1. Manuals
  2. Brands
  3. Alcatel-Lucent Manuals
  4. Switch
  5. 1675 LambdaUnite
  6. Installation and system turn-up manual

Alcatel-Lucent 1675 LambdaUnite Installation And System Turn-Up Manual

Multiservice switch (mss)
Hide thumbs
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
58
59
60
61
62
63
64
65
66
67
68
69
70
71
72
73
74
75
76
77
78
79
80
81
82
83
84
85
86
87
88
89
90
91
92
93
94
95
96
97
98
99
100
101
102
103
104
105
106
107
108
109
110
111
112
113
114
115
116
117
118
119
120
121
122
123
124
125
126
127
128
129
130
131
132
133
134
135
136
137
138
139
140
141
142
143
144
145
146
147
148
149
150
151
152
153
154
155
156
157
158
159
160
161
162
163
164
165
166
167
168
169
170
171
172
173
174
175
176
177
178
179
180
181
182
183
184
185
186
187
188
189
190
191
192
193
194
195
196
197
198
199
200
201
202
203
204
205
206
207
208
209
210
211
212
213
214
215
216
217
218
219
220
221
222
223
224
225
226
227
228
229
230
231
232
233
234
235
236
237
238
239
240
241
242
243
244
245
246
247
248
249
250
251
252
253
254
255
256
257
258
259
260
261
262
263
264
265
266
267
268
269
270
271
272
273
274
275
276
277
278
279
280
281
282
283
284
285
286
287
288
289
290
291
292
293
294
295
296
297
298
299
300
301
302
303
304
305
306
307
308
309
310
311
312
313
314
315
316
317
318
319
320
321
322
323
324
325
326
327
328
329
330
331
332
333
334
335
336
337
338
339
340
341
342
343
344
345
346
347
348
349
350
351
352
353
354
355
356
357
358
359
360
361
362
363
364
365
366
367
368
369
370
371
372
373
374
375
376
377
378
379
380
381
382
383
384
385
386
387
388
389
390
391
392
393
394
395
396
397
398
399
400
401
402
403
404
405
406
407
408
409
410
411
412
413
414
415
416
417
418
419
420
421
422
423
424
425
426
427
428
429
430
431
432
433
434
435
436
437
438
439
440
441
442
443
444
445
446
447
448
449
450
451
452
453
454
455
456
457
458
459
460
461
462
463
464
465
466
467
468
469
470
471
472
473
474
475
476
477
478
479
480
481
482
483
484
485
486
487
488
489
490
491
492
493
494
495
496
497
498
499
500
501
502
503
504
505
506
507
508
509
510
511
512
513
514
515
516
517
518
519
520
521
522
523
524
525
526
527
528
529
530
531
532
533
534
535
536
537
538
539
540
541
542
543
544
545
546
547
548
549
550
551
552
553
554
555
556
557
558
559
560
561
562
563
564
565
566
567
568
569
570
571
572
573
574
575
576
577
578
579
580
581
582
583
584
585
586
587
588
589
590
591
592
593
594
595
596
597
598
599
600
601
602
603
604
605
606
607
608
609
610
611
612
613
614
615
616
617
618
619
620
621
622
623
624
625
626
627
628
629
630
631
632
633
634
635
636
637
638
639
640
641
642
643
644
645
646
647
648
Table of Contents

Advertisement

Quick Links

Download this manual
1675 LambdaUnite MultiService
Switch (MSS)
Release 10.0
Installation and System Turn-up Guide
365-374-179R10.0
CC109670497
Issue 2
June 2009
Alcatel-Lucent - Proprietary
This document contains proprietary information of Alcatel-Lucent and
is not to be disclosed or used except in accordance with applicable agreements.
Copyright © 2009 Alcatel-Lucent
Unpublished and Not for Publication
All Rights Reserved

Advertisement

Table of Contents
loading

Related Manuals for Alcatel-Lucent 1675 LambdaUnite

Summary of Contents for Alcatel-Lucent 1675 LambdaUnite

  • Page 1 See notice on first page 1675 LambdaUnite MultiService Switch (MSS) Release 10.0 Installation and System Turn-up Guide 365-374-179R10.0 CC109670497 Issue 2 June 2009 Alcatel-Lucent - Proprietary This document contains proprietary information of Alcatel-Lucent and is not to be disclosed or used except in accordance with applicable agreements.
  • Page 2 See notice on first page Alcatel, Lucent, Alcatel-Lucent and the Alcatel-Lucent logo are trademarks of Alcatel-Lucent. All other trademarks are the property of their respective owners. The information presented is subject to change without notice. Alcatel-Lucent assumes no responsibility for inaccuracies contained herein. Copyright ©...
  • Page 3 Contents About this information product Purpose xxxiii xxxiii ..................................... Reason for reissue xxxiii xxxiii ................................Safety information xxxiii xxxiii ................................Intended audience xxxiii xxxiii ................................How to use this information product xxxiii xxxiii ........................... Conventions used xxxv xxxv ................................... Orientation aids xxxvii xxxvii ...................................
  • Page 4 Contents General notes on safety Overview ...................................... Structure of hazard statements ............................Basic safety aspects ................................. Specific safety areas Overview 1-10 1-10 ....................................Laser safety 1-11 1-11 ....................................Optical circuit pack specifications 1-14 1-14 ..........................Laser product classification 1-16 1-16 ..............................
  • Page 5 Contents Mark descriptions 2-14 2-14 ................................... Sequence of steps 2-15 2-15 ................................... Mechanical installation Overview ...................................... ETSI-2 installation Overview ...................................... Hardware items ..................................Technical data for rack ................................Procedure 3-1: Eye bolts ............................... Procedure 3-2: Floor mounting ............................Procedure 3-3: Top mounting 3-13 3-13 ............................
  • Page 6 Contents Procedure 3-13: Rack extension (height) 3-49 3-49 ........................Procedure 3-14: Rack adapter kit 3-51 3-51 ............................ Technical data for PDP 3-54 3-54 ................................ Technical data for subrack 3-56 3-56 ..............................Procedure 3-15: Mounting the subracks into rack 3-58 3-58 ....................
  • Page 7 Contents TI-DS1 Station clock I/O interface (100/110 Ω) 4-62 4-62 ...................... TI-E1 Station clock I/O interface (120 Ω) 4-66 4-66 ........................TI-E1 Station clock I/O interface (75 Ω) 4-69 4-69 ........................LAN 10/100 Base-T interface 4-72 4-72 ............................Fiber cabling Overview 4-76 4-76...
  • Page 8 Contents Configuration rules 5-40 5-40 ................................Procedure 5-6: Mounting the circuit packs 5-54 5-54 ......................... Physical installation check 5-62 5-62 ..............................Exit checklist – Part I Overview ...................................... Physical and power installation exit checklist ......................Power supply measurements ..............................Part II: NE provisioning and stand-alone installation test NE provisioning Overview ......................................
  • Page 9 Contents Stand-alone test procedures Overview ...................................... Procedure 8-1: LED test ................................ Procedure 8-2: Alarm reporting tests ..........................Procedure 8-3: NE synchronization test .......................... Procedure 8-4: Optical power meter test 8-11 8-11 ........................Procedure 8-5: Receiver sensitivity test 8-16 8-16 ........................Procedure 8-6: DS3 transmission and protection test 8-24 8-24...
  • Page 10 Contents Procedure 10-8: SNCP/UPSR test setup 10-43 10-43 ........................Test procedures Overview 10-50 10-50 ....................................Procedure 10-9: Line timing test 10-51 10-51 ........................... Procedure 10-10: 1+1 MSP/APS test 10-54 10-54 .......................... Procedure 10-11: 2-fiber MS-SPRing/BLSR test 10-59 10-59 ....................Procedure 10-12: 4-fiber MS-SPRing/BLSR test 10-65 10-65 ....................
  • Page 11 Contents Procedure A-1: Power failure ............................. Procedure A-2: Fan unit test failure ..........................Procedure A-3: NE synchronization failure ........................Procedure A-4: CTL failure ..............................Procedure A-5: CTL protection test failure A-10 A-10 ........................ Procedure A-6: XC protection test failure A-11 A-11 ........................
  • Page 12 Procedure D-7: Mounting the anti-recirculation plate D-14 D-14 ................... Result D-15 D-15 ......................................Mixed configuration: 1675 LambdaUnite MSS and 1665 DMX (High Capacity) Overview ...................................... Procedure E-1: Mounting the 1675 LambdaUnite MSS subrack ................. Procedure E-2: Mounting the heat baffle ........................®...

  • Page 13: Table Of Contents

    List of tables Part I: Physical and power installation Safety Optical circuit pack specifications 1-14 1-14 ........................Laser classes (FDA/CDRH regulations) 1-17 1-17 ....................... Laser classes (IEC 60825-1 standard) 1-17 1-17 ......................General information Required tools 2-12 2-12 ................................. Required test equipment 2-12 2-12 ............................
  • Page 14 List of tables Available fan power cables 4-17 4-17 ..........................Pin assignments (fan power cables) 4-18 4-18 ....................... Available controller cables 4-28 4-28 ..........................Pin assignments (Controller cable) 4-29 4-29 ......................... Available subrack alarm cables 4-31 4-31 ........................Pin assignments (subrack alarm cables) 4-32 4-32 .......................
  • Page 15 List of tables Part II: NE provisioning and stand-alone installation test NE provisioning Elements of the Settings tab 7-21 7-21 ..........................Elements of the Date and Time screen 7-33 7-33 ......................Stand-alone test procedures Mean launched power ranges 8-13 8-13 ...........................
  • Page 17 List of figures Part I: Physical and power installation Safety Laser warning labels 1-12 1-12 ............................. ESD symbol 1-20 1-20 ................................Climatic limits (transportation and storage) 1-24 1-24 ....................Climatic limits (operation) 1-36 1-36 ..........................General information Floorplan guidelines (top view) .........................
  • Page 18 List of figures Rack extension height, 600 mm 3-18 3-18 ........................3-10 Rack extension height, 750 mm 3-18 3-18 ........................3-11 Rack line-up without rack extensions (width) 3-20 3-20 ................... 3-12 Rack line-up with rack extensions (width) 3-21 3-21 ....................3-13 PDP layout 3-23...
  • Page 19 List of figures 3-36 Fiber guide mounting 3-63 3-63 ............................3-37 Mounting positions - two subracks (NEBS-2000 rack) 3-64 3-64 ................. 3-38 Mounting positions - one subrack (NEBS-2000 rack) 3-65 3-65 ................System cabling and final assembly Cable block diagram ...............................
  • Page 20 List of figures 4-24 Layout (Multi coax cable, STM-1e) 4-41 4-41 ......................4-25 STM-1e cabling with rack extension (width) 4-42 4-42 ..................... 4-26 STM-1e cabling without rack extension (width) 4-43 4-43 ..................4-27 Mounting of the cable bracket 4-44 4-44 .........................
  • Page 21 List of figures 4-51 Routing LAN2, LAN3 and LAN4 (CI-CTL) 4-75 4-75 ..................... 4-52 OP155M layout 4-78 4-78 ............................... 4-53 OPLB/PAR8 parent board with OM155 SFP modules 4-79 4-79 ................4-54 OP622 layout 4-80 4-80 ................................4-55 OP2G5 layout 4-81 4-81 ................................
  • Page 22 List of figures Fan unit LEDs ................................Rubber air flow baffles ............................Blank front plate (3N) — CC848782868 5-37 5-37 ....................Blank front plate (3N) with empty holes — CC848840112 5-38 5-38 ..............Blank front plate (6N) — CC848782876 5-39 5-39 ....................
  • Page 23 List of figures Stand-alone test procedures Mean launched power test 8-12 8-12 ..........................Receiver sensitivity test 8-18 8-18 ............................DS3 transmission test 8-25 8-25 ............................Daisy chain test 8-34 8-34 ..............................XC and CTL protection test 8-40 8-40 ..........................Part III: Network establishment and testing Network establishment and testing 10-1 Protected ring configuration...
  • Page 24 D-14 ........................D-10 Mounting positions (1675 LambdaUnite MSS and 1663 ADMu) D-15 D-15 ........... Mixed configuration: 1675 LambdaUnite MSS and 1665 DMX (High Capacity) Mounting the subrack guides ......................................................................... Alcatel-Lucent - Proprietary 365-374-179R10.0 xxiv See notice on first page...
  • Page 25 List of figures Mounting the subrack ............................Mounting the heat baffle ............................Mounting the anti-recirculation plate ......................Mounting positions (1675 LambdaUnite MSS and 1665 DMX) ........................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...
  • Page 27 List of procedures Part I: Physical and power installation General information ® ® Running WaveStar CIT with Windows XP SP2 ..................Mechanical installation Eye bolts ..................................Floor mounting ................................Top mounting 3-13 3-13 ................................Rack extension (width) 3-15 3-15 ............................Rack extension (height) 3-17 3-17...

  • Page 28: Part Ii: Ne Provisioning And Stand-Alone Installation Test

    List of procedures System cabling and final assembly Power wiring (PDP - PI/100) 4-11 4-11 ..........................Ground wiring 4-21 4-21 ................................. Subrack alarm wiring 4-31 4-31 ............................STM-1e cable assembly instructions 4-47 4-47 ......................Side cover plates 4-99 4-99 ..............................Rack doors 4-102 4-102...

  • Page 29: Receiver Sensitivity Test

    List of procedures 7-11 External timing inputs 7-43 7-43 ............................Stand-alone test procedures LED test ..................................Alarm reporting tests .............................. NE synchronization test ............................Optical power meter test 8-11 8-11 ............................. Receiver sensitivity test 8-16 8-16 ............................DS3 transmission and protection test 8-24 8-24 ......................
  • Page 30 List of procedures 10-15 Optical port provisioning for SCN 10-84 10-84 ....................... 10-16 DCC provisioning for SCN 10-86 10-86 ..........................® 10-17 Launching the WaveStar CIT ONNS application for the first time 10-88 10-88 ..........10-18 Path creation test 10-95 10-95 ..............................
  • Page 31 D-13 D-13 .......................... Mounting the anti-recirculation plate D-14 D-14 ......................Mixed configuration: 1675 LambdaUnite MSS and 1665 DMX (High Capacity) Mounting the 1675 LambdaUnite MSS subrack ..................Mounting the heat baffle ............................® Mounting the Metropolis DMX (High Capacity) subrack ..............
  • Page 33 LambdaUnite MultiService Switch (MSS) system. Furthermore, all steps for putting the system into operation are also described. Reason for reissue This is a revised version of this document for 1675 LambdaUnite MSS Release 10.0, containing improvements and corrections. Safety information This information product contains hazard statements for your safety.
  • Page 34 • Chapter 3, Mechanical installation This chapter provides all information needed to install the mechanical parts of a 1675 LambdaUnite MSS system, such as racks, subracks, and other needed accessories. • Chapter 4, System cabling and final assembly This chapter provides all tasks for complete system cabling and instructions for installing the rack doors and side cover plates.
  • Page 35 This appendix provides instructions for mounting a 1675 LambdaUnite MSS subrack together with one or two 1663 Add Drop Multiplexer-universal subrack(s) within one ETSI-2 rack. • Appendix E, Mixed configuration (1675 LambdaUnite MSS and 1665 DMX (High Capacity)) This chapter provides instructions for mounting a 1675 LambdaUnite MSS subrack together with one 1665 Data Multiplexer (High Capacity) subrack within one NEBS-2000 rack.
  • Page 36 About this information product Symbols Symbols Listing: Front View Rear View Top View Bottom View Star point. The stars in the figures refer to the descriptions in the text or in the legend. Item. The items mentioned in the figures refer to the text or to the list of materials Washer Ground Washer...
  • Page 37 About this information product Paddle Board Alarm Lamp Fuse Circuit Breaker Relay Contacts Cable Number View of the cabling side of the connector Codes The codes (CC, DC and SC) in this manual are used to define a hardware item owned by the Alcatel-Lucent Development Systems.
  • Page 38 About this information product Overall TOC Chapter TOC Index Overall TOC The overall table of contents (TOC) provides a structural overview of the entire document. It lists the content of each chapter and the associated page number where the respective information can be found. The overall table of contents can be found after the legal page, before the “About this information product”...
  • Page 39 • Applications and Planning Guide The 1675 LambdaUnite MSS Applications and Planning Guide (APG) is for use by network planners, analysts and managers. It is also for use by the Alcatel-Lucent Account Team. It presents a detailed overview of the system, describes its applications, gives planning requirements, engineering rules, ordering information, and technical specifications.
  • Page 40 (NE) software and WaveStar CIT software. It also includes a listing of features, known problems, fixed problems, and other helpful information. The manuals and engineering drawings related to 1675 LambdaUnite MSS are shown in the following table: Document title Document code...
  • Page 41 Alcatel-Lucent Online Customer Support Site (OLCS) (https://support.lucent.com) or through your Local Customer Support. Related training For detailed information about the 1675 LambdaUnite MSS training courses and how to register please refer to the 1675 LambdaUnite MSS Applications and Planning Guide, chapter 8. Intended use This equipment shall be used only in accordance with the intended use, corresponding installation and maintenance statements as specified in this documentation.
  • Page 42 About this information product Conventional lasers can produce an intense beam of monochromatic light. The term “monochromaticity” means a single wavelength output of pure color that may be visible or invisible to the eye. A conventional laser produces a small-size beam of light, and because the beam size is small the power density (also called irradiance) is very high.
  • Page 43 About this information product Laser safety precautions for optical fiber telecommunication systems CAUTION Laser hazard Use of controls, adjustments, and procedures other than those specified herein may result in hazardous laser radiation exposure. In its normal operating mode, an optical fiber telecommunication system is totally enclosed and presents no risk of eye injury.
  • Page 44 4. All unauthorized personnel shall be excluded from the immediate area of the optical fiber telecommunication systems during installation and service. For the optical specifications please refer to the 1675 LambdaUnite MSS Applications and Planning Guide, chapter 10, section “Transmission parameters”.
  • Page 45 3rd party who engages in the installation and/or integration of the 1675 LambdaUnite MSS system. It is required that the 1675 LambdaUnite MSS product be installed using this Installation Guide. Furthermore, this document needs to be completed as an initial requirement to activating technical support services such as Remote Technical Support (RTS).

  • Page 47: Part I: Physical And Power Installation

    Overview ..............................................Purpose This part of the 1675 LambdaUnite MSS Installation Guide contains the physical ® installation of the racks and subracks, the system cabling and powering, the WaveStar CIT and NE software installation and the installation of circuit packs, side panels and doors.
  • Page 48 Are there any obstacles that will affect the physical installation or cabling? Are the required fuse/breaker positions available? Are the needed 1675 LambdaUnite MSS racks available (ETSI-2 or NEBS-2000)? Are the needed 1675 LambdaUnite MSS subracks available? Are all needed 1675 LambdaUnite MSS...

  • Page 49: System Cabling And Final Assembly

    Physical and power installation Overview Procedure Completed Initials Notes Is the 1675 LambdaUnite MSS CD-ROM (CC109646745) available which contains ® the WaveStar CIT and NE software? Is a laptop or desktop PC available that fulfills the minimum requirements (see section “Requirements”...
  • Page 51 ..............................................Purpose The aim of this chapter on safety is to provide users of 1675 LambdaUnite MSS systems with the relevant information and safety guidelines to safeguard against personal injury. Furthermore, this chapter may be useful to prevent material damage to the equipment.

  • Page 52: Safety

    Safety Overview Contents General notes on safety Structure of hazard statements Basic safety aspects Specific safety areas 1-10 Laser safety 1-11 Optical circuit pack specifications 1-14 Laser product classification 1-16 Electrostatic discharge 1-20 Safety requirements in specific deployment phases 1-22 Transportation 1-23 Storage...

  • Page 53: Safety

    Safety General notes on safety Overview ..............................................Purpose This section provides general information on the structure of safety instructions and summarizes general safety requirements. Contents Structure of hazard statements Basic safety aspects ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...
  • Page 54 Safety Structure of hazard statements ..............................................Overview Hazard statements describe the safety risks relevant while performing tasks on Alcatel-Lucent products during deployment and/or use. Failure to avoid the hazards may have serious consequences. General structure Hazard statements include the following structural elements: Item Structure element Purpose...
  • Page 55 Safety Structure of hazard statements Signal words The signal words identify the hazard severity levels as follows: Signal word Meaning DANGER Indicates an imminently hazardous situation (high risk) which, if not avoided, will result in death or serious injury. WARNING Indicates a potentially hazardous situation (medium risk) which, if not avoided, could result in death or serious injury.
  • Page 56 Safety Structure of hazard statements Radioactivity Hazard caused by batteries Hot surface Heavy load Unhealthy, irritating substance Hazard of falling ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...
  • Page 57 Safety Basic safety aspects ..............................................General safety requirements In order to keep the technically unavoidable residual risk to a minimum, it is imperative to observe the following rules: • Transport, storage and operation of the system must be under the permissible conditions only.
  • Page 58 • For information on proper mounting instructions, consult the 1675 LambdaUnite MSS Installation Guide. • Install only equipment identified in the 1675 LambdaUnite MSS Installation Guide provided with this product. Use of other equipment may result in improper connection of circuitry leading to fire or injury to persons.
  • Page 59 CAUTION Laser hazard 1675 LambdaUnite MSS systems contain optical circuit packs that can emit laser radiation assessed as IEC Hazard Level 3A or IEC Hazard Level 1M. Therefore, 1675 LambdaUnite MSS systems may only be installed in restricted access...
  • Page 60 ..............................................Purpose The aspects of “laser safety” and “handling of components sensitive to electrostatic discharge (ESD)” are of vital importance for the 1675 LambdaUnite MSS equipment. Therefore, the key safety instructions for these subjects are summarized in the following. Contents...
  • Page 61 Please also refer to “Laser product classification” (p. 1-16). These laser warning labels (not to scale) are affixed on the 1675 LambdaUnite MSS equipment. They refer to the system as a whole in normal operation. Figure 1-1 Laser warning labels (1 of 2) ..............................................
  • Page 62 Safety Laser safety Figure 1-1 Laser warning labels (2 of 2) Potential sources of danger Beware of the following potential sources of danger which will remain despite all safety measures taken: • Laser radiation can cause damage to the skin and eyes. •...
  • Page 63 Safety Laser safety CAUTION Laser hazard Use of controls, adjustments and procedures other than those specified herein may result in hazardous laser radiation exposure..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 1-13 Issue 2, June 2009 See notice on first page...

  • Page 64: Optical Circuit Pack Specifications

    Safety Optical circuit pack specifications ..............................................Specifications The following table contains the specifications of the 1675 LambdaUnite MSS optical circuit packs. Please refer to the 1675 LambdaUnite MSS Applications and Planning Guide for more detailed technical specifications. Table 1-1 Optical circuit pack specifications...
  • Page 65 It is the class of the circuit pack, not that of the telecommunications system as a whole, that is specified. The OP10/1.5LR1 circuit packs delivered with 1675 LambdaUnite MSS Releases 1.0 or 2.0 are classified as Class 3A laser products in accordance with the IEC classification (cf.
  • Page 66 Safety Laser product classification ..............................................Standards compliance The 1675 LambdaUnite MSS product complies with the applicable IEC standards and the Food and Drug Administration’s Center for Devices and Radiological Health (FDA/CDRH) regulations. FDA/CDRH regulations Laser products are classified in accordance with the FDA/CDRH - 21 CFR 1010 and 1040.
  • Page 67 Safety Laser product classification FDA/CDRH laser classification The following table provides an overview of laser classes for wavelengths of 1310 nm and 1550 nm in accordance with the FDA/CDRH regulations. Table 1-2 Laser classes (FDA/CDRH regulations) Laser class Wavelength Max. output power of laser radiation 1310 nm 1.53 mW +1.85 dBm...
  • Page 68 Safety Laser product classification Table 1-3 Laser classes (IEC 60825-1 standard) (continued) Laser class Wavelength Max. output power of laser radiation 1310 nm > 500 mW > +27 dBm 1550 nm > 500 mW > +27 dBm Notes: Class 3R only exists if the maximum power is within five times the Accessible Emission Limit (AEL) of Class 1.
  • Page 69 Safety Laser product classification Hazard levels for optical transmission equipment are assigned in either of the following two ways: • the actual output power from the connector or fiber cut. • if automatic power reduction is used, the output power at the connector or fiber cut one second after automatic power reduction takes place, provided that maximum output and restart conditions are met.

