Evolution Series XPAND IP Long Haul

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1 1 Evolution Series TM Packet Long Haul Highly flexible, multiservice IP/Ethernet microwave radio system 4 GHz to 13 GHz

Transcript of Evolution Series XPAND IP Long Haul

Page 1: Evolution Series XPAND IP Long Haul

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Evolution SeriesTM

Packet Long Haul

Highly flexible, multiservice

IP/Ethernet microwave radio system

4 GHz to 13 GHz

Page 2: Evolution Series XPAND IP Long Haul

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Long Experience Base

• SDH Long Haul radios since 1993

• More than 50 000 TRX installed base

• Patented technologies results in

OPEX savings

• Common platform concept with

unique flexibility with SDH/SONET or

Native Ethernet

• Turn Key specialists with extensive

system design and services expertise

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Evolution Long Haul system – IP or SDH

System highlights:

• Frequency bands: 4, 5, L6, U6, 7, 8, 10, 11 GHz

• Multi channel system, up to 10 RF channels on one polarization

• Transceivers cover full band !!

• Most power efficient system in the market (~70W/channel)

• Multi-gigabit Ethernet Interface (Native Ethernet up to 1.6 Gbit/s)

• Space Diversity IF Combiner

• CCDP/XPIC for 28 MHz, 40 MHz and 56/60 MHz channels

• Outdoor version with 4 channels per polarization

SDH/SONET

• STM-1/OC-3, STM-4/OC-12

• Gigabit Ethernet (up to 600 Mb/s PoS)

• N+1 protection switching (N≤7)

• DXC Unit or Frame option

• Option for 2Mb/s Ethernet wayside

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XCVR/ODU unit

• The transceiver covers a complete

frequency band – single spare!

• Capacity and modulation

independent (covers 10 - 400 Mb/s)

• Direct RF modulation with adaptive

power amplifier control

• No FANs – convection cooling only

• 20 dB ATPC range

• IF Combiner Space Diversity with 3dB

combiner gain

• Same unit for Indoor and Outdoor

Leading Microwave Technology

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Frequency Arrangement

• Flexible branching solutions meet RF

spectrum congestion challenges

• Efficient spectrum utilization with co-

channel configurations with XPIC

• 56/60 MHz option - 3+0 for transparent

Gigabit Layer 1

• Independent configuration of modem &

radio allows for mix of ~28 MHz and

40MHz BW in a terminal

• Mix of SDH/SONET and IP/Ethernet

systems in common branching

1 3 5

2 4 6

V

H

28/30/40 MHz

1 2 3 4 5 6V

H

28/30/40 MHz

ACAP

ACCP

1 3 5

2 4 6

V

H

28/30/40 MHzCCDP

V

H

2 x 28/30 MHz

1 3

2

56 MHz option

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• Scalable BB system, 2 ch per basic IFU

• IFUs connected via back-panel

• RPS (n+1) bus for SDH/SONET

• Multichannel Aggregation for Packet

• XPIC interconnection for CCDP systems

• Gigabit Interface and Controller

• 4 x 100/1000Base-TX + 2 x 1000/Base-FX

• Synchronous Ethernet

• 0 - 75 E1 option

Interfaces/Base band – Architecture

High Speed Data Bus

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Multichannel - Adaptive Bandwidth Control (ABC)

• Multichannel ABC is an effective technology for transporting packets over

multiple dynamic “links”

• Works on layer 1 and is independent of frame types and packet flows

• Automatically scales with available channels/links

• Handles from 2 RF channels to 8 RF channels and from 10 to 400 Mb/s per

carrier (RF channel)

- Max aggregated payload (Layer2) is 1.6 Gb/s

IEEE 802.1 Link Aggregation does not

work if a link is used between two MPLS

switches the Ethernet segment is a

single flow as the MAC address is the

same for all packets and the IP address

is “hidden” behind the MPLS tag

Degraded channel, remove from “mapper” Adaptive

Modulation Channel

Failure

Dynamic channel capacity

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All indoor vs. Split Mount

Elliptical

Wave Guide

IDU

Baseband part

XCVR &

branching

$$$

- dB Heat

All Indoor

Radio-Terminal

Coax cable

• Low Loss Split Mount Solution

- N+0/N+1 system

- 4 channel per polarisation

- Combiner Space Diversity option

- Single or Dual Polarisations

- No waveguide loss

- Heat dissipation removed from indoor

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Low loss Split Mount Solution

• 4 XCVRs per polarisation

• RF Filters - not cascaded 3 dB

hybrids

• Combiner Space Diversity

option

• Single or Dual Polarisations

• No waveguide loss

• Heat dissipation removed from

indoor

Evolution Long Haul

Split Mount

12 dB improved system gain over cascaded couplers *

* : 4 RF channels per pol.

