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Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS John Tyll | Tri-State G&T Skye Perry | SSP Innovations

Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

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Page 1: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

John Tyll | Tri-State G&TSkye Perry | SSP Innovations

Page 2: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Agenda Introductions Business Drivers The Current System & Telecom Assets Fiber Manager & The Physical Network Custom Requirements The Data Model Business Justification & Benefits

Page 3: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

IntroductionsJohn Tyll | Tri-State G&T GIS Manager Lead a team of 7 GIS Professionals Tri-State - 14 years

Skye Perry | SSP Innovations Principal Consultant Esri & Schneider Electric Technical Architect Led the current system assessment and technical design @ Tri-State

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GIS & Telecom Staff 8 GIS Staff

Centralized GIS located at HQ Diverse tasks – Electric Transmission, Generation, Telecom and Mining

5 Telecom Engineers Sit at Tri-State HQ building Responsible for engineering and design of telecom network Primarily microwave and equipment

1 Telecom Projects Coordinator Manages installation of fiber optic cables Manages 3rd party users of Tri-State’s telecom network Manages Tri-State’s use of 3rd party networks (excluding leased capacity)

1 Leased Circuits Coordinator Manages leased capacity on carrier networks

50+ Telecom Maintenance Techs Distributed across the 4 state region Manage installation and maintenance of all telecom assets and equipment

Page 6: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

High Volume of Telecom Assets Grand Junction to Albuquerque:

440 miles, 11 segments, 144 fibers per segment, 2 ports per segment = approx 4800 fiber records.

One OC-48 Grand Junction to Albuquerque 11 segments, 48 STS’s per segment, 28 T1’s per STS, and 24 DS0’s per T1 =

approx 355,000 circuit records.

Adding 100 to 200 miles of fiber per year

Adding 150+ circuit requests per year

Page 7: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Current System ~ CSMGMT Originally Access 95 Database with VBA Forms/Reports Converted to Oracle 9i Forms in 2004 (10g released in 2003) Tracked logical infrastructure of circuits including SONET

timeslots/channel designation Excel spreadsheet for fiber records

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Business Drivers Current System Issues:

Deprecated Oracle version (9iAS)Slow and not user friendlyNo GIS componentNot scalableMissing needed features (trace circuits,

manage fiber routes, link to documentation, track financial information, etc.)

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Proposed Solution Create a GIS database and web-based interface to:

Identify, review, analyze, and update key attributes of the telecom network

Include collocation buildings, equipment locations, fiber optic routes, microwave radio systems, MAS radio systems, USAT, and UHF radio systems

Provide ability to track logical provisioning with similar capabilities as current home grown system to theDS0 level

Geospatial database with robust mappingcapabilities

Page 10: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Requirements ~ Larger Than Fiber Initially a new GIS telecom COTS software to satisfy fiber

management needs

Leadership Approved New Circuit Management SolutionAdd customized software interface to COTS fiber softwareMigrate Telecom database

and fiber data to customized GIS telecom software

Tie telecom circuits to GIS software

Focus on expanding fiber routes

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Final Solution Reviewed numerous software providers Interview & demo 4 leading COTS software vendors Selected ESRI/Schneider and Fiber Manager

With a custom implementation for bandwidth mgmt by SSP

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GIS-Based Telecom Asset Management Esri ArcGIS Manages Core Mapping

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GIS-Based Telecom Asset Management Schneider Electric Fiber Manager Manages Connectivity & Assets

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Fiber Manager Network Analysis and Tracing

Connection Management Fiber Connectivity Traces Define circuit paths OTDR Trace

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Fiber Manager – It’s Physical Connection Manager allows you to connect fiber, microwave, etc. to

a physical port on a device on each end No internal connectivity between device ports within a device Circuit Manager allows you to create a named physical path from

device to device

Does a good job in tracking physical assets and connectivity

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Track master/header circuits that traverse through devicesCustom Trace Linking Multiple Fiber Manager Physical CircuitsDefines connectivity between internal device portsEstablish bandwidth between end points

Systems / Master Circuits

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18

BA C

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19

BA C

System A: OC-48

System B: E-3

System C: OC-12

1

2

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20

BA C

System A: OC-48

System B: E-3

System C: OC-12

Physical Circuits

1

2

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Creating Master Circuits

Start by selecting a single site feature on the map. Click the Master Circuit button.