  • Page 70: Esd Symbol

    Safety Electrostatic discharge ..............................................Introduction Electrostatic discharge (ESD), caused by touching with the hand for example, can destroy semiconductor components. The correct operation of the complete system is then no longer assured. Industry experience has shown that all semiconductor components can be damaged by static electricity that builds up on work surfaces and personnel.
  • Page 71 Safety Electrostatic discharge • Store and ship circuit packs and components in their shipping packing. Circuit packs and components must be packed and unpacked only at workplaces suitably protected against build-up of charge. • Whenever possible, maintain the relative humidity of air above 20%..............................................
  • Page 72 ..............................................Purpose To enable rapid orientation, safety instructions are given on the following pages, which are assigned to various stages in the life cycle of the 1675 LambdaUnite MSS equipment (“deployment phases”). Deployment phases The instructions are arranged according to the following deployment phases: •...
  • Page 73 Safety Transportation ..............................................Weight WARNING Risk of injury due to unsecured shelf. A fully-equipped shelf weighs more than 30 kg (66 lbs) and can cause considerable injuries if it is knocked over or dropped. This can also cause serious damage to the shelf.
  • Page 74 Safety Transportation Climatic limits for transportation and storage These are the climatic limits for transportation and storage of 1675 LambdaUnite MSS systems: Temperature range -40 °C (-40 °F) to +70 °C (+158 °F) (exceptional: +85 °C (+185 °F)) Humidity range relative humidity: 10% to 100% absolute humidity: 0.5 g/m...
  • Page 75 Safety Storage ..............................................Weight WARNING Risk of injury due to unsecured shelf. A fully-equipped shelf weighs more than 30 kg (66 lbs) and can cause considerable injuries if it is knocked over or dropped. This can also cause serious damage to the shelf.
  • Page 76 Safety Storage Climatic conditions CAUTION Damage to system components under extreme environmental conditions. Extreme environmental conditions can damage system components and cause malfunctioning. Ensure that the climatic limits for transportation and storage of 1675 LambdaUnite MSS equipment are complied with during storage; please refer to “Climatic limits for transportation and storage”...
  • Page 77 Safety Installation ..............................................Weight WARNING Risk of injury due to unsecured shelf. A fully-equipped shelf weighs more than 30 kg (66 lbs) and can cause considerable injuries if it is knocked over or dropped. This can also cause serious damage to the shelf.
  • Page 78 The following label is affixed on the 1675 LambdaUnite MSS subrack: Receiver sensitivities You can find the receiver sensitivities in the 1675 LambdaUnite MSS Applications and Planning Guide (Technical specifications)..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0...
  • Page 79 Invisible laser radiation DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on.
  • Page 80 Destruction of components due to a supply voltage of incorrect polarity or too high. 1675 LambdaUnite MSS equipment operates at a nominal voltage of -48 V or -60 V. The permissible tolerance range is -40.5 V to -72 V. Ensure that the supply voltage has the correct range and polarity before connecting the voltage.
  • Page 81 Safety Taking into operation Condensation CAUTION Condensation causes malfunctioning. Condensation can occur in the network element during transport, especially on moving from outside to closed rooms; this can cause malfunctioning of the circuit packs. Ensure that circuit packs and shelves have reached room temperature and are dry before taking them into operation.
  • Page 82 Invisible laser radiation DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on.
  • Page 83 Safety Operation and maintenance DANGER Power Interface PI/100NOCB: Arcing on removing or connecting live power supply cable lugs. Arcing can cause burns to the hands and damage to the eyes. Before removing or connecting the power supply cable lugs at the Power Interface (PI/100NOCB), ensure that the power supply line is switched off at the upstream circuit breaker in the BDFB (Battery Distribution and Fuse Bay) or PDP (Power Distribution Panel).
  • Page 84 The following label is affixed on the 1675 LambdaUnite MSS subrack: Receiver sensitivities You can find the receiver sensitivities in the 1675 LambdaUnite MSS Applications and Planning Guide (Technical specifications)..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0...
  • Page 85 (p. 1-35) are complied with during operation. Climatic limits for the operation of 1675 LambdaUnite MSS equipment These are the climatic limits for the operation of 1675 LambdaUnite MSS systems: Temperature +5 °C (+41 °F) to +40 °C (+104 °F) range (exceptional: –5°C (+23 °F) to +50 °C (+122 °F))

  • Page 86: Climatic Limits (Operation)

    Absolute humidity [g water/kg dry air]. The dashed curve specifies a constant absolute humidity of 24 g water per kg dry air. Permissible range for the operation of 1675 LambdaUnite MSS systems. Exceptional conditions, permissible for a short duration only.
  • Page 87 Invisible laser radiation DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on.
  • Page 88 1-20)). Disposal The equipment in the 1675 LambdaUnite MSS system series must be disposed of at the end of its lifetime. Please contact us in this case and we will arrange for proper and environment-friendly disposal of your equipment (most parts of the system can be recycled).

  • Page 89: General Information

    G eneral information Overview ..............................................Purpose The purpose of this chapter is to provide the information needed to plan the installation of a 1675 LambdaUnite MSS system. Contents Floorplan guidelines (ETSI-2 / NEBS-2000) Technical data EMC/ESD information ® WaveStar CIT requirements ®...

  • Page 90: General Information

    General information Floorplan guidelines (ETSI-2 / NEBS-2000) ..............................................Overview This section describes the floorplan data for both rack types (ETSI-2 and NEBS-2000). NOTE: For exact measurements see the relevant project documents. Local circumstances can allow deviations from these guidelines. Guidelines Use the following figures and data as guidelines: •...
  • Page 91 General information Floorplan guidelines (ETSI-2 / NEBS-2000) Legend: Inches 23.622” 29.527” 1350 53.149” Figure 2-2 Floorplan guidelines (side view) Legend: Inches 2.948” ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...
  • Page 92 General information Floorplan guidelines (ETSI-2 / NEBS-2000) 11.811” 23.622” 29.527” 1350 53.149” 2125 83.661” 2200 86.615” 2525 99.410” 2600 102.201” ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...
  • Page 93 The standard height is 2200 mm [86.614”] for an ETSI-2 rack and 2125 mm [83.661”] for a NEBS-2000 rack. The racks are designed to accommodate two 1675 LambdaUnite MSS subracks. Rack weights The ETSI-2 rack has a maximum weight of 92.3 kg [203.5 lbs] (including PDP, rack...

  • Page 94: Grounding Scheme

    General information EMC/ESD information ..............................................Required connections The system was developed in compliance with the ETSI Mesh Ground requirements. This means EMC compliance and personnel safety can be achieved only if the system is connected to a System-Reference Potential Plane (SRPP) at many places as described in ETS 300 253 (see the figure below).

  • Page 95: Esp Subrack Bonding Point

    General information EMC/ESD information Circuit pack handling The following ESD instructions must be observed when handling circuit packs: • Wear work garments made of 100% cotton to avoid electrostatic charging. • Touch the circuit packs at the edges or the insertion and removal facilities only. •...
  • Page 96 General information ® WaveStar CIT requirements ..............................................Requirements ® For a WaveStar CIT a personal computer is necessary that fulfills the following minimum requirements: ® Pentium III processor with 800 MHz 512 MB RAM 2 GB of free hard-disk drive space CD-ROM drive (16×...
  • Page 97 General information ® ® Procedure 2-1: Running WaveStar CIT with Windows ..............................................Overview ® ® ® When using WaveStar CIT with Windows XP Service Pack 2, the Windows security features introduced with SP2 require some user interaction to allow running ®...
  • Page 98 ® ® General information Procedure 2-1: Running WaveStar CIT with Windows XP SP2 ........................................Click to confirm that message........................................Activate the context menu of the MSIE information bar and select Allow Blocked Content{ ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 2-10 See notice on first page Issue 2, June 2009...
  • Page 99 ® ® General information Procedure 2-1: Running WaveStar CIT with Windows XP SP2 A security warning window appears. Result: ........................................Click S T E P S ...................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary 2-11 Issue 2, June 2009 See notice on first page...

  • Page 100: Required Tools

    General information Required tools and test equipment ..............................................Tools A variety of tools is required to carry out the installation procedures. The following table provides an overview of the required tools. Table 2-1 Required tools Quantity Description Comments Metric tool set To be used for physical installation Torque wrench To be used when tightening the subracks to the...
  • Page 101 General information Required tools and test equipment Table 2-2 Required test equipment (continued) Quantity Description Comments 15 dB LBO To be used for optical test loops or for testing the individual ports ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 2-13 Issue 2, June 2009 See notice on first page...
  • Page 102 General information Mark descriptions ..............................................CE mark The CE mark indicates that the products conform to the relevant European Community (EC) Directives. This CE-marked subrack is compliant with the following Directives: • EC89.336/EEC - Electromagnetic Compatibility (EMC) • EC73.23/EEC - Low-Voltage Directive (LVD). UR mark The UR mark indicates that the products conform to the relevant Directives of the United States of America.

  • Page 103: Sequence Of Steps

    This manual is structured according to the sequence of steps that should be observed when installing the 1675 LambdaUnite MSS system. The table below gives an overview of all needed installation steps which are described in detail in the following chapters.
  • Page 104 General information Sequence of steps Table 2-3 Sequence of steps Main task Chapter Subtask [section/page] number Rack installation Checking the “Hardware items” (p. 3-4) (ETSI-2) or Checking the “Hardware items” (p. 3-35) (NEBS-2000) Procedure 3-2: “Floor mounting” (p. 3-9) (ETSI-2) or Procedure 3-10: “Floor mounting”...
  • Page 105 General information Sequence of steps Table 2-3 Sequence of steps (continued) Main task Chapter Subtask [section/page] number Power and ground “Power wiring (External battery - PDP)” (p. 4-7) cable installation Procedure 4-1: “Power wiring (PDP - PI/100)” (p. 4-11) Procedure 4-2: “Ground wiring” (p. 4-21) Internal cable Procedure 4-3: “Subrack alarm wiring”...
  • Page 106 General information Sequence of steps Table 2-3 Sequence of steps (continued) Main task Chapter Subtask [section/page] number ® NE login “Connecting the WaveStar CIT to the NE” (p. 7-3) Procedure 7-1: “NE login via OSI” (p. 7-7) NE provisioning Procedure 7-3: “Changing the NE name (TID)” (p. 7-14) Procedure 7-4: “System parameters”...
  • Page 107 General information Sequence of steps Table 2-3 Sequence of steps (continued) Main task Chapter Subtask [section/page] number Network Procedure 10-1: “Connecting the fiber cables” (p. 10-4) establishing Procedure 10-2: “Provision DCC” (p. 10-12) ® Procedure 10-3: “WaveStar CIT remote login test via DCC” (p.

  • Page 109: Mechanical Installation

    Purpose The purpose of this chapter is to provide the information needed to install all mechanical parts of a 1675 LambdaUnite MSS system. The chapter is divided into two sections. The first section describes the ETSI-2 installation for the international market, the second section the NEBS-2000 installation for the USA domestic market.

  • Page 110: Mechanical Installation

    Mechanical installation Overview Contents ETSI-2 installation Hardware items Technical data for rack Procedure 3-1: Eye bolts Procedure 3-2: Floor mounting Procedure 3-3: Top mounting 3-13 Procedure 3-4: Rack extension (width) 3-15 Procedure 3-5: Rack extension (height) 3-17 Procedure 3-6: Rack adapter kit 3-19 Technical data for PDP 3-22...
  • Page 111 Mechanical installation ETSI-2 installation Overview ..............................................Purpose The purpose of this section is to provide all needed instructions for mounting an ETSI-2 rack (international market). NOTE: Metric tools have to be used for equipment installation! Contents Hardware items Technical data for rack Procedure 3-1: Eye bolts Procedure 3-2: Floor mounting Procedure 3-3: Top mounting...
  • Page 112 Mechanical installation Hardware items ..............................................Reference For a complete and up-to-date list of all hardware items with the respective comcodes please refer to the Engineering Drawings ED8C948-10 and ED8C948-20, that you can: • find appended at the end of this document, correct at the time of going to print (if they were ordered from the Customer Information Center (CIC)) •...

  • Page 113: Etsi-2 Rack Specifications

    Mechanical installation Technical data for rack ..............................................Specifications The ETSI-2 rack has the specifications as given in the table below. Table 3-1 ETSI-2 rack specifications Item Quantity / Size Weight 92.3 kg [203.5 lbs] (including PDP, rack cables and 2 door sets) 53.7 kg [118.4 lbs] (without doors) Dimensions (HxWxD) 2200 mm [86.614”] x 600 mm [23.622”] x 600 mm [23.622”]...

  • Page 114: Rack Layout (Etsi-2 Rack)

    Mechanical installation Technical data for rack Figure 3-1 Rack layout (ETSI-2 rack) Legend: ETSI-2 rack ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...
  • Page 115 Mechanical installation Technical data for rack Rack door, left (optional) Rack door, right (optional) Door support bottom 5, 6 Door support top with indicator strip Bottom-access entry hole Top-access entry hole Eye bolt (optional) Subrack guide Cable guide brackets Cable rod Side cover plate (optional) Adjustable feet Anti recirculation plate (optional)

  • Page 116: Eye Bolt Mounting

    Mechanical installation Procedure 3-1: Eye bolts ..............................................Before you begin This section describes the mounting of eye bolts which are needed for rack transportation. It can be skipped if no rack transportation is required. Procedure Proceed as follows to mount the eye bolts: ........................................

  • Page 117: Top/Bottom Plate Layout (Etsi-2 Rack)

    Mechanical installation Procedure 3-2: Floor mounting ..............................................Dimensions The following figure shows the plate layout (with dimensions) of the ETSI-2 rack. Figure 3-3 Top/Bottom plate layout (ETSI-2 rack) Legend: Hole locations for the anchors (anchoring kit SE12150W-1 — CC408414951) Adjustable feet — CC407890623 NOTE: The front panel is identified by the “cable guide brackets”...
  • Page 118 Mechanical installation Procedure 3-2: Floor mounting Complete the following steps to mount an ETSI-2 rack on the floor: ........................................Drill the necessary holes (18 mm [0.7”] in diameter and 100 mm [4”] in depth) in the floor (*1)........................................Put the rack frame in place........................................

  • Page 119: Floor Mounting (Etsi-2 Rack)

    Mechanical installation Procedure 3-2: Floor mounting Result Figure 3-4 Floor mounting (ETSI-2 rack) ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-11 Issue 2, June 2009 See notice on first page...

  • Page 120: Anchoring Kit Se12150W-1 - Cc408414951

    Mechanical installation Procedure 3-2: Floor mounting Figure 3-5 Anchoring kit SE12150W-1 — CC408414951 Legend: Safety/dust cap Hexagonal nut Flat washer Plate washer (60 mm [2.4”]) Spacer Stud Rack frame Concrete Indication marking labels The rack hole numbers #1, #20, #40, #60 and #80 are marked with “indication marking labels”.

  • Page 121: Mounting Holes (Etsi-2 Rack)

    Mechanical installation Procedure 3-3: Top mounting ..............................................Before you begin This section can be skipped if a top infrastructure (e.g. cable tray) does not exist. Needed parts The following parts are needed for a top mounting fixture: • M12 threaded rods (CC408854065) •...

  • Page 122: Top Mounting Fixture (Etsi-2 Rack)

    Mechanical installation Procedure 3-3: Top mounting Figure 3-7 Top mounting fixture (ETSI-2 rack) S T E P S ....................................................................................... Alcatel-Lucent - Proprietary 365-374-179R10.0 3-14 See notice on first page Issue 2, June 2009...
  • Page 123 Mechanical installation Procedure 3-4: Rack extension (width) ..............................................Purpose The ETSI-2 rack extension (CC848894416) is used to route STM-1e, DS3 and fiber cables which do not fit properly in the rack frame. Mounting the rack extension Proceed as follows to mount the rack extension: ........................................

  • Page 124: Mounting The Rack Extension (Width)

    Mechanical installation Procedure 3-4: Rack extension (width) Result Figure 3-8 Mounting the rack extension (width) ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-16 See notice on first page Issue 2, June 2009...
  • Page 125 Mechanical installation Procedure 3-5: Rack extension (height) ..............................................Purpose This rack extension is used to enlarge the rack frame with a height of 400 mm [15.748”]. The additional space can be used for STM-1e cable excess lengths, for example. Available rack extensions The following rack extensions are available: •...

  • Page 126: Rack Extension Height, 600 Mm

    Mechanical installation Procedure 3-5: Rack extension (height) Result Figure 3-9 Rack extension height, 600 mm Figure 3-10 Rack extension height, 750 mm ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-18 See notice on first page Issue 2, June 2009...
  • Page 127 Mechanical installation Procedure 3-6: Rack adapter kit ..............................................Overview The rack adapter kit is used to mount rack frames together side-by-side to establish a line-up. Before you begin If the existing rack(s) already have side-cover plates, remove these cover plates from the sides of the existing rack(s) to which another rack(s) will be connected.

  • Page 128: Rack Line-Up Without Rack Extensions (Width)

    Mechanical installation Procedure 3-6: Rack adapter kit ........................................IF ... THEN ... rack extensions (width) are not place the rack frame (item 4) of the extension rack used next to the existing rack. rack extensions (width) are used place the rack extension of the extension rack next to the rack extension (item 5) of the existing rack.

  • Page 129: Rack Line-Up With Rack Extensions (Width)

    Mechanical installation Procedure 3-6: Rack adapter kit Figure 3-12 Rack line-up with rack extensions (width) ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-21 Issue 2, June 2009 See notice on first page...

  • Page 130: Pdp Specifications

    Mechanical installation Technical data for PDP ..............................................Specifications The Power Distribution Panel (PDP) is already pre-mounted on the rack frame and has the specifications as given in the table below. Table 3-2 PDP specifications Item Quantity / Size Power consumption (subrack), Release 1.0 and 2.0: Circuit breakers •...

  • Page 131: Pdp Layout

    Mechanical installation Technical data for PDP Figure 3-13 PDP layout Power conversion ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-23 Issue 2, June 2009 See notice on first page...

  • Page 132: Mounting The Mdio Terminal Rail

    Mount the MDIO terminal rail (SC02071000, item 1) to the rack top (front side) as shown in the figure below. NOTE: Each MDIO terminal rail supports one 1675 LambdaUnite MSS subrack. Figure 3-14 Mounting the MDIO terminal rail S T E P S ........................................

  • Page 133: Subrack Specifications

    Mechanical installation Technical data for subrack ..............................................Specifications A 1675 LambdaUnite MSS subrack has the specifications as given in the table below. Table 3-3 Subrack specifications Item Quantity/Value Voltage range -48 to -60 V battery voltage (all components) (-40.5 V minimum, -72 V maximum)

  • Page 134: Subrack Mounting Dimensions

    Mechanical installation Technical data for subrack Figure 3-15 Subrack mounting dimensions Legend: Required space for air outlet (≥ 100 mm [3.94”]) when a single subrack is mounted into a rack frame. Bending radius of fiber and external cabling..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-26 See notice on first page...

  • Page 135: Subrack Mounting

    (which should then be mounted in the upper position). NOTE: If a mixed configuration with 1663 ADMu NEs is used, please refer to Appendix D, “Mixed configuration: 1675 LambdaUnite MSS and 1663 ADMu”. Procedure...

  • Page 136: Mounting Positions (Etsi-2 Rack)

    Mechanical installation Procedure 3-8: Mounting the subracks into rack ........................................Mount each subrack on the rear rack frame using M6x16 screws (CC901331421) with 7 ± 1.0 Nm [61.96 ± 2.65 lbs-in] torque. Use the hole positions #9, #14, #19, #25, #31, #36 and #41 for the upper subrack and #47, #52, #57, #63, #69, #74 and #79 for the lower subrack (see Figure 3-18, “Mounting positions (ETSI-2 rack)”...
  • Page 137 Mechanical installation Procedure 3-8: Mounting the subracks into rack ........................................Mount one side guide (DC1001518, item 3) at each corner of the subracks by clicking them into the holes on the top and bottom panels of the subracks. S T E P S ........................................
  • Page 138 Mechanical installation Procedure 3-8: Mounting the subracks into rack Result Figure 3-16 Subrack mounting ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-30 See notice on first page Issue 2, June 2009...
  • Page 139 Mechanical installation Procedure 3-8: Mounting the subracks into rack Mounting of special fiber guides Important! The following procedure must only be performed if it is necessary to route fiber cables within the rack extension (width). In that case special fiber guides which are part of the rack extension kit (CC848894416) must be mounted on each subrack.

  • Page 140: Fiber Guide Mounting

    Mechanical installation Procedure 3-8: Mounting the subracks into rack Result Figure 3-17 Fiber guide mounting Mounting positions The mounting positions are given in the following figure..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-32 See notice on first page Issue 2, June 2009...
  • Page 141 Mechanical installation Procedure 3-8: Mounting the subracks into rack Figure 3-18 Mounting positions (ETSI-2 rack) ETSI-2 Rack LambdaUnite Subrack LambdaUnite Subrack ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-33 Issue 2, June 2009 See notice on first page...
  • Page 142 Mechanical installation NEBS-2000 installation Overview ..............................................Purpose The purpose of this section is to provide all needed instructions for mounting the NEBS-2000 rack (USA domestic market). NOTE: Metric tools have to be used for equipment installation! Contents Hardware items 3-35 Technical data for rack 3-36 Procedure 3-9: Eye bolts...
  • Page 143 Mechanical installation Hardware items ..............................................Reference For a complete and up-to-date list of all hardware items with the respective comcodes please refer to the Engineering Drawings ED8C948-10 and ED8C948-20, that you can: • find appended at the end of this document, correct at the time of going to print (if they were ordered from the Customer Information Center (CIC)) •...

  • Page 144: Nebs-2000 Rack Specifications

    Mechanical installation Technical data for rack ..............................................Specifications The NEBS-2000 rack has the specifications as given in the table below. Table 3-4 NEBS-2000 rack specifications Item Quantity / Size Weight 90.5 kg [199.6 lbs] (includes PDP, rack cables and 2 door sets) 52.7 kg [116.2 lbs] (without doors) Dimensions (HxWxD) 2125 mm [83.661”] x 600 mm [23.622”] x 600 mm [23.622”]...
  • Page 145 Mechanical installation Technical data for rack Figure 3-19 Rack layout (NEBS-2000 rack) Legend: NEBS-2000 rack Rack door, left (optional) ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-37 Issue 2, June 2009 See notice on first page...
  • Page 146 Mechanical installation Technical data for rack Rack door, right (optional) Door support bottom 5, 6 Door support top with indicator strip Bottom-access entry hole Top-access entry hole Eye bolt (optional) Subrack guide Cable guide brackets Cable rod Side cover plate (optional) Strain relief Anti recirculation plate (optional) Power Distribution Panel (PDP)

  • Page 147: Eye Bolt Mounting

    Mechanical installation Procedure 3-9: Eye bolts ..............................................Before you begin This section describes the mounting of eye bolts which are needed for rack transportation. It can be skipped if no rack transportation is required. Procedure Proceed as follows to mount the eye bolts: ........................................

  • Page 148: Top/Bottom Layout Of Plate (Nebs-2000 Rack)

    Mechanical installation Procedure 3-10: Floor mounting ..............................................Dimensions The following figure shows the plate layout (with dimensions) of the NEBS-2000 rack. Figure 3-21 Top/Bottom layout of plate (NEBS-2000 rack) Legend: Hole locations for the anchors NOTE: The front panel is identified by the cable guide brackets (see item 11 in Figure 3-19, “Rack layout (NEBS-2000 rack)”...

  • Page 149: Drilling Template (Nebs-2000 Rack)

    Mechanical installation Procedure 3-10: Floor mounting Figure 3-22 Drilling template (NEBS-2000 rack) Important! Read the label for drilling instructions! ........................................Put the rack frame in place........................................Put the appropriate earthquake anchor (CC408414951 or CC408526242, item 2) through the anchor hole provided in the rack bottom plate........................................

  • Page 150: Floor Mounting (Nebs-2000 Rack)

    Mechanical installation Procedure 3-10: Floor mounting Result Figure 3-23 Floor mounting (NEBS-2000 rack) ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-42 See notice on first page Issue 2, June 2009...

  • Page 151: Anchoring Kit (Nebs-2000 Rack)

    Mechanical installation Procedure 3-10: Floor mounting Figure 3-24 Anchoring kit (NEBS-2000 rack) Legend: Safety/dust cap Hexagonal nut Flat washer Plate washer (60 mm [2.4”]) Spacer Stud Rack frame Concrete Indication marking labels The rack hole numbers #1 and #79 are marked with “indication marking labels”. The hole numbering is counted from top to the bottom of the rack frame.

  • Page 152: Shim Plates (Nebs-2000 Rack)

    Mechanical installation Procedure 3-10: Floor mounting Shim Plates The shim plates (SC1006075) are used to balance the cabinet in a horizontal position on the floor. One shim plate is 1 mm [0.04”] thick. Figure 3-25 Shim plates (NEBS-2000 rack) Legend: 1 mm [0.04”] 2 mm [0.08”] 3 mm [0.12”]...

  • Page 153: Mounting Holes (Nebs-2000 Rack)

    Mechanical installation Procedure 3-11: Top mounting ..............................................Before you begin This section can be skipped if a top infrastructure (e.g. cable tray) does not exist. Needed parts The following parts are needed for a top mounting fixture: • M12 threaded rods (CC408854065) •...

  • Page 154: Top Mounting Fixture (Nebs-2000 Rack)

    Mechanical installation Procedure 3-11: Top mounting Figure 3-27 Top mounting fixture (NEBS-2000 rack) S T E P S ....................................................................................... Alcatel-Lucent - Proprietary 365-374-179R10.0 3-46 See notice on first page Issue 2, June 2009...
  • Page 155 Mechanical installation Procedure 3-12: Rack extension (width) ..............................................Purpose The NEBS-2000 rack extension (CC848894424) is used to route STM-1e, DS3 and fiber cables which do not fit properly in the rack frame. Mounting Proceed as follows to mount the rack extension: ........................................

  • Page 156: Mounting The Rack Extension (Width)

    Mechanical installation Procedure 3-12: Rack extension (width) Result Figure 3-28 Mounting the rack extension (width) ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-48 See notice on first page Issue 2, June 2009...
  • Page 157 Mechanical installation Procedure 3-13: Rack extension (height) ..............................................Purpose This rack extension is used to enlarge the space for STM-1e cables (e.g. for excess lengths). Available rack extensions The following rack extensions are available: • Rack extension (height), 600 mm [23.622”] x 400 mm [15.748”] — CC848902656 This rack extension must be used for racks without rack extensions (width).

  • Page 158: Rack Extension Height, 600 Mm

    Mechanical installation Procedure 3-13: Rack extension (height) Result Figure 3-29 Rack extension height, 600 mm Figure 3-30 Rack extension height, 750 mm ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 3-50 See notice on first page Issue 2, June 2009...
  • Page 159 Mechanical installation Procedure 3-14: Rack adapter kit ..............................................Overview The rack adapter kit is used to mount rack frames together side-by-side to establish a line-up. Before you begin If the existing rack(s) already have side cover plates, remove these cover plates from the sides of the existing rack(s) to which another rack(s) will be connected.

  • Page 160: Rack Line-Up Without Rack Extensions (Width)

    Mechanical installation Procedure 3-14: Rack adapter kit ........................................IF ... THEN ... rack extensions (width) are not place the rack frame (item 4) of the extension rack used next to the existing rack. rack extensions (width) are used place the rack extension of the extension rack next to the rack extension (item 5) of the existing rack.

  • Page 161: Rack Line-Up With Rack Extensions (Width)

    Mechanical installation Procedure 3-14: Rack adapter kit Figure 3-32 Rack line-up with rack extensions (width) ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-53 Issue 2, June 2009 See notice on first page...

  • Page 162: Pdp Specifications

    Mechanical installation Technical data for PDP ..............................................Specifications The Power Distribution Panel (PDP) is already pre-mounted on the rack frame and has the specifications as given in the table below. Table 3-5 PDP specifications Item Quantity / Size Power consumption (subrack), Release 1.0 and 2.0: Circuit breakers •...

  • Page 163: Pdp Layout

    Mechanical installation Technical data for PDP Figure 3-33 PDP layout Power conversion ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-55 Issue 2, June 2009 See notice on first page...
  • Page 164 Mechanical installation Technical data for subrack ..............................................Specifications A 1675 LambdaUnite MSS subrack has the specifications as given in the table below. Table 3-6 Subrack specifications Item Quantity/Value Voltage range -48 to -60 V battery voltage (all components) (-40.5 V minimum, -72 V maximum)

  • Page 165: Subrack Mounting Dimensions

    Mechanical installation Technical data for subrack Figure 3-34 Subrack mounting dimensions Legend: Required space for air outlet (≥ 100 mm [3.94”]) when a single subrack is mounted into a rack frame. Bending radius of fiber and external cabling..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-57 Issue 2, June 2009...
  • Page 166 (see section “Mounting positions (one subrack mounted)” (p. 3-65)). If a mixed configuration is used (1675 LambdaUnite MSS and 1665 DMX subracks within one rack) please refer to Appendix E, “Mixed configuration: 1675 LambdaUnite MSS and 1665 DMX (High Capacity)”.
  • Page 167 Mechanical installation Procedure 3-15: Mounting the subracks into rack ........................................Mount each subrack on the rear rack frame using M6x16 screws (CC901331421) with 7 ± 1.0 Nm [61.96 ± 2.65 lbs-in] torque. Use the hole positions #8, #13, #18, #24, #30, #35 and #40 for the upper subrack and #46, #51, #56, #62, #68, #73 and #78 for the lower subrack (see Figure 3-37, “Mounting positions - two subracks (NEBS-2000...
  • Page 168 Mechanical installation Procedure 3-15: Mounting the subracks into rack ........................................Mount one side guide (DC1001518, item 3) at each corner of the subracks by clicking them into the holes in the top and bottom panels of the subracks. S T E P S ........................................
  • Page 169 Mechanical installation Procedure 3-15: Mounting the subracks into rack Result Figure 3-35 Subrack mounting ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-61 Issue 2, June 2009 See notice on first page...
  • Page 170 Mechanical installation Procedure 3-15: Mounting the subracks into rack Mounting of special fiber guides Important! The following procedure must only be performed if it is necessary to route fiber cables within the rack extension (width). In that case special fiber guides which are part of the rack extension kit (CC848894424) must be mounted on each subrack.

  • Page 171: Fiber Guide Mounting

    Mechanical installation Procedure 3-15: Mounting the subracks into rack Result Figure 3-36 Fiber guide mounting ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 3-63 Issue 2, June 2009 See notice on first page...
  • Page 172 Mechanical installation Procedure 3-15: Mounting the subracks into rack Mounting positions (two subracks mounted) The following figure shows the mounting positions for the case that two subracks are mounted. Figure 3-37 Mounting positions - two subracks (NEBS-2000 rack) NEBS-2000 Rack LambdaUnite Subrack LambdaUnite...

  • Page 173: Mounting Positions - One Subrack (Nebs-2000 Rack)

    Mechanical installation Procedure 3-15: Mounting the subracks into rack Mounting positions (one subrack mounted) The following figure shows the mounting positions for the case that one subrack is mounted only. NOTE: A stiffening plate is required for that configuration if the system is installed in seismic zone 4 areas according to Telcordia GR-63.

  • Page 175: System Cabling And Final Assembly

    S ystem cabling and final assembly Overview ..............................................Purpose The purpose of this chapter is to provide all tasks for complete system cabling. This chapter will also provide instructions for the final assembly steps of side cover and door mounting installation. Orderable cables For a complete and up-to-date list of all available cables with the respective comcodes please refer to the Engineering Drawings ED8C948-10 and ED8C948-20, that you can:...

  • Page 176: Cable Block Diagram

    System cabling and final assembly Overview Figure 4-1 Cable block diagram PI/100 A/B ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 177: Cable List

    System cabling and final assembly Overview Table 4-1 Cable list Cable Cable Section number Power input cable (+DC) “Power wiring (External battery - PDP)” (p. 4-7) Power input cable (–DC) Office grounding cable Procedure 4-2: “Ground wiring” (p. 4-21) PI cable Procedure 4-1: “Power wiring (PDP - PI/100)”...
  • Page 178 System cabling and final assembly Overview Table 4-1 Cable list (continued) Cable Cable Section number Controller cable (CI-CTL – Fan) “Controller cable (CI-CTL – Fan unit)” (p. 4-28) DS3/EC1 cable “DS3/EC1 interface” (p. 4-50) Contents Power and ground cable installation Power wiring (External battery - PDP) Procedure 4-1: Power wiring (PDP - PI/100) 4-11...
  • Page 179 System cabling and final assembly Overview Application of attenuators 4-97 Installation of doors and side cover plates 4-98 Procedure 4-5: Side cover plates 4-99 Procedure 4-6: Rack doors 4-102 ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...
  • Page 180 System cabling and final assembly Power and ground cable installation Overview ..............................................Purpose This section provides information about the power and ground cable installation. Contents Power wiring (External battery - PDP) Procedure 4-1: Power wiring (PDP - PI/100) 4-11 Power wiring (PI/100 - Fan unit) 4-17 Procedure 4-2: Ground wiring 4-21...

  • Page 181: Pdp Connection (Power Input Cables)

    System cabling and final assembly Power wiring (External battery - PDP) ..............................................Before you begin Before connecting any power cables be sure that all circuit breakers that are located in the external Battery Distribution and Fuse Bay (BDFB) and on the rear side of the subracks (on the Power Interfaces) are in the position! Cable data...
  • Page 182 System cabling and final assembly Power wiring (External battery - PDP) Legend: +DC (red, return) -DC (blue) The U-bracket (connection between return and ground) has to be removed if the return wire is only grounded at the external battery (BDFB) source (e.g. valid for the USA domestic market);...

  • Page 183: Securing The Power Input Cables

    System cabling and final assembly Power wiring (External battery - PDP) Figure 4-3 Securing the power input cables Routing Please route the power input cables in the following way: In the case of ... Then ... top access route the cables (item 1) directly into the PDP. bottom access route the cables as shown in the figure below (according to *1 or *2).

  • Page 184: Routing The Power Input Cables

    System cabling and final assembly Power wiring (External battery - PDP) Figure 4-4 Routing the power input cables ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-10 See notice on first page Issue 2, June 2009...

  • Page 185: Available Pi Cables

    System cabling and final assembly Procedure 4-1: Power wiring (PDP - PI/100) ..............................................Before you begin The PI/100 units can only be used when the rack is provided with 25 mm power cables. Cable data Important! The cables are prefabricated and mounted within the rack frames. Each cable (cable for side A and cable for side B) supports both subracks (upper and lower).

  • Page 186: Pdp Connection (Pi Cables)

    System cabling and final assembly Procedure 4-1: Power wiring (PDP - PI/100) Figure 4-5 PDP connection (PI cables) PI cables, upper subrack PI cables, lower subrack Ground (A+B) +DC (rtn) (A+B) (A+B) Legend: 4, 5 PI cables (combined: yellow/green, red, blue) +DC (rtn) –DC blue...

  • Page 187: Routing The Pi Cables (Pdp Side)

    System cabling and final assembly Procedure 4-1: Power wiring (PDP - PI/100) In the case of ... then ... side B the PI cables, B-side (item 2), should be routed at the left-rear side of the rack frame as shown in the figure below.
  • Page 188 System cabling and final assembly Procedure 4-1: Power wiring (PDP - PI/100) Cable connection ........................................Remove the protection cap by unscrewing the two screws at the bottom of the protection cap........................................Remove the strain relief by unscrewing the four screws........................................

  • Page 189: Connecting The Pi Cables (Pi/100 / Subrack Side)

    System cabling and final assembly Procedure 4-1: Power wiring (PDP - PI/100) Result: Figure 4-7 Connecting the PI cables (PI/100 / subrack side) S T E P S ....................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary 4-15 Issue 2, June 2009 See notice on first page...

  • Page 190: Pin Assignment (Pi Cables)

    System cabling and final assembly Procedure 4-1: Power wiring (PDP - PI/100) Pin assignment Table 4-3 Pin assignment (PI cables) Point on connector Signal name Color Ground Yellow/Green –DC Blue Return ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-16 See notice on first page Issue 2, June 2009...

  • Page 191: Available Fan Power Cables

    System cabling and final assembly Power wiring (PI/100 - Fan unit) ..............................................Cable data The table below lists the available fan power cables. Table 4-4 Available fan power cables Cable Comcode Fan power cable, A-side 848811550 Fan power cable, B-side 848811576 Fan power cable, A-side, halogen free 848929410...

  • Page 192: Fan Power Cable

    System cabling and final assembly Power wiring (PI/100 - Fan unit) Figure 4-8 Fan power cable Connector A Connector B Table 4-5 Pin assignments (fan power cables) Point on Signal name Point on Signal name connector connector Ground Ground –DC –DC +DC (rtn) +DC (rtn)

  • Page 193: Routing To The Fan Unit

    System cabling and final assembly Power wiring (PI/100 - Fan unit) Routing Figure 4-9 Routing to the fan unit ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-19 Issue 2, June 2009 See notice on first page...

  • Page 194: Routing To The Pis

    System cabling and final assembly Power wiring (PI/100 - Fan unit) Figure 4-10 Routing to the PIs Important! Please check that the fan power cables are connected correctly (with the right polarity)! ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-20 See notice on first page Issue 2, June 2009...

  • Page 195: Pdp Grounding

    System cabling and final assembly Procedure 4-2: Ground wiring ..............................................Required grounding Only the PDP must be grounded with the office ground as shown in the figure below. All the other parts (rack, subracks, ...) are grounded as a result of the physical mounting (physical/electrical connection of device and rack frame).
  • Page 196 System cabling and final assembly Procedure 4-2: Ground wiring Additional grounding (optional) Important! The cables mentioned in the procedure below are not part of the system delivery, but they can be ordered separately. If additional grounding connections are wanted (or required), you can do the following: ........................................

  • Page 197: Office And Subrack Grounding

    System cabling and final assembly Procedure 4-2: Ground wiring Result Figure 4-12 Office and subrack grounding M8x20 M5x20 ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-23 Issue 2, June 2009 See notice on first page...
  • Page 198 System cabling and final assembly Internal cable installation Overview ..............................................Purpose This section provides information about the intra-system cabling. Contents Cable management 4-25 Controller cable (CI-CTL – Fan unit) 4-28 Procedure 4-3: Subrack alarm wiring 4-31 Station alarm wiring 4-35 ..............................................
  • Page 199 Electrical cables The electrical cables listed below must be routed on both sides from the top or bottom of the 1675 LambdaUnite MSS rack frame to the subrack via the guides that are mounted on the rear of the subrack.

  • Page 200: Cable Management (Top Access)

    System cabling and final assembly Cable management Figure 4-13 Cable management (top access) Bottom access The figure below shows the cable routing for bottom access..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-26 See notice on first page Issue 2, June 2009...

  • Page 201: Cable Management (Bottom Access)

    System cabling and final assembly Cable management Figure 4-14 Cable management (bottom access) ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-27 Issue 2, June 2009 See notice on first page...

  • Page 202: Available Controller Cables

    System cabling and final assembly Controller cable (CI-CTL – Fan unit) ..............................................Cable data The table below lists the available controller cables. Table 4-6 Available controller cables Cable Comcode Standard controller cable 848811568 Halogen free controller cable 848929428 Connector data The connector types of the controller cable are as follows: •...

  • Page 203: Controller Cable

    System cabling and final assembly Controller cable (CI-CTL – Fan unit) Figure 4-15 Controller cable Fan unit side Controller side Table 4-7 Pin assignments (Controller cable) CI-CTL Point on Signal name Point on Signal name connector connector C Clock line C Clock line C Data line C Data line...

  • Page 204: Routing Of The Controller Cable

    System cabling and final assembly Controller cable (CI-CTL – Fan unit) Routing Figure 4-16 Routing of the controller cable ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-30 See notice on first page Issue 2, June 2009...

  • Page 205: Available Subrack Alarm Cables

    System cabling and final assembly Procedure 4-3: Subrack alarm wiring ..............................................Cable data The table below lists the available subrack alarm cables. Table 4-8 Available subrack alarm cables Cable Comcode Length Standard cable, PDP – CI-CTL, 848811527 1100 mm upper subrack [3.609 ft] Standard cable, PDP –...

  • Page 206: Pin Assignments (Subrack Alarm Cables)

    System cabling and final assembly Procedure 4-3: Subrack alarm wiring Figure 4-17 Connectors of the subrack alarm cables Table 4-9 Pin assignments (subrack alarm cables) CI-CTL Point on Signal name Point on Signal name connector connector Ground Ground Major rack-top return Major rack-top return Ground Ground...

  • Page 207: Routing The Subrack Alarm Cables (Pdp Side)

    System cabling and final assembly Procedure 4-3: Subrack alarm wiring Result Figure 4-18 Routing the subrack alarm cables (PDP side) Figure 4-19 Connections of the subrack alarm cables (PDP side) Routing (subrack side) The figure below shows the cable routing on the subrack side..............................................

  • Page 208: Routing The Subrack Alarm Cables (Subrack Side)

    System cabling and final assembly Procedure 4-3: Subrack alarm wiring Figure 4-20 Routing the subrack alarm cables (subrack side) ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-34 See notice on first page Issue 2, June 2009...
  • Page 209 System cabling and final assembly Station alarm wiring ..............................................Station alarms The connector of the station alarm cable consists of six isolated alarm output-pairs (Critical acoustic/visual, Major acoustic/visual and Minor acoustic/visual). If required, an external alarm equipment can be connected to this interface. Cable data Length of pre-fabricated cables, 8x2x0.4 mm / AWG 26 + overall screen: •...

  • Page 210: Connector Of The Station Alarm Cable

    System cabling and final assembly Station alarm wiring Figure 4-21 Connector of the station alarm cable Table 4-10 Pin assignment (station alarm cable) Point on connector Signal name Critical audio output Critical visual output Major audio-output return Major visual output Minor audio output Minor visual output Ground...

  • Page 211: Pin Assignment (Station Alarm Cable)

    System cabling and final assembly Station alarm wiring Table 4-10 Pin assignment (station alarm cable) (continued) Point on connector Signal name Minor visual output return Ground Ground Routing The figure below shows the cable routing of the station alarm cable..............................................

  • Page 212: Routing The Station Alarm Cable

    System cabling and final assembly Station alarm wiring Figure 4-22 Routing the station alarm cable ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-38 See notice on first page Issue 2, June 2009...
  • Page 213 System cabling and final assembly External cable installation Overview ..............................................Purpose This section provides information about the external system cabling. NOTE: All cabling procedures described in this section are optional (customer dependent). Contents STM-1e interface 4-40 Procedure 4-4: STM-1e cable assembly instructions 4-47 DS3/EC1 interface 4-50...
  • Page 214 System cabling and final assembly STM-1e interface ..............................................Before you begin Due to the limited cabling space within a rack it is highly recommended to use rack extensions (see chapter 3) to be able to route the STM-1e cables properly. If the STM-1e interface paddle boards are not yet installed, mount them in the planned positions (see section below) by tightening the screws.

  • Page 215: Connector/Wire Technical Data (Single Coax Cable, Stm-1E)

    System cabling and final assembly STM-1e interface The cable consists of the parts listed in the table below. Table 4-11 Connector/wire technical data (Single coax cable, STM-1e) Part Comcode Connector: 408663482 1.6/5.6 coax (straight) or 1.6/5.6 coax (45°) Cable (without connector): 4.1 mm single coax with overall shield or 848068607 or 847716081 4.1 mm 8 fold coax with overall shield...

  • Page 216: Stm-1E Cabling With Rack Extension (Width)

    System cabling and final assembly STM-1e interface If a rack extension (width) is available, the slack should be created within the rack extension as shown in the figure below. Otherwise, the slack should be created within the left/right rack frame or above the rack (e.g. within a rack extension (height), if available).

  • Page 217: Stm-1E Cabling Without Rack Extension (Width)

    System cabling and final assembly STM-1e interface Figure 4-26 STM-1e cabling without rack extension (width) Cabling of two subracks If two subracks are used within one rack, a rack extension (width) is required and the STM-1e cables of both subracks should be led via the rack extension to the top/bottom of the rack.

  • Page 218: Mounting Of The Cable Bracket

    System cabling and final assembly STM-1e interface Figure 4-27 Mounting of the cable bracket Unprotected STM-1e routing Unprotected STM-1e cabling can be done only with the use of a rack extension (width). General information The STM-1e cables need to be routed loosely (with some slack) to allow service engineers to pull out an STM-1e interface paddle board without affecting traffic of an adjacent interface.

  • Page 219: Stm-1E Cabling With Rack Extension (Width)

    System cabling and final assembly STM-1e interface Figure 4-28 STM-1e cabling with rack extension (width) Cabling of two subracks If two subracks are used within one rack, a rack extension (width) is required and the STM-1e cables of both subracks should be led via the rack extension to the top/bottom of the rack.

  • Page 220: Mounting Of The Cable Bracket

    System cabling and final assembly STM-1e interface Figure 4-29 Mounting of the cable bracket ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-46 See notice on first page Issue 2, June 2009...
  • Page 221 System cabling and final assembly Procedure 4-4: STM-1e cable assembly instructions ..............................................Description There are the following type of connectors: • IMS — type 3320.52.1420.0D5 (45°) • IMS — type 2630.52.1310.0D5 (straight) Important! Use of the correct tools to ensure a proper connection........................................

  • Page 222: Ims Assembly Procedure

    System cabling and final assembly Procedure 4-4: STM-1e cable assembly instructions Results Figure 4-30 IMS assembly procedure ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-48 See notice on first page Issue 2, June 2009...

  • Page 223: Crimp Tool And Die

    System cabling and final assembly Procedure 4-4: STM-1e cable assembly instructions Legend: Coax 1.6/5.6 connector (straight) Coax 1.6/5.6 connector (45°) Crimp tool Figure 4-31 Crimp tool and die Legend: Crimp tool — AGK 2365 Hexagon die 4.6 — AGK 3068, or square 1.2 ..............................................

  • Page 224: Example Of Mounted Eci51 Interface Paddle Board

    System cabling and final assembly DS3/EC1 interface ..............................................Before you begin Due to the limited cabling space within a rack it is highly recommended to use rack extensions (see chapter 3) to be able to route the DS3/EC1 cables properly. If the ECI51 interface paddle boards are not yet installed, mount them in the planned positions by tightening the four screws (see figure below).
  • Page 225 System cabling and final assembly DS3/EC1 interface The following US-type cables are available: • 15 m [50 ft] DS3/EC1 cable — CC848956587 • 30 m [100 ft] DS3/EC1 cable — CC848956595 • 46 m [150 ft] DS3/EC1 cable — CC848956603 •...

  • Page 226: Ds3/Ec1 Cabling Without Rack Extension (Width)

    System cabling and final assembly DS3/EC1 interface Figure 4-33 DS3/EC1 cabling without rack extension (width) Cabling of two subracks If two subracks are used within one rack, a rack extension (width) is required and the DS3/EC1 cables of both subracks should be led via the rack extension to the top/bottom of the rack.
  • Page 227 System cabling and final assembly Miscellaneous Discrete Inputs/Outputs (MDIs/MDOs) ..............................................Overview Miscellaneous Discrete Inputs and Outputs allow the network provider to use the system to monitor and control other equipment co-located with the system. For example, an MDI can be connected to monitor a temperature sensor, and an MDO can be connected to control a fan or generator.

  • Page 228: Pin Assignment (Mdi/Mdo Cables)

    System cabling and final assembly Miscellaneous Discrete Inputs/Outputs (MDIs/MDOs) Figure 4-34 Connector of the MDI/MDO cables Table 4-12 Pin assignment (MDI/MDO cables) Point on Signal name Point on Signal name connector connector IN 0 IN 1 IN 2 IN 3 IN 4 IN 5 IN 6...

  • Page 229: Routing The Mdi/Mdo Cable (Subrack Side)

    System cabling and final assembly Miscellaneous Discrete Inputs/Outputs (MDIs/MDOs) Routing with MDIO terminal rail The figures below show the complete MDI/MDO cable routing. The first figure shows the cable routing of the MDI/MDO cables described above (subrack side). The second figure shows the cabling on the PDP or MDIO terminal rail side.