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Capacity, Bandwidth & Modulation matrix (ETSI - BWs)

XPAND Gross payload vs. RF BW

MHz 7 14 28 40 56

4QAM 8 16 32 - -

16QAM 16 40 80 - -

32QAM - - 100 - 155

64QAM - 56 - 155 -

128QAM 32 - 155 - -

256QAM - - - - -

METRO Gross payload vs. RF BW

MHz 7 14 28 40 56

32QAM - - - - 155

64QAM - - - 155 -

128QAM - - 155 - -

256QAM - - - - 311

LH Gross payload vs. RF BW

MHz 7 14 28 40 56

64QAM - - - 155 -

128QAM - - 155 - -

XPAND IP Gross payload vs. RF BW/ODU

MHz 7 14 28 40 56

4QAM 8 17 35 41 80

16QAM 20 40 83 100 199

32QAM 25 51 109 130 244

64QAM 31 60 133 170 294

128QAM 34 71 160 210 334

256QAM 37 75 182 240 350

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Hybrid radio frame - best of both worlds

• A traditional “packet over TDM” approach

encapsulates packets in the E1/T1 frame

• The Evolution Series uses a Hybrid frame

structure. The frame size is optimized for

maximum capacity in a given RF channel

• The frame might be used for TDM circuits,

Ethernet packets or a combination

• Enables transport of up to 75E1s or

96T1s and scalable Ethernet

• Same efficiency as native framing

• “Native IP” radios are optimized for data

and has no TDM (E1s) capacity

• TDM circuits are handled by circuit

emulation

• Adds significant overhead and delay

L2

TDM (E1s)

Ethernet

Radio Frame

TDM (E1s)

Ethernet

Radio Frame

TDM (E1s)

Ethernet

Radio Frame

TDM mux

TDM

encap.

TDM mux

Circuit

emulation

PWE

Padding

4 - 5 % overhead

0,5 % overhead

2 - 20 % overhead *

*: depend on number of E1 circuits

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Evolution Series - Graceful migration to IP

• Migrating to IP transmission without replacing legacy TDM systems

• Hybrid transmission vs circuit emulation

- Lower overhead - better spectrum utilisation

• QoS enabled infrastructure - enables differentiated services

• Best of both worlds - effective TDM and effective Ethernet solutions

• Synchronous Ethernet (or 2 MHz in/out) timing distribution in Ethernet only

networks

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Two configuration modes - Wide coverage

METRO - SDH/SONET Access

• 155 Mb/s and 311Mb/s XCVR capacity

• STM-1/OC-3 and STM-4/OC-12

• Embedded ADM mux / X-connect

• E1/T1 up to 63E1, 84T1

• E3/DS3 up to 3E3, 3DS3

• 4xFE/GbE up to 600 Mb/s

• Traffic Node with 4 radio directions

• CCDP with XPIC

• HSB, n+0 or n+1 configurations

• Long Haul Multichannel systems

XPAND IP – Native IP/Ethernet

• Up to 450 Mb/s per ODU

• Up to 1.6 Gb/s scalable Ethernet Link

• 6 x 1000BASE-T ports (2xSFPs)

• 4 WAN (mappers) - 450 Mb/s each

• Embedded carrier Ethernet switching

• 4 Radio directions

• 802.1Q/ad tag insert/strip/swap

• QoS, RMON, RSTP/MSTP, CFM/Y.1731

• Adaptive Modulation (ACM)

• Scalable 0 to 75E1/96T1 TDM capacity

• Embedded TDM X-connect, 4 directions

• “SNCP” ring protection

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Evolution Series IP competitive advantages

Site Savings

All Indoor or Split-

Mount

Scalable Capacity

10 to 400 Mb/s per channel

Up to 1.6 Gb/s per Link

Multichannel ABC

TDM option

Option for 75E1 TDM capacity

Selectable priority in ACM

STM-1 interface

Carrier Ethernet

VLAN, EVC, QoS

RSTP, MSTP, CFM

SyncE and 2 MHz Sync