Nokia 1830 PSS‑4 / PSS‑8 / PSS‑16 / PSS‑32 Platform & Card Reference

Nokia 1830 PSS Platform Overview & Interface Card Guide

Alcatel‑Lucent 1830 PSS‑32 DWDM P‑OTN optical transport chassis telecom blog hero

Published based on Nokia public datasheet document code SR2001040977EN, covering the 1830 Photonic Service Switch family: PSS‑4, PSS‑8, PSS‑16 Version2 and PSS‑32. These hardware platforms were originally released as Alcatel‑Lucent 1830 PSS before the business acquisition.

Originally developed by Alcatel‑Lucent, this product portfolio now belongs to Nokia. It is a carrier‑grade multilayer DWDM / P‑OTN optical transport family widely deployed for metro aggregation, long‑haul backbone, submarine transmission, 5G mobile backhaul and cloud data‑center‑interconnect (DCI) services. Many existing field sites are still running legacy Alcatel‑Lucent 1830 PSS board and chassis hardware from earlier generations.

Each chassis shares unified software, hardware management and SDN control via Nokia NSP/NFM‑T, allowing operators to build flexible “pay‑as‑you‑grow” optical networks from edge to core. Existing Alcatel‑Lucent 1830 deployments can be managed with exactly the same NSP management stack after re‑branding.

Four Chassis Quick Comparison

  • Nokia 1830 PSS‑4: Compact shelf for metro‑edge and access‑side DWDM deployment. Capacity: 240 Gb/s; 2 full‑height or 4 half‑height slots. Note: 600G coherent wavelength support applies to PSS‑8/16/32 platforms; PSS‑4 is limited to lower capacity for edge applications. This compact shelf is also common for older Alcatel‑Lucent 1830 edge network roll‑outs.
  • Nokia 1830 PSS‑8: Metro‑optimized platform, suitable for medium‑size regional sites. Capacity: 1.6 Tb/s; 4 full‑height or 8 half‑height slots.
  • Nokia 1830 PSS‑16 (Version2): Mid‑high capacity metro & regional optical transport node. Capacity: 3.2 Tb/s; 8 full‑height or 16 half‑height slots.
  • Nokia 1830 PSS‑32: Largest shelf of this series, designed for multi‑degree CDC‑F ROADM, large‑scale coherent transponder deployment and ultra‑long‑haul transmission scenarios. Capacity: 6.4 Tb/s; 16 full‑height or 32 half‑height slots. Many operators search for replacement Alcatel‑Lucent 1830 PSS‑32 board spare parts for maintenance of big core optical sites.

Important note: Weight data in this datasheet refers to complete chassis shelf weight, not individual line‑card weight. Single‑board weight is not published within this public overview document, applies both for Nokia‑branded and legacy Alcatel‑Lucent board variants.

Main Technology Highlights From Datasheet

  1. PSE‑3 Super‑Coherent DSP: Supports flexible‑rate coherent wavelengths from 100G up to 600G (available on PSS‑8/16/32 platforms), probabilistic constellation shaping for long‑reach fiber transmission up to 10 000 km+
  2. CDC‑F / iROADM Wavelength Routing: Colorless‑Directionless‑Contentionless‑Flexgrid wavelength switching for flexible DWDM mesh networks
  3. Integrated Packet‑OTN: SR‑OS enabled Carrier‑Ethernet processing, MEF 2.0 E‑Line / E‑LAN / E‑Tree services, MPLS‑TP, SyncE & IEEE 1588v2 timing synchronization for 5G transport; backward‑compatible for existing Alcatel‑Lucent 1830 service configurations
  4. Multi‑layer protection & restoration: 50ms‑grade protection switching for optical, OTN and packet service layers
  5. SDN‑ready: Managed by Nokia NSP controller via NETCONF/YANG, SNMPv3, TL1 and CLI interfaces

Full Interface Card List (Card‑ID Reference)

⚠️ Critical procurement reminder: This public datasheet only lists Card‑ID (panel‑side card name). It does NOT include Nokia ordering part‑numbers (8DGxxxxAA series). Card‑ID appears on hardware front panel and NSP network manager; ordering PN must be cross‑checked with planning guide or tender documents. This naming convention is identical for legacy Alcatel‑Lucent 1830 board and later‑re‑branded Nokia spare cards.

Table below shows all interface cards from official datasheet, the Platform column indicates which chassis each card supports. On mobile device, scroll horizontally to view full table.

