Remote 3D Site Visualization for Fiber Directional Boring
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Solution Overview
Problem
The high cost and inefficiency of fiber network installations due to the lack of optimal planning and construction methods in laying underground fiber cables and aerial fiber cables.
Innovation Solution
Utilizing remote visualization techniques through cameras and Unmanned Aerial Vehicles (UAVs) to capture photographs, create 3D models, and perform virtual site inspections for determining optimal locations for directional boring, reducing the overall length of the fiber network.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If traditional physical site inspection methods are used for fiber network installation planning, then comprehensive on-site data can be obtained, but installation costs and time consumption increase significantly
Solution Approach 1:
The patent creates a digital 3D model (copy) of the installation area using aerial photographs and ground-based imaging data. This digital replica allows planners to conduct virtual site inspections and perform measurements on the copied environment, eliminating the need for repeated physical site visits while maintaining measurement accuracy. The 3D model serves as a persistent digital twin that can be accessed and analyzed remotely at any time.
Solution Approach 2:
The patent replaces physical mechanical site inspection processes with remote digital imaging and virtual analysis systems. Instead of sending personnel to physically measure and inspect sites, the system uses aerial vehicles to capture images, processes them into 3D models, and enables virtual measurement and planning. This substitution dramatically reduces time loss while maintaining or improving inspection accuracy through comprehensive aerial and ground-based imaging coverage.
2Productivity
If conventional fiber cable laying methods are used without optimal planning, then installation can proceed quickly, but installation costs increase due to inefficient routing and longer cable lengths
Solution Approach 1:
The patent performs comprehensive site surveying, 3D modeling, and route optimization before the actual fiber installation begins. By conducting virtual site inspections and determining optimal cable routing paths in advance using the digital 3D model, planners can identify the most efficient paths that minimize cable length while avoiding obstacles. This preliminary planning ensures that when installation proceeds, it can move quickly along pre-determined optimal routes without needing to make changes during deployment.
Solution Approach 2:
The patent transitions from two-dimensional map-based planning to three-dimensional spatial modeling for route optimization. The 3D model provides depth information, vertical clearance data, and spatial relationships that allow for more accurate calculation of cable lengths and identification of optimal routing paths in three-dimensional space. This dimensional enhancement enables precise determination of cable requirements and minimizes material waste.
3Manufacturing precision
If multiple physical site inspections are conducted to optimize fiber network routing, then routing accuracy improves, but project timeline and costs increase
Solution Approach 1:
The digital 3D model serves multiple functions simultaneously: it acts as a site survey record, a routing planning tool, a measurement reference, and a documentation archive. All routing accuracy requirements are met through interactions with this single universal digital model rather than requiring multiple separate physical inspection campaigns. The model can be accessed by multiple stakeholders for different purposes without requiring additional field visits.
Solution Approach 2:
The patent creates a persistent digital 3D copy of the installation environment that can be repeatedly analyzed and measured without degrading or requiring updates to the physical site. This copied digital representation allows unlimited virtual inspections, route iterations, and measurement operations to achieve high routing accuracy. Once the 3D model is created through initial data capture, it serves as a stable reference for all subsequent planning and optimization activities.
Data Source
AI summary
Systems and method for directional boring include causing one or more cameras to capture a plurality of photographs of an installation area; obtaining the plurality of photographs and causing processing of the plurality of photographs to provide one or more remote visualizations of the installation area; utilizing the one or more remote visualizations for determining one or more locations in the installation area best suited for directional boring; and installing portions of a fiber network via directional boring in the one or more locations.


