Internet of Things type water level measuring device

Abstract

The invention discloses an internet of things type water level measuring device which comprises a lifting adjusting mechanism and an optical fiber output mechanism, a buoyancy starting component assembled through a bolt is arranged at the top end of the lifting adjusting mechanism, and a photoelectric detection mechanism connected through a bolt in a sleeved mode is arranged on the inner side of the buoyancy starting component. A control communication assembly assembled through bolts is arranged on the side of the upper portion of the buoyancy starting component, and a height adjusting mechanism assembled through bolts is arranged on the side of the control communication assembly. According to the device disclosed by the invention, the carrying rod group, the sliding duct and the spherical sleeve block on the open shell are mainly utilized, so that the optical fiber on the cable barrel frame is output, and the output optical fiber can be connected to a control platform of a user; by controlling the communication assembly, the photoelectric detection mechanism, the height adjusting mechanism and the acceleration propulsion mechanism, the device can detect the water channel at different places, so that the use cost is reduced, the anti-interference capability of the device can be improved, and the cost performance of the device is improved.

Description

Technical Field

[0001] The invention relates to the technical field of water level measurement, in particular to an Internet of Things type water level measurement device. Background Art

[0002] The purpose of water level measurement must first be confirmed, whether it is to monitor the height of the water level in real time or to alarm at a certain position, so as to determine whether to choose a switch or continuous sensor. The simplest one is a water level probe. Water level measurement is mainly achieved by measuring the vertical distance between the water surface and a certain reference surface. This reference surface can be an absolute reference surface such as the Yellow Sea reference surface, or a reference surface of a specific measuring station. The change in water level reflects the increase or decrease of the water condition of the water body and is the most intuitive factor in hydrological observation. The principle of capacitive water level switch: it uses the tiny capacitance difference caused by the detection of water level changes, and the dedicated ADA capacitance detection chip performs signal processing, which can output a variety of signal communication protocols. The principle of electronic water level switch: the water level is detected by the built-in electronic probe The chip then processes the detected signal. When it is determined that there is water, the chip outputs a high level of 24V or 5V, etc. When it is determined that there is no water, the chip outputs 0V. The principle of the electrode water level switch: The electrode water level switch is composed of an integrated measurement system consisting of a primary electrode sensor and a secondary controller. The liquid level switch is installed on the top of the container or on the wall of the container, and the electrode is inserted into the liquid. The principle of the photoelectric liquid level switch: It uses infrared detection and the principle of light refraction and reflection. The light will produce reflection or refraction at the interface of two different media. The water level observation content includes riverbed changes, flow potential, flow direction, flood diversion, ice conditions, aquatic plants, waves, wind direction, wind force, water surface fluctuation, water temperature and other factors that affect water level changes. The observation tools include water rulers and water level gauges. Generally, they are measured 1 to 2 times a day, and the gradient of the water surface can be measured when necessary.

[0003] When the existing Internet of Things type water level measuring device is in use, such as application number CN202223166093.4 discloses an Internet of Things type water level measuring device, which relates to the field of water level measurement technology and includes a base, the upper surface of the base is fixedly connected to a first support plate, the upper surface of the base is fixedly installed with a first motor, the output shaft of the first motor is fixedly connected to an active bevel gear, the inner wall of the first support plate is symmetrically rotatably connected to a first rotating shaft, and the end of the first rotating shaft close to the active bevel gear is fixedly connected to a driving bevel gear, and the driving bevel gear is meshingly connected to the active bevel gear. The Internet of Things type water level measuring device, through the coordination arrangement between the first motor, the active bevel gear, the driving bevel gear, the first rope collection seat, the first wire rope and the floating box, can retract the floating box when the floating box floats on the water surface in bad weather, so as to avoid the floating box being hit by waves in the water and avoiding damage to the floating box; however, in the above technology, detection is mainly carried out at a fixed position, and its cost and detection effect are not good, the cost performance ratio is low, and interference is easily generated. Therefore, we propose an Internet of Things type water level measuring device to solve the above problems. Summary of the invention

[0004] In view of the above problems, the present invention proposes an Internet of Things type water level measuring device, which mainly utilizes the mounting rod group, sliding duct and spherical sleeve block on the open shell to enable the optical fiber on the cable drum rack to output. After the output, the optical fiber can be connected to the user's control platform. By controlling the communication components, photoelectric detection mechanism, height adjustment mechanism and acceleration propulsion mechanism, the device can detect the waterway at different locations, thereby reducing the use cost, improving the anti-interference ability of the equipment, and improving the cost performance of the equipment.

