A new tower-type omnidirectional adjustable sensing antenna

Abstract

The present invention discloses a new tower-type omnidirectional adjustable sensing antenna, comprising: a fixed base and a radiation sensing antenna, wherein the radiation sensing antenna is connected to the fixed base via a lifting structure, and a rotation angle adjustment structure and a telescopic protection structure are installed on the radiation sensing antenna; the beneficial effect of the present invention is that a plurality of radiation plates are adjusted in the horizontal direction and the vertical direction via the rotation angle adjustment structure, thereby achieving near-perfect signal adjustment of the signal, and at the same time, the plurality of radiation plates are protected via the telescopic protection structure, thereby avoiding the phenomenon of bumping when the radiation plates are in a contracted storage state.

Description

Technical Field

[0001] The invention relates to the technical field of radiation sensing antennas, in particular to a new tower-type omnidirectional adjustable sensing antenna. Background Art

[0002] A key device in the mobile communication network is the sensor antenna, which is the key device to ensure the transmission of base station wireless signals and the reception of mobile phone signals. Since the propagation performance of wireless signals is closely related to the surrounding environment, in order to improve / control the coverage range and reduce signal interference between cells, the pitch angle of the sensor antenna needs to be adjusted regularly. Many antennas are higher than two floors, and ladders or even cranes must be used. However, adjusting the antenna becomes a very troublesome task. If it is installed on the top floor of a high-rise building, using a ladder is also a very dangerous operation method. The existing equipment cannot perform fine-tuning after positioning the sensor antenna. In view of this, in-depth research was conducted on the above-mentioned issues, which led to the creation of this case. Summary of the invention

[0003] The technical solution of the present invention for achieving the above-mentioned object is: a new tower-type omnidirectional adjustable sensing antenna, comprising: a fixed base and a radiation sensing antenna, wherein the radiation sensing antenna is connected to the fixed base via a lifting structure, and a rotation angle adjustment structure and a telescopic protection structure are installed on the radiation sensing antenna;

[0004] The rotation angle adjustment structure comprises: a plurality of annular rings, a plurality of adjustment threaded rods, a plurality of adjustment threaded tubes, a plurality of adjustment driving machines, a plurality of adjustment limit blocks, a plurality of adjustment limit shafts, a plurality of concave limit blocks, a plurality of limit bearing blocks, a plurality of fixed shafts, a plurality of I-shaped adjustment rods, a plurality of sensor antenna brackets, a horizontal angle adjustment component and an extension component;

[0005] A pair of circular grooves are provided on the radiation sensing antenna, and a plurality of the circular rings are respectively connected to the inner sides of the pair of circular grooves through horizontal angle adjustment components, a pair of lifting grooves are respectively provided on the circular rings, and a plurality of the adjustment driving machines are respectively installed on the inner sides of the two pairs of lifting grooves, a plurality of the adjustment threaded rods are respectively inserted into the two pairs of lifting grooves through bearings, and a plurality of the adjustment threaded rods are respectively connected to the driving ends of a plurality of the adjustment driving machines, a plurality of the adjustment limit shafts are respectively inserted into the inner sides of the two pairs of lifting grooves, a plurality of the adjustment threaded tubes are respectively inserted into a plurality of the adjustment limit blocks, and a plurality of the adjustment screws are respectively inserted into the inner sides of the two pairs of lifting grooves, and a plurality of the adjustment screws are respectively inserted into the inner sides of the two pairs of lifting grooves, and a plurality of the adjustment screws are respectively inserted into the plurality of the adjustment limit blocks, and a plurality of the adjustment screws are respectively inserted into the plurality of the adjustment limit blocks. The corrugated tubes are movably mounted on several of the adjusting threaded rods, several of the adjusting limit blocks are respectively mounted on several of the adjusting limit shafts, several of the limit bearing blocks are respectively installed on several of the circular rings and several of the sensing antenna brackets, several of the fixed shafts are respectively inserted into several of the circular rings and the limit bearing blocks on several of the sensing antenna brackets, several of the concave limit blocks are respectively installed on several of the sensing antenna brackets, several of the I-shaped adjusting rods are respectively installed on several of the concave limit blocks and several of the limit bearing blocks, and the extension components are installed on the several of the sensing antenna brackets.

