The Qblox Cluster Series offers a comprehensive, scalable solution for precise quantum control and nanosecond-level pulse shaping. By integrating ultra-clean signal generation with real-time data processing, it allows researchers to enhance gate fidelities and simplify complex qubit experiments.




Manipulate quantum states precisely through high SNR and anexceptionally clean spectral response.
Push your gates into the <20 ns regime with 1 ns pulse-shaping precision, accurately executed through fast rise times and low analog ringing.
Speed up your experiment by leveraging active reset to initialize your qubit within 400 ns between consecutive runs.
Run multi-dimensional qubit calibration routines, such as Rabi, Ramsey, and T1 experiments, in a parameterized fashion.


Manipulate charge states of quantum dots over a widerparameter space of the charge stability diagram, enabled by the5 Vpp scan range.
Implement the spin shuttling operation easily and intuitively tofacilitate the two-qubit gate in a scalable QPU.
Perform 2-qubit gates by exploiting exchange interactions between quantum dots using tunneling gate pulses at 1 ns precision.
Operate qubit drive and exchange interactions up to 18.5 GHz toobtain spin evolution data.


Perform spin qubit measurement experiments, utilizing either current-based DC sensing or reflectometry-based RF sensing.
Run RF-Reflectometry up to 8 simultaneous readout tones across 800 MHz.
Optimize readout fidelity by shaping the readout pulse and applying acquisition weights within the integration window.
Speed up your experiments with onboard data processing that supports real-time state-discrimination-based feedback.
Transform error correction with the industry's fastest feedback and highest core density. We provide the real-time decoding foundation needed to build reliable, large-scale quantum processors.
Achieve massively parallel real-time signal processing using 120 sequencer cores housed in a single 19” rack.
Perform mid-circuit measurements and enablelow-latency conditional feedback with all-to-allconnectivity in under 400 nanoseconds.
Ensure clock synchronization accuracy within<< 1 nanosecond across all processing units.
Integrate with real-time decoders for error correction and adapt with surface codes, stabilizer codes, and others.
Built-in scalable feedback infrastructure with all-to-all connectivity under 400 ns for conditional playback and branching.
Automatic synchronization of all channels less than << 1 ns with ps-level jitter.


