Quantum Teleportation with Classical Communication - Quipper Typing CST Test
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Quantum Teleportation with Classical Communication — Quipper Code
Shows teleportation with classical measurement results affecting operations.
import Quipper
main = print_simple Preview $ do
alice <- qinit True
bob <- qinit False
msg <- qinit True
hadamard alice
controlled_not alice bob
controlled_not msg alice
hadamard msg
c1 <- measure msg
c2 <- measure alice
if c2 then gate_X bob else return ()
if c1 then gate_Z bob else return ()
measure bobQuipper Language Guide
Quipper is a functional programming language designed for scalable quantum computing. It provides a high-level framework for constructing, manipulating, and simulating quantum circuits.
Primary Use Cases
- ▸Constructing scalable quantum circuits
- ▸Algorithm prototyping and analysis
- ▸Automatic circuit optimization
- ▸Quantum program simulation
- ▸Research on quantum algorithm design
Notable Features
- ▸Functional programming approach using Haskell
- ▸Automatic generation of large quantum circuits
- ▸Support for circuit transformations and optimizations
- ▸Integration with classical code for hybrid computation
- ▸Rich type system for safe quantum programming
Origin & Creator
Quipper was developed by Microsoft Research and academia (e.g., Bernhard Ömer and colleagues) around 2008-2013 as a functional language tailored for quantum computation.
Industrial Note
Quipper is mainly used in research for algorithm development, circuit synthesis, and testing large-scale quantum protocols rather than direct execution on real quantum hardware.