Overview
What Are Wolfram Microcredentials?
Wolfram Microcredentials are focused series of courses that teach computational skills in a self-paced time frame. Component courses build sequentially to develop student skills and give hands-on practical experience using video lessons, AI course assistance and problems for exploration. Wolfram Microcredentials include certification assessments that allow successful students to earn completion certificates as well as advanced certifications in specialized areas of study.
What You'll Learn: Practical Quantum Computing
In this microcredential program, you will develop both a theoretical and practical understanding of quantum computing—from mathematical foundations to full algorithm implementation using high-level quantum programming. The first course introduces the necessary quantum concepts before moving to applied implementations; you will gain computational fluency in modeling quantum systems symbolically and numerically using Wolfram tools. The second course in this program makes use of the Classiq platform featuring the high-level Qmod language and automated circuit synthesis; rather than coding gates manually, you will focus on modeling real-world problems while the Classiq platform generates optimized implementations.
Pricing
Wolfram Microcredential
Practical Quantum Computing
$500
Includes:
- Perpetual access to all component courses from your Wolfram Account
- Completion certificate assessments (perpetual access)
- 30-day access to the Classiq platform
- 60-day subscription to Wolfram|One
- 60-day subscription to Wolfram AI Access
Component Courses
This microcredential includes two component courses that cover the following topics.
Quantum Computing by Model and Simulation
- Single and Multi-particle Quantum States
- Probability and Measurement
- Superposition and Entanglement
- Single and Multi-qubit Quantum Gates
- Deutsch–Jozsa Algorithm
- Bernstein–Vazirani Algorithm
- Grover Search Algorithm
- Quantum Arithmetic
- Quantum Phase Estimation Algorithm
- Shor's Algorithm for Factorization
- Quantum Key Distribution: BB84 Scheme
Applied Quantum Programming: From Science to Finance
- Quantum Brownian Motion
- Quantum Linear Systems
- Phase Estimation and Eigenvalue Inversion
- Building and Executing Quantum Circuits
- Solving Differential Equations
- Quantum Support Vector Machine (SVM)
- Portfolio Optimization Problem
Certifications Available
Completion Certificate
Certify your completion of component courses by watching course videos and passing the auto-graded quizzes. When you've completed all the courses, you will earn a certificate of completion for Practical Quantum Computing.
Recommended Microcredential Completion Process
- Purchase the microcredential and receive access to the component courses, access to the Classiq Quantum Development Platform, a 60-day subscription to Wolfram|One and a 60-day subscription to Wolfram AI Access.
- Install the Wolfram Quantum Framework according to the directions in the Wolfram Paclet Repository.
- Initialize the Classiq integration according to the directions you receive from Classiq. (Classiq provides access to their platform within two business days of microcredential purchase.)
- Study lesson videos and notebooks in the interactive course, ask questions using the AI Assistant and work on the explorations.
- Earn your certificate of completion for each course by completing all lesson videos and passing the quizzes.
- Track your overall progress from the Microcredential Overview page.
- When you've completed all the component courses, you will earn a certificate of completion for Practical Quantum Computing.
Instructors
FAQ
How much programming experience do I need before starting the microcredential?
A general coding background is required, familiarity with Wolfram Language is recommended, and basic Python experience (or experience in any programming language) is recommended for the second part of the microcredential that uses the Classiq platform. No prior quantum programming experience is required.
What math background is required?
A working knowledge of linear algebra is necessary, including familiarity with matrices and eigenvalues. Background in differential equations, probability theory, optimization and complex numbers is recommended but not strictly required. The course reviews essential quantum concepts in the foundational section.
Do I need prior knowledge of quantum computing?
No. The first part of the course provides the necessary foundations in quantum computing, including qubits, quantum states and core algorithmic principles. The hands-on modules then build on this foundation.
How long does it take to complete the microcredential?
Each of the courses is designed to be completed in a few hours. Short instructional videos are followed by auto-graded quizzes, hands-on explorations and a practice exam. The program is self-paced.
Do I need access to quantum hardware?
No. All implementations run on simulators provided through the Classiq platform. The platform also performs hardware-aware synthesis, allowing you to analyze circuits as they would run on real quantum devices—without requiring direct hardware access.
What tools will I have access to during the course?
Students will use Wolfram tools for the theoretical and computational foundation sections of the course and the Classiq platform for high-level quantum program modeling, automatic circuit synthesis, execution and result analysis.
Where can I access the course and associated tools?
Access to course frameworks, certification assessments and progress tracking is available from the Microcredential Overview page. The Overview page and your Wolfram products are available from your Wolfram Account. Access to the Classiq platform is provided by Classiq.
How do I get started with Classiq?
Using the credentials you receive after your microcredential purchase, log in to the Classiq platform here. Install or update the Classiq platform upon first use, with next steps provided by Classiq tutorials.
Who is this microcredential designed for?
This program is designed for STEM students, researchers and industry professionals who want to enter the field of quantum computing. It is particularly relevant for students and practitioners in the fields of computer science, physics, finance and machine learning who want practical exposure to real-world quantum applications.
What makes this microcredential different from other quantum computing courses?
This program focuses on practical quantum application development using a high-level quantum programming language (Qmod). Instead of manually constructing low-level gate circuits, students model algorithms at a high level of abstraction while the platform automatically synthesizes optimized implementations. This allows learners to focus on algorithmic thinking and real-world modeling rather than low-level circuit engineering.