  • Page 230: Routing Via The Mdio Terminal Rail

    System cabling and final assembly Miscellaneous Discrete Inputs/Outputs (MDIs/MDOs) Figure 4-36 Routing via the MDIO terminal rail Legend: Shielded MDI/MDO cable → all pins should be connected to the MDIO terminal rail (one-by-one). The cable should be shortened to the appropriate length. Preferred earth connection point for the braid of the MDI/MDO cable.
  • Page 231 System cabling and final assembly Miscellaneous Discrete Inputs/Outputs (MDIs/MDOs) The cable routing on the subrack side is shown in Figure 4-35, “Routing the MDI/MDO cable (subrack side)” (p. 4-55). The cables that should be used are mentioned in section “Cable data” (p. 4-53).
  • Page 232 System cabling and final assembly User byte interfaces (G.703/V.11) ..............................................Overview The six user byte interfaces provide the user data channels. If required, an external orderwire equipment can be connected to these interfaces. There are four universal interfaces which can be used as G.703 co-directional or V.11 contra-directional interfaces.

  • Page 233: Connector Of The User Byte Cables

    System cabling and final assembly User byte interfaces (G.703/V.11) Figure 4-37 Connector of the user byte cables Table 4-13 Pin assignment (user byte cables) Point on Signal name V.11 G.703 connector Ground Output-Clock contra-directional co-directional Positive balanced balanced Output-Frame contra-directional co-directional Positive balanced...

  • Page 234: Pin Assignment (User Byte Cables)

    System cabling and final assembly User byte interfaces (G.703/V.11) Table 4-13 Pin assignment (user byte cables) (continued) Point on Signal name V.11 G.703 connector Output-Clock contra-directional co-directional Negative balanced balanced Output-Frame contra-directional co-directional Negative balanced balanced Output-Data Tx-Data Negative, OH 64 kbit/s Data Negative Output Tip, contra-directional...

  • Page 235: Routing The User Byte Cables

    System cabling and final assembly User byte interfaces (G.703/V.11) Figure 4-38 Routing the user byte cables Legend: Routing for USERBIO 1, 4 and 5. Routing for USERBIO 2, 3 and 6..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-61 Issue 2, June 2009 See notice on first page...

  • Page 236: Connector Of The 100/110 Ω Ds1 Station Clock Output Cables

    System cabling and final assembly TI-DS1 Station clock I/O interface (100/110 Ω) ..............................................Cable quantity One input cable and one output cable are needed for each Timing Interface (TI). Cable data (TI-DS1 output, 100/110 Ω) Length of pre-fabricated cables, shielded twisted pair 100/110 Ω + overall screen: •...
  • Page 237 System cabling and final assembly TI-DS1 Station clock I/O interface (100/110 Ω) Table 4-14 Pin assignment (DS1 station clock output cables, 100/110 Ω) (continued) Point on Signal name Wire Wire color *1 connector Ground Screen 6, 9 Strap Cable data (TI-DS1 input, 100/110 Ω) Length of pre-fabricated cables, shielded twisted pair 100/110 Ω...

  • Page 238: Connector Of The 100/110 Ω Ds1 Station Clock Input Cables

    System cabling and final assembly TI-DS1 Station clock I/O interface (100/110 Ω) Figure 4-40 Connector of the 100/110 Ω DS1 station clock input cables Table 4-15 Pin assignment (DS1 station clock input cables, 100/110 Ω) Point on Signal name Wire Wire color *1 connector Station-Clock Input Positive...

  • Page 239: Routing The Station Clock I/O Cables

    System cabling and final assembly TI-DS1 Station clock I/O interface (100/110 Ω) Figure 4-41 Routing the station clock I/O cables ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-65 Issue 2, June 2009 See notice on first page...

  • Page 240: Connector Of The 120 Ω E1 Station Clock Output Cables

    System cabling and final assembly TI-E1 Station clock I/O interface (120 Ω) ..............................................Cable quantity One input cable and one output cable are needed for each Timing Interface (TI). Cable data (TI-E1 Output, 120 Ω) Length of pre-fabricated cables, shielded twisted pair, 120 Ω + overall screen: •...

  • Page 241: Connector Of The 120 Ω E1 Station Clock Input Cables

    System cabling and final assembly TI-E1 Station clock I/O interface (120 Ω) Cable data (TI-E1 input, 120 Ω) Length of pre-fabricated cables, shielded twisted pair, 120 Ω + overall screen: • 10 m [32.808 ft] Station clock input cable, TI–E1 (120Ω) — CC109155812 •...

  • Page 242: Routing The Station Clock I/O Cables

    System cabling and final assembly TI-E1 Station clock I/O interface (120 Ω) Figure 4-44 Routing the station clock I/O cables ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-68 See notice on first page Issue 2, June 2009...

  • Page 243: Connector Of The 75 Ω E1 Station Clock Output Cables

    System cabling and final assembly TI-E1 Station clock I/O interface (75 Ω) ..............................................Cable quantity One input cable and one output cable are needed for each Timing Interface (TI). Cable data (TI-E1 output, 75 Ω) Length of pre-fabricated cables, coaxial 75 Ω: •...

  • Page 244: Connector Of The 75 Ω E1 Station Clock Input Cables

    System cabling and final assembly TI-E1 Station clock I/O interface (75 Ω) Cable data (TI-E1 input, 75Ω) Length of pre-fabricated cables, coaxial 75 Ω: • 10 m [32.808 ft] Station clock input cable, TI–E1 (75Ω) — CC109155879 • 25 m [82.021 ft] Station clock input cable, TI–E1 (75Ω) — CC109155887 •...

  • Page 245: Routing The Station Clock I/O Cables

    System cabling and final assembly TI-E1 Station clock I/O interface (75 Ω) Figure 4-47 Routing the station clock I/O cables ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-71 Issue 2, June 2009 See notice on first page...
  • Page 246 System cabling and final assembly LAN 10/100 Base-T interface ..............................................Locations The LAN ports are positioned on the: • User Panel (LAN1): - LAN1 → CIT interface • CI-CTL (LAN2, LAN3, LAN4): - LAN2, LAN3 → Local EMS (HUB) or CIT interfaces - LAN4 →...

  • Page 247: Cit Connection (Lan Crossed)

    System cabling and final assembly LAN 10/100 Base-T interface Figure 4-48 CIT connection (LAN crossed) White/Orange White/Blue Orange Blue White/Blue White/Orange White/Green White/Green Green Green Blue Orange White/Brown White/Brown Brown Brown Table 4-20 Pin assignment (LAN cables, crossed) Point on connector Signal name Transmit-data positive Transmit-data negative...

  • Page 248: Pin Assignment (Lan Cables, Straight)

    System cabling and final assembly LAN 10/100 Base-T interface Each HUB connection uses the following pre-fabricated straight LAN cables (CAT5 with 4-wire RJ-45/RJ-45 connectors): • 10 m [32.808 ft] LAN cable — CC109155929 • 25 m [82.021 ft] LAN cable — CC109155945 •...

  • Page 249: Routing Lan2, Lan3 And Lan4 (Ci-Ctl)

    System cabling and final assembly LAN 10/100 Base-T interface Figure 4-51 Routing LAN2, LAN3 and LAN4 (CI-CTL) ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-75 Issue 2, June 2009 See notice on first page...
  • Page 250 System cabling and final assembly Fiber cabling Overview ..............................................Purpose This section provides information about the fiber cabling and routing. Note that fiber cables cannot be connected to the optical circuit packs at this moment . That should be done later (see chapter 10, section Procedure 10-1: “Connecting the fiber cables”...
  • Page 251 System cabling and final assembly Optical circuit packs ..............................................Application packs The following pack types are available: • OP155M • OP622 • OPLB • OP2G5, OP2G5D, OPT2G5 • OP10, OP10D • GE1/SX4, GE1/LX4 • GE10PL1/1A8. For a complete and up-to-date list of all available circuit packs with the respective comcodes please refer to the Engineering Drawings ED8C948-10 and ED8C948-20, that you can: •...

  • Page 252: Op155M Layout

    System cabling and final assembly Optical circuit packs OP155M The following figure shows the layout of the OP155M circuit pack (KFA18). Figure 4-52 OP155M layout Legend: Richco twist lock TL250 — DC1004336 (part of circuit pack delivery) Important! For this transmission unit only optical break-out cables (bundles of 12 single mode fibers) with 45°...

  • Page 253: Oplb/Par8 Parent Board With Om155 Sfp Modules

    SFPs inserted on the parent board can be varied flexibly between 0 and 8. The remaining SFP sockets can be left empty. The 1675 LambdaUnite MSS SFPs are marked by the manufacturer, and they are checked upon insertion, in order to protect against accidental insertion of non 1675 LambdaUnite MSS specific SFPs.

  • Page 254: Op622 Layout

    System cabling and final assembly Optical circuit packs Figure 4-54 OP622 layout Legend: Richco twist lock TL250 — DC1004336 (part of circuit pack delivery) Important! For this transmission unit only optical break-out cables (bundles of 12 single mode fibers) with 45° boots must be used! OP2G5 The following figure shows the layout of the OP2G5 circuit pack (KFA12, KFA203, KFA204).

  • Page 255: Op2G5 Layout

    System cabling and final assembly Optical circuit packs Figure 4-55 OP2G5 layout Legend: Richco twist lock TL250 — DC1004336 (part of circuit pack delivery) OP2G5/PWDM with OM2G5/PWDM modules The following figure shows the layout of the OP2G5/PWDM board (KFA20)..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-81...

  • Page 256: Op2G5/Pwdm With Om2G5/Pwdm Modules

    System cabling and final assembly Optical circuit packs Figure 4-56 OP2G5/PWDM with OM2G5/PWDM modules Legend: OP2G5/PWDM board Module Richco twist lock TL250 — DC1004336 (part of circuit pack delivery) OP2G5D/PAR8 with OM2G5 or OM2G5/CWDM SFP modules The modules have a transmission rate of 2.5 Gbit/s. Up to eight SFPs fit on the parent board.

  • Page 257: Op10 Layout

    System cabling and final assembly Optical circuit packs OP10 The following figure shows the layout of the OP10 board. Figure 4-57 OP10 layout Legend: Is part of the board LC connector — CC108265950 and ASSY-A1LC-BASE (BLACK) B* — CC108265950 OP10D/PAR2 with OM10 modules The following figure shows the layout of the OP10D/PAR2 board (KFA630).

  • Page 258: Op10D/Par2 With Om10 Modules

    System cabling and final assembly Optical circuit packs Figure 4-58 OP10D/PAR2 with OM10 modules Legend: OP10D/PAR2 board OM10 module Richco twist lock TL250 — DC1004336 (part of circuit pack delivery) OP10D/PAR2XFP with OMX10 modules The following figure shows the layout of the OP10D/PAR2XFP board (KFA632) that can accommodate two XFP modules (OMX10/10KM1 and/or OMX10/40KM1).

  • Page 259: Op10D/Par2Xfp Layout

    System cabling and final assembly Optical circuit packs Figure 4-59 OP10D/PAR2XFP layout OP10/PAR1XFP with OMX10 module The OP10/PAR1XFP board (KFA631) can accommodate one XFP module (OMX10/10KM1 or OMX10/40KM1)..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-85 Issue 2, June 2009 See notice on first page...
  • Page 260 System cabling and final assembly Gigabit Ethernet circuit packs ..............................................Application packs The following pack types are available: • GE1/SX4 • GE1/LX4 • GE10PL1/1A8. Cable data Important! Only the fiber cables with listed comcode (see Engineering Drawings) are allowed to be used, otherwise the proper functioning of the system cannot be guaranteed.

  • Page 261: Ge1 Circuit Packs

    System cabling and final assembly Gigabit Ethernet circuit packs Figure 4-60 GE1 circuit packs Legend: Richco twist lock TL250 — DC1004336 (part of circuit pack delivery) GE10PL1/1A8 The following figure shows the layout of the GE10PL1/1A8 circuit pack with plugged dust covers.

  • Page 262: Ge10Pl1/1A8 Circuit Pack

    System cabling and final assembly Gigabit Ethernet circuit packs Figure 4-61 GE10PL1/1A8 circuit pack 8x SFP 1x XFP ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-88 See notice on first page Issue 2, June 2009...

  • Page 263: Side Guides

    System cabling and final assembly Fiber engineering rules ..............................................Overview This section provides information related to the fiber capacity restrictions of the 1675 LambdaUnite MSS system. The number of fibers can be extended by using the rack extension (width) in combination with special fiber guides (see chapter 3). NOTE: It is highly recommended to use 1.6 mm fibers only because the use of 2 mm fibers can rapidly lead to space constraints.

  • Page 264: When To Use A Rack Extension

    System cabling and final assembly Fiber engineering rules Each standard side guide supports per quadrant • 64 fibers (2 mm) / 32 ports or • 128 fibers (1.6 mm) / 64 ports. NOTE: Enhanced side guides which are part of the rack extension kits are required if more than 128 fibers / 64 ports are available per quadrant.

  • Page 265: General Fiber Management

    Fiber engineering rules General fiber management All fiber cables must be routed within the front half of the 1675 LambdaUnite MSS rack frame and from both sides of the subrack to the top or bottom via the side guides (DC1001518, item 2) which are mounted at each corner position of the subrack. The cables are tightened with Velcro tape (DC1005002, item 3) before they enter the subrack.
  • Page 266 System cabling and final assembly Fiber engineering rules Legend: Cable routed to the lower subrack Routing rules/examples All break-out cables must be routed through chambers 1 and 2, the 1.6 mm fibers through chambers 3 and 4. The figures below show recommended cable dressings depending on the number of applied subracks and ports.
  • Page 267 System cabling and final assembly Fiber engineering rules Figure 4-66 Routing without rack extension (1 subrack) Break-out cables from rack top to upper fiber guide max. max. Fiber clip Break-out point Fiber clip to lower fiber guide Break-out point Subrack (side view) Cable slack can also be used for accommodating overlength ..............................................
  • Page 268 System cabling and final assembly Fiber engineering rules Figure 4-67 Routing with rack extension (1 subrack) Break-out cables Break-out cables from rack top from rack extension Subrack (side view) to upper fiber guide max. max. max. Fiber clip Break-out points max.
  • Page 269 System cabling and final assembly Fiber engineering rules Figure 4-68 Routing without rack extension (2 subracks) Break-out cables from rack top to upper fiber guide max. max. Fiber clip Break-out point Fiber clip to lower fiber guide Break-out point Subrack (side view) to upper fiber guide Fiber clip Break-out point...
  • Page 270 System cabling and final assembly Fiber engineering rules Figure 4-69 Routing with rack extension (2 subracks) Break-out cables Break-out cables from rack top from rack extension Subrack (side view) to upper fiber guide max. max. max. Fiber clip Break-out points Subrack 1 max.
  • Page 271 System cabling and final assembly Application of attenuators ..............................................Overview Attenuators (e.g. LC-Line Build-Out or Allwave Attenuators) can be required to ensure a correct optical power input level, which protects the circuit packs against overload. It is not mandatory to have an attenuator (e.g. LC-Line Build-Out or Allwave Attenuators) between the optical port (e.g.
  • Page 272 System cabling and final assembly Installation of doors and side cover plates Overview ..............................................Purpose This section describes the two final (optional) assembly steps, the side cover plate and rack door mounting. Contents Procedure 4-5: Side cover plates 4-99 Procedure 4-6: Rack doors 4-102 ..............................................
  • Page 273 System cabling and final assembly Procedure 4-5: Side cover plates ..............................................Before you begin The side cover plates can be mounted on each side of a stand-alone rack frame with or without rack extension, but within a rack line-up only the two outer sides of the cabinet can be covered.

  • Page 274: Side Cover Plate Mounting Onto The Rack Frame

    System cabling and final assembly Procedure 4-5: Side cover plates Results Figure 4-70 Side cover plate mounting onto the rack frame ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 4-100 See notice on first page Issue 2, June 2009...

  • Page 275: Side Cover Plate Mounting Onto The Rack Extension

    System cabling and final assembly Procedure 4-5: Side cover plates Figure 4-71 Side cover plate mounting onto the rack extension ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 4-101 Issue 2, June 2009 See notice on first page...
  • Page 276 System cabling and final assembly Procedure 4-6: Rack doors ..............................................Installation procedure Proceed as follows to install the rack doors: ........................................Place the lower hinge pin of the door in the eye of the door support bottom. The following rack doors should be used: •...

  • Page 277: Installing The Rack Doors

    System cabling and final assembly Procedure 4-6: Rack doors Result Figure 4-72 Installing the rack doors Opening the rack doors Proceed as follows to open the rack doors: ........................................Put a finger in the hole below the door latch to lift the latch (see figure below)........................................

  • Page 278: Opening The Rack Doors

    System cabling and final assembly Procedure 4-6: Rack doors Result Figure 4-73 Opening the rack doors Installing the rack door lock (optional) Proceed as follows to install the rack door-lock: ........................................Follow the procedure for “Opening the rack doors” (p. 4-103).

  • Page 279: Installing The Door Lock

    System cabling and final assembly Procedure 4-6: Rack doors ........................................Press straight in the bezel, then upwards........................................Tilt the locking module and engage the tabs into the holes in the bezel........................................Snap the locking module into place. S T E P S ........................................

  • Page 281: Power, Software And Circuit Pack Installation

    Overview ..............................................Purpose This chapter describes • the powering of the 1675 LambdaUnite MSS system, ® • the WaveStar CIT and NE software installation, • the circuit pack installation, and • two final tests that should be performed to end the physical installation part.
  • Page 282 Destruction of components due to a supply voltage of incorrect polarity or that is too high. 1675 LambdaUnite MSS equipment operates at a nominal voltage of -48 V or -60 V. The permissible tolerance range is -40.5 V to -72 V.
  • Page 283 Power, software and circuit pack installation Overview Contents Procedure 5-1: Switching on and testing the supply voltage Procedure 5-2: Fan unit test ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...

  • Page 284: Pi/100 Switching

    Power, software and circuit pack installation Procedure 5-1: Switching on and testing the supply voltage ..............................................Overview This section describes the procedure for activating the voltage supply lines via the PI/100 units. Please observe the order of the steps described below. NOTE: If “breaker-less”...
  • Page 285 Power, software and circuit pack installation Procedure 5-1: Switching on and testing the supply voltage The voltage on the PDP must be in the range of –40.5 { –72.0 V DC. Result: CAUTION: Do not proceed if the voltage is outside the range! ........................................
  • Page 286 S T E P S ........................................Breaker-less PIs (PI/100 NOCB) If “breaker-less” PIs (PI/100 NOCB) are used, the 1675 LambdaUnite MSS subrack has to be connected via an external circuit breaker to the central office power installation. The current rating of the hydraulic-magnetic circuit breaker (no thermal fuse) depends on the configuration of the subrack.

  • Page 287: Breaker-Less" Pis (Pi/100 Nocb)

    Power, software and circuit pack installation Procedure 5-1: Switching on and testing the supply voltage Figure 5-2 “Breaker-less” PIs (PI/100 NOCB) ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...

  • Page 288: Fan Unit Leds

    Procedure 5-2: Fan unit test ..............................................Overview This test verifies the correct working of the fan unit in the 1675 LambdaUnite MSS subrack. The test should be carried out for each installed NE. Procedure Proceed as follows to test the correct functionality of the fan unit: ........................................

  • Page 289: Rubber Air Flow Baffles

    Power, software and circuit pack installation Procedure 5-2: Fan unit test ........................................Check the following: • All four fans are running. • The air flow direction is from bottom to top. Use the “rubber air flow baffles” to confirm the correct direction of air flow. Figure 5-4 Rubber air flow baffles ........................................
  • Page 290 Power, software and circuit pack installation Procedure 5-2: Fan unit test ........................................Reconnect both “POWER INPUT” cables (A and B). You can do this without switching off the power supply. The “PWR ON” LED and the “FAULT” LED should be illuminated. Result: ........................................
  • Page 291 Power, software and circuit pack installation Software and circuit pack installation Overview ..............................................Purpose ® This section describes the WaveStar CIT and NE software installation. It also contains a circuit pack mounting procedure and special configuration rules. Contents ® Procedure 5-3: WaveStar CIT installation 5-12 ®...
  • Page 292 Power, software and circuit pack installation ® Procedure 5-3: WaveStar CIT installation ..............................................Overview ® Use this procedure to install the WaveStar CIT software on a new system. NOTE: Please note that this installation procedure is only valid for the current ®...
  • Page 293 ® Power, software and circuit pack installation Procedure 5-3: WaveStar CIT installation Required web browser ® For the User Assistance functionality of the WaveStar CIT application a “weblication” is used that displays information in HTML. Therefore the off-the-shelf browsers Netscape 4.05 (or higher) or Internet Explorer 4.02 (or higher) are recommended. The browser to be used must be set as the default browser on the personal computer on ®...
  • Page 294 ® Power, software and circuit pack installation Procedure 5-3: WaveStar CIT installation Installation ® Complete the following steps to install the WaveStar CIT software on your PC: ........................................® Insert the WaveStar CIT CD-ROM (CC109646745) into the appropriate drive of your ........................................
  • Page 295 ® Power, software and circuit pack installation Procedure 5-3: WaveStar CIT installation ® Result: The WaveStar CIT files are extracted. This will take a few minutes. Then Welcome to the InstallShield Wizard for WaveStar CIT window appears........................................Click to continue the installation. Next window appears.
  • Page 296 ® Power, software and circuit pack installation Procedure 5-3: WaveStar CIT installation Click Next Important! This configuration can only be done during installation. Result: Setup Type window appears........................................Select and click WaveStar CIT Next window appears. Result: Select Components ........................................
  • Page 297 ® Power, software and circuit pack installation Procedure 5-3: WaveStar CIT installation ........................................® To verify proper installation, double click the WaveStar CIT Icon on your desktop to start the application. S T E P S ....................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary 5-17 Issue 2, June 2009 See notice on first page...
  • Page 298 NOTE: “LUC01” and “LUC02” are pre-installed Super User logins which must be used together with the passwords “LUC+01” and “LUC+02” throughout this manual. More information related to user administration and privilege codes is given in the “1675 LambdaUnite MSS User Operations Guide” (chapters 2 and 14)........................................®...
  • Page 299 Power, software and circuit pack installation Procedure 5-5: NE software installation ..............................................Overview ® The software generic has to be copied from the WaveStar CIT CD-ROM to the ® ™ WaveStar CIT PC and then to an empty and pre-formatted CompactFlash card via ®...
  • Page 300 Step you prefer manual installation, proceed to Step ........................................Insert the 1675 LambdaUnite MSS CD-ROM with the new NE software........................................IF ... THEN ... the Welcome Screen appears, proceed to Step the Welcome Screen does not...
  • Page 301 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................Click the NE Software button on the right..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 5-21 Issue 2, June 2009 See notice on first page...
  • Page 302 Skip the following steps and proceed to section “Remove CompactFlash card from CTL” (p. 5-23)........................................Insert the 1675 LambdaUnite MSS CD-ROM with the new NE software........................................If the Welcome Screen appears, select to exit from the automatic installation Cancel procedure.
  • Page 303 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................Click with the right mouse button and select Start Explore ........................................® Select the hard-disk drive where the WaveStar CIT software is installed........................................Click Program Files ........................................Click , respectively (see “Installation...
  • Page 304 Power, software and circuit pack installation Procedure 5-5: NE software installation ™ Proceed as follows to remove the CompactFlash card from the CTL: ........................................™ Locate the Security Bar for the CompactFlash card that is located on the top edge of the CTL unit as shown below.
  • Page 305 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................Open the Security Bar as shown below........................................™ Push the button beside the CompactFlash card as shown below to release the ™ CompactFlash card..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 5-25 Issue 2, June 2009 See notice on first page...
  • Page 306 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................™ ™ Carefully remove the CompactFlash card from the CompactFlash slot. The ™ CompactFlash card should fit snugly but not require a great deal of force to remove. ™...
  • Page 307 Power, software and circuit pack installation Procedure 5-5: NE software installation ™ NE software installation on CompactFlash card ™ Proceed as follows to install the NE software on the CompactFlash card: ........................................™ Take the removed CompactFlash card or another Alcatel-Lucent-provided and ™...
  • Page 308 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................In the window, click and then in the Prepare PCMCIA Disk Copy Generic confirmation window. The file copy function starts and you see a “Copying generic files...” Result: message.
  • Page 309 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................™ If the CompactFlash card driver software that you are using requires you to stop the ™ CompactFlash card before ejecting it, stop the card now. If the software that you are using does not allow for this procedure, make sure that the used slot is not being accessed (the LED is not flashing for about 5 seconds) before continuing.
  • Page 310 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................If the screws are not loose, use a small Phillips Screw Driver to loosen the screws two turns. Do not remove the screws........................................Open the Security Bar as shown below........................................
  • Page 311 Power, software and circuit pack installation Procedure 5-5: NE software installation ........................................™ ™ Carefully insert the CompactFlash card into the CompactFlash slot. The ™ CompactFlash card should fit snugly but not require a great deal of force to insert........................................
  • Page 312 Power, software and circuit pack installation Circuit packs ..............................................Overview This section gives an overview about the available circuit packs. For a complete and up-to-date list with the respective comcodes please refer to the Engineering Drawings ED8C948-10 and ED8C948-20, that you can: •...

