A device for sliding arc plasma-assisted diesel reforming

Abstract

The present invention relates to the field of energy technologies, and more specifically to a reforming device for sliding arc plasma-assisted diesel reforming, which includes an arc plasma torch and a reforming reaction mechanism connected to the arc plasma torch. The arc plasma torch is used to generate a non-thermal arc plasma for treating diesel, and the reforming reaction chamber is used for the feeding and reforming of diesel. The present invention discloses a reforming device for sliding arc plasma-assisted diesel reforming. The reforming device disclosed by the present invention can enable diesel to undergo cracking in an environment of non-equilibrium plasma with high temperature and high chemical activity, and perform partial oxidation reforming and steam reforming reactions, while releasing heat to form a high-temperature region in the reforming reaction chamber. The cracking products and reforming products further stay in the secondary reaction chamber through the inner conduit to undergo secondary cracking and reforming, thereby realizing high-conversion reforming of diesel to produce hydrogen.

Description

Technical Field

[0001] The present invention relates to the technical field of energy, and specifically to a device for sliding arc plasma-assisted diesel reforming. Background Art

[0002] Hydrogen energy is a clean energy source and is expected to become the backbone energy source of future society. In recent years, hydrogen energy has begun to be applied in multiple industries such as the automotive industry, energy power generation, and aerospace, such as hydrogen-diesel engines, fuel cells, etc.

[0003] The application of hydrogen energy largely depends on the development status of hydrogen production, transportation, and storage technologies. Issues such as safety and cost are restricting the further expansion of the application of hydrogen energy.

[0004] Therefore, countries around the world have begun to research hydrocarbon fuel reforming technologies to support the safe application of hydrogen energy in small and medium-sized, decentralized scenarios.

[0005] Traditional diesel reforming technologies mainly rely on catalytic reforming. This technology is relatively mature but still has inherent defects, such as high catalyst preparation costs and easy deactivation. Plasma is the fourth state of matter, with the characteristics of high temperature and high chemical activity, and has certain catalytic ability, which is a hot topic in current fuel reforming technology research.

[0006] Existing plasma reforming devices are mostly for alcohol fuels. When applied to heavy hydrocarbon fuels such as diesel, the conversion rate is relatively low. When the diesel flow rate is large, it is difficult to ensure the reliable operation of the reforming process, and it is difficult to miniaturize the device.

[0007] Therefore, there is an urgent need to provide a non-thermal arc plasma reforming diesel device and a method for improving the fuel conversion rate. Summary of the Invention

[0008] The object of the present invention is to provide a non-thermal sliding arc plasma reforming diesel device.

[0009] In order to achieve the above object, the technical solution adopted by the present invention is as follows:

[0010] A device for sliding arc plasma-assisted diesel reforming, comprising an arc plasma torch and a reforming reaction mechanism connected to the arc plasma torch. The reforming reaction mechanism includes a reforming reaction chamber. The upper end of the arc plasma torch extends into the reforming reaction chamber. The arc plasma torch is used to generate non-thermal arc plasma for treating diesel, and the reforming reaction chamber is used for the feeding and reforming of diesel.

[0011] The arc plasma torch includes a housing assembly, and an electrode assembly is arranged inside the housing assembly;

[0012] The housing assembly includes a connecting housing; an air discharge nozzle is provided on the connecting housing;

[0013] The electrode assembly includes a high-voltage electrode, and the high-voltage electrode is connected with an electrode support rod.

[0014] A connecting sleeve is provided at one end of the connecting housing away from the reforming reaction mechanism; the electrode support rod is arranged inside the connecting sleeve.

[0015] An insulating member is provided inside the connecting sleeve; a through hole is provided on the insulating member, and the electrode support rod is arranged through the insulating member through the through hole.

[0016] A fixing sleeve is provided in the through hole of the insulating member, and a wiring terminal is connected to the end of the electrode support rod.

[0017] A limiting sunk groove is provided on the outer side of the insulating member, and the connecting sleeve is embedded in the limiting sunk groove of the insulating member.

