An offline compiler that converts timed I/Q square pulses and waits into Qblox Q1ASM instructions and waveform tables. I/Q means the two signal components used to control a device; the compiler does not connect to instruments or run an experiment.
A local simulator for unsigned modular addition using Qrisp quantum registers. Modular addition wraps around at 2^n, where n is the register width, and the simulator can start from a fixed bit string or a uniform superposition.
A circuit compiler that decomposes structured quantum circuits into CX, RX, RY, and RZ gates and can export OpenQASM 2. OpenQASM is a text format for describing quantum circuits; this tool preserves the logical wire labels but does not route gates to a device.
A local generator for Quantum Machines QUA pulse programs for one OPX1 analogue output. It produces source code, configuration, and encoded program data for constant-voltage pulses, but does not run them or simulate hardware.
A CPU simulator for applying selected local noise channels to a structured quantum circuit. A density matrix is a numerical description that can represent both quantum probabilities and noise-related mixed states.
A resource calculator for selected quantum arithmetic building blocks, such as addition, constant comparison, and controlled swapping. It counts logical gates and qubits using Qualtran's cost model, including an optional weighted estimate of T gates.
A client for the Quantum Inspire service that lists available devices and checks the status of existing quantum jobs. Quantum Inspire is an online quantum-computing service accessed with an API token.
A local calculator for finding the expected value of Pauli Hamiltonians on structured quantum circuits. It uses QURI Parts to build the circuit and Qulacs to calculate the result from an exact state vector.
A local simulator for one quantum communication link, modelling message loss, fixed travel delay, and decline in the fidelity of an entangled state. It runs repeated independent attempts and does not connect to the internet.
A local CPU simulator for small quantum circuits, which are programs made from operations on quantum bits. It calculates Pauli-term energy values, measurement-basis probabilities, and automatic derivatives of rotation angles.
A calculation skill for modelling interactions between two rubidium Rydberg atoms. Rydberg atoms are atoms with an electron in a highly excited state, and the skill computes their potential energy and a small effective Hamiltonian.
A workflow for turning neutral-atom research questions into Pulser experiment specifications and sequences, then running simulations or submitting batches through Pasqal Cloud. Pulser is a Python toolkit for describing and simulating neutral-atom quantum experiments.
A workbench for writing and running custom quantum programs with fixed, installed software development kits. Quantum SDKs are programming libraries for building and executing models such as circuits, simulations, chemistry calculations, and error-correction experiments.
A scientific-computing workflow using the ARC Rydberg public API to model atoms and their energy levels. It can calculate transition matrix elements, lifetimes, Stark diagrams, and interactions for custom inputs.
A coding workflow for PennyLane Catalyst, a tool that compiles and runs programs combining ordinary Python-style code with quantum circuits. It uses Catalyst's public programming interface for custom models and result files.
A scientific-computing workflow using jaxquantum's public API for quantum operators, devices, and bosonic models. It runs custom dynamics, parameter scans, and gradient calculations while preserving the program and results.
A scientific-computing workflow using JosephsonCircuits.jl, a Julia library for simulating circuits containing Josephson junctions and related components. It supports frequency-domain circuit calculations, scattering results, and noise estimates.
A scientific-computing workflow using monoprop's public API for Pauli and Majorana operators, gate generators, and propagation. It supports custom programs with gradients and controlled truncation of the calculation.
An MQT Debugger coding skill for inspecting OpenQASM programs, a text format for describing quantum circuits, through step-by-step simulation. It supports assertions, impact analysis, and error diagnosis.
An MQT QECC coding skill for working with quantum error-correcting codes, including CSS codes and color codes. These codes add structure that can help detect and correct errors in quantum data.
An OpenJij coding skill for solving Ising and QUBO optimisation models with simulated annealing or simulated quantum annealing. These models express choices and their costs as an energy function.
A Julia-based coding skill for representing quantum operators as Pauli strings and studying Hamiltonians, which describe a system’s energy, over time. It supports operator evolution and many-body algorithms for systems with many interacting parts.
A PECOS coding skill for building and running mixed classical-and-quantum programs with simulated quantum devices, noise, measurements, and error-correction protocols. Error correction is the process of detecting and handling errors in quantum information.
A Piquasso coding skill for simulating photonic quantum programs using Gaussian states and Fock states, which describe different ways of representing light and photon numbers. It also supports channels and measurements.
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originalMIT
At most 3 mods per repository are shown here, and a mod shipped inside a plugin is left to that plugin's page — the rest are on their repository pages: