Alcatel-Lucent 8DG60740AA 02 1830 PSS 10x10G Muxponder Card

Description

3. Key Technical Specifications

(Variant identified as 10×10G muxponder class based on platform data and field listings — confirm exact sub-variant before deployment.)

• Platform Compatibility: Alcatel-Lucent 1830 PSS (PSS-8 / PSS-16 / PSS-32)
• Function Type: Muxponder (10×10G aggregation to 100G line)
• Client Interfaces: 10 × 10GE / OTU2 (SFP+ based, variant dependent)
• Line Interface: 100G coherent DWDM
• Optical Band: C-band / extended band (depends on optic configuration)
• Switching Layer: OTN (ODU2 → ODU4 mapping)
• Backplane Interface: High-speed OTN fabric
• Power Consumption: ~200–250 W per slot (typical muxponder class)
• Cooling Requirement: Forced air via chassis fan tray
• Operating Temperature: −5 to +55 °C (central office)
• Management: 5620 SAM (SNMP / TL1 / CLI)
• Revision: 02 (hardware revision control)

4. Product Introduction

Alcatel-Lucent 8DG60740AA 02 is a 10×10G muxponder line card for the 1830 PSS optical transport platform. It aggregates multiple 10G client signals into a single 100G DWDM wavelength, enabling efficient fiber utilization in metro and long-haul networks.

In real deployments, this card is commonly used in aggregation nodes where multiple 10GE services need to be transported over a single wavelength. It’s still widely retained in legacy networks because replacing it with newer 100G/200G architectures often requires redesigning the optical layer, not just swapping hardware.

5. Installation & Configuration Guide

Stage 1: Pre-Installation Preparation (Estimated: 15 minutes)

• ⚠️ Safety First: Notify NOC, drain traffic from affected services, disable wavelengths. DWDM systems carry live traffic — plan outages carefully.
• Tools Required: ESD strap, optical power meter, fiber cleaning kit, inspection scope, multimeter, smartphone.
• Data Backup: Export node config from 5620 SAM, record service mappings (10G → 100G), capture optical levels.

Stage 2: Removing the Old Module (Estimated: 10 minutes)

1. Disable all associated client and line ports.
2. Label and disconnect all SFP+ and DWDM fibers.
3. Release ejector levers evenly.
4. Pull card straight out to protect backplane connectors.
5. Inspect slot and airflow path.

• ⚠️ Note: Keep the old card for mapping reference — especially client port assignments.

Stage 3: Installing the New Module (Estimated: 10–15 minutes)

1. Wear ESD protection. Confirm exact model and revision (8DG60740AA 02).
2. Insert along guide rails; ensure smooth engagement.
3. Lock ejector levers firmly.
4. Reinstall optics and reconnect fiber.

• Self-Checklist:
  • Correct slot type
  • Client ports mapped correctly
  • Fiber polarity verified
  • Card fully seated

Stage 4: Power-On & Testing (Estimated: 20–30 minutes)

• Pre-Power Check: Inspect fiber cleanliness and verify no excessive attenuation.
• Power-On Steps:
  1. Enable slot via 5620 SAM or CLI.
  2. Confirm card recognition and inventory status.
  3. Verify all 10G client ports are detected.
  4. Check OTN mapping (ODU2 grouping into ODU4).
  5. Validate optical metrics (Tx/Rx, OSNR).
  6. Run traffic test or BER validation.
• ⚠️ Troubleshooting Note:
  • Client ports down → SFP+ compatibility or port config issue
  • No DWDM signal → wavelength provisioning mismatch
  • High BER → OSNR or fiber contamination

6. Frequently Asked Questions (FAQ)

Q1: Can this card be hot-swapped?
Yes, the 1830 PSS platform supports hot-swapping. Still, I recommend draining traffic first — I’ve seen transient hits during insertion.

Q2: Is this model obsolete?
Yes. After Alcatel-Lucent was absorbed into Nokia, newer platforms moved to higher-density optics. This card is now mainly available as surplus.

Q3: What’s the difference between this and a transponder card?
A muxponder aggregates multiple client signals (10×10G → 100G).
A transponder typically maps fewer or single services directly to a wavelength.
Mixing them incorrectly will break your service design.

Q4: Why are my 10G ports not coming up?
Common causes:

• Unsupported SFP+ modules
• Incorrect OTN mapping
• Port not provisioned in 5620 SAM

I’ve seen engineers assume ports auto-enable — they don’t.

Q5: Will I lose configuration during replacement?
No. Configuration is stored at the node level. However, service mapping must match the card type exactly, or it won’t come up cleanly.

Q6: Why is pricing inconsistent across suppliers?
Supply comes from:

• Carrier decommissioning
• Network upgrades (10G → 100G/200G)

Condition varies widely. Always request test reports and optical performance data.

Q7: What’s the most common installation mistake?
❗ Incorrect client-to-line mapping.
I’ve seen teams wire everything correctly but forget OTN grouping — result: no traffic, hours lost.

8DG60740AA 02

SOP Quality Transparency (Inspection & Testing Process)

1. Inbound Inspection & Traceability

• Verified against carrier decommission records
• Serial number and labeling validated
• Optical ports inspected under scope (no scratches/contamination)
• PCB checked for oxidation or rework

2. Live Functional Testing

• Installed in a genuine 1830 PSS shelf
• Power-on diagnostics verified (LED sequence)
• All 10 client ports tested with SFP+ optics
• 100G DWDM link established in loopback
• 24-hour BER test under load
• Test report generated (available upon request)

3. Electrical Parameter Testing

• Insulation resistance >10 MΩ @ 500 V Megger
• Ground continuity verified
• Power draw measured using Fluke 115

4. Firmware & Configuration Verification

• Hardware revision confirmed (02)
• Compatibility checked with 5620 SAM release
• Port mapping validated

5. Final QC & Packaging

• QC sign-off with traceability record
• ESD-safe sealed packaging
• Shock-protected industrial carton
• QC Passed label with inspection date

Test photos and videos available upon request.