[0005] To achieve the above object, the present invention provides the following technical solutions: An Internet of Things type water level measuring device includes a lifting and lowering adjustment mechanism and an optical fiber output mechanism, a buoyancy activation component assembled with bolts is arranged at the top of the lifting and lowering adjustment mechanism, and a photoelectric detection mechanism assembled with bolts is arranged on the inner side of the buoyancy activation component, a control communication component assembled with bolts is arranged on the upper side of the buoyancy activation component, and a height adjustment mechanism assembled with bolts is arranged on the side of the control communication component, an acceleration propulsion mechanism is arranged inside the control communication component, and an optical fiber output mechanism assembled with bolts is arranged above one end of the control communication component.

[0006] As a further technical solution, the lifting and lowering adjustment mechanism includes a bolt support, a bottom hinged base, a transverse base, a lower hinged base, a side cylinder, an upper hinged base, a lower connecting frame, an expansion cylinder, a lower hinged base, a shock absorber and a pad base, the bottom end of the bolt support is provided with a bottom hinged base, and a hinge-connected transverse base is provided below the bottom hinged base, a hinge-connected lower hinged base is provided on one side of the transverse base, and an output end connected to the side cylinder is provided on one side of the lower hinged base, an upper hinged base is provided on one end of the side cylinder, a hinge-connected lower connecting frame is provided on the other side of the transverse base, and the output end of the expansion cylinder is provided on one side of the lower connecting frame, a hinge-connected lower hinged base is provided on one end of the lower connecting frame, a shock absorber is provided below the lower hinged base, and a pad base is provided below the shock absorber.

[0007] As a further technical solution, the buoyancy activation component includes a bottom duct base, a surrounding bar, an air valve pump cabin, an air inlet nozzle, a connecting pipe and an inflatable airbag, the bottom duct base is bolted to the top of the bolt bracket, a surrounding bar is arranged on the outer side of the bottom duct base, and an air valve pump cabin is arranged on the outer end of the surrounding bar, an air inlet nozzle is arranged above the air valve pump cabin, a connecting pipe installed in a sleeve manner is arranged at the output end of the air valve pump cabin, and an inflatable airbag is arranged at the output end of the connecting pipe.

[0008] As a further technical solution, the photoelectric detection mechanism includes a transmission inner cabin, an electric rotating column, a driving gear, a driven gear ring, a rotating base column, a first inner cylinder, a first brake rack, a rotating shaft, a slotted base plate, an electric articulated seat, a spherical base and a camera probe, the transmission inner cabin is bolted on the inner side of the bottom duct base, an electric rotating column is arranged on the inner side of one end of the transmission inner cabin, and a driving gear is arranged on the output end of the electric rotating column, a driven gear ring is arranged on the output end of the driving gear, and a rotating base column is arranged on the inner side of the driven gear ring, a first inner cylinder is arranged on the inner side of the other end of the transmission inner cabin, and a first brake rack is arranged on the output end of the first inner cylinder.

[0009] As a further technical solution, a rotating shaft is provided at the output end of the rotating base column, and a slotted base is provided at the output end of the rotating shaft, an electric articulated seat is provided on the inner side of the slotted base, and a spherical base is provided at the output end of the electric articulated seat, and a camera probe is provided on one side of the spherical base.

[0010] As a further technical solution, the control and communication component includes a side frame, a top duct base, a photovoltaic panel, a spiral connecting plate, a duct sleeve, a battery, a control box, a satellite antenna and a signal antenna. The side frame is bolted to the outer side of the bottom duct base, a top duct base is arranged at the top of the side frame, photovoltaic panels are arranged above both ends of the top duct base, the inner side of the top duct base is connected to the duct sleeve through spiral connecting plate bolts, and a battery is arranged on the inner side of the duct sleeve, a control box is arranged above the duct sleeve, a satellite antenna is arranged above the control box, and a signal antenna is arranged on the side of the control box.

[0011] As a further technical solution, the height adjustment mechanism includes a side lining plate, a bolt base, a connecting frame base, an angle base, an extension frame, an expansion and contraction cylinder, a brushless motor seat, a rotating shaft rod and a rotor blade. The side lining plate is bolted to the side of the top duct base, a bolt base is arranged on the outer side of the side lining plate, a connecting frame base is arranged on the outer side of the bolt base, angle bases are arranged on the inner sides of both ends of the connecting frame base, and an extension frame is arranged on one side of the angle base, an output end connected to the expansion and contraction cylinder is arranged on one side of the extension frame, a brushless motor seat is arranged on the outer end of the extension frame, a rotating shaft rod is arranged on the output end of the brushless motor seat, and rotor blades are arranged on the side of the rotating shaft rod.

