A Shockless Adaptive Trigger Ignition Device Utilizing Laminar Plasma System

A laminar plasma and ignition device technology, which is applied in the ignition, plasma, combustion ignition and other directions using electric sparks, can solve the problems of high cost, low monomer power, low thermal efficiency, etc., and achieves good uniformity and fast heating speed. , the effect of uniform heat distribution

CN106304593BActive Publication Date: 2019-12-13四川金虹等离子技术有限公司
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Publication Date
2019-12-13

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Abstract

The invention discloses a non-impact self-adaptive trigger ignition device utilizing a laminar flow plasma system, and belongs to the technical field of ignition equipment. The non-impact self-adaptive trigger ignition device comprises the laminar flow plasma system and an ignition nozzle. The laminar flow plasma system comprises a power supply, a laminar flow plasma generator and a jet nozzle, wherein the power supply is connected with the laminar flow plasma generator, and the jet nozzle and the laminar flow plasma generator are connected detachably. The ignition nozzle is arranged on equipment to be ignited, and comprises a shell, an ignition electrode and a guide tube, wherein the ignition electrode is arranged at the front end of the guide tube, the guide tube extends into the equipment to be ignited, and the shell is arranged outside the ignition electrode and the guide tube. The central axis of the jet nozzle coincides with the central axis of the ignition nozzle. The central axes of an electric arc channel, the jet nozzle and the ignition nozzle coincide, plasma is emitted along the central axis, an electric arc guidance effect is achieved through the design, the ignition steps are simplified, the ignition difficulty is reduced, ignition is achieved at a time with working gas, and meanwhile stability of laminar flow electric arc hot plasma jet is ensured.
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Description

technical field

[0001] The invention relates to an ignition device, in particular to a non-impact self-adaptive trigger ignition device utilizing a laminar flow plasma system, and belongs to the technical field of ignition equipment. Background technique

[0002] Ignition devices are required to reliably ignite flames in boilers, burners, industrial furnaces, flares, gas relief systems, and many other applications. Existing ignition devices are mainly electric ignition, which uses high-voltage electric ignition, arc ignition and electric heating to ignite the flame. The ignition device is mainly composed of an electric ignition part and other auxiliary parts. The electric ignition part includes an electric ignition element and an electrode. The electric ignition element generates an electric spark through the electrode, ignites the combustible gas mixture, and forms a stable flame to complete the ignition. Task. However, the electrode part of the above-mentioned ignition d...

Examples

Embodiment 1

[0029] A non-impact adaptive trigger ignition device utilizing a laminar plasma system, comprising a laminar plasma system and an ignition nozzle 1, the laminar plasma system comprising a power supply 2, a laminar plasma generator 3 and a nozzle 4, the power supply 2 is connected to the layer Flow plasma generator 3, nozzle 4 is detachably connected with laminar flow plasma generator 3; Described ignition nozzle 1 is arranged on the equipment to be ignited, and ignition nozzle 1 comprises housing 5, ignition pole 6 and conduit 7, ignition pole 6 is arranged on the front end of the conduit 7, and the conduit 7 extends into the device to be ignited, and the housing 5 is arranged outside the ignition pole 6 and the conduit 7; the nozzle 4 coincides with the central axis of the ignition nozzle 1.

Embodiment 2

[0031] A non-impact adaptive trigger ignition device utilizing a laminar plasma system, comprising a laminar plasma system and an ignition nozzle 1, the laminar plasma system comprising a power supply 2, a laminar plasma generator 3 and a nozzle 4, the power supply 2 is connected to the layer Flow plasma generator 3, nozzle 4 is detachably connected with laminar flow plasma generator 3; Described ignition nozzle 1 is arranged on the equipment to be ignited, and ignition nozzle 1 comprises housing 5, ignition pole 6 and conduit 7, ignition pole 6 is arranged on the front end of the conduit 7, and the conduit 7 extends into the device to be ignited, and the housing 5 is arranged outside the ignition pole 6 and the conduit 7; the nozzle 4 coincides with the central axis of the ignition nozzle 1.

[0032] The laminar flow plasma generator 3 includes an anode structure 301, a cathode structure 302 and a multi-air film cooling device 303. The anode structure 301 is an anode structure...

Embodiment 3

[0034] A non-impact adaptive trigger ignition device utilizing a laminar plasma system, comprising a laminar plasma system and an ignition nozzle 1, the laminar plasma system comprising a power supply 2, a laminar plasma generator 3 and a nozzle 4, the power supply 2 is connected to the layer Flow plasma generator 3, nozzle 4 is detachably connected with laminar flow plasma generator 3; Described ignition nozzle 1 is arranged on the equipment to be ignited, and ignition nozzle 1 comprises housing 5, ignition pole 6 and conduit 7, ignition pole 6 is arranged on the front end of the conduit 7, and the conduit 7 extends into the device to be ignited, and the housing 5 is arranged outside the ignition pole 6 and the conduit 7; the nozzle 4 coincides with the central axis of the ignition nozzle 1.

[0035]The laminar flow plasma generator 3 includes an anode structure 301, a cathode structure 302 and a multi-air film cooling device 303. The anode structure 301 is an anode structure ...