This device is not compatible.

PROJECT


Evaluate Hamming Distance Using Quantum Computing

In this project, we'll learn to create a quantum circuit to evaluate the Hamming distance between two quantum statevectors.

Evaluate Hamming Distance Using Quantum Computing

You will learn to:

Create and simulate a quantum circuit using Qiskit.

Implement a quantum algorithm and verify its operation.

Visualize the results of quantum simulation using dedicated packages.

Harness quantum superposition for parallel computing.

Skills

Quantum Computing

Quantum Algorithms

Prerequisites

Hands-on experience with Python

Beginner-level understanding of quantum computing

Technologies

NumPy

Qiskit

Python

Project Description

Hamming distance is a metric in information theory that is used to assess how many points a given signal is different from another. The smaller the Hamming distance, the more similar the signals. In classical digital systems, Hamming distance can be evaluated using XOR gates. In quantum computing, Hamming distance finds applications in domains like quantum information science (QIS) and quantum cryptography, where it is used to compare quantum data. However, since quantum computing employs an entirely different technology, quantum data encoded in quantum circuits needs an altogether different algorithm for evaluating the Hamming distance.

In this project, we’ll construct a quantum circuit to evaluate the Hamming distance between two statevectors. We’ll acquaint ourselves with the required tools, use them to construct the pertinent quantum circuit, and then test the functionality of the quantum circuit.

Project Tasks

1

Getting Started

Task 1: Import Libraries

Task 2: Create a Quantum Circuit

Task 3: Create a Quantum Register

Task 4: Apply a Hadamard Gate

Task 5: Apply the Measurement Gates

Task 6: Simulate the Quantum Circuit

Task 7: Apply a CNOT Gate

Task 8: Apply a CCNOT Gate

2

Create the Circuit for Evaluating Hamming Distance

Task 9: Create the Data Registers

Task 10: Create the Quantum Circuit

Task 11: Create a Superposition of Input Data

Task 12: Evaluate the Bitwise XOR of the Vectors

Task 13: Create a Quantum Ripple Counter

3

Test the Quantum Circuit

Task 14: Simulate the Quantum Circuit

Task 15: Encapsulate the Quantum Circuit in a Module

Task 16: Test the Module for Evaluating Hamming Distance

Congratulations!

has successfully completed the Guided ProjectEvaluate Hamming Distance Using QuantumComputing

Relevant Course

Use the following content to review prerequisites or explore specific concepts in detail.