The scientists from Trinity and IBM Dublin College have achieved a significant breakthrough in the field of quantum physics by successfully simulating the process of superdiffusion on a quantum computer. This discovery marks one of the initial outcomes of the joint TCD-IBM workshop scholarship program.
About the TCD-IBM Program
The TCD-IBM program aims to foster collaboration in the industrial sector of Ireland and the wider EU by combining research efforts to accelerate the discovery of new materials. The scientific groups from Trinity College Dublin (TCD) and IBM are actively exploring the development of innovative materials using cutting-edge techniques such as robotic laboratories and cloud-based laboratories. The potential applications of these materials span numerous fields, including ecology, energy, and polymer sciences.
Advancements in Quantum Simulation
A collaborative study conducted by Trinity and IBM Dublin focuses on quantum simulation. Professor John Gwold, the director of Trinity Quantum Alliance, highlights the challenges of simulating complex quantum systems using conventional computers. The study primarily involved modeling spin chains, which contribute to the understanding of magnetism. In the course of their work, the researchers discovered a superdiffusion phenomenon, commonly associated with the growth of snowflakes during snowfall.
Programming and Achievements
Nathan Kinan, a scientist from IBM-Trinity, sheds light on the difficulties encountered during the programming of quantum computers. Juan Bernabe-Morino, the IBM Director in the UK and Ireland, expresses his delight with the collaboration’s results and the partnership with Trinity College Dublin.
Embracing a New Era
Trinity College Dublin remains at the forefront of scientific advancements, forging new pathways in the field of quantum simulation. The partnership between IBM and Trinity College signifies the growing potential of quantum calculations, paving the way for future technological marvels. The research findings have been published in the journal NPJ Quantum Information (