A portable mobile energy storage power supply

Abstract

The present invention relates to the technical field of energy storage power supply, and specifically to a portable mobile energy storage power supply, comprising: a shell, a solar panel assembly is arranged on the upper end surface of the shell, a plurality of motion sensors for detecting the rotation direction of the solar panel assembly are arranged on the edge of the upper end surface of the shell, a battery is arranged inside the shell, and a protective cover is clamped on the lower end surface of the shell; an angle adjustment mechanism, a partition is fixedly connected to the center position inside the fixed frame, and the partition divides the fixed frame from bottom to top into an installation area and an adjustment area. Through the airflow interruption component, the vibrator component and the vibration enhancement component in the vibration mechanism, the cone (cone relative to the insertion rod) can produce a vibration effect when inserted into the ground, and the soil particles are closely attached to the surface of the cone by vibration, which increases the contact area, thereby enhancing the friction and adhesion, making the cone more stable in the ground and better able to resist external forces.

Description

Technical Field

[0001] The invention relates to the technical field of energy storage power supplies, and in particular to a portable mobile energy storage power supply. Background Art

[0002] Portable mobile energy storage power supply is a power storage device that can be used in different occasions. It is usually composed of lithium batteries, solar panels and other components. They are designed to provide power for various devices, especially in the absence of a stable power supply.

[0003] The existing portable mobile energy storage power supply needs to be fixed when used in outdoor muddy land. The existing method is mostly to insert a rod into the ground to fix it, such as a portable mobile energy storage power supply for outdoor camping disclosed in publication number CN115733432A. However, the ground soil in outdoor grasslands, forests or wetlands is usually soft. Because the soil contains rich organic matter (such as animal and plant remains, etc.), the soil porosity is increased, making the adhesion and friction of the soft soil small. When the rod is inserted into the soft soil, it is easy to loosen or even pull out when it is affected by external factors such as wind, people walking, and animal collisions. In particular, when the solar panel of the mobile energy storage power supply is turned on, the wind-exposed area is increased. Under the action of wind, the rod may gradually loosen due to being unable to withstand the wind, and eventually lose its fixing effect. Summary of the invention

[0004] In view of the above-mentioned shortcomings of the prior art, the present invention provides a portable mobile energy storage power supply, which can effectively solve the problem that the prior art cannot stably fix the mobile energy storage power supply on soft ground by inserting a rod.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0006] The present invention provides a portable mobile energy storage power supply, comprising:

[0007] A shell, wherein a solar panel assembly is disposed on the upper end surface of the shell, a plurality of motion sensors for detecting the rotation direction of the solar panel assembly are disposed on the edge of the upper end surface of the shell, a protective cover is clamped on the lower end surface of the shell, and a storage battery is disposed inside the shell;

[0008] An angle adjustment mechanism, the angle adjustment mechanism includes a fixed frame fixedly connected to the inside of the shell and located below the battery, a partition is fixedly connected to the center position inside the fixed frame, the partition divides the fixed frame into an installation area and an adjustment area from bottom to top, a level detection component for detecting whether the battery is in a horizontal state is arranged at the center position inside the adjustment area, and a plurality of hydraulic rods for adjusting the angle of the battery are arranged in the adjustment area.

[0009] Compared with the known prior art, the technical solution provided by the present invention has the following beneficial effects:

[0010] 1. The vibration mechanism of the portable mobile energy storage power supply includes an airflow interruption component, a vibrator component and a vibration enhancement component. These components can make the cone produce a vibration effect when it is inserted into the ground. The vibration makes the loose soil particles compact around the cone, fills the pores, increases the contact area between the soil particles and the surface of the cone, and enhances the friction. The airflow interruption component converts the continuous airflow into an intermittent airflow to act on the vibrator component to make it vibrate. The vibration enhancement component further amplifies the vibration wave and acts on the cone, so that the cone vibrates to the required frequency. The soil particles are closely attached to the surface of the cone through vibration, increasing the contact area, enhancing the friction and adhesion, making the cone more stable on the ground and better resisting external forces.

[0011] 2. The portable mobile energy storage power supply is provided with an angle adjustment mechanism, including a horizontal detection component and a hydraulic rod. The horizontal detection component detects the horizontal state of the equipment. When the equipment is tilted, the hydraulic rod compensates for the change in the center of gravity of the battery by extension and retraction, thereby realizing the angle adjustment of the battery. In this way, when the equipment is slightly tilted, the horizontal state of the battery can be quickly adjusted to avoid damage due to tilting, reduce the probability of battery failure, and improve the stability of equipment operation.

