Combustion experiment platform

Abstract

The utility model discloses a combustion experiment platform which comprises at least two fluid pipelines and a collecting pipeline, and the at least two fluid pipelines are arranged in parallel, are communicated with the collecting pipeline and are collected in the collecting pipeline; the downstream tail end of the collecting pipeline is provided with an outlet, and the upstream head ends of the at least two fluid pipelines are respectively provided with a corresponding inlet; each of the at least two fluid pipelines is provided with at least one of the control part and the detection part, at least one of the inlets of the at least two fluid pipelines is used for allowing combustible gas to enter, and the outlets of the at least two fluid pipelines are used for being connected with equipment to be detected or being directly ignited. A plurality of fluid pipelines connected in parallel are communicated with a collecting pipeline, testing of various gas using schemes can be carried out, testing or ignition can be carried out at an outlet of the downstream of the collecting pipeline, the combustion condition can be observed, a control part and a detection part are arranged on the fluid pipelines, the fluid condition in the fluid pipelines can be controlled, detection is carried out, and timely adjustment and data recording are facilitated; and potential safety hazards can also be avoided.

Description

TECHNICAL FIELD

[0001] The utility model relates to the field of combustion experiment, especially a combustion experiment platform. BACKGROUND

[0002] The existing gas burner research basically can only rely on fixed gas pipeline, carry out in fixed bench, pipeline caliber, pressure, flow and related measuring instruments have solidified. There are limitations for gas source, gas type and the like. In the research and development process of portable movable picnic stove, torch and other combustion appliances taking small-sized burner as the core component, a small and compact experiment platform that can centrally display various key data is lacked. Since the pipeline caliber, pressure and flow of the household common gas stove are relatively large, the related measuring instruments cannot effectively and reliably reflect the related information. The related experiment benches are fixedly connected with the natural gas pipeline, and cannot realize rapid and convenient switching. SUMMARY

[0003] The utility model solves the technical problem that the existing experiment bench relies on fixed gas pipeline and limits the gas source and gas type of the experiment, and provides a combustion experiment platform.

[0004] The utility model solves the above technical problem through the following technical scheme:

[0005] The utility model provides a combustion experiment platform, including at least two fluid pipelines and a collection pipeline, the at least two fluid pipelines are arranged in parallel, are connected with the collection pipeline and are collected in the collection pipeline, the downstream end of the collection pipeline is equipped with an outlet, and the upstream first end of the at least two fluid pipelines is equipped with corresponding inlet respectively,

[0006] Each of the at least two fluid pipelines is equipped with at least one of control part and detection part, at least one of the inlets of the at least two fluid pipelines is used for entering combustible gas, and the outlet is used for connecting the equipment to be detected or being ignited directly.

[0007] In the scheme, the fluid pipeline is communicated with the collection pipeline in parallel, the inlet of the fluid pipeline enters different combustible gas, a variety of gas use scheme test can be carried out, the outlet downstream of the collection pipeline is tested or ignited, the combustion condition can be observed, the control part and the detection part are arranged on the fluid pipeline, the fluid condition in the fluid pipeline can be controlled and detected, data can be adjusted and recorded in time conveniently, and security risks can also be avoided.

[0008] Preferably, the detection part includes a flow meter and a flow indicator, the flow meter is connected in series to the fluid pipeline, the flow indicator is electrically connected with the flow meter, and the flow indicator has a data panel.

[0009] And / or, the detection part further comprises a pressure indicator, which is communicated to the fluid pipeline through an additional pipeline;

[0010] And / or, the detection part further comprises a temperature detection device, a collection part of which is sleeved on a downstream end of the collection pipeline.

[0011] In the scheme, the flow meter is connected in series to the fluid pipeline to detect the flow in the fluid pipeline, and is electrically connected with the flow indicator, so that the flow data can be directly observed through the data panel of the flow indicator. The pressure indicator is communicated to the fluid pipeline through an additional pipeline to detect the pressure of the fluid pipeline in time to avoid safety hazards caused by excessive pressure. The temperature detection device measures the temperature at the bottom and around the flame in real time by sleeving the collection part on the downstream end of the collection pipeline.

[0012] Preferably, the pressure indicator is downstream of the flow meter along the direction of fluid flow.

[0013] Preferably, the combustion experiment platform further comprises a power supply, and the flow indicator and the temperature detection device are electrically connected with the power supply.

[0014] In the scheme, the flow indicator and the temperature detection device are powered by the power supply, which can be powered by a mobile power supply or the power supply of a laboratory or other site.

