Seismic exploration power supply device based on solar energy

Abstract

The utility model relates to the technical field of seismic exploration power supply equipment, in particular to a seismic exploration power supply device based on solar energy, and aims to solve the problems that an existing solar charging controller panel is not provided with a compass, the accuracy of the construction direction cannot be guaranteed, and the angle of the existing solar charging controller panel cannot be adjusted generally, so that the construction cost is low. A compass and a storage battery are fixed to a base, a bottom short arm of a solar panel is hinged to a lower connecting block connected to the lower portion of the base, and a T-shaped blocking handle is used for being inserted into different positioning holes, so that the solar panel is located at different angles; a middle beam is arranged on the rear portion of the solar panel, each solar auxiliary panel is connected with the middle beam through a plurality of springs, the upper portion of the base is connected with an upper connecting block, the top of the upper connecting block is rotationally connected with a pressing block, and the two sides of the upper connecting block are each connected with a limiting block. According to the scheme, the power supply requirement in the seismic exploration process is met, and installation and debugging are simpler.

Description

Technical Field

[0001] The utility model relates to the technical field of seismic exploration power supply equipment, in particular to a seismic exploration power supply device based on solar energy. Background Art

[0002] In the process of oil, coal field and engineering seismic exploration, a large number of data acquisition equipment need to be deployed on the ground, and the scope involved is relatively large. Providing power to these data acquisition equipment has become a major problem in field construction.

[0003] At present, the most widely used power source in seismic exploration is the battery, but its capacity is limited, it needs to be replaced every day, it requires a large number of people, and it is inefficient, and it cannot guarantee efficient production every day.

[0004] In recent years, in order to solve the battery life problem, some construction teams have introduced solar charge controller panels. However, in order to maximize the power supply, the direction and angle of the solar charge controller panel need to be adjusted accordingly. In terms of direction adjustment, you need to take out a compass to determine the direction. When installed north of the equator, the charge controller panel faces south. When installed south of the equator, the charge controller panel faces north. In terms of angle adjustment, you can adjust the angle according to the local latitude and the season.

[0005] The existing solar charge controller panel is not equipped with a compass, and an additional compass is required to determine the direction. Without a compass, the construction direction cannot be accurate. In addition, the existing solar charge controller panel usually cannot be adjusted in angle, and the power supply efficiency is not high if a specific angle is not reached. Utility Model Content

[0006] The purpose of the utility model is to solve the problem that the existing solar charging controller panel is not equipped with a compass and an additional compass is needed to determine the direction. If there is no compass, the construction direction cannot be accurate, and the existing solar charging controller panel usually cannot be adjusted for angle, and the power supply efficiency is low if a specific angle is not reached. A seismic exploration power supply device based on solar energy is proposed.

[0007] The utility model is implemented through the following scheme:

[0008] A solar-based seismic exploration power supply device comprises a solar panel, two solar sub-panels, a base, a lower connecting block, an upper connecting block, a pressing block, a limiting block, a T-shaped stopper, a compass, a battery and a reset spring;

[0009] The compass and the battery are fixed on the base, the battery is connected to the solar panel through wires, the bottom short arm of the solar panel is hinged to the lower connecting block connected to the bottom of the base, a cavity is provided on the side of the lower connecting block, a strip notch penetrating the lower connecting block is provided below the cavity, the main body of the T-shaped stopper is arranged in the cavity, the lower end of the T-shaped stopper passes through the strip notch, a reset spring is arranged between the end of the cavity and the T-shaped stopper, a plurality of positioning holes are arranged on the bottom short arm of the solar panel, the T-shaped stopper is used to be inserted into different positioning holes, so as to make the solar panel at different angles, a middle beam is provided at the rear of the solar panel, and two solar sub-panels are symmetrically arranged on the middle beam On both sides of the solar panel, each solar sub-panel is slidably connected to the solar panel, each solar sub-panel is connected to the middle beam through multiple springs, the top of the base is connected to the upper connecting block, the top of the upper connecting block is rotatably connected to the pressing block, and a limit block is connected to both sides of the upper connecting block. When the solar panel is laid flat, one end of the pressing block rotates to the top of the solar panel to hold the solar panel, and the limit block is located on the side of the solar sub-panel to block the solar sub-panel. When the solar panel is rotated to be tilted, the T-shaped stopper is inserted into any positioning hole supporting the solar panel to support the solar panel, and the two solar sub-panels are respectively popped out to both sides of the middle beam through the multiple springs connected thereto.