  • Page 313: Available Circuit Packs

    Power, software and circuit pack installation Circuit packs Table 5-1 Available circuit packs (continued) Short Name Function Ports Max. Max. ports units per shelf pack shelf OP2G5/PAR4 Transparent optical I/O parent board for OC-48 / STM-16 optical SFP interface modules OPT2G5/PAR3 Transparent optical I/O parent board for OC-48 / STM-16 optical SFP interface...
  • Page 314 Power, software and circuit pack installation Circuit packs Table 5-1 Available circuit packs (continued) Short Name Function Ports Max. Max. ports units per shelf pack shelf LOXC40G2S/1 2-slot wide low-order cross-connect with 40 Gbps switch capacity (CC109564492) LOXC40G3S/1 3-slot wide low-order cross-connect with 40 Gbps switch capacity (CC109564500) CTL/-...

  • Page 315: Available Interface Modules

    Power, software and circuit pack installation Circuit packs Table 5-2 Available interface modules Short Name Function Parent board Max. Max. ports ports board shelf OM10 Optical interface module OP10D/PAR2 OC-192 / STM-64 OMX10/10km1 10-Gbit/s Ethernet LANPHY GE10PL1/1A8 optical XFP interface module OP10/PAR1XFP (10 km) OP10D/PAR2XFP...
  • Page 316 Minimum required circuit packs The minimum recommended complement of circuit packs required for an operational 1675 LambdaUnite MSS shelf is • two switching units, one working and one protection • one controller unit (traditional applications) or two controller units, one working and one protection (ONNS functionality) •...

  • Page 317: Blank Front Plate (3N) - Cc848782868

    Power, software and circuit pack installation Circuit packs 3N types Figure 5-5 Blank front plate (3N) — CC848782868 ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 5-37 Issue 2, June 2009 See notice on first page...

  • Page 318: Blank Front Plate (3N) With Empty Holes - Cc848840112

    Power, software and circuit pack installation Circuit packs Figure 5-6 Blank front plate (3N) with empty holes — CC848840112 Legend: Hang the cables temporarily in the empty holes in the front blank when you pre-arrange the cables. NOTE: The maximum upward and downward displacement of the plastic latches shall not exceed 5 mm to avoid any destruction! ..............................................

  • Page 319: Blank Front Plate (6N) - Cc848782876

    Power, software and circuit pack installation Circuit packs 6N type Figure 5-7 Blank front plate (6N) — CC848782876 ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 5-39 Issue 2, June 2009 See notice on first page...

  • Page 320: Slot Positions Of The Circuit Packs

    Power, software and circuit pack installation Configuration rules ..............................................Overview This section describes the configuration rules that must be observed. General configuration rules The following figure and table show the valid slot positions of the circuit packs looking at the subrack from the front. Figure 5-8 Slot positions of the circuit packs USRPNL Legend...
  • Page 321 Power, software and circuit pack installation Configuration rules Legend Circuit pack Valid slots CTL/-, CTL/2, CTL/3T, CTL/3S, CTL/4T, CTL/4S (protection) or blank front plate (3N) Any optical circuit pack #01 ... #08, #12 ... #19, (OP155M, OP622, OP2G5 , OP10 #21 ...

  • Page 322: Ep51 Slot Assignment

    Power, software and circuit pack installation Configuration rules Gigabit Ethernet and 10-Gbit/s port units To avoid thermic stress, it is recommended not to place a 10-Gbit/s port unit directly above a Gigabit Ethernet port unit. Optical port unit protection In the case of optical port protection (1+1 Linear APS / 1+1 MSP) it is recommended to place the working port unit and the protection port unit side by side for ease of maintenance.

  • Page 323: Association Between Ep51 Slots And Eci51 Slots

    Power, software and circuit pack installation Configuration rules EP51/ECI51 slot assignments The table below shows the association between the EP51 slots and the slots of the rear-side ECI51 interface paddle boards. Table 5-3 Association between EP51 slots and ECI51 slots EP51 slots ECI51 slots ECI51 position...

  • Page 324: Ep51/Eci51 Slot Association

    Power, software and circuit pack installation Configuration rules Figure 5-10 EP51/ECI51 slot association ECI51 position 76 ECI51 position 65 ECI51 positions associated with: associated with: 65 & 76 ECI51 slots 74/76 ECI51 slots 63/65 (note 1) EP51 slots 34...37 EP51 slots 23...26 ECI51 position 78 ECI51 position 74 ECI51 position 67...

  • Page 325: Association Between Ep51 Slots And Eci51 Protection Groups

    Power, software and circuit pack installation Configuration rules The table below shows the association between the EP51 slots and the protection groups (“PROTECTION GROUP 1” or “PROTECTION GROUP 2”) of each ECI51 interface paddle board depending on its location. Table 5-4 Association between EP51 slots and ECI51 protection groups ECI51 position ECI51 slots...

  • Page 326: Eci51 Protection Group Assignment

    Power, software and circuit pack installation Configuration rules Figure 5-11 ECI51 protection group assignment ECI51 LXC160 configuration rules These rules and guidelines apply when the of the system Maximum Switch Capacity is set to LXC160 (160 Gbit/s): 1. The maximum switching capacity of the system is 160 Gbit/s (3072 × 3072 VC-3/STS-1;...

  • Page 327: Lxc Configuration Rules With Xc160

    Power, software and circuit pack installation Configuration rules 4. All cross-connection and timing units can be provisioned in slot 9 and slot 10. However, the maximum switching capacity that can be used is 160 Gbit/s, and the slot equippage rules as described above apply independent of which cross-connection and timing unit is used.
  • Page 328 Power, software and circuit pack installation Configuration rules LXC320 configuration rules These rules and guidelines apply when the of the system Maximum Switch Capacity is set to LXC320 (320 Gbit/s): 1. The maximum switching capacity of the system is 320 Gbit/s (6144 × 6144 VC-3/STS-1;...

  • Page 329: Lxc Configuration Rules With Xc320

    Power, software and circuit pack installation Configuration rules Figure 5-13 LXC configuration rules with XC320 User panel 33 34 35 36 10 11 13 14 15 16 front view LXC640 configuration rules These rules and guidelines apply when the Maximum Switch Capacity of the system is set to (640 Gbit/s):...

  • Page 330: Lxc Configuration Rules With Xc640

    Power, software and circuit pack installation Configuration rules 6. Lower order cross-connection units of type LOXC40G3S/1 (3 slots wide) can be used in the universal slots 4 and 19 (worker LOXC40G3S/1 in the slots 2/3/4, protection LOXC40G3S/1 in the slots 17/18/19). 7.
  • Page 331 Power, software and circuit pack installation Configuration rules Max. switching capacity Slot assignment LOXC (W) LOXC (P) Remarks and additional equipage guidelines LXC320 Option 1 The slots 3 and 18 must remain empty. Bear in mind, that the slots 2 and 17 may be required at a later date in case an in-service upgrade is planned towards LOXC units which occupy 3 slots.
  • Page 332 Power, software and circuit pack installation Configuration rules LXC160: User panel ( ) P 10 11 front view LXC320: User panel ( ) P 33 34 35 36 10 11 13 14 15 16 ( ) P front view ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 5-52...
  • Page 333 Power, software and circuit pack installation Configuration rules LXC640: User panel ( ) P ( ) P front view ONNS configuration rules A special subrack equippage is required for ONNS applications. Observe these rules and guidelines with regard to an LXC configuration supporting ONNS applications: 1.

  • Page 334: Undamaged Connector Blocks

    Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs ..............................................Overview This section describes the physical mounting of the circuit packs. Safety CAUTION Subrack destruction due to insertion of damaged circuit packs or due to incorrect circuit pack insertion. Subracks can be destructed if damaged circuit packs are inserted or if circuit packs are inserted incorrectly.
  • Page 335 Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs Figure 5-15 Undamaged connector blocks ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 5-55 Issue 2, June 2009 See notice on first page...

  • Page 336: Undamaged Guide Headers

    Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs Figure 5-16 Undamaged/damaged EMI shields Figure 5-17 Undamaged guide headers ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 5-56 See notice on first page Issue 2, June 2009...
  • Page 337 Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs Insertion of circuit packs Proceed as follows to insert a circuit pack: ........................................Put the circuit pack onto the lower guiding extrusion as shown in the figure below. NOTE: The right rail of the guiding extrusion must be used.
  • Page 338 Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs ........................................Make sure that the latches engage the subrack latch-panel. Lock the latches of behind the circuit pack simultaneously ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 5-58 See notice on first page Issue 2, June 2009...
  • Page 339 Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs ........................................Check that the metal clip of each latch is visible as shown in the figure below. S T E P S ....................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary 5-59 Issue 2, June 2009 See notice on first page...
  • Page 340 Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs Blank front plate The maximum upward and downward displacement of the plastic latches shall not exceed 5 mm to avoid any destruction. Mounting order Mount the circuit packs in the following order: ........................................
  • Page 341 Power, software and circuit pack installation Procedure 5-6: Mounting the circuit packs ........................................Push the XC unit (protection) firmly into slot “XC P” (#10). The “Active” LED must flash after about 20 seconds. Result: Troubleshooting: If that is not the case, check that the XC unit is plugged correctly. If that does not solve the problem, replace the XC unit (protection).
  • Page 342 Power, software and circuit pack installation Physical installation check ..............................................Overview A complete physical installation check should be done to ensure that all components are complete and the cables are connected correctly. It should also be checked if the NE is up and running. Checks Check that •...
  • Page 343 E xit checklist – Part I Overview ..............................................Purpose This chapter contains the exit checklist for Part I (see next page) and a table for entering the power supply values measured in chapter 5. Contents Physical and power installation exit checklist Power supply measurements ..............................................
  • Page 344 Exit checklist – Part I Physical and power installation exit checklist ..............................................Verify that all procedures described below have been completed. If a procedure was not applicable, indicate “N/A”. Procedure Result Initials Notes (Passed/Completed, or N/A) Rack installed Rack extension (width) installed Rack extension (height) installed Rack adapter kit installed MDIO terminal rail installed...
  • Page 345 Exit checklist – Part I Power supply measurements ..............................................Measured values Feeder Measured voltage ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...

  • Page 347: Part Ii: Ne Provisioning And Stand-Alone Installation Test

    Part II: NE provisioning and stand-alone installation test Overview ..............................................Purpose This part of the 1675 LambdaUnite MSS Installation Guide contains the NE provisioning and the stand-alone test procedures. Contents This part of the document contains the following chapters: • Chapter 7, NE provisioning •...

  • Page 348: Ne Provisioning

    NE provisioning and stand-alone installation test Overview Procedure Completed Initials Notes Is the following test equipment available? • Optical power meter with LC connectors • SDH/SONET analyzer • Adjustable optical attenuator Contents Chapter 7, NE provisioning Chapter 8, Stand-alone test procedures Chapter 9, Exit checklist –...

  • Page 349: Ne Provisioning

    This chapter describes the NE login procedure and the initial NE provisioning via ® WaveStar CIT. Assumption The person setting up the system should be familiar with 1675 LambdaUnite MSS, the ® SDH or SONET functionality and WaveStar CIT. Contents NE login ®...

  • Page 350: Ne Login

    NE provisioning NE login Overview ..............................................Purpose ® This section describes the NE login procedure and how WaveStar CIT has to be connected to a NE. Important! At this point in the NE turn-up only an Procedure 7-1: “NE login via OSI” (p.

  • Page 351: Direct Lan Access (Point-To-Point)

    ® The WaveStar CIT (LAN card) is connected to the 1675 LambdaUnite MSS via the “CIT” port of the user panel or through a backplane connector (LAN I/O Panel). A shielded CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...

  • Page 352: Wavestar ® Cit Lan Access (Network)

    ® NE provisioning Connecting the WaveStar CIT to the NE ® WaveStar CIT LAN access (network) ® WaveStar CIT access to more than one NE can be done via a HUB. Shielded CAT5 straight LAN cables with RJ-45/RJ-45 connectors must be used for this connection. ®...
  • Page 353 ® NE provisioning Connecting the WaveStar CIT to the NE ® Figure 7-3 WaveStar CIT access via DCC ® WaveStar CIT DCC Data Communication Channel ® WaveStar CIT access via TCP/IP ® The WaveStar CIT can be connected to NEs via TCP/IP in the following ways: •...

  • Page 354: Connecting The Wavestar Cit To The Ne

    ® NE provisioning Connecting the WaveStar CIT to the NE ® Figure 7-4 WaveStar CIT access via TCP/IP ® The following figure gives an example on conneting the WaveStar CIT through an IP network (Intranet). ® Figure 7-5 WaveStar CIT access via IP network (Intranet) IP Network ®...

  • Page 355: Procedure 7-1: Ne Login Via Osi

    NE provisioning Procedure 7-1: NE login via OSI ..............................................Overview This section describes the login procedure to an NE using an OSI connection. It is ® necessary that the WaveStar CIT is already connected to the NE (see section ® “Connecting the WaveStar CIT to the NE”...
  • Page 356 “UNITE+02”. NOTE: “LUC01” and “LUC02” are pre-installed Super User logins which must used throughout this manual. More information related to user administration and privilege codes is given in the “1675 LambdaUnite MSS User Operations Guide” (chapters 2 and 14). Result:...
  • Page 357 NE provisioning Procedure 7-1: NE login via OSI ........................................Click to connect. window appears. Result: Legal Notice ........................................Click to the legal notice. window appears for the selected NE. Result: System View S T E P S ........................................Password rules The following characters are allowed in a password: •...
  • Page 358 NE provisioning Procedure 7-1: NE login via OSI The following characters are not allowed in a password: • space Spaces are ignored, so they are not stored with the password, they are not evaluated for password validity and they do not count for the password length. •...

  • Page 359: Procedure 7-2: Ne Login Via Tcp/Ip

    (left window column), enter the target NE Management View identifier (TID) of the NE you wish to connect in the NE Name box........................................Select “1675 LambdaUnite MSS” as NE Type ........................................For the select “TCP/IP” and click Connection Type Graphical ..............................................
  • Page 360 NE provisioning Procedure 7-2: NE login via TCP/IP window appears. Result: TCP/IP Configure ........................................Enter the IP address and click window appears. Result: Unite Login Dialog ........................................Log in with your User Id and Password for the NE........................................Click to connect.

  • Page 361: Provisioning System Parameters

    NE provisioning Provisioning system parameters Overview ..............................................Purpose This section describes all provisioning tasks which should be performed to prepare the system for operation and to be able to perform some tests. Related information ® An overview about all WaveStar CIT related tasks is given in the “1675 LambdaUnite MSS User Operations Guide”.

  • Page 362: Procedure 7-3: Changing The Ne Name (Tid)

    NE provisioning Procedure 7-3: Changing the NE name (TID) ..............................................Overview This section provides a procedure for changing the NE name (TID). Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2.
  • Page 363 NE provisioning Procedure 7-3: Changing the NE name (TID) • Each NE name can be up to 20 characters in length. • The NE name may contain segments separated by hyphens (“-”) or slashes (“/”), but each segment must begin with a letter or number. NOTE: NE names are not case sensitive.

  • Page 364: Procedure 7-4: System Parameters

    The Equip selection tab appears on the left side of the window........................................Select “1675 LambdaUnite MSS” in the selection tab and click Equip Provision The selection window for the system parameters appears on the right side Result: of the window.
  • Page 365 NE provisioning Procedure 7-4: System parameters ........................................In the group box, specify the System Settings System Interface Standard Default IF { THEN { the system will interface select . This is the default setting. predominantly with SDH If the Note: System Interface Standard Default equipment, set to...
  • Page 366 NE provisioning Procedure 7-4: System parameters ........................................In the group box, specify the System Settings System Synch Characteristics IF { THEN { the system shall predominantly select . This is the default setting. comply with SDH synchronization requirements, the system shall predominantly select SONET comply with SONET...
  • Page 367 NE provisioning Procedure 7-4: System parameters ........................................In the group box, enable or disable the Fault Management Enhanced SA/NSA Alarm Classification IF { THEN { you want to enable the enhanced mode of SA/NSA select Enable alarm classification for SNCP/UPSR rings, you want LOS and LOF alarms always to be reported select Disable...
  • Page 368 In the WaveStar , select System View Fault → Enter/Exit Maintenance Condition... → Exit Maintenance Condition... The 1675 LambdaUnite MSS NE will now perform a system reset (takes Result: about ten minutes). As a consequence, the management association between the ® WaveStar CIT and the NE will be lost.

  • Page 369: Screen Of The Settings Tab

    NE provisioning Procedure 7-4: System parameters Screen of the Settings tab Figure 7-6 Screen of the Settings tab Elements of the Settings tab The elements of the tab and their meaning are listed in the following table. Settings Table 7-1 Elements of the Settings tab Option Meaning...

  • Page 370: Elements Of The Settings Tab

    NE provisioning Procedure 7-4: System parameters Table 7-1 Elements of the Settings tab (continued) Option Meaning Used to set the synchronization characteristics for the NE by System Synch Characteristics selecting the corresponding radio button ( SONET characteristics or characteristics). This parameter basically impacts the default settings for the expected external timing reference signals, the Synchronization Status Message (SSM) handling, and the output timing mode of operation.

  • Page 371: Procedure 7-5: Lan Port Configuration For Tcp/Ip Access

    NE provisioning Procedure 7-5: LAN port configuration for TCP/IP access ..............................................Overview This section provides a procedure for configuring a LAN port on a 1675 ® LambdaUnite MSS NE for access from WaveStar CIT via TCP/IP or for establishing connectivity to an Element Management System (EMS). NOTE: This section can be skipped if that kind of access is not required! Required equipment Prior to performing this task, the following equipment must be available:...
  • Page 372 NE provisioning Procedure 7-5: LAN port configuration for TCP/IP access Procedure Proceed as follows to assign an IP address to the LAN port and enable IP-LAN for an ........................................Check that the NE is in Maintenance Condition (“Maintenance” must be indicated in red;...
  • Page 373 NE provisioning Procedure 7-5: LAN port configuration for TCP/IP access ........................................Select the tab and check that the is enabled. TARP TARP Originator ........................................By means of the equipment selection window, select the LAN port that will be used for TCP/IP access (“LAN lan2” or “LAN lan3”) and click Select Result: LAN Management...
  • Page 374 Mode box checked (see Step or “LAN lan2” is used for TCP/IP, “LAN lan3” with the Advanced the 1675 LambdaUnite MSS NE will now perform Mode box checked (see Step a controller reset (takes about three minutes). As a is used for TCP/IP, consequence, the management association between ®...
  • Page 375 NE provisioning Procedure 7-5: LAN port configuration for TCP/IP access The 1675 LambdaUnite MSS NE will now perform a system reset (takes Result: about ten minutes). As a consequence, the management association between the ® WaveStar CIT and the NE will be lost.
  • Page 376 NE provisioning Procedure 7-5: LAN port configuration for TCP/IP access ........................................Select the tab. TCP/IP Gateway ........................................Enable TCP/IP Gateway Control by clicking the respective radio button........................................Provision the TCP/IP Gateway Host List This list contains the possible management systems that may set up management associations through the T-TD gateway.
  • Page 377 NE provisioning Procedure 7-5: LAN port configuration for TCP/IP access ........................................Click Close S T E P S ....................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary 7-29 Issue 2, June 2009 See notice on first page...

  • Page 378: Procedure 7-6: Ne Password Aging

    NE provisioning Procedure 7-6: NE password aging ..............................................Overview For time and convenience this section provides a procedure for preventing NE password aging and inactivity timeout. Reference More information related to security administration is given in chapter 2 of the “1675 LambdaUnite MSS User Operations Guide”.
  • Page 379 NE provisioning Procedure 7-6: NE password aging ........................................In the area, click on Inactivity Timeout Disable ........................................Click Modify ® The WaveStar CIT warning window appears. Result: ........................................Click to confirm and return to the System View NOTE: Local or company procedures may require these timers to be restored when the NE is added to the network.

  • Page 380: Date And Time Screen

    NE provisioning Procedure 7-7: NE date and time ..............................................Overview This section provides a procedure for setting the NE date and time. Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2.

  • Page 381: Elements Of The Date And Time Screen

    NE provisioning Procedure 7-7: NE date and time ........................................Click and confirm the resulting system message by clicking S T E P S ........................................Date and Time screen Figure 7-7 Date and Time screen Elements of the Date and Time screen The elements of the Date and Time screen and their meaning are listed in the...
  • Page 382 NE provisioning Procedure 7-7: NE date and time Date and time recovery in case of a power failure In case of a power failure, the system is able to recover the date and time information from an internal real-time clock. A precondition however is that the active controller is of the type CTL/3S, CTL/3T, CTL/4T or CTL/4S.

  • Page 383: Procedure 7-8: Mounting The Ctl Protection Unit

    NE provisioning Procedure 7-8: Mounting the CTL protection unit ..............................................Overview The procedure described below must only be performed if a second CTL unit is required (for 1+1 equipment protection). Safety CAUTION ESD hazard Electronic components can be destroyed by electrostatic discharge. Hold circuit packs only at the edges or on the insertion and removal facilities.

  • Page 384: Procedure 7-9: External Timing References

    NE provisioning Procedure 7-9: External timing references ..............................................Overview This section provides a procedure for configuring the external timing references. Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...
  • Page 385 NE provisioning Procedure 7-9: External timing references Proceed as follows: To disable an external timing reference, select Not Connected To enable an external timing reference, select the external timing input port associated to the respective external timing reference: • “exttmg0” is associated to Ext.
  • Page 386 NE provisioning Procedure 7-9: External timing references If you want the incoming SSM value of the external timing reference to be evaluated (provided that the is set to ), then select System SSM Mode QL Enable AUTO Otherwise select a specific value. For external timing interfaces which do not support SSM (2-MHz signals for example), it is recommended to select a value other than AUTO Result:...

  • Page 387: Procedure 7-10: System Timing

    NE provisioning Procedure 7-10: System timing ..............................................Overview This section provides a procedure for configuring the system timing. Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...
  • Page 388 NE provisioning Procedure 7-10: System timing ........................................Enable or disable the evaluation of the Synchronization Status Message (SSM) information by selecting from the QL Enable QL Disable System SSM Mode drop-down list box. The SSM information, carried in incoming timing reference QL Enable signals, is evaluated.
  • Page 389 NE provisioning Procedure 7-10: System timing An “infinite” wait-to-restore time can be used in situations when enough timing references are available, and you do not want to use a timing reference again that has failed before........................................Important! It is strongly recommended to switch from the free-running mode to the locked mode as soon as valid timing references are available and assigned.

  • Page 390: System Timing Screen

    NE provisioning Procedure 7-10: System timing ........................................Click Close S T E P S ........................................System timing screen Figure 7-8 System timing screen ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 7-42 See notice on first page Issue 2, June 2009...

