A communication device capable of enhancing a signal

Abstract

The application relates to the technical field of radio communication transmission, and discloses a communication device capable of enhancing signals, which comprises a base, a signal transceiver kettle body arranged above the base, a position adjusting mechanism arranged between the base and the signal transceiver kettle body, a left-right adjusting assembly, an up-down adjusting assembly and a linkage assembly. The left-right adjusting assembly comprises a telescopic adjusting group and a driving ring, and the driving ring is arranged above the base. The adjusting gear drives the adjusting rack to move. When the telescopic adjusting group reciprocatingly telescopes, the driving ring reciprocatingly rotates, the adjusting gear reciprocatingly rotates along the driving ring, and the adjusting rack reciprocatingly moves up and down. In the use process of the communication device, the position of the communication device can be adjusted through the independent operation of the left-right adjusting assembly, the signal receiving and sending range of the communication device is fixed, the left-right adjusting assembly and the up-down adjusting assembly can be cooperated to form reciprocating swinging left and right and up and down, and the signal receiving and sending range is enhanced.

Description

Technical Field

[0001] This invention relates to the field of radio communication transmission technology, specifically to a communication device capable of enhancing signals. Background Technology

[0002] An antenna (ARL) is a transducer. It was invented in 1894 by the Russian scientist Alexander Stepanovich Popov. An antenna transforms guided waves propagating on a transmission line into electromagnetic waves propagating in an unbounded medium (usually free space), or vice versa; antennas generally possess reversibility.

[0003] When network signals are transmitted, corresponding signal transmitters are required. A signal generator is a device that can provide electrical signals of various frequencies, waveforms, and output levels. It serves as a signal source or excitation source for measuring the amplitude characteristics, frequency characteristics, transmission characteristics, and other electrical parameters of various telecommunications systems or equipment, as well as for measuring the characteristics and parameters of components. Existing communication devices, being fixed in one location, have limited overall signal diffusion range during transmission. While communication devices with adjustable positions can be used, their overall balance cannot be guaranteed, leading to tipping or damage when affected by strong winds, animal contact, etc., thus affecting signal strength. Furthermore, regardless of whether the communication device is fixed or adjustable, it can only receive signals from a fixed direction during use, thus affecting the signal reception range. Summary of the Invention

[0004] (a) Technical problems to be solved

[0005] To address the shortcomings of existing technologies, this invention provides a communication device that enhances signal strength. It features an adjusting gear that drives an adjusting rack. When the telescopic adjusting assembly reciprocates, it drives a driving ring to rotate reciprocally, and the adjusting gear follows the rotation of the driving ring. The adjusting rack moves up and down reciprocally. Thus, during use, the position of the communication device can be adjusted independently by the left and right adjusting components, allowing for signal reception and transmission within a fixed range. Alternatively, the left and right adjusting components can be combined with the up and down adjusting components to create a reciprocating swing, enhancing the range of signal reception and transmission. This invention solves the problems of existing communication devices, which, due to their fixed installation, have limited overall signal diffusion range during transmission; and communication devices with freely adjustable positions, which, due to the inability to maintain overall balance, are prone to tipping or damage when exposed to strong winds, animal contact, etc., thus affecting signal strength. Furthermore, both fixed and freely adjustable communication devices can only receive signals in a fixed direction, thus limiting the signal reception range.

[0006] (II) Technical Solution

[0007] To address the limitations of existing communication devices, which are fixed in one location and thus have a limited overall signal diffusion range during transmission; and the inability to maintain overall balance in the face of strong winds, animal contact, or other factors that can affect signal strength; and the fact that both fixed and adjustable communication devices can only receive signals from a fixed direction, further limiting signal reception range, this invention provides the following technical solution: a communication device capable of enhancing signal strength, comprising a base, a signal transceiver housing mounted on top of the base, and a position adjustment mechanism between the base and the signal transceiver housing. The position adjustment mechanism includes a left-right adjustment component, a right-right adjustment component, and a linkage component. The left-right adjustment component includes a telescopic adjustment group and a drive ring. The drive ring is located above the base and rotatably engages with the base. The drive ring is connected to the drive end of the telescopic adjustment group. The right-right adjustment component includes an adjustment gear and an adjustment rack. The adjustment rack is located between the base and the signal transceiver pan, and the adjustment gear is located on one side of the adjustment rack. The linkage component includes a separation cylinder and a locking block. The separation cylinder is located above the adjustment gear and is connected to the output end of the separation cylinder. The locking block is located on one side of the adjustment gear and extends to one side of the drive ring.