[0015] Preferably, an upstream control valve is arranged on the upstream side of the fluid pipeline.

[0016] And / or, a downstream control valve is arranged on the downstream side of the fluid pipeline and before the collection.

[0017] And / or, an outlet control valve is arranged on the collection pipeline.

[0018] In the scheme, the upstream control valve is arranged on the upstream side to adjust the supply amount of the combustible gas at the inlet, the downstream control valve is arranged on the downstream side to adjust the amount of fluid entering the collection pipeline, and the outlet control valve is arranged on the collection pipeline to adjust the outlet supply amount during the combustion process. Multiple control valves are arranged along the flow direction to adjust the supply amount multiple times, so that the combustion experiment can be accurately controlled.

[0019] Preferably, a gas pump is arranged at the inlet of one of the at least two fluid pipelines, the gas pump is located at the bottom of the combustion experiment platform, and the gas pump is communicated with the fluid pipeline through a gas pump valve.

[0020] In this solution, one of the gas pumps is set up as an automatic gas supply source, eliminating the need for gas supply through gas cylinders or other pipelines. It can be used to conduct combustion experiments of gas and air, and is connected to the fluid pipeline through the gas pump valve, which facilitates the adjustment and testing of the gas-air mixing ratio.

[0021] Preferably, the combustion test platform includes two fluid pipelines, the inlets of which are respectively connected to the gas pump and the combustible gas.

[0022] In this scheme, two fluid pipelines are set up. One pipeline can be equipped with an air pump to allow air to participate in the combustion experiment, and the other pipeline can be equipped with a gas cylinder or other pipelines to provide combustible gas to participate in the combustion experiment. Multiple gas sources and types can be used for detection, which improves the functional versatility of the combustion experiment platform.

[0023] Preferably, the combustion test platform includes three fluid pipelines, one of which is used to connect to the gas pump, and the other two are used to connect to different combustible gases.

[0024] In this scheme, three fluid pipelines are set up. One pipeline can be equipped with an air pump to allow air to participate in the combustion experiment, while the other two pipelines can be equipped with gas cylinders or other pipelines to provide different types of combustible gases to participate in the combustion experiment. Multiple gas sources and types can be used for detection, which improves the functional versatility of the combustion experiment platform.

[0025] Preferably, an observation board with graduations is provided behind the exit; and / or, a high-speed camera is provided at the exit for recording.

[0026] In this solution, the shape and size of the flame can be observed during the combustion process by observing the scale on the observation board. In conjunction with a high-speed camera, it is convenient to observe and record the shape of the flame, the burning speed, and other conditions.

[0027] Preferably, a backfire valve is also provided on the manifold, and / or a flame arrester is provided at the outlet control valve.

[0028] In this scheme, a flashback valve is installed to promptly block the flame from propagating backward through the manifold during combustion, thus preventing a safety accident. A flame arrester is installed at the outlet control valve to prevent flashback, effectively preventing flashback from reaching the fluid pipeline.

[0029] Preferably, the combustion test platform includes a frame with a receiving space inside, the at least two fluid pipelines are disposed in the receiving space, and the flow meter is mounted on the bottom of the frame by a bracket;

[0030] The frame includes a panel and a top plate, the outlet passes through the top plate and extends beyond the top plate, the flow indicator and the pressure indicator protrude from the panel, and the observation plate is disposed on the top of the top plate.

[0031] In this design, the fluid piping is housed within the frame's storage space. The frame allows for clearer piping arrangement and a more streamlined flow path. Flow meters are mounted on supports to prevent the weight of the fluid piping from interfering with its operation. The outlet extends beyond the top plate for easy observation of the combustion flame, and the flow and pressure indicators protrude from the panel for convenient data monitoring.

[0032] Preferably, the combustion test platform is used for flame characteristic experiments during the diffusion combustion of single-component gases, wherein one of the at least two fluid lines is used to connect to the combustion gas, the other lines are closed, and the outlet is ignited;

[0033] And / or, the combustion test platform is used for premixed combustion performance tests of fixed-component gases, two or more of the at least two fluid pipelines are supplied with gas simultaneously, the control unit adjusts the fluid ratio, and a premixed burner is provided at the outlet;

[0034] And / or, the combustion test platform is used for burner selection tests, the outlet is connected to the burner to be selected, and the fluid pipeline supplies gas in a single line or multiple lines.

