Thank you, Josh. Before discussing data related to the investigational peptide Avexitide, I will start by reviewing the GLP-1 receptor pathway, and how Avexitide is believed to act on this pathway at the cellular level. I will then review how the GLP-1 receptor pathway is altered at PBH and how Avexitide is designed to modulate this disturbance. Turning to Slide 8. As background, the GLP-1 receptor pathway in the islet beta cells of the pancreas mediates blood glucose levels by insulin secretion. Specifically, when GLP-1 binds and activates the GLP-1 receptor, production of cyclic AMP has increased, which in turn activates downstream pathways that lead to insulin secretion. Here, we see in the beta cell diagram that Avexitide also bonds to the GLP-1 receptor on the pancreatic beta cell and inhibits or antagonizes receptor activation. This can lead to lowering cyclic AMP levels, which in turn decreases insulin secretion. Please keep this point in mind when I review the preclinical data. Now let's look at how the cellular pathway we just reviewed is impacted by bariatric surgery, leading to PBH. After eating a meal, our intestines release hormones, including GLP-1 proportional to the size of the meal, which is known as the incretin response. When a person with PBH eats a meal, the ingested nutrients bypass the stomach and are rapidly delivered further down in the GI tract, where the majority of the enteroendocrine L cells are located. The increased nutrient flow registers in the body as a larger meal, leading to increased GLP-1 release from the L cells. In turn, GLP-1 binds to its receptor on beta cells. The resulting overproduction of GLP-1 can lead to hypersecretion of insulin. This insulin over production relative to the meal size results in hypoglycemia or low blood sugar levels and can manifest in autonomic and neuroglycopenic symptoms. As you heard from Josh, consequences can include cardiac arrhythmias, weight gain, seizures and clouded thinking that could lead to motor vehicle accidents or miss work and overall decreased quality of life. By binding to the GLP-1 receptor and blocking the effect of excessive GLP-1, the antagonist Avexitide is believed to decrease insulin secretion, stabilize glucose levels and hence mitigate hypoglycemia, potentially treating PBH. In cellular models, GLP-1 receptor antagonist Avexitide has repeatedly shown inhibition of the GLP-1 receptor in a dose-dependent manner. Specifically, as shown in the diagram on the left, by blocking the GLP-1 receptor, treatment with Avexitide resulted in a decrease in intracellular cyclic AMP, as we discussed earlier in relation to the beta cell diagram of the GLP-1 receptor pathway on Slides 8 and 9. Similarly, in the figure on the right, GLP-1 receptor antagonism blocked the GLP-1 receptor, thereby decreasing insulin secretion in a relevant beta cell model. As shown on Slide 13, Avexitide decreased plasma insulin and mitigated hypoglycemia in studies of different animal models of hypoglycemia. Avexitide also has demonstrated pharmacological activity in people living with PBH. The clinical studies of PBH replicated the findings from the preclinical studies when looking at the same biomarkers, namely plasma insulin and glucose. Let's start by looking at plasma insulin. Insulin biomarker results of several Phase I and Phase II studies of both IV and subcutaneous Avexitide after an oral glucose or mixed meal tolerance test are shown here. Specifically, shown in the upper panel, Avexitide significantly decreased insulin levels in Phase I, single ascending dose studies and a multiple ascending dose study in people with PBH. Furthermore, shown in the lower panel in the Phase II clinical trial in people with PBH, comparing Avexitide with placebo, peak insulin was reduced by 23%, with a significant p-value of 0.029, following Avexitide 30 milligrams twice per day. Similarly, peak insulin was reduced by 21%, which is a significant p-value of 0.042, following Avexitide 60 milligrams daily. On the next slide, we will review the glucose biomarker results from these same studies. The data shown here indicate that treatment with Avexitide led to consistent and significant normalization of plasma glucose nadir that is the lowest glucose level. Focusing in on the Phase II study shown in the lower panel, following Avexitide 30 milligrams twice per day, mean plasma glucose nadir increased by 21%, with a significant p-value of 0.001. With Avexitide 60 milligrams daily, mean plasma glucose nadir increased by 26%, with a significant p-value of 0.0002. To reiterate, both the insulin and glucose results were replicated across multiple independent studies. In addition to these compelling data, and as Justin noted earlier, Avexitide also has FDA breakthrough therapy designation. We believe