[0012] 3. The fixing mechanism of the portable mobile energy storage power supply includes a driver, a threaded drill rod, a porous cone, a two-position three-way valve and an air bag. The driver drives the threaded drill rod to rotate so that it can drill into the ground quickly. The force generated simultaneously drives the vibration mechanism to insert into the ground to achieve collaborative work, thereby improving the smoothness and efficiency of the insertion. The two-position three-way valve and the air bag can collect the airflow used by the vibration mechanism and store it in the air bag. When the vibration mechanism is pulled out of the ground, the gas is released to provide thrust. The thrust generated helps to overcome the resistance of the soil to the vibration mechanism, making the pulling-out process easier and more convenient. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the prior art descriptions are briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention, and for ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0014] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0015] Figure 2 It is a schematic structural diagram of the overall side of the present invention;

[0016] Figure 3 It is a schematic diagram of the overall internal structure of the present invention;

[0017] Figure 4 It is a structural schematic diagram of the angle adjustment mechanism of the present invention;

[0018] Figure 5 It is a structural schematic diagram of the level detection component of the present invention;

[0019] Figure 6 It is a schematic structural diagram of the overall bottom of the present invention;

[0020] Figure 7 It is a structural schematic diagram of the fixing frame of the present invention;

[0021] Figure 8 It is a schematic diagram of the overall structure of the vibration mechanism of the present invention;

[0022] Fig. 9 It is a schematic diagram of the structure inside the vibration mechanism of the present invention;

[0023] Fig.10 It is a schematic diagram of the structure inside the airflow interruption component of the present invention;

[0024] Fig.11 It is a schematic diagram of the structure inside the vibrator assembly of the present invention;

[0025] Fig.12 It is a schematic diagram of the overall structure of the vibration enhancement assembly of the present invention;

[0026] Fig.13 It is a schematic diagram of the structure inside the vibrator assembly of the present invention;

[0027] Fig.14 It is a schematic diagram of the structure inside the vibration enhancement component of the present invention;

[0028] Fig.15 It is a schematic diagram of the structure inside the telescopic tube of the present invention;

[0029] Fig.16 It is a structural schematic diagram of the fixing seat of the present invention.

[0030] Figure numerals: 1, shell; 11, solar panel assembly; 12, motion sensor; 13, protective cover; 14, battery; 2, angle adjustment mechanism; 21, fixed frame; 22, partition; 23, hydraulic rod; 24, level detection assembly; 241, cross frame; 242, slide rail; 243, guide rod; 244, slider displacement sensor; 245, collision switch; 3, vibration mechanism; 31, protective cylinder; 32, fixing ring; 33, conical cylinder; 34, air flow interruption assembly; 341, box; 342, slider; 343, limit block; 344, compression rod; 345, first porous plate; 35, vibrator assembly; 351, cylinder; 352, second porous plate; 353, vibration block structure; 3531, gravity block; 3532, rebound rod; 354, air Flow collection structure; 3541, collection cone; 3542, connecting pipe; 36, transmission pipe; 37, vibration enhancement component; 371, shell; 372, vibration plate; 373, collection plate; 374, support rod; 375, vibration amplification structure; 3751, connection block; 3752, reflection bowl; 3753, collision block; 376, connecting rod; 38, connecting pipe; 39, mouth-shaped pipe; 310, airflow component; 3101, air compressor; 3102, air transmission pipe; 3103, three-way pipe; 3104, distribution pipe; 4, fixing mechanism; 41, driver; 42, telescopic pipe; 43, threaded drill rod; 44, fixing seat; 441, positioning hole; 442, mounting hole; 443, porous cone; 444, non-porous cone; 45, two-position three-way valve; 46, airbag. DETAILED DESCRIPTION

[0031] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0032] The present invention will be further described below in conjunction with the embodiments.

[0033] Example: Refer to Figures 1 to 16 , a portable mobile energy storage power supply, comprising:

[0034] The housing 1 has a solar panel assembly 11 disposed on the upper end surface of the housing 1. The solar panel assembly 11 includes a solar panel, a photosensitive sensor and a motor drive. The photosensitive sensor detects the direction of the sun, and the motor drive adjusts the direction of the solar panel so that it always faces the sun. The edge of the upper end surface of the housing 1 is provided with a plurality of motion sensors 12 for detecting the rotation direction of the solar panel assembly 11. The motion sensor 12 can capture the movement direction of the solar panel to determine the direction of wind resistance. A battery 14 is disposed inside the housing 1. A protective cover 13 is clamped on the lower end surface of the housing 1. The energy storage power supply also includes:

[0035] Angle adjustment mechanism 2, the angle adjustment mechanism 2 includes a fixed frame 21 fixedly connected to the inside of the housing 1 and located below the battery 14, a partition 22 is fixedly connected to the center position inside the fixed frame 21, the partition 22 divides the fixed frame 21 into an installation area and an adjustment area from top to bottom, a level detection component 24 for detecting whether the battery 14 is in a horizontal state is arranged at the center position inside the adjustment area, a plurality of hydraulic rods 23 for adjusting the angle of the battery 14 are arranged in the adjustment area, and the hydraulic rods 23 adjust the level of the battery 14 according to the detection result to ensure that it is in a horizontal state;

[0036] The vibration mechanism 3 includes a plurality of protective tubes 31 fixedly connected in a rectangular array to the lower end surface of the fixed frame 21, a fixing ring 32 and a conical tube 33 are arranged in the protective tube 31, an airflow interruption component 34 for converting a continuous airflow into an intermittent airflow is arranged inside the fixing ring 32, a vibrator component 35 for generating vibration through airflow is arranged at the center position inside the conical tube 33, a plurality of vibration enhancement components 37 for enhancing the vibration frequency are arranged in an outer annular array of the vibrator component 35, and an airflow component 310 for providing airflow to the vibrator component 35 is fixedly connected to the side of the outer shell 1.

