Thank you, Kevin. We are making significant progress advancing our feasibility and preclinical studies for cardiac ablation clamp and catheter programs. Our progress is garnering the attention of KOLs who are actively reaching out to participate in our CellFX nsPFA studies. We are excited to leverage this shared interest to continue our momentum into the clinic and view this external interest as a testament to the immense potential of CellFX nsPFA and future cardiac ablation market adoption. As a reminder, our core technology, Nanosecond Pulsed Field Ablation, integrated into our CellFX platform, is fundamentally different from standard PFA. We believe CellFX nsPFA can deliver safer and more effective ablation of cardiac tissue. CellFX controls the delivery of nanosecond duration pulses of electrical energy, that's pulse durations under 1 millionth of a second, to nonthermally cause cells to go through a natural regulated cell death process. The CellFX nsPFA energy pulses are uniquely able to penetrate the cell membrane and alter the function of cell organals, leading to regulated cell death rather than immediately destroying cells, like other energy modalities, such as standard PFA, cryo, which uses extreme cold, or radio frequency ablation, which uses extreme heat. The penetration alters does not destroy internal cellular function while sparing noncellular tissue and leading to a more elegant, precise regulated cell death. This differs from current microsecond ablation technologies where physicians may use suboptimal parameters to protect surrounding cellular tissues, and as a result, sacrifice efficacy for safety. Our early data shows that the CellFX nsPFA nonthermal mechanism of action, as opposed to thermal, can lead to beneficial outcomes in the clinical setting where physicians do not need to trade safety for efficacy. An additional benefit of the CellFX nsPFA mechanism of action is that it requires significantly less energy per unit volume to ablate cardiac tissue, sometimes up to 10x less when compared to microsecond pulses or thermal modalities, because CellFX nsPFA generally needs less energy per pulse to ablate tissue, we deliver our treatments through electrodes that have a larger footprint, better treatment coverage, enabling faster, more efficient therapeutic resolution. Due to the patient value for time sensitivity in surgery, particularly in cases where the patient is under general anesthesia, reducing even seconds of treatment time can greatly reduce the risk for a patient during and post procedure. In present time, we believe our preclinical studies and accelerating first-in-human surgical procedures indicate Pulse Biosciences' CellFX nsPFA devices provide a new and higher standard of safety and efficacy. Our competitive advantage is protected by 148 issued patents globally and 103 pending patent applications worldwide with more on the way each quarter. In the lab, we consistently see the clear advantages in our CellFX nsPFA cardiac ablation plant compared to other energy modalities, as evident by a consistency in achieving transmural ablations in 1.25 seconds, independent of tissue type or thickness, which is roughly a 20th of the time it takes for radiofrequency ablation. The results from our preclinical work support our hypothesis that CellFX nsPFA ablation can produce highly differentiated and market-leading safety and efficacy compared to traditional thermal modalities, including cryosurgery and radiofrequency ablation. In addition to the speed and consistency of the ablations created by our CellFX nsPFA cardiac clamp, the preclinical data to date supports our intention that CellFX nsPFA has safety benefits over the extreme heat or cold of thermal modalities due to its nonthermal mechanism of action and the lack of any concern regarding thermal spread that could lead to damage of collateral tissue, which is a concern and has been reported with thermal modalities. With the preclinical data we've generated to date, we retain our belief that the CellFX nsPFA cardiac clamp provides a significant improvement over current thermal modalities and tracks with our expectations to file a 510(k) submission to the FDA by the end of the first quarter of 2024. Dr. Niv Ad, who joined our team in late October, is bolstering our development and clinical programs by bringing many years of experience in the surgical treatment of atrial fibrillation and minimally invasive heart surgery to the Pulse Biosciences team. To date, he's published over 200 peer-reviewed research articles, all while being responsible for in excess of 3,000 minimally invasive cardiac surgical procedures, and we are grateful he has agreed to join our team and to apply his experience and expertise as we move towards the clinic and look to drive adoption of CellFX nsPFA technology in cardiac surgery clinics. Specifically, his academic expertise will play a large role in our future trials focused on optimizing study design and parameters. Dr. Niv Ad's background is extremely complementary to that of Dr. Gan Dunnington, our Chief Medical Officer of Cardiac Surgery, and his innovative approach in the clinical setting. We are very fortunate to have two of the preeminent surgeons in the field on our team as we advance our product development and clinical studies. Now on to the progress we have made on our CellFX nsPFA cardiac ablation catheter. This past quarter, we achieved and accelerated key internal milestones on the path to first-in-human studies, completing important preclinical safety and performance studies, as well as the required testing of the CellFX system and circumferential catheter. As a reminder, we designed our catheter to create a precisely focused circumstantial ablation targeted for pulmonary vein isolation in a single 5-second application with CellFX nsPFA, without the need for repeated repositioning and treating, which can be required with other technologies. We believe this capability will lead to a procedure that is easier to perform with significantly reduced procedure times. In September, Dr. Usman Siddiqui detailed the benefits of our CellFX nsPFA circumferential catheter, at the Global EP Summit 2023 in Cleveland, Ohio. The presentation outlined the differentiated nature of our circumvential catheter, including performing consistent circumferential ablation of targeted pulmonary veins in a single application in approximately 5 seconds with CellFX nsPFA. We look forward to our first in-human feasibility study with our novel CellFX nsPFA circumstantial catheter integrated with a navigation and mapping visualization system. With the preclinical studies and other testing close to completion and the required regulatory approvals in process, we remain confident that this important milestone will occur by the end of the first quarter 2024. As a final point, it's important to note that while our cardiac clamp and cardiac catheter both represent significant product opportunities in surgery and electrophysiology, respectively, they also represent a validation of CellFX nsPFA in cardiac ablation, and we believe will be the first of a portfolio of CellFX nsPFA devices in cardiac ablation as we deliver on our goals to provide comprehensive solutions for the treatment of AF and significantly improve the lives of patients. I'll now turn to Mitch to outline the additional validation we received recently regarding our continuous work to understand the applications of CellFX nsPFA across the human body. Mitch?