Avexitide is poised to move rapidly into a pivotal Phase III program in PBH. The FDA has already provided feedback on a potential Phase III program to its former owner, Eiger BioPharmaceuticals. Specifically, this feedback included comments on the proposed Phase III design, including endpoints and sample size. Importantly, we believe that a single study can be the basis for approval based on our review of the FDA. We have reviewed this feedback in detail and believe that we can quickly initiate a well-run, thoughtfully-designed Phase III program. We plan to use the FDA agreed-upon endpoint of composite of Level 2 and Level 3 hypoglycemia events. FDA guidance for industry for diabetes also supports this endpoint as a potential approvable endpoint. Level 2 and Level 3 hypoglycemia events were measured in the Phase II and Phase IIb studies, and were reduced with high statistical significance. Now we'll discuss these meaningful results in more detail. We discussed the Phase II PREVENT study earlier. It was a randomized placebo-controlled crossover study to evaluate efficacy and safety of subcutaneous Avexitide for treatment of PBH. As shown at the top of this slide, this trial included 18 female participants with PBH, who were given placebo for 14 days, followed by Avexitide 30 milligrams twice per day or 60 milligrams daily, each for 14 days in random order. As summarized in the table, in addition to meeting its pre-specified primary outcome of stabilizing glucose levels that we reviewed earlier, Avexitide demonstrated statistically significant reductions in rates of hypoglycemia events, regardless of the intensity of the symptom. Notably, Avexitide 60 milligrams daily reduced events by more than half. We plan to measure hypoglycemia events as the primary endpoint for our Phase III program. Now I would like to summarize the data from the Phase II investigator-initiated crossover study of 16 participants with PBH. The Phase IIb study tested a 50% higher dose than Phase II. The schematic is at the top of the slide. As shown in the table, at both 45 milligrams twice per day and 90 milligrams daily, subcutaneous Avexitide significantly reduced severe hypoglycemia events. The 45-milligram twice per day Avexitide dose significantly decreased Level 2 hypoglycemia events by 57%, with a p-value of 0.003, and Level 3 events by 68%, with a p-value of 0.0003. The 90-milligram daily of Avexitide dose significantly decreased Level 2 hypoglycemia events by 53%, with a p-value of 0.004, and Level 3 events by 66%, with a p-value of 0.0003. These results were both statistically significant and highly clinically meaningful. Given the totality of these data and FDA feedback, we plan to use a composite of Level 2 and Level 3 hypoglycemia events as the primary outcome in our Phase III program. Regarding safety, Avexitide was generally well tolerated with a favorable safety profile across all clinical studies to date, with both Phase II studies shown here. In the Phase II PREVENT study, there were no reported treatment-related serious adverse events. And in the Phase IIb study, there were no reported serious adverse events. Adverse events across both studies were mostly mild to moderate in intensity and resolved without pharmacological intervention. The most common adverse events included diarrhea, headache, bloating and injection site reaction and bruising. No participant withdrew due to adverse events. Furthermore, no clinically relevant increases were observed in fasting or peak postprandial plasma glucose levels. On Slide 20, we show Phase IIb participant testimonials presented by Dr. Marilyn Tan at ENDO 2022. Please take the time now to read through these testimonials. I'll pause here for a few moments. These comments support the positive impact that Avexitide had on these individuals. In conclusion, here is a graph that summarizes in one figure, the key Phase II and Phase IIb study results that we just discussed. Data from both studies of Avexitide and people with PBH demonstrated highly statistically significant reductions in severe hypoglycemia events. Treatment with Avexitide 60 milligrams daily, 45 milligrams twice per day and 90 milligrams daily reduced hypoglycemia events by more than 50%. You can see the consistent dose-dependent effects across studies. These data form the basis of the pivotal study discussions with the FDA. We believe these results further strengthen our ability to deliver a well-run thoughtfully designed Phase III program. Specifically, the planned Phase III program will evaluate subcutaneous Avexitide 90 milligrams daily in people living with PBH. The primary endpoint is planned to be a composite of Level 2 and Level 3 hypoglycemia event. I will now turn over the call to Jim to discuss the next steps on this exciting program. Jim?