[0008] Preferably, the base has a frustum-shaped structure, and the base includes an upper support ring, a support rod, and a lower support ring. The support rod is located between the upper support ring and the lower support ring. The signal transceiver is located above the upper support ring, and the position adjustment mechanism is located in the middle of the upper support ring.

[0009] Preferably, the telescopic adjustment group comprises several groups, each group including a first telescopic rod, a second telescopic rod and a lower mounting base, the bottoms of the first telescopic rod and the second telescopic rod are rotatably connected to the lower mounting base, and the output ends of the first telescopic rod and the second telescopic rod are respectively inclined to both sides.

[0010] Preferably, the bottom of the drive ring is provided with an upper mounting base, which is positioned directly opposite to the position between two adjacent lower mounting bases. The output ends of the first telescopic rod in one set of telescopic adjustment groups and the second telescopic rod in another set of telescopic adjustment groups are respectively rotatably connected to the upper mounting base.

[0011] Preferably, a bearing is provided between the drive ring and the upper support ring, a connecting beam is provided in the middle of the drive ring, a hinge block is provided between one end of the signal transceiver pan and the connecting beam, a drive rod is provided inside the connecting beam, an abutment block is provided above one end of the drive rod, the abutment block extends upward above the connecting beam and abuts against the upper side of the hinge block, and the other end of the drive rod extends to the bottom of the up-down adjustment assembly.

[0012] Preferably, the up-down adjustment component is located at the other end of the connecting beam, the connecting beam is provided with a movable groove, a hollow tube is provided above the movable groove, the up-down adjustment component is located inside the hollow tube, the other end of the drive rod extends into the movable groove, and the hollow tube is located outside the drive ring.

[0013] Preferably, the up-down adjustment assembly further includes a drive gear located above the drive ring. The adjustment gear is connected to the drive ring via the drive gear. Both the drive gear and the adjustment gear have rotating shafts on both sides. A guide groove is provided on one side of the hollow tube. A mounting block is provided on one side of the rotating shaft of the drive gear and is connected to the inner wall of the hollow tube. The adjustment rack is located inside the hollow tube. The adjustment gear meshes with the adjustment rack, and the adjustment rack is located away from the drive ring.

[0014] Preferably, the upper surface of the drive ring is provided with drive teeth, which are meshed with the drive gear, and the inner side of the drive ring is provided with locking teeth, which are adapted to the locking block.

[0015] Preferably, the separating cylinder is located inside the hollow tube, the output end of the separating cylinder is provided with a mounting clamp, the adjusting gear is located in the middle of the mounting clamp, the rotating shaft is rotatably connected to the mounting clamp, one side of the mounting clamp is connected to the locking block, the locking block is located inside the drive ring, and the other side of the bottom of the locking block is provided with a wedge-shaped protrusion, which is adapted to the drive rod.

[0016] (III) Beneficial Effects

[0017] Compared with the prior art, the present invention provides a communication device that can enhance signals, and has the following beneficial effects:

[0018] 1. This signal-enhancing communication device uses a separation cylinder in the linkage assembly to lock the drive ring with a locking block, preventing the device from moving freely after installation. During use, when a wider range of signals needs to be received or transmitted, the separation cylinder in the linkage assembly drives the adjusting gear downwards, connecting it to the drive ring. Simultaneously, the locking block moves downwards and away from the drive ring until it separates from the locking block before the adjusting gear contacts it, thus releasing the drive ring from its lock. (The distance between the locking block and the drive ring is greater than the distance between the adjusting gear and the drive ring, ensuring the locking block separates from the drive ring first, and the adjusting gear...) Then, it contacts the drive ring, ensuring that the adjusting gear can contact the drive ring. At this time, the telescopic adjustment group in the left and right adjustment assembly drives the drive ring to rotate. The drive ring drives the signal transceiver body to rotate, and at the same time, the adjusting gear drives the adjusting rack to move. When the telescopic adjustment group reciprocates, it drives the drive ring to rotate reciprocally, and the adjusting gear follows the reciprocating rotation of the drive ring. The adjusting rack moves up and down reciprocally. Thus, during the use of this communication device, the position of the communication device can be adjusted by the independent operation of the left and right adjustment assembly, so that it can receive and transmit signals within a fixed range. Alternatively, the left and right adjustment assembly and the up and down adjustment assembly can be used in combination to form a reciprocating swing from left to right and up and down, thereby enhancing the range of signal reception and transmission.

[0019] 2. This communication device, which enhances the signal, uses a separation cylinder and its output end mounting block to drive the adjusting gear downwards until the adjusting gear meshes with the drive gear. Then, the drive gear drives the adjusting gear to rotate. During the downward movement of the adjusting gear by the separation cylinder, the locking block on one side moves downwards as well. This causes the locking block to first separate from the locking teeth on the inner wall of the drive ring, thus unlocking the drive ring. At the same time, the wedge-shaped protrusion on the other side also moves downwards and away from the drive rod. At this point, the drive rod loses its pressure, thus releasing the hinge block. When the signal transceiver body is adjusted up and down on one side using the up and down adjustment assembly, the hinge block on the other side of the signal transceiver body can rotate, thereby unlocking the drive ring and the hinge block.

[0020] 3. This communication device, which enhances the signal, uses an upper mounting base positioned at the bottom of the drive ring that is aligned with the two adjacent lower mounting bases, resulting in a staggered arrangement between the upper and lower mounting bases. This allows the output ends of the first and second telescopic rods in the two adjacent telescopic adjustment groups to be mounted on the same upper mounting base. In other words, the first and second telescopic rods in the two adjacent telescopic adjustment groups form a triangular structure. When neither the first nor the second telescopic rod is extending or retracting, this creates a stable triangular structure. When the first telescopic rod retracts and the second telescopic rod extends synchronously, it drives the drive ring above it to rotate. The drive ring and the upper support ring are rotatably connected by a bearing. When the drive rod is driven to move towards the hinge block, the abutment block above the drive rod abuts against the bottom of the hinge block, thereby fixing the hinge block. Attached Figure Description

[0021] Figure 1 This is one of the overall three-dimensional structural schematic diagrams of the present invention;

[0022] Figure 2 This is a schematic diagram of the overall side view of the present invention;

[0023] Figure 3 This is the second schematic diagram of the overall three-dimensional structure of the present invention;

[0024] Figure 4 For the present invention Figure 3 A magnified schematic diagram of the structure at point A;

[0025] Figure 5 This is a three-dimensional structural diagram of the position adjustment mechanism of the present invention;

[0026] Figure 6 This is one of the schematic diagrams showing the internal cross-section of the drive ring and the cross-sectional structure of the linkage component of the present invention;

[0027] Figure 7 This is a second schematic diagram showing the internal cross-section of the drive ring and the cross-sectional structure of the linkage component of the present invention.

[0028] Figure 8 For the present invention Figure 7 A magnified schematic diagram of the structure at point B.