[0012] As a further technical solution, the acceleration propulsion mechanism includes an angle gear, an adjustment rack, a threaded block, a screw, a motor base, a second brake rack, a second inner cylinder, an angle shaft, a brushless motor compartment, a rotating base and a propulsion blade. The angle gear is arranged inside the top duct base, an adjustment rack is arranged above the angle gear, and a threaded block is arranged above the adjustment rack, the threaded block is threadedly connected with a screw, and a motor base is arranged at both ends of the screw, a second brake rack connected to the output end of the second inner cylinder is arranged below the angle gear, an angle shaft is arranged at the output end of the angle gear, and a brushless motor compartment is arranged at one end of the angle shaft, a rotating base is arranged at the output end of the brushless motor compartment, and a propulsion blade is arranged at the output end of the rotating base.

[0013] As a further technical solution, the optical fiber output mechanism includes a top substrate, a sliding base, a carrying rod group, a sliding duct, a spherical sleeve, an open shell, an inserted cylinder group, an elastic plug, a cable drum rack and optical fiber. The top substrate is bolted to the top of one end of the top duct base, a sliding base is arranged above the top substrate, and a carrying rod group is arranged on the inner side of the sliding base, the sliding base is slidably connected to the sliding duct, and a spherical sleeve is arranged on the inner side of the sliding duct, an open shell is arranged below one end of the sliding base, and inserted cylinder groups are arranged at both ends of the open shell, an elastic plug is arranged on the inner side of the open shell, and a cable drum rack is arranged at the inner end of the elastic plug, and the outer side of the cable drum rack is provided with a wound optical fiber.

[0014] Compared with the prior art, the present invention has the following beneficial effects: The device of the invention mainly utilizes the mounting rod group, sliding duct and spherical sleeve on the open shell to output the optical fiber on the cable drum rack. After the output, the optical fiber can be connected to the user's control platform. By controlling the communication components, photoelectric detection mechanism, height adjustment mechanism and acceleration propulsion mechanism, the equipment can detect the waterway at different locations, thereby reducing the cost of use and improving the anti-interference ability of the equipment, thereby improving the cost performance of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a structural schematic diagram of an Internet of Things type water level measurement device; Figure 2 It is a schematic diagram of the structure in the present invention when viewed from above; Figure 3 It is a structural schematic diagram of the take-off and landing adjustment mechanism in the present invention; Figure 4 It is a structural schematic diagram of the buoyancy activation component in the present invention; Figure 5 It is a structural schematic diagram of the photoelectric detection mechanism in the present invention; Figure 6 It is a structural diagram of the control communication component in the present invention; Figure 7 It is a structural schematic diagram of the height adjustment mechanism in the present invention; Figure 8 It is a structural schematic diagram of the acceleration propulsion mechanism in the present invention; Fig. 9 It is a structural schematic diagram of the optical fiber output mechanism in the present invention.

[0016] In the figure: 1. Lifting and lowering adjustment mechanism; 101. Bolt bracket; 102. Bottom hinged base; 103. Horizontal base; 104. Lower hinged base; 105. Side cylinder; 106. Upper hinged base; 107. Lower connecting frame; 108. Expanding and contracting cylinder; 109. Lower hinged base; 1010. Shock absorber; 1011. Pad insert base; 2. Buoyancy activation component; 201. Bottom duct base; 202. Encircling strip; 203. Valve pump cabin; 204. Inlet nozzle; 205. Connecting pipe; 206. Inflatable airbag; 3, photoelectric detection mechanism; 301, transmission inner cabin; 302, electric rotating column; 303, driving gear; 304, driven gear ring; 305, rotating base column; 306, first inner cylinder; 307, first brake rack; 308, rotating shaft; 309, slotted base plate; 3010, electric articulated seat; 3011, spherical base; 3012, camera probe; 4, control communication component; 401, connecting side frame; 402, top duct base; 403, photovoltaic panel; 404, spiral Connecting plate; 405, duct sleeve; 406, battery; 407, control box; 408, satellite antenna; 409, signal antenna; 5, height adjustment mechanism; 501, side lining plate; 502, bolt base; 503, connecting frame base; 504, angle base; 505, expansion frame; 506, expansion cylinder; 507, brushless motor base; 508, shaft rod; 509, rotor blade; 6, acceleration propulsion mechanism; 601, angle gear; 602, adjustment rack; 603, thread block; 60 4. Screw rod; 605. Motor base; 606. Second brake rack; 607. Second inner cylinder; 608. Angle axis; 609. Brushless motor compartment; 6010. Rotating base; 6011. Propelling blades; 7. Optical fiber output mechanism; 701. Top substrate; 702. Sliding base; 703. Carrying rod group; 704. Sliding duct; 705. Spherical sleeve block; 706. Open shell; 707. Inserted cylinder group; 708. Elastic plug; 709. Cable drum rack; 7010. Optical fiber. DETAILED DESCRIPTION

