Welcome to the Industrial Automation website!

NameDescriptionContent
XING-Automation
E-mail  
Password  
  
Forgot password?
  Register
当前位置:

Advanced technology and development approach of automatic underground mining of metal deposits

F: | Au:佚名 | DA:2024-02-01 | 1159 Br: | 🔊 点击朗读正文 ❚❚ | Share:

1. Progress of underground automatic mining technology

Since the mid-late 1980s, Noranda Technology Center in Canada, based on the prototype design of the University of Montreal laboratory, began the research and development of automatic mining technology, and developed a variety of automatic equipment for underground mining of metal deposits. Including LHD (scraper) and truck optical navigation system, LHD remote control auxiliary loading system, LHD automatic walking system, etc. [2]. These technologies and systems were first introduced in the mid-1990s by STAS at the Bell Allard mine in Noranda and at the Brunswick Mine, where 70% of ore production was achieved by automated mining. At one point, the latter reached 80%. [3] In 2001, Noranda also piloted the automated mining system SIAM on some of its stope transport trucks at the Brunswick mine with promising results [4]. Noranda's automated mining technology and system can be used independently in different mining conditions, or in a centralized cluster multi-vehicle remote control system, which is better adapted to the actual needs of Noranda's multiple mines, different production scales and complex ore body conditions.

In the early 1990s, Helsinki University of Technology in Finland adopted a 5-year "Smart Mine Technology" program in the form of industry-university cooperation to carry out research on automatic mining technology. The content includes the information and data acquisition technology of the whole mine, high-speed bidirectional real-time monitoring communication technology, computerized information management and production planning control technology, automatic mining and equipment remote control technology, and the communication interface technology between these technical systems and public information network. The results of this research programme were applied in the subsequent three-year "Smart mine" implementation programme and in the design and production of the Kemi chrome ore at Outokumpu Oy [5,6].

In 1994, Australia's Commonwealth Scientific and Industrial Research Organisation (CSIRO) launched the Mining Robotics Research Project to develop sophisticated sensing systems and advanced remote control systems for mining and loading operations. CSIRO has developed a Rotary Assist (DSA) system for "cruise" operation of the dragline and a Digital Surface Model (DTM) for accurate unloading of the dragline; An LHD automatic control system for underground mining has also been developed. The technology has been commercialized by Caterpillar to form the MINEGEMTM system, and the LHD equipped with this technology is called Smart Loader [7,8].

In 1996, Inco of Canada, Tamrock of Finland and Dyno of Norway launched a Mining Automation Initiative (MAP), investing US $22.7 million to develop, demonstrate and commercialize automated mining technologies. The purpose is to effectively develop the deep or difficult mining mineral resources, reduce the ineffective working hours such as shift change and entering and leaving the mine, improve labor productivity, reduce operating costs, and ensure the safety of miners. The program is supported by Natural Resources Canada's Mining and Mineral Sciences Laboratory (CANMET-MMSL) with a matching grant of $3.5 million and project management by the laboratory. Experts have studied the effects of diesel engine operating conditions, blowdown, underground blasting and diesel exhaust gas on unmanned mining operations under hypoxia conditions in mines, the climatic conditions of unmanned mines and their effects on the productivity of infrared remote control equipment, and the response mechanism of surrounding rock to mining, etc. [9,10].

Inco further developed new automatic mining technologies in advanced communication system, mining equipment positioning and navigation system, robot excavation and mining, advanced technology and monitoring, including remote control technology of underground LHD, drilling rig and other mobile equipment, and applied them in Stobie Mine and Creighton mine. He became a pioneer in underground mining automation [11,12]. The company applied discrete event simulation technology and QUEST simulation system to study the influence of remote control LHD running speed and control strategy on LHD productivity under a given transportation mode, taking into account LHD process parameters including loading time, unloading time, heavy vehicle running speed, empty vehicle running speed, LHD full load factor, etc. The influence of factors such as the number of LHD units operated by remote control operators at the same time, stope transportation distance and operator quality on LHD idle time, waiting time and productivity was analyzed [13]. Discrete event simulation technology and WITNESS simulation system were used to study the perforating and blasting system in the automatic mining process model [14]. In cooperation with Laurentian University, the Auto Mod simulation system was applied to study the interaction between mining methods and remote control equipment, including the interaction between perforation, blasting, loading and mining sequence [15].

