Energy storage fire-fighting nozzle and method of manufacturing the same

Abstract

The application discloses an energy storage fire-fighting nozzle and a manufacturing method thereof, and belongs to the technical field of fire-fighting equipment. The manufacturing method of the energy storage fire-fighting nozzle comprises the following steps: step 1, integrally forming a connecting base and a mounting base by casting, and removing burrs and polishing the surface; step 2, fixing the connecting base, drilling a mist chamber, turning over by 180 degrees, drilling a liquid inlet channel communicated with the mist chamber, and expanding the liquid inlet channel wall near the mist chamber; step 3, drilling a threaded hole on the mounting base, setting an internal thread on the mist chamber wall, and setting an external thread on the side end of the connecting base near the top end; step 4, selecting a profile, treating the surface, drilling a side mounting hole and a center mounting hole, and forming a pack panel; step 5, mounting a nozzle rotating flow core on a nozzle body, sequentially assembling a pressure relief head, a reset spring and the nozzle body into the mist chamber, and paying attention to that the pressure relief head is centrally arranged on the expansion; and step 6, sequentially assembling a buffer rubber pad, the pack panel and a mounting pressing plate from the bottom end of the mounting base, and tightening a hexagonal nut.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of nozzles, in particular to a nozzle for energy storage fire fighting and a manufacturing method thereof. BACKGROUND

[0002] At present, under the background of rapid development of renewable energy, electrochemical energy storage has ushered in rapid development globally. Many countries are accelerating the pace of building electrochemical energy storage power stations. However, the shortcomings of lithium batteries themselves have brought considerable safety risks to these energy storage power stations. Generally speaking, the safety problem of lithium ion batteries is the combustion or even explosion caused by battery thermal runaway. In order to ensure the safe and healthy rapid development of electrochemical energy storage and eliminate the safety hazards of electrochemical energy storage, it is necessary to vigorously develop and popularize energy storage fire fighting related technologies.

[0003] Energy storage fire fighting includes system fire prevention and rapid fire response. System fire prevention includes fire prevention design, efficient heat management, early warning and intervention of thermal runaway. The rapid fire response mechanism includes rapid fire extinguishing and ignition point isolation. For rapid fire extinguishing, Chinese patent CN211962898U discloses a one-way fire extinguishing nozzle for a lithium battery box, which comprises a fixing member and a nozzle mechanism mounted on the fixing member, and further comprises a pressure spring and a hydraulic control one-way valve. The pressure spring is sleeved on the hydraulic control one-way valve and installed in the cavity of the nozzle mechanism. The hydraulic control one-way valve is installed in the center channel of the nozzle, which can realize one-way flow of liquid. When the liquid extinguishing agent is used up, the fire extinguishing nozzle can be reused without replacement, and the structure is simple and the installation is convenient. However, in order to achieve faster fire extinguishing, the maximum area of the liquid extinguishing agent needs to cover the fire area to achieve the purpose of rapid fire extinguishing. SUMMARY

[0004] In order to achieve the above purpose, the present application discloses a nozzle for energy storage fire fighting, which comprises a connecting base, and further comprises an atomizing chamber and a liquid inlet channel. The atomizing chamber is in an open type at the bottom end of the connecting base. The liquid inlet channel is opened at the top end of the connecting base and is communicated with the atomizing chamber. The nozzle body is communicated and installed in the atomizing chamber. The one-way sealing assembly is located in the atomizing chamber and is arranged between the nozzle body and the liquid inlet channel.

[0005] Preferably, the inner wall of the atomizing chamber is provided with an internal thread matched with the connection of the nozzle body. An external thread is provided at the position close to the top end of the side end of the connecting base.

[0006] Preferably, the side end of the connecting base is integrally formed with a mounting base. The mounting pressure plate is installed at the bottom end of the mounting base through hexagonal nuts. Four hexagonal nuts are arrayed on the mounting base. A central through hole is provided at the center position of the mounting pressure plate for the bottom end of the connecting base to pass through. The buffer rubber pad is clamped between the mounting base and the mounting pressure plate.

[0007] Preferably, a pack panel is further arranged between the buffer rubber pad and the mounting plate, and the pack panel is provided with a side mounting hole for passing a hexagonal nut and a center mounting hole for passing a connecting base bottom end.