[0006] Preferably, the horizontal angle adjustment assembly comprises: a plurality of support bearing blocks, a plurality of inner gear clips, a plurality of rotary drive machines and a plurality of rotary drive gears;

[0007] A plurality of the annular rings are respectively sleeved on the inner sides of a pair of the annular grooves through a plurality of the supporting bearing blocks, a plurality of the inner gear strips are respectively installed on the inner sides of a plurality of the annular rings, a plurality of the rotary drive machines are respectively installed on the inner sides of a pair of the annular grooves, a plurality of the rotary drive gears are respectively installed on the driving ends of a plurality of the rotary drive machines, and a plurality of the rotary drive gears are respectively meshed with a plurality of the inner gear strip gears.

[0008] Preferably, the expansion assembly comprises: a plurality of lifting limit shafts, a plurality of cylindrical wheels, a plurality of electromagnet blocks, a plurality of radiation plates, a plurality of toothed limit bearing blocks and a plurality of electric telescopic locks;

[0009] A pair of concave lifting grooves are respectively opened on several of the sensor antenna brackets, several of the toothed limit bearing blocks are respectively installed on both sides of several of the radiation plates, and several of the toothed limit bearing blocks are respectively crossed with each other, several of the lifting limit shafts are respectively inserted into several of the toothed limit bearing blocks, several of the cylindrical wheels are respectively installed on several of the lifting limit shafts, several of the electromagnet blocks are respectively installed on the inner sides of several of the cylindrical wheels, and several of the electric telescopic locks are respectively installed on the inner sides of the two pairs of concave lifting grooves.

[0010] Preferably, the telescopic protection structure comprises: a plurality of lifting and extruding electric push rods, a pair of circular lifting blocks, a pair of limit protection plates, a plurality of circular arc concave blocks, four pairs of circular arc convex blocks, two pairs of protection shafts, two pairs of protection circular arc sheets, a plurality of protection concave bearing blocks and a plurality of I-shaped connecting rods;

[0011] A pair of the limit protection plates are installed on the radiation sensing antenna, a number of the lifting and extruding electric push rods are respectively installed on the radiation sensing antenna relative to each other, a pair of the circular lifting blocks are respectively installed on the pushing ends of the number of the lifting and extruding electric push rods, a pair of the limit protection plates are respectively provided with two pairs of circular arc grooves, a number of the circular arc concave blocks are respectively installed on the inner sides of the four pairs of the circular arc grooves, four pairs of the circular arc convex blocks are respectively movably inserted between the number of the circular arc concave blocks, two pairs of the limit shafts are respectively inserted on the four pairs of the circular arc convex blocks, two pairs of the protective circular arc sheets are respectively installed on the two pairs of the protective shafts, a number of the protective concave bearing blocks are respectively installed on the four pairs of the circular arc convex blocks and a pair of the circular lifting blocks, and a number of the I-shaped connecting rods are respectively connected to a number of the protective concave bearing blocks.

[0012] Preferably, the lifting structure comprises: a lifting fixed plate, a plurality of lifting limit protection shafts, two pairs of lifting hydraulic cylinders, a plurality of circular inflatable cushions, a plurality of convex extrusion blocks, an air pump and a diverter valve;

[0013] A convex lifting groove and a plurality of round-shaped filling and fixing grooves are provided on the fixed base, and a plurality of convex telescopic supporting grooves are respectively provided on the plurality of round-shaped filling and fixing grooves. Two pairs of lifting hydraulic cylinders are installed in parallel on the inner sides of the convex lifting grooves in pairs. The lifting and fixing plates are installed on the pushing ends of the two pairs of lifting hydraulic cylinders. A plurality of lifting limit protection shafts are respectively and evenly inserted into the convex lifting grooves and the lifting and fixing plates. The radiation sensing antenna is installed on the lifting and fixing plates. A plurality of round-shaped inflatable cushions are respectively installed on the inner sides of a plurality of round-shaped filling and fixing grooves. A plurality of convex extrusion blocks are respectively installed on a plurality of round-shaped inflatable cushions, and a plurality of convex extrusion blocks are respectively and movably inserted into a plurality of convex telescopic supporting grooves. The air pump is installed on the fixed base, and the diverter valve is installed on the air pump, and the diverter valve is connected to a plurality of round-shaped inflatable cushions.

[0014] Preferably, a plurality of ball grooves are respectively formed on the plurality of arc concave blocks, and auxiliary balls are respectively disposed inside the plurality of ball grooves.

[0015] Preferably, a trumpet-shaped diverter plate is provided on the limit protection plate.

[0016] Preferably, a circular protective support block is provided on the inner side of the convex lifting groove.

[0017] Preferably, sealing rubber pads are respectively provided on the plurality of circular rings.

