Modular Transportable Solar Panel System for Rapid Deployment
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Solution Overview
Problem
Traditional transportable solar power systems face inefficiencies due to limited sun tracking capabilities, non-standardized sizes, reduced surface area, cumbersome deployment, susceptibility to damage, and high costs associated with shipping and maintenance.
Innovation Solution
A transportable power system featuring a modular design with interconnectable track modules, adjustable solar panel frames, and a lift system for rapid deployment, allowing for efficient sun exposure and easy assembly/disassembly, integrated with a transport enclosure for enhanced durability and efficiency.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If traditional transportable solar power systems use fixed-size containers, then shipping costs are reduced, but deployment flexibility and adaptability to different sites are limited
Solution Approach 1:
The solar power system is divided into modular components including standardized containers, interchangeable solar panels, and separable mounting structures. This segmentation allows different configurations to be assembled from the same standardized parts, providing deployment flexibility without requiring custom-designed systems for each site.
Solution Approach 2:
The standardized container design serves multiple functions: it protects solar panels during transport, provides a structured mounting framework for deployment, and can be configured for various installation scenarios (ground-mounted, roof-mounted, portable). This universal design reduces the need for site-specific customizations while maintaining adaptability.
2Productivity
If traditional solar panel systems lack sun tracking capabilities, then system complexity is reduced, but power generation efficiency decreases significantly
Solution Approach 1:
The system incorporates adjustable mounting structures that enable solar panels to change their orientation and tracking position dynamically. This allows the panels to follow the sun's movement across the sky, maximizing energy capture while maintaining a relatively simple base structure that can be configured for different tracking modes.
Solution Approach 2:
The mounting system allows adjustment of critical parameters including panel tilt angle, azimuth orientation, and tracking speed. These parameter changes enable the system to adapt to different latitudes, seasons, and weather conditions, optimizing power generation efficiency without requiring a completely complex fixed tracking mechanism.
3Loss of time
If traditional transportable solar systems use non-standardized components, then manufacturing flexibility is improved, but shipping costs and assembly time increase
Solution Approach 1:
The system employs pre-assembled standardized modules including pre-configured mounting brackets, pre-wired electrical connections, and pre-tested solar panel assemblies. These preliminary preparations are made during manufacturing, allowing for rapid on-site assembly without requiring complex field customization or extensive wiring work.
Solution Approach 2:
The design utilizes homogeneous standardized components with uniform connection interfaces, mounting patterns, and dimensional specifications. This homogeneity across all modules enables interchangeable parts, simplified inventory management, and rapid assembly through repetitive standardized procedures rather than custom fitting each component.
4Speed
If traditional solar panel systems are not designed for rapid deployment, then structural stability is improved, but deployment speed and response time to emergencies decrease
Solution Approach 1:
The system is segmented into independently deployable modules that can be quickly assembled in sequence. Each module is self-contained with integrated mounting structures, allowing teams to deploy multiple units simultaneously without requiring complex inter-module connections, thus maintaining structural integrity while accelerating overall deployment speed.
Solution Approach 2:
The mounting structures utilize lightweight yet strong materials and flexible connection mechanisms that enable rapid assembly and disassembly. These flexible mounting systems can be quickly configured and secured, providing sufficient structural stability for immediate operation while allowing for fast deployment and relocation when needed.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system achieves higher power output density, reduced deployment time, and increased durability, while minimizing costs through standardized components and improved sun tracking capabilities, making it suitable for off-grid and emergency power applications.
Implementation Method 1
A rapidly deploying transportable power system can include a plurality of solar panels, each solar panel within each frame member being electrically interconnected
Data Source
AI summary
Embodiments disclosed herein are directed to a rapidly deploying transportable power system for generating power. The rapidly deploying transportable power system embodiment disclosed herein can have a plurality of frame members containing a plurality of solar panels. Any embodiments of the rapidly deploying transportable power system can also have a transport enclosure configured to support the plurality of frame members and a rail system coupleable with the transport enclosure, the rail system being configured to support the plurality of frame members outside of the transport enclosure. In any embodiments, the plurality of frame members can be positionable within the transport enclosure with one frame member positionable above another frame member. Furthermore, the plurality of frame members can be movable along the rail system to positions outside of the transport enclosure along the track system.