Fiber or Copper Which Costs More? Daniel Harman Aug 2006

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Transcription:

Fiber or Copper Which Costs More? Daniel Harman Aug 2006

LAN Infrastructure Choices Hierarchical Star (Traditional) Centralized Fiber (Fiber to the Desk) FTTE (Fiber to the Telecom Enclosure)

Why Compare Costs? Demonstrate that fiber-based networks are costcompetitive today with hierarchical star UTP copper networks. Design networks using widely available and costeffective fiber electronic equipment. Show practical networks incorporating new standardized architectures that take advantage of fiber s inherent capabilities such as Centralized Cabling and Fiber-to-the-Telecom Enclosure (FTTE). Bring network designers and end users up-to-date on advances in enterprise network fiber technology.

Market Changes Opto-electronics components cost less before: Still higher than copper components, but electronics component costs declining leading to significant reduction in complete fiber network. Tier One suppliers now offering fiber workgroup switches. Non-blocking fiber architectures facilitate converged networks. New categories of UTP copper are more complex, more expensive, and require larger pathways & spaces. FTTE now a ratified TIA standard. TIA/EIA-569-B and TIA/EIA-568-B.1, Addendum 5

Convergence Convergence is paramount in most users minds today. - Voice, Video and Data. Advanced fiber LANs make non-blocking architecture easier. - Non-blocking = never more user traffic than can be handled by upstream backbones. - Even small time delays in the transmission of video and data can impact network performance.

Convergence is Turning the LAN into a Communications Infrastructure Digital Communications Centralized Computing Distributed Computing Wireless Access Workstation Computer Computer Laptop computer Hub Mainframe Laptop Minicomputer PDA Broadcast Video PC Revolution Copper to Fiber Growth of Wireless Telephony Pre-1980 1980-2000 Post 2000 The Networking Market shifts to Communications

What is the Fiber Optics LAN Section (FOLS)? Founded in 1993 as a Section of the TIA s Fiber Optics Division. Mission: to educate system designers, architects, consultants, engineers, contractors, end users and the media about the technical advantages that optical transmission brings to customer-owned networks. FOLS also stimulates the development of new fiber standards and the promotion of optical-based applications in customer-owned networks.

FOLS Members include: 3M ADC Berk-Tek, a Nexans Company Corning Corning Cable Systems Leviton Voice & Data OFS Ortronics/Legrand Panduit Sumitomo Electric Lightwave TTelectronics / OPTEK Tyco

FOLS 3 rd Generation Cost Model Compares LAN Architectures Launched in June 2005. Tool that compares installed first costs of all-fiber and UTP/fiber architectures. Allows users to model their own costs. Developed by a team of FOLS members, many from companies that sell both fiber & copper. FREE to download and use from www.fols.org (registration required)

Comparing Choices Hierarchical Star (Traditional) Centralized Fiber (Fiber to the Desk) FTTE (Fiber to the Telecom Enclosure)

Hierarchical Star Traditional architecture. Fiber in the riser, Cat 6 UTP in the horizontal. 6 x10 TR on each floor. Cooling required for each TR Approx. $10K. Typically have 1 Gbps fiber uplink feeding 24-48 100 Mbps ports. ** ER = Main Equipment Room ** TR = Telecom Room

SYSTEM RPS 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 STAT DUPLEX UTIL SPEED SYSTEM RPS STAT DUPLEX UTIL SPEED SYSTEM RPS STAT DUPLEX UTIL SPEED SYSTEM RPS STAT DUPLEX UTIL SPEED 1 1 1 2 3 4 5 6 7 8 2 3 4 5 6 7 8 2 3 4 5 6 7 8 9 9 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 1 2 1 2 1 2 1 2 Cat6 Patch Panels Cat6 Patch Cords 3m length Workgroup Switches 24 Port 10/100TX + 2 1000BaseSX GBIC Fiber Patch Panels with SFF, LC Jack or Plug Assy s Cat6 Cables 50m length typical Fiber Patch Cords LC to SC 3m length Telecom Room (TR) 2 Port Faceplate with 2 Cat6 Jacks Workstation, Telephone or other IP Device Workstation, Telephone or other IP Device with 10/100TX NIC Cat6 Patch Cord, 3m length Assumptions - Minimum Requirements 8 Floors with Active End User Ports 54 Active End User Ports per Floor 1 Gigabit Uplink per 12 100Fx/TX Switch Ports (ie. 2 Gigabit Uplinks per 24 Port Switch) 1 Gigabit Server Port per 48 End Users 12 Strand Fiber Riser Cable 30m length Floors 1-7 Typical Fiber Patch Panels with SFF, LC Jack or Plug Assy s Fiber Patch Cords 3m Length LC to MTRJ Core-Class Switch with 1000BaseSX Backbone Ports and 1000BaseTX Server Ports Main Equipment Room (ER)

Centralized Fiber Fiber to the desktop. Electronics centralized in single ER. TR is 1/10th the size. No cooling or conditioned power required! More secure network. Simplified maintenance. Electronics more expensive. ** ER = Main Equipment Room ** TR = Telecom Room

Fiber to the Telecom Enclosure Brings fiber to the office environment, closer to end-user. Final span can be fiber, UTP or wireless. TE has minimal cooling requirement and can use low cost mini-switches. Completely non-blocking in low density configuration, only 20% in high-density. Highly flexible for moves, adds & changes.

View of Cost Model Spreadsheet

FOLS encourages all users to input their own data into the model. Representative pricing used for examples is average pricing taken from PEPPM and other industry. databases FOLS looked at a minimum of three options for each component. Customizing the Model

First Results Centralized Fiber Centralized fiber architecture is within 5% of legacy hierarchical star copper architecture - Essentially at cost parity will depend on your building and component prices. - Fiber components are still more expensive (but not as much as people think), but system cost extremely close to copper. - In new builds (and some existing installs), TR can be made much smaller, allowing space to be reallocated. - More secure network that is easier to maintain. - Total system installed first cost only $13,968 more for all-fiber network.

First Results FTTE FTTE Low Density is 30-42% less expensive than hierarchical star - Extends fiber closer to the end user. - Takes advantage of fiber s long-distance capabilities. - Facilitates moves, adds & changes. - 100% non-blocking architecture, allows highest workstation performance. - Total system cost $85,835-$117,702 lower than hierarchical star architecture.

Conclusion Users no longer need to rely on hearsay and dated information to make infrastructure decisions. The cost model provides the opportunity to compare network infrastructure choices for your network. New standards-compliant LAN architectures offer performance and price advantages Now is a good time to consider fiber!

Daniel Harman This presentation includes material generated by members of FOLS and in particular Gary Cawley, former FOLS chair