[0018] An anode cover is provided at one end of the housing close to the reforming reaction mechanism; a top through hole is provided on the anode cover.

[0019] A fixing nut is provided on the connecting sleeve, and the fixing nut is at the connection between the connecting sleeve and the housing.

[0020] The reforming reaction mechanism includes a primary reaction mechanism and a secondary reaction mechanism;

[0021] The arc plasma torch is connected to the secondary reaction mechanism through the primary reaction mechanism;

[0022] The primary reaction mechanism includes a primary reaction housing, and a primary reaction cavity is formed inside the primary reaction housing and is hollow;

[0023] The secondary reaction mechanism includes a secondary reaction housing, and a secondary reaction cavity is formed inside the secondary reaction housing and is hollow;

[0024] The primary reaction cavity is communicated with the secondary reaction cavity through an inner conduit;

[0025] An air outlet pipe is provided on the secondary reaction housing, and a syngas outlet is provided inside the air outlet pipe; the syngas outlet is communicated with the secondary reaction cavity;

[0026] A feed inlet is provided on the primary reaction housing; the feed inlet is communicated with the primary reaction cavity.

[0027] The primary reaction housing is connected to the secondary reaction housing through an upper flange assembly; the primary reaction housing is connected to the arc plasma torch through a lower flange assembly.

[0028] The advantages of the present invention are as follows:

[0029] The present invention discloses a reforming device for sliding arc plasma-assisted diesel reforming; the reforming device disclosed by the present invention can enable diesel to crack in an environment of non-equilibrium plasma with high temperature and high chemical activity, and carry out partial oxidation reforming and steam reforming reactions, while releasing heat to form a high-temperature region in the reforming reaction chamber; the cracking products and reforming products further stay in the secondary reaction chamber through the inner conduit to carry out secondary cracking and reforming, so as to realize high-conversion reforming of diesel to produce hydrogen. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] The following briefly describes the content expressed in each drawing of the specification of the present invention and the marks in the drawings:

[0031] Figure 1 It is a schematic structural diagram of the present invention.

[0032] Description of the reference numerals in the drawings:

[0033] 1. Secondary reaction chamber, 2. Syngas outlet, 3. Upper connecting flange; 4. Feed inlet; 5. Inner conduit, 6. Primary reaction chamber, 8. Connecting housing, 9. Discharge gas nozzle, 10. Anode cover, 11. High-voltage electrode, 12. Electrode support rod, 13. Fixing nut, 14. Connecting sleeve, 15. Insulating part, 16. Fixing sleeve, 17. Terminal. SPECIFIC EMBODIMENTS

[0034] The following further describes in detail the specific embodiments of the present invention by describing the optimal embodiments with reference to the drawings.

[0035] A device for sliding arc plasma-assisted diesel reforming includes an arc plasma torch 1-2 and a reforming reaction mechanism 1-1 connected to the arc plasma torch 1-2, and the reforming reaction mechanism 1-1 includes a reforming reaction chamber; the arc plasma torch 1-2 extends into the reforming reaction chamber; the arc plasma torch 1-2 is used to generate non-thermal arc plasma for treating diesel, and the reforming reaction chamber is used for feeding and reforming diesel; the present invention discloses a device for sliding arc plasma-assisted diesel reforming; the reforming device disclosed by the present invention can enable diesel to crack in an environment of non-equilibrium plasma with high temperature and high chemical activity, and carry out partial oxidation reforming and steam reforming reactions.

[0036] The reforming device disclosed by the present invention mainly provides a place to realize the reforming reaction of diesel.

