This device is not compatible.
PROJECT
Evaluate Quantum Fourier Transform Using Quantum Machine Learning
In this project, we will evaluate the Quantum Fourier Transform of a statevector through a variational quantum circuit. A gradient-based optimization approach is used with the help of the PennyLane library.
You will learn to:
Plot simulation results in Python.
Optimize a quantum circuit with dedicated packages.
Optimize a quantum circuit using a machine learning approach.
Create and simulate a quantum circuit using PennyLane.
Skills
Quantum Computing
Quantum Machine Learning
Optimization
Prerequisites
Basic understanding of the Python language
Basic knowledge of linear algebra concepts
Basic understanding of quantum computing concepts
Basic understanding of machine learning concepts
Basic understanding of the optimization theory
Technologies
NumPy
PennyLane
Matplotlib
Project Description
Quantum machine learning is a subdomain of quantum computing in which machine learning is integrated with quantum algorithms for data analysis on a quantum computer. Quantum machine learning provides an enhanced, and, in certain cases, improved performance over classical machine learning algorithms.
Quantum Fourier transform is a quantum operator that evaluates the Fourier transform of a state vector. The unitary matrix representation of this operator is as follows:
Here, is the number of qubits in the quantum state.
In this project, we’ll train a
Project Tasks
1
Construct the Quantum Circuit
Task 0: Introduction
Task 1: Import Libraries
Task 2: Load a Quantum Device
Task 3: Create the Quantum Circuit
Task 4: Apply the Inverse QFT Matrix
Task 5: Add the Measurement Gates
Task 6: Create the Quantum Node
2
Optimize the Quantum Circuit
Task 7: Create the Cost Function
Task 8: Initialize the Optimizer
Task 9: Construct the Optimization Block
Task 10: Test the Optimizer
Task 11: Visualize the Optimization Process
Congratulations!
Relevant Courses
Use the following content to review prerequisites or explore specific concepts in detail.