UNC's Second Ever Quantum Hackathon!

Requirements

Carolina Quantum Hacks 2025 – Challenge Set

Quantum Computing @ UNC
April 12–13, 2025 

Each team will submit their code as a Github Link (Your readme should have a detailed overview of the project) and a video. The video should be up to 3-5 minutes long and describing your project and code!

 

 

Beginner Challenge: Quantum Art Gallery

Goal:
Create abstract visual art using measurement results from quantum circuits.

Instructions:

  • Design circuits that produce interesting bitstrings using quantum randomness (Hadamard gates, entanglement).

  • Map measurement outcomes to artistic elements (color, shape, position) in a plotted image or pattern.

  • Submit your final artwork and an explanation of how the quantum circuit influenced the design.

Workshops/Tutorials:

  • Introduction to Quantum Computing and Qiskit: Writing and Running Quantum Circuits with Qiskit

  • Quantum Circuit Design for Art: Designing circuits that produce interesting patterns

Submission:
Submit your circuit implementation and a brief explanation of your approach/patterns. Record a 3-5 minute video explaining your project. Share team responsibilities (team size 2-4 people).

 

 

 

Advanced Challenge: Variational Circuits on NISQ Devices

Goal:
Explore the potential of near-term quantum computers by designing creative, parameterized quantum circuits to tackle optimization or simulation tasks.

Instructions:

  • Choose a problem suited to variational algorithms (optimization, quantum machine learning, quantum chemistry, etc.).

  • Design and implement a parameterized (variational) quantum circuit.

  • Experiment with circuit structures, gate arrangements, and classical optimization strategies to enhance performance.

Submission:
Submit your circuit implementation, a brief explanation of your approach, and key insights. Record a 3-5 minute video explaining your projects. Share team responsibilities (team size 2-4 people)

Evaluation Criteria:

  • Creativity in problem selection and circuit design

  • Effective handling of NISQ constraints (noise, limited qubits)

  • Clear presentation of results and design rationale

Showcase your quantum creativity and innovation!

 

 

Free Form Challenge

Goal:

Creating an innovative project that is related to quantum computing in some way. The aim is to showcase understanding of quantum principles and proficiency in implementing them creatively.

Instructions:

  • Educational tools explaining quantum concepts

 

  • Demonstrate quantum algorithms

 

  • Create practical applications utilizing frameworks like Qiskit

 

  • Design quantum games or puzzles

 

  • Build user-friendly quantum simulators.

 

Requirements:

Create your project using a programming language

Involve quantum computing in some way

Record a 3-5 minute video explaining your project

Share team responsibilities (team size 2-4 people)

Hackathon Sponsors

Prizes

3 non-cash prizes
Beginner's Track
1 winner

Lanyard + Magnet + UNC-engraved notebook for each team member

Advanced Track
1 winner

UNCQC Quarterzip + mug/phone wallet for each team member

General Track
1 winner

UNC Football + UNC-engraved notebook for each team member

Devpost Achievements

Submitting to this hackathon could earn you:

Judges

Saki Male

Advaith Cheruvu

Saksham Rustagi

Pranav

Judging Criteria

  • Innovation
    Originality and creativity of the idea. Uniqueness of the approach in utilizing quantum computing concepts. Potential impact and usefulness of the project.
  • Technical Implementation
    Effectiveness and correctness of the quantum algorithms or simulations used. Demonstrated understanding and application of quantum computing principles. If using Qiskit: Quality of code and adherence to best practices in quantum programming.
  • User Experience
    Intuitiveness and user-friendliness of any interfaces or tools developed. Clarity and effectiveness in conveying quantum concepts (for educational tools). Smoothness of operation and error handling.
  • Presentation
    Clarity and coherence of the presentation. Ability to effectively communicate the project idea, implementation, and significance. Engagement and interaction with the audience
  • Impact
    Potential real-world applications or significance of the project. Scalability and adaptability of the project to different contexts or use cases. Feasibility of further development or integration into existing systems.

Questions? Email the hackathon manager

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