Recently, a research team at the University of Texas in the United States has successfully developed a quantum computing material that can operate stably at room temperature, exhibiting magnetic strength 100 times greater than pure iron. This groundbreaking achievement overcomes the reliance on ultra-low temperature environments, paving the way for the widespread adoption of quantum computing. Additionally, it has the potential to alleviate future material supply shortages, bringing profound changes to the field of quantum computing. The related research, titled "Room temperature colossal superparamagnetic order in aminoferrocene–graphene molecular magnets," was published in the "Applied Physics Letters" [1]. While quantum computing technology holds the potential to solve complex problems at unprecedented speeds, it has long been hindered by a significant limitation – the need to operate at temperatures below zero degrees.