[0029] In the diagram: 1. Base; 11. Upper support ring; 12. Support rod; 13. Lower support ring; 2. Signal transceiver body; 3. Position adjustment mechanism; 4. Left and right adjustment assembly; 41. Telescopic adjustment assembly; 411. First telescopic rod; 412. Second telescopic rod; 413. Lower mounting base; 42. Drive ring; 421. Upper mounting base; 422. Connecting beam; 423. Hinge block; 424. Drive rod; 425. Abutment block; 426. Movable groove; 427. Hollow tube; 428. Guide groove; 43. Drive teeth; 44. Locking teeth; 5. Up and down adjustment assembly; 51. Adjusting gear; 511. Rotating shaft; 52. Adjusting rack; 53. Drive gear; 6. Linkage assembly; 61. Separation cylinder; 62. Locking block; 621. Wedge-shaped protrusion; 63. Mounting clamp. Detailed Implementation

[0030] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0031] Please see Figures 1-8 A communication device capable of enhancing signals includes a base 1, a signal transceiver body 2 disposed above the base 1, and a position adjustment mechanism 3 disposed between the base 1 and the signal transceiver body 2. The position adjustment mechanism 3 includes a left-right adjustment component 4, a right-right adjustment component 5, and a linkage component 6. The left-right adjustment component 4 includes a telescopic adjustment group 41 and a drive ring 42. The drive ring 42 is located above the base 1 and rotates with the base 1. The drive ring 42 is connected to the drive end of the telescopic adjustment group 41. The right-right adjustment component 5 includes an adjustment gear 51 and an adjustment rack 52. The adjustment rack 52 is located between the base 1 and the signal transceiver body 2, and the adjustment gear 51 is located on one side of the adjustment rack 52. The linkage component 6 includes a separation cylinder 61 and a locking block 62. The separation cylinder 61 is located above the adjustment gear 51 and is connected to the output end of the separation cylinder 61. The locking block 62 is located on one side of the adjustment gear 51 and extends to one side of the drive ring 42.

[0032] In practical use, a signal transceiver is provided at the front end of the arc surface of the signal transceiver pot body 2 for receiving and sending signals. The signal transceiver is fixedly connected to the signal transceiver pot body 2 through a connecting rod.

[0033] In use, the signal transceiver body 2 enhances signal transmission and reception. When adjusting the position of the communication device, the telescopic adjustment group 41 in the left-right adjustment assembly 4 drives the drive ring 42 to rotate. The rotation of the drive ring 42 drives the signal transceiver body 2 to rotate, which in turn drives the adjustment gear 51 in the up-down adjustment assembly 5 to rotate. The adjustment gear 51 rotates on one side of the adjustment rack 52, thereby adjusting the up-down position of the adjustment rack 52, thus completing the position adjustment during installation. Then, the separation cylinder 61 in the linkage assembly 6 drives the locking block 62 to lock the drive ring 42, preventing the communication device from moving freely after installation. During use, when it is necessary to receive or transmit signals over a wider range, the separation cylinder 61 in the linkage assembly 6 drives the adjustment gear 51 downwards, connecting the adjustment gear 51 to the drive ring 42. At this time, the locking block 62 moves downwards synchronously, moving away from the drive ring 42, until the adjustment gear 51 contacts the drive ring 42. The drive ring 42 separates from the locking block 62, and the drive ring 42 is unlocked (the distance between the locking block 62 and the drive ring 42 is greater than the distance between the adjusting gear 51 and the drive ring 42, ensuring that the locking block 62 separates from the drive ring 42 first, and then the adjusting gear 51 contacts the drive ring 42, thus ensuring that the adjusting gear 51 can contact the drive ring 42). At this time, the drive ring 42 is driven to rotate by the telescopic adjustment group 41 in the left and right adjustment assembly 4. While the drive ring 42 drives the signal transceiver body 2 to rotate, the adjusting gear 51 drives the adjusting rack 52 to move. When the telescopic adjustment group 41 reciprocates, it drives the drive ring 42 to rotate reciprocally, and the adjusting gear 51 follows the reciprocating rotation of the drive ring 42. The adjusting rack 52 moves up and down reciprocally. Thus, during the use of this communication device, the position of the communication device can be adjusted by the independent operation of the left and right adjustment assembly 4, so that it can receive and transmit signals within a fixed range. Alternatively, the left and right adjustment assembly 4 and the up and down adjustment assembly 5 can be used in combination to form a reciprocating swing left and right and up and down, thereby enhancing the range of signal reception and transmission.

