NADDOD-Building an Intelligent World with Everything Connected

In the modern era of high-performance computing and artificial intelligence, NVIDIA’s GPU technology plays a crucial role in deep learning and large-scale data processing. Two of NVIDIA’s most notable GPU platforms are NVIDIA DGX and NVIDIA HGX. Despite their similar names, they represent different approaches from NVIDIA in selling 8x GPU systems with NVLink technology. Additionally, NVIDIA’s business model has evolved between the P100 “Pascal” and V100 “Volta” generations, and we have witnessed the HGX model reaching new heights with the introduction of the A100 “Ampere” and H100 “Hopper” GPUs. One of the simplest ways to understand the distinction between NVIDIA HGX and NVIDIA DGX is by considering the following: NVIDIA DGX is the system brand of NVIDIA. NVIDIA HGX is a NVIDIA-authorized platform for third-party OEMs to build systems with 8x NVLink GPUs and NVSwitch technology. What is NVIDIA DGX? DGX is a series of high-performance computing systems launched by NVIDIA that integrate...

 In the era of AI, network speed, energy efficiency, and cost have become the focal points for data centers and communication networks. Driven by high-demand applications such as big data processing, artificial intelligence, and machine learning, achieving optimal network performance while simultaneously optimizing energy consumption and controlling costs has become a critical driver of technological development. To meet these demands, new products are continuously emerging and evolving. In this context, NADDOD has taken the lead by launching world’s first 400G OSFP-RHS SR8 optical module which serves as a powerful enabler for modern data centers and large-scale networks. This solution not only significantly enhances network speed but also achieves energy savings, all while maintaining low costs. NADDOD 400G OSFP-RHS SR8 Module 400G OSFP-RHS SR8 is a parallel 400Gb/s small form-factor pluggable (OSFP) optical module. Different from most Finned Top modules of 400G OSFP SR8 on th...

When choosing an optical transceiver, picking the wrong design could lead to compatibility issues with your current server, network card slots, or switches. In this article, we'll explore the differences between finned-top and flat-top designs in optical transceivers and guide you on how to make the right choice for your network. Finned-top vs. Flat-top In optical transceivers, "finned-top" and "flat-top" refer to two different structural designs within optoelectronic devices: Flat-top:  The flat-top design refers to optical transceivers where the top structure of the laser or optical emitter is flat. This design allows light to propagate and focus more easily, enhancing the efficiency of light coupling and transmission. Flat-top designs are often used in high-performance optical communication systems where maximizing signal transmission efficiency is crucial. Finned-top:  The finned-top design features a heat sink on top of the laser or optical device. Thes...