[0018] Preferably, a circular waterproof block is provided on the fixed base.

[0019] The new tower-type omnidirectional adjustable sensing antenna manufactured by utilizing the technical solution of the present invention adjusts a plurality of radiation panels in the horizontal and vertical directions through a rotating angle adjustment structure, thereby achieving near-perfect signal adjustment. At the same time, a plurality of radiation panels are protected by a telescopic protection structure, thereby avoiding bumps and collisions when the radiation panels are in a retracted storage state. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 The present invention provides a schematic diagram of a front and cross-sectional view of a new tower-shaped omnidirectional adjustable sensing antenna.

[0021] Figure 2 The figure is a side cross-sectional schematic diagram of a new tower-shaped omnidirectional adjustable sensing antenna according to the present invention.

[0022] Figure 3 The figure is a front view schematic diagram of a new tower-shaped omnidirectional adjustable sensing antenna according to the present invention.

[0023] Figure 4The figure is a side view schematic diagram of a new tower-shaped omnidirectional adjustable sensing antenna according to the present invention.

[0024] Figure 5 for Figure 1 A magnified view of the structure of part "A".

[0025] Figure 6 for Figure 2 A magnified view of the structure of part "B".

[0026] In the figure: 1. Fixed base; 2. Radiation sensing antenna; 3. Circular ring; 4. Adjustment threaded rod; 5. Adjustment threaded tube; 6. Adjustment drive motor; 7. Adjustment limit block; 8. Adjustment limit shaft; 9. Concave limit block; 10. Limit bearing block; 11. Fixed shaft; 12. I-type adjustment rod; 13. Sensing antenna bracket; 14. Support bearing block; 15. Inner gear strip; 16. Rotation drive motor; 17. Rotation drive gear; 18. Lifting limit shaft; 19. Cylindrical wheel; 20. Electromagnet block; 21. Radiation plate; 22. Geared limit bearing block; 23. Electric telescopic lock. DETAILED DESCRIPTION

[0027] Embodiment: By extending and retracting two pairs of lifting hydraulic cylinders in the convex lifting grooves on the inner side of the fixed base 1, the lifting fixed plates on the pushing ends of the two pairs of lifting hydraulic cylinders are driven to lift and lower along a plurality of lifting limit protection shafts. At the same time, the lifting fixed plates drive the radiation sensing antenna 2 thereon, thereby changing the height of the radiation sensing antenna 2 and the rotation angle adjustment structure on the radiation sensing antenna 2. By operating a plurality of adjustment driving machines 6 in the rotation angle adjustment structure, the adjustment threaded rods 4 on the driving ends of the adjustment driving machines 6 are driven to rotate respectively. The adjustment threaded rods 4 are driven to drive the adjustment threaded tubes 5 thereon, so that the adjustment threaded tubes 5 are moved along the adjustment angle adjustment shafts. The threaded rod 4 moves horizontally, and the adjusting limit block 7 on it is driven by adjusting the threaded tube 5, and the limit bearing block 10 on it is driven by the adjusting limit block 7, and the I-shaped adjustment rod 12 on it is driven by the limit bearing block 10, and at the same time, the concave limit block 9 on the other side of the I-shaped adjustment rod 12 is driven by the concave limit block 9. The sensor antenna bracket 13 is caused to rotate to a certain extent, thereby changing the angle of several sensor antenna brackets 13, and at the same time, the rotation drive machine 16 is operated to drive the rotation drive gear 17 on the driving end of the rotation drive machine 16 to rotate, and the rotation The driving gear 17 drives the inner gear clip 15 meshing with the gear to rotate, and the inner gear clip 15 drives the annular ring 3 thereon, so that the annular ring 3 rotates horizontally along the inner side of the annular groove on the radiation sensor antenna 2 through the supporting bearing block 14, thereby changing the fine adjustment of several sensor antenna brackets 13, and at the same time, the cylindrical wheels 19 on several lifting limit shafts 18 on the sensor antenna bracket 13 are respectively lifted and lowered along the concave lifting groove on the sensor antenna bracket 13, and at the same time, the electromagnet block 20 on the cylindrical wheel 19 is charged positively and negatively, so as to generate the same magnetic field. The repulsion or cross positive and negative magnetism attract each other, so that the cylindrical wheels 19 are attracted or repelled each other on the inner sides of the concave lifting grooves, so that the lifting limit shaft 18 on it is driven by the cylindrical wheel 19, and the radiation plates 21 are driven to move by the lifting limit shafts 18, and the radiation plates 21 are folded by the toothed limit bearing blocks 22 on the radiation plates 21, and the cylindrical protection tubes are dropped by disconnecting the circular electromagnet block 20, and the cylindrical protection tubes are unfolded by the circular rings on the cylindrical protection tubes, so as to protect the rotation angle adjustment structure.

