Modular Wind Guide System for Turbine Energy Output
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Solution Overview
Problem
Existing wind guide systems face challenges in being cost-effective, efficient, and adaptable to various environments while maximizing energy production, transportation, installation simplicity, reusability, and recyclability, often requiring large, unstandardized components that are suboptimal for market implementation.
Innovation Solution
A modular wind guide system comprising at least 10 modules, including standardized elements such as sheet piles, shipping containers, and bales, designed to withstand high winds and adapt to different terrains, with features like interlocking edges and gaps for access, allowing easy assembly and disassembly, and reducing the need for support structures.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If wind guide systems use tall structures to maximize energy production, then energy production increases, but wind loads and structural costs increase
Solution Approach 1:
The wind guide system is divided into multiple modular sections that can be assembled vertically. Each module is a self-contained unit with standardized dimensions, allowing the overall structure height to be adjusted by adding or removing modules rather than designing entirely new tall structures
Solution Approach 2:
The modular design enables dynamic adjustment of structure height and configuration based on wind conditions and energy production requirements. Modules can be added during off-seasons or low-wind periods when structural demands are lower
2Productivity
If wind guide systems use tall structures to maximize energy production, then energy production increases, but structural costs increase
Solution Approach 1:
The structure is segmented into standardized modules that can be manufactured independently using identical or similar components. This modular approach enables economies of scale in manufacturing and reduces overall structural costs compared to building custom tall structures
Solution Approach 2:
The standardized modules are designed to serve multiple functions: structural support, wind guidance, and potential housing for equipment. This multi-functionality reduces the need for additional specialized components, lowering overall structural costs
3Strength
If wind guide systems use large unstandardized components, then structural integrity is maintained, but transportation costs and installation complexity increase
Solution Approach 1:
The system is divided into transportable modular sections with standardized dimensions that fit standard transportation equipment. Each module maintains necessary structural integrity while being small enough for conventional transport and handling
Solution Approach 2:
Modules are pre-assembled and pre-tested at manufacturing locations before transportation. Connection interfaces are pre-prepared with standardized mounting mechanisms, reducing on-site assembly complexity and installation time
4Strength
If wind guide systems use large unstandardized components, then structural integrity is maintained, but transportation costs increase
Solution Approach 1:
The structure is segmented into modules with dimensions optimized for standard transportation equipment (trucks, containers). This segmentation allows use of conventional transportation infrastructure rather than specialized heavy transport, significantly reducing transportation costs
Solution Approach 2:
Module dimensions are optimized to maximize transportation efficiency while maintaining structural integrity. Standardized module sizes allow optimal loading arrangements that minimize transportation volume and cost
5Productivity
If wind guide systems are designed for specific wind farms, then performance is optimized, but adaptability to other sites decreases
Solution Approach 1:
The standardized modules are designed with universal connection interfaces and configurations that can be adapted to different site requirements. The same basic module type can be arranged in different patterns and heights to suit various wind farm locations and terrain conditions
Solution Approach 2:
While modules are standardized, their arrangement, orientation, and configuration can be locally optimized for specific site conditions such as wind direction, terrain, and surrounding obstacles, achieving both standardization benefits and site-specific optimization
6Ease of operation
If wind guide systems use non-modular designs, then initial installation is simplified, but reusability and recyclability decrease
Solution Approach 1:
The modular design with standardized connection mechanisms actually simplifies installation through pre-assembled units that connect via standardized interfaces. Modules can be easily disconnected and reconnected for relocation or repair, enhancing reusability without sacrificing installation simplicity
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 modular system reduces overall costs, simplifies installation, enhances reusability and recyclability, and improves energy production by optimizing wind direction, while minimizing environmental impact and transportation costs.
Implementation Method 1
The wind guide system comprises at least 10 modules for guiding the wind in front of the wind turbine from a first direction to a second direction
Implementation Method 2
The wind guide system is installed for artificially optimizing the wind conditions in wind farms to increase the energy production rate of wind turbines
Data Source
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AI summary
A wind guide system to speed up wind at a wind turbine and thereby improve its energy production is disclosed. The wind guide system is built with modules like load-bearing piles, steel sheet piles, shipping containers or straw bales. The main purposes of the invention are to save overall costs for new wind guide system installations to improve the cost of renewable energy, to reduce the CO2 footprint of the wind guide system and to adapt it better to site conditions and the environment. The main cost savings comprise manufacturing costs, transportation costs from the factory to the often-remote wind turbine sites and installation cost and time.