[0037] The reforming device disclosed in the present invention mainly includes an arc plasma torch 1-2 and a reforming reaction mechanism 1-1. The arc plasma torch 1-2 is used to generate a non-thermal arc plasma for treating diesel, and the reforming reaction chamber is used for the feeding and reforming of diesel. Specifically, the arc plasma torch 1-2 disclosed in the present invention includes a housing assembly, and an electrode assembly is arranged inside the housing assembly. The housing assembly plays a good protective role to avoid the exposure of the electrode assembly, and the setting of the electrode assembly is mainly to form a non-thermal arc plasma, which facilitates the subsequent diesel reforming reaction. In addition, in the present invention, the housing assembly includes a connecting housing 8, and a discharge gas nozzle 9 is provided on the connecting housing 8. The connecting housing 8 is a cylindrical structure, which is convenient for the subsequent placement and arrangement of the electrode assembly and other subsequent components. At the same time, the electrode assembly is arranged inside the connecting housing 8 and includes a high-voltage electrode 11, and the high-voltage electrode 11 is connected with an electrode support rod 12. The high-voltage electrode 11 is connected with the electrode support rod 12. After the high-voltage electrode 11 is energized, an arc is generated at the minimum gap between the high-voltage electrode 11 and the upper end face of the anode cover. Then the arc is blown by the discharge gas, lengthened and rotated rapidly to form a plasma region. During subsequent use, the non-thermal arc plasma provides reforming energy for diesel. In addition, in the present invention, the reforming reaction mechanism 1-1 includes a primary reaction mechanism and a secondary reaction mechanism. By setting two reaction mechanisms, the primary cracking products and reforming products can stay further in the secondary reaction chamber 1 to carry out secondary cracking and reforming, so as to realize the high-conversion reforming of diesel to produce hydrogen.

[0038] Specifically, in the present invention, the arc plasma torch 1-2 is connected to the secondary reaction mechanism through the primary reaction mechanism. Such a setting facilitates the high-voltage electrode 11 in the arc plasma torch 1-2 to extend into the primary reaction chamber 6, which is convenient for diesel to crack in the environment of non-equilibrium plasma with high temperature and high chemical activity, and to carry out partial oxidation reforming and steam reforming reactions. In addition, in the present invention, the primary reaction mechanism includes a primary reaction housing, and the inside of the primary reaction housing is hollow to form a primary reaction chamber 6. The secondary reaction mechanism includes a secondary reaction housing, and the inside of the secondary reaction housing is hollow to form a secondary reaction chamber 1. Such a setting can better realize the above two cracking and reforming reactions.

[0039] At the same time, in the present invention, the primary reaction chamber 6 is communicated with the secondary reaction chamber 1 through an inner conduit 5. The inner conduit 5 plays a good connecting role, which is convenient for the cracking products and reforming products generated by diesel in the primary reaction chamber 6 to enter the secondary reaction chamber 1 through the inner conduit 5.

[0040] At the same time, in the present invention, an air outlet pipe is provided on the secondary reaction housing, and a syngas outlet 2 is arranged inside the air outlet pipe. The syngas outlet 2 is communicated with the secondary reaction chamber 1. The setting of the air outlet pipe facilitates the external discharge of syngas.

[0041] Meanwhile, in the present invention, a feed inlet 4 is provided on the primary reaction housing; the feed inlet 4 is in communication with the primary reaction chamber 6; the provision of the feed inlet 4 facilitates the subsequent feeding of materials.

[0042] Furthermore, in the present invention, a connecting sleeve 14 is provided at one end of the connecting housing 8 away from the reforming reaction mechanism 1-1; the electrode support rod 12 is arranged inside the connecting sleeve 14; the provision of the connecting sleeve 14 facilitates the subsequent arrangement of the insulating member 15. At the same time, an external thread is provided on the outside of the connecting sleeve 14. The connecting sleeve 14 is arranged below the connecting housing 8, and a through hole is provided below the connecting housing 8. The connecting sleeve 14 acts as a plugging member. One function is to help ensure the sealing performance at the lower end of the connecting housing 8; at the same time, the connecting sleeve 14 also acts as a connecting member, facilitating the arrangement of the insulating member 15 and other components.

[0043] Furthermore, in the present invention, an insulating member 15 is provided inside the connecting sleeve 14; the insulating member 15 is provided with a through hole, and the electrode support rod 12 passes through the insulating member 15 through the through hole; through the provision of the insulating member 15 in the present invention, a good isolation and protection effect is achieved. During specific implementation, the insulating member 15 is wrapped around the outside of the electrode support rod 12; in the present invention, the insulating member 15 is made of alumina ceramic material.

