Simulation volcanic eruption stunt system

Abstract

The utility model discloses a volcanic eruption stunt simulation system which is characterized in that an eruption port, a magma overflow stone seam and a magma flowing channel are arranged at the top end of a hollow volcanic mountain body model; the magma eruption simulation device is provided with a magma eruption port, and the magma eruption port is arranged at the eruption port; the magma overflow simulation device is provided with a magma overflow port, and the magma overflow port is arranged at a magma overflow stone seam; the magma overflow simulation device is provided with a magma pool which is located at the bottom of the hollow volcanic mountain body model and can receive magma flowing back; the high-temperature smoke eruption simulation device is provided with a smoke eruption port, and the smoke eruption port is arranged at the eruption port at the upper end from the interior of the hollow volcanic mountain body model and can erupt simulated high-temperature smoke outwards; the ultraviolet light assembly is arranged outside the hollow volcanic mountain body model and can irradiate the flowing simulation magma sprayed out of the spraying opening in the upper end of the hollow volcanic mountain body model. According to the system, light, smoke and fluid are combined to simulate scene effects during volcanic eruption, and various dreamlike scene effects of a real world can be simulated.

Description

Technical Field

[0001] This utility model relates to the field of special effects systems, and in particular to a simulated volcanic eruption special effects system. Background Technology

[0002] In previous stunt projects in the park, the effects of volcanic eruptions and lava flows were mainly achieved through light projection and rear-projection, but the results were not ideal.

[0003] Currently, there are methods to simulate the changes in the state of a volcano during an eruption, but these cannot realistically simulate the effects of volcanic lava eruption. There are also methods to simulate the flow of volcanic lava, typically achieved through internal shafts, backflow channels, and luminescent materials and light sources within the backflow channels. These materials are then ejected from the crater via an ascending device. However, this approach fails to simulate the effect of volcanic lava flowing like liquid across the mountainside, resulting in a lack of realism in the simulated flow of volcanic lava.

[0004] In view of this, the present invention is hereby proposed. Summary of the Invention

[0005] The purpose of this invention is to provide a simulated volcanic eruption special effects system that can realistically simulate the effects of volcanic lava eruption, flow, and high-temperature smoke ejection, bringing tourists a more realistic volcanic eruption viewing experience, thereby solving the aforementioned technical problems existing in the prior art.

[0006] The objective of this utility model is achieved through the following technical solution:

[0007] A simulated volcanic eruption stunt system, comprising:

[0008] The system includes a hollow volcano model, a magma eruption simulation device, a magma overflow simulation device, a high-temperature smoke eruption simulation device, and an ultraviolet lighting component; among these...

[0009] The top of the hollow volcanic mountain shape is provided with an eruption vent and lava overflow fissures, and the hollow volcanic mountain shape is provided with lava flow channels;

[0010] The magma eruption simulation device is equipped with a magma eruption vent, which is located at the upper eruption vent inside the hollow volcanic mountain shape and can eject simulated magma outward.

[0011] The magma overflow simulation device is equipped with a magma overflow outlet, which is located inside the hollow volcanic mountain shape at the upper magma overflow crevice, and can overflow and flow simulated magma outward.

[0012] The magma overflow simulation device is equipped with a magma pool located at the bottom of the hollow volcano mountain shape and connected to the magma flow channel on the hollow volcano mountain shape, which can receive the magma flowing back.

[0013] The high-temperature smoke emission simulation device is equipped with a smoke emission port, which is set at the upper emission port inside the hollow volcano shape and can emit simulated high-temperature smoke outward.

[0014] The ultraviolet light component is installed on the outside of the hollow volcanic mountain shape and can illuminate the flowing simulated magma ejected from the eruption vent at the top of the hollow volcanic mountain shape.