[0037] Reference Figures 3 to 5 A plurality of hydraulic rods 23 are fixedly connected in a rectangular array at the bottom of the adjustment area near the edges on all sides, and the telescopic ends of the hydraulic rods 23 are in contact with the lower end surface of the battery 14. The horizontal detection assembly 24 includes a cross frame 241 fixedly connected to the bottom of the adjustment area, and the cross frame 241 has four slide grooves that are interconnected. The four slide grooves are symmetrically fixedly connected with slide rails 242 on opposite sides, and guide rods 243 are fixedly connected to the center positions of the two relative slide grooves. A slider type displacement sensor 244 is slidably connected to the connection between the four slide grooves, and the slider type displacement sensor 244 is slidably connected to the slide rail 242 and the guide rod 243, and a collision switch 245 is fixedly connected to each side of the slider type displacement sensor 244.

[0038] The position where the slider displacement sensor 244 slides in the cross frame 241 is used to determine the tilt direction of the device. At the same time, the tilt of the device can be calculated through the sliding distance of the slider displacement sensor 244 in the corresponding direction guide rod 243, and the collision switch 245 is used to limit the maximum tilt of the device.

[0039] Reference Figure 2 , Figure 7 The inner wall of the installation area of ​​the fixed frame 21 is fixedly connected with a square tube 39. The airflow component 310 includes an air compressor 3101 fixedly connected to the side of the shell 1. The output end of the air compressor 3101 is fixedly connected to an air supply pipe 3102. The end of the air supply pipe 3102 away from the air compressor 3101 is fixedly connected to a three-way pipe 3103. The three-way pipe 3103 has an input end and two output ends. The air supply pipe 3102 is connected to the input end of the three-way pipe 3103. Both output ends of the three-way pipe 3103 are fixedly connected to a distribution pipe 3104. The outer peripheral surface of the distribution pipe 3104 is connected to multiple branch pipes, and the end of each branch pipe away from the distribution pipe 3104 is connected to the square tube 39.

[0040] The installation area can be used to fix the U-shaped tube 39, so that the pressurized airflow transmitted from the air compressor 3101 through the air pipe 3102, the three-way pipe 3103 and the distribution pipe 3104 can enter the vibrator assembly 35 at each position through the U-shaped tube 39, so that the vibrator assembly 35 vibrates using the pressurized airflow.

[0041] Reference Figures 8 to 10 The protective tube 31 has a fixed end and a telescopic end connected up and down, the fixed end of the protective tube 31 is located at the inner bottom of the fixed frame 21, the fixed ring 32 is fixedly connected to the inner top of the protective tube 31, the airflow interruption component 34 includes a box body 341 fixedly connected to the inner bottom of the fixing ring 32, the inner middle part of the box body 341 is fixedly connected to a first porous plate 345, the top of the first porous plate 345 is slidably connected to a pair of sliders 342, the pair of sliders 342 constitute an air pressure zone in the box body 341 and the first porous plate 345, the top of the first porous plate 345 is fixedly connected to two pairs of limit blocks 343, and the two pairs of limit blocks 343 correspond to the air pressure zone, the upper end surface of the box body 341 corresponding to the air pressure zone passes through the top of the fixed end through a pipeline and is connected to the mouth-shaped tube 39, the slider 342 and the opposite surface of the box body 341 are linearly fixedly connected to a plurality of compression rods 344, and the conical tube 33 is fixedly connected to the bottom of the fixing ring 32.

[0042] By using a pair of sliders 342 and a compression rod 344 in the air flow interruption component 34, the air flow transmitted by the air compressor 3101 can be temporarily stored and then released through the first porous plate 345, thereby utilizing the time difference of the short-term storage of the air flow to convert the original continuous air flow into intermittent air flow.

[0043] Reference Figure 12 to Figure 13 The vibrator assembly 35 includes a cylinder 351 fixedly connected to the middle part of the conical cylinder 33, the top of the box body 341 is connected to the inside of the cylinder 351 through a pipeline, a second porous plate 352 is fixedly connected to the inside of the cylinder 351, and a plurality of vibration block structures 353 and a plurality of airflow collection structures 354 are alternately arranged inside the cylinder 351 and below the second porous plate 352, and the number of the vibration block structures 353 is one more than the number of the airflow collection structures 354, the vibration block structure 353 includes a gravity block 3531 arranged in the cylinder 351, and the upper and lower ends of the gravity block 3531 are fixedly connected to a plurality of rebound rods 3532, and the airflow collection structure 354 includes a pair of collection cones 3541 slidably connected to the inner wall of the cylinder 351, and the pair of collection cones 3541 are mirror-imaged, and the opposite surfaces of the pair of collection cones 3541 are fixedly connected to a connecting pipe 3542;

[0044] The rebound rod 3532 located at the top of the cylinder 351 is fixedly connected to the bottom of the second porous plate 352, the rebound rod 3532 located in the middle of the cylinder 351 is fixedly connected to the collecting cone 3541, the rebound rod 3532 located at the bottom of the cylinder 351 is fixedly connected to the bottom of the cylinder 351, and the bottom annular array of the cylinder 351 is fixedly connected to multiple transmission pipes 36, and one end of the transmission pipe 36 away from the cylinder 351 is fixedly connected to a multi-way pipe, and one of the ports of the multi-way pipe is fixedly connected to a connecting pipe 38.

