Thanks, Jordan, and thank you to everyone joining today's call. There are a lot of exciting announcements to share today. We will discuss our recent technical breakthroughs that we believe bring the quantum error closer than it has ever been and our compelling commercial momentum that demonstrates how we're working with customers. Let's dive straight in. First, I'm excited to say that we have once again exceeded the high end of our revenue range for the quarter, delivering $11.4 million in recognized revenue, which was well above the range of $7.6 million to $9.2 million for the quarter. We also booked $9 million this quarter and are very confident about meeting our bookings goal for the year. Thomas will discuss our financials in more depth. You have likely heard there is a space race in quantum computing. But what does that really mean? It's a race between different companies, qubit modalities and countries to produce a quantum computer that can outperform classical computing. The technical problem that bedevils the industry is noise or fidelity in its qubits. This noise can come from the qubits themselves, the environment or any hardware like the control electronics that interact with the qubits. Key to the accuracy of a quantum computer is to increase the fidelity of its qubits and their ability to run more computational gates and larger applications. When any company can achieve enough fidelity and run applications in a production environment, significant application revenue can start. With this context, I'm excited to announce that IonQ has achieved a 2 qubit native gate fidelity of 99.9% or three 9's in barium. We chose to move to barium because science suggests it enables higher fidelities than ytterbium. And the better the native gate fidelity, the less error correction in all forms is required. So today's announcement is an important milestone towards even better gate fidelities ahead. To get to better gate fidelity beyond native gate fidelity, other techniques are required. In the past, you've heard us describe quantum error correction, the technique of using additional qubits grouped together to correct each other and produce more reliable results. Error correction is promising, but particularly on non- trapped ion platforms requires a large volume of qubits, think tens, hundreds or even thousands of physical qubits per error-corrected qubit. It also requires many extra gates as overhead, the ratio of which is correlated with the native fidelity of the qubits. So error correction is out of reach for meaningful use in the quantum industry today. Another technique you've heard about from us is error mitigation, which uses software techniques to improve results without generally requiring additional qubits. Error mitigation is commonly used by the quantum computing companies, but poses difficulties for scaling given that it often incurs ever-increasing sampling costs that can lengthen the time to solution. Today, I am thrilled to announce IonQ has invented a new industry-first partial error correction technique for an important class of quantum gates used with many different applications. The technique, which reduces the errors for Clifford gates within circuits, offers the potential to supercharge the accuracy of near-term quantum computers, bringing us much closer to commercial advantage. This Clifford error reduction technique allows for more accurate quantum algorithms, but requires a ratio of only about 3 physical qubits per 1 error reduced qubit and a modest doubling of gates in the algorithms used. We plan to offer this feature in our IonQ Tempo systems. With the combination of hardware and software improvements, we believe that we can extend our achievement of three 9's to production systems in 2025 and bring that to five 9's in 2025 and six 9's in 2026 using error correction. This, along with a combination of much larger numbers of physical qubits and improved gate speeds, gives us more confidence about near-term quantum applications and application revenue for IonQ. For some time now, we have been investigating applications where we can deliver significant value and generate significant revenue. At our next earnings call, we will discuss the first of these application areas. While this has been a tremendous quarter for IonQ's technical development, it has been equally exciting on the commercial side of the business. First, I am delighted to announce that ARLIS, the Applied Research Laboratory for Intelligence and Security selected IonQ to our competitive bidding process to design two quantum networking node systems for blind quantum computing. Blind quantum computing is a process where quantum computers remain blind to what information is being processed through them, and is a key achievement target for the US national security apparatus. In fiscal 2023 and 2024, Congress funded this research for a total of $40 million. The initial phase of the contract is a $5.7 million award for the design of the quantum computers based on IonQ trapped ion processors. We expect to complete this work by the end of this year. In the next phase of the project, ARLIS plans to have two systems built based on the initial IonQ design. We feel confident on our bookings guidance for the year, and we're working on several large additional sales for hardware and otherwise, in addition to the ARLIS agreement. What makes us confident is the strength of our repeat customers and our sales team's focus, including large multiyear deals. Next, we have started final assembly of our first Forte enterprise system at QuantumBasel. And we now have officially begun construction of two more Forte enterprise systems in our Seattle, Washington manufacturing facility. Our investment in our manufacturing is already paying off, now enabling us to build multiple production systems at a time while not tying up significant engineering resources. I am also pleased to announce that we've extended our contracts with AWS to continue to offer our world-class quantum computers via Amazon Braket, the quantum computing service of AWS to developers everywhere who want to leverage the power of quantum computing. Alongside the AWS contract extension, we have launched an exciting new cloud feature set that includes 24/7 global operations, a new and improved queuing engine and exclusive reservation windows. These features make it easier than ever for our customers to benefit from IonQ's cutting-edge quantum computers. In summary, this quarter has been another strong success for IonQ. We have proven that our barium qubit technology can achieve three 9's of fidelity. We have developed an industry-changing partial error correction technique for error reduction that could bring production applications for quantum even sooner. We have factored those advancements into an aggressive new roadmap for our continued leadership in the industry. And we are working with customers like ARLIS and AWS to build the next generation of quantum networking and quantum computing applications. And with that, I'd like to pass the call over to Thomas.