Thank you, Rushmie, and good morning, and welcome to our Q3 business update call. We've made excellent progress so far this year and in particular, in the third quarter, and I'm very excited about our future and believe we are well positioned for success. Moving to Slide 4. Before I review the details of our progress, I want to start with Scholar Rock's pioneering approach to targeting TGFß super family of growth factors. The picture on the left of the slide depicts the latent complex that contains an active growth factor. The scientific insight that led to the understanding of the structure of this latent complex is part of the foundation of our industry-leading platform that targets TGFß superfamily of growth factors by selectively and specifically blocking their activation by locking up the growth factor in the precursor or latent form. This highly specific approach limits the off-target effects that have been observed with less selective approaches that target the active forms of the growth factors or interfere with their receptors such as the activin receptors. Apitegromab, our lead clinical program targeting latent myostatin prevents the formation of the active form of myostatin, a negative regulator of muscle growth and leads to an increase in muscle mass and function in non-clinical models and is the first anti-myostatin therapy to demonstrate clinical proof-of-concept. Moving to Slide 5. I was very excited to announce that we are leveraging our R&D platform and deep knowledge of myostatin biology to expand into a new therapeutic area of cardiometabolic disorders with our novel, highly potent and selective anti-myostatin antibody SRK-439 in combination with the GLP-1 receptor agonist. Scholar Rock has a long-standing interest in targeting myostatin for cardiometabolic disorders, given the role that muscle plays in glucose metabolism and insulin sensitivity. As you'll hear from later in this morning's presentation, our approach to blocking myostatin is ideally suited for use in both SMA and in cardiometabolic disorders since by blocking myostatin and only myosin, we avoid off-target toxicities. Safety is critically important in treating SMA and in weight loss therapy, and we believe our selective approach, as we've seen with apitegromab in our SMA program to-date, should lead to a favorable overall benefit risk profile. Moving to Slide 6. Targeting the TGFß superfamily has broad therapeutic applications given the central role this family of growth factors plays in wide range of cellular processes, including growth and differentiation. Our research teams have produced a robust pipeline of product candidates targeting latent myostatin and latent TGFβ1. I'm very pleased with the significant progress that we've made on our pipeline since the beginning of the year. Moving to Slide 7. For this morning's call, I will start with an update on our clinical programs, highlighting the status of SRK-181, our selective anti-latent TGFβ-1 antibody in Immuno-Oncology followed by an update on the progress we've made with our number one priority, apitegromab and SMA, and then turn to Mo to discuss our entry into cardiometabolic disorders with our novel anti-myostatin SRK-439. Moving to Slide 8. Slide 8 provides an overview of the DRAGON drop. As a reminder, the main objectives of the DRAGON study, in addition to dose ranging and safety, included establishing proof-of-mechanism and proof-of-concept that by blocking TGFβ1, a key driver for resistance to checkpoint inhibitors with SRK-181 in combination with pembrolizumab and that we could overcome the immunosuppressive environment and restore responsiveness to the checkpoint inhibitor. To achieve these objectives, the Part B portion of the study included expansion cohorts in several tumor types and required all patients to have progressed on the most immediate prior anti-PD-1 or PD-L1 treatment. The study is rich in biomarkers, including paired biopsies to assess if SRK-181 could overcome an immune exclusion phenotype and drive CD8+ T Cells into the tumor, as was demonstrated in our non-clinical models. The team made excellent progress with the DRAGON study since the start of the year, culminating in two poster presentations at the Annual Meeting of the Society for Immunotherapy of Cancer, this past weekend. The first poster focused on biomarker data in support of proof-of-mechanism. And the second provided a clinical and biomarker update from the renal cell carcinoma cohort from the Part B expansion, the cohort with the most patient data, including follow-up. I will start with a review of the biomarker poster. Moving to Slide 9. This poster focused on biomarker data and support of proof-of-mechanism. And based on paired biopsy data demonstrated that SRK-181 in combination with an anti-PD-1 therapy increased the infiltration of CD8+ T Cells across several tumor types, including