Dr. Laura Niklason
Thank you, Laura. Good morning, everyone, and thank you so much for joining our second quarter 2023 financial results and business update call. As we enter into the second half of 2023, we continue to be excited about the progress we've made so far this year in advancing our universally implantable bio-engineered human tissue product candidate, the Human Acellular Vessel, or HAV, in multiple indications. As a recognition of the groundbreaking nature of the HAV, the FDA issued a Regenerative Medicine Advanced Therapy, or RMAD, designation for the trauma indication in May. In July, we announced completion of enrollment of our Phase 3 trial in vascular trauma. Based on the 30-day endpoint of this pivotal trial, we will present topline results for the trial during Q3 of this year. We remain on target for filing our Biologics Licensing Application, or BLA, with the FDA during Q4 of this year. Reinforcing the importance of the HAV in wartime scenarios, we're proud of the highly successful outcomes to date with our humanitarian program in Ukraine. And lastly, we recently announced our collaboration with the Juvenile Diabetes Research Foundation, or JDRF, to advance our biovascular pancreas product candidate. During this call, I'll review these recent highlights in more detail before turning the call over to Dale for a review of our financial results. Then we'll be happy to open up the call to take your questions. I'll begin with our HAV program in vascular trauma. We're excited to have recently completed the target enrollment of our Phase 2/3 V005 trial of the HAV in vascular trauma repair. As a reminder, the V005 trial is a single-arm open-label pivotal study of patients suffering from vascular trauma injuries. The primary efficacy assessment is based on the 30-day patency of the Human Acellular Vessel in patients who have vascular trauma of an extremity. Our benchmark for this single-arm study is the performance of synthetic grafts in treating trauma patients, which is derived from a comprehensive review of the literature. At the completion of V005 target enrollment In July, a total of 68 patients had received the HAV for trauma, of which 51 comprised the target population of injuries in the extremities. Extremity injuries, importantly, are the vast majority of traumatic injuries in both civilian and military settings. Database lock for the V005 trial will occur later this month, and we're looking forward to presenting the topline results of the V005 vascular trauma trial later in this quarter. Stay tuned. We anticipate that the V005 trauma trial will serve as the backbone of our BLA filing later this year. The current target indication for the HAV is for treatment of extremity vascular trauma when synthetic graft is not indicated, and when autologous vein is not feasible. Our recent RMAD designation from the FDA, combined with our priority designation from the Defense Department, gives us a higher chance for priority review of our planned BLA filing in the trauma indication. Priority review typically reduces review time to approximately six months after BLA acceptance as compared to the standard review process. As you know, the HAV is also being used in Ukraine under humanitarian aid program. 19 vascular trauma patients have received the HAV in Ukraine, and most of these patients who were wounded had blast injuries and shrapnel injuries in the ongoing conflict. Outcomes from the Ukraine wartime experience are being presented today at the 2023 Military Health System Research Symposium in Florida. Ukrainian surgeons treating war-wounded patients with the HAV are reporting a very high success rate. At 30 days after implantation, the limb salvage in patients treated with the HAV is 100%. This is a remarkable result, especially in light of the fact that an estimated 20,000 to 50,000 war-wounded patients have lost limbs in Ukraine since the start of the conflict only 18 months ago. In addition, available data from our humanitarian aid experience indicate that the 30-day patency or blood flow in the HAV was present in 95% of patients. Importantly, in the treatment of these wartime traumatic injuries, there were no instances of infection of the HAV. The real-world data from the Ukraine experience will be submitted along with our V005 trauma data in our BLA submission, as additional evidence of the utility of the HAV in wartime settings. Turning now to our trial of the HAV in arteriovenous access in hemodialysis patients with end stage kidney disease. As you'll recall, we announced enrollment completion of our Phase 3 V007 trial in April of 2023. Since the primary efficacy analysis will evaluate the usability of the conduits for dialysis during the first year, our topline results are anticipated to be available around the second quarter of 2024. We'll also be evaluating the rate of dialysis-related infections as a secondary endpoint. Both endpoints will compare the HAV to the most commonly used method for arteriovenous access, which is the autogenous arteriovenous fistula. With regard to publications, we're continuing to add to the growing body of literature supporting the HAV across multiple indications. We recently announced the publication of a preclinical study in the Journal of Vascular Surgery-Vascular Science, that provides a scientific basis for the low rates of infections that we've observed in our clinical trials of the HAV. Across our clinical trials in dialysis access, in peripheral artery disease, and in trauma, we've observed a low infection rate of the HAV. In particular, the HAV infection rate appears substantially lower than what has been reported for synthetic grafts, such as those made out of Teflon. A recent publication shows that the resistance of the HAV to infection may be due to its favorable interactions with the body's immune cells. When comparing the HAV to Teflon grafts in the laboratory, we found that human immune cells can function and thrive when placed on the HAV material, but these same cells quickly die when placed on Teflon. Improved survival and function of human immune cells may mean that the immune system can fight off bacteria that come in contact with the HAV, thus avoiding the development of an infection. In contrast, immune cells on Teflon die quickly, meaning that they're not able to fight off bacteria that are attached to the surface. This difference in human immune cell function may be leading to the low observed infection rate in the clinic. This publication is important because it provides a strong scientific basis for the very low infection rate of the HAV that we've observed in over 500 patients to date. These results have broad implications for all of our intended HAV indications, and further support its potential as a solution to some of the problems of synthetic vascular grafts. Going further, we're happy to announce our collaboration with the Juvenile Diabetes Research Foundation, or JDRF. This was announced in April of 2023. JDRF is the world's largest nonprofit funder of Type 1 diabetes research. Humacyte and the JDRF are collaborating on the development of Humacyte’s Vascular Pancreas, or BVP, which is our product candidate for the treatment of patients with Type 1 diabetes. Type 1 diabetes, like all other autoimmune diseases, is a growing problem in the Western world. Though nearly 1.5 million people suffer from Type 1 diabetes in the US, last year, fewer than 1,000 curative pancreas transplants were performed. The dearth of transplants is because transplanting the whole pancreas is a highly risky procedure. To decrease risk, insulin-making islets, which are less than a millimeter in size, have been injected into the liver or underneath the skin of diabetic patients. However, islets that are injected can often die due to a lack of oxygen and nutrients that they need to stay alive. Our BVP is designed to enable the delivery and survival of insulin-producing islets by providing them enough oxygen and nutrients using the HAV as a carrier into the bloodstream of the patient. We've already previously reported that rodent-size BVPs can reverse diabetes in rats. During 2023, we've been testing patient-size versions of the BVP in primates. Recent experiments have shown that islets in the BVP survive in a multi-week model after implantation into the animal, and continue to make insulin after implantation. These results are extremely encouraging because this supports the ability of the BVP to deliver a curative number of insulin-producing islets into a large animal. Work in large animals is planned going forward, including the use of the BVP in diabetic animals. And with that, I'll now turn it over to Dale for a review of our financial results and other business developments.