Quantum computing is poised to significantly impact chemistry research, as experts from PNNL and other organizations convene to discuss its potential applications. A recent workshop brought together specialists in quantum computing, chemistry, and industry to explore practical uses and requirements for achieving quantum utility in these fields. The discussions centered on hybrid quantum-classical approaches, AI-assisted quantum algorithm development, and potential use cases for future fault-tolerant quantum computers. To demonstrate meaningful quantum advantage, participants emphasized the need for more than 100 logical qubits, experimentally verifiable applications, and scalable algorithms1. As quantum developments progress, the timeline for cryptographic migration narrows, increasing the urgency for post-quantum cryptography planning. This matters to practitioners because the looming quantum advantage threatens to disrupt current cryptographic systems, making it essential to prioritize quantum-resistant solutions to ensure long-term security.