[0034] Furthermore, the base 1 has a frustum-shaped structure, and the base 1 includes an upper support ring 11, a support rod 12, and a lower support ring 13. The support rod 12 is located between the upper support ring 11 and the lower support ring 13. The signal transceiver pan 2 is located above the upper support ring 11, and the position adjustment mechanism 3 is located in the middle of the upper support ring 11. The frustum-shaped base 1 supports the device and ensures the stability of the device.

[0035] Furthermore, the telescopic adjustment group 41 comprises several groups, each group including a first telescopic rod 411, a second telescopic rod 412, and a lower mounting base 413. The bottoms of the first telescopic rod 411 and the second telescopic rod 412 are rotatably connected to the lower mounting base 413, and the output ends of the first telescopic rod 411 and the second telescopic rod 412 are respectively inclined to both sides; (e.g.) Figure 5 As shown, the first telescopic rod 411 and the second telescopic rod 412 in each telescopic adjustment group 41 are inclined to both sides respectively. When the first telescopic rod 411 retracts, the second telescopic rod 412 extends. That is, when the first telescopic rod 411 retracts, it pulls the drive ring 42 to move, and when the second telescopic rod 412 extends, it pushes the drive ring 42 to move, thereby causing the drive ring 42 to rotate in one direction.

[0036] Furthermore, an upper mounting base 421 is provided at the bottom of the drive ring 42, which is positioned between two adjacent lower mounting bases 413. The output ends of the first telescopic rod 411 in one set of telescopic adjustment groups 41 and the second telescopic rod 412 in another set of telescopic adjustment groups 41 are respectively rotatably connected to the upper mounting base 421. The position of the upper mounting base 421 at the bottom of the drive ring 42, positioned between two adjacent lower mounting bases 413, allows the upper mounting base 421 and the lower mounting bases 413 to be rotatably connected. The base 413 is staggered, so that the output ends of the first telescopic rod 411 and the second telescopic rod 412 in the two adjacent telescopic adjustment groups 41 are mounted on the same upper mounting base 421. That is, the first telescopic rod 411 and the second telescopic rod 412 in the two adjacent telescopic adjustment groups 41 form a triangular structure. When neither the first telescopic rod 411 nor the second telescopic rod 412 is extending or retracting, it forms a stable triangular structure. When the first telescopic rod 411 retracts and the second telescopic rod 412 extends synchronously, it drives the drive ring 42 above it to rotate.

[0037] Furthermore, a bearing is provided between the drive ring 42 and the upper support ring 11. A connecting beam 422 is provided in the middle of the drive ring 42. A hinge block 423 is provided between one end of the signal transceiver pan 2 and the connecting beam 422. A drive rod 424 is provided inside the connecting beam 422. An abutment block 425 is provided above one end of the drive rod 424. The abutment block 425 extends upward above the connecting beam 422 and abuts against the upper side of the hinge block 423. The other end of the drive rod 424 extends to the bottom of the up-down adjustment assembly 5. Through the rotatable connection of the drive ring 42 and the upper support ring 11 via the bearing, when the drive rod 424 is driven to move towards the hinge block 423, the abutment block 425 above the drive rod 424 abuts against the bottom of the hinge block 423, thereby fixing the hinge block 423.

[0038] Furthermore, the up-down adjustment component 5 is located at the other end of the connecting beam 422. The connecting beam 422 is provided with a movable groove 426, and a hollow tube 427 is provided above the movable groove 426. The up-down adjustment component 5 is located inside the hollow tube 427, and the other end of the drive rod 424 extends into the movable groove 426. The hollow tube 427 is located outside the drive ring 42. By using the up-down adjustment component 5 located at the other end of the connecting beam 422, when the up-down adjustment component 5 moves upward in the hollow tube 427, it drives the drive rod 424 to move towards the hinge block 423.