[0008] Preferably, the one-way sealing assembly comprises:

[0009] The pressure relief head is arranged on the flared portion of the inner wall of the liquid inlet channel near the atomizing chamber;

[0010] The reset spring is connected between the pressure relief head and the nozzle body.

[0011] The application further discloses a manufacturing method of the energy storage fire-fighting nozzle.

[0012] Step 1: integrally forming the connecting base and the mounting base in a casting mold, and then deburring and polishing the surface;

[0013] Step 2: fixing the connecting base, drilling the atomizing chamber, then turning over by 180 degrees, drilling the liquid inlet channel connected to the atomizing chamber, and flaring the inner wall of the liquid inlet channel near the atomizing chamber;

[0014] Step 3: drilling a threaded hole on the mounting base, setting an internal thread on the inner wall of the atomizing chamber, and setting an external thread on the side end of the connecting base near the top end;

[0015] Step 4: selecting a profiled material, treating the surface, drilling a side mounting hole and a center mounting hole, and forming a pack panel;

[0016] Step 5: mounting the nozzle rotating core on the nozzle body, sequentially assembling the pressure relief head, the reset spring and the nozzle body from the bottom end of the connecting base to the atomizing chamber, and paying attention to that the pressure relief head is arranged on the flared portion;

[0017] Step 6: sequentially assembling the buffer rubber pad, the pack panel and the mounting plate from the bottom end of the mounting base, and tightening the hexagonal nut.

[0018] Preferably, in step 2, the flared portion unit is used to flare the inner wall of the liquid inlet channel near the atomizing chamber, and the flared portion unit comprises: a lifting assembly and a flared portion assembly arranged on the bottom end of the lifting assembly, and the flared portion assembly comprises:

[0019] The cylinder body is arranged on the lifting assembly, the bottom end of the cylinder body is arranged in an open manner, and the outer air outlets are uniformly arranged on the surface of the cylinder body.

[0020] An upper rotating disc and a lower rotating disc are installed in the cylinder, and a limiting ring for limiting the upper rotating disc and the lower rotating disc is installed at the top and the bottom of the cylinder respectively;

[0021] A vertical pipe is installed between the upper rotating disc and the lower rotating disc;

[0022] A grinding block assembly is installed on the vertical pipe in a lifting manner.

[0023] Preferably, the flaring assembly further comprises:

[0024] An outer gear ring is installed on the upper rotating disc;

[0025] A driving motor is installed at the top of the cylinder, and a rotating gear engaging with the outer gear ring is installed at the output end of the driving motor.

[0026] Preferably, the grinding block assembly comprises:

[0027] A magnetic slider is slidingly connected in the vertical pipe;

[0028] An outer magnetic ring is sleeved on the vertical pipe, and the outer magnetic ring is adapted to the magnetic slider;

[0029] L-shaped air outlet pipes are installed on the vertical pipe through one-way valves, and the two L-shaped air outlet pipes are centrally symmetrically arranged, and the L-shaped air outlet pipes are uniformly provided with inner air outlets on the surfaces;

[0030] Grinding blocks are arranged near the bottom of the cylinder, and two connecting arms are symmetrically arranged through the vertical pipe and the lower rotating disc, and the connecting arms are connected between the grinding blocks and the outer magnetic rings.

[0031] Pull rope assemblies are installed on the upper rotating disc and the lower rotating disc respectively, and the limiting ring is provided with a C-shaped gear ring for driving the pull rope assemblies to work.

[0032] Preferably, the pull rope assembly comprises:

[0033] Support frames are installed on the upper rotating disc and the lower rotating disc respectively;

[0034] Guide wheels are installed on the support frames;

[0035] A rope wheel and a transmission gear are coaxially installed on the support frame, and the transmission gear engages with the C-shaped gear ring.

[0036] Pull ropes are connected with the magnetic sliders at one end and are wound on the rope wheel after passing through the guide wheels at the other end. BRIEF DESCRIPTION OF DRAWINGS

[0037] In order to more clearly illustrate the technical solutions in the specific embodiments of the present application or the prior art, the accompanying drawings needed to be used in the description of the specific embodiments or the prior art will be briefly introduced. Obviously, the accompanying drawings in the following description are some embodiments of the present application, and other drawings can be obtained by those skilled in the art without any creative effort on the basis of these drawings.