  • Page 391: Procedure 7-11: External Timing Inputs

    NE provisioning Procedure 7-11: External timing inputs ..............................................Overview This section provides a procedure for configuring the external timing inputs. Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...
  • Page 392 NE provisioning Procedure 7-11: External timing inputs The following values are possible for SONET: • (Extended Super Frame; supports SSM) • (Super Frame) ........................................IF ... THEN ... (SDH) format is used, proceed to Step 2MHZ (SDH) format is select from the 2MBIT-FRAMED SUPPORTED...
  • Page 393 NE provisioning Procedure 7-11: External timing inputs ........................................Click Close S T E P S ....................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary 7-45 Issue 2, June 2009 See notice on first page...
  • Page 395 Make sure all assumptions listed below are fulfilled before carrying out any tests: • All NEs are mounted and cabled correctly (see chapters 3 and 4). • The people carrying out the tests are familiar with 1675 LambdaUnite MSS, the ®...

  • Page 396: Procedure 8-1: Led Test

    Stand-alone test procedures Procedure 8-1: LED test ..............................................Overview This test ensures the functionality of the LEDs on all circuit packs as well as on the User Panel. The “PWR ON” LED on the User Panel and the fan unit LEDs are not affected by the LED test.

  • Page 397: Stand-Alone Test Procedures

    Stand-alone test procedures Procedure 8-2: Alarm reporting tests ..............................................Overview The tests described below verify that currently active alarms of the system are reported ® to the WaveStar CIT, to the User Panel and to the rack alarm lamps that are located at the rack top (front and rear).
  • Page 398 Stand-alone test procedures Procedure 8-2: Alarm reporting tests ........................................® In the WaveStar System View , select Fault → NE Alarm List Reports → Alarm List to check if the “Fan Voltage Feed A Failure” alarm is reported to the ®...
  • Page 399 Stand-alone test procedures Procedure 8-2: Alarm reporting tests window for this port appears. The Result: Provision Parameters Equip selection tab appears on the left side of the window........................................Click Provision ........................................Set the Port Mode Monitored ........................................Click Apply and then in the confirmation window.
  • Page 400 Stand-alone test procedures Procedure 8-2: Alarm reporting tests ........................................Select → → and check the Fault NE Alarm List Reports NE Alarm List ® WaveStar CIT alarm list for correct clearing of the reported alarm. To make sure that the “NE Alarm List” reflects the current alarm status, click the Refresh button.
  • Page 401 Stand-alone test procedures Procedure 8-2: Alarm reporting tests ........................................® In the WaveStar , select → → System View Fault NE Alarm List Reports to check if the “Timing Reference Failure” alarm is reported to the Alarm List ® WaveStar CIT.

  • Page 402: Procedure 8-3: Ne Synchronization Test

    Stand-alone test procedures Procedure 8-3: NE synchronization test ..............................................Overview This test ensures protected synchronization of the NE to external clock sources. Important! The test must only be carried out for NEs with connected external clock sources. Required equipment Prior to performing this task, the following equipment must be available: ®...
  • Page 403 Stand-alone test procedures Procedure 8-3: NE synchronization test window appears. Result: Configure Timing/Synchronization ........................................Check that the following parameters are set for both external clock sources as given in the table below. If necessary change the parameters according to section “Provisioning system parameters”...
  • Page 404 Stand-alone test procedures Procedure 8-3: NE synchronization test ........................................Disconnect the first clock source. The second clock source should become active. Result: To check that, select the Timing References tab. “EXTREF2” should be displayed Reference in the Active System Timing Reference field.

  • Page 405: Procedure 8-4: Optical Power Meter Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector. Always observe the laser warning instructions (cf.

  • Page 406: Mean Launched Power Ranges

    Stand-alone test procedures Procedure 8-4: Optical power meter test Figure 8-1 Mean launched power test LambdaUnite STM-x/OC-x Optical power meter OP = Optical Pack Procedure Proceed as follows to check the mean launched power: ........................................Clean the output port to be tested (see appendix A, Procedure A-12: “Fiber cleaning”...
  • Page 407 Stand-alone test procedures Procedure 8-4: Optical power meter test ........................................Check that the measured value is within the range shown in Table 8-1, “Mean launched power ranges” (p. 8-13)........................................Repeat Step 1 Step 4 for all optical ports. S T E P S ........................................
  • Page 408 Stand-alone test procedures Procedure 8-4: Optical power meter test Table 8-1 Mean launched power ranges (continued) Circuit pack Comcode Wavelength Mean launched power [nm] range [dBm] OM2G5/1.5LR1 109192278 1550 –2.0 ... +2.0 (Module) OM2G5/921...959PWDM 109154658 ... 1550 –3.0 ... 0 109154971 (Modules) OM2G5/CL47S1 ...
  • Page 409 Stand-alone test procedures Procedure 8-4: Optical power meter test Table 8-1 Mean launched power ranges (continued) Circuit pack Comcode Wavelength Mean launched power [nm] range [dBm] OMX10/10KM1 109546838 1310 –8.0 ... +0.5 OMX10/40KM1 109546853 1550 –1.0 ... +2.0 OMX10/80KM1 109577841 1550 0 ...

  • Page 410: Procedure 8-5: Receiver Sensitivity Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 411 Stand-alone test procedures Procedure 8-5: Receiver sensitivity test Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)” (p. 4-73)) 3.
  • Page 412 Stand-alone test procedures Procedure 8-5: Receiver sensitivity test Figure 8-2 Receiver sensitivity test LambdaUnite Attenuator STM-x/ OC-x Optical power meter SDH/SONET 1) Cross-connection STM-x/OC-x analyzer OP = Optical Pack Procedure Proceed as follows to check the receiver sensitivity: ........................................Connect the output of the port to be tested with its input via an adjustable optical attenuator.
  • Page 413 Stand-alone test procedures Procedure 8-5: Receiver sensitivity test • (SDH) / (SONET) VC416C STS48 • (SDH) / (SONET) VC464C STS192 Please note that it is not possible to proceed to the next window before selecting the cross-connection rate........................................In the group box, select XC Application 2-Way Point-to-Point...
  • Page 414 Stand-alone test procedures Procedure 8-5: Receiver sensitivity test ........................................Verify that the cross-connection is established. Proceed as follows: ® 1. In the WaveStar , select System View View → Cross Connection List... 2. Select of the Shelf 1 (DUR) Ptn Grp 3.
  • Page 415 Stand-alone test procedures Procedure 8-5: Receiver sensitivity test appears. Result: Screen 2 ........................................Select ALL Legs of this cross-connection and click Next> appears. This window contains the parameters of the selected Result: Screen 3 cross-connection........................................Click to delete the cross-connection and confirm the resulting message by Finish clicking ........................................

  • Page 416: Receiver Sensitivity

    Stand-alone test procedures Procedure 8-5: Receiver sensitivity test Table 8-2 Receiver sensitivity (continued) Circuit pack Comcode Wavelength [nm] Receiver sensitivity [dBm] ≤ –18.0 OP2G5/1.3SR4 109000265 1310 OP2G5/1.3LR4 109055657 1310 ≤ –27.0 OP2G5/1.5LR4 109055665 1550 ≤ –28.0 OM2G5/1.3SR1 109192294 1310 ≤ –18.0 (Module) OM2G5/1.3LR1 109192286...
  • Page 417 Stand-alone test procedures Procedure 8-5: Receiver sensitivity test Table 8-2 Receiver sensitivity (continued) Circuit pack Comcode Wavelength [nm] Receiver sensitivity [dBm] ≤ –17.0 GE1/SX4 109000273 GE1/LX4 109192245 1310 ≤ –20.0 OMGE1/SX1 109546812 ≤ –17.0 (Module) OMGE1/LX1 109546796 1310 ≤ –19.0 (Module) OMGE1/ZX1 109546770...

  • Page 418: Procedure 8-6: Ds3 Transmission And Protection Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 419 Stand-alone test procedures Procedure 8-6: DS3 transmission and protection test Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...
  • Page 420 Stand-alone test procedures Procedure 8-6: DS3 transmission and protection test DS3 transmission test Proceed as follows to perform the DS3 transmission test: ........................................Establish an optical loop by connecting the output port of any optical circuit pack with its input........................................
  • Page 421 Mbit/s as signal rate. NOTE: The default DS3 signal format is “C-bit parity”. If you want to change this, please refer to chapter 4 of the “1675 LambdaUnite MSS User Operations Guide”. Result: No bit errors are present during this time.
  • Page 422 Stand-alone test procedures Procedure 8-6: DS3 transmission and protection test IF ... THEN ... no further DS3 ports have to be Skip the following steps and proceed to section tested and a DS3 protection test “DS3 protection test” (p. 8-29). shall be performed, ........................................
  • Page 423 Stand-alone test procedures Procedure 8-6: DS3 transmission and protection test DS3 protection test Important! This test should only be performed if DS3 1+1 equipment protection is used. Make sure that the configuration rules given in chapter 5, section “DS3/EC1 equipment protection rules” (p. 5-42) are fulfilled for the DS3 port unit (EP51/EL36 or EP51/EL36B) to which the transmission analyzer is connected (via the associated ECI51/MP72 paddle board).
  • Page 424 Stand-alone test procedures Procedure 8-6: DS3 transmission and protection test The active DS3 port unit is marked with “(A)” (active side) in the Result: ® WaveStar , the standby DS3 port unit is marked with “(S)” System View (standby side)........................................
  • Page 425 Stand-alone test procedures Procedure 8-6: DS3 transmission and protection test ........................................® In the WaveStar , select System View Configuration → Cross-Connection → to delete the established cross-connection. Delete appears. Result: Screen 1 ........................................Click the Equip tab on the left........................................

  • Page 426: Procedure 8-7: Optical Port Transmission Test (Daisy Chain Test)

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 427 Stand-alone test procedures Procedure 8-7: Optical port transmission test (daisy chain test) Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...

  • Page 428: Daisy Chain Test

    Stand-alone test procedures Procedure 8-7: Optical port transmission test (daisy chain test) Figure 8-4 Daisy chain test ® WaveStar CIT LambdaUnite User panel Rx Tx Optical loops SDH/SONET STM-x/OC-x analyzer OP = Optical Pack Procedure Proceed as follows to perform the port transmission test: ........................................
  • Page 429 Stand-alone test procedures Procedure 8-7: Optical port transmission test (daisy chain test) ........................................In the group box, select XC Application 1-Way Point-to-Point ........................................Click the left Select button to select the source tributary. selection tab appears. Result: Ptn Grp ........................................Select one port in the list or enter the AID in the Enter AID text box above.
  • Page 430 Stand-alone test procedures Procedure 8-7: Optical port transmission test (daisy chain test) ........................................Before starting a signal transmission check that the optical output power of the SDH/SONET analyzer is not too high. The allowed power input ranges for all optical circuit packs are given in Table 10-1, “Power input ranges of the optical circuit packs”...
  • Page 431 Stand-alone test procedures Procedure 8-7: Optical port transmission test (daisy chain test) ........................................Click Close S T E P S ...................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary 8-37 Issue 2, June 2009 See notice on first page...

  • Page 432: Procedure 8-8: Xc And Ctl Protection Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 433 Stand-alone test procedures Procedure 8-8: XC and CTL protection test Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...

  • Page 434: Xc And Ctl Protection Test

    Stand-alone test procedures Procedure 8-8: XC and CTL protection test Figure 8-5 XC and CTL protection test LambdaUnite 2xCTL 2xXC 1) Cross-connection 2) Optical loop SDH/SONET OP = Optical Pack STM-x/OC-x analyzer XC = Switching matrix XC protection test Proceed as follows to perform the XC protection test: ........................................
  • Page 435 Stand-alone test procedures Procedure 8-8: XC and CTL protection test ........................................In the group box, select XC Application 2-Way Point-to-Point ........................................Click the left Select button to select the source tributary. selection tab appears. Result: Ptn Grp ........................................Select the port to which the SDH/SONET analyzer is connected. Result: In the Tributary...
  • Page 436 Stand-alone test procedures Procedure 8-8: XC and CTL protection test ........................................Click Close ........................................Before starting a signal transmission check that the optical output power of the SDH/SONET analyzer is not too high. The allowed power input ranges for all optical circuit packs are given in Table 10-1, “Power input ranges of the optical circuit packs”...
  • Page 437 Stand-alone test procedures Procedure 8-8: XC and CTL protection test After about two minutes the following must be observed: • The “Active” LEDs on all I/O packs and the active CTL are permanently illuminated. • The “Active” LED and the “Fault” LED on the “XC unit (active)” are extinguished.
  • Page 438 Stand-alone test procedures Procedure 8-8: XC and CTL protection test NOTE: In the following the removed CTL unit will be called “CTL unit (active)”. The following can be observed: Result: • A switch to the standby CTL unit is caused without affecting traffic. ®...
  • Page 439 Stand-alone test procedures Procedure 8-8: XC and CTL protection test window appears. Result: Switch Protection ........................................Select 1+1 Equipment ectlgrp in the Ptn Grp tab on the left-hand side of the window and click the Select button........................................From the drop-down list box, select Switch Type Manual To Working...
  • Page 440 Stand-alone test procedures Procedure 8-8: XC and CTL protection test In the list box on the right the existing cross-connection that shall be Result: deleted is displayed........................................Select this cross-connection and click Next> Result: Screen 2 appears........................................Select of this cross-connection and click ALL Legs Next>...
  • Page 441 E xit checklist – Part II Overview ..............................................Purpose This chapter contains the exit checklist for Part II (see next page) and a table for entering the optical output power values measured in chapter 8. Contents NE provisioning and stand-alone installation test exit checklist Optical output power measurements ..............................................
  • Page 442 Exit checklist – Part II NE provisioning and stand-alone installation test exit checklist ..............................................Verify that all procedures described below have been completed. If a procedure was not applicable, indicate “N/A”. Procedure Result Initials Notes (Passed/Completed, or N/A) NE login performed NE name (TID) provisioned System parameters provisioned NE LAN port for TCP/IP access...
  • Page 443 Exit checklist – Part II Optical output power measurements ..............................................Measured values NOTE: If required, please make copies of the following table. Slot Circuit pack Port Mean launched Receiver number number power [dBm] sensitivity [dBm] ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...
  • Page 444 Exit checklist – Part II Optical output power measurements Slot Circuit pack Port Mean launched Receiver number number power [dBm] sensitivity [dBm] ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 445: Part Iii: Network Establishment And Testing

    Overview ..............................................Purpose This part of the 1675 LambdaUnite MSS Installation Guide contains the physical network installation, the network provisioning, and the network test procedures related to a ring configuration. Contents This part of the document contains the following chapters: •...

  • Page 446: Part Iii: Network Establishment And Testing

    Network establishment and testing Overview Procedure Completed Initials Notes Is a CAT5 crossover LAN cable with RJ-45/RJ-45 connectors available (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)” (p. 4-73))? Is the following test equipment available? • Optical power meter with LC connectors •...

  • Page 447: Network Establishment And Testing

    Network establishment and testing Overview ..............................................Purpose This chapter describes all steps that are required for establishing the network and the tests that should be carried out to check the functionality of the overall system. Contents Network establishment 10-3 Procedure 10-1: Connecting the fiber cables 10-4 Procedure 10-2: Provision DCC 10-12...
  • Page 448 Network establishment and testing Overview Procedure 10-15: Optical port provisioning for SCN 10-84 Procedure 10-16: DCC provisioning for SCN 10-86 ® Procedure 10-17: Launching the WaveStar CIT ONNS application for 10-88 the first time ONNS test 10-91 Procedure 10-18: Path creation test 10-95 Procedure 10-19: Path restoration test 10-98...

  • Page 449: Network Establishment

    Network establishment and testing Network establishment Overview ..............................................Purpose This section provides a procedure for establishing a network via fiber connections from NE to NE. Furthermore, it describes the required network provisioning that must be done before performing the tests. Assumption The people carrying out the procedures described below are familiar with the ®...

  • Page 450: Procedure 10-1: Connecting The Fiber Cables

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 451 Network establishment and testing Procedure 10-1: Connecting the fiber cables Required equipment Prior to performing this task, the following equipment must be available: 1. Optical power meter – Range: –35 ... +20 dBm – Wavelength: 1310 nm/1550 nm 2. ESD Wrist Strap. Prerequisites Prior to performing this task, all used optical ports and connectors must be clean.

  • Page 452: Protected Ring Configuration

    Network establishment and testing Procedure 10-1: Connecting the fiber cables The detection interval is • for STM-1: 700 sec. for a BER threshold of 10 78 sec. for a BER threshold of 10 • for STM-4: 188 sec. for a BER threshold of 10 21 sec.
  • Page 453 Network establishment and testing Procedure 10-1: Connecting the fiber cables Procedure Proceed as follows to establish a protected ring configuration: ........................................Connect an optical fiber to the NE-A OUT port of the optical circuit pack to be used in this test........................................

  • Page 454: Power Input Ranges Of The Optical Circuit Packs

    Network establishment and testing Procedure 10-1: Connecting the fiber cables Optical input power ranges The following table provides the allowed value range of the received optical power as well as the wavelength ranges of the optical circuit packs. Table 10-1 Power input ranges of the optical circuit packs Circuit pack Comcode...
  • Page 455 Network establishment and testing Procedure 10-1: Connecting the fiber cables Table 10-1 Power input ranges of the optical circuit packs (continued) Circuit pack Comcode Wavelength [nm] Allowed range [dBm] OM2G5/CL47L1 ... 109496794 ... 1471 ... 1611 –28.0 ... –9.0 OM2G5/CL61L1 109496869 (Modules) OP622/1.3IR16...

  • Page 456: Build-Out Block With Lc Lbo

    Network establishment and testing Procedure 10-1: Connecting the fiber cables Attenuator types The following attenuator types are available: • LC-type LBOs (Lightguide Build-Outs) • Shuttered LC-type LBOs • AllWave attenuators. Figure 10-2 Build-out block with LC LBO Depress Beam to Remove Buildout Install NC2510g-097 Figure 10-3 Shuttered LC LBO...

  • Page 457: Allwave Lc And Sc Attenuators

    Network establishment and testing Procedure 10-1: Connecting the fiber cables Figure 10-4 AllWave LC and SC attenuators Safety CAUTION Destruction of AllWave attenuators caused by mechanical overload. Putting too much of a mechanical load on the AllWave attenuators will cause the destruction of the attenuators.

  • Page 458: Procedure 10-2: Provision Dcc

    Network establishment and testing Procedure 10-2: Provision DCC ..............................................Overview Use this procedure to create new DCC (Data Communication Channel) terminations. This is necessary for exchanging network management information between NEs and performing the network establishment procedures described in this chapter as well as the tests described in chapter “Test procedures”...
  • Page 459 Network establishment and testing Procedure 10-2: Provision DCC Procedure Important! Only ports to which fiber cables are connected should be configured for DCC terminations! Proceed as follows to create a new DCC termination: ........................................® Connect the WaveStar CIT PC to NE-A and perform an NE login as described in chapter 7, section Procedure 7-1: “NE login via OSI”...
  • Page 460 Network establishment and testing Procedure 10-2: Provision DCC ........................................In the group box, select (Acknowledged Information DCC Channel Parameters AITS Transfer Service) or (Unacknowledged Information Transfer Service) as UITS LAPD Mode Important! If the LAPD mode of a DCC channel is set to AITS a modification of the LAPD role will raise a DCC Fail alarm for some seconds.

  • Page 461: Procedure 10-3: Wavestar

    Network establishment and testing ® Procedure 10-3: WaveStar CIT remote login test via DCC ..............................................Overview The test ensures the accessibility to all NEs via a DCC remote login. Safety CAUTION ESD hazard Electronic components can be destroyed by electrostatic discharge. Always observe the ESD instructions (cf.

  • Page 462: Remote Login Test Via Dcc

    Proceed as follows to perform a remote login test: ........................................Start a remote login to NE-B. To do that, enter the following: • The TID of NE-B as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type Click Graphical ..............................................
  • Page 463 ® Network establishment and testing Procedure 10-3: WaveStar CIT remote login test via All units of NE-B will be displayed. Result: If a remote login is not possible, please refer to appendix A, section Reference: Procedure A-9: “Remote login failure” (p. A-16).

  • Page 464: Procedure 10-4: Line Timing Test Setup

    Network establishment and testing Procedure 10-4: Line timing test setup ..............................................Overview This section provides the information needed to set up the line timing test (see section Procedure 10-9: “Line timing test” (p. 10-51)). Safety CAUTION ESD hazard Electronic components can be destroyed by electrostatic discharge. Always observe the ESD instructions (cf.

  • Page 465: Line Timing Test Setup

    Network establishment and testing Procedure 10-4: Line timing test setup Test setup Figure 10-6 Line timing test setup NE-B (Line timing) Rx Tx Rx Tx TI-A IN External clock NE-C NE-A sources TI-B IN (External timing) (Line timing) NE-D (Line timing) OP = Optical Pack Checking the external timing references Proceed as follows to check the external timing references in NE-A:...
  • Page 466 Proceed as follows to configure the line timing references in NE-B, NE-C and NE-D: ........................................Start a remote login to NE-B. To do that, enter the following: • The TID of NE-B as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type Click Graphical ..............................................
  • Page 467 Network establishment and testing Procedure 10-4: Line timing test setup All units of NE-B will be displayed. Result: ........................................® In the WaveStar System View , select Configuration → Timing/Synchronization Result: Configure Timing/Synchronization window appears with the active Timing References tab.
  • Page 468 Network establishment and testing Procedure 10-4: Line timing test setup Note the following for Step • NE-C: Select the port that is connected to NE-B. • NE-D: Select the port that is connected to NE-C. S T E P S ........................................

  • Page 469: Procedure 10-5: 1+1 Msp/Aps Test Setup

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 470 Network establishment and testing Procedure 10-5: 1+1 MSP/APS test setup Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...
  • Page 471 Network establishment and testing Procedure 10-5: 1+1 MSP/APS test setup Test setup Figure 10-7 1+1 MSP/APS test setup Creating a 1+1 MSP/APS protection group Proceed as follows to create the required 1+1 MSP/APS protection group: ........................................® Connect the WaveStar CIT PC to NE-A and perform an NE login as described in chapter 7, section Procedure 7-1: “NE login via OSI”...
  • Page 472 Network establishment and testing Procedure 10-5: 1+1 MSP/APS test setup On the right side of the window the protection parameter fields for the Result: selected shelf appear........................................Select in the Protection Type drop-down list box the type 1+1 MSP (SDH) or (SONET).
  • Page 473 Network establishment and testing Procedure 10-5: 1+1 MSP/APS test setup To do that, enter the following: • The TID of NE-B as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type NOTE: In Step 6 select “Port #2 OP2G5 #2”...
  • Page 474 Network establishment and testing Procedure 10-5: 1+1 MSP/APS test setup In the list box on the right, the AIDs of all STSs belonging to Result: Tributary the respective port are displayed........................................Select the STS which shall be used as the source and click the Select button.

  • Page 475: Procedure 10-6: 2-Fiber Ms-Spring/Blsr Test Setup

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 476 Network establishment and testing Procedure 10-6: 2-fiber MS-SPRing/BLSR test setup Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...
  • Page 477 Network establishment and testing Procedure 10-6: 2-fiber MS-SPRing/BLSR test setup Test setup Figure 10-8 2-fiber MS-SPRing/BLSR test setup Fiber loop Rx Tx East West NE-B West East Rx Tx Rx Tx SDH/SONET 2F-MS-SPRing/BLSR NE-C NE-A STM-x/OC-x analyzer East West NE-D West East OP = Optical Pack...
  • Page 478 Network establishment and testing Procedure 10-6: 2-fiber MS-SPRing/BLSR test setup window appears. Result: Create New Protection Group ........................................Select the shelf in the Ptn Grp selection tab and click Select I/O Shelf On the right side of the window the protection parameter fields for the Result: selected shelf appear.
  • Page 479 NEs in the ring via remote login. To do that, enter the following: • The NE TID as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type To verify that the MS-SPRing/BLSR setup is correct perform the steps mentioned below.
  • Page 480 Network establishment and testing Procedure 10-6: 2-fiber MS-SPRing/BLSR test setup ........................................Click the button and check that there are no “Ring Protection Switch Alarm List Suspended” alarms........................................Repeat Step 17 Step 22 for all other NEs within the ring. S T E P S ........................................
  • Page 481 Network establishment and testing Procedure 10-6: 2-fiber MS-SPRing/BLSR test setup In the list box on the right, the AIDs of all VCs/STSs belonging Result: Tributary to the respective port are displayed........................................Select the VC/STS which shall be used as the source and click the Select button.

