qiskit

Design, transpile, and execute quantum circuits on IBM Quantum backends.

2|Updated Jun 4, 2026
One-click install
npx skills add https://github.com/Lord1Egypt/scientific-agent-toolkit --skill qiskit-lord1egypt
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: qiskit
Source: https://github.com/Lord1Egypt/scientific-agent-toolkit/tree/main/scientific-skills/qiskit
Command: npx skills add https://github.com/Lord1Egypt/scientific-agent-toolkit --skill qiskit-lord1egypt

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill requires qiskit, qiskit-ibm-runtime, qiskit-aer, qiskit-nature, qiskit-machine-learning, qiskit-optimization, scipy, numpy, matplotlib, and includes references (resource) components.

What problem does it solve?

This skill addresses the complexity of quantum computing by providing a structured framework for building, transpiling, and executing quantum circuits on both local simulators and real IBM Quantum hardware.

Core Features & Use Cases

  • Circuit Construction: Build complex quantum circuits using a comprehensive library of single and multi-qubit gates.
  • Hardware Optimization: Transpile circuits to match specific hardware topologies, significantly reducing gate counts and error rates.
  • Hybrid Execution: Seamlessly switch between local simulation and cloud-based execution on IBM Quantum hardware using primitives like Sampler and Estimator.
  • Use Case: Researchers can use this skill to implement variational algorithms like VQE for chemistry simulations or QAOA for optimization problems, managing the entire workflow from circuit mapping to post-processing results.

Quick Start

Use the qiskit skill to build a two-qubit Bell state circuit and execute it on the local statevector simulator.

Frequently Asked Questions about qiskit

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I build and execute quantum circuits on IBM Quantum hardware?

Build and execute quantum circuits by constructing gates locally, transpiling them for hardware topologies, and running them on IBM Quantum backends using Sampler and Estimator primitives. This workflow supports both local simulators and cloud hardware execution.

What is the best way to optimize quantum circuits for real hardware topologies?

Optimizing quantum circuits for real hardware topologies requires transpilation to match specific device connectivity, which reduces gate counts and error rates. This skill provides hardware-aware transpilation to map circuits efficiently onto IBM Quantum backends.

Can I run variational algorithms like VQE and QAOA using qiskit?

Yes, you can run variational algorithms like VQE for chemistry simulations and QAOA for optimization problems. The skill manages the entire hybrid workflow from circuit mapping and transpilation to execution and post-processing results.

Does this skill require qiskit-aer and qiskit-ibm-runtime for local simulation?

Yes, qiskit-aer and qiskit-ibm-runtime are required for full functionality across local and cloud environments. These dependencies enable seamless switching between local statevector simulation and execution on real IBM Quantum hardware.

How do I use the Sampler and Estimator primitives for hybrid quantum execution?

Use Sampler and Estimator primitives to manage hybrid execution workflows, allowing you to switch between local simulators and cloud-based IBM Quantum hardware. They handle circuit execution and result retrieval for variational algorithms and simulations.

Can I perform quantum machine learning and chemistry simulations with this skill?

Yes, quantum machine learning and chemistry simulations are supported through dedicated qiskit-machine-learning and qiskit-nature modules. These allow you to implement specialized algorithms alongside standard circuit construction and optimization tasks.