Thank you, Hayleigh. And welcome, everyone, to our third quarter 2024 financial results and corporate update conference call. I will begin with a brief update on our recent activities and then Sukumar Nagendran, President and Head of R&D of Taysha, will provide an update on our lead TSHA-102 program and clinical evaluation for Rett Syndrome. Kamran Alam, our Chief Financial Officer, will follow up with a financial update. I will then provide closing remarks and open up the call for questions. In the third quarter, we continued to drive progress across our TSHA-102 program and clinical evaluation for pediatric, adolescent and adult patients with Rett Syndrome. Our accomplishments included achieving important clinical and CMC regulatory progress, collecting additional clinical data, further supporting the safety profile of TSHA-102 across different ages and stages of disease, and enrolling additional patients in the high-dose cohort across both our adolescent, adult, and our pediatric REVEAL Phase 1/2 trials, which support our expeditious development of TSHA-102 for patients and families suffering from Rett Syndrome. We recently completed our initial Type B multidisciplinary meeting with the FDA that was granted as a benefit of receiving Regenerative Medicine Advanced Therapy or RMAT designation for TSHA-102. We are pleased with the progress made with the FDA on further elucidating the potential regulatory pathway for TSHA-102 as we advance discussions on trial design, endpoints and the potential use of an established natural history dataset for Part B of our REVEAL trials. Additionally, we aligned on a meeting cadence with the FDA to expedite the development plan for TSHA-102. We recently completed a Type D CMC meeting, which was well attended by the FDA, including senior officials. We obtained FDA approval to use the pivotal TSHA-102 product in our REVEAL trials based on a successful demonstration of analytical comparability between the clinical product and the product derived from the final commercial manufacturing process. Subsequently, we released the pivotal product, which we intend to use in Part B of our trials. With this progress, we believe we are in a strong position with our CMC activities for TSHA-102. Suku will discuss this in more detail. We also received approval from the Independent Data Monitoring Committee, or IDMC, to proceed with continued enrollment in cohort two, evaluating the high-dose of TSHA-102 of 1x1015 total vector genomes for both REVEAL Phase 1/2 trials, following the IDMC’s review of available clinical data from the three patients treated with the high-dose. And I am pleased to share the high-dose of TSHA-102 continues to demonstrate an encouraging safety profile. TSHA-102 was generally well-tolerated with no serious adverse events or dose-limiting toxicities in the first two adolescent adult patients as of 20 weeks and nine weeks’ post-treatment, respectively, and in the first pediatric patient at six weeks’ post-treatment. Subsequently, we dosed the third patient in the high-dose cohort of the adolescent adult trial and enrolled the second patient in the high-dose cohort of the pediatric trial with dosing scheduled for the current quarter. As a reminder, Rett Syndrome is a rare neurodevelopmental disorder that afflicts an estimated 15,000 to 20,000 patients in the United States, Europe and the United Kingdom. Currently, there are no approved disease-modifying therapies to treat the genetic root cause of the disease and there is significant unmet need. Rett Syndrome is caused by mutations in the X-linked MECP2 gene, which inhibits neuronal development and leads to multi-system complications. It’s characterized by loss of communication and hand functions, slowing or regression of development, motor and respiratory impairment, and autonomic dysfunction, seizures, intellectual disabilities, and shortened life expectancy. Individuals with Rett Syndrome typically require 24x7 care and lifelong assistance with daily activities, resulting in high caregiver burden and significant impact on quality of life. We remain confident in our differentiated gene therapy candidate, which we believe has potential to provide meaningful therapeutic benefit to a broad population of patients with Rett Syndrome, using a minimally invasive delivery approach that has the potential to be administered in the outpatient setting for both children and adults. TSHA-102 is a one-time intrinsically delivered gene therapy that was strategically designed to enable optimal and controlled transgene expression across the central nervous system. Rett Syndrome is challenging to treat with traditional small molecules and gene therapy approaches due to the random inactivation and subsequent mosaic expression pattern of MECP2 that results in a mixture of cells that are either deficient in MECP2 or expressive normally. We believe TSHA-102, equipped with the novel miRARE technology, has the potential to appropriately address this challenge by mediating MECP2 expression in the central nervous system on a cell-by-cell basis. By silencing the transgene in healthy cells expressing MECP2 and enabling protein production in deficient cells, miRARE is designed to overcome the risks associated with both under and overexpression of MECP2. Importantly, our capsid is paired with a self-complementary viral genome to enhance the effectiveness of gene transduction. We made