[0010] Furthermore, a limit stopper fixed above the upper connecting block is provided on one side of the pressing block.

[0011] Furthermore, a plurality of pop-up springs are fixed on the base.

[0012] Furthermore, waist-shaped holes are provided on the upper connecting block and the lower connecting block.

[0013] Furthermore, the number of the waist-shaped holes is at least three.

[0014] Furthermore, a central positioning hole is provided in the middle of the solar panel.

[0015] Beneficial effects:

[0016] The device can be folded for easy loading and transportation. It can receive sunlight to provide electricity when unfolded. Two solar panels extend from both sides of the solar panel, with a larger light-receiving area and more accumulated electricity. The device is integrated with a compass, which can quickly identify the direction when in use and reasonably set the orientation of the solar panel on the device. After the angle of the solar panel is adjusted to the optimal position, it is locked by adjusting the T-shaped gear lever to ensure that the solar panel has a high light absorption efficiency. The electricity of the device is converted into electricity after the sunlight hits the solar panel and enters the battery, meeting the power supply needs during seismic exploration. Installation and debugging are simpler, and the power supply efficiency is better. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1This is a schematic diagram of a solar-based seismic exploration power supply device of the utility model;

[0018] Figure 2 It is a schematic diagram of the solar panel and two solar sub-panels of the utility model when unfolded;

[0019] Figure 3 It is a partial cross-sectional schematic diagram of the lower connecting block and the solar panel of the utility model;

[0020] Figure 4 It is a side schematic diagram of a solar-based seismic exploration power supply device of the utility model;

[0021] Figure 5 For the utility model Figure 4 AA direction schematic diagram;

[0022] Figure 6 The schematic diagram of the solar panel of the utility model after lifting Figure 1 (Solar panel is raised about 45°);

[0023] Figure 7 The schematic diagram of the solar panel of the utility model after lifting Figure 2 (Solar panel is raised about 75°);

[0024] Figure 8 It is a schematic diagram of the connection relationship between the solar panel and two solar sub-panels of the utility model.

[0025] In the figure: 1, solar panel; 2, two solar panels; 3, base; 4, lower connecting block; 5, upper connecting block; 6, pressure block; 7, limit block; 8, middle beam; 9, spring; 10, pop-up spring; 11, limit block; 12, waist-shaped hole; 13, center positioning hole; 14, T-shaped gear handle; 15, compass; 16, battery; 17, reset spring. DETAILED DESCRIPTION

[0026] Specific implementation method 1: A solar-based seismic exploration power supply device, which includes a solar panel 1, two solar sub-panels 2, a base 3, a lower connecting block 4, an upper connecting block 5, a pressing block 6, a limit block 11, a T-shaped stopper 14, a compass 15, a battery 16 and a return spring 17;

