Μάθημα : Νανοηλεκτρονική και Κβαντικές Πύλες
Κωδικός : CEID1069
| Γενικοί σύνδεσμοι |
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Q-Kit, a quantum circuit simulator with graphical interface.
Q-Kit or Quantum-Kit is a graphical quantum circuit simulator. Q-Kit enables building and designing quantum circuits, visualizing the effect of quantum gate operations as probability distributions of quantum states or on a Bloch Sphere. It is suitable for both educational and research purposes and is available for free! |
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Chicago Quantum Exchange
We are at a remarkable moment in science and engineering, where Quantum networks may be the building block for secure communications and could eventually form a globe-spanning quantum Internet. |
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D-Wave Launches Free Quantum Cloud Service
Canadian startup D-Wave Systems Inc. is offering a real-time online quantum computing environment called Leap. Leap is the latest addition to the quantum cloud?services that virtualize quantum computing for almost anyone with a computer and a broadband connection to use. D-Wave's latest 2,048-qubit processor has to be kept close to absolute zero to function, and Leap allows anyone to sign up to a D-Wave 2000Q quantum annealer. D-Wave is offering an open-source software development kit (SDK) called Ocean. |
| How to use QUIRK |
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The Quantum Information Software Kit (QISKit)
Use QISKit to create quantum computing programs, compile them, and execute them on one of several backends (online Real quantum processors, and simulators). Documentation & Tutorials |
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Demonstration of entanglement assisted invariance on IBM's quantum experience
Author: Sebastian Deffner Several experiments performed on IBM's Quantum Experience demonstrating envariance ? entanglement assisted invariance. Envariance is a recently discovered symmetry of composite quantum systems, which is at the foundational origin of physics and a quantum phenomenon of pure states. These very easily reproducible and freely accessible experiments on Quantum Experience provide simple tools to study the properties of envariance. |
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Complexity of quantum sampling
Beyond classical computing (quantum computational supremacy) Aim: Perform a quantum computation that cannot be performed classically in any reasonable amount of time. Key issues: -Are quantum computers more powerful than classical computers? -For which computations do the classical and quantum runtimes diverge? -Can we achieve quantum computational supremacy without fault tolerance? |
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Examples from youtube of Shor's algorithm on cryptography
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Advances to IBM Quantum Systems & Ecosystem
-- Client systems with 20 qubits ready for use; next-generation IBM Q system in development with first working 50 qubit processor. |
| Κβαντική Υπολογιστική |
Simulating 49 and 56 qubit circuits using a supercomputer
IBM Simulates a 56-Qubit Machine |
| Learn about IBM Q and Quantum Experience |
| IBM builds its most powerful universal quantum computing processors |
| Experimental comparison of two quantum computing architectures |
| Quantum Volume |
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Why you might trust a quantum computer with secrets, even over the internet
You could buy time on a quantum computer, but you don't want to give away your secrets. What can you do? Blind quantum computing for everyone. Read the paper
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The Quipper Language
Quipper is an embedded, scalable functional programming language for quantum computing.
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Language-Integrated Quantum Operations: LIQUi|>
QuArC (Quantum Architectures and Computation Group, at Microsoft Research) has developed an extensive software platform called LIQUi|>. User's manual, https://msr-quarc.github.io/Liquid/LIQUiD.pdf |
| D wave quantum computer tutorials |
| D Wave quantum computer video |
| ΔΙΑΛΕΞΕΙΣ ΣΕ ΚΒΑΝΤΙΚΟΥΣ ΥΠΟΛΟΓΙΣΤΕΣ |
| Lectures Quantum Computing Nielsen |
| Κατηγορίες συνδέσμων |
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