  • Page 482: Procedure 10-7: 4-Fiber Ms-Spring/Blsr Test Setup

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 483 Network establishment and testing Procedure 10-7: 4-fiber MS-SPRing/BLSR test setup Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)”...
  • Page 484 Network establishment and testing Procedure 10-7: 4-fiber MS-SPRing/BLSR test setup Test setup Figure 10-9 4-fiber MS-SPRing/BLSR test setup Fiber loop Rx Tx East West NE-B East West Rx Tx Rx Tx Rx Tx Rx Tx SDH/SONET 4F-MS-SPRing/BLSR NE-C NE-A STM-x/OC-x analyzer East West...
  • Page 485 Network establishment and testing Procedure 10-7: 4-fiber MS-SPRing/BLSR test setup ........................................® In the WaveStar , select System View Configuration → Create New → Protection Group... window appears. Result: Create New Protection Group ........................................Select the shelf in the Ptn Grp selection tab and click Select I/O Shelf Result:...
  • Page 486 NEs in the ring via remote login. To do that, enter the following: • The NE TID as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type To verify that the MS-SPRing/BLSR setup is correct perform the steps mentioned below.
  • Page 487 Network establishment and testing Procedure 10-7: 4-fiber MS-SPRing/BLSR test setup ........................................Check that the field displays RING Node APS (Automatic Protection Switch) State “Idle”........................................Click Close ........................................Click the button and check that there are no “Ring Protection Switch Alarm List Suspended”...
  • Page 488 Network establishment and testing Procedure 10-7: 4-fiber MS-SPRing/BLSR test setup selection tab appears. Result: Ptn Grp ........................................Select the port to which the SDH/SONET analyzer is connected. In the list box on the right, the AIDs of all VCs/STSs belonging Result: Tributary to the respective port are displayed.

  • Page 489: Procedure 10-8: Sncp/Upsr Test Setup

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 490 Network establishment and testing Procedure 10-8: SNCP/UPSR test setup Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)” (p. 4-73)) 3.

  • Page 491: Sncp/Upsr Test Setup

    Network establishment and testing Procedure 10-8: SNCP/UPSR test setup Ring setup Figure 10-10 SNCP/UPSR test setup Fiber loop Rx Tx Working path Protection path NE-B Rx Tx Rx Tx SDH/SONET NE-C NE-A SNCP/UPSR STM-x/OC-x analyzer NE-D OP = Optical Pack 1) Cross-connections Creating cross-connections Proceed as follows to create the required cross-connections:...
  • Page 492 Network establishment and testing Procedure 10-8: SNCP/UPSR test setup window appears. Result: Create New Cross Connection ........................................Select/Activate the Signal Auto Rate Set check box and define the cross-connection rate in the Rate drop-down list box according to the analyzer signal used. The following values are possible: •...
  • Page 493 Network establishment and testing Procedure 10-8: SNCP/UPSR test setup ........................................Set the Protection Type • For a UPSR select • For an SNCP you can select (using non-intrusive monitoring or (using SNCN SNCI inherent monitoring). SNCI protection, generally, protects against failures in the server layer. The protection process and the defect detection process are performed by two adjacent layers.
  • Page 494 Network establishment and testing Procedure 10-8: SNCP/UPSR test setup To do that, enter the following: • The TID of NE-B as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type NOTE: • Select the port that is connected to NE-C as port (Path 1).
  • Page 495 Network establishment and testing Procedure 10-8: SNCP/UPSR test setup In the list box on the right, the AIDs of all VCs/STSs belonging Result: Tributary to the respective port are displayed........................................Select the VC/STS which shall be used as the source and click the Select button.
  • Page 496 Network establishment and testing Test procedures Overview ..............................................Purpose This section describes all the network tests that should be carried out to check the functionality of the system. Contents Procedure 10-9: Line timing test 10-51 Procedure 10-10: 1+1 MSP/APS test 10-54 Procedure 10-11: 2-fiber MS-SPRing/BLSR test 10-59...

  • Page 497: Test Procedures

    Proceed as follows to perform the line timing test: ........................................Start a remote login to NE-B. To do that, enter the following: • The TID of NE-B as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type Click Graphical All units of NE-B will be displayed.
  • Page 498 Network establishment and testing Procedure 10-9: Line timing test window appears with the active Result: View Timing/Synchronization tab. Timing References ........................................Select the System Timing tab. Result: The following must be displayed: • Locked in the Clock Mode field. • Normal in the System Clock mode Status...
  • Page 499 Network establishment and testing Procedure 10-9: Line timing test ........................................Click Close ........................................Repeat Step 10 Step 12 for NE-C and NE-D........................................Re-install the external clock source that has been removed in Step 6 to NE-A........................................® In the WaveStar of NE-A, select System View View →...

  • Page 500: Procedure 10-10: 1+1 Msp/Aps Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 501 Network establishment and testing Procedure 10-10: 1+1 MSP/APS test 3. SDH/SONET analyzer The required transmission rate depends on the circuit packs used. The optical circuit pack with the lowest transmission rate determines the required transmission rate of the analyzer. For the test setup mentioned below an STM-16/OC-48 analyzer is required because OP2G5 circuit packs are used.
  • Page 502 Network establishment and testing Procedure 10-10: 1+1 MSP/APS test An immediate switch to the “Protection” line and a short traffic Result: interruption of about 10 ms is caused........................................Select the Switch Status tab and click Refresh Result: “Protection (AID#)” will be indicated as the Active Port ........................................
  • Page 503 Network establishment and testing Procedure 10-10: 1+1 MSP/APS test ........................................Check that “Protection (AID#)” is indicated as the Active Port NOTE: After the defined WTR time (1 minute) a switch back to the “Working” line and a short traffic interruption of about 10 ms is caused. You can verify this by clicking the button again.
  • Page 504 Network establishment and testing Procedure 10-10: 1+1 MSP/APS test appears. This window contains the parameters of the selected Result: Screen 3 cross-connection........................................Click Finish to delete the cross-connection and confirm the resulting message by clicking ........................................Click Close ........................................Repeat Step 1 Step 7...

  • Page 505: Procedure 10-11: 2-Fiber Ms-Spring/Blsr Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 506 Network establishment and testing Procedure 10-11: 2-fiber MS-SPRing/BLSR test 3. SDH/SONET analyzer The required transmission rate depends on the optical circuit packs used within the ring. The optical circuit pack with the lowest transmission rate determines the transmission rate which should be used for the test. For example, if OP2G5 and OP10 circuit packs are used, an STM-16/OC-48 transmission signal is required.
  • Page 507 Step 8 for all other NEs within the ring via remote login. To do that, enter the following: • The NE TID as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type Note the following for Step •...
  • Page 508 Network establishment and testing Procedure 10-11: 2-fiber MS-SPRing/BLSR test window appears. Result: Protection Switch ........................................Select the existing 2F MS-SPRing# (SDH) or 2F BLSR# (SONET) in the Ptn Grp on the left-hand side of the window and click the Select button.
  • Page 509 Network establishment and testing Procedure 10-11: 2-fiber MS-SPRing/BLSR test Note the following for Step • NE-B: “Switching” will be displayed in the RING Node APS (Automatic field. Protection Switch) State • NE-C and NE-D: “Passthrough” will be displayed in the RING Node APS field.
  • Page 510 Network establishment and testing Procedure 10-11: 2-fiber MS-SPRing/BLSR test appears. Result: Screen 1 ........................................Click the Equip tab on the left........................................Expand the tree of the circuit pack to which the SDH/SONET analyzer is connected and select the respective port. In the list box on the right the existing cross-connection that shall be Result: deleted is displayed.

  • Page 511: Procedure 10-12: 4-Fiber Ms-Spring/Blsr Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 512 Network establishment and testing Procedure 10-12: 4-fiber MS-SPRing/BLSR test 3. SDH/SONET analyzer The required transmission rate depends on the optical circuit packs used within the ring. The optical circuit pack with the lowest transmission rate determines the transmission rate which should be used for the test. For example, if OP2G5 and OP10 circuit packs are used, an STM-16/OC-48 transmission signal is required.
  • Page 513 Step 8 for all other NEs within the ring via remote login. To do that, enter the following: • The NE TID as NE Name • 1675 LambdaUnite MSS as NE Type • OSI as Connection Type Note the following for Step •...
  • Page 514 Network establishment and testing Procedure 10-12: 4-fiber MS-SPRing/BLSR test window appears. Result: Switch Protection ........................................Select the existing 4F MS-SPRing# (SDH) or 4F BLSR# (SONET) in the Ptn Grp on the left-hand side of the window and click the Select button.
  • Page 515 Network establishment and testing Procedure 10-12: 4-fiber MS-SPRing/BLSR test Note the following for Step • NE-B: “Switching” will be displayed in the RING Node APS (Automatic field. Protection Switch) State • NE-C and NE-D: “Passthrough” will be displayed in the RING Node APS field.
  • Page 516 Network establishment and testing Procedure 10-12: 4-fiber MS-SPRing/BLSR test appears. Result: Screen 1 ........................................Click the Equip tab on the left........................................Expand the tree of the circuit pack to which the SDH/SONET analyzer is connected and select the respective port. In the list box on the right the existing cross-connection that shall be Result: deleted is displayed.

  • Page 517: Procedure 10-13: Sncp/Upsr Test

    Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 518 Network establishment and testing Procedure 10-13: SNCP/UPSR test 3. SDH/SONET analyzer The required transmission rate depends on the optical circuit packs used within the ring. The optical circuit pack with the lowest transmission rate determines the transmission rate which should be used for the test. For example, if OP2G5 and OP10 circuit packs are used, an STM-16/OC-48 transmission signal is required.
  • Page 519 Network establishment and testing Procedure 10-13: SNCP/UPSR test “Protection” will be indicated as the path. Result: Active ........................................Re-install the fiber connection between NE-A and NE-B. After the defined WTR time (1 minute) a switch back to the “Working” Result: path and a short traffic interruption of about 15 ms is caused.
  • Page 520 Network establishment and testing Procedure 10-13: SNCP/UPSR test ........................................Select the existing in the tab on the left-hand side of the Path Protection Ptn Grp window and click the button. Select ........................................Check that “Protection” is indicated as the Active path.
  • Page 521 Network establishment and testing Procedure 10-13: SNCP/UPSR test ........................................Select the existing in the tab on the left-hand side of the Path Protection Ptn Grp window and click the button. Select ........................................Check that “Working” is indicated as the Active path.
  • Page 522 Network establishment and testing Procedure 10-13: SNCP/UPSR test appears. This window contains the parameters of the selected Result: Screen 3 cross-connection........................................Click Finish> to delete the cross-connection and confirm the resulting message by clicking ........................................Click to exit the window.
  • Page 523 Network establishment and testing Procedure 10-13: SNCP/UPSR test ........................................Click to exit the window. Close Delete Cross Connection ........................................Repeat Step 10 Step 17 for NE-D. NOTE: In Step 13 select the port which is connected to NE-A. S T E P S ........................................
  • Page 524 Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 525 Network establishment and testing Overview Assumed network configuration Analyzer 2 STM-x Rx Tx NE-C Rx Tx Rx Tx NE-D NE-B WaveStar CIT NE-A STM-x Analyzer 1 OP = Optical Pack Required equipment The following equipment must be available: ® 1. WaveStar CIT PC 2.
  • Page 526 Network establishment and testing Overview Prerequisites Make sure all assumptions listed below are fulfilled before carrying out any ONNS procedures: 1. Two ONNS controllers (CTL/2, CTL/3S or CTL/4S) and two cross-connects (XC160, XC320/B or XC640) are used (duplex control is recommended for ONNS) 2.
  • Page 527 ® In the WaveStar , select → System View Administration Data Communications... Result: Data Communications window appears........................................Select “1675 LambdaUnite MSS” and click Select ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary 10-81 Issue 2, June 2009 See notice on first page...
  • Page 528 The selection tab appears on the left side of the window. Equip ........................................Select “1675 LambdaUnite MSS” and click Provision Result: The selection window for the system parameters appears on the right-hand side of the window. This window consists of two tabs,...
  • Page 529 Network establishment and testing Procedure 10-14: Setting the IP address and ONNS system parameters of the SCN nodes The 1675 LambdaUnite MSS NE will now perform a system reset. As a Result: ® consequence, the management association between the WaveStar CIT and the NE will be lost.
  • Page 530 Network establishment and testing Procedure 10-15: Optical port provisioning for SCN ..............................................Purpose This section provides a procedure for preparing a transmission port for ONNS applications. Required equipment Prior to performing this task, the following equipment must be available: ® 1.
  • Page 531 Network establishment and testing Procedure 10-15: Optical port provisioning for SCN An additional tab labelled is displayed in the port provisioning Result: ONNS window. Port classes: Additional information • iNNI ports interface to other iNNI ports and connect one ONNS node to another ONNS node within an autonomous system.
  • Page 532 Network establishment and testing Procedure 10-16: DCC provisioning for SCN ..............................................Purpose This section provides a procedure for creating new DCC terminations for SCN and enabling the ONNS auto-discovery function. Required equipment Prior to performing this task, the following equipment must be available: ®...
  • Page 533 Network establishment and testing Procedure 10-16: DCC provisioning for SCN ........................................Enable the by selecting the option in the SCN Termination Enabled SCN Channel group box and click Parameters ........................................Repeat Step 3 Step 6 for all other iNNI ports........................................
  • Page 534 Network establishment and testing ® Procedure 10-17: Launching the WaveStar CIT ONNS application for the first time ..............................................Purpose ® This section provides a procedure for launching the WaveStar CIT ONNS application for the first time. Required equipment Prior to performing this task, the following equipment must be available: ®...
  • Page 535 ® Network establishment and testing Procedure 10-17: Launching the WaveStar CIT ONNS application for the first time The new will appear in the field. Result: Alias ........................................Click and then in the confirmation window. The new configuration will be saved and the screen Result: Edit Configuration...
  • Page 536 ® Network establishment and testing Procedure 10-17: Launching the WaveStar CIT ONNS application for the first time A pop-up message will appear informing you that all other functionality Result: will be disabled until the node movement option has been disabled........................................
  • Page 537 Safety DANGER Laser hazard 1675 LambdaUnite MSS systems operate with invisible laser radiation. Laser radiation can cause considerable injuries to the eyes. Never look into the end of an exposed fiber or into an open optical connector as long as the optical source is switched on. Always observe the laser warning instructions (cf.
  • Page 538 Network establishment and testing Overview Required equipment Prior to performing this task, the following equipment must be available: ® 1. WaveStar CIT PC 2. CAT5 crossover LAN cable with RJ-45/RJ-45 connectors (see chapter 4, Figure 4-48, “CIT connection (LAN crossed)” (p. 4-73)) Prerequisites This test can only be done after each NE has been prepared for ONNS (see section...

  • Page 539: Onns Test Setup

    Network establishment and testing Overview Test setup Figure 10-11 ONNS test setup Analyzer 2 STM-x Rx Tx NE-C Rx Tx Rx Tx NE-D NE-B WaveStar CIT NE-A STM-x Analyzer 1 OP = Optical Pack Contents Procedure 10-18: Path creation test 10-95 Procedure 10-19: Path restoration test 10-98...
  • Page 540 Network establishment and testing Overview Procedure 10-21: 1+1 protection test 10-100 ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 10-94 See notice on first page Issue 2, June 2009...
  • Page 541 Network establishment and testing Procedure 10-18: Path creation test ..............................................Purpose This test provides a procedure for testing the automatic connection setup via ONNS. Procedure Proceed as follows to create a path between NE-A and NE-C via NE-B and NE-D: ........................................
  • Page 542 Network establishment and testing Procedure 10-18: Path creation test ........................................Select in the group box via the drop-down list box the port to which Source Port “analyzer 1” is connected........................................Select in the Source group box via the Trib drop-down list box the desired tributary.
  • Page 543 Network establishment and testing Procedure 10-18: Path creation test disappears. The Result: Explicit Routing Node List Selection Dialog Path field is populated with the selected managed elements........................................Click Result: Create New Path screen disappears and the Network Map will display the configured path (highlighted in green).
  • Page 544 Network establishment and testing Procedure 10-19: Path restoration test ..............................................Purpose This test provides a procedure for testing the automatic path restoration function of ONNS. Procedure Proceed as follows to perform the test: ........................................Remove the fiber connection between NE-C and NE-D. The existing path between NE-A, NE-B, NE-D and NE-C disappears after Result: a few seconds.
  • Page 545 Network establishment and testing Procedure 10-20: Path deletion test ..............................................Purpose This test provides a procedure for testing the “path tear-down” functionality of ONNS. Procedure Proceed as follows to delete the connection between NE-A and NE-C: ........................................Select → → from the map’s menu View View Paths...
  • Page 546 Network establishment and testing Procedure 10-21: 1+1 protection test ..............................................Purpose This test provides a scenario for testing the ONNS 1+1 protection. Creation of paths Two paths must be created for a 1+1 protection. Proceed as follows to create the first path between NE-A, NE-D and NE-C, and the second (protection) path between NE-A, NE-D, NE-B and NE-C: ........................................
  • Page 547 Network establishment and testing Procedure 10-21: 1+1 protection test ........................................Select in the group box via the drop-down list box the desired Destination Trib tributary........................................Select in the Protection Type drop-down list box........................................Select in the group box. Bidirectional Direction ........................................
  • Page 548 Network establishment and testing Procedure 10-21: 1+1 protection test The SCN IP addresses of NE-D and NE-B will appear in the Result: Selected list. Nodes ........................................Click Result: Explicit Routing Node List Selection Dialog disappears. The Path 2 field is populated with the SCN IP addresses of NE-D and NE-B........................................
  • Page 549 Exit checklist – Part III Overview ..............................................Purpose This chapter contains the exit checklist for Part III (see next page) and a signoff sheet to make sure that all required tasks described in this manual have been done. Contents Network establishment and testing exit checklist 11-2 Completion form 11-3...
  • Page 550 Exit checklist – Part III Network establishment and testing exit checklist ..............................................Verify that all procedures described below have been completed. If a procedure was not applicable, indicate “N/A”. Procedure Result Initials Notes (Passed/Completed, or N/A) Fiber connection established DCC provisioned Remote login test performed Timing test performed 1+1 MSP/APS test performed...
  • Page 551 Exit checklist – Part III Completion form ..............................................® Document Title: LambdaUnite MultiService Switch (MSS) Installation Guide Identification No.: Issue No.: Date: Location Information All chapters have passed successfully: Start Date: Completion Date: Station Location: Country: Participants Names (printed) Company Customer Acceptance Signature Please read and sign the statement below: I have witnessed and/or accepted the successful installation...
  • Page 553 Appendix A: Installation troubleshooting Overview ..............................................Purpose This chapter provides basic installation troubleshooting information for the 1675 LambdaUnite MSS system. Contents Procedure A-1: Power failure Procedure A-2: Fan unit test failure Procedure A-3: NE synchronization failure Procedure A-4: CTL failure Procedure A-5: CTL protection test failure A-10 Procedure A-6: XC protection test failure...

  • Page 554: Procedure A-1: Power Failure

    Installation troubleshooting Procedure A-1: Power failure ..............................................Overview The procedures described below should be performed if the subrack powering procedure was unsuccessful. Procedure 1 must be used if the measured voltage at the termination blocks of the PDP does not lie between -40.5 and -72 V. Procedure 2 must be used if the “PWR ON”...
  • Page 555 Installation troubleshooting Procedure A-1: Power failure ........................................Replace all affected shelf power cables between the PDP and the power connectors of the Power Interfaces. Make sure that the cables are tight afterwards........................................Switch all circuit breakers on the subrack backplane to the ON position (=“I”). IF ...

  • Page 556: Procedure A-2: Fan Unit Test Failure

    Installation troubleshooting Procedure A-2: Fan unit test failure ..............................................Overview The procedure described below should be performed if one of the following failures can be observed: • The “PWR ON” LED does not light up on the fan unit. Procedure 1 must be used in this case. •...
  • Page 557 Installation troubleshooting Procedure A-2: Fan unit test failure Procedure 2 Proceed as follows if not all fans are running or if the air flow direction is not from bottom to top: ........................................Switch all circuit breakers on the subrack backplane (see chapter 5, Figure 5-1, “PI/100 switching”...

  • Page 558: Procedure A-3: Ne Synchronization Failure

    Installation troubleshooting Procedure A-3: NE synchronization failure ..............................................Overview The procedure described below should be performed if no valid timing reference signal is received at the respective external synchronization input (see chapter 8, section Procedure 8-3: “NE synchronization test” (p. 8-8)).
  • Page 559 Installation troubleshooting Procedure A-3: NE synchronization failure ........................................Replace the currently active Timing Generator Unit. IF ... THEN ... the NE does not synchronize to the proceed to Step 5. external clock source, the NE synchronizes to the END OF STEPS external clock source, ........................................

  • Page 560: Procedure A-4: Ctl Failure

    Installation troubleshooting Procedure A-4: CTL failure ..............................................Overview The procedure described below should be performed if a CTL failure occurs (see chapter 5, section Procedure 5-6: “Mounting the circuit packs” (p. 5-54), Step Procedure Proceed as follows in the case of a CTL failure: ........................................
  • Page 561 Installation troubleshooting Procedure A-4: CTL failure 4. Press CTRL+A. 5. Move the mouse over the selected folders, click the right mouse button and select Delete ........................................IF ... THEN ... the failure is not solved, proceed to Step 5. the failure is solved, END OF STEPS ........................................

  • Page 562: Procedure A-5: Ctl Protection Test Failure

    Installation troubleshooting Procedure A-5: CTL protection test failure ..............................................Overview The procedure described below should be performed if the LED behavior described in chapter 8, section “CTL protection test” (p. 8-43), steps 1 and 2) cannot be observed. Procedure Proceed as follows in the case of a CTL protection test failure: ........................................

  • Page 563: Procedure A-6: Xc Protection Test Failure

    Installation troubleshooting Procedure A-6: XC protection test failure ..............................................Overview The procedure described below should be performed if the LED behavior described in chapter 8, section “XC protection test” (p. 8-40), steps 17 and 18) cannot be observed. Procedure Proceed as follows in the case of an XC protection test failure: ........................................

  • Page 564: Procedure A-7: Circuit Pack Alarm Handling

    Installation troubleshooting Procedure A-7: Circuit pack alarm handling ..............................................Overview The procedure described below should be performed if the “Fault” LED is flashing on ® one or more circuit packs or if circuit pack alarms are displayed in the WaveStar alarm list after a system reset.
  • Page 565 Installation troubleshooting Procedure A-7: Circuit pack alarm handling A circuit pack reset is performed. Result: ........................................After about two minutes the “Active” LED must be illuminated. Click the Alarm List button and check that there are no alarms related to the reset circuit pack. IF ...

  • Page 566: User Panel Cable (Upl

    Installation troubleshooting Procedure A-8: LED test failure ..............................................Overview The procedure described below should be performed if some LEDs do not light up during an LED test (see chapter 8, section Procedure 8-1: “LED test” (p. 8-2)). Procedure Proceed as follows in the case of an LED test failure: ........................................

  • Page 567: User Panel Screws

    Installation troubleshooting Procedure A-8: LED test failure Figure A-2 User Panel screws ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary A-15 Issue 2, June 2009 See notice on first page...

  • Page 568: Procedure A-9: Remote Login Failure

    Installation troubleshooting Procedure A-9: Remote login failure ..............................................Overview The procedure described below should be performed if no remote login is possible (see ® chapter 10, section Procedure 10-3: “WaveStar CIT remote login test via DCC” 10-15)). Procedure Proceed as follows in the case of a remote login failure: ........................................
  • Page 569 Installation troubleshooting Procedure A-9: Remote login failure ........................................™ Perform a reload of the NE software to the CompactFlash card of the near-end NE (see Procedure 5-5: “NE software installation” (p. 5-19)). IF ... THEN ... a remote login is not possible, proceed to Step 5.
  • Page 570 Installation troubleshooting Procedure A-9: Remote login failure IF ... THEN ... a remote login is possible, END OF STEPS ........................................Replace the CTL unit of the far-end NE. S T E P S ...................................................................................... Alcatel-Lucent - Proprietary 365-374-179R10.0 A-18 See notice on first page Issue 2, June 2009...

  • Page 571: Procedure A-10: Alarm Handling

    Procedure Proceed as follows in the case of active alarms: ........................................Note all active alarms........................................Follow the trouble clearing tasks described in the “1675 LambdaUnite MSS Alarm Messages and Trouble Clearing Guide”. S T E P S ......................................................................................