[0039] Furthermore, the up-down adjustment assembly 5 also includes a drive gear 53, which is located above the drive ring 42. The adjustment gear 51 is connected to the drive ring 42 via the drive gear 53. Both the drive gear 53 and the adjustment gear 51 have rotating shafts 511 on both sides. A guide groove 428 is provided on one side of the hollow tube 427. A mounting block is provided on one side of the rotating shaft 511 of the drive gear 53, and the mounting block is connected to the inner wall of the hollow tube 427. The adjustment rack 52 is located inside the hollow tube 427. The adjustment gear 51 meshes with the adjustment rack 52, and the adjustment rack 52 is positioned away from the drive ring 42. The drive gear 53 in the up-down adjustment assembly 5 rotates under the drive of the drive ring 42, which in turn drives the adjustment gear 51 to move the adjustment rack 52.

[0040] Furthermore, the upper surface of the drive ring 42 is provided with drive teeth 43, which mesh with the drive gear 53. The inner side of the drive ring 42 is provided with locking teeth 44, which are adapted to the locking block 62. When the drive ring 42 rotates, the drive teeth 43 on the upper surface of the drive ring 42 drive the drive gear 53 to rotate, and the drive gear 53 drives the adjusting gear 51 to rotate.

[0041] Furthermore, the separating cylinder 61 is located inside the hollow tube 427. A mounting block 63 is provided at the output end of the separating cylinder 61. The adjusting gear 51 is located in the middle of the mounting block 63. The rotating shaft 511 is rotatably connected to the mounting block 63. One side of the mounting block 63 is connected to the locking block 62, which is located inside the drive ring 42. A wedge-shaped protrusion 621 is provided on the other side of the bottom of the locking block 62, and the wedge-shaped protrusion 621 is adapted to the drive rod 424. When the separating cylinder 61 uses the mounting block 63 at its output end to drive the adjusting gear 51 downwards, until the adjusting gear 51... 1. Engages with the drive gear 53, and then the drive gear 53 drives the adjusting gear 51 to rotate. During the process of the separation cylinder 61 driving the adjusting gear 51 to move downward, it drives the locking block 62 on one side to move downward together, so that the locking block 62 first separates from the locking teeth 44 on the inner wall of the drive ring 42, that is, the drive ring 42 is unlocked. At the same time, the wedge-shaped protrusion 621 on the other side also moves downward and away from the drive rod 424. At this time, the drive rod 424 loses its pressure, that is, the hinge block 423 is released from fixation. When the signal transceiver pot body 2 is adjusted up and down by the up and down adjustment component 5 on one side, the hinge block 423 on the other side of the signal transceiver pot body 2 can rotate.

[0042] A connecting rod is hinged to the top of the adjusting rack 52, and the other end of the connecting rod is hinged to the signal transceiver pan 2.

[0043] Working principle: During use, the signal transmission and reception are enhanced through the signal transceiver body 2. When adjusting the position of the communication device, the telescopic adjustment group 41 in the left and right adjustment component 4 drives the drive ring 42 to rotate. When the drive ring 42 rotates, it drives the signal transceiver body 2 to rotate. First, the frustum-shaped base 1 supports the device to ensure its stability. Then (as shown in the image) Figure 5 As shown, the first telescopic rod 411 and the second telescopic rod 412 in each telescopic adjustment group 41 are inclined to both sides respectively. When the first telescopic rod 411 retracts, the second telescopic rod 412 extends. That is, when the first telescopic rod 411 retracts, it pulls the drive ring 42 to move, and when the second telescopic rod 412 extends, it pushes the drive ring 42 to move, thereby causing the drive ring 42 to rotate in one direction.