[0017] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside" and the like indicate positions or positional relationships based on the positions or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, the terms "first", "second", and the like are only used for descriptive purposes, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first", "second", and the like may explicitly or implicitly include one or more of the features. In the description of the present invention, unless otherwise specified, "multiple" means two or more.

[0018] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "connected", and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood by specific circumstances.

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only 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.

[0020] See also Figure 1-9 In an embodiment of the present invention, an Internet of Things type water level measuring device includes a lifting and lowering adjustment mechanism 1 and an optical fiber output mechanism 7, a buoyancy activation component 2 assembled with bolts is arranged at the top of the lifting and lowering adjustment mechanism 1, and a photoelectric detection mechanism 3 assembled with bolts is arranged on the inner side of the buoyancy activation component 2, a control communication component 4 assembled with bolts is arranged on the upper side of the buoyancy activation component 2, and a height adjustment mechanism 5 assembled with bolts is arranged on the side of the control communication component 4, an acceleration propulsion mechanism 6 is arranged inside the control communication component 4, and an optical fiber output mechanism 7 assembled with bolts is arranged above one end of the control communication component 4.

[0021] The lifting and lowering adjustment mechanism 1 comprises a bolt support 101, a bottom articulated base 102, a transverse base 103, a lower articulated base 104, a side cylinder 105, an upper articulated base 106, a lower connecting frame 107, an expansion and contraction cylinder 108, a lower articulated base 109, a shock absorber 1010 and a pad insert base 1011. The bottom end of the bolt support 101 is provided with a bottom articulated base 102, and a hinged transverse base 103 is provided below the bottom articulated base 102, and a hinged lower articulated base 104 is provided on one side of the transverse base 103. 4, and one side of the lower articulated base 104 is provided with an output end connected to the side cylinder 105, one end of the side cylinder 105 is provided with an upper articulated base 106 connected by a hinge, the other side of the lateral base 103 is provided with a lower connecting frame 107 connected by a hinge, and one side of the lower connecting frame 107 is provided with an output end of the expansion and contraction cylinder 108, one end of the lower connecting frame 107 is provided with a lower articulated base 109 connected by a hinge, and a shock absorber 1010 is provided below the lower articulated base 109, and a pad base 1011 is provided below the shock absorber 1010.

[0022] In an embodiment of the present invention, when flight is required, the lower articulated base 104 on one side of the lateral base 103 is used to cooperate with the upper cylinder 105 to output power to drive the output end to operate, so that the lower connecting frame 107, the expansion cylinder 108, the lower articulated base 109, the shock absorber 1010 and the pad base 1011 are folded up to achieve the effect of forming a take-off and landing adjustment mechanism 1 parallel to the ground.

[0023] The buoyancy activation component 2 includes a bottom duct base 201, a surrounding strip 202, an air valve pump cabin 203, an air inlet nozzle 204, a connecting pipe 205 and an inflatable airbag 206. The bottom duct base 201 is bolted to the top of the bolt bracket 101, the outer side of the bottom duct base 201 is provided with a surrounding strip 202, and the outer end of the surrounding strip 202 is provided with an air valve pump cabin 203, the upper part of the air valve pump cabin 203 is provided with an air inlet nozzle 204, the output end of the air valve pump cabin 203 is provided with a sleeve-installed connecting pipe 205, and the output end of the connecting pipe 205 is provided with an inflatable airbag 206.

[0024] In an embodiment of the present invention, when a dangerous incident occurs to the equipment, the air valve pump cabin 203 is used to output and operate, so that air is input into the inflatable airbag 206 through the air inlet nozzle 204 and the connecting pipe 205, thereby achieving the effect of inflation, so that the equipment has the function of floating in the water, thereby reducing losses.

