Q sharp

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1. The Quantum Development Kit ships with a quantum simulator which is capable of running Q#.
2. A primary feature of Q# is the ability to create and use qubits for algorithms.
3. The hardware stack that will eventually come together with Q# is expected to implement Qubits as topological qubits.
4. Currently, the resources available for Q# are scarce, but the official documentation is published: Microsoft Developer Network: Q#.
5. It’s part of the Quantum Development Kit (QDK), which includes Q# libraries, quantum simulators, extensions for other programming environments, and API documentation.
6. In addition to the Standard Q# library, the QDK includes Chemistry, Machine Learning, and Numeric libraries.
7. As a programming language, Q# draws familiar elements from Python, C#, and F# and supports a basic procedural model for writing programs with loops, if/then statements, and common data types.
8. The QDK is a full-featured development kit for Q# that you can use with common tools and languages to develop quantum applications that you can run in various environments.
9. For more background about the foundations and motivation behind Q#, see Why do we need Q#?.
10. What these operations actually do is only made concrete by the target machine we use to run the particular Q# program.
11. A Q# program recombines these operations as defined by a target machine to create new, higher-level operations to express quantum computation.
12. In this way, Q# makes it easy to express the logic underlying quantum and hybrid quantum–classical algorithms, while also being general with respect to the structure of a target machine or simulator.
13. Use the Quantum Development Kit (QDK) and Q#, a language for quantum programming, to write your first quantum program.
14. Q# is a bit like C#, but it’s still very different.
15. I can’t say I’ve mastered Q#, but I did spend a few hours reading about the differences so at least I can comfortably say I’m at a pre-sales level of knowledge now!
16. You can run your Q# code in multiple ways.
17. The easiest is in Visual Studio using a mix of Q# and C# project, where Q# is the logic, and C# is the driver for calling that logic.
18. You can also run Q# programs online using Codespaces, MyBinder.org, or Docker.
19. The workflows for each of these setups are described and compared in Ways to run a Q# program.
20. The Quantum Development Kit is an open-source development kit that you can install on your laptop or other classical computers to simulate the computation of Q# programs on a small number of qubits.
21. You can also run Q# code in web hosted Jupyter Notebooks or with GitHub Codespaces without installing anything on your computer.
22. You do need an Azure subscription, however, to run Q# programs on quantum hardware with Azure Quantum.
23. Each sample is self-contained in a folder, and demonstrates how to use Q# to develop quantum applications.
24. : These samples show how to diagnose and test Q# applications.
25. Error Correction : These samples show how to work with quantum error correcting codes in Q# programs.
26. : These samples show how to work with quantum error correcting codes in Q# programs.
27. Please go to our GitHub repository to provide feedback on the Q# compiler and language extensions, or to learn more about where to give feedback on other parts of the Quantum Development Kit.
28. The company announced today that it is open-sourcing its Quantum Development Kit, including its Q# compilers and simulators, this summer on GitHub.
29. Microsoft’s programming language for quantum computing, Q#, features a native-type system for qubits, operators, and other abstractions.
30. The Quantum Development Kit includes the Q# programming language and compiler, the Q# library, a local quantum machine simulator, a quantum computer trace simulator, and a resource estimator.
31. More specifically, Microsoft expects the move will provide Microsoft Quantum Network affiliates and startup organizations with more opportunities to leverage Q#.
32. Microsoft open-sourced its Quantum Development Kit and Q# compilers and simulators for developers this summer.
33. Every day, one community member wrote a blog post about or using Q#, the quantum development SDK by Microsoft.
34. And thank you to Microsoft Quantum and team for letting me participate with my post on Quantum teleportation with Q#!
35. Here, I’ll cover what quantum teleportation is, the steps to teleport quantum information, and show you how to write this in Q#, Microsoft’s Quantum Software Development Kit (SDK).
36. Along the way, I’ll introduce the quantum concepts along with the Q# code.
37. Microsoft's Quantum Development Kit is open source and based on the Q# language.
38. A host application (written in Python or a .NET language) that runs quantum operations written in Q#.
39. To assist developers learn Q# programming, Microsoft has developed a series of self-paced tutorials called Quantum Katas.
40. At its Build 2019 conference, Microsoft has announced it will open-source parts of its Quantum Developer Kit, including the Q# compiler and quantum simulators, this summer on GitHub.