[0015] Compared with existing technologies, the simulated volcanic eruption special effects system provided by this utility model has the following advantages:

[0016] By setting an eruption vent, lava overflow fissures, and lava flow channels at the top of a hollow volcano, placing the lava eruption vent of the lava eruption simulation device at the eruption vent, the lava overflow simulation device at the lava overflow fissures, and a lava pool at the bottom of the hollow volcano to receive the lava flowing back from the lava flow channels, and placing the smoke eruption vent of the high-temperature smoke eruption simulation device at the eruption vent, the system can simulate the realistic effects of volcanic lava eruption, flow, and high-temperature smoke eruption, providing visitors with a lifelike volcanic eruption viewing experience. Attached Figure Description

[0017] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the following description of the embodiments will be briefly introduced. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 A schematic diagram of the overall structure of the simulated volcanic eruption stunt system provided in this embodiment of the utility model.

[0019] Figure 2 A top view schematic diagram of the simulated volcanic eruption stunt system provided in this embodiment of the utility model.

[0020] Figure 3 A schematic diagram of the magma eruption simulation device of the simulated volcanic eruption special effects system provided in this embodiment of the utility model.

[0021] Figure 4 A schematic diagram of the magma overflow simulation device of the simulated volcanic eruption special effects system provided in this embodiment of the utility model.

[0022] Figure 5A schematic diagram of the high-temperature smoke eruption simulation device of the simulated volcanic eruption special effects system provided in this embodiment of the utility model.

[0023] The markings in the diagram are as follows: 1-Hollow volcano model; 2-Magma eruption simulation device; 21-Magma pool at the summit; 22-High-pressure nozzle; 23-High-pressure air pipe; 24-Timed electromagnetic valve assembly; 241-Electromagnetic valve; 242-Electronic timer switch; 243-Power supply; 25-High-pressure air output device; 251-High-pressure air storage tank; 252-High-pressure air inlet pipe; 253-High-pressure air outlet; 254-Air inlet; 255-Control valve; 26-High-pressure branch pipe; 27-Air pipe connector; 28-Simulated magma; 3-Magma overflow simulation device; 31-Magma pool; 32-High-pressure mud pump; 33-Transportation pipeline; 34-Magma flow control valve; 35-Power supply for high-pressure mud pump; 4-High-pressure volcano model; 26-High-pressure air outlet pipe; 27-Air pipe connector; 28-Simulated magma; 29-High-pressure volcano model; 20-High-pressure volcano model; 20-Magma eruption simulation device; 20-Magma pool; 21-High-pressure mud pump; 22-High-pressure mud pump; 23-High-pressure mud pump; 24-Magma flow control valve; 25-Power supply for high-pressure mud pump; 26-High-pressure volcano model; 27-Magma flow control device; 28-High-pressure volcano model; 29-Magma eruption simulation device; 20-Magma eruption simulation device; 20-Magma eruption simulation device; 20-Magma eruption simulation device; 20-Magma eruption simulation device; 21-Magma erupt High-temperature smoke emission simulation device; 41-High-temperature resistant jet steel pipe assembly; 411-High-temperature resistant jet steel pipe; 412-High-temperature resistant silicone tube; 42-High-temperature resistant gas transmission pipe; 43-High-temperature gas diversion steel ball; 44-Aerosol transmission pipe; 45-Aerosol fogger; 451-Sealed tank; 452-Water mist fogger; 453-Fog power supply; 454-High-pressure gas transmission assembly; 4541-High-pressure gas transmission pipe; 4542-Gas pipe splitter; 4543-Gas transmission control valve; 455-Water transmission assembly; 4551-Input pipe; 4552-Water tank; 4553-Water tank valve; 4554-Water level positioning valve; 46-Heating wire; 47-Spray shield; 48-Frequency modulation power supply; 5-Ultraviolet lamp assembly. Detailed Implementation

[0024] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the specific content of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments, which do not constitute a limitation of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present invention.

[0025] First, the following explanations are provided for the terms that may be used in this article:

[0026] The term "and / or" means that either or both can be achieved simultaneously. For example, X and / or Y means that it includes both "X" or "Y" as well as the three cases of "X and Y".

[0027] The terms "comprising," "including," "containing," "having," or other similar semantic descriptions should be interpreted as non-exclusive inclusion. For example, including a technical feature element (such as raw material, component, ingredient, carrier, dosage form, material, size, part, component, mechanism, device, step, process, method, reaction conditions, processing conditions, parameter, algorithm, signal, data, product or article of manufacture, etc.) should be interpreted as including not only the expressly listed technical feature element, but also other technical feature elements that are not expressly listed and are well-known in the art.