[0038] Figure 1 A nozzle sectional view of the present application;

[0039] Figure 2 A nozzle profile view of the present application;

[0040] Figure 3 A pack panel profile view of the present application;

[0041] Figure 4 A manufacturing method flowchart of the nozzle of the present application;

[0042] Figure 5 A flared assembly structure schematic view of the present application;

[0043] Figure 6 A Figure 5 A enlarged view of the reference sign A;

[0044] Figure 7 A flared assembly sectional view of the present application Figure 2 ;

[0045] Figure 8 A standpipe sectional view of the present application;

[0046] Figure 9 A pull rope assembly structure schematic view of the present application.

[0047] In the drawings: 10. Connecting base; 11. Atomization chamber; 12. Liquid inlet channel; 13. Nozzle body; 14. Nozzle rotating flow core; 15. One-way sealing assembly; 16. Internal thread; 17. Mounting external thread; 18. Mounting base; 19. Mounting pressing plate; 21. Hexagonal nut; 22. Buffer rubber pad; 23. Pack panel; 24. Side mounting hole; 25. Center mounting hole; 26. Pressure relief head; 27. Flared portion; 28. Reset spring; 29. Lifting assembly; 20. Flared assembly; 31. Cylinder body; 32. Upper turntable; 33. Lower turntable; 34. Limiting ring; 35. Standpipe; 36. Driving motor; 37. Rotating gear; 38. Magnetic sliding block; 39. Outer magnetic ring; 30. L-shaped air outlet pipe; 41. One-way valve one; 42. Connecting arm; 43. C-shaped gear ring; 44. Support frame; 45. Guide wheel; 46. Rope wheel; 47. Transmission gear; 48. Pull rope; 49. Grinding block; 40. One-way air supplement valve. DETAILED DESCRIPTION

[0048] The technical solution of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the embodiments described are only some embodiments of the present invention, not all embodiments. All other embodiments obtained by ordinary technicians in this field based on the embodiments of the present invention without making any creative efforts shall fall within the scope of protection of the present invention.

[0049] Example

[0050] The present invention will be further described below with reference to the accompanying drawings.

[0051] like Figures 1 to 3 As shown, the present embodiment provides a nozzle for energy storage fire fighting, comprising a connecting base 10, and also comprising: an atomizing chamber 11 and a liquid inlet channel 12, wherein the atomizing chamber 11 is open and located at the bottom end of the connecting base 10, and the liquid inlet channel 12 is opened at the top end of the connecting base 10 and is connected to the atomizing chamber 11, the nozzle body 13 is connected and installed in the atomizing chamber 11, the nozzle swirl core 14 is installed in the nozzle body 13, and the one-way sealing component 15 is located in the atomizing chamber 11 and is arranged between the nozzle body 13 and the liquid inlet channel 12.

[0052] The working principle and beneficial effects of the above technical solution are:

[0053] The present invention discloses a nozzle for energy storage fire fighting. When a fire is detected, the valve opens, and the liquid fire extinguishing agent is fed into the liquid inlet channel 12. Under the action of pressure, the one-way sealing component 15 opens, and the liquid fire extinguishing agent is fed from the liquid inlet channel 12 into the atomizing chamber 11. Under the action of the nozzle swirl core 14, the atomized liquid fire extinguishing agent is ejected from the nozzle body 13. The present invention provides a nozzle for energy storage fire fighting. The atomized liquid fire extinguishing agent can cover the fire area with the largest area, thereby achieving the purpose of rapid fire fighting. The energy storage fire fighting nozzle provided by the present invention is suitable for the lithium battery PACK electric box fire extinguishing system. The product has a compact structure, high integration, and good atomization effect. Under different pressures of 1.5 bar, 5.0 bar, 10 bar, and 18 bar, the atomization angle (the atomization angle varies between 40°-90°) also increases accordingly, thereby producing different atomization effects.

[0054] In one embodiment, an internal thread 16 adapted for connection with the nozzle body 13 is provided on the inner wall of the atomizing chamber 11 , and an external mounting thread 17 is provided on the side end of the connecting base 10 near the top.

