A fishing game machine
By employing a mechanical linkage design that combines action blocks and action terminals in the fish-catching amusement machine, the problems of insufficient and malfunctioning net movements have been solved, ensuring reliable fish delivery and enhancing the player experience.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- GUANGZHOU SPACE ART ANIMATION TECHNOLOGY CO LTD
- Filing Date
- 2025-01-24
- Publication Date
- 2026-05-29
AI Technical Summary
Existing fishing game machines have problems with their nets, such as insufficient movement, incorrect timing, or malfunction, which makes it impossible for players to retrieve the fish they catch.
By using a combination of action blocks and action terminals, the fish can be poured out through mechanical linkage, eliminating the need for a separate power unit. The design of the telescopic arm and the net ensures the reliability and accuracy of the net-scooping action.
This ensures that the fish caught in the net can be reliably delivered to the player, avoiding the problem of fish falling back into the pool due to power unit failure, thus improving the reliability of the fishing game and the player experience.
Smart Images
Figure CN224292491U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of amusement devices, specifically to a fish-catching amusement machine. Background Technology
[0002] Amusement rides, also known as game machines, are devices designed for entertainment. One type of amusement ride involves a fishing game where a mechanical net is used to scoop fish from a pool, and the caught fish are then transported outside the machine for players to take home and admire.
[0003] Existing fishing amusement machines have flawed net designs. They typically use an independent power unit to control the tilting of the net, which can easily lead to problems such as insufficient angle, incorrect timing of the tilting action, or even tilting malfunction. As a result, fish that players have already caught cannot be retrieved due to net malfunction and are sent back into the pool. Utility Model Content
[0004] The purpose of this invention is to address the problems existing in the prior art by providing a fish-catching amusement machine that can unload fish through the cooperation of an action block and an action terminal.
[0005] To achieve the above objectives, the present invention adopts the following technical solution:
[0006] A fishing amusement machine includes a chassis, a control system, a pool, a prize bag, a drive system, a telescopic arm, and a net. The chassis houses an observation chamber with a glass-enclosed front wall. A pool for storing fish is fixed to the bottom of the observation chamber, and a prize bag connecting the outside to the inside of the observation chamber is fixed to the side of the pool. The control system is located inside the chassis and electrically connected to the drive system and the telescopic arm. The drive system is located at the top of the observation chamber, and the telescopic arm is vertically mounted below the drive system. The net is installed at the bottom of the telescopic arm and has a laterally protruding actuating terminal. An actuating block that mates with the actuating terminal protrudes from the bottom of the observation chamber.
[0007] Furthermore, the net is integrally formed and rotatably connected to the bottom of the telescopic arm, so that the net tilts and rotates when the action terminal touches the action block; a return spring is connected between the net and the telescopic arm.
[0008] Furthermore, the scooping net consists of two mirror-image half-nets, which are rotatably connected to the bottom of the telescopic arm and spliced together to form a pocket-shaped net structure. Gears are fixedly provided on the back side of the half-nets, and the gears of the two half-nets mesh with each other to drive the two half-nets to rotate synchronously in opposite directions. The half-nets are provided with laterally protruding action terminals, so that the scooping net rotates and opens when the action terminals touch the action blocks. A return spring is connected between the two half-nets.
[0009] Furthermore, the scooping net consists of two mirror-image half-nets, which are slidably connected to the bottom of the telescopic arm and spliced together to form a pocket-shaped net structure. The back side of the half-net is provided with a rearward protruding actuating terminal, and the two sides of the actuating block are provided with inclined surfaces that gradually expand from top to bottom, so that the scooping net slides open to both sides when the actuating terminal slides along the inclined surface. A return spring is connected between the two half-nets.
[0010] Furthermore, the telescopic arm is a telescopic electric cylinder.
