Thanks, Dan, and welcome to all listening to this update. As noted in the next slide, we all appreciate the fact that selective activation of tumor-specific T cells is central to successful outcomes for cancer immunotherapy. However, there are biological constants that nature has imposed that must be considered when thinking about tumor-specific T cells. One, the frequency of tumor-specific T cells in the patient is extremely low; greater than 99.9% of T cells in the patient have no relevance to Kansas. So how does one go about selectively activating tumor-specific T cells while sparing the broad activation of all other T cells? Another biological constant is the fact that the only unique marker on an antitumor T cell is the tumor-specific T cell receptor or TCR. There are no other cell surface markers that exhibit an absolute fidelity to the anti-tumor T cell repertoire as the tumor-specific TCR. For example, PD-1 expression is a shared phenotypic marker or CD8 expression is a shared lineage market, but neither are unique to an antitumor T cell. Hence, to exploit this unique selectivity, we've developed the Immuno-STAT platform to harness the TCR specificity to activate tumor-specific T cells. We believe, as supported by our clinical data that this approach is differentiated in terms of both safety and efficacy outcomes over other modalities that attempt to activate the immune system in a nonselective manner. The next slide, Slide 6 depicts the core structure of an immuno-STAT molecule derived from our IL-2-based CUE-100 series, which is the major focus of today's presentation. As shown here, the CUE-100 series immuno-STAT harness the TCR selectivity via the stabilized peptide HLA molecule to target an affinity attenuated IL-2 variant selectively to tumor-specific T cells. The co-signaling via the TCR and IL-2 receptors on the right antitumor T cell results in T cell activation and expansion. In contrast, of this molecule encounters the vast majority of irrelevant T cells in the patient that is a greater than 99.9% of irrelevant non-tumor-specific T cells. The attenuated IL-2 on its own is very weak. Hence, with this unique bias, we have created a therapeutic index for IL-2. We have selective focusing on tumor-specific T cells over all other cells. This strategy also forms the mechanistic basis for targeting numerous other activation signals, including other cytokines such as IL-12 IL-15, IL-21, etcetera. Two additional aspects of the CUE-100 series are important to appreciate. While the primary core IL-2 framework is largely conserved between different therapeutic candidates. The primary difference from 1 therapeutic candidate to the next is a 9 to 10 amino acid T cell epitope depicted by the yellow circle in the diagram on the slide. Due to this conserved structure, we believe the clinical proof of concept with our first clinical candidate, CUE-101, has devised the entire platform. This conclusion is supported by the IND approval by the FDA earlier this year for our second clinical candidate, CUE-102, where based on the clinical safety data from CUE-101, we did not need to perform any additional IND-enabling toxicology studies and were allowed to start the CUE-102 trial at 1 mg/kg dose, which is a clinically active dose from our experience with CUE-101. Both CUE-101 and CUE-102 or 99% sequence identical except for the 9 to 10 amino-acid selepitope. CUE-101 targets a T cell epitope from human paplomavirus for HPV-driven cancers, such as head and neck cancer, while CUE-102 targets a T cell epitope from Wim Tumor 1 or WT1, and oncofetal antigen widely expressed by many solid and hematological cancers. The other key aspect of the CUE-100 series Immuno-STATs pertains to their favorable stability and manufacturability metrics as a biologic platform. These are antibody Fc fusion proteins that follow established manufacturability and CMC protocols from many decades of commercial monoclonal antibody production. The shelf stability for the CUE-101 GMP drug product, our first clinical candidate is greater than 36 months, which underscores the robustness of rational protein engineering. Let's move to the next slide, Slide 7. Based on the generation of a therapeutic index for IL-2 by selective targeting of Teva-specific T cells, we believe that the CUE-100 series has the potential to be the best-in-class IL-2 modality for cancer immunotherapy. As shown here, the improved safety and tolerability coupled with the antitumor T cell selectivity possessions the CUE-100 series in a significantly different bracket when compared to all other IL-2 variants that are being pursued, none of which are selected for the tumor-specific T cells. In fact, most of the focus of other IL-2 variants has been on modulating IL-2 receptor interactions with little thought towards antitumor T cell selectivity. This lack of biological relevance will continue to generate suboptimal clinical outcomes as recently evidenced with the clinical data sets from the recent trials from the PEGylated IL-2 and the non-alpha IL-2 modalities. Finally, let's move to Slide 8 that highlights supportive data for biological selectivity and activity of the IL-2-based CUE-100 series. The panel on the left shows selective engagement of the CUE-100 series immunostat with an antigen-specific T cell. These data were generated by the lab of Dr. Michael Dustin at the University of Oxford. Dr. Dustin has been ion in describing the T cell immune synapse that leads to downstream activation and effective function. As shown here, the CUE-100 series immuno-STAT only forms an immunological synapse shown in green with the antigen-specific T cells were in both the TCR and IL-2 signals are operational. The same molecule with an irrelevant T cell as shown in the bottom left panel demonstrates no immune synapse in absence of TCR engagement. The middle plan note shows selective expansion of tumor-specific T cells from primary human blood samples, while no off-target effects are noted with irrelevant T cell specificity. This is exactly in line with the molecular design of the drug that is selective expansion of tumor-specific T cells while sparing all other nonspecific T cells. The panel on the right shows intratumoral infiltration and expansion of tumor-specific T cells in an HPV-driven cancer model in mice. Note that in this study, not many T cells are evident in the vehicle-treated mice or in mice treated with the anti-PD-1 antibody alone. In contrast, a significant number of T cells are present after monotherapy with CUE-100 series Immuno-STAT and this population is further enhanced in combination with anti-PD1 antibody treatment. We believe disability of the CUE-100 series molecules to turn a cold tumor hot by selectively activating the right T cells is a key differentiating feature of our drug design. Similar observations are also evident from the early emerging data from the ongoing mechanistic clinical trial with CUE-101 in a neoadjuvant setting in locally advanced head and neck cancer patients. With that background on our differentiated mechanism for IL-2 targeting, I'd like to now pass the call to Ken Pienta and Matteo Levisetti to share the exciting clinical data from the ongoing trials with head and neck cancer patients with our lead clinical candidate, CUE-101. Ken?