[0027] The compass 15 and the battery 16 are fixed on the base 3, and the battery 16 is connected to the solar panel 1 through wires. The bottom short arm of the solar panel 1 is hinged to the lower connecting block 4 connected to the bottom of the base 3. A cavity is provided on the side of the lower connecting block 4, and a strip groove penetrating the lower connecting block 4 is provided below the cavity. The main body of the T-shaped stopper 14 is arranged in the cavity, and the lower end of the T-shaped stopper 14 passes through the strip groove. The reset spring 17 is arranged between the end of the cavity and the T-shaped stopper 14. A plurality of positioning holes are provided on the bottom short arm of the solar panel 1, and the T-shaped stopper 14 is used to be inserted into different positioning holes, so as to make the solar panel 1 at different angles. A middle beam 8 is provided at the rear of the solar panel 1, and two solar sub-panels 2 are symmetrically arranged on the middle beam. On both sides of 8, each solar sub-panel 2 is slidably connected to the solar panel 1, and each solar sub-panel 2 is connected to the middle beam 8 through a plurality of springs 9. The upper part of the base 3 is connected to the upper connecting block 5, and the top of the upper connecting block 5 is rotatably connected to the pressing block 6. A limit block 11 is connected to both sides of the upper connecting block 5. When the solar panel 1 is laid flat, one end of the pressing block 6 rotates to the top of the solar panel 1 to hold the solar panel 1. The limit block 11 is located on the side of the solar sub-panel 2 to block the solar sub-panel 2. When the solar panel 1 is rotated to be tilted, the T-shaped stopper 14 is inserted into any positioning hole supporting the solar panel 1 to support the solar panel 1, and the two solar sub-panels 2 are respectively popped out to both sides of the middle beam 8 through the plurality of springs 9 connected thereto.

[0028] In this embodiment: the device is in the storage state, the pressing block is located above the solar panel to press the solar panel, and the two solar panels are located at the back of the solar panel and are limited by the limiting block;

[0029] When unfolding the device, remove the pressing block above the solar panel, move the T-shaped stopper so that it is not inserted into the positioning hole of the solar panel, and after adjusting the angle of the solar panel, the two solar sub-panels are not limited by the limit block and pop out. At this time, the solar panel and the solar sub-panel are fully unfolded. Observe the direction through the compass. If the operator is on the north side of the equator, the solar panel is placed facing south. The operator then adjusts the angle of the solar panel according to the local latitude. The T-shaped stopper is inserted into the positioning hole of the solar panel to complete the limitation of the angle of the solar panel. The placement angle of the solar panel needs to take into account the latitude. Generally speaking, the higher the latitude, the smaller the incident angle of the sun's rays, and a larger placement angle is required to make the solar panel face the sun, so as to obtain more solar radiation energy. Taking the longitude and latitude of Beijing, my country as an example, Beijing is located in the northern hemisphere, and its latitude is 39 degrees and 54 minutes. In order to enable the solar panel to obtain the maximum solar radiation energy in Beijing in winter, we need to set the placement angle of the solar panel to (90-39) = 51 degrees. Similarly, if it is in a region with lower latitudes such as Guangzhou, since the change in the direct angle of the sun is not very large, the placement angle of the solar panel needs to be reduced accordingly. Multiple positioning holes of the solar panel are set as needed, and the distance between the two positioning holes is set according to actual needs.

[0030] Other implementations are the same as the first specific implementation.

[0031] Specific implementation method 2: A solar-based seismic exploration power supply device, one side of the pressing block 6 is provided with a limit stopper 7 fixed above the upper connecting block 5 .

[0032] In this embodiment: a limit stopper is provided on one side of the pressing block and fixed above the upper connecting block.

[0033] Other implementations are the same as the first specific implementation.

[0034] Specific implementation method three: A solar-based seismic exploration power supply device, wherein a plurality of pop-up springs 10 are fixed on the base 3 .

[0035] In this embodiment: a plurality of pop-up springs are fixed on the base. After the pressure block is removed from the solar panel, the pop-up springs pop out the solar panel, making it convenient to remove the solar panel from the gap between the lower connecting block and the upper connecting block. On the other hand, the pop-up springs can prevent the solar panel from colliding with the battery during transportation, thereby playing a shock-absorbing role.

[0036] Other implementations are the same as the first specific implementation.

[0037] Specific implementation method 4: A solar-based seismic exploration power supply device, wherein waist-shaped holes 12 are provided on both the upper connecting block 5 and the lower connecting block 4 .

