SPINORIO LAB
The AI workspace
for quantum R&D
Work with an AI agent to develop quantum code, run simulations, compile circuits and explore optimization problems. Keep your conversations, notebooks and results together in one workspace.
Spinorio agentYour notebook is ready. You can inspect the circuit, edit the code, and run it yourself.
from qiskit import QuantumCircuit
qc = QuantumCircuit(2)
qc.h(0)
qc.cx(0, 1)BUILT AROUND YOUR RESEARCH
From a research question
to a working experiment
Work with your agent, edit the code yourself, and review each result in the same workspace.
Turn an idea into your next experiment
Describe what you want to explore. Work with your agent to develop code, use quantum tools and work through the next step, with the activity visible as it happens.
- Keep conversations and files organized in projects
- Inspect tool activity and review proposed file changes
- Choose your model and reasoning effort
SpinorioReview an agent actionSpinorio agentI’ll create a notebook with the circuit and simulation code. Review the proposed edit before it is saved.
qc = QuantumCircuit(2)
qc.h(0)
qc.cx(0, 1)Take the code into your own hands
Open a notebook, edit a cell, or explore a variable in the Python console. Move between conversation and code as your experiment develops.
- Edit and run real Python notebooks in the cloud
- Use a console connected to your notebook kernel
- Work with Qiskit, PennyLane, Braket and pytket
SpinorioNotebook + consolefrom qiskit import QuantumCircuit
qc = QuantumCircuit(2)
qc.h(0)
qc.cx(0, 1)>>> qc.num_qubits
2Prepare circuits for your target
Use AI-powered quantum compilation within your workspace. Preserve the source circuit, select a target, and inspect the compiled output before taking the next step.
- Work with live IBM, saved or offline targets
- Inspect depth, gate counts and a comparable baseline
- Return completed circuits to your notebook
SpinorioCircuit compilationCompare against a baseline for the same circuit and target.
Build a plan for your optimization problem
Bring optimization into the same research workspace. Prepare a model, review an execution plan, and inspect the results with Hilvarian.
- Define supported MaxCut, QUBO and Ising problems
- Review settings and resource estimates before a run
- Keep solver jobs and results with your project
SpinorioOptimization planningKeep the experiment connected
Follow supported Qiskit activity from circuit states to processing records, jobs and available results. Keep the evidence and context together as your research develops.
- Inspect circuit history and linked execution records
- Organize research in projects with contributor branches
- Export records for review and reporting
SpinorioExperiment history- Circuit stateSource, structure and lineage
- Processing recordHow the circuit was transformed
- Jobs and available resultsExecution evidence in context
QUANTUMCLASS
Begin your next stage of quantum learning
Explore the latest research and developments in quantum computing through structured lessons, hands-on assignments, and practical implementation.
Explore QuantumClassA GLOBAL LEARNING COMMUNITY
Participants from universities
and organizations around the world
YOUR NEXT EXPERIMENT STARTS HERE
Bring your quantum ideas
into Spinorio Lab
Open your workspace and start building with quantum tools.
Try Spinorio Lab Find the right solution for your work