Platform Card ID Card description Half, full height Notes
Transponder/Muxponder
PSS‑8, ‑16, ‑32 D5X500, D5X500Q, D5X500L, D5X500 Subsea 500G Muxponder 2 full slots Configurable 100G – 500G DWDM line with up to 5 x 100G clients • CFP4 and QSFP28 (D5X500Q) client options • C & L (D5X500L) band options • Subsea option (D5X500 Subsea)
PSS‑8,‑16,‑32 S4X400H 600G Muxponder full • 1 x 100G ‑ 600G DWDM line • 4 x QSFP28 (100GE/OTU4) clients • 200G client backplane connectivity
All 12P120 12 x 10G Flexible Transponder/Client full Full‑slot 6 x 10G transponder or 12 x 10G as programmable 10G ports
All 20P200 20 x 10G Multiservice Client full High‑density multiservice clients with distributed packet/OTN fabric
PSS‑8,‑16,‑32 S13X100R, S13X100E 100G Universal: transponder, muxponder, uplink, ADM full 10G, 40G, and 100G clients: 100 GE/OTU4, 40GE/OTU3, 10GE, OTU2, OC‑192/STM‑64, CFP4, QSFP28/QSFP+, SFP+ • Low latency, 100G wire speed encryption (AES‑256) (S13X100E)
All 11DPM8 8 x ANY Card full • 8 x SFP clients: OC‑3/‑12/STM‑1/‑4, OC‑48/STM‑16, 10/100 base T, GE • 2 x XFP lines: OTU2 (CWDM, DWDM, B&W)
PSS‑4, ‑8, ‑16 11QPA4B 4 x 10G Transponder half • 4 x 10G SFP+ (OTU2/2e) network ports • 4 x 10G SFP+ 10GE client ports
All 8P20 10G Dual 8xAny Muxponder half • 2 x SFP+ lines • 8 x SFP clients for 1 GE, OC3/STM1, OC48/STM16
All S2AD200R, S2AD200H 200G Muxponder half • 1 x 100G QPSK/200G 16QAM line • 2 x QSFP28 clients for 100GE, OTU4 • Regional “R” and long Haul “H” variants
Packet
All 11OPE8 8 x 10G Carrier Ethernet Switching Muxponder full SR OS‑enabled for fully managed, end‑to‑end packet solutions across Nokia Optical and IP/MPLS portfolios
All 11QCE12X 4 x 10G WDM, 12/22 x GE/FE Client Carrier Ethernet Switching Muxponder full • SR OS‑enabled for fully managed, end‑to‑end packet solutions across Nokia Optical and IP/MPLS portfolios • Extended temperature operation
PSS‑8,‑16 1CE100/ 1CE100Q 12CE120, 12CE121 Carrier Ethernet Switch Cards full • 1 x 100GE 1CE100/1CE100Q (QSFP28) • 12 x 10GE, ODU2/2e/1e • Up to 480 Gb/s switching capacity over a mix of Ethernet and/or OTN interfaces • SR OS‑enabled
PSS‑8,‑16 1ETY100 100GE QSPF28 extension port for 1CE100Q/1CE120 half Provides flexible line packet networking: • 100GE B&W NNI • 200G DWDM Ethernet rings • In‑band SyncE and PTP
Security/Encryption
All 11QPEN4 4 x 10G Encrypted Transponder full • 4 x XFP tunable line, 4 x XFP clients • AES‑256 encryption per line/client
Amplifiers
PSS‑8, ‑16, ‑32 RA2P‑96 Long Haul – 2 Pump Raman, no mid‑stage access full 2 pump C band Raman amplifier supporting 96 channels
PSS‑16, ‑32 AAR‑8A Amplifier Array – 8 Amps full • Amplifier array for add/drop block amplification in • One amplifier connects to a single MCS CDC‑F configuration
PSS‑16, ‑32 AAR2X8A, AAR2X8AL (L‑band) Double drop capacity amplifier array full • Amplifier array for add/drop block amplification in • One amplifier connects up to two MCS CDC‑F configuration
PSS‑8, ‑16, ‑32 ASWG Switched Gain EDFA Amplifier full Switched gain C band EDFA amplifier
PSS‑16, ‑32 AWBING Ultra‑Wideband EDFA Ingress Amp 2 full slots Switched gain C+L band EDFA ingress amplifier
PSS‑16, ‑32 AWBEGR Ultra‑Wideband EDFA Egress Amp 2 full slots Switched gain C+L band EDFA egress amplifier
PSS‑16, ‑32 AWBILA Ultra‑Wideband ILA 2 full slots Switched gain C+L band EDFA ILA amplifier
Wavelength routing
PSS‑16, ‑32 WR20‑TFM 1 x 20 Twin Flex WSS, with MPO connectors 2 full slots • Enables 20‑degree node configurations. Standard 50 GHz wavelength spacing and Flexgrid with MPO connector • Supports up to 8 degree CDC‑F node configuration
PSS‑16, ‑32 MCS8‑16 Multicast switch 8‑degree & 16 port full • Multicast switch used in CDC‑F add/drop block • Supports up to 8 degrees CDC‑F node configuration
PSS‑16, ‑32 MSH‑FSM Mesh fiber shuffle for 8‑degrees 2U passive module • Enables WR20TFM based CDC‑F architecture with one centralized fibering shelf Supports up to 8 optical degrees
All OTDR Optical Time Domain Reflectometry full • OTDR is used for fiber characterization and fault locating • Enables WR20TFM based CDC‑F architecture with one centralized fibering shelf Supports up to 8 optical degrees
All MONOTDR OTDR Monitoring half MONOTDR is an external filter to support OTDR function on cards that don’t have an embedded OTDR filter
PSS‑8,‑16,‑32 IROADMF Integrated iROADM Short Span full Single degree for 2D to 4D ROADMs Short‑span fixed gain ingress amplifier, suitable for spans of up to ~50 km
PSS‑8,‑16,‑32 IROADMV Integrated iROADM Long Span full Single degree for 2D to 4D ROADMs Long‑span variable gain ingress amplifier, suitable for spans of up to 100 km
PSS‑8,‑16,‑32 WR8‑88AF 8‑degrees, 96 channels, FlexGrid 2 full slots • WSS card used in ROADM configurations • Flexible grid, 96 channels
PSS‑16, ‑32 WR20‑TF Twin 1x20 WSS Flexgrid 2 full slots Enabling 20‑degree node configurations; standard 50 GHz wavelength spacing and Flexgrid support
All WTOCM‑F Flexgrid OCM card half OCM solution for Flexgrid support. Supports both standard fixed grid & Flexgrid Monitors input signals on all 4 ports via separate optical taps
PSS‑8,‑16,‑32 IROADM9R 1x9 Integrated ROADM card full • Integrated ROADM, 1x9 WSS • Supports an optical degree per card, including the amplifier and WSS • Supports terminal, classic mux/ demux ROADM and C‑F ROADM architectures
PSS‑8, ‑32 SFD5 5ch SFD half 5ch SFD (DWDM FOADM) for access/metro applications
PSS‑8,‑16,‑32 SFDC8 8ch SFD half 8ch SFD (DWDM FOADM) for access/metro applications
PSS‑16, ‑32 IRDM20 Twin 2x20 integrated ROADM card full • Integrated ROADM, twin 2x20 WSS • Supports an optical degree per card, including amplifier and WSS • Ideal for CDC‑F applications • 96 channel capable • Integrated test signal
PSS‑16, ‑32 IRDM32 Twin 2x32 integrated ROADM card full • Integrated ROADM, twin 2x32 WSS • Supports an optical degree per card, including amplifier and WSS • Ideal for CDC‑F applications • 96 channel capable • Integrated test signal
PSS‑16, ‑32 MLFSB MPO to LC break out fiber shuffle, 1U passive module 1U passive module High capacity 12‑fiber‑MPO cable to LC break out • Six MPO‑LC break out modules in one shelf • Enables iROADM20/32 C‑F architectures
Other
PSS‑4, ‑8, ‑16, ‑32 MVAC Multiple Variable Attenuation Card (8 ports) half Inserts Wavelength Tracker OAM on alien optics transmission
All OPSA Optical Protection Switch Card half Provides 1+1 OCh, OMSP or OLP protection over DWDM lines
All OPSB Optical Protection Switch Card half Provides 1+1 protection with shelf diversity
All OPS‑Flex Optical Protection Switch Card half Provides 1+1 OCH protection
PSS‑8, ‑16, ‑32 OPSBS Multi‑port Optical Protection Switch Card full Supports 5 independent client‑side OPS modules, with each module supporting the same functionality as the OPSB card

