Yes, I'll jump in there. I think when we look at the landscape of technologies, it actually hasn't though new platforms, new iterations of platforms have been emerging. The general structure of the market hasn't actually changed very much. You really still continue to have, really two dominant types of players in the market. You have the mass spectrometry players, and then you have the targeted players. The links and standard biotools, and then you have this emerging class of new technologies like us. I think when we look at things like the Astral, the latest version of the[ TIMS], ToF, et cetera. What they're really great at is moving very, very, very quickly so they can collect a very large number of spectra in a short amount of time. On the other hand, some of the fundamental challenges that exist in the space. Things like ease of use, things like dynamic range, the ability to sample effectively, low abundance proteins, the speed on the back end isn't substantively contributing to helping with those challenges. On the other hand, in a single molecule universe, the identifiability of a protein, the detectability, quantifiability, are not directly correlated to the concentration in the way that they are in a mass spectrometer. And so when - we talk to folks, what they're very excited about are a couple things that get to the core of our thesis. One, they're really excited about the sensitivity of our platform. We demonstrated optimal sensitivity. That's something that is orders of magnitude beyond what has been seen, with other existing platforms. They are excited about the dynamic range, which of course comes from the scale that we are describing in terms of measuring billions of molecules. And the majority of even emerging platforms are looking at peptides, not proteins. And they're certainly not looking at the scale of billions of molecules. And so that's very exciting to folks. Also the ability to really be a platform for the biologist. Mass spectrometers are amazing and powerful instruments. However, they aren't generally accessible to your average bench scientist. And so that accessibility, that ease of use for the broader biologic community, continues to be an important differentiator for us. And then as we've talked about on this call, there simply does not exist a way to measure proteoforms at the level of resolution, and scale that we are able to with our platform. And so, this represents an entirely new measurement in the world. And that's pretty exciting to be bringing that kind of resolution, and scale to the world. As Sujal mentioned before, when we've seen these kinds of advances, we saw them with the transition from x-ray diffraction spectra, to actual subject-angstrom crystal structures at scale. We saw them with the transition from bulk to single cell, and then again from single cell to spatial. These increases in resolution have been transformative to biology and that's really what our goal is, that level of transformation.