Thanks, Matteo. Let me take a few minutes to update on the notable progress with our platform for autoimmune diseases, starting with CUE-401 and regulatory T cells as indicated on slide 20. Slide 21 describes the design and rationale for CUE-401 as an attractive approach to generate a new and differentiated class of regulatory T cells, or Tregs. As mentioned previously, CUE-401 is a bispecific molecule containing attenuated forms of IL-2 and TGF-beta, which are the two known signals that can convert peripheral T cells into regulatory T cells, also known as induced Tregs or ITregs. In addition, CUE-401 also strongly expands existing natural Tregs. This program has been a very productive collaboration with Ono Pharmaceuticals, wherein Ono is supporting all of our ongoing preclinical work to identify an optimized clinical lead compound, which we are on track to accomplish in the second half of 2024. The next slide, slide 22, highlights the unique and differentiated mechanism of action of CUE-401 over other CD25-biased IL-2 muteins for expansion of existing Tregs. As shown here, CUE-401 can expand pre-existing regulatory T cells and convert naive CD4-positive T cells into new Tregs, thereby enhancing the quantitative population and the qualitative features of Tregs to control the pathogenic cellular reactions in autoimmune patients. Slide 23 provides examples of the potent activity of CUE-401 in the conversion and generation of stable Treg cells. As shown on the left panel, conversion and expansion of human CD4 T cells to Tregs only occurs when the IL-2 and TGF-beta signals are delivered via CUE-401. Either signal alone does not result in Treg conversion, and CUE-401 represents the first singular biologic capable of delivering both signals simultaneously. In the right panel is an in-vivo study demonstrating efficacy of CUE-401 in an animal model of autoimmune gastritis. This is a model developed by Dr. Rich DiPaolo at Saint Louis University, wherein a short treatment with CUE-401 results in a long-lasting protection from gastritis, as shown by the histopathological analysis and disease scores. We believe this mechanism of action of CUE-401, including the demonstration of long-lasting efficacy after just a short duration of treatment, will apply to many other autoimmune diseases. Let's move on to slide 24 that introduces a new series of Immuno-STATs, termed the CUE-500 series that we have developed with the goal of achieving deep B cell depletion via T cell mediated approach. As shown in the next slide, slide 25, recent data sets from small clinical studies have demonstrated remarkable efficacy in autoimmune patients treated with CAR-T cell directed against CE-19 to deplete B cells. In many cases, long-term ongoing clinical remissions have been noted in patients with lupus and myositis with no concurrent immunosuppressive regimens, which could be early signals of functional cures. This curative potential via immune reset is what propelled us to start working on the CUE-500 series, which enables T cell mediated B cell killing, akin to what CAR-Ts do, except with an off-the-shelf biologic. This concept is best shown on the next slide, slide 26. The CUE-500 series builds upon the clinical de-risking accomplished with the CUE-100 series. The constant is the presence of a bivalent peptide HLA molecule that selectively engages TCRs of selected T cells. In the case of the CUE-500 series, the peptide presented by the HLA is a well-characterized virus epitope recognized by virus-specific memory T cells present in high frequencies in all of us. Examples of such virus epitopes, which include CMV, EVV, SARS-CoV-2, etcetera. In addition, the CUE-500 molecule also contains SCFEs directed against B cell cell surface molecules such as CD-19. This configuration allows for CUE-500 molecules to bind target B cells and make them appear as virally infected cells that can be recognized and destroyed by a protective antiviral memory T cell repertoire. This novel mechanism of action is depicted in the left panel on the next slide, slide 27. This mechanism of natural target recognition via TCRs is of similar sensitivity, if not higher compared to how a CAR-T cell recognizes its target via the CAR domain. On the right side of the slide is an example of a CUE-500 molecule enabling cytomegalovirus-specific T cells CMV T cells, to kill primary human B cells. It is well known that CMV-specific T cells are a significant composition of the protective antiviral T cell repertoire and are present in large fraction of the population. As shown here, B cell killing is specific to the engagement of CMV-specific T cells. In other words, a CUE-500 molecule harboring an HIV peptide does not mediate B cell killing since the HIV-specific T cells are not present in circulation. The selective harnessing and redirection of the protective antiviral T cells to kill targets creates a very attractive opportunity for CUE-500 series Immuno-STATs. This is particularly exemplified in the next slide, slide 28, which highlights the market opportunity for a broad therapeutic pipeline with a single product. The therapeutic applications span from multiple autoimmune diseases where pathogenic B cells play a role to additional applications in transplantation and allergic inflammation. The CUE-500 series could also be effectively applied for the treatment of B cell malignancies in the oncology therapeutic area. The next slide, slide 29, briefly summarizes the superior differentiation of the mechanism of action of CUE-500 over other competing modalities for B cell depletion, including ADCC, CAR-T, cellular therapy, and Pan-T cell engagers. We now recognize that ADCC mechanisms result in incomplete depletion of B cells, primarily due to variable expression of the target antigen, such as CD-19. Low target expression allows for escape of B cells from ADCC, primarily mediated by NK cells. Furthermore, FC receptor polymorphisms dictate high versus low ADCC effector genotypes. In the case of CAR-T approaches, complex manufacturing and supply chains remain a challenge for broad access. In addition, patient conditioning regimens, inpatient administration, and safety risks, including CRS and neurotoxicity, continue to pose challenges for CAR-T therapies. Pan-T cell engages that activate T cells via anti-CD3 or anti-CD28 cross-linking are also not favorable for autoimmune applications. These modalities activate all T cells indiscriminately, resulting in CRS and other toxicities, hence are unsuitable for autoimmune patients. In addition, they pose the very real threat of further activating and propagating autoreactive T cells that may exacerbate the underlying autoimmune disease. In contrast to these modalities, the CUE-500 series offers an elegant potential solution for selectively exploiting the long-lasting antiviral memory T cells to drive B cell depletion. This off-the-shelf approach, therefore, offers the potential to achieve CAR-T-like efficacy while avoiding the pitfalls associated with cell therapy modalities. With that overview of both CUE-401 and CUE-500 and their applications in autoimmune disorders, I'll turn the call to Kerri to review the financial details. Kerri?