melanoma, shown here. This was seen in the compartmental analysis that measures the percentage of CD8+ Cells in the tumor – Tumor Margin in Stroma from 2 melanoma patients. As shown on the graph on the left, there was an increase in CD8+ T Cells observed after treat overcoming an exclusion or desert phenotype, which was present at baseline. Similarly, as shown in the histopath image on the right, there's an increase in intensity of brown staining, representing CD8+ T Cells in the post-treatment biopsy, also demonstrating the influx of CD8+ T cells into the tumor. We were excited to see these data, which essentially reproduced the non-clinical findings that form the scientific rationale for SRK-181. Turning to Slide 10. The second poster presented at SITC provided an update on the renal cell carcinoma cohort from Part B. Overall, 28 patients were evaluable for response. It's important to note that the patients enrolled represented a heavily pre-treated population, who received the meeting of three prior lines of treatment, including a checkpoint inhibitor and tyrosine kinase inhibitor. All had disease progression on their prior anti-PD-1, PD-L1 treatment. This slide includes, three graphical displays from the poster and highlight the treatment duration, as shown in the swimmers plot, antitumor activity, as shown in the waterfall plot and the spider plot that illustrates both duration and tumor response. As can be seen, there is clear evidence of tumor reduction with a 21% overall response rate, that is durable beyond six months and a disease control rate of 57%. The overall response rate is significantly above what we would expect from a checkpoint inhibitor alone, in the setting of prior anti-PD-1/PD-L1 progression, which is expected to be less than 5%. With respect to safety, the combination was generally well tolerated with the most common Treatment Emergent Adverse Events, predominantly skin toxicities, of rash and pruritus. Moving to Slide 11. In summary, the DRAGON trial delivered on its objectives of showing Proof of Mechanism and Proof of Concept with promising overall response rates in a heavily pretreated relapsed/refractory, patients' with clear cell renal carcinoma, all who progressed on prior treatment with a PD-1 or PD-L1 therapy. Now the Dragon has met its objectives, we plan to enclose enrollment in December, begin closeout activities while we continue to treat those patients who continue to benefit from therapy and remain on study. We also plan to present ongoing data from Dragon, at future medical meetings. We would like to take this opportunity to thank the investigators, the study staff and in particular, the patients and their families who participated in or are currently, participating in Dragon. Regarding the SRK-181 program overall, we believe the data from Dragon support advancing the program, and we plan to conduct an end of Phase 1 meeting with FDA in the first half of 2024 to determine the next steps. Turning to Slide 12, I'll now focus on our lead clinical program with apitegromab in Spinal Muscular Atrophy or SMA. As a reminder, SMA is an inherited neuromuscular disorder, caused by a deficiency in a protein, the SMN protein that is essential for The survival motor neuron, which in turn is responsible for controlling muscle movement. When the SMN protein is deficient, the motor neuron degenerates resulting in muscle weakness in atrophy, leading to significant impairments, including the inability to sit, stand and walk depending on the extent of involvement. Currently, there are three approved therapies for SMA, all work to increase the amount of SMN protein, but none target the muscle directly. Apitegromab, by targeting latent myosin prevents the formation of the active form of myosin, a negative regulator of muscle growth and is the first antimonite resulting in improvements in motor function, as shown in our Phase 2, Proof-Of-Concept Study TOPAS. Moving to Slide 13. As we shared at the 2 SMA, event in June, we were excited to present 36-month data from the pooled non-ambulatory patients from TOPAS, the same patient population included in our Phase 3 registration study, SAPPHIRE. As shown, there was robust, consistent and sustained improvement in the motor function scales, the extended Hammersmith and The Revised Upper Limb Module, which are also the primary and secondary endpoints in SAPPHIRE as well as improvements in the patient reported outcome measures, as reflected in an increase in activities of daily living and reduction in fatigue all measures that are consistent with improvement in muscle strength. Turning to Slide 14, I'm very pleased with the progress we've made this year toward executing on the promise of apitegromab in SMA. We have met or are on track to meet all of the 2023 goals for the program that we outlined at the beginning of the year. In addition to reporting the 36-month TOPA