[0055] The beneficial effects of the above technical solution are:

[0056] The arrangement of the internal thread 16 facilitates the disassembly and assembly of the nozzle body 13, thereby facilitating the cleaning of the atomizing chamber 11, while the arrangement of the external thread 17 facilitates the disassembly and assembly of the nozzle.

[0057] In one embodiment, the connecting base 10 is integrally formed with a mounting base 18 at one side end, a mounting pressing plate 19 is mounted at the bottom end of the mounting base 18 through a hexagonal nut 21, four hexagonal nuts 21 are arranged on the mounting base 18, a central through hole is formed in the center of the mounting pressing plate 19 for the connecting base 10 to pass through, and a buffer rubber pad 22 is clamped between the mounting base 18 and the mounting pressing plate 19.

[0058] The working principle and beneficial effects of the above technical solution are:

[0059] The mounting pressing plate 19 is detachably mounted at the bottom end of the mounting base 18 through the hexagonal nut 21, and the buffer rubber pad 22 is clamped between the mounting base 18 and the mounting pressing plate 17, thereby improving the sealing performance of the nozzle.

[0060] In one embodiment, a pack panel 23 is further clamped between the buffer rubber pad 22 and the mounting pressing plate 19, the pack panel 23 is provided with a side mounting hole 24 for passing through the hexagonal nut 21, and a central mounting hole 25 for passing through the bottom end of the connecting base 10.

[0061] The working principle and beneficial effects of the above technical solution are:

[0062] The pack panel 23 is located between the buffer rubber pad 22 and the mounting pressing plate 19, thereby facilitating the installation of the nozzle on the lithium battery PACK fire extinguishing system.

[0063] In one embodiment, the one-way sealing assembly 15 comprises:

[0064] A pressure relief head 26, an expansion 27 is formed in the inner wall of the liquid inlet channel 12 near the atomizing chamber 11, and the pressure relief head 26 is plugged into the expansion 27.

[0065] A reset spring 28 connected between the pressure relief head 26 and the nozzle body 13.

[0066] The working principle and beneficial effects of the above technical solution are:

[0067] When the valve is opened, liquid extinguishing agent is sent into the liquid inlet channel 12, and under the action of pressure, the reset spring 28 is retracted, the pressure relief head 26 is gradually opened to block the liquid inlet channel 12, and the liquid extinguishing agent is sent into the atomizing chamber 11. The greater the pressure, the more the reset spring 28 is retracted, and the greater the flow of liquid extinguishing agent sent into the atomizing chamber 11. That is, under different pressures of 1.5 bar, 5.0 bar, 10 bar and 18 bar, the reset spring 28 is retracted, and the flow of liquid extinguishing agent sent into the atomizing chamber 11 is gradually increased, and the atomizing angle (the change range of the atomizing angle is between 40°-90°) is also increased, thereby different atomizing effects are obtained.

[0068] As shown in Figures 4 to 9 The embodiment also discloses a manufacturing method of an energy storage fire-fighting nozzle, which is applied to the energy storage fire-fighting nozzle and comprises the following steps:

[0069] Step 1: integrally forming the connecting base 10 and the mounting base 18, and removing burrs and polishing the surface;

[0070] Step 2: fixing the connecting base 10, drilling the atomizing chamber 11, turning over by 180°, drilling the liquid inlet channel 12 communicated with the atomizing chamber 11, and drilling the expansion hole 27 on the inner wall of the liquid inlet channel 12 close to the atomizing chamber 11;

[0071] Step 3: drilling the threaded hole on the mounting base 18, drilling the internal thread 16 on the inner wall of the atomizing chamber 11, and drilling the mounting external thread 17 on the side end of the connecting base 10 close to the top end;

[0072] Step 4: selecting a profile, treating the surface, drilling the side mounting hole 24 and the center mounting hole 25, and forming the pack panel 23;

[0073] Step 5: mounting the nozzle rotating core 14 on the nozzle body 13, sequentially assembling the pressure relief head 26, the reset spring 28 and the nozzle body 13 from the bottom end of the connecting base 10 to the atomizing chamber 11, and paying attention to that the pressure relief head 26 is centrally arranged on the expansion hole 27;

[0074] Step 6: sequentially assembling the buffer rubber pad 22, the pack panel 23 and the mounting pressing plate 19 from the bottom end of the mounting base 18, and tightening the hexagonal nut 21.