[0028] The term "composed of" excludes any technical features not expressly listed. When used in a claim, it closes the claim to exclude all technical features other than those expressly listed, except for associated conventional impurities. If the term appears only in a clause of a claim, it limits the claim to the elements expressly listed in that clause; elements recited in other clauses are not excluded from the overall claim.

[0029] Unless otherwise explicitly specified or limited, the terms "installation," "connection," "linking," and "fixing," etc., should be interpreted broadly. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium; and they can refer to the internal connection between two components. Those skilled in the art can understand the specific meaning of the above terms in this document according to the specific circumstances.

[0030] The terms “center,” “longitudinal,” “lateral,” “length,” “width,” “thickness,” “upper,” “lower,” “front,” “back,” “left,” “right,” “vertical,” “horizontal,” “top,” “bottom,” “inner,” “outer,” “clockwise,” and “counterclockwise” indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience and simplification of description and do not imply that the device or component referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this document.

[0031] The solution provided by this invention will be described in detail below. Contents not described in detail in the embodiments of this invention are prior art known to those skilled in the art. Where specific conditions are not specified in the embodiments of this invention, they shall be performed according to conventional conditions in the art or conditions recommended by the manufacturer. Reagents or instruments used in the embodiments of this invention whose manufacturers are not specified are all conventional products that can be purchased commercially.

[0032] like Figure 1 , Figure 2As shown, this utility model provides a simulated volcanic eruption stunt system, comprising:

[0033] The system includes: 1. a hollow volcano model; 2. a magma eruption simulation device; 3. a magma overflow simulation device; 4. a high-temperature smoke eruption simulation device; and 5. an ultraviolet lighting assembly.

[0034] The top of the hollow volcanic mountain shape 1 is provided with an eruption vent and a magma overflow crevice, and the hollow volcanic mountain shape is provided with magma flow channels;

[0035] The magma eruption simulation device 2 is equipped with a magma eruption port, which is set at the upper eruption port inside the hollow volcanic mountain shape and can eject simulated magma outward.

[0036] The magma overflow simulation device 3 is equipped with a magma overflow outlet, which is located inside the hollow volcanic mountain shape 1 at the upper magma overflow crevice, and can overflow and flow simulated magma outward.

[0037] The magma overflow simulation device 3 is equipped with a magma pool, which is located at the bottom of the hollow volcanic mountain shape and connected to the magma flow channel on the hollow volcanic mountain shape 1, and can receive the magma flowing back.

[0038] The high-temperature smoke emission simulation device 4 is equipped with a smoke emission port, which is set at the upper part of the hollow volcano mountain shape 1 and can emit simulated high-temperature smoke outward.

[0039] The ultraviolet light component 5 is installed on the outside of the hollow volcanic mountain shape 1 and can illuminate the flowing simulated magma ejected from the eruption vent at the upper end of the hollow volcanic mountain shape 1.

[0040] See Figure 3 Preferably, in the above system, the magma eruption simulation device 2 includes:

[0041] The system includes a mountaintop magma pool 21, simulated magma 28, a high-pressure nozzle 22, a high-pressure air pipe 23, a timed electromagnetic valve assembly 24, and a high-pressure air output device 25; among which,

[0042] The mountaintop magma pool 21 is located inside the eruption vent at the top of the hollow volcanic mountain shape 1. The upper opening of the mountaintop magma pool 21 serves as a magma eruption vent, and the mountaintop magma pool 21 is filled with simulated magma 28.

[0043] The high-pressure nozzle 22 is installed inside the mountain top magma pool 21. The high-pressure nozzle 22 is located inside the simulated magma 28 inside the mountain top magma pool 21. The spraying direction of the high-pressure nozzle 22 is towards the upper opening of the mountain top magma pool 21.

[0044] The high-pressure gas output port 253 of the high-pressure gas output device 25 is connected to the high-pressure nozzle 22 via the timed electromagnetic valve assembly 24, and can supply high-pressure gas for erupting magma to the high-pressure nozzle 22.

