announce that the facility is now open for GMP production, and we are well positioned to mass-produce multiplexed engineer, iPS-derived NK cell and T cell products for the benefit of patients. I would now like to turn the call over to Ed to highlight our third quarter financial results.