Thanks, Randy. Okay. So we will talk about some of our clinical-stage assets here. As background, ARV-102 is an oral PROTAC LRRK2 degrader intentionally designed to cross the blood-brain barrier and selectively degrade leucine rich repeat kinase 2, or LRRK2. LRRK2 is a multidomain protein with three key functions, of kinase, GTPase, and scaffolding activities. Together, LRRK2's activities regulate endolysosomal trafficking, and when activity is elevated, the lysosome becomes dysfunctional. This leads to obstructions when clearing the aggregated pathological proteins that would typically be degraded through the properly functioning lysosomal pathway. We believe that degrading LRRK2 has the potential to restore endolysosomal homeostasis and to provide therapeutic benefit in disorders characterized by lysosomal dysfunction. Two of those diseases are progressive supranuclear palsy, or PSP, and Parkinson's disease. Several competitors are pursuing LRRK2 as a target in these diseases. Our PROTAC approach is differentiated because we reduce LRRK2 protein while competitors only inhibit LRRK2 kinase function. By degrading the entire LRRK2 protein complex, we disrupt the key functions believed to be linked to neuroinflammation, and 102 offers the potential for deeper and more durable therapeutic benefit versus inhibitors. Our confidence in this program is bolstered by the data we have generated from our Phase 1 clinical trials in healthy volunteers and Parkinson's disease. As previously disclosed, ARV-102 has been well tolerated and demonstrated dose-dependent CSF exposure across both trials, indicating excellent brain penetration. We also reported that ARV-102 reduced LRRK2 in the CSF by more than 50% and reduced downstream proteins driven by LRRK2 variants that are elevated in the CSF of patients with Parkinson's disease and linked to lysosomal stress. Two such proteins, GPNMB and CD68, demonstrate clear and disease-relevant pathway engagement in the central nervous system, even in healthy volunteers where they would not have been expected to be elevated. Altogether, these data provide further evidence that total protein degradation of LRRK2 may have a best-in-class impact on underlying disease compared to inhibition. As Randy mentioned, we were accepted for oral presentation at AD/PD, where we will show pathway biomarker results in patients with Parkinson's disease. We look forward to updating you on these data. Let us turn now to the development plan for ARV-102. As we have previously shared, there is strong evidence that endolysosomal trafficking driven by increased LRRK2 is associated with the clinically meaningful progression, often within one year, of PSP, a progressively debilitating neurodegenerative disease that is typically fatal within five to seven years of diagnosis. We intend to initiate a Phase 1b trial in PSP in the first half of this year, with the potential to initiate a registrational trial in late 2026, pending health authority feedback. If successful, ARV-102 has the potential to become the first and only disease-modifying treatment for this rare, life-threatening neurological disorder that affects approximately 25,000 people every year in the U.S. We expect to provide additional updates on our clinical development plans in the coming months. We can now move to our KRAS G12D degrader, ARV-806, and I will say we completed dose escalation for once-weekly administration in our Phase 1 trial well ahead of plan. We believe that reflects strong clinical investigator interest and high demand for effective KRAS-targeted therapies. ARV-806 targets KRAS G12D for elimination. KRAS G12D is a well-known oncogenic driver associated with poor prognosis and resistance to standard treatments across major tumor types, including pancreatic, colorectal, and non-small cell lung cancer. Importantly, there are no approved targeted therapies on the market for tumors with KRAS G12D mutations. As a reminder, on our last call, we shared preclinical data presented at the Triple Meeting in October that highlighted the clear differentiation of ARV-806 from both KRAS inhibitors and degraders currently in the clinic. These preclinical data show ARV-806 to be more than 25-fold more potent in reducing cancer cell proliferation compared to clinical-stage KRAS G12D inhibitors, the leading clinical-stage—sorry, for seven days, after a single dose with efficacy responses across pancreatic, colorectal, and lung cancer models. We anticipate sharing initial Phase 1 clinical data in the coming months. There is a very high bar for differentiation, and we believe ARV-806 has the potential to transform the field by exceeding that bar. Let us shift to ARV-393, an oral, investigational novel degrader of BCL6 with the potential to become a chemo-free standard of care across non-Hodgkin's lymphoma indications. BCL6 has a rapid resynthesis rate and is known to be difficult to target by inhibitors. ARV-393's iterative, event-driven mechanism of action counters the rapid resynthesis rate of BCL6, resulting in potent, sustained degradation of the protein. As announced on our Q3 earnings call, we have already observed responses in both B- and T-cell lymphomas in the early cohorts of our ongoing Phase 1 monotherapy trial, even at exposures below those predicted to be efficacious. We also observed evidence of robust BCL6 degradation and the safety profile of ARV-393 supports continued dose escalation. In preclinical data presented last year, ARV-393 showed broad, synergistic antitumor activity combined with standard-of-care biologics and investigational small-molecule inhibitors. In December, we presented compelling preclinical data that support ARV-393 in combination with glofitamab, a CD20-directed bispecific antibody, as a chemotherapy-free combination approach in diffuse large B-cell lymphoma, or DLBCL. These data demonstrated tumor growth inhibition of 91% with ARV-393 plus glofitamab dosed sequentially, compared to 36% for glofitamab alone. Additionally, RNA sequencing and biomarker analysis suggested that ARV-393 enhances CD20 expression and genes that promote interferon signaling and antigen presentation but also downregulated proliferation-associated gene sets. Overall, these preclinical data suggest mechanistic synergies between BCL6 degradation with ARV-393 and T-cell engagement. We believe these results bring hope for DLBCL patients left with minimal treatment options when standard-of-care therapies fail. With our encouraging preclinical data in hand, we are on track to initiate our Phase 1 combination trial with glofitamab in the first half of this year. So now I will turn the call over to the operator for Q&A.