Interchangeable Energy Modules for Vehicle Adaptability
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Solution Overview
Problem
Vehicle fuel efficiency is constrained by weight and operating conditions, and existing vehicles are often mismatched for specific power or fuel efficiency requirements, limiting their versatility across different driving conditions.
Innovation Solution
A customizable energy system featuring interchangeable energy modules, including energy storage and conversion modules, which can be easily swapped to optimize energy storage and conversion based on specific vehicle operating conditions, allowing for improved fuel efficiency and power delivery.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Use of energy by moving object
If a vehicle is designed with a fixed powertrain configuration for specific operating conditions, then fuel efficiency is improved for those conditions, but versatility across different operating conditions deteriorates
Solution Approach 1:
The powertrain system is segmented into separate, interchangeable modules including energy storage modules (batteries, fuel tanks) and energy conversion modules (motors, generators, engines). Each module can be independently selected and swapped based on operating conditions, allowing optimization of fuel efficiency for specific conditions while maintaining versatility through module interchangeability.
Solution Approach 2:
The vehicle employs a universal modular architecture where a common set of standardized interfaces and mounting structures accommodates multiple types of energy storage and conversion modules. This multi-functional design enables the same vehicle platform to operate efficiently across diverse conditions by simply changing modules, rather than requiring different vehicle configurations.
2Power
If vehicle power requirements are increased to handle heavy loads, then capability is improved, but fuel efficiency deteriorates
Solution Approach 1:
The system enables dynamic reconfiguration of powertrain components based on real-time operating conditions. For heavy load scenarios, high-power conversion modules can be swapped in, while for normal driving conditions, more fuel-efficient modules are used. This dynamic adaptability allows the vehicle to maintain high capability when needed while optimizing fuel efficiency during routine operation.
Solution Approach 2:
The modular architecture allows changing key powertrain parameters (power output, energy density, efficiency characteristics) by swapping modules. Instead of being fixed to a single power level, the vehicle can adjust its power parameters to match demand, using high-power modules for heavy loads and efficient modules for light-duty operation, thereby resolving the trade-off between power and fuel efficiency.
3Adaptability or versatility
If multiple fuel types are integrated into a single vehicle, then adaptability to different operating conditions is improved, but device complexity deteriorates
Solution Approach 1:
Different fuel types and their corresponding conversion systems are segmented into separate, standalone modules rather than being integrated into a single complex system. Each fuel type (gasoline, diesel, electricity, hydrogen) has its own dedicated storage and conversion module, which can be independently installed, operated, and swapped. This segmentation simplifies the overall system architecture despite supporting multiple fuel types.
Solution Approach 2:
A universal interface standard enables different fuel modules to connect to the same vehicle platform through common mounting structures, fluid connections, and control systems. This multi-functional design allows the vehicle to accept multiple fuel types without requiring separate dedicated systems for each, thereby reducing overall complexity while maintaining fuel type flexibility.
Data Source
AI summary
A customizable energy system for a vehicle includes a plurality of interchangeable energy modules, wherein at least one of the plurality of interchangeable energy modules is an energy storage module configured for storing a first form of energy. The customizable energy system also includes a receptacle defining at least one cavity therein and configured for operatively communicating with the plurality of interchangeable energy modules, wherein the at least one cavity is configured for receiving any one of the plurality of interchangeable energy modules. Each of the plurality of interchangeable energy modules has a substantially similar shape and is interchangeably insertable into and removable from the at least one cavity.