  • Page 572: Procedure A-11: Switching Off An Ne

    Installation troubleshooting Procedure A-11: Switching off an NE ..............................................Overview ™ In order to avoid damage to the NE database stored on the CompactFlash card, it is of great importance to follow a special procedure for switching off an NE. Procedure Proceed as follows to switch off an NE: ........................................

  • Page 573: Procedure A-12: Fiber Cleaning

    Installation troubleshooting Procedure A-12: Fiber cleaning ..............................................Overview This procedure describes the Alcatel-Lucent recommended method for the cleaning and inspection of optical connectors using specific tools and materials that have been proven to be effective in the assembly and testing of optical transmission equipment. It is critical that the connector endfaces are clean and free from particular contamination to assure proper performance and reliability of lightwave systems.
  • Page 574 Installation troubleshooting Procedure A-12: Fiber cleaning Connectors If impurities are discovered, the optical connector must be cleaned in accordance with the following rules: ........................................Wipe off the connector face lengthwise (not with a circular motion!) using a smooth tissue (moistened with isopropanol)........................................
  • Page 575 Installation troubleshooting Procedure A-12: Fiber cleaning Important! Lightguide Build-Outs (LBOs) may be damaged when compressed air is used for drying. Therefore, do not use compressed air for drying LBOs. S T E P S ...................................................................................... 365-374-179R10.0 Alcatel-Lucent - Proprietary A-23 Issue 2, June 2009 See notice on first page...

  • Page 576: Procedure A-13: Replacing Lc-Type Lbos

    Installation troubleshooting Procedure A-13: Replacing LC-type LBOs ..............................................Overview This chapter provides a procedure for replacing LC-type LBOs. Procedure Proceed as follows to replace LC-type LBOs: ........................................Depress both beams (upper and lower) simultaneously and remove the LBO........................................Insert the new LBO until a small “click” is heard. Pay attention to the correct direction as shown in the figure below.

  • Page 577: Installation Troubleshooting

    Installation troubleshooting Procedure A-14: Removing the SFP modules ..............................................Overview The procedures described below provide removal instructions for the following SFP types: • MSA latch (type 1) • MSA latch (type 2) • Bail latch “bottom up” (= type 1) •...

  • Page 578: Unlocking A Msa Latch (Type 1) Sfp

    Installation troubleshooting Procedure A-14: Removing the SFP modules Figure Figure A-4 Unlocking a MSA latch (type 1) SFP MSA latch (type 2) Proceed as follows to remove this type of SFP: ........................................Put the fibers away from the transceiver........................................Press on top of the locking device (see figure below) and pull the SFP out with your fingers.

  • Page 579: Unlocking A Msa Latch (Type 2) Sfp

    Installation troubleshooting Procedure A-14: Removing the SFP modules Figure Figure A-5 Unlocking a MSA latch (type 2) SFP Bail latch (type 1) Proceed as follows to remove this type of SFP: ........................................Put the fibers away from the transceiver........................................Move the bail downwards (see figure below).

  • Page 580: Unlocking A Bail Latch (Type 1) Sfp

    Installation troubleshooting Procedure A-14: Removing the SFP modules Figure Figure A-6 Unlocking a bail latch (type 1) SFP Bail latch (type 2) Proceed as follows to remove this type of SFP: ........................................Put the fibers away from the transceiver........................................Move the bail upwards (see figure below).

  • Page 581: Unlocking A Bail Latch (Type 2) Sfp

    Installation troubleshooting Procedure A-14: Removing the SFP modules Figure Figure A-7 Unlocking a bail latch (type 2) SFP ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary A-29 Issue 2, June 2009 See notice on first page...

  • Page 583: Passive Wdm (Oem Equipment)

    Appendix B: Passive WDM (OEM equipment) Overview ..............................................Purpose This appendix provides the relevant facts about the passive WDM (PWDM/CWDM) equipment. Contents Hardware items Technical data Procedure B-1: Carrier mounting Arrangements Cabling B-10 ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...

  • Page 584: Passive Wdm (Oem Equipment)

    Passive WDM (OEM equipment) Hardware items ..............................................Material For a complete and up-to-date list of all passive WDM hardware items with the respective comcodes please refer to the Engineering Drawings ED8C948-10 and ED8C948-20, that you can: • find appended at the end of this document, correct at the time of going to print (if they were ordered from the Customer Information Center (CIC)) •...

  • Page 585: Dwdm/Cwdm Specifications

    Passive WDM (OEM equipment) Technical data ..............................................Specifications Table B-1 DWDM/CWDM specifications Item Range/Size Operating temperature –5°C to +60°C Dimensions (DWDM carrier, 378 mm [14.882”] x 498 mm [19.606”] x 74 mm [2.913”] DxWxH) Dimensions (CWDM carrier, 265 mm [10.433”] x 439.5 mm [17.303”] x 43 mm [1.693”] DxWxH) ..............................................
  • Page 586 Passive WDM (OEM equipment) Procedure B-1: Carrier mounting ..............................................Before you begin The DWDM and CWDM carriers can be mounted into all ETS 300 119-3 compliant racks (e.g. ETSI-2 or NEBS-2000). The position within the rack should be below the DCM carrier (if used at all) or below the lowest subrack.
  • Page 587 Passive WDM (OEM equipment) Procedure B-1: Carrier mounting ........................................Slide the DWDM (item 3) into the shell holder until the DWDM locks. The DWDM can be released by pushing the buttons on each side simultaneously........................................Mount the bracket (DC1005065, item 4) and fiber clip (DC1000680, item 5) in a position that is close to the passive DWDM so that the cables are laid properly within the racks.

  • Page 588: Mounting The Dwdm

    Passive WDM (OEM equipment) Procedure B-1: Carrier mounting Results Figure B-1 Mounting the DWDM Legend: Shell holder (Avanex) 19” bracket or 23” bracket (Avanex) DMUX or MUX (Avanex) Bracket (DC1005065) Fiber clip (DC1000680) Guide bracket (DC1005064) Fiber-routing guides (corner) (DC1001518) ..............................................
  • Page 589 Passive WDM (OEM equipment) Procedure B-1: Carrier mounting Ground wire (2000 mm [6.562 ft]) — CC848828174 or ground wire (3000 mm [9.843 ft]) — CC848828182 CWDM installation The CWDM installation must be done similar to the DWDM installation. The type of rack frame defines the type of the mounting brackets and their mounting positions.

  • Page 590: Cwdm Carrier With Label

    Passive WDM (OEM equipment) Procedure B-1: Carrier mounting Figure B-2 CWDM carrier with label Side label CWDM carrier Mounting bracket (Position for ETSI-2 or NEBS-2000 rack) (Top view) Fiber management area ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 591: Optical-Channel Allocations

    Passive WDM (OEM equipment) Arrangements ..............................................Layout Figure B-3 Front panel Table B-2 Optical-channel allocations Frequency Wavelength in vacuum Channel port [THz] [nm] 195.900 1530.334 CH 59 195.700 1531.898 CH 57 195.500 1533.465 CH 55 195.300 1535.036 CH 53 194.900 1538.186 CH 49 194.700...
  • Page 592 Passive WDM (OEM equipment) Cabling ..............................................Cables Important! Only the fiber cables with listed comcode (see Engineering Drawings) are allowed to be used, otherwise the proper functioning of the system cannot be guaranteed. The optical cables that are used for the passive WDM on the DMUX/MUX connector plate should connect with the following connectors: •...

  • Page 593: Dwdm Cable Routing

    Passive WDM (OEM equipment) Cabling Figure B-4 DWDM cable routing ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary B-11 Issue 2, June 2009 See notice on first page...
  • Page 595 Appendix C: DCM (OEM equipment) Overview ..............................................Purpose This appendix provides the relevant facts about the DCM equipment. Contents Procedure C-1: DCM mounting DCM arrangements DCM cabling DCM module interface ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...

  • Page 596: Dcm (Oem Equipment)

    DCM (OEM equipment) Procedure C-1: DCM mounting ..............................................Dimensions The DCM carrier has the following dimensions: 500 mm [19.685”] x 304.5 mm [11.988”] x 259 mm [10.197”] (WxHxD). Installation procedure Proceed as follows to mount the DCM carrier: ........................................Install the mounting brackets (item 2) to the DCM carrier (item 1) as shown in the figure below.

  • Page 597: Arrangements Of The Dcm Pack Positions

    DCM (OEM equipment) DCM arrangements ..............................................Layout Figure C-2 Arrangements of the DCM pack positions ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...

  • Page 598: Cable Routing For The Dcm Carrier

    DCM (OEM equipment) DCM cabling ..............................................Cables Important! Only the fiber cables with listed comcodes (see Engineering Drawings) are to be used, otherwise the proper functioning of the system can not be guaranteed. The optical cables that are used for the DCM modules should have an LC connector with a 45°...

  • Page 599: Dcm Cpls

    DCM (OEM equipment) DCM module interface ..............................................DCM modules The different types of DCM module are: • DCM/LC CPL DK-5.0 — CC848814315 • DCM/LC CPL DK-10 — CC848814323 • DCM/LC CPL DK-20 — CC848814331 • DCM/LC CPL DK-30 — CC848814349 •...

  • Page 600: Stg Cpl

    DCM (OEM equipment) DCM module interface Figure C-5 STG CPL Fiber storage method Determine the distance (A and B) between the reel entrance and the two connection interfaces of the fiber end. Loop half of the fiber storage length through the reel, but keep the distance relationship of A and B close together.

  • Page 601: Fiber Storage Method

    DCM (OEM equipment) DCM module interface Figure C-6 Fiber storage method ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary Issue 2, June 2009 See notice on first page...

  • Page 603: Mixed Configuration: 1675 Lambdaunite Mss And 1663 Admu

    Overview ..............................................Purpose This appendix provides instructions for mounting a 1675 LambdaUnite MSS subrack together with one or two 1663 ADMu subrack(s) within one ETSI-2 rack. NOTE: It is highly recommended to use a rack extension (width) for this application (see chapter 3, section Procedure 3-4: “Rack extension (width)”...
  • Page 604 Mixed configuration: 1675 LambdaUnite MSS and 1663 Overview ADMu Result D-15 ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 605: Procedure D-1: Mounting The 1663 Admu Pdp

    Mixed configuration: 1675 LambdaUnite MSS and 1663 ADMu Procedure D-1: Mounting the 1663 ADMu PDP ..............................................Location The 1663 ADMu PDP (CC848862330) must be mounted at the front side of the rack. Procedure Proceed as follows to mount the PDP: ........................................

  • Page 606: Fixing The 1663 Admu Pdp

    Mixed configuration: 1675 LambdaUnite MSS and 1663 Procedure D-1: Mounting the 1663 ADMu PDP ADMu Result Figure D-1 Fixing the 1663 ADMu PDP Figure D-2 Mounted PDP ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 607: Procedure D-2: Mounting The 1663 Admu Subrack(S

    Mixed configuration: 1675 LambdaUnite MSS and 1663 ADMu Procedure D-2: Mounting the 1663 ADMu subrack(s) ..............................................Before you begin The procedure below describes the mounting of the 1663 ADMu subrack(s). A maximum of two subracks can be mounted, one at the front and one at the back side of the rack.
  • Page 608 Mixed configuration: 1675 LambdaUnite MSS and 1663 Procedure D-2: Mounting the 1663 ADMu subrack(s) ADMu Result Figure D-3 1663 ADMu subrack mounting 87.5mm 275mm 175mm 300mm 87.5mm ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 609: Procedure D-3: Mounting A Fan Unit

    Mixed configuration: 1675 LambdaUnite MSS and 1663 ADMu Procedure D-3: Mounting a fan unit ..............................................Before you begin The procedure described below (“Fan unit mounting”) must only be performed if an additional fan unit is required (2 fan units in one 1663 ADMu subrack). In that case the additional fan unit (CC848862355) and an additional filter (CC848904108) must be ordered separately.

  • Page 610: Fan Unit Mounting

    Mixed configuration: 1675 LambdaUnite MSS and 1663 Procedure D-3: Mounting a fan unit ADMu Result Figure D-4 Fan unit mounting ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 611: Airguide Mounting

    Procedure D-4: Mounting the airguide ..............................................Before you begin The airguide (CC848920534) described below prevents air flow from the MADM subrack into the 1675 LambdaUnite MSS subrack. It is part of the mixed configuration kit (CC848914271). Procedure Proceed as follows to mount the airguide: ........................................

  • Page 612: Procedure D-5: Mounting The 1675 Lambdaunite Mss Subrack

    Procedure D-5: Mounting the 1675 LambdaUnite MSS subrack ..............................................Procedure Proceed as follows to mount the 1675 LambdaUnite MSS subrack: ........................................Temporarily remove the front mounting brackets (DC1003774, item 1 and DC1003775, item 2) from the subrack. The rear brackets should not be removed.
  • Page 613 Mixed configuration: 1675 LambdaUnite MSS and 1663 Procedure D-5: Mounting the 1675 LambdaUnite MSS ADMu subrack ........................................IF ... THEN ... a rack extension (width) proceed with the next step. is not used a rack extension (width) is used mount the special fiber guides (see chapter 3, section “Mounting of special fiber guides”...
  • Page 614 Mixed configuration: 1675 LambdaUnite MSS and 1663 Procedure D-5: Mounting the 1675 LambdaUnite MSS ADMu subrack Result Figure D-6 1675 LambdaUnite MSS subrack mounting ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 D-12 See notice on first page Issue 2, June 2009...

  • Page 615: Circuit Breaker Mounting

    Mixed configuration: 1675 LambdaUnite MSS and 1663 ADMu Procedure D-6: Mounting the circuit breakers ..............................................Procedure Proceed as follows to mount the circuit breakers (CC700158603): ........................................Plug all required 20 A circuit breakers (item 1) in the circuit breaker holder of the PDP as shown in the figure below.

  • Page 616: Fixing The Anti-Recirculation Plate

    Mixed configuration: 1675 LambdaUnite MSS and 1663 ADMu Procedure D-7: Mounting the anti-recirculation plate ..............................................Procedure Proceed as follows to mount the anti-recirculation plate (CC848914180): ........................................Fasten the anti-recirculation plate (item 1) to the cable guide brackets (items 2 and 3) using the two M4x10 screws, which are also part of the mixed configuration kit (CC848914271), as shown in the figures below.

  • Page 617: Mounting Positions (1675 Lambdaunite Mss And 1663 Admu

    Mounting positions The figure below shows the result of the described mounting procedures and provides information about the positions of the screws. Figure D-10 Mounting positions (1675 LambdaUnite MSS and 1663 ADMu) ETSI-2 Rack Anti Recirculation Plate 1675 LambdaUnite MSS...

  • Page 619: Mixed Configuration: 1675 Lambdaunite Mss And 1665 Dmx (High Capacity)

    Overview ..............................................Purpose This appendix provides instructions for mounting a 1675 LambdaUnite MSS subrack together with one 1665 DMX (High Capacity) subrack within one NEBS-2000 rack. For establishing this application an orderable mounting kit (CC848856514) is needed which contains the following parts: •...

  • Page 620: Mounting The Subrack Guides

    Otherwise there is a risk that the shelf will be put out of shape and that it will not be possible to insert the XC circuit packs in the slots. Proceed as follows to mount the 1675 LambdaUnite MSS subrack: ........................................
  • Page 621 Mixed configuration: 1675 LambdaUnite MSS and 1665 Procedure E-1: Mounting the 1675 LambdaUnite MSS DMX (High Capacity) subrack ........................................Mount the front mounting brackets (with mounted fiber clips) loosely on the subrack using M4x8 screws (DC1002976, item 7)........................................Mount the subrack on the front rack frame using M6x16 screws (CC901331421, item 4) with 7 ±...

  • Page 622: Mounting The Subrack

    Mixed configuration: 1675 LambdaUnite MSS and 1665 Procedure E-1: Mounting the 1675 LambdaUnite MSS DMX (High Capacity) subrack Result Figure E-2 Mounting the subrack ..............................................Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 623: Mounting The Heat Baffle

    Mixed configuration: 1675 LambdaUnite MSS and 1665 DMX (High Capacity) Procedure E-2: Mounting the heat baffle ..............................................Purpose The heat baffle is necessary to lead the heated air out of the rack. Mounting Proceed as follows to mount the heat baffle: ........................................
  • Page 624 Mixed configuration: 1675 LambdaUnite MSS and 1665 DMX (High Capacity) ® Procedure E-3: Mounting the Metropolis DMX (High Capacity) subrack ..............................................Procedure ® Proceed as follows to mount the Metropolis DMX (High Capacity) subrack: ........................................There is a switch on the fan controller board. The switch is labeled “CF ALM ON”...
  • Page 625 ........................................Place the anti-recirculation plate (DC1006435, item 1) at the rack rear side between the rack bottom and the 1675 LambdaUnite MSS subrack. Important! The top of the anti-recirculation plate must partly be placed into the airinlet of the 1675 LambdaUnite MSS subrack.

  • Page 626: Mounting The Anti-Recirculation Plate

    Mixed configuration: 1675 LambdaUnite MSS and 1665 Procedure E-4: Mounting the anti-recirculation plate DMX (High Capacity) Figure E-4 Mounting the anti-recirculation plate S T E P S ...................................................................................... Alcatel-Lucent - Proprietary 365-374-179R10.0 See notice on first page Issue 2, June 2009...

  • Page 627: Mounting Positions (1675 Lambdaunite Mss And 1665 Dmx

    ..............................................Mounting positions The figure below shows the result of the described mounting procedures and provides information about the positions of the screws. Figure E-5 Mounting positions (1675 LambdaUnite MSS and 1665 DMX) NEBS-2000 Rack 1665 DMX Subrack (High Capacity)
  • Page 629 Glossary ..............................................AID (Access Identifier) A technical specification for explicitly naming entities (both physical and logical) of an NE using a grammar comprised of ASCII text, keywords, and grammar rules. Alarm Severity An attribute defining the priority of the alarm message. The way that alarms are processed depends on the severity.
  • Page 630 Glossary The CE marking indicates that the products conform to relevant European Community (EC) Directives CH SCR Cheese Head Screw Channel A sub-unit of transmission capacity within a defined higher level of transmission capacity. CI-CTL Customer Interface of the Controller Circuit A set of transmission channels through one or more network elements that provides transmission of signals between two points, to support a single communications path.
  • Page 631 Glossary fiber. DCMs are necessary for very-long-haul applications and high bit rates. Data Communications Network DCrtn Direct Current return Default An operation or value that the system or application assumes, unless a user makes an explicit choice. Disassembly Splitting up a signal into its constituents as payload data and overhead (an indication of the direction of a signal).
  • Page 632 Glossary Electrostatic Discharge Electrostatic Protection ETSI European Telecommunications Standards Institute ..............................................Free Running An operating condition of a clock in which its local oscillator is not locked to an internal synchronization reference and is using no storage techniques to sustain its accuracy.
  • Page 633 Glossary Hardware Hertz ..............................................Input/Output IAO LAN Intraoffice Local Area Network Identifier International Electrotechnical Commission IEEE Institute of Electrical and Electronics Engineers Receive Insert To physically insert a circuit pack into a slot, thus causing a system initiated restore of an entity into service and/or creation of an entity and associated attributes.
  • Page 634 Glossary transmits data at a very rapid speed. LAPD (Link Access Procedure D-bytes) Protocol used on Data Link Layer (OSI layer two) according to ITU-T Q.921. LBO (Lightguide Build-Out ) An attenuating (signal-reducing) element used to keep an optical output signal strength within desired limits.
  • Page 635 Glossary Multi-Mode Fiber Multiplexer Section Millisecond MS-SPRing (Multiplexer Section Shared Protection Ring) A protection method used in Add/Drop Multiplexer Network Elements. MSP (Multiplexer Section Protection) Provides a capability for switching a signal from a working section to a protection section..............................................
  • Page 636 Glossary ..............................................Optical Amplifier OC, OC-n Optical Carrier OC-12 Optical Carrier, Level 12 Signal (622.08 Mbit/s) OC-192 Optical Carrier, Level 192 (9953.28 Mbit/s) (10 Gbit/s) OC-3 Optical Carrier, Level 3 Signal (155 Mbit/s) OC-48 Optical Carrier, Level 48 (2488.32 Mbit/s) (2.5 Gbit/s) OC-768 Optical Carrier, Level 768 (39813.12 Mbit/s) (40 Gbit/s) ONNS...
  • Page 637 Glossary between network elements. The words “port” and “line” may often be used synonymously. “Port” emphasizes the physical interface, and “line” emphasizes the interconnection. Either may be used to identify the signal being carried. Printed Wiring Board PWDM Passive Wavelength Division Multiplexing Power PWR ON Power On...
  • Page 638 Glossary partitioning of the network, and trouble-shooting. Receive/IN ..............................................Signaling Communication Network Screw SDH (Synchronous Digital Hierarchy) A hierarchical set of digital transport structures, standardized for the transport of suitable adapted payloads over transmission networks. SDH Equipment Clock Small Form Factor Pluggable Slot A physical position in a shelf designed for holding a circuit pack and connecting it to the backplane.
  • Page 639 Glossary Span An uninterrupted bidirectional fiber section between two network elements. Station Clock Input An external clock may be connected to a Station Clock Input. Synchronous Transport Module (SDH) STM-N (Synchronous Transport Module, Level N) A building block information structure that supports SDH section layer connections, where N represents a multiple of 155.52 Mbit/s.
  • Page 640 Glossary ..............................................The UL marking indicates that the products conform to relevant American Directives. User Panel UPSR Unidirectional Path-Switched Ring The UR marking indicates that the products conform to relevant American Directives. User Privilege Permissions that a user must have on the computer system on which the system software runs.
  • Page 641 Glossary ..............................................Cross Connect ..............................................365-374-179R10.0 Alcatel-Lucent - Proprietary GL-13 Issue 2, June 2009 See notice on first page...
  • Page 643 Index Numerics APS test setup, 10-24 Ground wiring, 4-21 1+1 MSP test setup, 10-24 Attenuators, 10-6 LAN cables, 4-72 1+1 APS test setup, 10-24 MDI/MDO cables, 4-53 ............. 1+1 MSP protection group, Network cabling, 10-5 Barred-hand symbol, 1-20 10-25 OP10 circuit pack, 4-82 Battery Distribution and Fuse 1+1 APS protection group,...
  • Page 644 Index Subrack alarm cables, 4-31 Dimensions Floor mounting, User byte cables, 4-58 DCM carrier, Layout, CE mark, 2-14 ETSI-2 rack, Line-up installation, 3-19, 3-51 Circuit breaker, 3-22, 3-25, NEBS-2000 rack, 3-36 3-54, 3-56, 5-4, D-13 Rack doors mounting, 4-102 PDP, 3-22, 3-54 Circuit pack handling, Side cover plates mounting,...
  • Page 645 Index GE1 circuit pack, 4-86 LED test failure, A-14 NEBS-2000 rack GE10PL1/1A8 circuit pack, Lightguide Build-Outs (LBOs), Dimensions, 3-36 4-87 4-97, 10-6 Floor mounting, 3-40 Grounding, 4-21 Line timing provisioning, 10-20 Layout, 3-36 .......................... Line-up installation, 3-19, 3-51 Hazard level, 1-18 MDI/MDO cables Rack doors mounting,...
  • Page 646 Index OP622 circuit pack, 4-79 Station clock cables (120 Receiver sensitivity test, 8-17 Ohm, output), 4-66 OPLB/PAR8 circuit pack, 4-78, Remote login failure, A-16 4-79 Station clock cables (75 Remote NE login, 10-15 Ohm, input), 4-70 OPT2G5/PAR3 circuit pack, Removing the SFP modules, 4-82 Station clock cables (75 A-25...
  • Page 647 Index Station clock cables (75 Ohm) 1+1 MSP, 10-55 Circuit pack alarms, A-12 Orderable cables (input), 1+1 XC protection, 8-40 CTL failure, 4-69 2-fiber BLSR, 10-60 CTL protection test failure, Orderable cables (output), A-10 2-fiber MS-SPRing, 10-60 4-69 Fan unit test failure, 4-fiber BLSR, 10-66 Pin assignment (input),...

Table of Contents