[0035] And / or, the combustion test platform is used for combustion power testing, the outlet is connected to the burner, and the control unit adjusts the flow rate;

[0036] And / or, the combustion test platform is used for gas cylinder capacity selection experiments, and gas is supplied through a single fluid pipeline;

[0037] And / or, the combustion test platform is used for gas cylinder and cylinder valve output test experiments, the gas cylinder is connected to a single fluid pipeline through the cylinder valve, the other pipelines are closed, and the outlet is ignited;

[0038] And / or, the combustion test platform is used for a pressure holding test experiment of a bottle valve, the gas cylinder is connected to the outlet through the bottle valve, the rest of the path is closed, and the gas pump and the fluid pipeline connected to the gas pump are turned on.

[0039] The positive and progressive effects of this utility model are as follows: multiple parallel fluid pipelines are connected to a collection pipeline. Different combustible gases are introduced into the inlet of the fluid pipeline, allowing for testing of various gas usage schemes. The combustion situation can be observed by testing or igniting at the outlet downstream of the collection pipeline. The fluid pipeline is equipped with a control unit and a detection unit, which can control the fluid situation in the fluid pipeline and perform detection, facilitating timely adjustment and data recording, and also avoiding safety hazards. Attached Figure Description

[0040] Figure 1 This is a rear view schematic diagram of the combustion test platform in an embodiment of the present invention;

[0041] Figure 2 This is a front view of the combustion test platform in an embodiment of the present invention.

[0042] Figure 3 This is a schematic diagram of the combustion test platform used in the combustion power determination experiment in this embodiment of the present invention;

[0043] Figure 4 This is a schematic diagram of the combustion test platform used in the gas cylinder and cylinder valve output test experiment in this embodiment of the utility model;

[0044] Figure 5 This is a schematic diagram of a combustion test platform used in the pressure holding test of gas cylinders and cylinder valves in this embodiment of the present invention.

[0045] Explanation of reference numerals in the attached figures:

[0046] Fluid line 1

[0047] Imported 11

[0048] Collection Pipe 2

[0049] Export 21

[0050] Connector 3

[0051] Inspection Department 4

[0052] Flow meter 41

[0053] Flow indicator 42

[0054] Control Panel 421

[0055] Pressure gauge 43

[0056] Additional piping 431

[0057] Temperature detection device 44

[0058] Collection Part 441

[0059] Control Unit 5

[0060] Upstream control valve 51

[0061] Downstream control valve 52

[0062] Outlet control valve 53

[0063] Power Supply 6

[0064] Air pump 7

[0065] Air pump valve 71

[0066] Gas cylinder 8

[0067] Burner 9

[0068] Flame arrester 10

[0069] Top plate 110

[0070] Panel 120

[0071] Observation board 130

[0072] Bracket 140 Detailed Implementation

[0073] The present invention will be further described below by way of embodiments, but the present invention is not limited to the scope of the embodiments.

[0074] In this embodiment, as Figures 1-5 As shown, a combustion test platform is provided, including at least two fluid lines 1 and a collection line 2. The at least two fluid lines 1 are arranged in parallel and are all connected to the collection line 2, and are collected in the collection line 2. An outlet 21 is provided at the downstream end of the collection line 2, and a corresponding inlet 11 is provided at the upstream end of each of the at least two fluid lines 1. Each of the at least two fluid lines 1 is provided with at least one of a control unit 5 and a detection unit 4. At least one of the inlets 11 of the at least two fluid lines 1 is used to enter combustible gas, and the outlet 21 is used to connect to the device to be tested or to be ignited directly.

[0075] Multiple parallel fluid pipelines 1 are connected to a collection pipeline 2. Different combustible gases can be introduced into the inlet 11 of the fluid pipeline 1 to test various gas usage schemes. The combustion situation can be observed by testing or igniting at the outlet 21 downstream of the collection pipeline 2. The fluid pipeline 1 is equipped with a control unit 5 and a detection unit 4 to control the fluid situation in the fluid pipeline 1 and to detect it, so as to facilitate timely adjustment and data recording and avoid safety hazards.

[0076] like Figure 1 As shown, there are two fluid lines 1, which are arranged in parallel and are connected in parallel. They are converged into a collection line 2 via a T-shaped connector 3. Figure 1 As shown, an outlet 21 is provided downstream of the collecting pipe 2. In this embodiment, each line is provided with a detection unit 4 and a control unit 5. The detection unit 4 is used to detect data such as flow rate, pressure or combustion temperature of the fluid pipe 1, and the control unit 5 can control the flow rate in the fluid pipe 1 and adjust the gas supply of the fluid pipe 1.

