Portable Solar Panel Array With Sliding Deployable Support
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Solution Overview
Problem
Existing portable solar cell systems are limited by the area that can be exposed to sunlight, weight, and the need for a support structure, restricting their size and efficiency in generating electricity.
Innovation Solution
A portable solar cell array system with a collapsible design featuring multiple solar cell panels that can be stacked and easily deployed, utilizing a ground support structure with slider systems to align panels optimally for maximum sunlight exposure, and incorporating a power conditioning unit and energy storage system for enhanced functionality.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If the area of solar cell panels is increased to improve electricity generation capacity, then the weight and size of the portable solar cell system increases, making it harder to transport
Solution Approach 1:
The solar cell system is divided into multiple separate panels that can be individually handled and transported. Each panel can be independently carried and then assembled together at the deployment location, allowing the total solar area to be large while maintaining portability during transport.
Solution Approach 2:
The solar panels are designed to nest within each other or within a compact carrying structure when not in use. This allows multiple large panels to be stored in a small footprint, enabling easy transport while maintaining the capability to deploy a large total solar area when needed.
2Productivity
If the area of solar cell panels is increased to improve electricity generation capacity, then the size of the portable solar cell system increases, making it harder to transport and set up
Solution Approach 1:
The system is segmented into multiple manageable panels that can be easily carried and assembled. This segmentation allows users to transport and set up large total solar areas by working with smaller individual components rather than one large monolithic structure.
Solution Approach 2:
The solar panels incorporate movable and adjustable components that allow for easy deployment and configuration. The panels can be quickly assembled, positioned, and adjusted to optimal orientations without requiring complex installation procedures, maintaining ease of operation despite increased total area.
3Reliability
If a support structure is added to secure the solar cell system, then the stability and power generation capability improve, but the weight and complexity of the system increase
Solution Approach 1:
The support structure is divided into simple, modular components that correspond to each solar panel. Each panel has its own lightweight support elements, eliminating the need for a single complex overarching support structure. This segmentation simplifies both the individual components and the overall system assembly.
Solution Approach 2:
The solar panels are designed to be self-supporting or to support each other through their interconnections. The panels themselves provide structural stability when properly assembled, reducing or eliminating the need for additional external support structures and thereby reducing overall system complexity.
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
Enables a larger, more efficient, and portable solar cell array that can be easily transported and set up, maximizing solar energy capture while providing a compact footprint and stable power generation.
Implementation Method 1
Photovoltaic cells, commonly referred to as solar cells, are used to convert sunlight into electrical energy
Implementation Method 2
the first, second and third plurality of solar cell panels are aligned in an upward orientation in a first row, second row, and third row to collect solar radiation
Data Source
AI summary
A system and method for a portable solar cell array system is provided. One embodiment has a first, second and third plurality of solar cell panels, a support structure, a lower assembly slidably coupled to the support structure, a center assembly secured to the support structure, wherein the center assembly is secured to the support structure, and an upper assembly slidably coupled to the support structure. When in a closed configuration, the first, second and third plurality of solar cell are stacked above each other and are within the support structure. When in an open configuration, the first, second and third plurality of solar cell panels are aligned in an upward orientation in a first row, second row, and third row to collect solar radiation.