41. Microsoft today launched a preview version of a new programming language for quantum computing called Q#.
42. You can install Q# for C#, Q# for Python, and/or Q# for Jupyter Notebooks on Windows, Linux, and macOS.
43. When you run Q# on your own computer, you’ll have to use a quantum simulator.
44. yeah I have a book with Dr Chris Grenade coming out called Learn Quantum Computing with Python and Q#.
45. It says Q# right?
46. So, there's a new language Q# as you mentioned, which is really a domain specific programming language for quantum computers.
47. And so, I can literally switch from doing C# to Q# to Python, all in the same kind of experience.
48. Among them, an open-source quantum development kit (QDK) provides a basis for researchers to develop new algorithms with Q#, a quantum-focused programming language.
49. QDK's GitHub repository also includes open-source Q# libraries and samples that can be used to build quantum computing applications.
50. "Quantum computing research is enabled in Azure Quantum by a rich set of tools ranging from the QDK and the Q# programming language for quantum," said Love.
51. Early trials of Azure Quantum also saw Microsoft collaborating with materials science company Dow to build a quantum representation of a chemistry problem using the Q# language.
52. Mirroring Microsoft's developer-centric ambitions up and down the stack for classical systems, the Microsoft-developed Q# and QML are the cornerstone of their quantum strategy.
53. Foremost among the offerings for developers is Q#, and the Quantum Development Kit (QDK), which can be tested on simulators as well as a variety of quantum hardware.
54. Microsoft’s quantum programming language, Q#, side-steps that problem by offering simple access to the tools needed to begin programming.
55. That means making Q# as familiar and approachable as possible, even while scientists continue to make breakthroughs in the fundamentals of how quantum computers work.
56. Q# isn’t tucked away behind a wall of terrible documentation and poorly explained installers.
57. Firing up Q# isn’t different from those well-known tasks.
58. QIR supports Microsoft’s open source Q# language for developing quantum algorithms but is not specific to Q#.
59. Microsoft has made the draft QIR specification available in the new Q# language repository on GitHub.
60. The company has also rolled out a compiler extension that generates QIR from Q#; it can be found in the feature/QIR branch of the Q# compiler repository.
61. Case study: using the QDK in an undergraduate course “Introduction to quantum computing and quantum programming in Q#” taught by Microsoft Quantum team at the University of Washington.
62. However, for the best experience we recommend to install QDK locally following the installation guide for developing Q# projects and the installation guide for Q# Jupyter Notebooks.
63. At Build 2018 today, Microsoft today announced that it will soon open source its Q# compiler and the quantum simulators that are part of the Quantum Development Kit.
64. It also will give academic institutions that require OSS the ability to leverage Q# for their quantum development.
65. Where to get Q# from?
66. As you might have guessed Q# pronounced Q sharp gets it name from another language that originated from Microsoft and that is c#, but there are other languages too in the same vain such as F#.
67. It’s less fully featured then Visual Studio but also easier to handle and we want to focus on getting you running with Q# as quickly as possible.
68. You can now see we have simulated some quantum events using Q#.
69. Microsoft has previously announced some elements of its strategy, including its Q# programming language and Quantum Development Kit, but today Nadella put all the pieces together.
70. Nadella said Azure Quantum will offer “a complete toolkit” of open-source software including Microsoft’s Q# and QDK, as well as 1QBit’s software platform and services.
71. Microsoft has created a new quantum computing programming language called Q#, that allows software developers to build quantum apps.
72. Q# applications can be built using Microsoft’s popular developer IDE, Visual Studio by launching a Quantum Computer Emulator.
73. If you’re new to Q#, check out Introduction to Q#.
74. I'm going to create Q# application for the first time.
75. In Q# , a quantum register is treated like an array.
76. Microsoft recently released a preview of a new programming language that will be used specifically for quantum computing programming: Q# (pronounced ‘Q-sharp’).
77. The Q# development kit is available for free with detailed instructions on how to install it and introductory programming tutorials.
78. Q# compiles on a Visual Studio quantum simulator, simulating a 32 qubits quantum processor.
79. The very first tutorial provided by Microsoft involves creating a Q# Bell State script—the four entangled states of two qubits.
80. More precisely, we are talking about the new and exciting Q# quantum programming language, a compiler and a quantum simulator.
81. If the name Q# sounds familiar, is because it is inspired by the C# programming language Microsoft developed within the .NET framework.
82. But, with Q#, Microsoft aims at making “quantum computing and algorithm development easier and more transparent for developers”.

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