Non-technical Abstract: Quantum computing is making rapid progress toward the goal of a fault tolerant computer. This advance can be attributed to the breakthroughs in gate fidelities and coherence times, placing quantum computation on the threshold of practicality. However, all qubits are subject to loss of information and remediating that loss is the key to advancing this goal, where the error correction threshold has been exceeded, environmental effects have been mitigated, and errors do not spread. Moreover, the supply of a skilled quantum workforce is falling behind demand, and projections suggest that this deficit needs tobe addressed. The University of Rhode Island (URI) and the Pittsburgh Quantum Institute (a collaboration among University of Pittsburgh, Carnegie Mellon University and Duquesne University) are collaborating to improve the robustness of qubits, while also addressing the need for quantum workforce development. Technical Abstract: A current leading contender for quantum computing is the superconducting qubit. “Parasitic” two-level-system (TLS) defects, which limit coherence times of superconducting qubits, are among the main hurdles in the quest for fault tolerance. A fuller understanding of the mechanisms that couple the TLS to the qubit and the resulting coupling of TLS to the environment could result in a mitigation of the decoherence. There is also significant knowledge to be gained from the understanding of TLS in amorphous materials. The methodo