Yes. I mean I think the beauty from when we introduced our RNA editing platform a couple of years ago, and we're doing the work on chemical optimization as we talked about the evolution of Wave. The ability not to have to use LNPs. I mean the challenge in developing chemistries that are compatible with LNPs is a very short unstable oligo. When we think about the data that's been shown by our peers, it shows protein levels in the course of ours. I think the key for us has been durability, potency and accessibility absent the need for delivery vehicles, starting with the need -- the opportunity we have, which is without the need for vehicles, it means we can think about editing in multiple tissues, where LNPs can't go. So that opens up the possibility of thinking about CNS, renal, other tissues. I think what's been exciting about us in starting our RNA editing platform in AATD with GalNAc has been taking advantage of the precedent of GalNAc in subcutaneous low doses, accessibility of hepatocyte, durability and stable constructs and then being able to leverage much like the RNAi silencing world and our peers there, created the uniformity of, if you see data in this, then the probability of success of programs two, three, four, five, six and beyond gets better and better. And I think the advantage we have and why we're excited to provide that updates later this year is taking advantage of GalNAc and what we've done in silencing and applying it to the field of editing gives us highly potent, highly durable, subcutaneously administered therapies that we're excited about, not just for AATD, but continuing to open up that space for other substantial indications. I mean, we shared this data on NHPs in our Nature Biotech paper. But I think the field of LNP deals move beyond that, where you have oligos that don't require them. And we've really, from the beginning, made that a fundamental component of building out the editing franchise.