[0025] The photoelectric detection mechanism 3 includes a transmission inner cabin 301, an electric rotating column 302, a driving gear 303, a driven gear ring 304, a rotating base column 305, a first inner cylinder 306, a first brake rack 307, a rotating shaft 308, a slotted base plate 309, an electric articulated seat 3010, a spherical base 3011 and a camera probe 3012. The transmission inner cabin 301 is bolted on the inner side of the bottom duct base 201, an electric rotating column 302 is arranged on the inner side of one end of the transmission inner cabin 301, and a driving gear 303 is arranged on the output end of the electric rotating column 302, a driven gear ring 304 is arranged on the output end of the driving gear 303, and a rotating base column 305 is arranged on the inner side of the driven gear ring 304, a first inner cylinder 306 is arranged on the inner side of the other end of the transmission inner cabin 301, and a first brake rack 307 is arranged on the output end of the first inner cylinder 306.

[0026] In an embodiment of the present invention, when photoelectric detection is required, the first inner cylinder 306 is used to output power so that the first brake rack 307 is disengaged from the driven gear ring 304, and after the output operation of the electric rotating column 302 and the driving gear 303, it can drive the driven gear ring 304 and the rotating base column 305 to perform meshing transmission operation.

[0027] A rotating shaft 308 is provided at the output end of the rotating base column 305, and a slotted base plate 309 is provided at the output end of the rotating shaft 308. An electric articulated seat 3010 is provided on the inner side of the slotted base plate 309, and a spherical base 3011 is provided at the output end of the electric articulated seat 3010, and a camera probe 3012 is provided on one side of the spherical base 3011.

[0028] In the embodiment of the present invention, when the rotating base column 305 rotates, the slotted base plate 309 can cooperate with the electric articulated seat 3010 to drive the rotation so that the camera probe 3012 on one side of the spherical base 3011 can detect the water level.

[0029] The control and communication component 4 includes a connecting side frame 401, a top duct base 402, a photovoltaic panel 403, a spiral connecting plate 404, a duct sleeve 405, a battery 406, a control box 407, a satellite antenna 408 and a signal antenna 409. The connecting side frame 401 is bolted to the outer side of the bottom duct base 201, the top of the connecting side frame 401 is provided with a top duct base 402, photovoltaic panels 403 are provided above both ends of the top duct base 402, the inner side of the top duct base 402 is bolted with a duct sleeve 405 through a spiral connecting plate 404, and a battery 406 is provided on the inner side of the duct sleeve 405, a control box 407 is provided above the duct sleeve 405, a satellite antenna 408 is provided above the control box 407, and a signal antenna 409 is provided on the side of the control box 407.

[0030] In the embodiment of the present invention, by controlling the output operation of the chassis 407, the satellite antenna 408 and the signal antenna 409, the signal transmission can achieve the effect of autonomous processing, and the satellite antenna 408 and the signal antenna 409 enable the device to more effectively transmit signals to the outside world, and in conjunction with the photovoltaic panel 403, the spiral connecting plate 404, the duct sleeve 405, and the battery 406, the effect of autonomous charging can be achieved.

[0031] The height adjustment mechanism 5 includes a side lining plate 501, a bolt base 502, a connecting frame base 503, an angle base 504, an extension frame 505, an expansion and contraction cylinder 506, a brushless motor base 507, a rotating shaft rod 508 and a rotor blade 509. The side lining plate 501 is bolted to the side of the top duct base 402, the bolt base 502 is arranged on the outer side of the side lining plate 501, the connecting frame base 503 is arranged on the outer side of the bolt base 502, the angle base 504 is arranged on the inner side of both ends of the connecting frame base 503, and the extension frame 505 is arranged on one side of the angle base 504, and the output end of the expansion frame 505 is arranged on one side of the expansion frame 505 for connecting the expansion and contraction cylinder 506, the brushless motor base 507 is arranged on the outer end of the extension frame 505, the output end of the brushless motor base 507 is arranged with a rotating shaft rod 508, and the side of the rotating shaft rod 508 is arranged with a rotor blade 509.

[0032] In an embodiment of the present invention, when flight is required, the angle bases 504 at both ends of the connecting frame base 503 are used for transmission output, so that the expansion cylinder 506 outputs power to drive the output end to operate, so that the expansion frame 505 is adjusted to a suitable angle position, and the brushless motor base 507 outputs power to drive the output end to operate, so that the rotating shaft rod 508 and the rotor blades 509 run at high speed to achieve the flight of the device to a certain height.