[0075] The working principle and beneficial effects of the above technical scheme are as follows:

[0076] The manufacturing method of the energy storage fire-fighting nozzle comprises the above steps 1 to 6, covers the production and assembly forming of the nozzle, and the nozzle rotating core 14 and the nozzle body 13 are general accessories purchased at present.

[0077] In another embodiment, in step 2, the inner wall of the liquid inlet channel 12 near the atomizing chamber 11 is flared by a flaring unit, which comprises a lifting assembly 29 and a flaring assembly 20 installed at the bottom end of the lifting assembly 29, wherein the flaring assembly 20 comprises:

[0078] a cylinder 31, the top end of which is installed on the lifting assembly 29, the bottom end of which is open, and the surface of which is uniformly provided with air outlets;

[0079] an upper rotating disc 32 and a lower rotating disc 33, which are installed in the cylinder 31, and the cylinder 31 near the top and the bottom end of the cylinder 31 are respectively provided with limiting rings 34 for limiting the upper rotating disc 32 and the lower rotating disc 33;

[0080] a vertical pipe 35, which is installed between the upper rotating disc 32 and the lower rotating disc 33, and the top end and the bottom end of which are respectively provided with one-way air supplement valves 40 corresponding to the upper rotating disc 32 and the lower rotating disc 33;

[0081] a grinding block assembly, which is installed on the vertical pipe 35 in a lifting manner.

[0082] The working principle and beneficial effects of the above technical solution are as follows:

[0083] After the connecting base 10 is fixed on the jig, the bottom end of the connecting base 10 is upward, the bottom end of the connecting base 10 is drilled once to form the atomizing chamber 11, the connecting base 10 is rotated by 180 degrees, the top end of the connecting base 10 is upward, the drill bit is replaced, and the top end of the connecting base 10 is drilled twice to form the liquid inlet channel 12, the second drilling stops when the second drilling extends into the atomizing chamber 11, at this time, the connecting base 10 is rotated by 180 degrees, at this time, the atomizing chamber 11 is upward, the lifting assembly 29 works to drive the flaring assembly 20 into the atomizing chamber 11, the flaring assembly 20 is located in the middle of the atomizing chamber 11, when the grinding block assembly abuts against the inner wall of the atomizing chamber 11, the upper disc 32 located in the cylinder 31 rotates, the upper disc 32 drives the lower disc 33 to rotate synchronously through the vertical pipe 35, thereby driving the grinding block assembly installed on the vertical pipe 35 to rotate, the grinding block assembly grinds the position close to the atomizing chamber 11 on the inner wall of the liquid inlet channel 12 to form the flared portion 27, and the grinding block assembly performs periodic lifting movement in the process of rotating in the circumferential direction, the grinding block assembly gradually extends into the liquid inlet channel 12, and after the flared portion 27 is ground and formed in the first stage, the lifting assembly 29 works again to drive the flaring assembly 20 to descend, at this time, the grinding block assembly further extends into the liquid inlet channel 12, thereby realizing the second stage grinding and forming of the flared portion 27, until the grinding block assembly completely extends into the liquid inlet channel 12, the periodic lifting of the grinding block assembly prevents the grinding block assembly from working continuously at high temperature, and in the process of lifting, the outer gas outlet on the surface of the cylinder 31 continuously sprays gas flow to blow the atomizing chamber 11 and the grinding block assembly, thereby realizing rapid cooling of the grinding block assembly.

[0084] In another embodiment, the flaring assembly 20 further comprises:

[0085] The outer gear ring is installed on the upper disc 32.

[0086] The driving motor 36 is installed at the top of the cylinder 31, and a rotating gear 37 engaged with the outer gear ring is installed at the output end of the driving motor 36.

