Thank you, Arnon. I'm pleased to provide further insights into our later-stage clinical portfolio, focusing on our advancements with AL002 and our progranulin programs. I'll begin with AL002. As a reminder, our ongoing INVOKE-2 Phase 2 trial, which was fully enrolled in September 2023 is a randomized, double-blind, placebo-controlled, common close study, evaluating up to 96 weeks of treatment with AL002 in 381 participants with early Alzheimer's disease. This trial includes three doses of AL002, which demonstrated robust target engagement and increased microglial signaling in our Phase 1 study. At the Alzheimer's Association International Conference, or AAIC last week, Alector presented participant baseline characteristics for INVOKE-2. As Arnon mentioned, the baseline clinical assessments confirm enrollment of the intended population of participants with early Alzheimer's disease. The clinical diagnosis and enrollment was mild cognitive impairment due to Alzheimer's disease for 67% of participants and mild dementia due to Alzheimer's disease for 33% of participants. Notably, participants with baseline amyloid assessments demonstrated a mean centiloid level of 100.1, aligning with expectations for early Alzheimer's disease cohorts. This data marks an important milestone in our global Phase 2 trial, which aims to evaluate the safety and efficacy of AL002 while testing the hypothesis that this first-in-class TREM2 agonist may slow the progression of Alzheimer's disease. We are on track for the INVOKE-2 data readout in the fourth quarter of 2024. Today, I'd like to describe the trial's outcome measures, our statistical analysis approach, our long-term extension study and the expected trial outcomes. The primary clinical outcome is the CDR Sum of Boxes. We are also collecting secondary clinical and functional outcome assessments, including the ADAS-Cog 13 and ADCS-ADL-MCI from which we will derive treatment effects on the integrated Alzheimer's Rating Scale, or iADRS. This trial will also deliver a robust biomarker package, assessing target engagement, treatment effects on microglia and treatment effects on Alzheimer's pathophysiology. Target engagement will be assessed by measuring treatment effects on CSF levels of soluble TREM2. You will recall that in our Phase 1 healthy volunteer study following single doses, we saw dose-dependent reductions in CSF soluble TREM2, including changes from baseline exceeding 50% at our highest doses. Treatment effects on microglial signaling will be assessed by measuring levels of CSF1R, SPP1 and IL-1 RN, which reflects proliferation, survival and phagocytotic activity of microglia. As previously reported, we saw treatment effects on each of these pathways after single doses in our Phase 1 study. We are also exploring omics assessments of treatment-related changes in microglial subtypes. Treatment effects on Alzheimer's pathophysiology will be assessed with CSF and plasma biomarkers, with A-beta and tau as well as both amyloid-PET and tau-PET. We will also have biomarkers of astrogliosis, neuroinflammation, synaptic health and neurodegeneration. The Phase 2 INVOKE-2 trial utilizes a common closed design in which participants remain in a double-blind study until the last participant completes 48 weeks of treatment. Earlier enrolled participants continue in the double-blind study for a maximum of 96 weeks of treatment before they are invited to join our long-term extension study. We intend to use a proportional analysis approach or specifically proportional MMRM, which enables us to use all the data collected in this common closed design trial. This means we will include data from all participants out to 48 weeks and also include additional data provided by the participants who have – will have had follow-up for up to 96 weeks. Efficacy will be calculated as the average treatment effect observed across multiple post-baseline visits. This approach increases power, potentially enabling us to reach statistical significance at a smaller effect size. If our drug slows disease progression comparable to the treatment effects of the anti-amyloid antibodies, we may have served a significant treatment effect. Our ongoing INVOKE-2 long-term extension study is currently underway for participants who completed the initial treatment period. This LTE study remains blinded to treatment assignment, allowing for an ongoing collection of meaningful clinical biomarker and safety data. Thus far, approximately 95% of eligible participants from INVOKE-2 have enrolled in the LTE study. In this LTE study, we are also assessing the effects of a modified dose titration on the severity of