[0028] As a preferred solution, further, the horizontal angle adjustment assembly includes: a plurality of support bearing blocks 14, a plurality of inner gear clips 15, a plurality of rotary drive machines 16 and a plurality of rotary drive gears 17;

[0029] A plurality of the annular rings 3 are respectively sleeved on the inner sides of a pair of the annular grooves through a plurality of the supporting bearing blocks 14, a plurality of the inner gear strips 15 are respectively installed on the inner sides of a plurality of the annular rings 3, a plurality of the rotary drive machines 16 are respectively installed on the inner sides of a pair of the annular grooves, a plurality of the rotary drive gears 17 are respectively installed on the driving ends of a plurality of the rotary drive machines 16, and a plurality of the rotary drive gears 17 are respectively meshed with a plurality of the inner gear strips 15.

[0030] As a preferred solution, further, the expansion assembly includes: a plurality of lifting limit shafts 18, a plurality of cylindrical wheels 19, a plurality of electromagnet blocks 20, a plurality of radiation plates 21, a plurality of toothed limit bearing blocks 22 and a plurality of electric telescopic lock buckles 23;

[0031] A pair of concave lifting grooves are respectively opened on several of the sensor antenna brackets 13, several of the toothed limit bearing blocks 22 are respectively installed on both sides of several of the radiation plates 21, and several of the toothed limit bearing blocks 10 are respectively crossed with each other, several of the lifting limit shafts 18 are respectively inserted on several of the toothed limit bearing blocks 22, several of the cylindrical wheels 19 are respectively installed on several of the lifting limit shafts 18, several of the electromagnet blocks 20 are respectively installed on the inner sides of several of the cylindrical wheels 19, and several of the electric telescopic locks 23 are respectively installed on the inner sides of the two pairs of concave lifting grooves.

[0032] As a preferred solution, further, the telescopic protection structure includes: a plurality of lifting and extruding electric push rods, a pair of circular lifting blocks, a pair of limit protection plates, a plurality of arc concave blocks, four pairs of arc convex blocks, two pairs of protection shafts, two pairs of protection arc sheets, a plurality of protection concave bearing blocks and a plurality of I-shaped connecting rods;

[0033] A pair of the limit protection plates are installed on the radiation sensing antenna, a number of the lifting and extruding electric push rods are respectively installed on the radiation sensing antenna relative to each other, a pair of the circular lifting blocks are respectively installed on the pushing ends of the number of the lifting and extruding electric push rods, a pair of the limit protection plates are respectively provided with two pairs of circular arc grooves, a number of the circular arc concave blocks are respectively installed on the inner sides of the four pairs of the circular arc grooves, four pairs of the circular arc convex blocks are respectively movably inserted between the number of the circular arc concave blocks, two pairs of the limit shafts are respectively inserted on the four pairs of the circular arc convex blocks, two pairs of the protective circular arc sheets are respectively installed on the two pairs of the protective shafts, a number of the protective concave bearing blocks are respectively installed on the four pairs of the circular arc convex blocks and a pair of the circular lifting blocks, and a number of the I-shaped connecting rods are respectively connected to a number of the protective concave bearing blocks.

[0034] As a preferred solution, further, the lifting structure includes: a lifting fixed plate, a plurality of lifting limit protection shafts, two pairs of lifting hydraulic cylinders, a plurality of circular inflatable cushions, a plurality of convex extrusion blocks, an air pump and a diverter valve;

[0035] The fixed base 1 is provided with a convex lifting groove and a plurality of round-shaped filling and fixing grooves, and a plurality of convex telescopic supporting grooves are respectively provided on the plurality of round-shaped filling and fixing grooves. Two pairs of lifting hydraulic cylinders are installed in parallel on the inner sides of the convex lifting grooves, and the lifting and fixing plates are installed on the pushing ends of the two pairs of lifting hydraulic cylinders. A plurality of lifting limit protection shafts are respectively and evenly inserted into the convex lifting grooves and the lifting and fixing plates. The radiation sensing antenna 2 is installed on the lifting and fixing plates. A plurality of round-shaped inflatable cushions are respectively installed on the inner sides of a plurality of round-shaped filling and fixing grooves, a plurality of convex extrusion blocks are respectively installed on a plurality of round-shaped inflatable cushions, and a plurality of convex extrusion blocks are respectively and movably inserted into a plurality of convex telescopic supporting grooves. The air pump is installed on the fixed base 1, and the diverter valve is installed on the air pump, and the diverter valve is connected to a plurality of round-shaped inflatable cushions.