[0045] This magma eruption simulation device 2 uses high-pressure gas ejection combined with liquid simulated magma to realistically simulate the effect of volcanic magma eruption. The simulated magma solution needs to have a certain concentration, which can be prepared by mixing pure water, water-based thickener, water-based transparent ultraviolet photosensitive pigment, and water-based pasteurizer in a certain proportion and stirring evenly until a suitable concentration is achieved, thus achieving a magma-like effect with a certain concentration.

[0046] Preferably, in the above system, there are multiple high-pressure nozzles 22 arranged in a ring within the simulated magma 28 of the magma pool 21 at the mountain top. Each high-pressure nozzle 22 is connected to the high-pressure air pipe 23 via a high-pressure branch pipe 26 and an air pipe connector 27. Multiple high-pressure nozzles can achieve a realistic magma eruption effect.

[0047] Preferably, in the above system, the timing solenoid valve assembly 24 consists of a solenoid valve 241, an electronic timing switch 242, and a power supply 243;

[0048] The electronic timer switch 242 is connected to the power supply 243 and is powered by the power supply 243;

[0049] The electronic timer switch 242 is electrically connected to the solenoid valve 241, and can control the opening and closing of the solenoid valve 241 for a predetermined period of time. This timed solenoid valve assembly 24 achieves the effect of timed magma eruption from the high-pressure nozzle, providing a more realistic simulation of volcanic magma eruption.

[0050] Preferably, in the above system, the high-pressure gas output device 25 includes: a high-pressure gas storage tank 251, a high-pressure gas inlet pipe 252, and a control valve 255; wherein,

[0051] The high-pressure gas storage tank 251 is provided with an air inlet 254 and a high-pressure gas outlet 253. The air inlet 254 is connected to the high-pressure air inlet pipe 252, and the control valve 255 is provided on the high-pressure air inlet pipe 252. The high-pressure gas outlet 253 is connected to the timed electromagnetic valve assembly 24 and the high-pressure gas pipe 23.

[0052] See Figure 4 Preferably, in the above system, the magma overflow simulation device 3 includes: a magma pool 31, a high-pressure mud pump 32, a conveying pipeline 33, and a magma flow control valve 34; wherein,

[0053] The magma pool 31 is located at the bottom of the hollow volcanic mountain structure 1;

[0054] The high-pressure mud pump 32 is installed in the magma pool 31. The high-pressure mud pump 32 is connected to the mountaintop magma pool 21 of the magma eruption simulation device 2 via the delivery pipe 33 equipped with the magma flow control valve 34. The mountaintop magma pool 21 is also located at the magma overflow crevice at the top of the hollow volcanic mountain shape 1.

[0055] This magma overflow simulation device 3 can realistically simulate the effect of volcanic magma flow after an eruption, and can recover the simulated magma flowing back from the surface of the hollow volcanic mountain shape 1, realizing the circulation of simulated magma.

[0056] See Figure 5 Preferably, in the above system, the high-temperature smoke emission simulation device 4 includes: an aerosol generator 45, an aerosol transmission pipe 44, a heating wire 46, a frequency-modulated power supply 48, a high-temperature gas diversion steel ball 43, multiple high-temperature resistant gas transmission pipes 42, multiple high-temperature resistant jet steel pipe assemblies 41, and multiple spray shields 47; wherein,

[0057] Multiple high-temperature resistant jet steel pipe assemblies 41 are evenly distributed at the eruption port at the top of the hollow volcanic mountain shape 1;

[0058] The aerosol output port of the aerosol generator 45 is connected to one end of the aerosol transmission pipe 44;

[0059] The other end of the aerosol transmission pipe 44 is connected to a plurality of high-temperature gas transmission pipes 42 via the high-temperature gas diversion steel ball 43. Each high-temperature gas transmission pipe 42 is connected to a high-temperature jet steel pipe assembly 41. Each high-temperature jet steel pipe assembly 41 is provided with a spray shield 47 at its top.

[0060] The heating wire 46 is evenly wound around the outside of the aerosol transmission pipe 44 and is electrically connected to the frequency modulation power supply 48.