Note: Controller boards, fan trays, power filter modules, DCM dispersion compensation modules and filler panels are NOT covered in above card table. Those hardware items are listed in full spare‑part BOM documentation. Card feature support also depends on software release version, valid both for Nokia‑branded and legacy Alcatel‑Lucent 1830 hardware.

Common Application Scenarios

  1. Metro & Regional DWDM transport for operator business services & maintenance of legacy Alcatel‑Lucent 1830 PSS optical networks
  2. 4G / 5G mobile midhaul & backhaul bearer networks
  3. Hyperscale cloud data‑center‑interconnect (DCI)
  4. Ultra‑long‑haul and submarine cable transmission systems
  5. Private optical networks for energy, railway, government and large‑enterprise customers
  6. Network maintenance & EOL hardware upgrade projects for existing deployed Alcatel‑Lucent / Nokia 1830 PSS sites, replacement of failed Alcatel‑Lucent board modules

Sourcing Tip For 1830 PSS Spare‑Parts

When you source 1830 PSS spare hardware:

  • Distinguish Card‑ID (panel name) and Ordering Part‑Number (8DGxxxxAA). The public datasheet only gives Card‑ID for functional reference, this rule applies equally when you look for legacy Alcatel‑Lucent 1830 board spare parts.
  • Confirm chassis compatibility from the Platform column on datasheet, avoid ordering cards incompatible with your target shelf, whether you own newer Nokia‑branded units or older Alcatel‑Lucent‑origin hardware.
  • Hardware feature availability also depends on software release version, check release notes before deployment.
  • For operators maintaining legacy Alcatel‑Lucent‑origin 1830 PSS networks, new‑surplus and fully‑tested refurbished spare‑parts can effectively reduce OPEX against OEM high pricing for your Alcatel‑Lucent 1830 replacement board requirements.

Request Quotation & Part‑Number Verification for Nokia / Alcatel‑Lucent 1830 PSS Hardware

Kindly provide target Card‑ID or Nokia / Alcatel‑Lucent part‑numbers for faster quotation feedback.

Zurück zum Blog

Hinterlasse einen Kommentar