QPU access paths

AWS lists AQT IBEX-Q1 as a gate-based QPU target in eu-north-1.

Braket Direct is an Amazon Braket program that expands access on AWS by offering reserved dedicated capacity on various quantum devices, direct engagement with quantum computing specialists, and early access to next-generation capabilities.

AWS lists DM1 as an on-demand gate-based simulator across multiple Braket regions.

IonQ Aria-2 is an IonQ trapped-ion QPU available through Amazon Braket in the US East (N. Virginia) region.

AWS lists IonQ Forte-1 as a gate-based QPU target in us-east-1.

AWS lists IonQ Forte Enterprise 1 as a gate-based QPU target in us-east-1.

AWS lists IQM Emerald as a gate-based QPU target in eu-north-1.

AWS lists IQM Garnet as a gate-based QPU target in eu-north-1.

A local emulator for Amazon Braket that lets developers emulate verbatim quantum programs locally using device calibration data, with noise modeling and circuit validation before execution on hardware.

A local quantum device emulator tool in Amazon Braket that emulates verbatim programs before submitting them to quantum devices.

Amazon Braket documentation describes experimental capabilities for the QuEra Aquila QPU, including access to local detuning, tall geometries, and tight geometries, which must be explicitly enabled per task through the Amazon Braket SDK.

AWS lists QuEra Aquila as an Analog Hamiltonian Simulation QPU target in us-east-1.

Rigetti Ankaa-2 is a gate-based QPU available through Amazon Braket.

Amazon Braket’s local emulator can be created directly from Rigetti’s Ankaa-3 device or from Ankaa-3 device properties in JSON, allowing local emulation before running on actual quantum hardware.

AWS lists Rigetti Ankaa-3 as a gate-based QPU target in us-west-1.

AWS lists Rigetti Cepheus-1-108Q as a gate-based QPU target in us-west-1.

AWS lists SV1 as an on-demand gate-based simulator across multiple Braket regions.

Amazon Braket's TN1 is a fully managed on-demand tensor network simulator for quantum circuit simulation.

Microsoft lists IonQ Aria 1 as a 25-qubit target available through Azure Quantum.

Azure Quantum provides access to IonQ trapped-ion quantum computers through IonQ targets. The sourced Azure Quantum IonQ page lists IonQ Aria as a 25-qubit trapped-ion target available through a Pay As You Go plan, with QIR Base execution profile and ionq.circuit.v1 data format.

Microsoft lists IonQ Forte 1 as a 36-qubit target available through Azure Quantum.

Azure Quantum target for Pasqal FRESNEL_CAN1, a hardware neutral-atoms QPU with 100 qubits.

Microsoft lists Pasqal FRESNEL as a 100-qubit target available through Azure Quantum.

Microsoft lists Quantinuum H2-1 as a 20-qubit target available through Azure Quantum.

Microsoft lists Quantinuum H2-2 as a 32-qubit target available through Azure Quantum.

Azure Quantum access to Quantinuum’s two System Model H2 emulation targets, H2-1 and H2-2, which include syntax checkers and emulators with detailed physical and noise models.

Azure Quantum access to Quantinuum’s two System Model H2 emulation targets, H2-1 and H2-2, which include syntax checkers and emulators with detailed physical and noise models.

Azure Quantum access to Quantinuum’s two System Model H2 emulation targets, H2-1 and H2-2, which include syntax checkers and emulators with detailed physical and noise models.

Azure Quantum access to Quantinuum’s two System Model H2 emulation targets, H2-1 and H2-2, which include syntax checkers and emulators with detailed physical and noise models.

Microsoft lists Rigetti Cepheus-1-108Q as a 108-qubit target available through Azure Quantum.

Rigetti superconducting-qubit hardware listed as an Azure Quantum provider target.

Azure Quantum target rigetti.sim.qvm is an open-source cloud simulator for Quil programs, also accepting QIR bitcode, with free access and QIR Base execution profile support.

D-Wave's Leap quantum cloud service provides real-time access to the Advantage2 quantum computer.

IBM Quantum hardware access entry for the Heron processor on IBM’s quantum cloud platform.

IBM Quantum Platform QPU named ibm_berlin. It is a Nighthawk r1 processor available in the eu-de region and listed as online.

IBM Quantum lists ibm_boston as an online 156-qubit Heron QPU in us-east.

IBM Quantum backend ibm_fez is listed among available IBM Quantum backends and can be retrieved with QiskitRuntimeService.backend("ibm_fez").

IBM Quantum lists ibm_kingston as an online 156-qubit Heron QPU in us-east.

IBM Quantum Platform QPU ibm_miami in the us-east region. The source lists it as a Nighthawk r1 processor with 120 qubits and online status.

IBM’s roadmap describes Nighthawk as a quantum processor intended to run circuits with 7,500 gates in up to three 120-qubit modules, with a later roadmap target of up to 15,000 gates on up to 1080 qubits.

qBraid documents pre-configured Lab access to QPUs from multiple providers and on-demand simulators.

Quantinuum Systems documentation describes access to Quantinuum Helios hardware and emulators through Nexus for subscription users, including submit-and-retrieve job workflows and fair-queue handling for hardware execution.

Quantinuum Systems documentation describes access to Quantinuum Helios hardware and emulators through Nexus for subscription users, including submit-and-retrieve job workflows and fair-queue handling for hardware execution.

Quantinuum Helios is a Quantinuum quantum computer offered as hardware-as-a-service, with access described as available on-premise, in the cloud, or both.

Strangeworks describes unified access to quantum hardware, software providers, and 40+ technologies.