[0087] The working principle and beneficial effects of the above technical solution are:

[0088] The driving motor 36 works to drive the rotating gear 37 installed at the output end of the driving motor 36 to rotate, under the cooperation of the rotating gear 37 and the outer gear ring, the upper disc 32 connected with the outer gear ring is driven to rotate, thereby driving the lower disc 33 connected with the upper disc 32 through the vertical pipe 35 to rotate synchronously, thereby driving the grinding block assembly installed on the vertical pipe 35 to rotate, and the grinding block assembly grinds the position close to the atomizing chamber 11 on the inner wall of the liquid inlet channel 12 to form the flared portion 27.

[0089] In another embodiment, the grinding block assembly comprises:

[0090] A magnetic slider 38 is slidingly connected in the vertical pipe 35;

[0091] An outer magnetic ring 39 is sleeved on the vertical pipe 35, and the outer magnetic ring 39 is adapted to the magnetic slider 38;

[0092] L-shaped air outlet pipes 30 are installed on the vertical pipe 35 through one-way valves 41, and two L-shaped air outlet pipes 30 are centrally symmetrically arranged, and the surfaces of the L-shaped air outlet pipes 30 are uniformly provided with inner air outlets;

[0093] A grinding block 49 is arranged near the bottom end of the cylinder 31, two connecting arms 42 are symmetrically arranged through the vertical pipe 35, and the connecting arms 42 are connected between the grinding block 49 and the outer magnetic ring 39;

[0094] A pull rope assembly is installed on the upper turntable 32 and the lower turntable 33, respectively, and the limiting ring 34 is provided with a C-shaped gear ring 43 for driving the pull rope assembly to work.

[0095] The working principle and beneficial effects of the above technical solution are:

[0096] In combination with Figure 5 , Figure 8 and Figure 9When the grinding block assembly is attached to the inner wall of the atomizing chamber 11, the driving motor 36 is operated to drive the rotating gear 37 installed on the output end of the driving motor 36 to rotate. Under the cooperation of the rotating gear 37 and the outer gear ring, the upper turntable 32 connected with the outer gear ring is driven to rotate, thereby driving the lower turntable 33 connected with the upper turntable 32 through the vertical pipe 35 to rotate synchronously, thereby driving the grinding block assembly installed on the vertical pipe 35 to rotate. The grinding block assembly grinds the position of the inner wall of the liquid inlet channel 12 close to the atomizing chamber 11 to form the flared portion 27. Preferably, when the pull rope assembly located on the lower turntable 33 rotates, it contacts the C-shaped gear ring 43, thereby pulling the magnetic sliding block 38 located in the vertical pipe 35 to descend. The one-way air supplement valve 40 installed at the top end of the vertical pipe 35 supplements air into the vertical pipe 35, and the magnetic sliding block 38 pressurizes the air at the bottom of the vertical pipe 35 into the L-shaped air outlet pipe 30 located at the right end and blows it out through the inner air outlet of the L-shaped air outlet pipe 30. After the upper turntable 32 rotates 180°, the pull rope assembly installed on the upper turntable 32 rotates and contacts the C-shaped gear ring 43, thereby pulling the magnetic sliding block 38 located in the vertical pipe 35 to ascend. The one-way air supplement valve 40 installed at the bottom end of the vertical pipe 35 supplements air into the vertical pipe 35, and the magnetic sliding block 38 pressurizes the air at the top of the vertical pipe 35 into the L-shaped air outlet pipe 30 located at the left end and blows it out through the inner air outlet of the L-shaped air outlet pipe 30. In this way, when the magnetic sliding block 38 ascends and descends in the vertical pipe 35, the outer air outlets on the surface of the cylinder 31 continuously spray air flow, which not only sweeps the atomizing chamber 11 but also continuously sweeps the grinding block assembly, thereby achieving rapid cooling of the grinding block assembly. This prevents the grinding block assembly from working at a high temperature for a long time, which reduces the service life of the grinding block assembly.

[0097] Further, in the descending process of the magnetic sliding block 38, the outer magnetic ring 39 sleeved on the vertical pipe 35 is driven by magnetism, the grinding block 49 connected with the outer magnetic ring 39 through the connecting arm 42 descends at the bottom end of the cylinder 31, and grinds the position of the inner wall of the liquid inlet channel 12 close to the atomizing chamber 11 to form the flared portion 27. Conversely, in the ascending process of the magnetic sliding block 38, the outer magnetic ring 39 sleeved on the vertical pipe 35 is driven by magnetism, the grinding block 49 connected with the outer magnetic ring 39 through the connecting arm 42 ascends at the bottom end of the cylinder 31, and the grinding block 49 exits the liquid inlet channel 12, thereby completing one ascending and descending of the grinding block 49.

