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The only solution to this conundrum is to sacrifice several qubits to form one large cluster that cooperates to protect the quantum information better. But even the best engineering on top of the best error mitigation strategies will only give you a thousand or so operations before all the quantum “goodness” of your computer is gone. The most jaw-dropping applications for quantum computers require trillions or more operations on qubits.
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Review of the Cirq Quantum Software Framework.IBM Qiskit, Rigetti Forest, Microsoft QDK, Project Q.Other Websites and Industry Associations.Venture Capital – Sorted by Quantum Company.It also contains clean-room fabrication, and necessary materials characterization tools. The Birck facility houses the multi-chamber molecular beam epitaxy system, in which three fabrication chambers are connected under ultra-high vacuum. The work at Purdue will be done in the Birck Nanotechnology Center in the university’s Discovery Park, and well as in the Department of Physics and Astronomy. Manfra’s group has expertise in a technique called molecular beam epitaxy, and this technique will be used to build low dimensional electron systems that form the basis for quantum bits, or qubits.
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Purdue’s role in the project will be to grow and study ultra-pure semiconductors and hybrid systems of semiconductors and superconductors that may form the physical platform upon which a quantum computer is built. Purdue and Microsoft entered into an agreement in April 2016 that extends their collaboration on quantum computing research, effectively establishing “Station Q Purdue,” one of the “Station Q” experimental research sites that work closely with two “Station Q” theory sites. “No one person or group can be expert in all aspects.” “This is why Microsoft has assembled such a diverse set of talented people to tackle this large-scale problem,” Manfra says. Manfra says that the most exciting challenge associated with building a topological quantum computer is that the Microsoft team must simultaneously solve problems of material science, condensed matter physics, electrical engineering and computer architecture. In contrast, the “presumptive” qubit-model of quantum computation, which repairs errors combinatorically, requires a fantastically low initial error rate (about 10^−4) before computation can be stabilized. The chief advantage of anyonic computation would be physical error correction: An error rate scaling like e−αℓ, where ℓ is a length scale, and α is some positive constant. The braiding and fusion of anyonic excitations in quantum Hall electron liquids and 2D-magnets are modeled by modular functors, opening a new possibility for the realization of quantum computers. They underlie the Jones polynomial and arise in Witten-Chern-Simons theory. In mathematical terms, these are unitary topological modular functors. The theory of quantum computation can be constructed from the abstract study of anyonic systems. Michael Manfra, Purdue University’s Bill and Dee O’Brien Chair Professor of Physics and Astronomy, Professor of Materials Engineering and Professor of Electrical and Computer Engineering, will lead the effort at Purdue to build a robust and scalable quantum computer by producing what scientists call a “topological qubit.” (Purdue University photo/Rebecca Wilcox) Purdue is one of four international universities in the collaboration. have signed a five-year agreement to develop a useable quantum computer. “Topological quantum computing utilizes qubits that store information “non-locally” and the outside noise sources have less effect on the qubit, so we expect it to be more robust.” Purdue University and Microsoft Corp. “One of the challenges in quantum computing is that the qubits interact with their environment and lose their quantum information before computations can be completed,” Manfra says. The team assembled by Microsoft will work on a type of quantum computer that is expected to be especially robust against interference from its surroundings, a situation known in quantum computing as “decoherence.” The “scalable topological quantum computer” is theoretically more stable and less error-prone. Michael Manfra, Purdue University’s Bill and Dee O’Brien Chair Professor of Physics and Astronomy, professor of materials engineering and professor of electrical and computer engineering, will lead the effort at Purdue to build a robust and scalable quantum computer by producing what scientists call a “topological qubit.”
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In 2016, Purdue University and Microsoft have signed a five-year agreement to develop a useable quantum computer.
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