Thanks P.J. Okay, so Peter Lamb has discussed the pipeline in depth a number of times previously. So I'm not going to reiterate that today, but instead, I'll touch on some of the key features that underlie the pipeline. Our overall strategy is designed to reduce target biology risk in a number of ways. At first, we're not dependent on one mechanism of action, or limiting our approach to a single aspect of tumor biology for pipeline success. Instead, we're prioritizing targets based on the strength of the science and their ability to address the complexity of tumor biology. Second, we are not limiting our modality to small molecules. We've now fully enabled both small molecule and biotherapeutics capabilities for our internal discovery efforts. Our small molecule discovery programs are focused primarily on synthetic lethal targets with clear patient selection strategies. And our Biotherapeutics programs are focused on antibody drug conjugates or by specifics in monoclonals focused primarily on innate immunity. Our clinical and preclinical pipeline takes a best-in-class approach that's informed by prior clinical data or proof-of-concept from earlier programs. This in our view greatly reduces target risk. So here's the pipeline beyond cognizant that the two most advanced programs are then the limpness and SP 002. Thank you, we'll be discussing these programs in much greater detail. So I'll only summarize the underlying strategies for them here. Both of these programs are built on prior clinical experience with molecules that have the same target profile, then obviously builds on our experience with cabozantinib. The target profile is essentially the same, but the pharmacokinetics have been optimized. The aim here is to have an easier to manage and potentially more combinable drug to allow us to explore the clinical white space where we have evidence that Cabo is active, but where we have not pursued registrational trials, and to also explore novel combinations in areas where combo is already approved. XB002 is our tissue factor targeting ADC that builds on the known profile of tisotumab vedotin or TIVDAK, which is approved for cervical cancer. XB002 combine the novel monoclonal antibody against tissue factor with a next generation linker payload technology that together result in a molecule with reduced risk of bleeding and increased stability of the intact ADC. The next programs I'd like to highlight are our two option agreements with our programs with Cybrexa and Sairopa. These option type arrangements are a capital efficient way to access clinical stage assets with a back end loaded structure where we pay for success. The Cybrexa agreement gives us an option on a novel peptide drug conjugate currently in Phase 1. CBX-12 is a pH sensitive peptide conjugated to exatecan, a topoisomerase I inhibitor. This novel mechanism of action -- this is a novel mechanism of action designed to enhance the delivery of exatecan to tumors. But unlike ADCs, this occurs in a tumor antigen independent fashion. The Sairopa agreement gives us an option on a novel monoclonal antibody ADU-1805, which targets SERF-Alpha, the ligand for CD47. SERF-Alpha CD47 is a major myeloid checkpoint and targeting Servalpa directly overcome some of the known issues with targeting CD47. These include the large PK sync and potential for anemia due to expression of CD47 on red blood cell. ADEU1805 was carefully designed to target all human alleles of SERF-Alpha to give it best-in-class potential. Finally, in preclinical development, we have several biotherapeutics in the pipeline, both ADCs and bispecifics. XB371 follows on from XB002 is also a tissue factor targeting ADC, but with the topoisomerase I inhibitor payload instead of the microtubule targeting payload on XB002. Tissue factor is expressed on a broad range of solid tumors. So having two different tissue factor targeting ADCs with different payloads allows us to match the tumor type with the mechanism of action of the payload to which the tumor is most likely to respond. XB010 is also a next-generation ADC, but this one targets 5T4, another broadly expressed tumor antigen. XB010 uses Catalent's site-specific conjugation and proprietary linker payload technology. The two bispecifics XB014 and XB628 combine the known pharmacology of PD-L1 inhibition with inhibition of a complementary innate immune checkpoint, either the myeloid CD47 checkpoint or the natural killer cell checkpoint NKG2A. In addition to these programs, we have multiple programs in discovery at earlier stages of maturity, both small molecules and biotherapeutics that will provide a source of development compounds and INDs going forward. Having multiple programs enables us to make decisions based on real-time data to only prioritize those with the best potential for advancing successfully through clinical development. In fact, we're on track to deliver several new development compounds this year, which will come from both our small molecule and biotherapeutics program. Our small molecule team reached critical mass last year when we were able to complete the introduction of several key capabilities, one of which is structural biology to help guide the optimization of lead compound. Structural biology was one of the final components needed to get our small molecule discovery organization fully built out. And I'm very pleased to say this group has been highly prolific. Despite being on the job for less than a year, they've already solved over 100 structures. And as you can see in this slide, they've delivered a steady stream of high resolution structures using both X-ray crystallography and cryogenic electron microscopy. These structures have been very helpful in guiding our medicinal chemistry efforts in our recent discovery programs, and in some cases, have resulted in significant evolution of lead series for driving potency and selectivity. Using this approach, we've also been able to optimize known liabilities of lead molecules as a way toward achieving best-in-class status for programs with advanced competition. Though you may remember that in our original discovery platform, we also had a strong structural balance group that solved over 1,000 structures of kinase inhibitor complexes, which helped drive dozens of discovery programs. That group had only x-ray crystallography to generate their structures, but with the introduction of cryo-EM in this field, we're now able to get these structures faster than ever. So that's it for my remarks, and I'll now turn the call over to Vicki.