Combustion enhancement device for internal combustion engine intake system

TWM688040UActive Publication Date: 2026-10-01CLOUD GREEN ENERGY TECHNOLOGY CO LTD
View PDF 0 Cites 0 Cited by

Patent Information

Application Number
TW115202513
Authority / Receiving Office
TW · TW
Patent Type
Utility models
Current Assignee / Owner
Filing Date
2026-03-23
Publication Date
2026-10-01
Estimated Expiration
2036-03-22

Smart Images

  • Figure TWG2TB001914310_001
    Figure TWG2TB001914310_001
  • Figure TWG2TB001914310_002
    Figure TWG2TB001914310_002
  • Figure TWG2TB001914310_003
    Figure TWG2TB001914310_003
Patent Text Reader

Abstract

A combustion enhancement device for an internal combustion engine intake system includes a main body for use in the intake piping system of an internal combustion engine. The main body has a pre-defined receiving space with a first shaft hole and a second shaft hole connected to the outside. The first shaft hole allows outside air to enter, while the second shaft hole is connected to the intake piping system of the internal combustion engine and induced to flow by the negative pressure of the engine. An exchange medium housed in the receiving space is a fluid with predetermined combustion activity. A flow guiding component is disposed inside the receiving space and has a plurality of staggered flow guiding holes to provide wetting and crossflow of the exchange medium. The plurality of flow guiding holes together form a multi-stage gas-liquid contact interface, causing a shear flow field and local pressure difference changes when air flows through the first shaft hole. This causes the exchange medium to generate trace amounts of gas phase components at the multi-stage gas-liquid contact interface, and automatically adjusts the output flow rate of the second shaft hole to be introduced into the internal combustion engine according to changes in the negative pressure.
Need to check novelty before this filing date? Find Prior Art

Claims

1. A combustion enhancement device for an internal combustion engine intake system, comprising: a main body for use in an intake piping system of an internal combustion engine, having a pre-defined capacity receiving space inside, the upper part of which has a first shaft hole and a second shaft hole communicating with the outside, the first shaft hole for introducing outside air, and the second shaft hole for connecting to the combustion chamber of the internal combustion engine, through which air is drawn in by the negative pressure of the internal combustion engine; an exchange medium housed in the receiving space, which is a fluid with predetermined combustion activity; a flow guiding component disposed inside the receiving space, having a plurality of staggered flow guiding holes for providing wetting and crossflow of the exchange medium; the plurality of flow guiding holes together form a multi-stage gas-liquid contact interface, so that when the intake air is drawn through the first shaft hole, a shear flow field and local pressure difference change are formed, thereby causing the exchange medium to generate trace gas phase components at the multi-stage gas-liquid contact interface, and automatically adjusting the output flow of the second shaft hole to be introduced into the internal combustion engine according to the change of the negative pressure of the flow.

2. A combustion enhancement device for an internal combustion engine intake system, comprising: a main body for use in an intake piping system of an internal combustion engine, having a pre-defined receiving space inside, the upper part of which has a first shaft hole and a second shaft hole communicating with the outside, the first shaft hole for introducing outside air, and the second shaft hole for connecting to the combustion chamber intake piping of the internal combustion engine, through which air is guided by the negative pressure of the internal combustion engine; an exchange medium, a fluid with predetermined combustion activity, contained in the receiving space; and a flow guiding component disposed inside the receiving space, having a plurality of staggered flow guiding holes for providing wetting and flow of the exchange medium, the flow guiding holes forming a multi-layer gas-liquid contact interface, allowing the first shaft hole to... When the intake air flows through, it forms a shear flow field and local pressure difference changes, which causes the AC medium to generate trace gas phase components at the multiple gas-liquid contact interface. The output flow of the second shaft hole is automatically adjusted to guide the internal combustion engine according to the change of the negative pressure of the intake air. A shock wave transmitter has a main body that provides a predetermined shock wave collection. It has an input end and an output end on its side. The output end is fixedly connected to the main body, and the input end is fixedly connected to the outside of the internal combustion engine to receive the mechanical vibration energy generated by the operation. In this way, the shock wave is transmitted into the receiving space to prevent the AC medium from being locally stuck, thereby promoting the renewal of the surface liquid film of the guide hole of the flow guide assembly, maintaining the dynamic balance of the multiple gas-liquid contact interface, and thus improving the gas-liquid contact efficiency.

3. The combustion enhancement device for an internal combustion engine intake system as described in claim 1 or 2, wherein the flow guiding component is a multi-layered metal mesh structure forming a non-linear airflow channel.

4. The combustion enhancement device for the intake system of an internal combustion engine as described in claim 1 or 2, wherein the flow guiding component adopts a cross-shaped structure of multiple layers of circular metal mesh plates and arranged cross-shaped metal mesh plates to form a plurality of nonlinear airflow channels, thereby generating local vortex flow inside the housing space.

5. The combustion enhancement device for an internal combustion engine intake system as described in claim 1 or 2, wherein the flow guiding component adopts a cross-shaped structure of multiple layers of circular metal mesh plates and concentrically arranged multiple layers of annular metal mesh plates, thereby forming a plurality of nonlinear airflow channels to generate local vortex flow inside the receiving space.

6. The combustion enhancement device for an internal combustion engine intake system as described in claim 1 or 2, wherein the optimal orifice diameter of the flow guide assembly is 0.01 mm to 5 mm.

7. The combustion enhancement device for an internal combustion engine intake system as described in claim 1 or 2, wherein a supplementary shaft hole is recessed between the first shaft hole and the second shaft hole of the main body and the shaft system, the supplementary shaft hole being in communication with the interior of the receiving space to provide a predetermined amount of AC medium to flow in.

8. The combustion enhancement device for an internal combustion engine intake system as described in claim 1 or 2, wherein the optimal filling amount of the exchange medium is 10% to 60% of the housing volume.

9. A combustion enhancement device for an internal combustion engine intake system as described in claim 1 or 2, wherein an air filter is externally mounted in the first shaft hole of the main body to provide the introduction of clean air.

10. A combustion enhancement device for an internal combustion engine intake system as described in claim 1 or 2, wherein the multiple gas-liquid contact interfaces of the flow guide assembly generate trace amounts of gas phase components, which relatively accumulate in the combustion chamber at a concentration of 10 ppm to 500 ppm.

11. The combustion enhancement device for an internal combustion engine intake system as claimed in claim 7, wherein the supplementary shaft hole is sealed with a cover in a freely removable manner, and a measuring scale extending downward into the bottom of the receiving space is fixed at the bottom of the cover to detect the amount of AC medium in the receiving space.