[0036] As a preferred solution, further, a plurality of arc concave blocks are respectively provided with a plurality of ball grooves, and auxiliary balls are respectively arranged on the inner sides of the plurality of ball grooves.

[0037] As a preferred solution, further, a trumpet-shaped diverter plate is provided on the limit protection plate.

[0038] As a preferred solution, further, a circular protective support block is provided on the inner side of the convex lifting groove.

[0039] As a preferred solution, further, a plurality of the circular rings are respectively provided with sealing rubber pads.

[0040] As a preferred solution, further, a circular waterproof block is provided on the fixed base 1.

[0041] The above technical solutions only reflect the preferred technical solutions of the technical solutions of the present invention. Some changes that may be made to certain parts thereof by technicians in this technical field all reflect the principles of the present invention and fall within the protection scope of the present invention.

Claims

1. A new tower-type omnidirectional adjustable sensing antenna, comprising: A fixed base and a radiation sensing antenna, wherein the radiation sensing antenna is connected to the fixed base via a lifting structure, and a rotation angle adjustment structure and a telescopic protection structure are installed on the radiation sensing antenna; The rotation angle adjustment structure comprises: a plurality of annular rings, a plurality of adjustment threaded rods, a plurality of adjustment threaded tubes, a plurality of adjustment driving machines, a plurality of adjustment limit blocks, a plurality of adjustment limit shafts, a plurality of concave limit blocks, a plurality of limit bearing blocks, a plurality of fixed shafts, a plurality of I-shaped adjustment rods, a plurality of sensor antenna brackets, a horizontal angle adjustment component and an extension component; A pair of circular grooves are provided on the radiation sensing antenna, and a plurality of the circular rings are respectively connected to the inner sides of the pair of circular grooves through horizontal angle adjustment components, a pair of lifting grooves are respectively provided on the circular rings, and a plurality of the adjustment driving machines are respectively installed on the inner sides of the two pairs of lifting grooves, a plurality of the adjustment threaded rods are respectively inserted into the two pairs of lifting grooves through bearings, and a plurality of the adjustment threaded rods are respectively connected to the driving ends of a plurality of the adjustment driving machines, a plurality of the adjustment limit shafts are respectively inserted into the inner sides of the two pairs of lifting grooves, a plurality of the adjustment threaded tubes are respectively inserted into a plurality of the adjustment limit blocks, and a plurality of the adjustment screws are respectively inserted into the inner sides of the two pairs of lifting grooves, and a plurality of the adjustment screws are respectively inserted into the inner sides of the two pairs of lifting grooves, and a plurality of the adjustment screws are respectively inserted into the plurality of the adjustment limit blocks, and a plurality of the adjustment screws are respectively inserted into the plurality of the adjustment limit blocks. The corrugated tubes are movably sleeved on a plurality of the adjusting threaded rods, a plurality of the adjusting limit blocks are sleeved on a plurality of the adjusting limit shafts, a plurality of the limit bearing blocks are respectively installed on a plurality of the annular collars and a plurality of the sensing antenna brackets, a plurality of the fixed shafts are respectively inserted on a plurality of the annular collars and a plurality of the limit bearing blocks on the sensing antenna brackets, a plurality of the concave limit blocks are respectively installed on a plurality of the sensing antenna brackets, a plurality of the I-shaped adjusting rods are respectively installed on a plurality of the concave limit blocks and a plurality of the limit bearing blocks, and the extension assembly is installed on the plurality of the sensing antenna brackets; The horizontal angle adjustment assembly comprises: a plurality of support bearing blocks, a plurality of inner gear clips, a plurality of rotary drive machines and a plurality of rotary drive gears; A plurality of the annular collars are respectively sleeved on the inner sides of a pair of the annular grooves through a plurality of the supporting bearing blocks, a plurality of the inner gear clips are respectively installed on the inner sides of a plurality of the annular collars, a plurality of the rotary drive machines are respectively installed on the inner sides of a pair of the annular grooves, a plurality of the rotary drive gears are respectively installed on the driving ends of a plurality of the rotary drive machines, and a plurality of the rotary drive gears are respectively meshed with a plurality of the inner gear clip gears; The expansion assembly includes: a plurality of lifting limit shafts, a plurality of cylindrical wheels, a plurality of electromagnet blocks, a plurality of radiation plates, a plurality of toothed limit bearing blocks and a plurality of electric telescopic locks; A pair of concave lifting grooves are respectively opened on several of the sensor antenna brackets, several of the toothed limit bearing blocks are respectively installed on both sides of several of the radiation plates, and several of the toothed limit bearing blocks are respectively crossed with each other, several of the lifting limit shafts are respectively inserted into several of the toothed limit bearing blocks, several of the cylindrical wheels are respectively installed on several of the lifting limit shafts, several of the electromagnet blocks are respectively installed on the inner sides of several of the cylindrical wheels, and several of the electric telescopic locks are respectively installed on the inner sides of the two pairs of concave lifting grooves.