[0045] By utilizing intermittent airflow to act on the gravity block 3531 in the vibrator assembly 35, the gravity block 3531 drops when subjected to the air pressure of the airflow, compressing the rebound rod 3532 below the gravity block 3531 and compressing and stretching the rebound rod 3532 above the gravity block 3531. When the air pressure of the airflow disappears, the originally compressed and stretched rebound rod 3532 will rebound.

[0046] Reference Fig.12 , Fig.14The vibration enhancement component 37 includes a shell 371 fixedly connected to the outer circumferential surface of the cylinder 351, and one end of the shell 371 away from the cylinder 351 is fixedly connected to the inner wall of the conical cylinder 33, and a plurality of vibration plates 372 are fixedly connected in a linear array on opposite sides of the shell 371, and a plurality of collecting plates 373 corresponding to the vibration plates 372 are fixedly connected in a linear array on the inner wall of the shell 371, and the upper and lower inner walls of the shell 371 are fixedly connected to support rods 374, and a plurality of vibration amplification structures 375 are arranged at one end of the support rod 374 away from the shell 371. The vibration amplification structure 375 includes a connecting block 3751 fixedly connected to one end of the support rod 374, and a reflection bowl 3752 is fixedly connected to the four sides of the connecting block 3751, and the opposite surfaces of any two adjacent connecting blocks 3751 are fixedly connected to collision blocks 3753, and the edges of the opposite surfaces of any two adjacent connecting blocks 3751 are fixedly connected to a plurality of connecting rods 376.

[0047] The vibration amplification structure 375 in the vibration enhancement component 37 can enhance the vibration waves transmitted by the vibrator component 35 by emitting them. At the same time, the vibration waves reflected by the collecting plate 373 are directed and converged to act on the vibration plate 372 at the corresponding position, and the vibration plate 372 further enhances the vibration waves.

[0048] Reference Figures 1 to 6 , and also includes a fixing mechanism 4, which includes a driver 41 fixedly connected to the bottom center position of the fixing frame 21, a telescopic tube 42 corresponding to the driver 41 is fixedly connected to the bottom of the fixing frame 21, and a threaded drill rod 43 corresponding to the telescopic tube 42 is rotatably connected to the bottom of the fixing frame 21, and the threaded drill rod 43 is located in the telescopic tube 42, and the output end of the driver 41 passes through the bottom of the fixing frame 21 and is fixedly connected to the central axis of the threaded drill rod 43.

[0049] The driver 41 in the fixing mechanism 4 is used to drive the threaded drill rod 43 to rotate, so that the threaded drill rod 43 can drill into the ground at a low speed. At the same time, the force generated by the threaded drill rod 43 drilling into the ground can help the vibrator assembly 35 to quickly enter the ground.

[0050] Reference Figure 15 to Figure 16 One end of the cylinder 351 away from the fixing frame 21 is fixedly connected to a fixing seat 44. One end of the fixing seat 44 away from the cylinder 351 is provided with a positioning hole 441 and a plurality of mounting holes 442. The positioning hole 441 corresponds to the position of the conical cylinder 33, and the plurality of mounting holes 442 are arranged in a circular array at one end of the fixing seat 44 with the positioning hole 441 as the center.

[0051] Two of the mounting holes 442 are fixedly connected with porous cones 443, and the remaining mounting holes 442 are fixedly connected with non-porous cones 444. Two two-position three-way valves 45 are fixedly connected to one end of the fixed seat 44 facing the cylinder 351, and the two two-position three-way valves 45 correspond to the porous cones 443. The two-position three-way valve 45 has two output ends and one input end. The input end of the two-position three-way valve 45 is connected to one end of the connecting pipe 38 away from the multi-way pipe. One of the output ends of the two-position three-way valve 45 is connected to the porous cone 443 through a pipeline penetrating the fixed seat 44, and the other output end of the two-position three-way valve 45 is connected to an air bag 46 fixedly connected to the top of the two-position three-way valve 45 through a pipeline.

[0052] The two-position three-way valve 45 and the air bag 46 can store indirect airflow acting on the vibrator assembly 35. When the vibrator assembly 35 is pulled out from the ground, the two-position three-way valve 45 releases the gas in the air bag 46 through the porous cone 443 to generate a reaction force to help the vibrator assembly 35 to be pulled out.

