Thank you, Justin, and I wish all of you a good morning. I'm going to begin today by providing an overview of the mechanistic rationale for AMX0035 at a cellular level and share why we are so excited to continue studying it in Wolfram syndrome and PSP. I also will discuss the mechanistic rationale of AMX0114 in neurodegenerative diseases. AMX0035 was designed to mitigate neurodegeneration by simultaneously targeting and reducing endoplasmic reticulum or ER stress and mitochondrial dysfunction. ER stress is activated when protein homeostasis is disrupted, leading to the accumulation of misfolded and unfolded proteins in the ER. This activation leads to an adaptive response in order to restore homeostasis. The unfolded protein response pathway is activated by initiating three protein cascade, IRE1, PERC and ATS6. From the literature, these protein cascades act to put the cell in a defensive mode where most new protein and RNA synthesis is slowed or halted and the cell prioritizes production of chaperone proteins and phagocytic activity. Prolonged ER stress is a cause of cell death. Mitochondrial dysfunction that occurs in response to stress results in bat protein activation to open a pore through which cytochrome c is released. This release in turn activates Caspase-3, which is known to be the execution protein that causes apoptotic cell death. Based on existing literature and our preclinical data, there is a wealth of evidence that sodium phenylbutyrate or PB and taurursodiol or TURSO can prevent activation of these pathways and reduce the resulting cell death. In our experiments, we have repeatedly shown that the combination of PB and TURSO outperformed the individual event agents. This research has led us to Wolfram syndrome, a monogenetic disease in which ER stress and mitochondrial dysfunction are driving the underlying disease pathophysiology are aligning with the mechanism of action of AMX0035. Individuals with Wolfram syndrome generally have mutations in the WFS1 gene that encodes the protein warfarin. Warfarin spans the ER membrane and is thought to play a role in protein folding and aid in the maintenance of ER function by regulating calcium levels. Therefore, Wolfram syndrome is often characterized in the literature as a prototypical disease of ER stress given the observed activation of the three protein arms of the ER stress cascade. Also, there is evidence in the literature for mitochondrial dysfunction and the activation of Caspase-3. Wolfram is generally characterized by childhood onset diabetes mellitus, optic nerve atrophy, deafness, diabetes insipidus, and neurodegeneration, ultimately resulting in premature death. The disease is thought to impact approximately 3,000 people in the U.S. and possibly more. Over the last seven years, we have been collaborating with Dr. Fumihiko Urano and his team at Washington University School of Medicine in Saint Louis on preclinical research evaluate the effect of AMX0035 on Wolfram. The main data from this collaboration are published in JCI Insight. We studied the compounds in people-derived beta cells and neurons, harboring the clinical mutations in WFS1 gene and then in an animal model harboring a double knockout of the WFS1 gene. We observed sizable reductions in cell death and increased insulin production upon glucose administration in beta cells and substantially reduced cell death in neurons. In the WFS1 knockout mice, we observed that AMX0035 halted the progression of the diabetic phenotype in these animals. We initiated our Phase 2 Wolfram syndrome clinical study called HELIOS in April 2023 following these findings. And in April of this year, we announced promising data from a planned interim analysis of eight of the 12 participants enrolled who had their week 24 assessment. Our hypothesis a priori was that AMX0035 could slow beta cell decline, slow deterioration of glycemic control and slow progression of other characteristics of the disease. In actuality, based on the interim data, treatments with AMX0035 resulted in an improvement in beta cell function as evidenced by an increase from baseline in the c-peptide response to a mixed meal challenge, the primary outcome. Improvements in other measures of glycemic control also were reported as part of the interim data. In addition, we reported some improvement in vision in a subset of participants, which was unexpected given that visual acuity worsens over time, often leading to blindness according to Natural History. These results were supported by improvement or disease stability as measured by clinician and patient reported outcomes. AMX0035 was generally well tolerated in all participants continue in the study. Based on the strength of these interim data and the lack of approved treatment options for people living with Wolfram syndrome, we are planning to engage the FDA as soon as we can initially with these interim data. Turning to our work in PSP, we continue to plan for an interim analysis and expect data in mid-2025. PSP approximately 7 in 100,000 people worldwide and affects eye movement, walking imbalance, speech and swallowing and cognitive function. There are no approved treatments for this failed disease. There is a strong genetic linkage of tau to the disease and clear tau pathology when brains from people with PSP were observed postmortem. Multiple pathways, including ER stress and mitochondrial dysfunction, have been implicated as contributors to tau dysfunction and aggregation. In the clinical trial of Alzheimer's disease, AMX0035 has been shown to target multiple pathways of neurodegeneration and significantly reduced CSF total tau and phospho tau levels. Out of 288 measured proteins, tau was the most changed by AMX0035. We believe AMX0035 has strong scientific rationale and PSP based on these considerations. We also remain committed to the ALS community and are developing AMX0114, our antisense oligonucleotide or ASO, targeting inhibition of for Calpain-2, decades of scientific literature support in the central role of Calpain-2 in the process of axonal degeneration. Calpain-2 inhibition has been studied in models of multiple sclerosis, Huntington's disease, Parkinson's disease, chemotherapy induced peripheral neuropathy, spinal cord injury and Alzheimer's disease to name a few with repeatedly positive effects across the literature. In considering targeting Calpain-2, specificity and cellular localization are critical given that there are at least a dozen calpain. We leveraged ASO technology targeting the CNS or central nervous system by intrathecal delivery to initiate a program designed to effectively and specifically inhibit Calpain-2. In our hands and with collaborators, we have observed rescue of cellular degeneration and neurofilament biology in multiple cellular experiments. Having well-defined biomarkers is also essential as we progress this compound into the clinic. Calpain-2 is a protease known to cleave many substrates, including neurofilament, tau, and TDP43 proteins. These proteins in addition to neurofilament light provide important disease and target engagement biomarkers. We are planning to file an IND and our team is poised to initiate a multiple ascending dose clinical trial of AMX0114 in people living with ALS in the second half of this year when the IND is cleared. Now I will turn the call over to Jim to discuss financial updates on the quarter.