Inco, in cooperation with other relevant institutions, also started research and development of an Underground Blasting Automatic Charge project (ELAP) in 2000. The prototype system passed underground industrial trials in 2002 and the technology is being further refined [16,17].

The Kiruna Mine of the Swedish mining company LKAB started to implement automatic control technology for rail transportation in the early 1970s, and since the late 1990s has successively adopted remote control drilling RIGS and remote control LHD technology [18,19].

Automated mining technology has also been successfully applied at the Finsch diamond mine in De Beers, South Africa [20]. In the engineering design of the mine's open-pit conversion to underground mining in 2000, Sandvik's Sandvik Tamrock automated mining technology system was used for an investment of US $20 million, including the design, construction, equipment acquisition and installation of automated trucking systems. The mine uses a combined caving drawing, LHD and truck loading system, in which the truck system is remotely controlled from the ground and connected to the mine backbone communication network via a radio frequency system (MineLan). The application of truck automatic control system can improve the speed of underground truck operation and equipment productivity. Surface operators can operate multiple trucks at the same time, significantly reducing the number of underground personnel, which greatly improves mine safety and increases labor productivity. Sandvik Tamrock is currently implementing the LHD automated system at the Finsch mine with a planned investment of US $41 million.

In the United States, Carnegie Mellon University, funded by NASA and Joy, conducted research on the automatic positioning and navigation technology of continuous shearer in underground coal mines, and developed research results that could be commercialized [21]. The University of Colorado studied the stereographic imaging model of underground ore burst in order to effectively control LHD automatic loading [22].

In addition, in Saskatchewan, Canada, uranium mines are operated by remote control to protect miners from radiation; At Mount Essa Mine in Australia and some deep mining mines in South Africa, miners are protected from the heat and humid air of deep Wells by remote control. In Chile, Codelco's El Teniente mine used remote control to protect miners from rockbursts. [23]

In China, companies such as Meishan Iron Mine have considered using remote control drilling RIGS to free equipment operators from the high-intensity noise generated during drilling operations.

Gu Desheng, Yun Qingxia and Wang Yunmin, when elaborating the development trend of science and technology of underground mining of metal deposits, believe that unmanned mining will be one of the important fields in the development of mining technology in China in the 21st century [24~26].

The Ministry of Science and Technology has listed underground unmanned mining technology and related equipment as one of the research directions and contents of the first batch of special topics launched in the "863" plan during the "Eleventh Five-Year Plan" period, which further indicates the development trend of unmanned mining technology in China.

2. Advanced technology of underground automatic mining

At present, the unmanned mining technology at home and abroad is still in the initial stage of "unmanned mining". At this stage, the core technology of unmanned mining is still automatic mining technology, which mainly includes key technologies such as data acquisition and supervisory control (SCADA), remote control of mining equipment and digital communication, and there is no obvious breakthrough in mining process design and roadway layout. The maintenance of underground unmanned equipment, the handling of accidents, and the interaction between surface remote control personnel and underground operators all need to be further studied. 

The progress of information and communication technology will certainly promote the development of unmanned mining technology from the current automatic mining or remote control mining with traditional mining process automation as the core to the "unmanned mining" with advanced sensors and detection and monitoring systems, intelligent mining equipment, high-speed digital communication networks, and new mining process integration as the main technical characteristics. Therefore, the cutting-edge technology of unmanned underground mining or automatic mining of metal deposits mainly includes the following four aspects.

