10GPON Evolution solution
10GPON Evolution solution

GPON 10GPON Evolution solution

What Is XG(S)-PON?
XG(S)-PON is evolved from the existing GPON technology, the factors promoting the technology evolution to XG(S)-PON are as follows:
  • Developing services require higher bandwidths and the GPON technology cannot meet bandwidth requirements.
  • Innovative access technologies on the user side require higher bandwidths and the GPON technology will face bandwidth bottlenecks.
  • A greater split ratio and a longer transmission distance increase network construction investments.
XG-PON, 10-Gigabit-capable passive optical network, provides asymmetric 10G transmission (Maximum downstream line rate: 9.953 Gbit/s, Maximum upstream line rate: 2.488 Gbit/s ).
XGS-PON, 10-Gigabit-capable symmetric passive optical network, provides symmetric 10G transmission (Maximum downstream line rate: 9.953 Gbit/s, Maximum upstream line rate: 9.953 Gbit/s ).

10G PON Ready for Various Scenarios

Video innovation demands higher bandwidth and better experience. Diversified enterprise services require high bandwidth.

4K/8K Video
Latency: 25ms
Bandwidth: 150 Mbit/s
Cloud VR
Latency: < 8 ms
Bandwidth: > 1 Gbit/s
Game
Latency: < 50 ms
Bandwidth: > 300 Mbit/s
Telemedicine
Latency: < 10 ms
Bandwidth: > 200 Mbit/s
Online Education
Latency: < 20 ms
Bandwidth: > 750 Mbit/s
Safe City
Real-Time AI Monitoring
Upstream Bandwidth: >200 Mbit/s

Network Evolution Overview

XG(S)-PON has the following features to support smooth evolution from a GPON network to a XG(S)-PON network: The XG(S)-PON wavelength planning does not overlap the GPON wavelength planning,therefore, the GPON and XG(S)-PON share the ODN network in the wavelength division multiplexing mode; The OLT platform supports coexistence of GPON service boards and XG(S)-PON service boards; XG(S)-PON and GPON have the same service provisioning and service deployment operations, they can share the NMS and service provisioning system.

No Wavelength Overlap Between GPON and XG(S)-PON
No Wavelength Overlap Between GPON and XG(S)-PON
No Wavelength Overlap Between GPON and XG(S)-PON
XG(S)-PON Can Co-exists with GPON in the Same ODN

Evolution Solution - Using XG(S)-PON Combo

he PON Combo supports two PON technologies through a combo port. One PON Combo port supports multiple types of ONUs at the same time, implementing hybrid network construction of GPON and XG(S)-PON and smooth evolution from GPON to XG(S)-PON.

EA5801-GP08
EA5801-GP08
  • The XG(S)-PON combo board works with the XG(S)-PON combo optical module to implement a combo port working in GPON mode and XG(S)-PON mode at the same time.
  • The XG(S)-PON combo optical module integrates the GPON optical module, XG(S)-PON optical module, and WDM multiplexer to share ODN resources without adding an external WDM multiplexer.
  • In the upstream direction: After the upstream signal of the ONU enters the XG(S)-PON combo port, the WDM determines whether the signal is a GPON signal or a XG(S)-PON signal according to the wavelength, and then sends the signal to the corresponding channel for processing.
  • In the downstream direction: After the downstream signal is sent from the OLT XG(S)-PON combo port, the GPON ONU and the XG(S)-PON ONU select the wavelength through the internal wavelength filter to receive the signal.

XG(S)-PON Combo Evolution Solution

Network evolution steps:XG(S)-PON combo service board replace the GPON service board→Cut over the optical fiber into XG(S)-PON combo module→Replace or add a XG(S)-PON OUN. Network evolution newly increasing components: XG(S)-PON combo service board and XG(S)-PON combo module.