[0033] The acceleration propulsion mechanism 6 includes an angle gear 601, an adjusting rack 602, a threaded block 603, a screw 604, a motor base 605, a second brake rack 606, a second inner cylinder 607, an angle shaft 608, a brushless motor compartment 609, a rotating base 6010 and a propulsion blade 6011. The angle gear 601 is arranged inside the top duct base 402, and an adjusting rack 602 is arranged above the angle gear 601, and a threaded block 603 is arranged above the adjusting rack 602. The block 603 is threadedly connected to a screw rod 604, and motor bases 605 are arranged at both ends of the screw rod 604, a second brake rack 606 connected to the output end of the second inner cylinder 607 is arranged below the angle gear 601, an angle shaft 608 is arranged at the output end of the angle gear 601, and a brushless motor magazine 609 is arranged at one end of the angle shaft 608, a rotating base 6010 is arranged at the output end of the brushless motor magazine 609, and a propulsion blade 6011 is arranged at the output end of the rotating base 6010.

[0034] In an embodiment of the present invention, when accelerated propulsion is required, the second inner cylinder 607 is used to output power to drive the output end to operate so that the second brake rack 606 disengages from the angle gear 601, and the adjustment rack 602, the threaded block 603, and the screw 604 are started to output and operate, which can drive the angle gear 601 to move, and the upper angle shaft 608 is adjusted to a vertical state, and the brushless motor compartment 609 outputs power to drive the output end to operate so that the rotating base 6010 and the propulsion blades 6011 rotate at high speed, so that the device can fly to the target position faster.

[0035] The optical fiber output mechanism 7 includes a top substrate 701, a sliding base 702, a carrying rod group 703, a sliding duct 704, a spherical sleeve block 705, an open shell 706, an inserted cylinder group 707, an elastic plug 708, a cable drum rack 709 and an optical fiber filament 7010. The top substrate 701 is bolted to the top of one end of the top duct base 402. The sliding base 702 is arranged above the top substrate 701, and the carrying rod group 703 is arranged on the inner side of the sliding base 702. The sliding base 702 is slidably connected to the sliding duct 704, and a spherical sleeve block 705 is provided on the inner side of the sliding duct 704, an open shell 706 is provided below one end of the sliding base 702, and inserted cylinder groups 707 are provided at both ends of the open shell 706, an elastic plug 708 is provided on the inner side of the open shell 706, and a cable drum rack 709 is provided at the inner end of the elastic plug 708, and a wound optical fiber 7010 is provided on the outer side of the cable drum rack 709.

[0036] In the embodiment of the present invention, since the open shell 706 is provided with an elastic plug 708 for plugging into the cable drum rack 709, the cable drum rack 709 can release the optical fiber 7010. Combined with the output of the carrying rod group 703, the sliding duct 704 and the spherical sleeve block 705, the optical fiber 7010 can be prevented from getting tangled and the optical fiber 7010 can be placed to a suitable length as needed.

[0037] The working principle of the present invention is: when it is necessary to fly, the angle bases 504 at both ends of the connecting frame base 503 are used to transmit the output, so that the expansion cylinder 506 outputs power to drive the output end to operate, so that the expansion frame 505 is adjusted to a suitable angle position, and the brushless motor base 507 outputs power to drive the output end to operate, so that the shaft rod 508 and the rotor blade 509 run at high speed to achieve the flight of the device to a certain height. When it is necessary to fly, the lower side articulated base 104 on one side of the lateral base 103 is used to cooperate with the upper side cylinder 105 to output power to drive the output end to operate, so that the lower connecting frame 107, the expansion cylinder 108, the lower articulated base 109, the shock absorber 1010 and the pad insert base 1010 are in a state of being ... 011 is folded up to form the effect of forming the take-off and landing adjustment mechanism 1 parallel to the ground. When acceleration is required, the second inner cylinder 607 is used to output power to drive the output end to operate so that the second brake rack 606 is disengaged from the angle gear 601, and the adjustment rack 602, the threaded block 603, and the screw rod 604 are started to output and operate to drive the angle gear 601 to move, and the upper angle shaft 608 is adjusted to a vertical state, and the brushless motor compartment 609 is used to output power to drive the output end to operate so that the rotating base 6010 and the propulsion blade 6011 rotate at high speed, so that the device flies to the target position faster. Since the open shell 706 has an elastic plug 708 inside to plug the cable drum rack 709, the cable drum rack 709 releases the optical fiber 7010, and cooperates with the output of the carrying rod group 703, the sliding duct 704, and the spherical sleeve block 705 to prevent the optical fiber 7010 from being entangled, and can place the optical fiber 7010 to a suitable length as required. When photoelectric detection is required, the first inner cylinder 306 is used to output power to make the first brake rack 307 disengage from the driven gear ring 304, and cooperate with the output of the electric rotating column 302 and the driving gear 303 to drive the driven gear ring 304 and the rotating base column 305 to mesh and drive. When the rotating base column 305 rotates, the slotted base plate 309 can be driven to rotate with the electric articulated seat 3010, so that the spherical base 301 The camera probe 3012 on one side detects the water level. By controlling the output operation of the chassis 407, the satellite antenna 408 and the signal antenna 409, the signal transmission can achieve the effect of autonomous processing, and the satellite antenna 408 and the signal antenna 409 enable the device to more effectively transmit signals to the outside world. In conjunction with the photovoltaic panels 403, the spiral connecting plates 404, the duct sleeves 405 and the batteries 406, the effect of autonomous charging can be achieved. When a dangerous event occurs to the equipment, the air valve pump cabin 203 is used for output operation, so that air is input into the inflatable airbag 206 through the air inlet nozzle 204 and the connecting pipe 205, thereby achieving the effect of inflation, so that the equipment has the function of floating in the water, thereby reducing losses.