[0053] The operating principle of this embodiment is as follows:

[0054] Step 1: When the portable mobile energy storage power supply is used outdoors, the protective cover 13 fixed in the housing 1 by the buckle is first manually disassembled, so that the vibration mechanism 3 and the fixing mechanism 4 for fixing the device (the device in this solution refers to the portable mobile energy storage power supply) located at the bottom of the housing 1 are exposed, and the protective cover 13 can protect the vibration mechanism 3 and the fixing mechanism 4 during the movement of the device to prevent the vibration mechanism 3 and the fixing mechanism 4 from scratching the user when the device moves. Then the device is placed on the ground outdoors. As the device contacts the ground, the threaded drill rod 43 in the fixing mechanism 4 is driven by the driver 41 (driver The threaded drill rod 43 starts to drill into the ground. As the threaded drill rod 43 drills into the ground, the telescopic tube 42 originally used to protect the threaded drill rod 43 is compressed due to the ground pressure, so that the threaded drill rod 43 can be drilled into the ground smoothly. The traction force generated by the continuous penetration of the threaded drill rod 43 into the ground drives the device to descend as a whole. In addition, the device itself is powered by the battery 14 and other accessories. The existence of the device makes the device have a certain weight, so the vibration mechanism 3 and the threaded drill rod 43 are inserted into the ground synchronously (the function and process of the vibration mechanism 3 when inserted into the ground will be introduced later), and when the device needs to be moved or used, the driver 41 starts to rotate in the opposite direction, so that the threaded drill rod 43 also starts to rotate in the opposite direction, and the vibration mechanism 3 and the threaded drill rod 43 are pulled out from the ground synchronously (the threaded drill rod 43 is designed to be small in size and slow in speed to prevent soil from being brought out when drilling into the ground. The principle is: small size and slow speed bring smaller contact area and adhesion, and the small centrifugal force generated by the slow speed is conducive to the soil falling back under the obstruction of the borehole wall, and the small borehole causes mud The small amount of soil makes the gravity effect obvious and causes the soil to fall, and the narrow space makes the soil stirring gently during slow rotation, and the interaction between the soil keeps it in the borehole); the traction force generated by the threaded drill rod 43 drilling into the ground drives the entire device to descend, and its power is fully utilized to provide additional powerful power for the vibration mechanism 3 to be inserted into the ground. The threaded drill rod 43 and the vibration mechanism 3 are inserted into the ground simultaneously to make the device tightly combined with the ground. The threaded drill rod 43 rotates to drill into the soil to squeeze and turn it over, and the vibration mechanism 3 vibrates to make the soil particles more compact. Under the dual action, the device can be better fixed to the ground, enhance the ability to resist external forces, ensure stability, and reduce the risk of shaking or tipping. At the same time, the reverse rotation of the threaded drill rod 43 can help the vibration mechanism 3 quickly get out of the ground.

[0055] Among them, during the process of the vibration mechanism 3 and the threaded drill rod 43 drilling into the ground synchronously, the protective tube 31 and the fixing seat 44 in the vibration mechanism 3 are squeezed and compressed by the ground (the protective tube 31 and the fixing seat 44 are made of flexible materials), so that the porous cone 443 and the non-porous cone 444 in the positioning hole 441 and the mounting hole 442 of the fixing seat 44 are inserted into the ground. The two have different functions. The non-porous cone 444 can enhance the friction and contact area between the vibration mechanism 3 and the ground, and provide lateral support to prevent side sliding. Otherwise, the vibration mechanism 3 will slide sideways when subjected to external force on the soft ground, affecting the work and even damaging the equipment or failing to fix it; the porous cone 443 is connected to the two-position three-way valve 45 and the air bag 46. The airflow after driving the vibration mechanism 3 can be collected in the air bag 46 through the two-position three-way valve 45. When the equipment is out of the ground, the gas released by the air bag 46 is transmitted to the porous cone 443, and the reaction force generated by the exhaust gas can assist in pulling out the vibration mechanism 3.

[0056] Step 2: When the threaded drill rod 43 starts to drill into the ground, the conical tube 33 in the vibration mechanism 3 starts to be inserted into the ground. As the conical tube 33 is inserted into the ground, the protective tube 31 of the protective conical tube 33 also starts to be squeezed and compressed by the ground.

[0057] When the conical cylinder 33 is inserted into the ground, the air compressor 3101 in the airflow component 310 starts to start synchronously, and transmits the compressed air (compressed air is hereinafter referred to as airflow) to the three-way pipe 3103 through the air supply pipe 3102, and the three-way pipe 3103 disperses the airflow and transmits the dispersed airflow to the U-shaped pipe 39 through the distribution pipe 3104. The U-shaped pipe 39 can further evenly transmit the airflow to the airflow interruption component 34 in the conical cylinder 33 located at different positions at the bottom of the shell 1, and the airflow interruption component 34 is used to convert the continuous airflow transmitted by the air compressor 3101 into intermittent airflow; when the continuous airflow is transmitted to the airflow interruption component 34, it will first be temporarily stored in the air pressure area formed by a pair of sliders 342 in the box body 341, and as the continuous airflow enters, it will push the pair of sliders 342 to slide in the opposite direction, but the slider 342 is provided with a compression rod 344, so it will The sliding of 42 causes resistance, and as the continuous airflow continues to enter the air pressure zone, the air pressure in the air pressure zone will continue to increase, causing the compression rod 344 to begin to shrink. As the compression rod 344 shrinks, the distance between the pair of sliders 342 begins to grow farther and farther (indicating that the range of the air pressure zone is getting larger and larger). When the slider 342 slides a certain distance in the box body 341, the slider 342 will include the holes in the first porous plate 345 within the range of the air pressure zone, so that the gas stored in the air pressure zone is released from the holes in the first porous plate 345 to the lower layer of the box body 341. As the gas in the air pressure zone is released, the air pressure of the gas in the air pressure zone will decrease. At this time, the air pressure in the air pressure zone cannot resist the force of the compression rod 344, causing the pair of sliders 342 to begin to move relative to each other (the relative movement of the pair of sliders 342 indicates that the range of the air pressure zone gradually returns to its original state), and the limit block 343 can limit the relative movement of the pair of sliders 342, thereby ensuring the original specifications of the air pressure zone.