[0098] In another embodiment, the pull rope assembly comprises:

[0099] The support frame 44 is installed on the upper turntable 32 and the lower turntable 33, respectively;

[0100] The guide wheel 45 is installed on the support frame 44;

[0101] A rope wheel 46 and a transmission gear 47 are coaxially installed on the support frame 44, and the transmission gear 47 is engaged with the C-shaped gear ring 43;

[0102] A pull rope 48, one end of which extends into the vertical pipe 35 and is connected with the magnetic slider 38, and the other end of which is wound around the rope wheel 46 after passing through the guide wheel 45.

[0103] The working principle and beneficial effects of the above technical solution are as follows:

[0104] When the pull rope assembly located at the lower turntable 33 rotates, the transmission gear 47 is in contact with the C-shaped gear ring 43, thereby driving the rope wheel 46 coaxially installed on the support frame 44 to rotate, the rope wheel 46 winds the pull rope 48 thereon, thereby pulling the magnetic slider 38 connected with the pull rope 48 to descend in the vertical pipe 35, and when the upper turntable 32 rotates by 180°, the pull rope assembly installed on the upper turntable 32 rotates, the transmission gear 47 is in contact with the C-shaped gear ring 43, thereby driving the rope wheel 46 coaxially installed on the support frame 44 to rotate, the rope wheel 46 winds the pull rope 48 thereon, thereby pulling the magnetic slider 38 connected with the pull rope 48 to ascend in the vertical pipe 35, so that the outer air outlet on the surface of the cylinder 31 continuously sprays air flow when the magnetic slider 38 ascends and descends in the vertical pipe 35.

[0105] Obviously, the above embodiments are only examples for clearly illustrating the present application, and are not intended to limit the embodiments. Based on the above description, other different forms of changes or variations can be made by those skilled in the art. Here, all the embodiments are not required to be exhausted, and the obvious changes or variations derived therefrom are still within the protection scope of the present application.

Claims

1. A method for manufacturing an energy storage fire-fighting nozzle, characterized in that: include: Step 1: Deburring and polishing the surface of the connecting base (10) and the mounting base (18) formed into a single piece by casting; Step 2: Fix the connecting base (10), drill the atomizing chamber (11), turn it 180 degrees, drill the liquid inlet channel (12) connected to the atomizing chamber (11), and make an expansion opening (27) on the inner wall of the liquid inlet channel (12) near the atomizing chamber (11); Step 3: Drill a threaded hole on the mounting base (18), open an internal thread (16) on the inner wall of the atomization chamber (11), and open an external mounting thread (17) on the side end of the connecting base (10) near the top; Step 4: Select the profile, prepare the surface, and drill the side mounting holes (24) and the center mounting hole (25) to form the pack panel (23); Step 5: Install the nozzle swirl core (14) on the nozzle body (13), and assemble the pressure relief seal (26), the return spring (28) and the nozzle body (13) in sequence from the bottom end of the connection base (10) to the atomization chamber (11). Note that the pressure relief seal (26) is centered on the flared opening (27); Step 6: Assemble the cushioning pad (22), pack panel (23) and mounting plate (19) from the bottom of the mounting base (18) in sequence, and tighten the hexagonal nut (21); In step 2, the inner wall of the liquid inlet channel (12) is expanded near the atomizing chamber (11) by an expansion unit. The expansion unit includes: a lifting component (29) and an expansion component (20) installed at the bottom end of the lifting component (29). The expansion component (20) includes: a barrel (31), the top end of the barrel (31) is installed on the lifting component (29), the bottom end of the barrel (31) is open, and the surface of the barrel (31) is evenly expanded. An external air outlet is provided, an upper turntable (32) and a lower turntable (33) are installed in the cylinder (31), a vertical pipe (35) is installed between the upper turntable (32) and the lower turntable (33), and a one-way air supply valve (40) corresponding to the upper turntable (32) and the lower turntable (33) is installed at the top and bottom of the vertical pipe (35), respectively. The grinding block assembly can be lifted and lowered on the vertical pipe (35), and the grinding block assembly performs periodic lifting and lowering motion during the circumferential rotation process; The grinding block assembly includes: a magnetic slider (38) slidably connected to the vertical tube (35), an outer magnetic ring (39) sleeved on the vertical tube (35), the outer magnetic ring (39) adapted to the magnetic slider (38), an L-shaped air outlet pipe (30) installed on the vertical tube (35) through a one-way valve (41), the two L-shaped air outlet pipes (30) are centrally symmetrically arranged, and inner air outlets are evenly opened on the surface of the L-shaped air outlet pipe (30), the grinding block (49) is close to the bottom end of the cylinder (31), and two connecting arms (42) are symmetrically arranged on the lower turntable (33) with the vertical tube (35) as the center, and the connecting arm (42) is connected between the grinding block (49) and the outer magnetic ring (39).