[0077] The following will provide some specific embodiments of the detection unit 4, but the scope of protection of this disclosure should not be limited to the scope of the following examples. The detection unit 4 includes a flow meter 41 and a flow indicator 42. The flow meter 41 is connected in series within the fluid pipeline 1, and the flow indicator 42 is electrically connected to the flow meter 41. The flow indicator 42 has a data panel 120. The flow meter 41, connected in series with the fluid pipeline 1, detects the flow rate in the fluid pipeline 1, and is electrically connected to the flow indicator 42. The flow rate data can be directly observed through the data panel 120 of the flow indicator 42.

[0078] The detection unit 4 also includes a pressure indicator 43, which is connected to the fluid line 1 via an auxiliary pipe 431. The pressure indicator 43 is connected to the fluid line 1 via the auxiliary pipe 431 to detect the pressure of the fluid line 1 in a timely manner and avoid excessive pressure that could cause safety hazards.

[0079] The detection unit 4 also includes a temperature detection device 44, the collection part 441 of which is fitted onto the downstream end of the collecting pipe 2. The temperature detection device 44 measures the temperature at the bottom and around the flame in real time by fitting the collection part 441 onto the downstream end of the collecting pipe 2. In other possible embodiments, the type of equipment in the detection unit 4 is not specifically limited and can be adjusted according to experimental needs, as long as it does not affect the normal flow within the fluid pipe 1.

[0080] like Figure 1 As shown, preferably, each channel is equipped with a flow meter 41, a pressure indicator 43 and a flow indicator 42.

[0081] Specifically, in this embodiment, the pressure indicator 43 is downstream of the flow meter 41, along the direction of fluid flow. In other possible embodiments, the position of the pressure indicator 43 can be connected according to actual needs.

[0082] In this embodiment, the combustion experiment platform also includes a power supply 6, and the flow indicator 42 and temperature detection device 44 are all electrically connected to the power supply 6. A separate power supply 6 is provided for powering the flow indicator 42 and temperature detection device 44. In other possible embodiments, other power supply methods can also be used, such as directly using the laboratory's power supply 6.

[0083] The following will provide some specific implementations of the control unit 5, but the scope of protection of this disclosure should not be limited to the scope of the following examples. An upstream control valve 51 is provided on the upstream side of the fluid pipeline 1; a downstream control valve 52 is provided on the downstream side of the fluid pipeline 1 and before the collection point; an outlet control valve 53 is provided on the collection pipeline 2. The upstream control valve 51 is provided upstream to regulate the supply of combustible gas at the inlet 11, the downstream control valve 52 is provided downstream to regulate the fluid flow into the collection pipeline 2, and the outlet control valve 53 is provided on the collection pipeline 2 to regulate the gas supply at the outlet 21 during the combustion process. Multiple control valves are provided along the flow direction, allowing for multiple adjustments of the gas supply, thus enabling precise control of the combustion experiment. In other possible embodiments, the number and location of the valves are not specifically limited.

[0084] At least one of the two fluid lines 1 has an air pump 7 installed at its inlet 11. The air pump 7 is located at the bottom of the combustion test platform and is connected to the fluid line 1 via an air pump valve 71. One of the air pumps 7 serves as an automatic gas supply source, eliminating the need for gas cylinders or other pipelines. It can be used for combustion experiments of fuel gas and air, and its connection to the fluid line 1 via the air pump valve 71 facilitates the adjustment and testing of the fuel gas to air mixture ratio.

[0085] like Figures 1-5 As shown, the combustion test platform includes two fluid lines 1, with inlets 11 of the two fluid lines 1 connected to an air pump 7 and a combustible gas, respectively. By setting up two fluid lines 1, one can be connected to the air pump 7 to allow air to participate in the combustion experiment, while the other can be connected to a gas cylinder 8 or other pipelines to provide combustible gas for the combustion experiment. This allows for the use of various gas sources and types for testing, enhancing the functional versatility of the combustion test platform.

[0086] In other embodiments, the combustion test platform includes three fluid lines 1. One inlet 11 of the three fluid lines 1 is used to connect to an air pump 7, and the other two inlets 11 are used to connect to different combustible gases. By setting up three fluid lines 1, one line can be connected to the air pump 7 to allow air to participate in the combustion experiment, while the other two lines can be connected to gas cylinders 8 or other pipelines to provide different types of combustible gases to participate in the combustion experiment. Multiple gas sources and types can be used for testing, such as connecting hydrogen for testing, which improves the functional versatility of the combustion test platform.