[0038] In this embodiment: the upper connecting block and the lower connecting block are both provided with waist-shaped holes, and the waist-shaped holes are used to pass bolts to fix the device on the ground or other positions to be fixed.

[0039] Other implementations are the same as the first specific implementation.

[0040] Specific implementation method 5: A solar-based seismic exploration power supply device, wherein the number of the waist-shaped holes 12 is at least three.

[0041] In this embodiment, there are at least three waist-shaped holes to ensure that the device is relatively stable after being fixed.

[0042] Other implementations are the same as the fourth specific implementation.

[0043] Specific implementation method six: A solar-based seismic exploration power supply device, wherein a central positioning hole 13 is provided in the middle of the solar panel 1 .

[0044] In this embodiment: the central positioning hole is used to insert a bolt for positioning. When the device is installed, in order to adjust the direction to obtain more light, the bolt at the waist-shaped hole is removed and the device is rotated for adjustment. The device rotates along the bolt inserted in the central positioning hole.

[0045] Other implementations are the same as the first specific implementation.

Claims

1. A solar-based seismic exploration power supply device, characterized in that: It comprises a solar panel (1), two solar sub-panels (2), a base (3), a lower connecting block (4), an upper connecting block (5), a pressing block (6), a limit block (11), a T-shaped stopper (14), a compass (15), a storage battery (16) and a return spring (17); The compass (15) and the storage battery (16) are fixed on the base (3), the storage battery (16) is connected to the solar panel (1) through an electric wire, the bottom short arm of the solar panel (1) is hinged to the lower connecting block (4) connected to the bottom of the base (3), the side of the lower connecting block (4) is provided with a cavity, and a strip groove penetrating the lower connecting block (4) is provided below the cavity, the main body of the T-shaped stopper (14) is arranged in the cavity, the lower end of the T-shaped stopper (14) passes through the strip groove, and the return spring (17) is arranged between the end of the cavity and the T-shaped stopper (14), a plurality of positioning holes are arranged on the bottom short arm of the solar panel (1), and the T-shaped stopper (14) is used to be inserted into different positioning holes, so as to make the solar panel (1) at different angles, and a middle beam (8) is arranged at the rear of the solar panel (1), and two solar sub-panels (2) are symmetrically arranged on both sides of the middle beam (8). Each solar panel (2) is slidably connected to the solar panel (1), each solar panel (2) is connected to the middle beam (8) through a plurality of springs (9), the upper part of the base (3) is connected to an upper connecting block (5), the top of the upper connecting block (5) is rotatably connected to a pressing block (6), and two sides of the upper connecting block (5) are respectively connected to a limiting block (11), when the solar panel (1) is laid flat, one end of the pressing block (6) is rotated to the top of the solar panel (1) to press the solar panel (1), the limiting block (11) is located on the side of the solar panel (2) to block the solar panel (2), when the solar panel (1) is rotated to be tilted, the T-shaped stopper (14) is inserted into any positioning hole supporting the solar panel (1) to support the solar panel (1), and the two solar panels (2) are respectively ejected to the two sides of the middle beam (8) through the plurality of springs (9) connected thereto.

2. A solar-based seismic exploration power supply device according to claim 1, characterized in that: A limit stopper (7) fixed above the upper connecting block (5) is provided on one side of the pressing block (6).

3. The solar-based seismic exploration power supply device according to claim 1, characterized in that: A plurality of pop-up springs (10) are fixed on the base (3).

4. The solar-based seismic exploration power supply device according to claim 1, characterized in that: The upper connecting block (5) and the lower connecting block (4) are both provided with waist-shaped holes (12).

5. A solar-based seismic exploration power supply device according to claim 4, characterized in that: The number of the waist-shaped holes (12) is at least three.

6. The solar-based seismic exploration power supply device according to claim 1, characterized in that: A central positioning hole (13) is provided in the middle of the solar panel (1).

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