PON Route Redundancy Using Geospatial Polyline Path Detection
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Solution Overview
Problem
Conventional methods for connecting new service locations to passive optical networks (PON) are manual, time-intensive, and fail to consider network factors, leading to inefficient resource usage and potential service gaps due to reliance on technician expertise, lack of redundancy consideration, and inconsistent connection practices.
Innovation Solution
A method and system that utilize geospatial data and network components to detect and configure redundant physical polyline routes within a PON, ensuring the required services are delivered through multiple paths, including different OLTs, route segments, and provider facilities, thereby optimizing network connections.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If manual technician-based methods are used to connect new service locations to PON, then connection can be established, but the process is time-intensive and inconsistent
Solution Approach 1:
The patent replaces manual mechanical field investigation with an automated computational system that uses geospatial data and network topology information to automatically detect optimal splice points and route configurations, eliminating the need for technicians to physically travel to prospective service locations
Solution Approach 2:
The system enables self-service by automatically performing route detection, splice point identification, and network resource allocation without requiring manual technician intervention, allowing the network infrastructure to serve itself in identifying optimal connection paths
2Ease of operation
If technicians rely on convenience or proximity in determining splice points, then connection can be established quickly, but network factors such as equipment capabilities and loading are not considered
Solution Approach 1:
The system performs preliminary analysis of network topology, equipment capabilities, and current loading conditions before determining splice points, ensuring that all network factors are considered in advance rather than relying on post-hoc manual assessment
Solution Approach 2:
The automated system incorporates feedback loops that continuously evaluate network status, equipment capabilities, and service requirements to dynamically determine optimal splice points that satisfy both operational ease and service reliability constraints
3Productivity
If conventional manual methods are used for connecting service locations, then connection can be established, but route redundancy is not considered
Solution Approach 1:
The patent segments the network route into multiple alternative paths by automatically detecting different physical polyline routes between service locations and network infrastructure, enabling the system to evaluate and select from multiple redundant options rather than a single manual-determined path
Solution Approach 2:
The automated detection system provides multi-functionality by simultaneously identifying primary routes, alternative redundant routes, optimal splice points, and network resource requirements in a single integrated process, whereas manual methods typically address only basic connectivity
4Measurement precision
If technicians physically travel to investigate splice points, then accurate on-site assessment can be made, but the process becomes cost-intensive and time-intensive
Solution Approach 1:
The system creates a virtual copy of the physical network infrastructure using geospatial data and topology information, allowing remote automated analysis of splice points and routes without requiring physical presence, thereby maintaining assessment accuracy while eliminating travel requirements
Data Source
AI summary
Techniques for providing route redundancy for services at a service location of a PON include obtaining indications of a service location of the PON and a set of required services for the location; and detecting, based on geospatial locations and interconnections of optical components of the PON, that two or more physical polyline routes (each configured to support the set of required services at the service location) include different elements, e.g., different on-ramp facilities, network serving equipment, physical polyline route segments connecting to a common component of each of the two or more routes, or serving facilities of one or more providers. The detected two or more routes may be configured to be a set of redundant physical polyline routes for providing the required services to the location. One or more services may be caused to be delivered to the location via the configured set of redundant physical polyline routes.