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Creating Master Circuits

Select the starting port which initiates an outbound trace on the connected line.

At the site on the other end of the trace, review the inbound port and select an outbound port if available/required.

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Creating Master Circuits

The trace is visualized on the map

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Creating Master Circuits

Once the trace is complete, enter information about the master circuit and click Save.

Page 24: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Bandwidth Hierarchy

Define a bandwidth hierarchy for each master circuit up to an OC-192 (10 Gb/s)

Allocate logical trunk circuits (reserved bandwidth, ex. a full STS-1 or DS1)

Provision logical tributary circuits (committed bandwidth) down to a DS0Custom Two Point Trace Through Master Circuits

Page 25: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Bandwidth Hierarchy

Allocate circuits within the master circuit hierarchy24 DS0s = 1 DS1Tributary Circuit

Ex Hierarchy:Consuming the 1st Vir. TributaryWithin the 13th OC-1 (trunk)Within an OC-3 (trunk)Within an OC-12 (trunk)Within an OC-24 (trunk)Within an OC-48 (master)

OC048-024-12-03 :: Defines the Timeslot of the circuit

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28

BA C

System A: OC-48

System B: E-3

System C: OC-12

Physical Circuits

1

2

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29

BA C

System A: OC-48

System B: E-3

System C: OC-12

Trunk Circuit: DS-1

1

2

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30

BA C

System A: OC-48

DS0

System B: E-3

DS0

System C: OC-12

DS0

Tributary Circuit

1

2

Page 29: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Provisioning a Logical Circuit

Provisioning is initiated from the Tri-State toolbar.

Define the properties of the logical circuit.

Choose the start and end sites.

Page 30: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Provisioning a Logical Circuit

Any eligible paths are shown. Selecting a path shows the systems that are crossed.

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Provisioning a Logical CircuitFor any systems included in the path, the user must provision the timeslot of each logical circuit.

Here the user chooses: The 8th DS0 in the 3rd VT in the 1st STS of the TSGT-C OC-3

Page 32: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Provisioning a Logical CircuitWhen some circuits are provisioned, the color changes to orange.

When all circuits are provisioned for the system, the color changes to green.

Repeat for each system crossed within the path.

The save button is then activated.

Page 33: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Technical Benefits

What can we do with this level of detailed data?

Recommend circuit provisioning based on available timeslots Track allocated bandwidth vs. capacity at all points on network Create a GIS heat map showing bottlenecks Drive capital planning for network expansion Poke the network at any point to see:

Hierarchy of the master circuit(s)Which logical circuits are presentThe use of each logical circuit (down to the DS0)

Result is a scalable system

Page 34: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Bandwidth vs. Capacity

Choose one or more systems to review.

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Bandwidth vs. Capacity

The map zooms to the extent of the system, which is shown here in green. Note that: < 50% the system will be displayed in green 50% to 75%, the system will be displayed in yellow 75% to 90%, the system will be displayed in orange > 90%, the system will be displayed in red

Page 36: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Business Justifications

First . . . “It has to be done!”

And second . . . “It will save us time and money!”

Page 37: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Business Justifications Current system is not supported by Vendors No significant system upgrades over last 20 years Key personnel are nearing retirement gone! Growing number and complexity of assets $100M in Capital project over next 5 years Need for spatial analysis of assets Inefficient circuit design and fiber tracking process

Page 38: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Business Benefits Reduces time required to manage circuit/fiber

design and installation Replaces existing unsupported system with a

GIS based platform Consolidates several systems into one platform

(CSMgmt, Telecom Room Database, AutoCAD drawings, Excel Spreadsheets, etc.)

Standardizes work flow and processes

Page 39: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Business Benefits Eliminate a portion of drawing packages and

paper documentation Reduce time to troubleshoot and locate outages Greater data integrity and access for field mtnce Provide enhanced reporting functions Track 3rd Party usage of the telecom network Provides opportunity to roll to Linux

Page 40: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS

Questions? Skye Perry

Principal ConsultantSSP Innovations

[email protected]

John TyllGIS ManagerTri-State G&T

[email protected]

Page 41: Provisioning Bandwidth & Logical Circuits Using Telecom-Based GIS