Thanks, John and welcome, everyone. I'll begin with 2001, our in vivo CRISPR candidate for the treatment of ATTR amyloidosis. This multisystem disease primarily manifests as either cardiomyopathy due to amyloid deposits in the heart or polyneuropathy due to progressive accumulation of protein deposits in the nervous system. As demonstrated in our Phase I study, a onetime treatment of 2001 led to greater than 90% TTR reduction. Importantly, we demonstrated best-in-class reduction of absolute TTR levels among TTR silencing agents, which we believe will be a key differentiator for treating patients with CM and/or PN. In ATTR-CM, despite the introduction of TTR stabilizers, patients continue to experience worsening heart failure, hospitalization, strokes and heart attacks. Ultimately, it remains a fatal disease. Today, I am pleased to report that patient enrollment in the Phase III magnitude trial for patients with cardiomyopathy is off to a great start. In March, we announced the first patients in both the U.S. and globally have been dosed. With over 30 patients already dosed and another 40-plus in screening, we are tracking well ahead of our initial projections. Further, we expect many additional sites to open in the weeks and months ahead, which will further accelerate enrollment in the trial. While we will not be providing patient-by-patient enrollment updates moving forward, we will look for opportunities to keep you abreast of our progress. The rapid rate of enrollment reflects the enthusiasm we hear from physicians and patients who believe 2001 holds the potential to revolutionize the ATTR treatment landscape. In parallel, we are also excited to announce today that we now expect to initiate a new Phase III trial for patients with ATTR polyneuropathy by year-end. Importantly, ATTR-PN patients are typically diagnosed earlier in adulthood, and their disease often progresses more rapidly than ATTR-CM. Published data from chronically dosed TTR silencing therapies demonstrate that deeper reductions of TTR are highly correlated with improvements on standard measures of neuropathy. To date, no other agent approved or in clinical development has demonstrated the depth and consistency of TTR reduction regardless of baseline levels like 2001, which gives us tremendous confidence in our ability to positively impact patients. Based on productive discussions with the FDA, we have aligned on a trial design to support a BLA filing for 2001, subject to review of the IND application. We plan to initiate the Phase III by year-end. The study is expected to be a small placebo-controlled trial of approximately 50 patients conducted in ex U.S. regions with limited or no access to silencers. We are making significant strides in advancing 2001 and look forward to presenting data from the ongoing Phase I trial in the second half of the year. We expect to be presenting safety and TTR reduction data on all 72 patients from both the CM and PN arms. Additionally, we plan to include for the first time, data beyond TTR levels, such as NT-proBNP, 6-minute walk test and mNIS+7. In summary, we continue to believe 2001 may halt and potentially reverse the disease as well as dramatically reset the ATTR treatment landscape. I'll now turn to 2002, our in vivo CRISPR program for the treatment of hereditary angioedema or HAE. In January, landmark findings from the Phase I were published in the New England Journal of Medicine highlighting a single dose of 2002 led to a 95% attack rate reduction. On June 2, we will be presenting updated data from the study at the European Academy of Allergy and Clinical Immunology Annual Congress. These long-term data will speak to the safety and durability of effect on both kallikrein and attack rate reduction. Importantly, we will also present on the number of patients who remain completely attack-free with extended follow-up now reaching beyond 18 months for all patients and longer than 2 years in some. Additionally, we plan to report top line results from the randomized, placebo-controlled Phase II study shortly thereafter. Full results evaluating the 25-milligram and 50-milligram doses are expected to be presented at an upcoming medical meeting. These data updates will provide clarity on which dose to move forward into the Phase III trial. Assuming 2002 continues to show a strong safety and efficacy profile, we believe that 2002 will become the preferred prophylaxis treatment in a growing commercial market. In the U.S. market, for example currently about 70% of HAE patients use chronic prophylaxis treatment, and that number is increasing. Many patients continue to seek better efficacy and more convenience, expressing a strong willingness to switch to new treatments that can deliver on both fronts. As previously discussed, we plan to initiate the pivotal Phase III trial in the second half of 2024. At this point, we are mainly waiting for the Phase II data before submitting regulatory amendments to begin our global Phase III. Notably, we have now also completed the additional preclinical mouse study requested by the FDA to support inclusion of women of childbearing age in the U.S. As expected, these data did not show an impact to female reproductive health in the animals treated with 2002. This is consistent with the extensive preclinical work completed and reviewed by regulators prior to our initial IND clearance, and we plan on submitting these data to the FDA prior to Phase III. Let me now turn to exciting developments with our modular gene insertion platform. Here, we are leveraging the same LNP platform used in our gene knockout program to deliver the CRISPR machinery along with an AAV to deliver a functional gene. Unlike traditional gene therapy, we expect our approach will permanently restore a missing or defective protein without a waning of effect over time. We expect to begin this year a first in-human study of 3001, our wholly owned gene insertion program for alpha-1 antitrypsin deficiency. As a reminder, the main hurdle with treating this disease is getting patients to consistently normal levels of alpha 1. Current standards of care, which involve weekly infusion of augmentation therapy does not achieve this. Other approaches in development have also been unable to yield normal levels of alpha 1 and in some cases, have only been able to produce a modified version of the protein with unknown consequences. 3001 is the only drug candidate to show AAT levels restored to normal levels after a single dose in nonhuman primates. It is designed to precisely insert the wild-type SERPINA1 gene and permanently restore production and secretion of fully functional alpha-1 protein. Assuming success, 3001 could be life-changing for alpha-1 patients and unlock a whole new category of diseases we can pursue with in vivo gene insertion. Separately, our collaborator Regeneron has achieved clearance from both U.S. and EU authorities for the Factor IX program using our modular gene insertion platform and plan to enroll the first patient later this year. Our clinical development of the in vivo pipeline is rapidly accelerating, and Intellia is well positioned as the leader in this new era of medicine. I'll now hand over the call to Laura, our Chief Scientific Officer, who will provide updates on our R&D efforts and what's coming next.