Generated by GPT-5-mini| Forest (Rigetti) | |
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| Name | Forest (Rigetti) |
| Developer | Rigetti Computing |
| Released | 2016 |
| Latest release | Forest SDK 1.x |
| Language | Python |
| Platform | Quantum hardware, Cloud |
| License | Proprietary |
Forest (Rigetti)
Forest is a quantum computing platform developed by Rigetti Computing that integrates quantum hardware, software, and cloud services to enable quantum algorithm development and execution. The platform connects users with quantum processors, classical resources, and developer tools through a software development kit that targets superconducting qubits and hybrid quantum-classical workflows. Forest has been used in academic collaborations, industrial research, and startup projects involving quantum simulation, optimization, and machine learning.
Forest was created by Rigetti Computing to provide access to superconducting quantum processors and a suite of developer tools through a cloud-hosted environment serviced by a team that includes founders and engineers. The platform situates Rigetti within a landscape alongside organizations such as IBM, Google, Microsoft, Intel Corporation, and D-Wave Systems while interfacing with research institutions like Harvard University, University of California, Berkeley, MIT, and Stanford University. Forest combines hardware initiatives, corporate partnerships, and academic collaborations similar to efforts led by Quantum AI, IBM Q, Xanadu (company), and Alibaba Quantum Laboratory to advance near-term quantum computing experiments and benchmarks.
Forest's architecture integrates a software development kit with a quantum virtual machine, job scheduler, and connections to Rigetti's superconducting quantum processors developed at facilities in California and elsewhere. The system includes components analogous to those in quantum ecosystems built by Google Quantum AI, IBM Research, and Microsoft Research, such as a quantum instruction set, qubit control electronics, cryogenic setups, and a hybrid classical orchestration layer used in projects with Amazon Web Services and NVIDIA. Key elements include a Quil instruction language, a quilc compiler, a quantum virtual machine (QVM), and an API that routes tasks between Rigetti Computing's cloud endpoints and on-premises resources similar to architectures used by Intel Labs and Xanadu.
Forest centers on the Quil instruction language developed by Rigetti for pulse- and gate-level control of superconducting qubits, accompanied by pyQuil, a Python library that interfaces with Quil and enables integration with ecosystems like NumPy, SciPy, TensorFlow, and PyTorch. The programming model supports hybrid algorithms inspired by proposals from researchers at Yale University, Caltech, Los Alamos National Laboratory, and ETH Zurich, including variational quantum eigensolvers and quantum approximate optimization algorithms that reference work from Perimeter Institute and Max Planck Institute for Quantum Optics. Forest's SDK allows compilation via quilc and simulation on a quantum virtual machine similar in concept to simulators produced by IBM Research and Google, with interoperability patterns comparable to projects at Oak Ridge National Laboratory and Lawrence Berkeley National Laboratory.
Forest has been applied to quantum chemistry simulations, optimization problems, and quantum machine learning studies, echoing research agendas from Caltech, Harvard University, University of Oxford, and ETH Zurich. Use cases have included electronic structure calculations drawing on methods from David Sherrill-type research, portfolio optimization in finance contexts similar to efforts by Goldman Sachs and J.P. Morgan, and sampling tasks that relate to investigations at Los Alamos National Laboratory and Argonne National Laboratory. Forest-enabled prototypes have informed collaborations with industrial partners such as Volkswagen, Fujitsu, and Accenture and academic programs at institutions like University of Chicago and Columbia University that explore quantum algorithms for chemistry, materials, and logistics.
Rigetti has benchmarked Forest-driven hardware using metrics comparable to those adopted by IBM Q, Google Quantum AI, and research groups at MIT and Caltech, including gate fidelity, coherence times, and two-qubit gate performance. Benchmarks reported for devices accessed via Forest have been evaluated in contexts similar to cross-platform comparisons involving Quantum Benchmarking Consortium activities and studies by groups at NIST, University of Maryland, and Yale University. Performance tuning has involved calibration procedures analogous to methods from National Institute of Standards and Technology, pulse-level control strategies paralleling work at University of Waterloo, and error mitigation techniques related to research at Perimeter Institute.
Forest emerged from Rigetti Computing's early roadmap, which included prototypes, fundraising rounds, and facility development alongside milestones often reported by outlets covering startups like Y Combinator, Sequoia Capital, and Andreessen Horowitz. The platform's evolution reflects contributions from founders and researchers with backgrounds connected to UC Berkeley, MIT, and Harvard, and partnerships with cloud providers similar to initiatives by Amazon Web Services and Google Cloud. Future roadmap elements have indicated scaling of qubit counts, integration with hybrid classical resources akin to efforts at NVIDIA and Intel Corporation, and software toolchain advances informed by academic collaborations with Stanford University, Princeton University, and Cornell University.
Category:Quantum computing platforms Category:Rigetti Computing