2.1 Advanced sensing, detection and monitoring technology

Detection and monitoring technology and instruments of downhole environmental factors such as temperature, humidity, air components, stope ground pressure, roadway surrounding rock deformation and other variables; The technique and method of real-time analysis of the lumpiness and its distribution, the grade and distribution of useful minerals, etc. Spatial distance recognition, positioning and navigation technologies based on underground environment, such as buried line navigation system, passive light guide system, active light guide system, wall tracking system, inertial navigation technology and equipment, are the prerequisite for intelligent mining equipment operation and process control. Therefore, the development of underground automatic mining needs to research and develop the corresponding advanced sensing technology and detection and monitoring technology.

2.2 Remote control and intelligent technology of mining equipment

The automation degree of underground mining main equipment such as drilling rig, scraper and truck is one of the important indicators of the level of underground automatic mining. By continuously improving the automation level of mining equipment, the number of underground operators can be reduced, ineffective working hours such as underground personnel transportation can be eliminated, occupational health and safety hazards of underground personnel can be avoided, and equipment and labor productivity can be improved. Therefore, the development of underground automatic mining needs to research and develop the location and positioning of drilling RIGS, scrapers, trucks and other equipment in the stope and the remote control and intelligent control technology in the production process such as perforation, blasting, shoveling, transportation and unloading, as well as the intelligent monitoring technology, fault prevention technology and failure safety technology of underground mining equipment.

2.3 High-speed digital communication network technology

The underground communication conditions are very different from the surface communication conditions, the main problems are: the underground physical environment is bad, dark, wet, corrosive, many natural damage factors, high probability; Underground communication facilities layout space is limited; Wireless communication barriers are prevalent. Generally speaking, the existing underground communication infrastructure is uneven, and the overall technical level is relatively backward, which is difficult to meet the needs of the development of automatic mining technology. Therefore, the development of underground automatic mining needs to study the high-speed digital communication network technology suitable for underground communication. The main technical requirements include: a. In order to meet the needs of communication between underground and surface and the needs of communication between underground mining areas, it is necessary to consider the automatic adjustment of bandwidth to meet the needs of bandwidth redistribution due to the frequent increase and decrease of the number of underground mining areas, stopes or workplaces, and to adopt industrial standards or surface standards while considering the underground application environment to reduce the cost of underground communication facilities. b. To be able to achieve communication between PLC, PLC and automatic equipment communication, video image communication, local area network communication, wired telephone communication, as well as wireless voice, video and automatic equipment control signal communication; c. To meet the needs of physical extension of downhole communication network with mining progress, consider plug and play; d. Consider the standardization and standardization of underground communication technology, which is conducive to promotion and application; e. Communication physical facilities and communication effects are less sensitive to the downhole environment.

2.4 New technology of underground automatic mining

The development of mining technology is closely related to the level of mining equipment technology, and the development of high and new technology will certainly promote the innovation of mining technology. For example, sublevel caving without pillar mining technology is produced to adapt to specific underground surrounding rock conditions, but the improvement of mining equipment technology has greatly promoted the development of this mining method and its adaptation range. Therefore, the improvement of automatic mining control level will further promote the reform of mining technology and production process itself. Mining planning and design, well layout, stope parameters including section height and road spacing, number and geometric size of roadway, mining and mining methods and other technology will continue to develop with the improvement of mining equipment level. The technology, design, installation and operation management related to underground climatic conditions and auxiliary facilities such as ventilation, power supply, gas pressure and lighting need to be further explored.

3. Development approaches of underground automatic mining technology

The realization of unmanned mining or unmanned mining will be a long evolution process, but as the basic technology for the development of unmanned mining or unmanned mining - automatic mining technology, the development of foreign countries has more than 20 years of history. With the continuous improvement of China's information technology level, the strengthening of production safety standards and the worsening of mineral resources mining conditions, the development of automatic mining technology has been put on the agenda of scientific research and technological development of mineral resources development and utilization in China. The Ministry of Science and Technology of the State in the "eleventh Five-Year" period of the "Eighty-three" plan to start the first batch of thematic topics guide, the research of unmanned mining technology and related equipment as exploration oriented and goal-oriented topics one of the main research direction and content, marking the development of automatic mining technology in China has a good beginning.

