A Distributed Binary Nozzle Ejector Device

Abstract

The invention discloses a distributed binary nozzle ejector device. The device adopts a pipeline connection method, which includes sequentially connected low-energy fluid inlet section, high-energy fluid inlet section and mixed fluid outlet section; the binary nozzle ejector is installed in the pipeline near the high-energy fluid inlet section; the surface of the high-energy fluid inlet section The through hole is connected with the external high-pressure tank; the low-energy fluid inlet section, the high-energy fluid inlet section and the mixed fluid outlet section are concentric; the binary nozzle ejector includes linear nozzle units arranged in parallel, and the nozzle The unit bodies are connected by reinforcing ribs, some of which are hollow structures, and the high-energy fluid enters the nozzle unit body from the through hole of the high-energy fluid inlet section and sprays out from its outlet; the nozzle unit body is provided with a nozzle. The device is suitable for fluid ejection control of gas and liquid. The device improves the ejection efficiency, reduces the external dimension of the ejector device, and reduces the space installation requirement of the ejector device.

Description

technical field [0001] The invention belongs to the technical field of flow control, and in particular relates to a distributed binary nozzle ejector device. Background technique [0002] Fluid is a general term for gas and liquid. Most fluids, such as oil, water and air, are indispensable substances for people's life, production and scientific research. The flow speed of the fluid varies from fast to slow, and people often hope to inject low-energy fluid through high-energy fluid to increase the velocity of low-energy fluid and increase the flow rate of low-energy fluid. [0003] In general life and production activities, people do not have high requirements for the flow speed of fluids, such as tap water, gas stations, gas stations, heating and natural gas, etc., only need a certain flow speed and flow rate to meet the requirements. However, in scientific research, people often need to efficiently eject low-energy fluids through high-energy fluids. In power plants, fuel ...

AI Technical Summary

Problems solved by technology

The annular seam ejector is a relatively classic ejector, but the traditional annular seam ejector has the following disadvantages: first, the energy and material exchange area between the high-energy fluid and the low-energy fluid is not large, and the ejection efficiency is low; second, the high-energy fluid The mixing speed with low-energy fluid is slow, the required mixing section is long, and the uniformity of the mixed fluid is poor; the third is that the ejector has a large size, expensive manufacturing and processing costs, and complex space installation requirements

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