the decision to utilize the mini-MECP2 gene, which is a smaller version of the MECP2 gene that contains the essential functional domains necessary to therapeutic benefit, so that we were able to package our construct with a self-complementary vector. Self-complementary vectors have a smaller packaging capacity than traditional single-stranded vectors, but they offer the important advantage of faster and more efficient transduction because they’re able to entirely bypass the step of converting the vector genome into a double-stranded DNA prior to gene expression. As a result, a self-complementary vector can speed up the onset of transgene expression and potentially improve the efficacy of the gene therapy. We believe these strategic attributes of our construct enable the early and consistent clinical improvements that persisted and strengthened over time, as we’ve seen in the adult and pediatric patients treated with the low-dose of TSHA-102. Since Rett Syndrome is a progressive disease, we believe early clinical response increases the likelihood of reversing the disease trajectory and may be predictive of long-term clinical outcomes. Rett Syndrome requires an increased MECP2 protein to activate the neural circuits necessary for regaining function and it also requires time for patients to strengthen these reactivated circuits to enable deeper learning of the skills affected by the disease. We believe the sooner positive clinical impact is observed following treatment, the greater the trajectory of potential improvement and longer-term outcomes. Therefore, early clinical benefit is a strong indicator that MECP2 protein has reached therapeutic levels that, in turn, create the opportunity for patients to further strengthen and gain new skills that can positively impact their activities of daily living. Importantly, the clinical data presented from the adult patients with the most advanced stage of the disease treated with the low-dose of TSHA-102 indicate a pattern of early clinical improvements and functional gains across multiple domains within four weeks’ post-treatment that persisted and strengthened over time. Specifically, improvements in autonomic function, including breathing and sleep, were demonstrated as early as two weeks’ post-treatment. At four weeks, clinical improvements and functional gains were reported across multiple domains impacting daily activities, including non-engrossed motor skills, socialization and communication, and seizure events. This includes beginning to use eating utensils, sitting without support, saying mama or daddy, petting a dog, improved attentiveness and social interactions with family members, and improved use of an eye-based driven communication device, as documented by video evidence, efficacy measures and/or clinical observations reported by the principal investigator. As the pediatric data mature, we anticipate that the early clinical improvements and functional gains observed should also persist and strengthen over time in the pediatric patients treated with TSHA-102 as the neural network matures and patients develop the strength to gain more complex skills. We look forward to further evaluating the pediatric patients over time. As clinical evaluation of TSHA-102 further progresses, it is important to note that our program leverages a routine, minimally invasive delivery approach that has the potential to be administered in the outpatient setting. Preclinical findings support the clinical potential of intrathecal administration as an effective delivery method for AAV-based gene therapies that are designed to treat the genetic root cause of CNS diseases as it enables widespread and consistent bio-distribution across the brain and spinal cord. We believe this widespread distribution has been demonstrated throughout the clinical data, through the clinical data we reported that showed broad improvements across key clinical domains important in disease pathology, including fine and gross motor skills, communication and socialization, autonomic and seizure events. Importantly, we saw this consistently in the two adult and two pediatric patients treated with the low-dose of TSHA-102, despite differences in baseline disease severity. This was translationally reinforced with data from the analysis of five non-human primate studies that we recently presented at the ESGCT Annual Congress, which demonstrated that intrathecal delivery of gene therapies reaches key areas of the brain and spinal cord. Suku will discuss this in more depth. Collectively, we believe the strategic design of our construct has contributed to the encouraging safety and efficacy data we have reported to-date in both REVEAL trials, demonstrating early, sustained and new clinical improvements and functional gains that strengthen over time and across multiple domains. We believe there is potential to see continued improvements as the data mature and we look forward to reporting longer term data from the low-dose cohort and data from the high-dose cohort in both REVEAL trials in the first half of 2025. We plan to continue working closely with the FDA through the RMAT mechanism to solidify the regulatory pathway for TSHA-102 based on the totality of data and we remain focused on the execution as we prepare for what we expect to be an impactful year ahead. I will now turn the call over to Suku to provide a more in-depth discussion of TSHA-102. Suku?