[0044] The upper mounting base 421 at the bottom of the drive ring 42 is positioned directly opposite the two adjacent lower mounting bases 413, causing the upper mounting base 421 and the lower mounting base 413 to be staggered. This allows the output ends of the first telescopic rod 411 and the second telescopic rod 412 in the two adjacent telescopic adjustment groups 41 to be mounted on the same upper mounting base 421. That is, the first telescopic rod 411 and the second telescopic rod 412 in the two adjacent telescopic adjustment groups 41 form a triangular structure. When neither the first telescopic rod 411 nor the second telescopic rod 412 is extending or retracting, they form a stable triangular structure. When the first telescopic rod 411 retracts and the second telescopic rod 412 extends synchronously, the drive ring 42 above it is driven to rotate. The drive ring 42 is rotatably connected to the upper support ring 11 by a bearing. When the drive rod 424 is driven to move towards the hinge block 423, the abutment block 425 above the drive rod 424 abuts against the bottom of the hinge block 423, thereby fixing the hinge block 423.

[0045] Further, by driving the adjusting gear 51 in the up-down adjusting assembly 5 to rotate, the adjusting gear 51 rotates on one side of the adjusting rack 52, thereby adjusting the up-down position of the adjusting rack 52, thus completing the position adjustment during the installation of the communication device. First, the up-down adjusting assembly 5, located at the other end of the connecting beam 422, drives the driving rod 424 to move towards the hinge block 423 when the up-down adjusting assembly 5 moves upward in the hollow tube 427; then, the driving gear 53 in the up-down adjusting assembly 5 rotates under the drive of the driving ring 42, which in turn drives the adjusting gear 51 to move the adjusting rack 52. The driving teeth 43 provided on the upper surface of the driving ring 42 drive the driving gear 53 to rotate when the driving ring 42 rotates, and the driving gear 53 drives the adjusting gear 51 to rotate. When the separating cylinder 61 drives the adjusting gear 51 to move downwards via the mounting clamp 63 at its output end, the adjusting gear 51 meshes with the drive gear 53. Then, the drive gear 53 drives the adjusting gear 51 to rotate. During the process of the separating cylinder 61 driving the adjusting gear 51 to move downwards, the locking block 62 on one side moves downwards as well. This causes the locking block 62 to first separate from the locking teeth 44 on the inner wall of the drive ring 42, i.e., the drive ring 42 is unlocked. At the same time, the wedge-shaped protrusion 621 on the other side also moves downwards and away from the drive rod 424. At this time, the drive rod 424 loses its pressure, i.e., the hinge block 423 is released from its fixation. When the signal transceiver pan 2 is adjusted up and down by the up and down adjustment assembly 5 on one side, the hinge block 423 on the other side of the signal transceiver pan 2 can rotate.

[0046] Then, the separation cylinder 61 in the linkage assembly 6 drives the locking block 62 to lock the drive ring 42, preventing the communication device from moving freely after installation. During use, when it is necessary to receive signals from a wider range or send signals to a wider range, the separation cylinder 61 in the linkage assembly 6 drives the adjusting gear 51 downwards, connecting the adjusting gear 51 to the drive ring 42. Simultaneously, the locking block 62 moves downwards and away from the drive ring 42 until the drive ring 42 separates from the locking block 62 before the adjusting gear 51 contacts it, thus releasing the lock on the drive ring 42. (The distance between the locking block 62 and the drive ring 42 is greater than the distance between the adjusting gear 51 and the drive ring 42, ensuring that the locking block 62 separates from the drive ring 42 first, and then the adjusting gear 51...) (The adjustment gear 51 contacts the drive ring 42, thus ensuring that the drive ring 42 can contact the adjustment gear 51). At this time, the drive ring 42 is driven to rotate by the telescopic adjustment group 41 in the left and right adjustment assembly 4. The drive ring 42 drives the signal transceiver body 2 to rotate. At the same time, the adjustment gear 51 drives the adjustment rack 52 to move. When the telescopic adjustment group 41 reciprocates, it drives the drive ring 42 to rotate reciprocally. The adjustment gear 51 follows the reciprocating rotation of the drive ring 42, and the adjustment rack 52 moves up and down reciprocally. Thus, during the use of this communication device, the position of the communication device can be adjusted by the independent operation of the left and right adjustment assembly 4, so that it can receive and transmit signals within a fixed range. Alternatively, the left and right adjustment assembly 4 and the up and down adjustment assembly 5 can be used in combination to form a reciprocating swing from left to right and up and down, thereby enhancing the range of signal reception and transmission.