2. The method for manufacturing a nozzle for energy storage fire fighting according to claim 1, characterized in that: The flaring assembly (20) further comprises: an outer gear ring mounted on the upper turntable (32); a driving motor (36) mounted on the top of the cylinder (31); and a rotating gear (37) meshing with the outer gear ring is mounted on the output end of the driving motor (36).

3. The method for manufacturing a nozzle for energy storage fire fighting according to claim 1, characterized in that: A limiting ring (34) for limiting the upper turntable (32) and the lower turntable (33) is installed near the top and the bottom of the cylinder (31) respectively. The pull rope assembly is installed on the upper turntable (32) and the lower turntable (33) respectively. The limiting ring (34) is installed with a C-shaped gear ring (43) for driving the pull rope assembly to work. The pull rope assembly includes: a support frame (44) installed on the upper turntable (32) and the lower turntable (33) respectively, a guide wheel (45) installed on the support frame (44), a rope wheel (46) and a transmission gear (47) coaxially installed on the support frame (44), the transmission gear (47) meshes with the C-shaped gear ring (43), one end of the pull rope (48) extends into the vertical pipe (35) and is connected to the magnetic slider (38), and the other end of the pull rope (48) passes through the guide wheel (45) and is wound on the rope wheel (46).

4. The method for manufacturing a nozzle for energy storage fire fighting according to claim 1, characterized in that: The invention relates to a nozzle for energy storage fire fighting, which comprises a connecting base (10), an atomizing chamber (11) and a liquid inlet channel (12), wherein the atomizing chamber (11) is open and located at the bottom end of the connecting base (10), the liquid inlet channel (12) is opened at the top end of the connecting base (10) and is connected to the atomizing chamber (11), the nozzle body (13) is connected and installed in the atomizing chamber (11), and the nozzle swirl core (14) is installed on the nozzle body (11). 3), a one-way sealed component (15) is located in the atomizing chamber (11) and is arranged between the nozzle body (13) and the liquid inlet flow channel (12); the inner wall of the atomizing chamber (11) is provided with an internal thread (16) adapted to connect with the nozzle body (13), and the side end of the connecting base (10) is provided with a mounting external thread (17) near the top; the side end of the connecting base (10) is integrally formed with a mounting base (18), and the mounting pressure plate (19) is mounted on the bottom end of the mounting base (18) through a hexagonal nut (21), and four hexagonal nuts (21) are mounted on the mounting base (18) in an array, and a central through hole is provided at the center position of the mounting pressure plate (19) for facilitating the penetration of the bottom end of the connecting base (10), and a buffer pad (22) is sandwiched between the mounting base (18) and the mounting pressure plate (19); a pack panel (23) is also sandwiched between the buffer pad (22) and the mounting pressure plate (19), and the pack panel (23) is pre-installed A side mounting hole (24) for inserting a hexagonal nut (21) and a center mounting hole (25) for inserting the bottom end of the connecting base (10) are reserved; the one-way sealing component (15) includes: a pressure relief head (26); an inner wall of the liquid inlet channel (12) is provided with a circumferential expansion opening (27) near the atomization chamber (11); the pressure relief head (26) is blocked on the expansion opening (27); and a return spring (28) is connected between the pressure relief head (26) and the nozzle body (13).

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