OSN9800 TNU2UXCS Board 1.2T Ultra-high Performance Compact Wavelength Division Circuit Board

Yantai Boxin International Trading Co., Ltd. is a professional comprehensive trading service provider for communication equipment.With warehouses established in Yantai and Hong Kong, we have built a complete and localized network for delivering communication products and services.In 2018, Yantai Boxin International Trading Co., Ltd. set up its international sales department in Yantai, China.Based in China, we operate in emerging markets across Southeast Asia, India, the Middle East, Africa, Europe, and the United States. 

Yantai Boxin International Trading Co., Ltd. supplies products to various telecom operators, meeting their needs for supplementing and expanding 2G/3G/4G/5G network stations.Our current equipment portfolio covers brands such as Nokia, Ericsson, Alcatel, Huawei, ZTE, ZTT, and FiberHome. 

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Product Description

1.Product Overview

TNU2UXCS is a top-level customized ultra-high performance 1.2T wavelength division multiplexing circuit board designed for E-class (billions of times) supercomputing centers and next-generation cutting-edge computing facilities on the OSN 9800 series optical transmission platform.This product is not only an extension of commercial technology, but also a culmination and engineering carrier of cutting-edge research results in the fields of optoelectronic integration, signal processing, precision time-frequency, and system architecture.It aims to build an optical interconnect backbone network with sub microsecond level deterministic latency, nanosecond level global synchronization, and EB level data throughput capabilities for supercomputers and strategic computing devices in top global research institutions.It is the core information artery that will carry the forefront exploration of scientific computing and artificial intelligence in the next decade.

2.Core Mission and Strategic Positioning

The physical cornerstone of strategic computing capability

As the core interconnect component of supercomputing centers and specialized computing clusters for large scientific devices, its performance directly determines the overall efficiency of billion level computing tasks.

It not only carries data, but also key computational processes in strategic fields such as basic scientific research, climate change simulation, new drug discovery, and nuclear fusion research.

Customized solutions to overcome interconnection bottlenecks

Deep joint design and optimization of physical layout, flow model, and communication mode for specific E-class supercomputing systems (such as extreme cooling methods such as water cooling and immersion liquid cooling).

Breaking through the performance boundaries of general products, achieving customized ultimate balance in signal integrity, power density, thermal management, and reliability.

Integrated verification platform for cutting-edge optoelectronic technology

We have integrated and validated a number of cutting-edge technologies, including silicon-based optoelectronic (SiPh) integration, novel high-speed modulators, ultra-low power consumption high-precision clock distribution networks, and more.

It is itself a 'big scientific project' aimed at transforming advanced concepts in the laboratory into engineering realities that can operate stably in harsh environments.

Physics experimental bed for open joint research

We provide a high-performance real-world hardware experimental platform for top research teams in fields such as computer architecture, parallel computing, and network communication, to validate the next-generation integrated computing storage network architecture.

3.Core technical specifications and system features

1.Physics and System Architecture

Model: TNU2UXCS

Applicable platform: OSN 9800 Special Strategic Computing Platform

Product nature: Customized ultra-high performance 1.2T coherent line interface and interconnection subsystem

Design pattern:"Deep Co Design" based on specific E-level supercomputing project requirements.

2.Extreme performance indicators

Line speed: 1.2T

Customized key performance:

End to end transmission latency: For specific system topology optimization, the goal is to achieve the absolute minimum value of system level communication overhead.

Delay determinism: Achieve hard deterministic transmission with sub microsecond jitter to ensure synchronization of large-scale parallel computing tasks.

Synchronization accuracy: Supports nanosecond level (<10ns) global clock synchronization across cabinets and computing islands, providing a unified time base for distributed applications.

Anti noise and fault-tolerant: Adopting special coding and link level fault-tolerant mechanisms to meet the 7x24 hour high reliability operation requirements of supercomputing systems.

3.System integration and collaboration

Collaboration with computing nodes: Supports deep collaborative interfaces with specific high-performance computing processors, accelerators, or specialized interconnect protocols (such as customized CXL, OpenCAPI extensions).

Collaboration with cooling system: The mechanical and electrical design fully considers seamless integration and thermal collaboration with the liquid/air cooling system of the main cabinet.

Management and Monitoring: Integrated with an ultra high precision in-situ performance monitoring and diagnostic system, real-time perception of the physical layer health status of each link.

4.Typical application scenarios

E-class supercomputer global optical interconnect network: As the core switching and transmission plane of E-class systems ranked in the world's top supercomputer rankings, it connects hundreds of thousands or even millions of computing cores.

Frontier Artificial Intelligence Research Institute& # 39;s dedicated intelligent computing cluster: a specialized AI supercomputing facility for training large models with over trillions of parameters, providing ultra-high bandwidth and ultra-low latency training data exchange channels.

Specialized computing network for major technological infrastructure, such as providing dedicated computing interconnection for major facilities such as fusion reactor simulation, global climate system simulation, and square kilometer array radio telescope (SKA) data processing center.

Future computing architecture prototype verification system: As a"digital twin" or prototype system, it is used to verify the feasibility of revolutionary computing architectures such as photon computing, storage computing integration, and near memory processing.

5.Summary of Core Values

Defining a new height in global computing efficiency: Its performance indicators will directly affect the competitive ranking and actual scientific output capability of the E-class supercomputing system it serves globally.

Promoting the integration of interdisciplinary cutting-edge technologies: As a complex system engineering, it promotes the cross fusion and engineering breakthroughs of multiple cutting-edge disciplines such as optics, electronics, thermodynamics, and computer science.

Ensuring independent and controllable strategic technology: It is a key link in building a completely independent and controllable strategic computing capability system, and avoiding being controlled by others on the most core infrastructure.

Nurturing a new paradigm for the future computing industry: Based on the platform's exploration and validation of new technologies and architectures, it is expected to incubate new directions and standards for the next generation of computing and communication industries.

6.Participation and cooperation mode

Platform model: TNU2UXCS.

Collaboration mode: Adopting the"project driven cutting-edge joint research and development and engineering breakthrough" mode.The cooperating party must be an entity that undertakes E-level supercomputing or equivalent strategic level computing tasks.

Cooperation foundation: Both parties need to form a top-level expert joint team covering multiple fields such as system architecture, hardware engineering, software, and applications, to carry out close collaborative research and development for several years.

Achievement sharing: jointly enjoy the core intellectual property, technical standards, and top academic achievements generated in the joint research and development process, and jointly cultivate top engineering and research talents in the field.