The research and development of automatic mining technology and even the further development of unmanned mines need to work together in the following aspects.

3.1 The government supports relevant basic and applied basic research

The Ministry of Science and Technology has initiated the exploration and development of unmanned mining technology through the "863" plan, and other relevant government departments or institutions, such as the Ministry of Education and the National Natural Science Foundation, should also consider the development of automatic mining technology in the relevant scientific research and development plans, and vigorously support universities and scientific research institutions to carry out basic research and applied basic research. In order to form a supporting system with original innovation and technology prototype development ability in automatic mining basic research, applied basic research and interdisciplinary research.

3.2 Enterprises take the lead in relevant technological innovation

Large state-owned science and technology enterprises (relevant research institutes, etc.) related to the exploitation and utilization of mineral resources shall cooperate closely with large state-owned production enterprises, and in the process of implementing the national medium - and long-term science and technology development plan and building national technology development bases such as national engineering laboratories or engineering (technology research) centers and industrial engineering centers related to the exploitation of mineral resources, Take underground automatic mining technology as one of the main technological development directions, according to the scientific and technological development of mining enterprises, the exploitation and utilization of mineral resources and the demand of mineral products market competition, and in view of the appropriate mining conditions, actively introduce, develop and apply foreign advanced automatic mining technology and equipment, and implement simulated innovation and integrated innovation through industrial tests and production practices. And then effectively develop the independent innovation ability of enterprises in the field of automatic mining technology.

3.3 College construction related disciplines and talent security system

Colleges and universities, especially research universities with strong scientific research ability, should strengthen the construction of automatic mining discipline system, and take underground automatic mining technology and theory as one of the main discipline development directions in the process of implementing the national medium - and long-term science and technology development plan and building national research and experiment bases such as State key laboratories and departmental laboratories in the field of mineral resources development. Strengthen industry-university-research cooperation, vigorously promote interdisciplinary, through the establishment of an advanced disciplinary system and effective academic management mechanism, the implementation of teaching, the development of personnel training system conducive to improving the original innovation ability, the cultivation of interdisciplinary academic ability, to adapt to the development of automatic mining science and technology personnel team.

3.4 Attach importance to interdisciplinary integration

Automatic mining technology has a high degree of interdisciplinary nature, involving automation technology, robotics technology, sensing technology, communication technology, machinery manufacturing technology, mining technology and other disciplines, in the process of automatic mining technology research and development, we should pay attention to interdisciplinary, pay attention to the relationship between automatic mining and continuous mining, digital mining and other research directions.

3.5 Development of application system simulation technology

Automatic mining technology is a highly complex system, and the corresponding test facilities are difficult to build, poor repeatability and high cost. In the process of research and development of automatic mining technology and technology, system simulation technology should be actively developed and applied. Simulation technology and model system are used to effectively study stope planning and design, roadway layout, equipment selection, process and other related parameters of a typical automatic mining process system and their influence on the efficiency and efficiency of the automatic mining process system through multi-scheme simulation analysis. The dynamic process of a typical underground automatic mining process system is vividly displayed and its operating status is visually investigated. System process simulation technology based on discrete event simulation method and system spatiotemporal dynamic simulation technology based on 3D visualization simulation method will be important technical means to study and develop automatic mining technology, especially automatic mining process system.