[0061] See Figure 5 Preferably, in the above system, the aerosol generator 45 includes: a sealed tank 451, multiple water mist generators 452, a misting power supply 453, a high-pressure gas delivery assembly 454, and a water delivery assembly 455; wherein,

[0062] The aerosol outlet is provided at the top of the sealed tank 451;

[0063] Multiple water mist generators 452 are evenly laid at the bottom of the sealed tank 451, and each water mist generator 452 is electrically connected to a mist-generating power supply 453 installed outside the sealed tank 451.

[0064] The high-pressure gas transmission assembly 454 and the water transmission assembly 455 are respectively connected to the sealed tank 451.

[0065] See Figure 5 Preferably, in the above system, the high-pressure gas transmission assembly 454 consists of a high-pressure main gas pipe 4544, two high-pressure gas transmission branch pipes 4541, a gas pipe splitter 4542, and a gas transmission control valve 4543; wherein,

[0066] A gas delivery control valve 4543 is installed on the high-pressure main gas pipe 4544;

[0067] The high-pressure main gas pipe 4544 is connected to two high-pressure gas delivery branch pipes 4541 via the gas pipe branch 4542. The other ends of the two high-pressure gas delivery branch pipes 4541 are connected to the sealed tank 451, which can deliver high-pressure gas into the sealed tank 451.

[0068] The water supply assembly 455 includes: a water supply pipe 4551, a water tank valve 4553, a water tank 4552, and a water level positioning valve 4554; wherein...

[0069] The water tank 4552 is connected to the sealed tank body 451 by the water supply pipe 4551 equipped with a water tank valve 4553;

[0070] The water level positioning valve 4554 is installed inside the sealed tank 451 and is connected to the end of the water supply pipe 4551.

[0071] See Figure 4 Preferably, in the above system, the aerosol transmission pipe 44 is a honeycomb-shaped pipe with multiple internal sub-pipes (see...). Figure 4 (Point A in the diagram). This multi-channel honeycomb tube ensures the transmission of smoke and avoids reducing the atomization effect during transmission.

[0072] In summary, the simulated volcanic eruption special effects system of this utility model, by setting an eruption vent, lava overflow crevice, and lava flow channel at the top of the hollow volcanic mountain shape, placing the lava eruption vent of the lava eruption simulation device at the eruption vent, placing the lava overflow outlet of the lava overflow simulation device at the lava overflow crevice, setting the lava pool at the bottom of the hollow volcanic mountain shape to receive the lava flowing back from the lava flow channel, and placing the smoke eruption vent of the high-temperature smoke eruption simulation device at the eruption vent, can simulate the realistic effects of volcanic lava eruption, flow, and high-temperature smoke eruption, bringing tourists a realistic volcanic eruption viewing experience.

[0073] To more clearly demonstrate the technical solution and its effects provided by this utility model, the following detailed description of the solution provided by the embodiments of this utility model is provided with reference to specific examples.

[0074] Example 1

[0075] like Figure 1 , Figure 2 As shown, the simulated volcanic eruption special effects system provided in this embodiment includes: a hollow volcanic mountain model 1, a magma eruption simulation device 2, a magma overflow simulation device 3, a high-temperature smoke eruption simulation device 4, and an ultraviolet light assembly 5; the manufacturing methods of each part are as follows:

[0076] (1) Method for creating hollow volcano mountain shape 1:

[0077] For hollow volcano mountain shaping, 1. High-density foam material with strong plasticity, light weight, and strong waterproof properties is selected to sculpt the surface shape of the mountain. Then, colored waterproof material is applied to the surface of the mountain to closely resemble the color of the volcano and to prevent magma from seeping in during the flow of magma.

[0078] The interior of the mountain was hollowed out to house the magma eruption simulation device 2, the magma overflow simulation device 3, and the high-temperature smoke eruption simulation device 4. The mountain walls were approximately 20cm thick to accommodate the mountain's structural integrity while also allowing for a larger internal space. This served as both the equipment and the control room for the magma eruption simulation device 2, the magma overflow simulation device 3, and the high-temperature smoke eruption simulation device 4.

