Our Technology

Dynamic Flow Engine

Current gasoline engines achieve only ~25% thermal efficiency, while diesels reach 28%–42%. To cut costs and emissions, the innovative Dynamic Flow 4-stroke engine delivers a groundbreaking 75% thermal efficiency in engines of all sizes—redefining performance and sustainability in transportation.

Dynamic Flow Engine Features Informational Video

Gas Flow Capacity

EVIC Atkinson Cycle

Variable Displacement

Past Combustion Engine Development

Thermal Efficiency

Internal combustion engines have driven global progress since 1876. However, incremental improvements are no longer enough—major breakthroughs in engine efficiency are vital to lowering emissions and environmental impact.

Global

Emission

The transportation sector is a critical driver of global economic growth, but it also comes with a significant environmental cost. It’s the leading source of air pollution in many countries, emitting harmful greenhouse gases like carbon dioxide and nitrogen oxides that contribute to climate change and respiratory illnesses. Finding cleaner and more efficient transportation solutions is crucial for building a sustainable future.

Uncompromised

Performance

For over a century, combustion engines have propelled vehicles, but a physical bottleneck – limited airflow – restricts their power potential. Dynamic Flow technology emerges as a game-changer. By surpassing traditional 4-stroke engine airflow limitations, Dynamic Flow engines unlock a new era of performance.

Broad

Application

Dynamic Flow engine technology versatility allows it to revolutionize a wide range of transportation sectors. This innovative engine transcends the limitations of both current 2-stroke and 4-stroke engine. Dynamic Flow engines promise significant improvement in efficiency across the board and ensure cleaner emissions for a sustainable future.

Simplify

Integral Features

Conventional combustion engines rely on complex external systems to compensate for inherent design limits. These add-ons increase weight, manufacturing costs, and parasitic losses that drag down efficiency. By fixing these core deficiencies internally, the Dynamic Flow engine eliminates external components—delivering a lighter, simpler, and far more cost-effective powertrain.

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About Our Technologies

  • Dynamic Flow Engine Valve Configuration & Gas Flow

    Dynamic Flow Engine: A Paradigm Shift in Valve Technology The Dynamic Flow engine redefines traditional 4-stroke and 2-stroke engine technology by introducing an innovative valve configuration that addresses the limitations in thermal efficiency and power output inherent in conventional designs. Challenges in Conventional 4-Stroke and 2-Stroke Engines: Over the past 10 to 15 years, there…

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  • EIVC Atkinson Cycle

    Atkinson Cycle Method: Conventional 4-stroke and 2-stroke engines have reached their limits in terms of thermal efficiency. Large 2-stroke diesel engines can achieve up to 48% thermal efficiency but at the cost of increased pollution. Four-stroke diesel engines typically achieve 28-42% thermal efficiency, while 4-stroke gasoline engines reach about 25%. Simulating the Atkinson cycle within…

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  • Variable EGR and Variable Displacement Feature

    Infinitely Variable EGR and Infinitely Variable Displacement: Redefining Emission Control and Efficiency with Internal Infinitely Variable EGR System and Infinitely Variable Displacement Feature Challenges of Conventional 4-stroke and 2-stroke Engines During Partial Load: Conventional engines rely on external exhaust gas recirculation (EGR) system to manage nitrogen oxides (NOx) during partial load operation. This method injects…

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  • Simplify & Integral System

    Dynamic Flow Engine: A Symphony of Efficiency – Eliminating Redundant Systems The Dynamic Flow engine takes a bold step towards engine simplification by eliminating the need for several external auxiliary systems found in conventional engines. This not only streamlines the design but also unlocks efficiency gains. Here’s how: Farewell: Throttle Body Conventional engines rely on…

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  • Variable Valve Timing – Electrical Drive Controlled

    Electric motors offer a faster and more precise method for controlling camshaft phasing compared to traditional mechanical systems. This innovation unlocks several advantages:

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  • Variable Valve Timing – Oil Controlled

    Variable valve timing (VVT) is a technology employed in modern internal combustion engines to optimize the timing of valve opening and closing. This optimization enhances the engine’s ability to breathe air and fuel, leading to several key benefits: Beyond Traditional Oil-Controlled VVT: A New Era of Camshaft Control Conventional Variable Valve Timing (VVT) systems rely…

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Our Mission