01 / SCIENTIFIC FOUNDATIONS

Scientific Foundations

Keep physical meaning with your measurements. Work with quantities, labelled datasets, and composable models, and preserve the context that makes a result useful later.

  • Units & uncertainties
  • xarray-native data
  • Models & fitting
  • Tracking & provenance
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Researcher working with quantum hardware in the laboratory

02 / EXPERIMENT FRAMEWORK

Experiment Framework

Bring pulse sequences, analysis, visualization, and device updates into one reusable experiment. Start with an existing class, then adapt it to the question you want to ask.

  • Pulse sequences
  • Analysis
  • Visualization
  • Machine updates
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Measured response across a frequency and drive-power scan

03 / REAL-TIME CONTROL

Real-Time Control

Let measurements inform what happens next. Run optimization, estimation, and signal processing on the FPGA, inside the same sequence that controls your hardware.

  • Optimization
  • Estimation
  • Signal processing
  • Quantum tools
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Quantum control hardware against a blue ocean backdrop

04 / ADVANCED QCVV

Advanced QCVV

Understand how your processor behaves. Bring characterization, validation, and benchmarking into your experimental workflow, from process tomography to multi-qubit tests.

  • XEB
  • Cycle benchmarking
  • Process tomography
  • Multi-qubit validation
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Quantum processor chip and its connected control lines
Pelagic runs on Quantum Machines. Pelagic combines the OPX1000 quantum control platform with its software for fast, flexible and adaptive experiments.