[0058] The continuous airflow is continuously stored to enhance the air pressure in the air pressure zone, thereby pushing the release of the slider 342. The time difference of the short-term stored airflow is used to convert the original continuous airflow into intermittent airflow, and the intermittent airflow is further transmitted to the cylinder 351 of the vibrator assembly 35.

[0059] Among them, when the intermittent airflow is transmitted to the cylinder 351, the second porous plate 352 located inside the cylinder 351 can preliminarily disperse and adjust the airflow entering the cylinder 351. When the airflow passes through the small holes on the second porous plate 352, it will be divided into smaller airflow beams, so that the airflow distribution in the cylinder 351 is more uniform. At the same time, the second porous plate 352 can also play a certain buffering role, reducing the force of the airflow directly impacting the internal components, protecting the gravity block 3531 and the rebound rod 3532 and other components. The intermittent airflow passing through the second porous plate 352 will act on the gravity block 3531. Since the gravity block 3531 has a large mass, the airflow transmitted to the cylinder 351 is intermittent airflow, so the gravity block 3531 will drop when affected by the airflow. When the force block 3531 descends, the rebound rod 3532 below is compressed, and the rebound rod 3532 above is stretched. When the airflow disappears, the originally compressed and stretched rebound rod 3532 will rebound, so that the gravity block 3531 rises. Therefore, with the continuous entry of intermittent airflow, the gravity block 3531 will also reciprocate, thereby generating a vibration effect, and then the entire vibration mechanism 3 will generate a vibration effect (the reset movement of the gravity block 3531 is periodic, and the action and disappearance of the air pressure of the airflow will cause its up and down movement cycle. This periodic movement allows the gravity block 3531 to exert a periodic force on the surrounding structures such as the cylinder 351. According to Newton's third law, the cylinder 351 generates a reaction force on the gravity block 3531, so that the gravity block 3531 maintains a reciprocating motion state);

[0060] Moreover, during the reciprocating process of the gravity block 3531, the airflow will gradually attenuate. At this time, the collecting cone 3541 and the connecting pipe 3542 play an important role. They can gather the attenuated airflow again, enhance the air pressure and act on the gravity block 3531 again. This supplementary effect ensures that the gravity block 3531 can always obtain sufficient airflow energy during the vibration process, avoiding the situation where the vibration is weakened or stopped due to airflow attenuation. It enables the vibration mechanism 3 to maintain a stable vibration frequency and intensity for a long time, thereby improving the effect of the vibration mechanism 3 when inserted into soft soil.

[0061] The vibration waves generated by the vibrator assembly 35 will be further amplified by the vibration enhancement assembly 37. When the vibration waves generated by the vibrator assembly 35 are transmitted to the vibration enhancement assembly 37, they will first act on the vibration amplification structure 375 in the vibration enhancement assembly 37. The reflection bowls 3752 fixedly connected around the vibration amplification structure 375 can reflect and focus the vibration waves, thereby increasing the intensity of the vibration. Meanwhile, the collision blocks 3753 on the opposite sides of two adjacent connection blocks 3751 will collide with each other during the vibration process, thereby further increasing the amplitude of the vibration. The connecting rod 376 (the connecting rod 376 is made of a flexible material) plays a role in connecting the adjacent connection blocks 3751, thereby increasing the stability of the entire vibration amplification structure.

[0062] The collecting plate 373 can reflect and directionally converge vibration waves from different directions according to its own shape and position, and concentrate the scattered vibration waves on the vibration plate 372, thereby improving the utilization efficiency of vibration energy. After receiving these vibration waves, the vibration plate 372 resonates, further increasing the vibration amplitude and enhancing the vibration waves again. The enhanced vibration is transmitted to the conical tube 33 through the shell 371, so that the soil particles can be closely arranged when the conical tube 33 is inserted into the ground, thereby enhancing friction and adhesion.

[0063] The indirect airflow acting on the vibration mechanism 3 will be transmitted to the two-position three-way valve 45 through the connecting pipe 38 after use, so that the airbag 46 can store the indirect airflow.