  • Atlas Copco PF3000-C-HW Tensor S4 S7 RBU Controller
  • Atlas Copco PPBE0613 24VAC Control Panel
  • Atlas Copco PF3000-C-HW Tensor S4 S7 Controller
  • Atlas Copco Neos ARC-D130-S+ Inverter Drive
  • Atlas Copco Power Focus SL PF4002-G-HW Controller
  • Atlas Copco 8436 6770 00 ILT Base Station
  • Atlas Copco 1900520400 Air Compressor Control Panel
  • Atlas Copco 1900-0711-51 Display Keypad Unit
  • Atlas Copco 1900-0710-52 Communication Control Board
  • Atlas Copco 1900-0701-04 Control Interface Module
  • Atlas Copco 8092 1143 40 SRTT Transducer 180Nm
  • Atlas Copco MT Focus 6000 Controller with Pump and Screwdriver
  • Atlas Copco Elektronikon GraphicPlus Controller PPBE0622 PPBE0633
  • Atlas Copco PF3109-G-DN-HW Tensor 8-9 Power Focus Nutrunner Control
  • Atlas Copco Elektronikon P1900520440 Touch Controller
  • Atlas Copco Power Focus 8 Controller 8436280002
  • Atlas Copco 8436 1500 03 FlexCarrier 3-Slot Torque System Component
  • Atlas Copco Power Focus 6000 PF6000 Industrial Controller
  • Atlas Copco TC-4000-P-PB-ES Power Macs Controller
  • Atlas Copco 8433-0015-20 8433001520 Cable Assembly
  • Atlas Copco 49X10301AB Pressure Transducer Sensor
  • Atlas Copco 8436180002 Replacement Filter Element
  • Atlas Copco C4700A01V216 Compressor Control Module
  • Alcatel-Lucent 3HE01019AAAA01 High-Speed Interface Module
  • Alcatel-Lucent 111381 Power Distribution Module
  • Alcatel TN 2523 1:1 CDN III Module – MRPQAE3
  • Alcatel-Lucent 3he06151aaac01 8-Port Interface Module – IPUIBKB3AA
  • Alcatel-Lucent LNW46 DMX Metro OC12 Interface Module – 108694878
  • Alcatel-Lucent 41A12C FT-2000 Optical Transponder Unit – 108188053
  • Alcatel-Lucent 8DG02607AA POW100 DC-DC Converter Module
  • Alcatel-Lucent LambdaXtreme WWBQ21 40G Optical Transponder
  • Alcatel-Lucent TN1891 5ESS Protocol Handler PHV5 Commcode 108747064
  • Alcatel-Lucent 300-0303-900 T1D3PDL1AE Digital Matrix Card
  • Alcatel-Lucent G-821M-A Module
  • Alcatel Lucent MPT-GC Eth 1G+ARM TX 81-86GHz 3DB80005AAAAO1
  • Nokia 3KC48990AB 1830PSS 16FAN2 Fan Unit
  • Alcatel 3EC17041AA PSPC-G4 PCB CP011200552
  • Alcatel 300-0437-906 Rev F DEXCS DMC T1D1L0S Module
  • Alcatel-Lucent 3DW03697ABBA01 TFD64A Module
  • Alcatel-Lucent AWR12 S1-1 UN Interface T3PQAC3AAA
  • ALCATEL LUCENT 9500-MPR ODU RADIO MPT-HC V2 9558HC 3DB20914BAAA03 6GHZ
  • Alcatel-Lucent 9500-MPR ODU 300 11GHz Microwave Radio MPT 3DB23035AEAA01
  • Alcatel 2C7-1005-000 Teflon Bell Jar Holder Ring – 146111
  • Alcatel-Lucent BNJ118 S1:4 Circuit Board – Interface Module
  • Alcatel-Lucent 9500-MPR ODU 300 6GHz Microwave Radio MPT 3DB23215AFAA01