[0079] (2) For the construction method of the magma pool in the magma overflow simulation device 3, please refer to... Figure 4 :

[0080] The mountain base is constructed in two layers. The upper layer is for storing or installing the equipment for the magma eruption simulation device 2, the magma overflow simulation device 3, and the high-temperature smoke eruption simulation device 4. The lower layer of the base is a magma pool in the shape of a sloping cone with the lowest point in the middle, to facilitate magma backflow and upward output of magma solution.

[0081] (3) Methods for preparing simulated magma solutions:

[0082] To prepare a simulated magma solution, it needs to have a certain concentration (similar to that of magma). The required materials are: approximately 94% pure water, approximately 5% water-based thickener, approximately 2% water-based transparent ultraviolet photosensitive pigment, and approximately 3% water-based pasteurizer. Stir and mix evenly until the desired concentration is reached.

[0083] (4) Method for constructing magma eruption simulation device 2:

[0084] like Figure 3As shown, the magma eruption simulation device 2 consists of: gas from a high-pressure gas source being input into a high-pressure gas storage tank through a high-pressure gas pipe, then passing through a relatively thick high-pressure gas pipeline and a solenoid valve controlled by an electronic timer switch to rapidly pass the high-pressure gas pipeline, and then through a high-pressure gas distribution pipe of a four-way manifold connector, which is then delivered to the high-pressure gas ejected from the trumpet-shaped high-pressure jet nozzle at the top of the mountain, thereby pushing the magma into the air, thus producing the special effect of a magma eruption.

[0085] (5) Method for constructing magma overflow simulation device 3:

[0086] like Figure 4 As shown, the special effect of volcanic magma flow is a process where magma solution is pumped upwards to the mountaintop, overflows, and flows back from the mountain surface to the magma recovery port at the base of the mountain. This is achieved by using a high-pressure mud pump to extract high-concentration magma solution from the magma storage pool, pumping it upwards through pipes into the magma pool at the mountaintop, and then overflowing from the surrounding mountaintop crevices, flowing down the mountainside, and returning to the magma pool at the base of the mountain, creating the special effect of magma circulation.

[0087] (6) Method for manufacturing high-temperature smoke emission simulation device 4:

[0088] like Figure 5 As shown, the high-temperature smoke emission simulation device 4 consists of an automatic water storage tank, a water mist generator, a device component box (containing components such as three sets of ultrasonic mist generators, an automatic water level positioning valve, an air vortex nozzle, and purified water), and a water mist rapid heating pipe assembly. The automatic water supply system in the automatic water storage tank automatically replenishes the water level in the mist generator box after the water mist evaporates, ensuring timely replenishment in case of water loss. The mist generated in the mist generator box is rapidly heated by the high-temperature heating pipe, then passes through a high-temperature mist distribution ball, and is sprayed onto the mountaintop through the high-temperature resistant mist distribution pipe, producing a high-temperature rising water mist gas, thus generating and displaying the smoke effect.

[0089] The aerosol heating tube is made of aluminum tube material, and its surface is made of high temperature resistant insulating material, high temperature resistant thermally conductive silicone, and electric heating flat wire.

[0090] The spray shield is made of aluminum plate to cover the smoke nozzle. This serves two purposes: first, to disperse the smoke's dispersion surface, and second, to prevent the erupted magma from flowing back into the high-temperature aerosol pipe.

[0091] (7) Installation and adjustment of corresponding lights:

[0092] The projection of appropriate lighting is a crucial condition for the display of volcanic eruption special effects. First, there is the display of lava effects. Lava is made of transparent ultraviolet photosensitive pigments, so the lava effects can only be displayed through the projection of ultraviolet light.

[0093] Lighting installation requirements: Natural light should not be too bright; it should be enough to show the smoke at the mountaintop and the mountain itself. Ultraviolet (UV) lighting requirements are divided into two types: one is to use diffused, dim UV light to illuminate the entire mountain; the other is to use brighter UV spotlights to project onto specific areas of the lava, in order to display realistic highlights and show the true texture of the lava. See also Figure 1 , Figure 2 The ultraviolet light component 5 consists of a main light and multiple spotlights. The spotlights are evenly arranged around the upper periphery of the hollow volcanic mountain shape. One spotlight is located above the vent at the top of the hollow volcanic mountain shape, and the main light is located above the rear end of the viewing position A.