[0064] Step 3: After the vibration mechanism 3 and the fixing mechanism 4 have completed fixing the device, the horizontal detection component 24 in the angle adjustment mechanism 2 can monitor the horizontal state of the battery 14 in real time;

[0065] The cross frame 241 detects the tilt of the equipment through the arm span in four directions. The slide rail 242 provides a stable sliding track for the slider displacement sensor 244. The slider displacement sensor 244 is slidably connected to the guide rod 243 for accurately sensing the tilt. At the same time, the guide rod 243 limits its range of motion. The slider displacement sensor 244 is a core component. When the equipment is tilted, it slides along the guide rod 243 in the tilt direction. Its position change can determine the tilt direction. The collision switch 245 can limit the maximum tilt of the equipment. When contact is made, an early warning is issued requiring manual intervention. The controller controls the extension and retraction of the hydraulic rod 23 according to the tilt direction and tilt information of the slider displacement sensor 244 to adjust the horizontal state of the battery 14. This method can quickly and accurately adjust when the tilt is small to avoid damage to the battery 14.

[0066] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the protection scope of the technical solutions of the embodiments of the present invention.

Claims

1. A portable mobile energy storage power source, comprising a housing (1), a solar panel assembly (11) being arranged on the upper end surface of the housing (1), a plurality of motion sensors (12) for detecting the rotation direction of the solar panel assembly (11) being arranged on the edge of the upper end surface of the housing (1), a storage battery (14) being arranged inside the housing (1), characterized in that: The lower end surface of the housing (1) is clamped with a protective cover (13), and the energy storage power supply further comprises: An angle adjustment mechanism (2), the angle adjustment mechanism (2) comprising a fixed frame (21) fixedly connected to the inside of the housing (1) and located below the storage battery (14), a partition (22) fixedly connected to the center position inside the fixed frame (21), the partition (22) dividing the fixed frame (21) into an installation area and an adjustment area at the top and bottom, a level detection component (24) for detecting whether the storage battery (14) is in a horizontal state is arranged at the center position inside the adjustment area, and a plurality of hydraulic rods (23) for adjusting the angle of the storage battery (14) are arranged in the adjustment area; A vibration mechanism (3), the vibration mechanism (3) comprising a plurality of protective tubes (31) fixedly connected in a rectangular array to the lower end surface of a fixed frame (21), a fixing ring (32) and a conical tube (33) being arranged inside the protective tube (31), an airflow interruption component (34) for converting a continuous airflow into an intermittent airflow being arranged inside the fixing ring (32), a vibrator component (35) for generating vibrations through airflow being arranged at a central position inside the conical tube (33), a plurality of vibration enhancement components (37) for enhancing the vibration frequency being arranged in an annular array outside the vibrator component (35), and an airflow component (310) for providing airflow to the vibrator component (35) being fixedly connected to a side surface of the housing (1); A plurality of hydraulic rods (23) are fixedly connected in a rectangular array to the bottom of the adjustment area near the edges on all sides, the telescopic ends of the hydraulic rods (23) are in contact with the lower end surface of the battery (14), the horizontal detection assembly (24) comprises a cross frame (241) fixedly connected to the bottom of the adjustment area, the cross frame (241) having four slide grooves connected to each other, the four slide grooves having slide rails (242) fixedly connected to opposite sides symmetrically, the two opposite slide grooves having guide rods (243) fixedly connected to the center positions inside the slide grooves, the four slide grooves having a slider type displacement sensor (244) slidably connected to the connecting point, the slider type displacement sensor (244) being slidably connected to the slide rail (242) and the guide rod (243), and each side of the slider type displacement sensor (244) having a collision switch (245) fixedly connected; A fixing mechanism (4), the fixing mechanism (4) comprising a driver (41) fixedly connected to the center position of the bottom of the fixing frame (21), a telescopic tube (42) corresponding to the driver (41) fixedly connected to the bottom of the fixing frame (21), a threaded drill rod (43) corresponding to the telescopic tube (42) rotatably connected to the bottom of the fixing frame (21), the threaded drill rod (43) being located in the telescopic tube (42), and an output end of the driver (41) passing through the bottom of the fixing frame (21) and fixedly connected to the center axis of the threaded drill rod (43).

2. A portable mobile energy storage power source according to claim 1, characterized in that: The inner wall of the mounting area of ​​the fixing frame (21) is fixedly connected to a U-shaped tube (39) around its periphery. The airflow assembly (310) comprises an air compressor (3101) fixedly connected to the side of the housing (1). The output end of the air compressor (3101) is fixedly connected to an air supply pipe (3102). The end of the air supply pipe (3102) away from the air compressor (3101) is fixedly connected to a three-way pipe (3103). The three-way pipe (3103) has an input end and two output ends. The air supply pipe (3102) is connected to the input end of the three-way pipe (3103). Both output ends of the three-way pipe (3103) are fixedly connected to a distribution pipe (3104). The outer peripheral surface of the distribution pipe (3104) is connected to a plurality of branch pipes. The end of each branch pipe away from the distribution pipe (3104) is connected to the U-shaped tube (39).