[0038] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0039] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. An Internet of Things type water level measuring device, comprising a lifting and lowering adjustment mechanism (1) and an optical fiber output mechanism (7), characterized in that: The top of the lifting and lowering adjustment mechanism (1) is provided with a buoyancy activation component (2) assembled with bolts, and the inner side of the buoyancy activation component (2) is provided with a photoelectric detection mechanism (3) assembled with bolts, the upper side of the buoyancy activation component (2) is provided with a control communication component (4) assembled with bolts, and the side of the control communication component (4) is provided with a height adjustment mechanism (5) assembled with bolts, the control communication component (4) is provided with an acceleration propulsion mechanism (6) inside, and an optical fiber output mechanism (7) assembled with bolts is provided above one end of the control communication component (4).

2. An Internet of Things type water level measuring device according to claim 1, characterized in that: The lifting and lowering adjustment mechanism (1) comprises a bolt support (101), a bottom hinged base (102), a transverse base (103), a lower hinged base (104), a side cylinder (105), an upper hinged base (106), a lower connecting frame (107), an expansion cylinder (108), a lower hinged base (109), a shock absorber (1010) and a pad insert base (1011). The bottom end of the bolt support (101) is provided with a bottom hinged base (102), and a hinged transverse base (103) is provided below the bottom hinged base (102). A hinged lower hinged base (104) is provided on one side of the transverse base (103). 4), and an output end connected to a side cylinder (105) is provided on one side of the lower hinged base (104), and an upper hinged base (106) connected by a hinge is provided on one end of the side cylinder (105), and a lower connecting frame (107) connected by a hinge is provided on the other side of the lateral base (103), and an output end of an expansion and contraction cylinder (108) is provided on one side of the lower connecting frame (107), and a lower hinged base (109) connected by a hinge is provided on one end of the lower connecting frame (107), and a shock absorber (1010) is provided below the lower hinged base (109), and a pad insert base (1011) is provided below the shock absorber (1010).

3. An Internet of Things type water level measuring device according to claim 2, characterized in that: The buoyancy activation component (2) comprises a bottom duct base (201), a surrounding strip (202), an air valve pump cabin (203), an air inlet nozzle (204), a connecting pipe (205) and an inflatable airbag (206); the bottom duct base (201) is bolted to the top of the bolt support (101); a surrounding strip (202) is arranged on the outer side of the bottom duct base (201); an air valve pump cabin (203) is arranged on the outer end of the surrounding strip (202); an air inlet nozzle (204) is arranged above the air valve pump cabin (203); a sleeve-mounted connecting pipe (205) is arranged at the output end of the air valve pump cabin (203); and an inflatable airbag (206) is arranged at the output end of the connecting pipe (205).

4. The Internet of Things type water level measuring device according to claim 3, characterized in that: The photoelectric detection mechanism (3) comprises a transmission inner cabin (301), an electric rotating column (302), a driving gear (303), a driven gear ring (304), a rotating base column (305), a first inner cylinder (306), a first braking rack (307), a rotating shaft (308), a slotted base plate (309), an electric articulated seat (3010), a spherical base (3011) and a camera probe (3012). The transmission inner cabin (301) is bolted to the inner side of the bottom duct base (201). An electric rotating column (302) is arranged on the inner side of one end of the driving inner chamber (301), and a driving gear (303) is arranged on the output end of the electric rotating column (302), a driven gear ring (304) is arranged on the output end of the driving gear (303), and a rotating base column (305) is arranged on the inner side of the driven gear ring (304), and a first inner cylinder (306) is arranged on the inner side of the other end of the transmission inner chamber (301), and a first braking rack (307) is arranged on the output end of the first inner cylinder (306).