[0044] Furthermore, in the present invention, a fixing sleeve 16 is provided in the through hole of the insulating member 15, and a terminal post 17 is connected to the end of the electrode support rod 12; the provision of the fixing sleeve 16 plays a good role in end fixing, facilitating the end limit and fixing of the electrode support rod.

[0045] Furthermore, in the present invention, a limiting sink is provided on the outside of the insulating member 15, and the connecting sleeve 14 is embedded in the limiting sink of the insulating member 15; such a setting facilitates the connection between the insulating member 15 and the connecting sleeve 14. At the same time, an external thread is provided on the outside of the connecting sleeve 14 in the present invention, facilitating the subsequent connection between the connecting sleeve 14 and the insulating member 15 and the housing.

[0046] Furthermore, in the present invention, an anode cover 10 is provided at one end of the housing close to the reforming reaction mechanism 1-1; the anode cover 10 is provided with a top through hole; through the provision of the anode cover 10 in the present invention, a good end limiting effect is achieved. At the same time, the provision of the top through hole facilitates the high-voltage electrode 11 to pass through the anode cover 10 and communicate with the reforming reaction chamber.

[0047] Furthermore, in the present invention, a fixing nut 13 is provided on the connecting sleeve 14, and the fixing nut 13 is at the connection between the connecting sleeve 14 and the housing; through the provision of the fixing nut 13 in the present invention, a good locking and fixing effect is achieved, ensuring the connection between the connecting sleeve 14 and the housing.

[0048] Further, in the present invention, the primary reaction shell and the secondary reaction shell are connected through an upper flange assembly; the primary reaction shell is connected to the arc plasma torch 1-2 through a lower flange assembly 7. Through the arrangement of the upper flange assembly and the lower flange assembly 7, the connection between the primary reaction shell and the secondary reaction shell is facilitated, and the connection between the primary reaction shell and the connection shell 8 is also facilitated.

[0049] Specifically:

[0050] The present invention discloses a reforming device for sliding arc plasma-assisted diesel reforming, which mainly includes a sliding arc plasma torch and a reforming reaction chamber connected to the plasma torch. The plasma torch is used to generate a rotating sliding arc plasma for assisting diesel cracking and reforming, and the reforming reaction chamber is used for the feeding and reforming of reactants such as fuel.

[0051] The plasma torch includes a connection shell 8, a discharge gas nozzle 9, an anode cap 10, a high-voltage electrode 11, an electrode support rod 12, a fixing nut 13, a connection sleeve 14, an insulating part 15, a fixing sleeve 16, and a terminal 17; among them,

[0052] The overall shell is composed of two hollow cylinders with different inner diameters welded together. There are threads inside the small-inner-diameter cylinder for the adjustment and fixation of the electrode support rod 12 component; the high-voltage electrode 11 is screwed tightly with the head of the electrode support rod 12 through threads; the outside of the electrode support rod 12 is wrapped with a ceramic material, that is, the insulating part 15; the anode cap 10 is placed on the upper end of the high-voltage electrode 11, maintaining a certain gap with the high-voltage electrode 11 and contacting the shell; there are threads on the outer walls of the fixing sleeve 16 and the connection sleeve 14; the tail of the electrode support rod 12 is connected to the terminal 17, and the terminal 17 is connected to a high-voltage power supply.

[0053] An air discharge nozzle 9 is provided on the side wall of the upper cylinder of the shell, and the circular cross-section of the nozzle is perpendicular to and tangent to the cylindrical surface of the shell.

[0054] The center of the anode cap 10 has an opening with an inner diameter of not less than 10 mm, and it contacts the top end of the plasma torch shell and extends into the reforming cavity; the above opening is the top through hole.

[0055] The top of the high-voltage electrode 11 is in the shape of a frustum of a cone, and the tooth-shaped structure is used for heat dissipation; during use, the high-voltage electrode 11 does not contact the anode cap 10, and at the closest distance, the gap between the two is not less than 1 mm.

[0056] The insulating part 15 is made of alumina ceramic material, and the overall structure is a cylindrical shape with an outer diameter larger at both ends than in the middle, and it is coaxial with the high-voltage electrode 11, the anode cap 10, and the shell.

[0057] The middle concave part of the insulating part 15 is brazed and fixed to the connecting sleeve 14, and the inner through hole has the same diameter as the electrode support rod 12; the insulating part 15 of the present invention is provided with a limiting sunk groove, and the connecting sleeve 14 is embedded in the limiting sunk groove.

[0058] The metal fixing sleeve 16 is a cylindrical tube with a T-shaped cross-section, which is embedded in the lower part of the insulating part 15, contacts the support rod, and is fixed by tightening with a nut; the terminal 17, that is, the tail of the electrode support rod 12, is tightened with the wire of the high-voltage power supply through nuts, gaskets, etc.

[0059] The fixing nut 13 is a ring structure with internal threads. After the overall assembly of the plasma torch is completed, the fixing nut 13 is rotated to the edge where the connecting sleeve 14 contacts the outer shell and tightened to fix the position of the high-voltage electrode 11.

[0060] The reforming reaction chamber includes a reforming secondary reaction chamber 1, a synthesis gas outlet 2, a connecting flange, a feed inlet 4, an inner conduit 5, and a reforming primary reaction chamber 6; among them, the reforming primary reaction chamber 6, the reforming secondary reaction chamber 1, and the plasma torch are all sealed and connected using knife-edge flanges; a part of the inner conduit 5 is located in the reforming primary reaction chamber 6, and a part is located in the reforming secondary reaction chamber 1, and is fixed to the connecting flange 3 on the cavity body.

[0061] The synthesis gas outlet 2 is located near the upper connecting flange 3 of the reforming secondary reaction chamber 1; the feed inlet 4 is located at the upper part of the reforming primary reaction chamber 6, near the upper connecting flange 3 of the secondary reaction chamber 1, and is a pair of centrally symmetric pipe orifices with a diameter of 6 - 10 mm.

[0062] The pipe orifice position of the inner conduit 5 in the reforming secondary reaction chamber 1 is higher than the synthesis gas outlet 2, and at the same time, its position in the reforming primary reaction chamber 6 is lower than the feed inlet 4; the inner surface of the feed inlet 4 is vertically tangent to the outer surface of the reforming primary reaction chamber 6, and the inner conduit 5, the reforming primary reaction chamber 6, the reforming secondary reaction chamber 1, and the high-voltage electrode 11 are coaxial.

[0063] The present invention provides a device for assisting diesel reforming. The device includes a sliding arc plasma torch and a reforming reaction chamber connected to the plasma torch. The plasma torch is used to generate a rotating sliding arc plasma for assisting diesel cracking and reforming, and the reforming reaction chamber is used for feeding reactants such as fuel, air, and water, and is the main place where the reaction occurs.

[0064] Connect the rotating sliding arc plasma torch to the reforming reaction chamber, and utilize the generated rotating sliding arc non-thermal plasma to feed and reform diesel inside the chamber. In this way, diesel undergoes cracking in the environment of non-equilibrium plasma with high temperature and high chemical activity, and partial oxidation reforming and steam reforming reactions occur, while releasing heat to form a high-temperature region in the reforming reaction chamber; the cracking products and reforming products further stay in the secondary reaction chamber 1 through the inner conduit 5 for secondary cracking and reforming, thereby realizing high-conversion reforming of diesel to produce hydrogen.