[0047] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A communication device capable of enhancing signals, comprising a base, a signal transceiver pot body is arranged above the base, characterized in that: A position adjustment mechanism is provided between the base and the signal transceiver pan body. The position adjustment mechanism includes a left-right adjustment component, a right-down adjustment component, and a linkage component. The left and right adjustment assembly includes a telescopic adjustment group and a drive ring. The drive ring is located above the base and rotates with the base. The drive ring is connected to the drive end of the telescopic adjustment group. The up-down adjustment assembly includes an adjustment gear and an adjustment rack, the adjustment rack being located between the base and the signal transceiver pan body, and the adjustment gear being located on one side of the adjustment rack; The linkage component includes a separation cylinder and a locking block. The separation cylinder is located above the adjusting gear and is connected to the output end of the separation cylinder. The locking block is located on one side of the adjusting gear and extends to one side of the drive ring. The telescopic adjustment group has several groups. Each telescopic adjustment group includes a first telescopic rod, a second telescopic rod and a lower mounting base. The bottoms of the first telescopic rod and the second telescopic rod are rotatably connected to the lower mounting base. The output ends of the first telescopic rod and the second telescopic rod are respectively inclined to both sides. A connecting beam is provided in the middle of the drive ring. A hinge block is provided between one end of the signal transceiver pan and the connecting beam. A drive rod is provided inside the connecting beam. An abutment block is provided above one end of the drive rod. The abutment block extends upward above the connecting beam and abuts against the upper side of the hinge block. The other end of the drive rod extends to the bottom of the up-down adjustment assembly. The connecting beam is provided with a movable groove, and a hollow tube is provided above the movable groove. The up-down adjustment assembly also includes a drive gear, which is located above the drive ring. The adjustment gear is connected to the drive ring through the drive gear. Rotating shafts are provided on both sides of the drive gear and the adjustment gear. A guide groove is opened on one side of the hollow tube. A mounting block is provided on one side of the rotating shaft of the drive gear. The mounting block is connected to the inner wall of the hollow tube. The adjustment rack is located inside the hollow tube. The adjustment gear meshes with the adjustment rack, and the adjustment rack is located away from the drive ring. The upper surface of the drive ring is provided with drive teeth, which are meshed with the drive gear. The inner side of the drive ring is provided with locking teeth, which are adapted to the locking block. The separating cylinder is located inside the hollow tube. The output end of the separating cylinder is provided with a mounting clamp. The adjusting gear is located in the middle of the mounting clamp. The rotating shaft is rotatably connected to the mounting clamp. One side of the mounting clamp is connected to the locking block. The locking block is located inside the drive ring. The other side of the bottom of the locking block is provided with a wedge-shaped protrusion. The wedge-shaped protrusion is adapted to the drive rod.

2. The communication device capable of enhancing signals according to claim 1, characterized in that: The base has a frustum-shaped structure and includes an upper support ring, a support rod, and a lower support ring. The support rod is located between the upper and lower support rings. The signal transceiver is located above the upper support ring, and the position adjustment mechanism is located in the middle of the upper support ring.

3. A communication device capable of enhancing signals according to claim 1, characterized in that: The bottom of the drive ring is provided with an upper mounting base, which is positioned directly opposite to the position between two adjacent lower mounting bases. The output ends of the first telescopic rod in one set of telescopic adjustment groups and the second telescopic rod in another set of telescopic adjustment groups are respectively rotatably connected to the upper mounting base.

4. A communication device capable of enhancing signals according to claim 2, characterized in that: A bearing is provided between the drive ring and the upper support ring.

5. A communication device capable of enhancing signals according to claim 1, characterized in that: The up-down adjustment assembly is located at the other end of the connecting beam and inside the hollow tube. The other end of the drive rod extends inside the movable groove, and the hollow tube is located outside the drive ring.

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