[0087] Furthermore, an observation plate 130 with graduations is installed behind the exit 21; a high-speed camera is installed at the exit 21 for recording. Through the graduations on the observation plate 130, the shape and size of the flame during combustion can be observed. In conjunction with the high-speed camera, it is convenient to observe and record the shape of the flame, the combustion speed, and other conditions.

[0088] Specifically, a flashback valve is installed on the manifold 2, and a flame arrester 10 is installed at the outlet control valve 53. The flashback valve is installed to promptly block the flame from propagating backward through the manifold 2 during combustion, thus preventing a safety accident. The flame arrester 10 is installed at the outlet control valve 53 to prevent flashback, effectively preventing flashback from reaching the fluid line 1. In other possible embodiments, other flame arresting devices may also be installed to prevent flashback from occurring in the pipeline during detection.

[0089] In this embodiment, the combustion test platform includes a frame with an internal space. At least two fluid lines 1 are housed within this space. Flow meters 41 are mounted on the bottom of the frame via brackets 140, and multiple flow meters 41 are spaced apart in the height direction. The frame includes a panel 120 and a top plate 110. An outlet 21 passes through and extends beyond the top plate 110. Flow indicators 42 and pressure indicators 43 protrude from the panel 120, and an observation plate 130 is located on the top of the top plate 110. By placing the fluid lines 1 within the internal space of the frame, the flow path of the fluid lines 1 can be arranged more clearly. The support 140 prevents the flow meters 1 from being affected by excessive weight. The outlet 21 protruding from the top plate 110 facilitates observation of the combustion flame, and the flow indicators 42 and 43 protruding from the panel 120 facilitate observation of the test data.

[0090] The combustion test platform provided in this embodiment can be used for research on various combustion experiments. Some feasible forms of combustion experiments are provided below.

[0091] The combustion experimental platform is used for flame characteristic experiments during the diffusion combustion of single-component gases. At least one of the two fluid pipelines 1 is used to connect the combustion gas, while the other pipelines are closed, and the outlet 21 is ignited. By observation and image measurement, information such as flame shape, color, and combustion speed under different flow and pressure conditions can be obtained.

[0092] The combustion test platform is used for premixed combustion performance tests of fixed-component gases. Two or more fluid pipelines 1 supply gas simultaneously, the control unit 5 adjusts the fluid ratio, and a premixed burner 9 is installed at the outlet 21. After ignition, the flame characteristics can be observed, and the difference in combustion efficiency can be obtained through a temperature measuring instrument.

[0093] The combustion test platform is used for the selection test of burner 9. The burner 9 to be selected is connected to the outlet 21. The temperature detection device 44 is set at the position. Gas is supplied by a single fluid pipeline or multiple fluid pipelines. After ignition at the outlet 21, the flame is ignited and the flame shape, color, smoke and other conditions are observed.

[0094] The combustion test platform is used for combustion power determination experiments, such as... Figure 3As shown, outlet 21 is connected to burner 9, and control unit 5 makes adjustments to determine the total combustion power through flow rate regulation.

[0095] The combustion test platform is used for the capacity selection experiment of gas cylinder 8. Gas is supplied by a single fluid pipeline 1. The total gas volume is obtained by integrating the flow rate and pressure under the power requirements of burner 9 over time.

[0096] The combustion test platform was used for testing the output of gas cylinder 8 and its valve, such as... Figure 4 As shown, gas cylinder 8 is connected to fluid pipeline 1 through a cylinder valve, the rest of the pipeline is closed, and outlet 21 is ignited. It is possible to observe whether the output gas pressure, flow rate and flame shape meet the design requirements.

[0097] The combustion test platform is used in pressure holding tests of bottle neck valves, such as... Figure 5 As shown, gas cylinder 8 is connected to outlet 21 via a cylinder valve, and the rest of the circuit is closed. The air pump 7 and the fluid line 1 connected to the air pump 7 are turned on. After the air pressure stabilizes, the upstream valve of the input air line is closed, while the downstream valve and outlet 21 valve remain open. The change in the pressure gauge of this circuit can be used to reflect whether the installation of gas cylinder 8 and the valve of gas cylinder 8 is sealed.

[0098] While specific embodiments of this utility model have been described above, those skilled in the art should understand that these are merely illustrative examples, and the scope of protection of this utility model is defined by the appended claims. Those skilled in the art can make various changes or modifications to these embodiments without departing from the principles and essence of this utility model, but all such changes and modifications fall within the scope of protection of this utility model.