[0065] The connecting housing 8 is integrally formed by welding two hollow cylinders with different inner diameters. There are threads inside the lower cylinder with a smaller inner diameter for the adjustment and fixation of the electrode support rod 12 component; the high-voltage electrode 11 is screwed tightly to the head of the electrode support rod 12 through threads; the outside of the electrode support rod 12 is wrapped with ceramic material, that is, the insulating part 15, which is insulated from the outer shell; the anode cover 10 is placed at the upper end of the high-voltage electrode 11, maintaining a certain gap with the high-voltage electrode 11 and contacting the outer shell; the outer wall of the connecting sleeve 14 has threads for mating and fixing with the outer shell; the tail of the electrode support rod 12 is connected to the terminal 17, and the terminal 17 is connected to the high-voltage power supply to generate a rotating sliding arc.

[0066] The top of the high-voltage electrode 11 is in the shape of a frustum of a cone, and the lower tooth-shaped structure is used for heat dissipation.

[0067] During the design and installation process, the high-voltage electrode 11 and the anode cover 10 cannot be in contact, and at the closest distance, the gap between the two is not less than 1 mm to ensure normal discharge and the generated arc rotates in the reforming chamber with a certain height.

[0068] The middle concave part of the insulating part 15 is fixed by brazing with the sleeve, and the inner through hole has the same diameter as the electrode support rod 12 for the electrode support rod 12 to pass through.

[0069] The terminal 17, that is, the tail of the electrode support rod 12, is pressed tightly against the wire of the high-voltage power supply through nuts, washers, etc.

[0070] The syngas outlet 2 is located near the connecting flange of the reforming secondary reaction chamber 1; the feed port 4 is located at the upper part of the reforming primary reaction chamber 61, near the connecting flange with the secondary chamber, and is a pair of centrally symmetric pipe orifices with a diameter of 6 - 10 mm;

[0071] The pipe orifice position of the inner conduit 5 in the reforming secondary reaction chamber 1 needs to be higher than the outlet to ensure that the reactants have sufficient residence time in the chamber to fully react; at the same time, the position of the inner conduit 5 in the reforming primary reaction chamber 6 is lower than the feed port 4 to ensure that the reactants pass through the plasma region.

[0072] The inner surface of the feed inlet 4 is vertically tangent to the outer surface of the primary reforming reaction chamber 6, and the inner conduit 5, the primary reforming reaction chamber 6, and the secondary reforming reaction chamber 1, and the high-voltage electrode 11 are coaxial.

[0073] In the design and installation process, in order to obtain better use effects and improve the stability and operation convenience during installation and use, preferably, a syngas outlet 2 can be added according to the cavity pressure and the size of the syngas flow rate. Preferably, a plurality of outlets are arranged in a centrosymmetric structure. At the same time, considering the miniaturization and safety of the overall device, the maximum outer diameter of the sliding arc plasma-assisted diesel reforming device is set to 76 mm, the length is 780 mm, and the cavity wall thickness is not less than 2 mm. Among them, the reforming reaction chamber is set to 290 mm.

[0074] During the actual use process, the gas source is connected to the discharge gas nozzle 9, and the terminal 17 of the sliding arc plasma torch is connected to the high-voltage power supply wire. The diesel gas, water vapor, and air are mixed and then introduced into the cavity through the feed inlet 4.

[0075] During use, the overall device is placed vertically so that the incoming reactant gas flow reaches the periphery of the plasma region under the action of gravity.

[0076] The required reactant flow rate is determined by the diesel processing amount, the oxygen-carbon ratio, and the water-carbon ratio. The oxygen-carbon ratio is usually between 0.5 and 1.5, and the water-carbon ratio is between 1.6 and 2.6. To ensure the stable operation of the plasma, the discharge gas flow rate should be between 15 and 30 L / min, and the remaining gas is the carrier gas, which is mixed with the diesel gas and water vapor and enters the cavity. The products after diesel reforming are discharged from the outlet.

[0077] The reforming device of the present invention can realize the production of hydrogen-rich mixture by applying sliding arc plasma-assisted diesel reforming, avoiding problems such as the need to frequently replace the catalyst, short service life, and uneven reaction of the catalytic reformer, and achieving a high diesel conversion rate without adding any catalyst. The proposed device can withstand the high temperature generated by the reforming reaction, has high safety, can handle a large amount of diesel, and can achieve long-term stable operation.