treatment-emergent MRI findings, resembling amyloid-related imaging abnormalities or ARIA. Participants who roll over from the placebo in the double-blind trial to active treatment in the LTE will begin titration at a lower dose than was used in the double-blind trial and will also have a slower dose titration schedule. This is intended to explore the effects of starting at a lower dose and using slower titration on the observed treatment-related MRI findings that resemble ARIA. For context, in the INVOKE-2 double-blind trial, dosing started at 15 mg/kg and dose escalation occurred every four weeks during the first three months of the trial. Our hypothesis for the INVOKE-2 trial is that treatment with AL002 will increase TREM2 signaling, leading to therapeutic restoration of microglial functions that protect against neurodegenerative disease. This includes the clearance of misfolded proteins, such as amyloid, but we also expect AL002 to amplify the broader beneficial effects of healthy microglia on the brain such as maintenance of synaptic connections, support of astrocyte and oligodendrocyte function, repair and maintenance of the blood brain barrier and the vasculature and regulation of immune tolerance. Thus, our expectation is that restoration of microglial function by AL002 will reduce the brain’s vulnerability to neurodegenerative disease and that the INVOKE-2 trial will demonstrate treatment-related slowing of Alzheimer’s disease progression as demonstrated by a combination of clinical, functional and biomarker readouts. With its broad and complementary mechanism of action, we expect AL002 to be effective as a standalone therapy and may also demonstrate additive or synergistic effects when used in combination with amyloid-targeted therapeutics. We also believe that treatment benefits of AL002 may manifest differently from what we have seen in trials of the anti-amyloid antibodies. For example, with regard to biomarker responses, lowering cerebral amyloid-PET signal to the 24 centiloid threshold, which for anti-amyloid antibodies appears to be a necessary condition for clinical efficacy may not be relevant to this mechanism of action that goes beyond amyloid clearance. Additionally, optimal disease stages for intervention may be broader. Unlike therapeutics targeting amyloid or tau, we do not expect the beneficial effects of healthy microglia to be limited to specific pathophysiological stages of disease. And thus, AL002 may have potential to benefit patients ranging from preclinical Alzheimer’s disease through advanced dementia. Turning now to our progranulin programs. In a recent Type B interaction with the FDA, we and GSK received feedback on the potential future biologics license application for latozinemab. The FDA has indicated that it would consider the effects of latozinemab on plasma and cerebrospinal fluid progranulin levels as confirmatory evidence, supplementing the potential clinical effects of latozinemab, pending BLA review. We also aligned with the agency on disease-relevant fluid and imaging biomarkers that may be considered as supportive evidence of clinical efficacy, also subject to BLA review. These include biomarkers of astrocyte function, neurodegeneration and brain atrophy. Based on the FDA feedback, we remain confident that the totality of evidence, including the primary clinical endpoint and biomarkers could provide a path to potential approval for latozinemab. Following these productive interactions with the FDA, we believe we are on track for the pivotal INFRONT-3 Phase 3 data readout in late 2025 or early 2026. In parallel, enrollment continues in the PROGRESS-AD global Phase 2 clinical trial of AL101 for early Alzheimer’s disease. We and GSK are co-developing AL101 for the potential treatment of more prevalent neurodegenerative diseases, including Alzheimer’s disease and Parkinson’s disease. At AAIC, our partner GSK presented a poster highlighting data supporting the hypothesis that therapeutic increases of progranulin levels may be an effective treatment for Alzheimer’s disease. These findings demonstrate consistent causal associations between increased progranulin levels and reduced Alzheimer’s disease risk across the progranulin gene allelic spectrum, providing compelling genetic evidence for increasing progranulin levels as a potential therapeutic strategy to treat Alzheimer’s disease. As we advance these programs, we remain dedicated to harnessing our scientific and clinical expertise to drive forward transformative therapies for neurodegenerative diseases. At this time, I’ll turn it over to Sara for updates on our progress with the Alector Brain Carrier.