3. A portable mobile energy storage power source according to claim 1, characterized in that: The protective tube (31) has a fixed end and a telescopic end connected up and down, the fixed end of the protective tube (31) is located at the inner bottom of the fixed frame (21), the fixed ring (32) is fixedly connected to the inner top of the protective tube (31), the airflow interruption component (34) comprises a box body (341) fixedly connected to the inner bottom of the fixed ring (32), a first porous plate (345) is fixedly connected to the inner middle of the box body (341), a pair of sliders (342) are slidably connected to the top of the first porous plate (345), and the pair of sliders (342) are connected to the inner bottom of the fixed ring (32). The box body (341) and the first porous plate (345) form an air pressure zone, the top of the first porous plate (345) is fixedly connected with two pairs of limit blocks (343), and the space between the two pairs of limit blocks (343) corresponds to the air pressure zone, the upper end surface of the box body (341) corresponding to the air pressure zone passes through the top of the fixed end through a pipeline and is connected to the square tube (39), the sliding block (342) and the opposite surface of the box body (341) are fixedly connected with a plurality of compression rods (344) in a linear array, and the conical cylinder (33) is fixedly connected to the bottom of the fixing ring (32).

4. A portable mobile energy storage power source according to claim 3, characterized in that: The vibrator assembly (35) comprises a cylinder (351) fixedly connected to the middle part of the conical cylinder (33); the top of the box (341) is connected to the inside of the cylinder (351) through a pipeline; a second porous plate (352) is fixedly connected to the inside of the cylinder (351); a plurality of vibration block structures (353) and a plurality of airflow collection structures (354) are alternately arranged inside the cylinder (351) and below the second porous plate (352); and the number of the vibration block structures (353) is greater than the number of the airflow collection structures (354). The number of structures (354) is one more, the vibration block structure (353) comprises a gravity block (3531) arranged in the cylinder (351), the upper and lower ends of the gravity block (3531) are fixedly connected to a plurality of rebound rods (3532), the airflow converging structure (354) comprises a pair of converging cones (3541) slidably connected to the inner wall of the cylinder (351), the pair of converging cones (3541) are arranged in a mirror image, and the opposite surfaces of the pair of converging cones (3541) are fixedly connected to a connecting pipe (3542); The rebound rod (3532) located at the top of the cylinder (351) is fixedly connected to the bottom of the second porous plate (352), the rebound rod (3532) located in the middle of the cylinder (351) is fixedly connected to the collecting cone (3541), and the rebound rod (3532) located at the bottom of the cylinder (351) is fixedly connected to the bottom of the cylinder (351). The bottom annular array of the cylinder (351) is fixedly connected to a plurality of transmission tubes (36), one end of the transmission tube (36) away from the cylinder (351) is fixedly connected to a multi-way tube, and one of the ports of the multi-way tube is fixedly connected to a connecting tube (38).

5. A portable mobile energy storage power source according to claim 1, characterized in that: The vibration enhancement component (37) comprises a shell (371) fixedly connected to the outer peripheral surface of the cylinder (351); one end of the shell (371) away from the cylinder (351) is fixedly connected to the inner wall of the conical cylinder (33); a plurality of vibration plates (372) are fixedly connected in a linear array on opposite sides of the shell (371); a plurality of collecting plates (373) corresponding to the vibration plates (372) are fixedly connected in a linear array on the inner wall of the shell (371); the upper and lower inner walls of the shell (371) are fixedly connected to support rods (374); the support rods (374) are fixedly connected to the inner wall of the shell (371); A plurality of vibration amplifying structures (375) are provided at one end of the rod (374) away from the shell (371), and the vibration amplifying structures (375) include a connecting block (3751) fixedly connected to one end of the support rod (374), the connecting block (3751) is fixedly connected to a reflection bowl (3752) on all four sides, the opposite surfaces of any two adjacent connecting blocks (3751) are fixedly connected to a collision block (3753), and the edges of the opposite surfaces of any two adjacent connecting blocks (3751) are fixedly connected to a plurality of connecting rods (376).

6. A portable mobile energy storage power source according to claim 5, characterized in that: One end of the cylinder (351) away from the fixed frame (21) is fixedly connected to a fixed seat (44); one end of the fixed seat (44) away from the cylinder (351) is provided with a positioning hole (441) and a plurality of mounting holes (442); the positioning hole (441) corresponds to the position of the conical cylinder (33); and the plurality of mounting holes (442) are provided in a circular array at one end of the fixed seat (44) with the positioning hole (441) as the center; Two of the mounting holes (442) are fixedly connected with a porous cone (443), and the remaining mounting hole (442) is fixedly connected with a non-porous cone (444). One end of the fixing seat (44) facing the cylinder (351) is fixedly connected with two two-position three-way valves (45), and the two two-position three-way valves (45) correspond to the porous cones (443). The two-position three-way valve (45) has two output ends and one input end. The input end of the two-position three-way valve (45) is connected with an end of the connecting pipe (38) away from the multi-way pipe. One of the output ends of the two-position three-way valve (45) is connected with the porous cone (443) through a pipeline penetrating the fixing seat (44), and the other output end of the two-position three-way valve (45) is connected with an air bag (46) fixedly connected to the top of the two-position three-way valve (45) through a pipeline.

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