Thanks, Ken. As you said, we were pleased to be able to showcase some of these capabilities at AACR and provide insights into how these technologies can be applied to the screen and optimization of our preclinical development candidates, keeping the specific targets and patient populations in mind with the aim of derisking clinical development efforts. Posters presented on our multispecific antibody therapeutics focused on our TriTCE Co-Stim platform, a next generation tri specific T-cell engager with integrated CD28 co-stimulation. We presented data on the platform itself and in the context of two tumor targeting antigens, highlighting enhanced mechanistic and antitumor activity compared to clinical benchmark CD3 bispecifics targeting the same antigens. By providing balanced activation of both Signal 1 through CD3 and Signal 2 through CD28 in a single molecule, TriTCE Co-Stim molecules have the potential to ingest more sustainable T-cell responses in the tumor microenvironment beyond that achievable with conventional bispecific T-cell engagers that only engage CD3 or CD28 alone. Providing up the potential therapeutic modality to treat solid tumors with low T-cell infiltration and poor T-cell function that are underserved by existing immune-based therapies. On Slide 10, summarizes the first TriTCE Co-Stim presentation, which utilizes Claudin18.2 as a model tumor target. And it focused on the various design features optimized through protein engineering and reiterated functional screening to enable certain key functional properties desired in the platform. This includes conditional binding of CD28 contingent on CD3 binding, obligate T-cell binding of CD28 and CD3 with no T-cell cross linking between CD3 and CD28 on separate T-cells and with T-cell activation contingent upon tumor antigen engagement. In the presence of tumor cells expressing Claudin 18.2, the simultaneous engagement of Claudin 18.2 on tumor cells with dual CD3, CD28 co-engagement on T-cells is anticipated to yield higher functioning T-cells capable of driving more durable T-cell responses culminating in sustained antitumor activity. As shown in the left, we tested this hypothesis in an in vitro serial repeat challenge assay with results demonstrating superior T-cell viability, T-cell proliferation and tumor cell cytotoxicity over time with the lead Claudin 18.2 TriTCE molecule relative to clinical stage benchmark bispecifics from Amgen and Astellas. On the right-hand side of the slide, you can see that this also translates into enhanced antitumor activity in established gastric cancer models. Building on data shared in prior presentations on the platform demonstrating lack of systemic cytokine release, we also continue to characterize the safety profile of the platform. In pilot NHP studies, Claudin 18.2 TriTCE Co-Stim was well tolerated upon repeat dosing at 3 mg per kg with mild changes in peripheral cytokines and no histopathological changes observed in the stomach where Claudin is expressed. Taken together, we view these results as very encouraging, further validating the potential of the TriTCE Co-Stim approach and supporting continued evaluation against additional tumor targets. The second TriTCE Co-Stim presentation described the design and characterization of a DLL3 targeted TriTCE Co-Stim module. Again, incorporating balanced CD3 and CD28 T-cell activation to enhance cytotoxic T-cell responses against DLL3 expressing tumor cells beyond that achieved with benchmark DLL3 CD3 bispecifics. As described in the presentation, molecule selection was achieved through a rigorous evaluation and functional screening of various formats, geometries and paratope affinities, while also leveraging advances in the platform described in the Claudin 18.2-based poster. This slide shows a subset of data from the poster. On the left, we show example in vitro cytotoxicity results performed at low ET ratio, demonstrating favorable activity of DLL3 TriTCE Co-Stim relative to benchmark clinical stage DLL3 CD3 bispecifics such as AMG 757 or trastuzumab at HPN328 from Harpoon. In additional experiments reported in the poster, we further demonstrated that the DLL3 TriTCE, as by design, improves T-cell proliferation and survival, resulting in more sustained T-cell cytotoxicity and rechallenge experiments relative to benchmark TCEs, while maintaining desired T-cell engagement properties such as conditional binding to CD28 that requires co-engagement with CD3. Similar to our Claudin 18.2 TriTCE, the novel geometry that prevents binding of the CD28 paratope in the absence of CD3 binding reduces the potential of cytokine release syndrome as tested using a predictive in vitro model through monitoring cytokine release. Finally, as shown in the right-hand side of the slide, in vivo studies using a high bar established small cell lung cancer Humanized Xenograft Model comparing the DLL3 TriTCE to the AMG 757 benchmark demonstrates tumor regression with the DLL3 TriTCE not observed with the benchmark control. Taken together, we feel both AACR posters describing the trispecific T-cell engager platform illustrate our ability to engineer T-cell engagers to supplement CD3 activation with CD28 co-stimulation to enhance T-cell responses and antitumor activity, while maintaining a desired tolerability profile, paving potential opportunity to expand and enhance therapeutic responses in solid tumors patients beyond that achieved thus far with T-cell engagers. On