5. The Internet of Things type water level measuring device according to claim 4, characterized in that: The output end of the rotating base column (305) is provided with a rotating shaft (308), and the output end of the rotating shaft (308) is provided with a slotted base plate (309), the inner side of the slotted base plate (309) is provided with an electric articulated seat (3010), and the output end of the electric articulated seat (3010) is provided with a spherical base (3011), and a camera probe (3012) is provided on one side of the spherical base (3011).

6. The Internet of Things type water level measuring device according to claim 3, characterized in that: The control communication component (4) comprises a connecting side frame (401), a top duct base (402), a photovoltaic panel (403), a spiral connecting plate (404), a duct sleeve (405), a battery (406), a control cabinet (407), a satellite antenna (408) and a signal antenna (409), wherein the connecting side frame (401) is bolted to the outer side of the bottom duct base (201), and the top of the connecting side frame (401) is provided with a top duct base (402), and the top duct base (409) is provided with a plurality of antennas. 02), photovoltaic panels (403) are arranged above both ends, the inner side of the top duct base (402) is bolted to a duct sleeve (405) through a spiral connecting plate (404), and a battery (406) is arranged on the inner side of the duct sleeve (405), a control box (407) is arranged above the duct sleeve (405), and a satellite antenna (408) is arranged above the control box (407), and a signal antenna (409) is arranged on the side of the control box (407).

7. An Internet of Things type water level measuring device according to claim 6, characterized in that: The height adjustment mechanism (5) comprises a side lining plate (501), a bolt base (502), a connecting frame base (503), an angle base (504), an expansion frame (505), an expansion cylinder (506), a brushless motor base (507), a shaft rod (508) and a rotor blade (509); the side lining plate (501) is bolted to the side of the top duct base (402); the bolt base (502) is arranged on the outer side of the side lining plate (501); the connecting frame is arranged on the outer side of the bolt base (502). A base (503), angle bases (504) are arranged on the inner sides of both ends of the connecting frame base (503), and an expansion frame (505) is arranged on one side of the angle base (504), an output end connected to an expansion and contraction oil cylinder (506) is arranged on one side of the expansion frame (505), a brushless motor seat (507) is arranged on the outer end of the expansion frame (505), a rotating shaft rod (508) is arranged on the output end of the brushless motor seat (507), and a rotor blade (509) is arranged on the side of the rotating shaft rod (508).

8. The Internet of Things type water level measuring device according to claim 6, characterized in that: The acceleration propulsion mechanism (6) comprises an angle gear (601), an adjustment rack (602), a threaded block (603), a screw rod (604), a motor base (605), a second brake rack (606), a second inner cylinder (607), an angle shaft (608), a brushless motor compartment (609), a rotating base (6010) and a propulsion blade (6011), wherein the angle gear (601) is arranged inside the top duct base (402), an adjustment rack (602) is arranged above the angle gear (601), and a threaded block (603) is arranged above the adjustment rack (602), The threaded block (603) is threadedly connected to a screw rod (604), and motor bases (605) are provided at both ends of the screw rod (604); a second brake rack (606) connected to the output end of a second inner cylinder (607) is provided below the angle gear (601); an angle shaft (608) is provided at the output end of the angle gear (601), and a brushless motor bin (609) is provided at one end of the angle shaft (608); a rotating base (6010) is provided at the output end of the brushless motor bin (609), and a propulsion blade (6011) is provided at the output end of the rotating base (6010).

9. The Internet of Things type water level measuring device according to claim 6, characterized in that: The optical fiber output mechanism (7) comprises a top substrate (701), a sliding base (702), a carrying rod group (703), a sliding duct (704), a spherical sleeve (705), an open shell (706), an inserted cylinder group (707), an elastic plug (708), a cable drum rack (709) and an optical fiber (7010). The top substrate (701) is bolted to the top of one end of the top duct base (402). The sliding base (702) is arranged above the top substrate (701), and the carrying rod group (703) is arranged on the inner side of the sliding base (702). ), the sliding base (702) is slidably connected to a sliding duct (704), and a spherical sleeve (705) is provided on the inner side of the sliding duct (704), an open shell (706) is provided below one end of the sliding base (702), and both ends of the open shell (706) are provided with an inserted cylinder group (707), an elastic plug (708) is provided on the inner side of the open shell (706), and a cable drum rack (709) is provided at the inner end of the elastic plug (708), and a wound optical fiber (7010) is provided on the outer side of the cable drum rack (709).

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