{:gate-noise {
  :h {:noise-type :depolarizing :noise-strength 0.01}
  :x {:noise-type :amplitude-damping :noise-strength 0.02}
  :cnot {:noise-type :phase-damping :noise-strength 0.03}
  ...}
 :readout-error {:prob-0-to-1 0.05 :prob-1-to-0 0.02}}

Advanced noisy quantum simulator backend implementing realistic
quantum computing device simulation with comprehensive noise modeling.

This backend provides local simulation of quantum devices with noise
using the domain layer's quantum state and circuit functionality.
It serves as both a reference implementation and testing backend for
quantum algorithms under realistic noise conditions.

This simulator models various types of quantum noise including:
- Depolarizing noise using Kraus operators
- Amplitude damping (T1 decay) modeling energy dissipation  
- Phase damping (T2 dephasing) modeling pure dephasing
- Readout errors with configurable bit-flip probabilities
- Coherent errors and systematic rotation biases
- Gate-specific noise parameters based on real device calibration
- Comprehensive Amazon Braket quantum hardware noise models

The noise model can be configured with parameters such as T1 and T2
times, gate operation times, and noise strengths. It supports
advanced noise configurations including correlated readout errors
and coherent errors with specific rotation angles and axes.
The simulator applies noise during gate operations and measurements,
simulating realistic quantum device behavior.

The noise model map has the following structure:
```clojure
{:gate-noise {
  :h {:noise-type :depolarizing :noise-strength 0.01}
  :x {:noise-type :amplitude-damping :noise-strength 0.02}
  :cnot {:noise-type :phase-damping :noise-strength 0.03}
  ...}
 :readout-error {:prob-0-to-1 0.05 :prob-1-to-0 0.02}}
```

Note: The simulator currently doesn't model crosstalk between qubits.

The simulator supports asynchronous job management, allowing
users to submit circuits and retrieve results later. It can be used
for testing algorithms, circuit designs, and quantum operations
without requiring access to actual quantum hardware.
 
It also implements the CloudQuantumBackend protocol for mock cloud
backend functionality, allowing it to be used in a cloud-like
environment for testing purposes.

Local quantum simulator implementing the QuantumBackend protocol.

This adapter provides a local simulation of quantum circuits using
the domain layer's quantum state and circuit functionality. It serves
as both a reference implementation and a testing backend.
 
This simulator implements an ideal quantum computer without noise,
simulating quantum gates and measurements using matrix operations.
 
The simulator supports asynchronous job management, allowing
users to submit circuits and retrieve results later. It can be used
for testing algorithms, circuit designs, and quantum operations
without requiring access to actual quantum hardware.
 
It also implements the CloudQuantumBackend protocol for mock cloud
backend functionality, allowing it to be used in a cloud-like
environment for testing purposes.

Input/Output adapters for quantum computing library

JSON I/O adapter for quantum circuits and data.

This module provides methods to export and import quantum circuits
and data in JSON format, allowing for easy serialization and
deserialization of quantum information.

OpenQASM I/O adapter for quantum circuits.

This module provides methods to export quantum circuits to OpenQASM
format, which is a standard quantum assembly language used by many
quantum computing platforms.

Core visualization API - unified interface to quantum visualization tools.

This namespace provides a single entry point for all quantum visualization
functionality. It now supports both the new unified multimethod API and
maintains backward compatibility with the original delegation-based API.

New Unified API:
- visualize (format, data, options) - multimethod-based unified interface

Legacy API:
- ascii-*, svg-*, html-* functions - maintained for backward compatibility

ASCII-based visualization for quantum states and circuits.

This namespace provides text-based visualizations that can be displayed
in terminals, REPLs, and simple text outputs. All functions return strings
containing formatted ASCII art representations.

Common utilities for quantum visualization - shared calculations and data extraction.

This namespace contains shared functions used across different visualization formats.
It focuses on pure data transformation and calculation, keeping format-specific
rendering logic in the individual format namespaces.

Mathematical coordinate transformations for quantum visualization.

This namespace handles 3D to 2D projections for Bloch sphere visualization
and other coordinate system transformations needed for quantum state graphics.

HTML page templates and styling for quantum visualizations

SVG-based visualization for quantum states and circuits.

This namespace provides scalable vector graphics (SVG) generation using
Hiccup for high-quality quantum visualization that can be embedded in
web pages or saved as standalone files.