SmartAX EA5801 Fan Tray
GPON FTTx Network
SmartAX EA5801 Fan Tray
Evolution solution

Evolution Solution - Using Flex-PON

Flex-PON is a flexible PON solution developed by Huawei for GPON and XG(S)-PON. It implements smooth network evolution through the integrated Flex-PON service board.The ports of the Flex-PON service board can work in multiple modes , including: GPON、XG-PON、XGS-PON、GPON&XG-PON Combo、GPON&XGS-PON Combo. The port mode of the Flex-PON service board can be set as required. After the port mode is set, the corresponding ONU can be connected to the optical module that matches the port mode.

Evolution Solution - Using Flex-PON
Flex-PON Board + GPON + XG(S)-PON/Combo + TWDW-PON
Evolution Solution - Using Flex-PON
RTU (Right to Use, license) Flex-PON service board Matched optical module Matched ONU
Port Mode RTU Type Optical Module Type ONU Type
GPON No need GPON GPON ONU
XG-PON XG(S)PON RTU XG-PON XG-PON ONU
XGS-PON XG(S)PON RTU XGS-PON
  • XG-PON ONU
  • XGS-PON ONU
XG-PON Combo XG(S)PON RTU XG-PON Combo
  • GPON ONU
  • XG-PON ONU
XGS-PON Combo XG(S)PON RTU XGS-PON Combo
  • GPON ONU
  • XG-PON ONU
  • XGS-PON ONU
EA5801-GP08
The evolution solution must be completed in five steps:
  • Loading RTU;
  • Configuring the Flex-PON port mode;
  • Replace the optical module;
  • Replacing or adding an ONU;
  • Configuring Services;
EA5801-GP08

XG(S)-PON Combo,Save Rack Space, Reducing 23% TCO

EA5801-GP08
GPON Board + XGS-PON Board + WDM1r
EA5801-GP08
Flex-PON Board + XG(S)-PON Combo SFP

VR Is Rapidly Developing over Wi-Fi

VR Is Rapidly Developing over Wi-Fi
VR Is Rapidly Developing over Wi-Fi
  • Giga Access: 10G PON network confirm 200M bandwidth access for VR
  • 300Mbps Home Wi-Fi: Delicate 5 GHz backhaul throughput ↑3 times
  • Enhanced Algorithm: TCP over dual-band optimization, let RTT 15ms ->7ms VR (game)
Specifications GPON 10G GPON
XG-PON XGS-PON
Wavelength
  • Downstream: 1480-1500 nm
  • Upstream: 1290-1330 nm
  • Downstream: 1575-1580 nm
  • Upstream: 1260-1280 nm
  • Downstream: 1575-1580 nm
  • Upstream: 1260-1280 nm
Center wavelength
  • Downstream: 1490 nm
  • Upstream: 1310 nm
  • Downstream: 1577 nm
  • Upstream: 1270 nm
  • Downstream: 1577 nm
  • Upstream: 1270 nm
Maximum Line Rate
  • Downstream: 2.488 Gbit/s
  • Upstream: 1.244 Gbit/s
  • Downstream: 9.953 Gbit/s
  • Upstream: 2.488 Gbit/s
  • Downstream: 9.953 Gbit/s
  • Upstream: 9.953 Gbit/s
Maximum Physical Transmission Distance 60 km
NOTE:
The physical reach is defined by split ratio, optical module size, and fiber quality.
100 km
NOTE:
The physical reach is defined by split ratio, optical module size, and fiber quality.
100 km
NOTE:
The physical reach is defined by split ratio, optical module size, and fiber quality.
Maximum Split Ratio 1:128
NOTE:
The actual split ratio depends on the optical module model and fiber distance.
1:256
NOTE:
The actual split ratio depends on the optical module model and fiber distance.
1:256
NOTE:
The actual split ratio depends on the optical module model and fiber distance.
Interface Board H901GPHF , H902GPHF , H901GPSF ,
H902GPSF , H901GPSFE , H902GPHFE
H901XGHD , H901XGSF , H901XGHDE H901TWED , H902TWHD , H901XSHF ,
H902XSHF , H902XSHD , H901TWEDE
Combo Board H902CGHD , H901CGID , H901CGHF , H902CGHF , H901CSHF , H902CSHF , H902CSHD
Flex-PON Board H901FLHF , H902FLHF , H903FLHF
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