2. A new tower-type omnidirectional adjustable sensing antenna according to claim 1, characterized in that: The telescopic protection structure comprises: a plurality of lifting and extruding electric push rods, a pair of circular lifting blocks, a pair of limit protection plates, a plurality of circular arc concave blocks, four pairs of circular arc convex blocks, two pairs of protection shafts, two pairs of protection circular arc sheets, a plurality of protection concave bearing blocks and a plurality of I-shaped connecting rods; A pair of the limit protection plates are installed on the radiation sensing antenna, a number of the lifting and extruding electric push rods are respectively installed on the radiation sensing antenna relative to each other, a pair of the circular lifting blocks are respectively installed on the pushing ends of the number of the lifting and extruding electric push rods, a pair of the limit protection plates are respectively provided with two pairs of circular arc grooves, a number of the circular arc concave blocks are respectively installed on the inner sides of the four pairs of the circular arc grooves, four pairs of the circular arc convex blocks are respectively movably inserted between the number of the circular arc concave blocks, two pairs of the limit shafts are respectively inserted on the four pairs of the circular arc convex blocks, two pairs of the protective circular arc sheets are respectively installed on the two pairs of the protective shafts, a number of the protective concave bearing blocks are respectively installed on the four pairs of the circular arc convex blocks and a pair of the circular lifting blocks, and a number of the I-shaped connecting rods are respectively connected to a number of the protective concave bearing blocks.

3. A new tower-type omnidirectional adjustable sensing antenna according to claim 2, characterized in that: The lifting structure comprises: a lifting fixed plate, a plurality of lifting limit protection shafts, two pairs of lifting hydraulic cylinders, a plurality of circular inflatable cushions, a plurality of convex extrusion blocks, an air pump and a diverter valve; A convex lifting groove and a plurality of round-shaped filling and fixing grooves are provided on the fixed base, and a plurality of convex telescopic supporting grooves are respectively provided on the plurality of round-shaped filling and fixing grooves. Two pairs of lifting hydraulic cylinders are installed in parallel on the inner sides of the convex lifting grooves in pairs. The lifting and fixing plates are installed on the pushing ends of the two pairs of lifting hydraulic cylinders. A plurality of lifting limit protection shafts are respectively and evenly inserted into the convex lifting grooves and the lifting and fixing plates. The radiation sensing antenna is installed on the lifting and fixing plates. A plurality of round-shaped inflatable cushions are respectively installed on the inner sides of a plurality of round-shaped filling and fixing grooves. A plurality of convex extrusion blocks are respectively installed on a plurality of round-shaped inflatable cushions, and a plurality of convex extrusion blocks are respectively and movably inserted into a plurality of convex telescopic supporting grooves. The air pump is installed on the fixed base, and the diverter valve is installed on the air pump, and the diverter valve is connected to a plurality of round-shaped inflatable cushions.

4. A new tower-type omnidirectional adjustable sensing antenna according to claim 3, characterized in that: A plurality of ball grooves are respectively formed on the plurality of arc concave blocks, and auxiliary balls are respectively arranged on the inner sides of the plurality of ball grooves.

5. A new tower-type omnidirectional adjustable sensing antenna according to claim 4, characterized in that: A trumpet-shaped diverter plate is arranged on the limit protection plate.

6. A new tower-type omnidirectional adjustable sensing antenna according to claim 5, characterized in that: A circular protective support block is arranged on the inner side of the convex lifting groove.

7. A new tower-type omnidirectional adjustable sensing antenna according to claim 6, characterized in that: Sealing rubber pads are respectively arranged on a plurality of the circular ring sleeves.

8. A new tower-type omnidirectional adjustable sensing antenna according to claim 7, characterized in that: A circular waterproof block is arranged on the fixed base.

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