  • Alcatel 3EM04001AA Signal Processing Unit with Accessory Cards
  • Alcatel VAUCAL5KAB AA1418FE2BG 3FE67437AAD02 Interface Card
  • Alcatel-Lucent 1642 Edge Multiplexer N1217P YF – Access Node
  • Alcatel-Lucent 3HE07158BA 7750 SR-12 12-Port 10GIGE MultiCore IMM IPUCA741AA
  • Alcatel 101200429000 Power Divider 746-776 MHz with Heatsinks
  • Alcatel-Lucent 9500-MPR ODU 300 MPT 6GHz 3DB23215ADAA01 High Power Radio
  • Alcatel-Lucent 9500-MPR MPT-HC 23GHz 2/2P ODU Radio 3DB20474BA
  • Alcatel-Lucent 9500-MPR ODU 300 MPT 6GHz 3DB23215AAAA01 Low Power Radio
  • Alcatel 3BA52126ABAA OmniPCX 4400 Compact Cabinet
  • Alcatel-Lucent 3HE12300AA 7750 SR-1 Subrack with Licenses
  • Alcatel 300-1368-903 Rev C DEXCS SPA-1 T1PQAC1 Line Card
  • Alcatel-Lucent 408977981 WOWUAB6HAA 10G XPR OTU2 XPonder Card
  • Alcatel-Lucent-Nokia 3HE08423AARC01 7750 SR Control Processor Module IPUCBGZ1AA
  • Alcatel-Lucent 9500-MPR ODU 300 MPT 6GHz 3DB23215ABAA01 Low Power Radio
  • Alcatel-Lucent CPU7-2 3BA23259ABJE 05 Control Processor Module
  • Alcatel WTM11AD 3DW03915DABA01 Optical Transponder Module
  • Alcatel-Lucent 1340FMPK Card Chip BA5IVY6BAA – Processor Module
  • Alcatel-Lucent 3HE06151ACAC01 Control Fabric Module
  • Alcatel-Lucent 9500-MPR 18GHz 1P-1 Protection ODU Radio 3DB20433BA AA04
  • Alcatel-Lucent 9500-MPR ODU MPT-HC 18GHz Radio 3DB20433BAAA04
  • Alcatel-Lucent SM269 LMPQ04KAXX Circuit Pack – Interface Module
  • Alcatel OME25HP Filter Cartridge – 107494
  • Alcatel-Lucent ALU-BZ74 99BC-4 –48V Battery Cabinet
  • Alcatel-Lucent WWAA37 Optical Amplifier WMAPZNZAAB – CP Series
  • ALCATEL LUCENT 9500-MPR ODU RADIO MPT-HC V2 9558HC MPT-XP 3DB20476BAAA04 23GHZ
  • Alcatel Tyco Yukon ES760A Rectifier
  • Alcatel-Lucent 9500-MPR ODU 300 MPT 23GHz 3DB23045HMAA02 Microwave Radio
  • Alcatel-Lucent 9500-MPR ODU MPT-HC 11GHz 3DB20548ACAA01 Microwave Radio
  • Alcatel Lucent 3DH03173AKAA Module
  • Alcatel-Lucent 76-0300-02 CSM-V2 PCB
  • Alcatel 9400 UX ODU Module 3CC06729ABAA
  • Alcatel-Lucent 408981363 Jigsaw A Band Block 24/-48V KS24624L58
  • Alcatel 3BA53095 PCB Card
  • Alcatel 2C7-1005-000 Bell Jar Holder Ring Teflon PC7-1005-000
  • Alcatel-Lucent ES640 PWDQAGKUAA 5ESS 48V DC Alarm Control Unit
  • Alcatel-Lucent 9500-MPR ODU 300 23GHz Microwave Radio MPT 3DB23045HM
  • Alcatel-Lucent KFA720 WMOTCMVLAB Optical System Interface Carrier
  • Alcatel-Lucent 9500-MPR ODU MPT-HC V2 15GHz Microwave Radio 3DB20373BAAB04
  • Alcatel-Lucent AKM70 S1-7 SMUX1 Sub-Multiplexer – T3PQWAEAAH
  • Alcatel-Lucent 107486490 DDM-2000 SONET DS3 Circuit Pack – BBG4B
  • Alcatel-Lucent SBEVM BNJ82 1:12 Module – AV950-01168