[0094] This invention's system combines lighting, smoke, and fluid technologies to simulate the effects of a volcanic eruption, achieving a variety of dreamlike scene effects that simulate the real world. This system can also be applied to special effects projects such as lava flow in lava rivers or underground blood flow, as well as projects that simulate the visual effects of smoke and fluid.

[0095] The above description is merely a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims. The information disclosed in the background section is intended only to enhance the understanding of the overall background technology of the present invention and should not be construed as an admission or implication in any way that such information constitutes prior art known to those skilled in the art.

Claims

1. A simulated volcanic eruption stunt system, characterized in that, include: Hollow volcano mountain model (1), magma eruption simulation device (2), magma overflow simulation device (3), high-temperature smoke eruption simulation device (4), and ultraviolet light assembly (5); among which, The top of the hollow volcanic mountain shape (1) is provided with an eruption vent and a magma overflow crevice, and the hollow volcanic mountain shape is provided with a magma flow channel; The magma eruption simulation device (2) is equipped with a magma eruption port, which is set at the upper eruption port inside the hollow volcanic mountain shape and can eject simulated magma outward. The magma overflow simulation device (3) is provided with a magma overflow outlet, which is located at the upper magma overflow crevice inside the hollow volcanic mountain shape (1) and can overflow and flow simulated magma outward. The magma overflow simulation device (3) is equipped with a magma pool, which is located at the bottom of the hollow volcanic mountain shape and connected to the magma flow channel on the hollow volcanic mountain shape (1), and can receive the magma flowing back. The high-temperature smoke emission simulation device (4) is equipped with a smoke emission port, which is set at the upper part of the hollow volcanic mountain shape (1) and can emit simulated high-temperature smoke outward. The ultraviolet light component (5) is installed outside the hollow volcanic mountain shape (1) and can illuminate the flowing simulated magma ejected from the eruption vent at the top of the hollow volcanic mountain shape (1).

2. The simulated volcanic eruption special effects system according to claim 1, characterized in that, The magma eruption simulation device (2) includes: The mountaintop magma pool (21), simulated magma (28), high-pressure nozzle (22), high-pressure air pipe (23), timed electromagnetic valve assembly (24), and high-pressure air output device (25); among which, The mountaintop magma pool (21) is located inside the eruption vent at the top of the hollow volcanic mountain shape (1). The upper opening of the mountaintop magma pool (21) serves as the magma eruption vent, and the mountaintop magma pool (21) is filled with simulated magma (28). The high-pressure nozzle (22) is located in the mountain top magma pool (21). The high-pressure nozzle (22) is positioned in the simulated magma (28) within the mountain top magma pool (21). The spray direction of the high-pressure nozzle (22) is towards the upper opening of the mountain top magma pool (21). The high-pressure gas output port (253) of the high-pressure gas output device (25) is connected to the high-pressure nozzle (22) via the timed electromagnetic valve assembly (24), and can supply high-pressure gas for erupting magma to the high-pressure nozzle (22).

3. The simulated volcanic eruption special effects system according to claim 2, characterized in that, There are multiple high-pressure nozzles (22), which are arranged in a ring in the simulated magma (28) of the magma pool (21) on the mountain top. Each high-pressure nozzle (22) is connected to the high-pressure air pipe (23) through a high-pressure branch pipe (26) and an air pipe connector (27).

4. The simulated volcanic eruption special effects system according to claim 2 or 3, characterized in that, The timing solenoid valve assembly (24) consists of a solenoid valve (241), an electronic timing switch (242), and a power supply (243); The electronic timer switch (242) is connected to the power supply (243) and is powered by the power supply (243); The electronic timer switch (242) is electrically connected to the solenoid valve (241) and can control the opening and closing of the solenoid valve (241) for a predetermined duration.