Slide 12, as you are no doubt aware, the appeal of incorporating CD28 co stimulation into T-cell engager strategies is also being pursued by others in the industry, as shown in gray on this slide, highlighting the exciting potential of CD28 co-stimulation to augment T-cell based therapeutic strategies. Zymeworks approach, highlighted in green, however differentiates from these competitor approaches in several key features. First and foremost, we have designed tumor targeted T-cell engagers that incorporate both CD3 and CD28 co-engagement in a single molecule, engineering balanced CD3 and CD20 activation to enable an optimal level of T-cell activation through Signal 1 and Signal 2. This differs from companies developing CD28 bispecifics alone or in combination with either anti PD1 or with CD3 bispecifics. While others have developed CD3, CD28-based tripecifics, in contrast to their approach, we have been very careful to engineer conditional CD28 binding and activation contingent on CD3 binding to offset the potential for T-cell, T-cell engagement and peripheral T-cell activation. Zanidatamab's advancement to regulatory review marks a significant milestone and validates our protein engineering expertise, including the asymmetric platform also a core component of our multi-specifics, used in the next generation T-cell engager ZW171 alongside our latest TriTCE Co-Stim candidates. Much like our design and optimization of ZYME as a next-generation anti HER2 agent, we anticipate our protein engineering expertise and attention to design features of next-generation T-cell engagers will likewise provide enhancements and therapeutic benefits beyond the limits of first-generation T-cell engagers. And we look forward to nominating a TriTCE molecule at the end of this year as the final molecule of our 5x5 strategy. From our ADC team, we had three posters. For ZW191, our folate receptor targeting antibody drug conjugate, we shared additional preclinical data this demonstrating, this differentiated profile relative to other full receptor targeting ADCs, its strong antitumor activity across an expanded set of forward receptor alpha tumor indications and its favorable tolerability in repeat dose in each nonhuman primate studies. On this slide, we highlight a few of these results. On the left, we demonstrate the relative internalization, payload delivery and tumor spheroid penetration supported by ZW19 folate receptor and alpha mAb compared to folate receptor alpha targeting antibodies incorporated in four other ADC programs. As you can see, ZW191 mAb in blue, in dark blue demonstrated higher levels of internalization, seropentration and piloted liverate compared to the mAbs from Elahir, MORAb-202, STRO-002 and PRO1184. This observation is consistent with our decision to select the ZW191 mAb from a larger pool of polypeptide receptor alpha antibodies based on its optimal ability to deliver payload through enhanced internalization and consistent with our care and factoring in all components of the ADC when designing our candidates. On the right-hand side of the slide, we demonstrate ZW191 antitumor activity in a range of PDX models. Consistent with prior data, we saw greater total activity of 191 compared to MIRV with ZW191 demonstrating activity in full lip receptor high, medium and low models of ovarian cancer. We also reported promising results in folate receptor alpha expressing non-small cell lung cancer, endometrial and triple negative breast cancer models with representative examples of responses shown. Further for ZW191, we disclosed updated data from our GLP tox studies, toxicology studies supporting our IND filing, where we reported the highest non-severely toxic dose to nonhuman primates was 60 mg per kg, presenting a compelling profile for potentially efficacious dosing. Beyond the ZW191 poster, our ADC team also presented development of a novel tumor spheroid model system applicable to multiple cancer types to aid in the screening characterization of our ADC molecules including TOPO-based ADCs that is more predictive of antitumor activity in vivo than traditional two T-cell line models. It also is in the detection of ADC mechanism of action such as the tumor sparing penetration data shown in the ZW191 presentation. Finally, we also shared progress made on the design and functional screening of bispecific ADCs to identify those optimally formatted in affinity, valency and design to overcome challenges associated with tumor target heterogeneity associated with targeting a single tumor antigen. And we look forward to presenting more data from that novel technology in the future, including applications to additional tumor target peers. In addition, to today's updates, we anticipate further opportunities to showcase our progress from for both our preclinical and clinical milestones at upcoming conferences in 2024, including the nomination of our final product candidate within our 5x5 portfolio. Our commitment to innovation and mission to provide effective treatment options for patient remains at the heart of what we do at Zymeworks. We're actively exploring alternative mechanisms of actions and harnessing new modalities to optimize efficacy while minimizing toxicity, ultimately with the aim of raising the bar for the standard of care, particularly in challenging to treat diseases. We're excited about the journey ahead and remain dedicated to advancing transformative therapies. Ken, back over to you.