[0078] The present invention connects the rotating sliding arc plasma torch with the reforming reaction chamber and uses the generated rotating sliding arc non-thermal plasma to feed and reform diesel inside the cavity.

[0079] In this way, diesel undergoes cracking in the environment of non-equilibrium plasma with high temperature and high chemical activity, and partial oxidation reforming and steam reforming reactions occur, while releasing heat to form a high-temperature region in the reforming reaction chamber. The cracking products and reforming products further stay in the secondary reaction chamber 1 through the inner conduit 5 for secondary cracking and reforming, thereby realizing the high-conversion reforming of diesel to produce hydrogen.

[0080] Obviously, the specific implementation of the present invention is not limited by the above-mentioned manner. As long as various non-substantive improvements are made by adopting the method concept and technical solution of the present invention, they are all within the protection scope of the present invention.

Claims

1. A reforming device for sliding arc plasma-assisted diesel reforming, characterized in that, It includes an arc plasma torch and a reforming reaction mechanism connected to the arc plasma torch. The reforming reaction mechanism includes a reforming reaction chamber. The upper end of the arc plasma torch extends into the reforming reaction chamber. The arc plasma torch is used to generate a non-thermoelectric arc plasma for treating diesel, and the reforming reaction chamber is used for the feeding and reforming of diesel. The arc plasma torch includes a housing assembly, and an electrode assembly is arranged inside the housing assembly. The housing assembly includes a connecting housing, and a discharge gas nozzle is provided on the connecting housing. The electrode assembly includes a high-voltage electrode, and the high-voltage electrode is connected with an electrode support rod. An anode cover is provided at one end of the housing close to the reforming reaction mechanism. A top through hole is provided on the anode cover. The anode cover is placed on the upper end of the high-voltage electrode, and there is a gap between the anode cover and the high-voltage electrode. The reforming reaction mechanism includes a primary reaction mechanism and a secondary reaction mechanism. The arc plasma torch is connected to the secondary reaction mechanism through the primary reaction mechanism. The primary reaction mechanism includes a primary reaction housing, and a primary reaction chamber is formed inside the primary reaction housing with a hollow interior. The secondary reaction mechanism includes a secondary reaction housing, and a secondary reaction chamber is formed inside the secondary reaction housing with a hollow interior. The primary reaction chamber is communicated with the second reaction chamber through an inner conduit. An air outlet pipe is provided on the secondary reaction housing, and a syngas outlet is provided inside the air outlet pipe. The syngas outlet is communicated with the secondary reaction chamber. A feed inlet is provided on the primary reaction housing. The feed inlet is communicated with the primary reaction chamber.

2. The reforming device for sliding arc plasma-assisted diesel reforming according to claim 1, wherein, A connecting sleeve is provided at one end of the connecting housing away from the reforming reaction mechanism. The electrode support rod is arranged inside the connecting sleeve.

3. The reforming device for sliding arc plasma-assisted diesel reforming according to claim 2, characterized in that, An insulating member is provided inside the connecting sleeve. A through hole is provided on the insulating member, and the electrode support rod is arranged through the through hole of the insulating member.

4. A reforming device for sliding arc plasma-assisted diesel reforming according to claim 3, characterized in that, A fixing sleeve is provided inside the through hole of the insulating member, and a wiring terminal is connected to the end of the electrode support rod.

5. A reforming device for sliding arc plasma-assisted diesel reforming according to claim 3, characterized in that, A limiting sunk groove is provided on the outer side of the insulating member, and the connecting sleeve is embedded in the limiting sunk groove of the insulating member.

6. The reforming device for sliding arc plasma-assisted diesel reforming according to claim 2, characterized in that, A fixing nut is provided on the connecting sleeve, and the fixing nut is located at the connection between the connecting sleeve and the housing.

7. A reforming device for sliding arc plasma-assisted diesel reforming according to claim 1, characterized in that, The primary reaction housing and the secondary reaction housing are connected through an upper flange assembly. The primary reaction housing is connected to the arc plasma torch through a lower flange assembly.

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