5. The simulated volcanic eruption special effects system according to claim 2 or 3, characterized in that, The high-pressure gas output device (25) includes: High-pressure gas storage tank (251), high-pressure gas inlet pipe (252), and control valve (255); among which, The high-pressure gas storage tank (251) is provided with an air inlet (254) and a high-pressure gas outlet (253). The air inlet (254) is connected to the high-pressure air inlet pipe (252), and the control valve (255) is provided on the high-pressure air inlet pipe (252). The high-pressure gas outlet (253) is connected to the timed solenoid valve assembly (24) and the high-pressure gas pipe (23).

6. The simulated volcanic eruption stunt system according to claim 2 or 3, characterized in that, The magma overflow simulation device (3) includes: The magma pool (31), high-pressure mud pump (32), conveying pipeline (33), and magma flow control valve (34) are described; among them, The magma pool (31) is located at the bottom of the hollow volcanic mountain shape (1); The high-pressure mud pump (32) is installed in the magma pool (31). The high-pressure mud pump (32) is connected to the magma pool (21) at the top of the magma eruption simulation device (2) via the delivery pipe (33) equipped with the magma flow control valve (34). The magma pool (21) at the top of the hollow volcanic mountain shape (1) is also located at the magma overflow crevice.

7. The simulated volcanic eruption special effects system according to any one of claims 1-3, characterized in that, The high-temperature smoke emission simulation device (4) includes: The system includes an aerosol generator (45), an aerosol transmission pipe (44), a heating wire (46), a frequency-modulated power supply (48), a high-temperature gas diversion steel ball (43), multiple high-temperature resistant gas transmission pipes (42), multiple high-temperature resistant jet steel pipe assemblies (41), and multiple spray shields (47); among which, Multiple high-temperature resistant jet steel pipe components (41) are evenly distributed at the eruption port at the top of the hollow volcanic mountain shape (1); The aerosol output port of the aerosol generator (45) is connected to one end of the aerosol transmission pipe (44); The other end of the aerosol transmission pipe (44) is connected to multiple high-temperature gas transmission pipes (42) via the high-temperature gas diversion steel ball (43). Each high-temperature gas transmission pipe (42) is connected to a high-temperature jet steel pipe assembly (41). Each high-temperature jet steel pipe assembly (41) is provided with a spray shield (47) at its top. The heating wire (46) is evenly wound around the outside of the aerosol transmission pipe (44) and electrically connected to the frequency modulation power supply (48).

8. The simulated volcanic eruption special effects system according to claim 7, characterized in that, The aerosol generator (45) includes: a sealed tank (451), multiple water mist generators (452), a misting power supply (453), a high-pressure gas delivery assembly (454), and a water delivery assembly (455); wherein, The aerosol outlet is provided at the top of the sealed tank (451); Multiple water mist generators (452) are evenly laid at the bottom of the sealed tank (451), and each water mist generator (452) is electrically connected to a mist-generating power supply (453) installed outside the sealed tank (451). The high-pressure gas transmission assembly (454) and the water transmission assembly (455) are respectively connected to the sealed tank (451).

9. The simulated volcanic eruption special effects system according to claim 8, characterized in that, The high-pressure gas transmission assembly (454) consists of a high-pressure main gas pipe (4544), two high-pressure gas transmission branch pipes (4541), a pipe splitter (4542), and a gas transmission control valve (4543); wherein, A gas delivery control valve (4543) is installed on the high-pressure main gas pipe (4544); The high-pressure main gas pipe (4544) is connected to two high-pressure gas transmission branch pipes (4541) via the gas pipe branch (4542). The other ends of the two high-pressure gas transmission branch pipes (4541) are connected to the sealed tank (451) respectively, which can deliver high-pressure gas into the sealed tank (451). The water supply assembly (455) includes: a water supply pipe (4551), a water tank valve (4553), a water tank (4552), and a water level positioning valve (4554); wherein, The water tank (4552) is connected to the sealed tank body (451) by the water supply pipe (4551) equipped with a water tank valve (4553); The water level positioning valve (4554) is installed inside the sealed tank (451) and connected to the end of the water supply pipe (4551).

10. The simulated volcanic eruption special effects system according to claim 7, characterized in that, The aerosol transmission pipe (44) is a honeycomb-shaped pipe with multiple sub-pipes inside.

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