Thanks, Dan. I'd like to start with a broad perspective on our platform and evolving pipeline, which should also provide a helpful context to the important clinical metrics, emerging from our current trial with CUE-101. To remind everyone, Slide 7, shows you the overall molecular structure of our IL-2 based CUE-100 series. The CUE-100 series was designed with a key focus on the objective that the IL-2 activating signal was selectively delivered to tumor specific CDA T cells. The presence of bivalent tumor peptide HLA loaded molecules, which is Signal 1, as shown here, allows for selective targeting of tumor specific T cells. This molecular scaffold is designed to potentially minimize systemic activation of non-tumor related T cells, which constitute the vast majority of the T cell repertoire in an individual. The four IL-2 molecules are conserved within the CUE-100 series, and have two key modifications. One, abrogates binding to IL-2 receptor alpha, which avoids the bias towards regulatory T cells or Tregs, and minimize the safety liabilities. And the second attenuates binding to IL-2 receptor beta, which favors activity towards TCR engaged anti-tumor T cells. As shown previously, and will be highlighted later in today's presentation of the clinical data, we have observed CUE-101 selectively activating tumor specific T cells. We believe this exemplifies the power and potential of targeted versus systemic approaches for cytokines, such as IL-2 for cancer immunotherapy. In addition, a key strength of the Immuno-STAT platform is its versatility and modularity, with respect to swapping different tumor derived T cell epitopes to change the indication of interest. As an example, CUE-101 targets HPV E7-specific T cells, while CUE-102, our next clinical candidate for which we anticipate filing IND in the first-half of 2022 targets Wilms' Tumor 1, as mentioned by Dan earlier. The majority of the molecular framework including the IL-2 molecules are identical between CUE-101 CUE-102. The next slide, Slide 8, provides a more holistic view on the clinical experience of CUE-101, and its impact on various pipeline and platform enhancements. We believe that the encouraging metrics with CUE-101 with respect to tolerability, favorable PK and exposure and PD data, and now tumor response clinical data support multiple therapeutic opportunities, as shown here. First, as mentioned before, it is our belief that the Immuno-STAT pipeline assets, including CUE-102 targeting Wilms' Tumor 1 and the KRASG12 valine molecules have a reduced risk profile due to clinical observations of CUE-101. Second, we also believe that the Neo-STAT platform, which is a derivative of the IL-2 based CUE-100 series, and as designed to address tumor heterogeneity, also directly benefits from the CUE-101 clinical data. To remind you the Neo-STAT platform allows us to generate the core generic scaffold of the IL-2 based CUE-101 series without a tumor peptide, that is an empty stabilized HLA molecule to which the desirable tumor epitopes can be efficiently conjugated. This strategy allows us to target multiple tumor antigens, maximizing time and cost efficiencies. From a clinical application perspective, we believe the current clinical data sets with CUE-101 provides strong support for Neo-STAT since the core IL-2 molecules and HLA allele remain the same. Third, we also believe that the development of the Bi-specific redirected Immuno-STAT or RDI-STATs designed to address tumor escape mechanisms of HLA loss, or antigen presentation defects also derive benefit from CUE-101, since the core IL-2 framework is essentially the same. We have evolved the RDI-STATs based on two key observations. One, a significant fraction of human cancers up to 30% in some cases, will undergo loss of HLA molecules and antigen presentation defects, which makes them essentially invisible to tumor specific T cells. And two, observations from cellular analysis of human cancer tissues have revealed a significant presence of virus specific memory CDA T cells in the tumor tissue. To that end, the Bi-specific RDI-STATs contain the two key components, viral T cell epitopes to engage anti-viral T cells, along with a tumor targeting arm that allows for binding to a tumor cell surface antigen, such as a Trop2 to mesothelin, HER2 et cetera. In this manner, the cancer cell bound to RDI-STAT appears as a virally infected cell, which can be recognized and killed by the anti-viral T cells in the patient. We believe this approach may provide several unique advantages from a mechanistic efficacy and safety perspective. The novel Bi-specific format of RDI-STAT is very distinct from other Bi-specific molecules that indiscriminately activate T cells resulting in systemic cytokine release and toxicities. Last week, at the New York Academy of Sciences Frontiers in Cancer Immunotherapy meeting, we presented early data indicating that RDI-STAT exhibited equivalent killing of target cells, compared to CD3 Bi-specific molecules, while avoiding systemic activation and cytokine secretion. For autoimmune and inflammatory diseases, we have exploited the same IL-2 variant from CUE-101 design a novel first and class molecule for induction and expansion of regulatory T cells. As shown here, this molecule CUE-401 contains the two key signals an IL-2 variant and a TGF beta variant for induced Treg or iTreg differentiation. Importantly, and in contrast to other approaches, focus on expansion of natural Tregs the IL-2 variant is not biased towards IL-2 receptor alpha. We have previously presented data indicating that an in vitro assays CUE-401 can induce and expand regulatory T cells derived from healthy human subjects, and from patients suffering from rheumatoid arthritis and inflammatory bowel diseases. More importantly, these T cells exhibited suppression of effector T cells in vitro assays. More recently, we've generated additional data in Vivo Animal Models that support the mechanism of action of CUE-401 in inducing an expanding Tregs, and the persistence and in vivo activity. We will plan on sharing additional details of these exciting datasets in a future scientific forum. In summary, the following slide, Slide 9, outlines our broad vision on the autoimmune front. Our core strategy here has centered on two key approaches, antigen-specific and pathway-specific. The antigen-specific approach deploys Immuno-STATs to modulate auto reactive T cells in diseases with well-characterized or few auto antigens, such as Type 1 diabetes. In contrast, the pathway-specific approach, as exemplified by CUE-401 in the previous slide, is focused on induction and expansion of regulatory T cells, and additional tolerogenic pathways for broad applications. We've been collaborating with Merck on the antigen-specific approach focused on two autoimmune diseases, and have made significant progress, which underscored the extension of our relationship last year to focus on optimizing potential lead clinical candidate molecules. Earlier this year, we presented a progress update on these efforts via a presentation at the antigen-specific tolerance meeting. Those data slides are available on our website. And as discussed in the previous slide, for the pathway-specific approach, we continue to make strong progress with our lead CUE-401 asset for generation and expansion of regulatory T cells directly in the patient's body. We believe CUE-401 provides a unique opportunity to reset immune balance for numerous autoimmune diseases, graft versus host disease and even transplant rejection. With that summary, I'd like to pass the call to Ken and Matteo to provide a clinical update on CUE-101. Ken?