Quantum Approximate Optimisation Algorithm for Protein Folding
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Perustieteiden korkeakoulu |
Bachelor's thesis
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Date
2024-09-06
Department
Major/Subject
Quantum Technology
Mcode
SCI3103
Degree programme
Aalto Bachelor’s Programme in Science and Technology
Language
en
Pages
25+4
Series
Abstract
Quantum Approximate Optimisation Algorithm (QAOA) has gained significant attention in the field of quantum computing. As a noisy intermediate-scale quantum (NISQ) algorithm, it has demonstrated considerable potential due to its scalability and customisability. Protein folding has persisted as one of the foremost challenges in biochemistry for the past half century. The complexity of this problem has attracted significant interest from computer scientists. The release of AlphaFold, an advanced machine learning-based model by DeepMind, provided concrete evidence that such complex problems can indeed be addressed through computational algorithms. In principle, quantum algorithms are well-suited for addressing complex problems, and numerous proof-of-principle papers addressing protein folding emerged following the advent of QAOA. This thesis extensively presents QAOA by identifying its key characteristics, as well as the construction of protein folding in terms of QAOA. The algorithm is then demonstrated and tested on small MaxCut instances.Description
Supervisor
Raasakka, MattiThesis advisor
Ylinen, LauriKeywords
protein folding, QAOA, variational quantum algorithms, near term quantum computers, applications of quantum computing, NISQ