Claims

1. A combustion test platform, characterized by, The combustion experiment platform comprises at least two fluid pipelines and a collecting pipeline, the at least two fluid pipelines are arranged in parallel between each other, are communicated with the collecting pipeline and are collected in the collecting pipeline; a downstream end of the collecting pipeline is provided with an outlet, and upstream first ends of the at least two fluid pipelines are respectively provided with corresponding inlets; Each of the at least two fluid pipelines is provided with at least one of a control part and a detection part, at least one of the inlets of the at least two fluid pipelines is used for entering combustible gas, and the outlet is used for being connected with a to-be-detected device or being directly ignited.

2. The combustion experiment platform of claim 1, wherein, The detection part comprises a flowmeter and a flow indicator, the flowmeter is connected in series to the fluid pipeline, the flow indicator is electrically connected with the flowmeter, and the flow indicator has a data panel; And / or, the detection part further comprises a pressure indicator, and the pressure indicator is communicated to the fluid pipeline through an additional pipeline; And / or, the detection part further comprises a temperature detection device, and a collecting part of the temperature detection device is sleeved on the downstream end of the collecting pipeline.

3. The combustion test platform of claim 2, wherein, Along the direction of fluid flow, the pressure indicator is downstream of the flowmeter.

4. The combustion test platform of claim 2, wherein, The combustion experiment platform further comprises a power supply, and the flow indicator and the temperature detection device are electrically connected with the power supply.

5. The combustion experiment platform of claim 1, wherein, An upstream control valve is arranged on the upstream side of the fluid pipeline; And / or, a downstream control valve is arranged on the downstream side of the fluid pipeline and before collection; And / or, an outlet control valve is arranged on the collecting pipeline.

6. The combustion experiment platform of claim 1, wherein, An inlet of one of the at least two fluid pipelines is provided with an air pump, the air pump is located at the bottom of the combustion experiment platform, and the air pump is communicated with the fluid pipeline through an air pump valve.

7. The combustion test platform of claim 6, wherein, The combustion experiment platform comprises two fluid pipelines, and the inlets of the two fluid pipelines are respectively connected with the air pump and the combustible gas.

8. The combustion test platform of claim 6, wherein, The combustion experiment platform comprises three fluid pipelines, one of the inlets of the three fluid pipelines is used for connecting the air pump, and the other two inlets are used for connecting different combustible gases.

9. The combustion experiment platform of claim 2, wherein, A viewing plate is arranged behind the outlet, and a scale is arranged on the viewing plate; and / or, a high-speed camera is arranged at the outlet.

10. The combustion test platform of claim 5, wherein, A tempering valve is further arranged on the collecting pipeline, and / or a flame arrestor is arranged at the outlet control valve.

11. The combustion test platform of claim 9, wherein, The combustion experiment platform comprises a frame, the frame has a containing space, the at least two fluid pipelines are arranged in the containing space, the flowmeter is arranged on the bottom of the frame through a support; The frame comprises a panel and a top plate, the outlet penetrates through the top plate and extends out of the top plate, the flow indicator and the pressure indicator are exposed to the panel, and the viewing plate is arranged on the top of the top plate.

12. The combustion test platform of claim 6, wherein, The combustion experiment platform is applied to flame characteristic experiment of single-component gas diffusion combustion, one of the at least two fluid pipelines is used for connecting with combustion gas, and the other pipelines are closed, and the outlet is ignited; And / or, the combustion experiment platform is applied to premixed combustion performance experiment of fixed-component gas, two or more of the at least two fluid pipelines are simultaneously supplied with gas, the control part adjusts the proportion of fluid, and a premixed combustor is arranged at the outlet. And / or, the combustion experiment platform is applied to a burner selection experiment, the outlet is connected to a selected burner, and single-path fluid pipeline gas supply or multi-path fluid pipeline gas supply is used; And / or, the combustion experiment platform is applied to a combustion power setting experiment, the outlet is connected to a burner, and the control unit adjusts the flow rate; And / or, the combustion experiment platform is applied to a gas cylinder capacity selection experiment, single-path fluid pipeline gas supply is used; And / or, the combustion experiment platform is applied to a gas cylinder and bottle valve output test experiment, the gas cylinder is connected to single-path fluid pipeline through a bottle valve, the rest paths are closed, and the outlet is ignited; And / or, the combustion experiment platform is applied to a bottle valve pressure maintaining test experiment, the gas cylinder is connected to the outlet through a bottle valve, the rest paths are closed, the gas pump and the fluid pipeline connected to the gas pump are opened.

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