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Quantum EDA
Faster design cycles of superconducting qubits.
Introducing QuantumPro
QuantumPro is the EDA industry's first integrated workflow tailored for the seamless design of superconducting qubits. Say goodbye to the challenges that have plagued superconducting qubit developers with lengthy and expensive development cycles, along with the hassle of navigating multiple tools. QuantumPro introduces an elegant solution that consolidates five essential functionalities into the PathWave Advanced Design System (ADS) 2024 platform. This comprehensive suite encompasses schematic design, layout creation, electromagnetic (EM) analysis, nonlinear circuit simulation, and quantum parameter extraction – a combination never before available in one place.
Breaking down the barriers that once hindered mainstream microwave engineers from venturing into the quantum realm, QuantumPro serves as the bridge that unites the domains of quantum and microwave engineering. By intelligently translating traditional microwave outputs into easily adjustable quantum parameters within the platform, QuantumPro empowers engineers to effortlessly fine-tune their quantum circuits.
Faster development cycle of quantum chips with QuantumPro.
Build, analyze and optimize your quantum chips quickly, reducing your time to market.
Solutions for Superconducting Quantum Systems
Keysight EDA tools enable your team of quantum hardware engineers to streamline their workflow and accelerate the development of quantum chips using a cost-effective electromagnetic simulation approach based on the method of moments. Our state-of-the-art nonlinear circuit solver delivers extensive analysis of the power-dependent performance of your quantum chips, giving you unparalleled insights.
Build Your Quantum Chip Easily in ADS
We have recently incorporated a library of quantum layout components into PathWave Advanced Design System (ADS) 2023 Update 2.0. The library encompasses numerous frequently used quantum designs including transmons and co-planar waveguide (CPW) meanderline resonators. Its introduction facilitates the creation of quantum chips from within the ADS layout environment, with each geometrical feature of the chip being represented as a parameterized object that can be easily adjusted and optimized. The CPW components within the library have built-in airbridges that play a crucial role in preventing the propagation of the CPW common mode.
Layout your quantum designs in PathWave ADS.
Keysight’s QuantumPro enables your quantum hardware engineers to build, analyze, and optimize quantum chips quickly, reducing your time to market. In this video, we'll delve into the underlying principles of designing superconducting qubits using QuantumPro in PathWave ADS 2024.
View the Examples
Designing for Superconducting Qubits
Superconducting qubits are one of the promising scalable quantum hardware technologies. Our electromagnetic solution, using the method of moments, allows for a cost-effective electromagnetic simulation that accelerates the design cycle of superconducting qubits. The method of moments, instead of solving for the electric field in the full volume, solves only for the currents on the metal surface, significantly cutting the computational cost.
Additionally, we enable seamless tuning of qubits and resonators through co-simulation and parametric analysis, respectively.
For the design of quantum processing units QPUs, see W3704B
Designing for Quantum Amplifiers
We streamline the design of quantum amplifiers, the critical blocks on the output chains of quantum systems that improve readout fidelity, through our market-leading nonlinear circuit design environment (harmonic balance and X-parameters, a trademark of Keysight).
Our powerful harmonic balance solver can handle the design of your amplifier, whether it's based on just a few Josephson junctions or thousands of them, delivering detailed analysis of the amplifier's performance, including gain profile, gain ripples, mixing products, quantum efficiency, and gain compression. Additionally, PathWave ADS enables the examination of how the amplifier performs when cascaded with other blocks such as circulators, allowing for a thorough investigation of its overall functionality.
For the design of quantum amplifiers QAs + QPUs, see W3706B
Design and Optimize your Quantum Amplifiers efficiently with PathWave ADS.
Inspect the power dependence of your Quantum Chip with Nonlinear Co-simulation.
Try the new quantum design flow examples provided in PathWave ADS 2024.
Quantum EDA Examples
PathWave ADS 2024 includes these six new quantum design flow examples providing you with the tools you need to accelerate your quantum development:
- Superconducting Qubit
- Four Superconducting Qubits
- Basic Quantum Amplifier
- Uniform JTWPA
- Floquet JTWPA
- Superconducting Resonator Kinetic Inductance
What's more, our latest release includes an alpha feature for a Python console that enables you to control workflow, modify workspaces, automate tasks, and customize the user interface to suit your needs. This game-changing addition is sure to resonate with many of our quantum customers, offering enhanced flexibility and automation options to streamline your quantum research and development journey.
If you're an existing customer, download the new version today. For new users, we welcome you to try out our platform with a free trial. Experience the power of quantum design in an integrated workflow like never before with PathWave ADS 2024.
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