OSN9800 TNS2CUTU Board Is a Cutting-edge Research Platform for Scalable Quantum Computing Networks

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Descri??o do produto

1.Product Overview

TNS2CUTU is a strategic cutting-edge research system that revolutionizes the quantum computing architecture on the OSN 9800 series optical transmission platform.This product surpasses the current NISQ (noise containing medium scale quantum) technology framework dominated by physical systems such as superconductivity and ion traps, and aims to conduct fundamental research and exploration on network interconnection architecture for the future paradigm of ten thousandth level fault-tolerant quantum computing and quantum classical heterogeneous computing fusion.It is a core basic research equipment for long-term strategic layout in the field of quantum information and defining the form of next-generation quantum computing infrastructure.

2.Core positioning and strategic research mission

Exploring the quantum computing network paradigm in the post NISQ era

Breakthrough the limitations of existing quantum computing systems on specific control pulse waveforms, synchronization accuracy, and topological structures, and explore universal and scalable optical network abstractions and protocols applicable to large-scale logic quantum bit arrays, quantum error correction periods, and long-range transmission of quantum states.

Research on a new computing network collaborative architecture that synergistically optimizes the scheduling, mapping, and allocation of underlying optical network resources for quantum computing tasks (quantum circuits).

Network foundation for quantum classical heterogeneous computing fusion

At the hardware and protocol levels, research is conducted on the architecture of deep integration and collaborative work between new classical computing paradigms such as photon computing units, analog computing units, and storage computing integrated units, and quantum computing units through optical networks.

Explore a prototype of all-optical interconnect infrastructure that supports dynamic orchestration and unified scheduling of computing power flow for quantum computing, classical high-performance computing, and big data processing.

Definition tool for quantum information science and technology roadmap

As a core experimental platform for asymmetric technology innovation and exploring new technological paths in the field of quantum computing.

The research results aim to form a set of forward-looking and systematic core intellectual property, technical standard proposals, and white papers, providing key decision-making basis for selecting and leading the future development direction of the quantum computing industry.

A convergence platform for interdisciplinary and cutting-edge research

To provide a collaborative physical experimental environment for top scientists in different fields such as computer architecture, optical communication, quantum information, theoretical physics, mathematics, etc., and to foster disruptive interdisciplinary theories and technologies.

3.System Core Architecture and Research Characteristics

1.Physics and System Architecture

Model: TNS2CUTU

Platform attribute: Quantum Computing Architecture Strategic Frontier Research Platform

Design philosophy:"Hypothesis driven, architecture flexible, full stack openness, data as evidence".

2.Defined network abstraction and experimental framework

Programmable Network Abstraction Layer: allows researchers to define their own abstract models of interconnect interfaces for quantum computing units (QPUs), such as interfaces based on quantum states, logic gates, and error correction cycles.

Flexible topology simulation and physical implementation: supports rapid simulation and verification of various topology structures, from fully connected, grid, to complex layered networks, and their impact on specific quantum algorithm performance through software definition and physical hardware.

Performance Power Error Rate Joint Modeling Interface: Provides an experimental data interface that correlates network transmission delay, synchronization error, photon loss, and other parameters with the fidelity, success rate, and system energy consumption of quantum computing tasks.

3.Open experimental interface for future technologies

New Interconnection Medium Experimental Interface: Reserve experimental interfaces to support possible new interconnection technologies in the future, such as quantum state transmission based on photonic chips, low-temperature optical interconnection, or special waveguide structures for topological quantum computing.

Heterogeneous computing unit docking interface: Provides standardized high-speed optical/electrical interfaces, allowing third-party developed simulation computing acceleration cards, photon AI computing units, and other new computing components to access the platform for fusion computing experiments.

Full system digital twin and code repository: Provide an open-source digital twin simulation system and basic software stack that fully corresponds to the physical platform, supporting global researchers to carry out architectural innovation at the software level.

4.Strategic research support system

Open Research Project Fund: Establish an open research fund around this platform to support exploratory projects with disruptive potential.

Annual Strategic Seminar and Report: Regularly hold top-level closed door seminars, gather global strategic scientists, and release the annual report"Future Quantum Computing Network Architecture Technology Outlook" based on platform research results.

Graduate and Postdoctoral Training Program: Establish a special program to attract and cultivate young talents who are interested in engaging in long-term basic research.

4.Typical strategic research topic

Research on Logical Quantum Bit Network Architecture for Large Scale Surface Code: Exploring How to Build Efficient and Reliable Optical Interconnection and Communication Networks for Thousands of Logical Quantum Bits after Achieving Physical Quantum Bit Error Rate Standards.

Exploration of quantum computing cloud native network architecture: Define the underlying network infrastructure model for future " quantum cloud services " , and study the implementation mechanism of cloud characteristics such as multi tenancy, multi task, and quality of service (QoS) in quantum networks.

Research on the Optical Interconnection Requirements of Non Von Neumann Quantum Computing Systems: Targeting quantum computing paradigms such as quantum annealing and quantum simulation that differ from general gate models, investigate their unique data mobility patterns and network requirements.

Research on Network Fusion of Photon Quantum Computing and Discrete Variable Quantum Computing: Exploring Efficient Quantum State Conversion and Networked Interconnection between Continuous Variable Quantum Computing Systems Based on Photons and Discrete Variable Systems Based on Superconducting Technologies.

Pre research on secure optical network architecture resistant to quantum computing attacks: At the system architecture level, study how to design new secure optical network protocols and structures that can resist future large-scale quantum computer attacks.

5.Summary of Core Values

Defining the future of quantum technology: enabling the early layout and possible definition of the form and standards of its core infrastructure before the arrival of the"next spring" of quantum computing.

Nurturing disruptive changes in the industry: The system architecture level innovation generated on this platform may give rise to new industrial ecosystems and business models, bringing economic and social value far beyond the current technological roadmap.

Forging strategic technological core competencies: By leading such long-term and fundamental explorations, cultivating core competencies in top-level design of complex systems, interdisciplinary engineering collaboration, and leading global technological trends.

Contribution to the boundary of human scientific cognition: Its research results are expected to expand human understanding of fundamental scientific issues such as the nature of computation, the interaction between information and matter.

6.Admission and operation mechanism

Platform code: TNS2CUTU.

Management mechanism: Adopting the management model of"Major Frontier Exploration Projects Directly Guided by the Strategic Scientists Committee".The committee is composed of top strategic scientists from multiple disciplines, responsible for formulating exploration directions, selecting chief scientists, and teams.

Admission mechanism: Only open to"Chief Scientists" nominated and approved by the Strategic Scientists Committee and their interdisciplinary research teams.The research topic needs to have clear long-term, fundamental, disruptive, and strategic relevance.

Achievement and Knowledge Management: Research achievements aim to promote global scientific progress and form long-term strategic advantages. The core scientific discoveries, basic patents, and open source frameworks generated follow the special intellectual property management system of major cutting-edge exploration projects, and actively seek to expand their influence through high-level academic publishing and international cooperation.