  • Alcatel-Lucent 938A Optical Loss Set – Test & Measurement Kit
  • Alcatel-Lucent MS1025-25O16-ED Fiber Optic Unit – 48VDC
  • Alcatel-Lucent 9500-MPR ODU MPT-HC 23GHz 1/1P Microwave Radio 3DB20473BA AA04
  • Alcatel-Lucent bCEM-U Control Module – 3BK28676ABAC01
  • Alcatel ASI20 Detector Control Module
  • Alcatel Lucent 130B S-1 PWPQ08B Power Unit
  • Alcatel-Lucent 9500-MPR ODU MPT-HC V2 9558HC 6GHz 3DB20441BBAA02
  • Alcatel-Lucent 9500-MPR ODU MPT-MC 15GHz 3DB20824AAAA02 Microwave Radio
  • Alcatel-Lucent 9500-MPR ODU MPT-MC 15GHz 3DB20822AAAB02 Microwave Radio
  • Alcatel-Lucent 3AL92111AA 1P10GSO Interface Module
  • Alcatel 8220 CTT 450 Turbo Pump Controller 127821
  • Alcatel-Lucent 3AL78823AAAE 02 Module
  • Alcatel-Lucent 90-0413-01 Universal Card
  • Alcatel-Lucent BRMA 10Base-T/100Base-TX Connecting Box 3BA56170ACAB010842
  • Woodward Micronet 5453-279 Rev E Chassis Rack for TMR Control
  • Alcatel-Lucent KFA632 WMOTBUKLAA 10G Optical Interface Carrier
  • Alcatel-Lucent 9500-MPR ODU MPT-HC V2 3DB20474BAAB04 23GHz Microwave Radio
  • Alcatel-Lucent KFA720 WMOTCMVLAB SFP/XFP Optical Interface Carrier
  • Alcatel-Lucent 3AL00114AB Universal Interface Module
  • Alcatel-Lucent BBG9 S1:1 OHCTL Optical Hardware Control Module
  • Alcatel-Lucent FB16401-A-I03 GTD-5 Analog Master/Slave Control Board
  • Alcatel-Lucent MCR1721B Control Module
  • Alcatel-Lucent 9500-MPR 3DB20547ACAA01 ODU MPT-HC 11GHz Microwave Radio
  • Alcatel-Lucent 3HE01014AAAA02 Interface Module
  • Alcatel-Lucent 244-2091-005 High Density Digital Line Card V1.5
  • Alcatel-Lucent LAMBDAXTREME WWAA36 Optical Amplifier Module
  • Alcatel-Lucent 9500-MPR ODU MPT-HC 6GHz 2P-2 Radio 3DB20444BAAA05
  • Alcatel-Lucent 9500-MPR ODU MPT-HC V2 9558HC MPT-XP 6GHz 3DB20442BBAA02
  • Alcatel-Lucent 9500-MPR ODU MPT-HC 23GHz 3DB20476ABAA01 Microwave Radio
  • Alcatel Lucent 3HE01019AAAA01 Module
  • Alcatel CPU5 3BA23071 PCB Card with IO2 3BA23050 Set
  • Alcatel-Lucent 9500-MPR ODU MPT-HC V2 9558HC 6GHz 3DB20443BBAA02
  • Alcatel Lucent 500-1113-211 Rev H Channel Bank Assembly
  • Alcatel Lucent 89-0419-B-2 BA9ATS0FAB Frontal Compute Module
  • Alcatel-Lucent LambdaXtreme 1625 WWAF31 Optical Amplifier CP Module
  • Alcatel Z24 3BA53065 Analog Extension Card 3BA52065 AAAA KAZZB-01
  • Alcatel 3EH08263AAXX000448 OmniPCX Office Large PBX System
  • Alcatel Lucent VSEM-C 3FE62453 XA VAUCAJZKAA 7330 DSLAM Line Card
  • Alcatel-Lucent 9500-MPR ODU MPT-HC 3DB20432BAAA04 18GHz Microwave Radio
  • Alcatel-Lucent 9500-MPR ODU MPT-HC 3DB20546ACAA01 11GHz Microwave Radio
  • Alcatel-Lucent 3DB04823AAAA Circuit Board
  • Alcatel-Lucent 3DB04530AAAA Circuit Board