Thank you, Marianne. As Marianne mentioned, we are looking forward to sharing at ASLD data from our Phase 2 MARCH chronic hepatitis B trial and our Phase 2 SOLSTICE chronic hepatitis delta trial. First, I want to talk about chronic hepatitis B and our goal, which is to achieve a functional cure defined as lifelong control of the virus after a finite duration of treatment, a goal that would be welcomed by the 300 million people living with chronic hepatitis B. The only treatment available to achieve a functional cure is arduous and results in a functional cure only 3% to 7% of the [time]. We are aiming to set the bond much higher with a goal of achieving a 30% or better functional cure rate. Our hypothesis is that you cannot achieve a functional cure with only an antiviral or only with an immunomodulator, but you really need both mechanisms fraction, which is exactly what we are evaluating in our multiple ongoing clinical trials. Our vaccine antibody VIR-3434, and our siRNA VIR-2218 can potentially act as both immunomodulators and antivirals. VIR-3434 has three mechanisms of action. First, it is a neutralizing antibody preventing viral entry of HBV and HDV virions. Second, via enhanced optimization, it removes viral particles and subviral particles from the bloodstream. Third, it has a modified Fc domain, which allows it to act as a potential direct immune activator, capable in-vitro of stimulating dendritic cells to mature and create T-cells against HBV or HDV. This is otherwise known as a vaccinal effect. VIR-2218 can act as an antiviral by knocking down HBV RNA transcripts. VIR-2218 can also act as a potential immunomodulator because we believe the HBV protein hepatitis B surface antigen is an immune to allergen and by knocking it down we can unleash the break on the immune system. So VIR-2218 is designed to act by analogy like a checkpoint inhibitor. We have demonstrated that when VIR-2218 plus peg interferon alfa is given for 48 weeks, about 30% of participants achieved hepatitis B surface antigen loss at the end of treatment and about 16% had sustained hepatitis B surface antigen loss 24 weeks after the end of treatment. Although the number of participants treated to date is relatively small, this is the first demonstration that siRNAs can have a potential impact on functional cure rates. In that same study, Vir identified that we may be able to predict who will have an off treatment response based on their endogenous anti-HBS antibody levels at the end of treatment. Vir was also the first to demonstrate the additive impact of combining an siRNA and a monoclonal antibody, specifically VIR-2218 with VIR-3434. This combination resulted in the largest declines in hepatitis B surface antigen ever observed after just 12 weeks of combination therapy. In Part B of the MARCH study, we are evaluating VIR-2218 plus VIR-3434 with and without peg interferon alfa for 24 and 48 weeks. To remind you, after 24 weeks of VIR-2218 plus peg interferon alfa without VIR-3434, we saw that 6% of patients achieved hepatitis B service antigen loss at the end of treatment. Thus, for AASLD, the fundamental question are around the role of our vaccine antibody VIR-3434. First, if we add VIR-3434 to VIR-2218 plus peg interferon alfa, will we see an end of treatment response greater than 6%? Second, if we replace peg interferon alfa with VIR-3434, will we see an end of treatment response better than 6%? Third, if we give VIR-3434 for 24 weeks or more, will we see any signs of immunomodulatory activity suggestive of a vaccinal effect? If so, that would strongly support the potential role of VIR-3434 in a functional curative regimen. Now let's shift gears to chronic hepatitis delta. About 100,000 people in the United States and potentially over 200,000 in the EU5 are currently estimated to have HBV/HDV co-infection. This is likely to be an underestimate, given the under diagnosis rates for chronic hepatitis delta. We believe having a highly efficacious, easy-to-use treatment for chronic hepatitis delta will drive the desire to be diagnosed. Delta is one of the most severe forms of viral hepatitis with 4 times greater risk of liver cancer and 2 times greater risk of death compared to hepatitis B. Notably, we don't yet have potent chronic viral suppressive therapy for delta. In recognition of this urgent unmet medical need, there are potentially accelerated paths to approval. Our antibody, VIR-3434 and our siRNA VIR-2218, can also inhibit the hepatitis delta lifecycle because hepatitis delta virus requires the hepatitis B service antigen to be infectious. Notably, with the only currently available chronic treatment, 12% of patients achieve undetectable HDV RNA after a full 48 weeks of therapy with 45% of patients receiving some benefit. This regimen also requires lifelong daily subcutaneous injections. We have challenged ourselves to develop a chronic suppressive therapy that is better, not just in terms of efficacy but also in terms of convenience, safety and tolerability. I'm excited to see if we can get there. Data from the SOLSTICE trial will be shared as a late breaker oral presentation at AASLD. Specifically, we'll be evaluating the safety and antiviral efficacy of VIR-3434 alone, VIR-2218 alone and the combination of the two together in a small cohort of participants. Looking ahead to what we believe will enter the clinic next is VIR-7229, our next generation investigational COVID-19 monoclonal antibody, which is being funded in part by BARDA. This funding includes the parallel research and development of next generation RNAs, such as circular RNA or self-amplifying RNA that would actually encode this antibody, potentially allowing your own cells to make VIR-7229. This would be the ultimate combination of RNA and antibody technology. Instead of using RNA to encode a protein that your body then must develop an immune response against, this is about RNA encoding antibody that directly defends you. Finally, a quick look back. As I know there remain questions about VIR-2482, our investigational prophylactic influenza A antibody. Our ongoing post hoc analyses have yielded the following two important insights. First, VIR-2482's ability to reduce cases of symptomatic flu improves to 57% for the 1200 milligram dose when the case definition includes fever, that is how symptomatic illness is defined. Second, this relative risk reduction increases further to 65% when excluding the cases of flu that occurred within a few days of dosing. Notably, our next generation antibody, VIR-2981, is not only more potent in-vivo but covers both flu A and flu B. Furthermore, because it inhibits the neuraminidase enzyme, like all current flu antivirals, its mechanism of action has been clinically validated and is de-risked. The IND submission for VIR-2981 is anticipated in the second half of 2024. In addition to VIR-2981 and VIR-7229, we have two other preclinical candidates that we expect an IND filing for in the next 12 to 24 months. VIR-8190 is an investigational monoclonal antibody against respiratory syncytial virus and human metapneumovirus. You may have heard the news of the incredible demand surrounding the currently available mAb for RSV. Imagine if you could have a single monoclonal antibody that not only covers RSV but also a second virus human metapneumovirus that also causes significant morbidity and mortality in infants. We also have an investigational novel therapeutic vaccine candidate for control of high grade squamous epithelial precancerous lesions and HPV cancers that is called VIR-1949. Our talented researchers here at Vir have been very busy executing, and I'm excited to hand over the reign to Jennifer Towne as Chief Scientific Officer. She will no doubt further bolster our innovation mindset. I will now turn the call over to Chief Financial Officer, Sung Lee.