Thank you, Kevin. In the fourth quarter and in recent months, we are continuing to make significant progress advancing our cardiac catheter and clamp programs. Data generated from our recent studies have continued to validate our expectations that the differentiated benefits of our CellFX platform and proprietary devices that leverage the novel characteristics of nsPFA technology and the CellFX system positions us to be the next-generation standard of care for the treatment of AF as well as other indications. Let me highlight again the important differences between our nanosecond PFA and existing microsecond PFA technologies. The higher amplitude and shorter duration of nsPFA energy pulses are uniquely able to penetrate the cell membrane and alter the function of cellular organs, leading to regulated cell death rather than immediately destroying cells like most other energy modalities, such as standard PFA and thermal modalities like cryo, which uses extreme cold, or radio frequency ablation, which uses extreme heat. NsPFA delivers about 20 times less energy over time to tissue than standard PFA. Because microsecond PFA delivers so much relative overall energy, these devices tend to operate close to the threshold of time-based thermal energy injury. So it is necessary to trade off speed, depth of penetration and the amount of tissue that can be treated at once to ensure safety. Our early data show that the CellFX nsPFA nonthermal mechanism of action can lead to beneficial outcomes in the clinical setting where physicians do not need to trade at efficacy to ensure safety. We are developing CellFX nsPFA cardiac ablation solutions for use in open surgery by cardiothoracic surgeons and for use in the electrophysiology labs by electrophysiologists making us the only company we're aware of developing nanosecond pulse field products for both applications. I will first provide progress on our initial cardiac ablation catheter. The CellFX nsPFA 360-degree catheter. This catheter is named 360-degree because it is uniquely engineered to harness nsPFA energy and to perform a 360-degree circumferential ablation in as few as a single nsPFA cycle within as little as 5 seconds. In our opinion, the large footprint and unique versatility of this catheter provides a highly differentiated and beneficial solution for EPs performing cardiac ablation for the treatment of atrial fibrillation. As Kevin noted, we are pleased to report that we are currently validating the use of the system and its unique capabilities in our ongoing first-in-human feasibility study. In December, we began enrolling patients in this study and as of today, we have treated 19 patients of 30 potential patients that the protocol is currently approved for. And at present time, we are encouraged with the performance of the device and the safety profile that is emerging as we treat and follow these patients. Dr. Vivek Reddy, one of the PIs in this study reported some of the initial data during a presentation in February at the 29th Annual AF Symposium 2024 meeting in Boston. Dr. Reddy presented a video recorded procedure from one of the initial 5 procedures to the audience at the AF Symposium meeting. A clip from Dr. Reddy's presentation can be viewed on the Pulse Biosciences home page. The study protocol includes an EP remapping procedure to evaluate the durability of the ablations as compared to the acute map performed at the time of the procedure. And we recently reported on the positive results from the first 4 patients that have had these remaps. We are looking forward to the presentation of updated data from this study at the prestigious Heart Rhythm Society meeting in Boston in May. The results from this study will inform subsequent trials. In parallel with completing enrollment of our feasibility study, we are also planning future trials in Europe for the CE Mark and in the U.S. for FDA approval. We will provide details of these studies on a timely basis. We believe the strength of our results is attributable to our novel catheter design and the highly differentiated properties of nsPFA. The benefit of our circumferential treatments is that EPs don't need to repeatedly reposition and retreat to connect the dots like they do with other PFA and thermal technologies. In our opinion, the greater depth of our electric field creates reliable transmural lesions, even in thick tissue, further differentiating Pulse Biosciences cardiac catheter products in regard to patient therapeutic value and surgeon ease of use. The clinicians performing the procedures have been impressed with the maneuverability and versatility of the catheter. They have been able to treat the atrial wall in addition to the pulmonary veins. The fact that they are able to use our catheter to map the atrium has reduced patient procedure time and improve surgeon ease of use. The all-in-one nature of the catheter is an additional differentiating feature that resonates well among the EP community. We intend and believe this procedure will be easier to perform with significantly reduced procedure times, all of which will improve patient safety and overall therapeutic efficacy. As we have described previously, our 360-degree catheter is engineered to integrate with current mapping and navigation systems used in EP Labs. The initial first-in-human procedures have validated this capability, and we are continuing to explore the use of these and other systems to demonstrate our system flexibility. We are working with approximately 90% of the installed base for mapping and navigation systems. Aside from the initial system, we used -- we have also used the Carto system from J&J, and we are planning to also use the EnSite system from Abbott. Going forward, we continue to evaluate multiple possibilities, and we'll do what is best for patients and physicians. The awareness of nsPFA continues to grow as presentations by our lead investigator, Dr. Vivek Reddy, are garnering significant interest from the clinical community. Four abstracts were accepted on our catheter technology for the Heart Rhythm Society 2024 meeting in Boston, May 16 through the 19. We're pleased to see the acceptance of our proprietary design and engineered CellFX nsPFA energy delivery system and for our partners to be given the opportunity to present data from preclinical and clinical studies using our novel devices at this important scientific meeting. Now I will provide an update on our novel proprietary cardiac surgical plan. We believe our CellFX nsPFA surgical clamp has the potential to significantly change the way cardiac surgical ablation is done in cardiac surgery. Our preclinical data demonstrates the potential for the clamp to improve safety, effectiveness ease of use and treatment speed. The data demonstrate that nsPFA clamp can produce continuous transmural durable lesions in 1.25 seconds independent of tissue thickness or type as compared to 15 to 30 seconds for thermal ablation modalities, which are highly dependent on tissue thickness, type and vasculature. And due to the nonthermal mechanism of action, the CellFX nsPFA clamp has no risk of thermal damage to collateral tissue, which is a known risk with current thermal technologies. Importantly, shorter treatment times could eliminate the need for on-pump treatments, making it a much more acceptable procedure for cardiac surgeons. The CellFX nsPFA clamp is designed in a familiar form factor to what is currently being used by cardiac surgeons using radio frequency ablation. And we expect this familiarity will enable a seamless transition from current radiofrequency ablation devices to our CellFX nsPFA clamp. We are currently planning our first in-human feasibility clinical study for the CellFX nsPFA surgical clamp and expect to enroll our first trial patients in the middle of the year. Preclinical data on the CellFX nsPFA clamp will be presented at 2 important upcoming scientific meetings. Two abstracts have been accepted for presentation at the American Academy of Thoracic Surgeons 104th Annual Meeting in Toronto, April 27 through the 30. The data for one of the abstracts generated by Pulse Biosciences will be presented by Dr. Gan Dunnington, our Chief Medical Officer, Cardiac Surgery, and the other by the Cardiothoracic Surgery Research team at Washington University, a research partner of ours, led by Dr. Ralph Damiano, 2 abstracts have also been accepted to the Heart Rhythm Society 2024 meeting in Boston, both presented by Pulse Biosciences. On the regulatory front, we submitted a 510(k) for the CellFX nsPFA clamp at the end of December. We recently received an additional information letter from the FDA regarding the submission and had an initial meeting to discuss the letter with the FDA. The meeting was productive, and we expect a follow-up meeting with the FDA to discuss whether additional data will be required. At this point in time, we remain in the 510(k) process and look forward to working through the regulatory process with the FDA in a collaborative manner. The performance of both our cardiac ablation clamp and catheter have strengthened our confidence that our proprietary design and engineered CellFX nsPFA energy delivery system is the next generation in PFA technology with the potential to transform the treatment of atrial fibrillation and as Mitch will describe, we believe the CellFX platform has the potential to transform general surgical ablation via the use of our recently cleared percutaneous electrode. Mitch?