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The Optimization Design of Variable Valve Parameters for Internal Combustion Engines Considering the Energy Consumption of a Composite Electromagnetic Valve Mechanism
by
Shao, Wei
, Fan, Xinyu
, Zheng, Li
, Yin, Jie
, Han, Juyi
in
Air quality management
/ Algorithms
/ Analysis
/ Automotive emissions
/ Business metrics
/ Combustion
/ Control valves
/ Critical components
/ Design optimization
/ electromagnetic fully variable valve mechanism
/ Electromagnetism
/ Energy consumption
/ energy consumption of valve mechanism
/ Energy efficiency
/ Energy use
/ Engines
/ Game theory
/ gas exchange parameter optimization design
/ Hydraulics
/ Internal combustion engines
/ low carbon and efficient
/ Mathematical optimization
/ Multiple objective analysis
/ Nitrogen oxide
/ Nitrogen oxides
/ Optimization
/ Parameters
/ Pneumatics
/ Process controls
/ synthesis weighting method
/ Thermodynamic models
/ Thermodynamics
/ Valve trains
/ Valves
2025
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The Optimization Design of Variable Valve Parameters for Internal Combustion Engines Considering the Energy Consumption of a Composite Electromagnetic Valve Mechanism
by
Shao, Wei
, Fan, Xinyu
, Zheng, Li
, Yin, Jie
, Han, Juyi
in
Air quality management
/ Algorithms
/ Analysis
/ Automotive emissions
/ Business metrics
/ Combustion
/ Control valves
/ Critical components
/ Design optimization
/ electromagnetic fully variable valve mechanism
/ Electromagnetism
/ Energy consumption
/ energy consumption of valve mechanism
/ Energy efficiency
/ Energy use
/ Engines
/ Game theory
/ gas exchange parameter optimization design
/ Hydraulics
/ Internal combustion engines
/ low carbon and efficient
/ Mathematical optimization
/ Multiple objective analysis
/ Nitrogen oxide
/ Nitrogen oxides
/ Optimization
/ Parameters
/ Pneumatics
/ Process controls
/ synthesis weighting method
/ Thermodynamic models
/ Thermodynamics
/ Valve trains
/ Valves
2025
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The Optimization Design of Variable Valve Parameters for Internal Combustion Engines Considering the Energy Consumption of a Composite Electromagnetic Valve Mechanism
by
Shao, Wei
, Fan, Xinyu
, Zheng, Li
, Yin, Jie
, Han, Juyi
in
Air quality management
/ Algorithms
/ Analysis
/ Automotive emissions
/ Business metrics
/ Combustion
/ Control valves
/ Critical components
/ Design optimization
/ electromagnetic fully variable valve mechanism
/ Electromagnetism
/ Energy consumption
/ energy consumption of valve mechanism
/ Energy efficiency
/ Energy use
/ Engines
/ Game theory
/ gas exchange parameter optimization design
/ Hydraulics
/ Internal combustion engines
/ low carbon and efficient
/ Mathematical optimization
/ Multiple objective analysis
/ Nitrogen oxide
/ Nitrogen oxides
/ Optimization
/ Parameters
/ Pneumatics
/ Process controls
/ synthesis weighting method
/ Thermodynamic models
/ Thermodynamics
/ Valve trains
/ Valves
2025
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The Optimization Design of Variable Valve Parameters for Internal Combustion Engines Considering the Energy Consumption of a Composite Electromagnetic Valve Mechanism
Journal Article
The Optimization Design of Variable Valve Parameters for Internal Combustion Engines Considering the Energy Consumption of a Composite Electromagnetic Valve Mechanism
2025
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Overview
The variable valve mechanism, as a critical component for the efficient and low-carbon development of internal combustion engines, faces increasingly stringent requirements regarding its driving efficiency, output force, precision, and energy consumption. To address the limitations of existing technologies, a new composite electromagnetic valve train is proposed, characterized by a high force-to-power ratio, fast response, and high precision, along with a unique single/double drive mode, which offers greater flexibility in controlling valve timing parameters; however, it also introduces complex coupling relationships and increases the difficulty of optimization design. To this end, this paper establishes a thermodynamic model of the engine based on the composite electromagnetic valve mechanism. First, it analyzes the effects of different valve timing parameters and drive modes on engine performance; second, a multi-objective game theory optimization algorithm is employed to optimize the valve timing parameters and obtain the optimal solution set; finally, taking into account the energy consumption of the valve mechanism, engine emissions, and performance, a control strategy for valve timing parameters is developed based on an entropy-weighted method combined with a superiority and inferiority solution distance analysis. The results indicated that, under all the operating conditions of the engine, the average torque increased by 2.56%, the effective fuel consumption rate decreased by 6.23%, and nitrogen oxide emissions reduced by 9.86%. Meanwhile, an efficient and economical operational mode for the variable valve mechanism was obtained, providing new insights for the development of variable valve timing technology.
Publisher
MDPI AG
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