[0011] Furthermore, the telescopic arm includes a lifting motor, a lifting guide rail, a lifting slider, an extension arm, lifting pulleys, a lifting transmission belt, a lifting electrical switch, and a lifting trigger terminal; the lifting guide rail is vertically installed below the drive system, and the lifting slider is slidably connected to the lifting guide rail; the extension arm is fixedly installed on the lifting slider, and the haul net is installed at the bottom of the extension arm; two lifting pulleys are arranged vertically along the upper edge of the lifting guide rail, the transmission belt is wound around the lifting pulleys, and the lifting slider is connected to the lifting transmission belt; the lifting motor is drivenly connected to the lifting pulleys at the top; two lifting electrical switches are arranged vertically along the outer edge of the lifting guide rail, and the lifting trigger terminal cooperating with the lifting electrical switch is fixedly installed on the lifting slider.
[0012] Furthermore, the drive system includes a longitudinal component and a lateral component;
[0013] The longitudinal assembly consists of longitudinal guide rails, longitudinal moving seats, longitudinal wheels, a longitudinal motor, and longitudinal limit switches. Two sets of longitudinal guide rails are fixed longitudinally to the top of the observation chamber and are located on the left and right sides respectively. Each set of longitudinal guide rails is equipped with two longitudinal moving seats. The longitudinal wheels are rotatably connected to the longitudinal moving seats and roll in contact with the longitudinal guide rails, allowing the longitudinal moving seats to slide on the longitudinal guide rails. The longitudinal motor is fixedly installed on the longitudinal moving seats and is connected to the longitudinal wheels via a transmission. Two longitudinal limit switches are fixedly installed on both sides of the longitudinal moving seats along the longitudinal direction.
[0014] The lateral assembly consists of a lateral guide rail, a lateral moving seat, a lateral wheel, a lateral motor, and a lateral limit switch. The lateral guide rail is fixed laterally between two longitudinal moving seats. The lateral wheel is rotatably connected to the lateral moving seat and rolls against the lateral guide rail, allowing the lateral moving seat to slide against the lateral guide rail. The lateral motor is fixedly mounted on the lateral moving seat and is connected to the lateral wheel via a transmission. A lateral limit switch is installed on each of the two longitudinal moving seats. The telescopic arm is mounted on the lateral moving seat.
[0015] Furthermore, the longitudinal motor and the transverse motor are driven by worm gears, and the longitudinal wheel and the transverse wheel are driven by turbines, which are driven by the worm gears.
[0016] Furthermore, the drive system includes a longitudinal component and a lateral component;
[0017] The transverse assembly consists of a transverse slide rail, a transverse slider, transverse pulleys, a transverse transmission belt, a transverse motor, and a transverse limit switch. The transverse slide rail is fixedly installed transversely on the top of the observation chamber. The transverse slider is slidably connected to the transverse slide rail. Two transverse pulleys are arranged transversely on the sides of the transverse slide rail, and the transverse transmission belt is wound between the two transverse pulleys and arranged parallel to the transverse slide rail. The transverse motor is installed on the top of the observation chamber and is connected to the transverse pulleys for transmission. The transverse limit switch is arranged along the transverse slide rail, and a transverse trigger terminal that cooperates with it is fixed on the transverse slider.
[0018] The longitudinal assembly consists of a longitudinal slide rail, a longitudinal slider, longitudinal pulleys, a longitudinal transmission belt, a longitudinal motor, and a longitudinal limit switch. The longitudinal slide rail is fixed longitudinally below the transverse slider. The longitudinal slider is slidably connected to the longitudinal slide rail. Two longitudinal pulleys are arranged longitudinally on the sides of the longitudinal slide rail, and the longitudinal transmission belt is wound between the two longitudinal pulleys and arranged parallel to the longitudinal slide rail. The longitudinal motor is mounted on the transverse slider and is connected to the longitudinal pulleys for transmission. The longitudinal limit switch is arranged along the longitudinal slide rail, and a longitudinal trigger terminal that cooperates with it is fixed on the longitudinal slider. The telescopic arm is mounted on the longitudinal slider.
[0019] This utility model discloses a fishing amusement machine that uses a combination of action blocks and action terminals to cause the net to tip out, eliminating the need for a separate power system. The tipping motion is sufficiently wide, highly reliable, and will not malfunction, ensuring that the fish in the net are reliably delivered to the player. Multiple options are available for the telescopic arm and drive system. Attached Figure Description
[0020] Figure 1 This is a structural schematic diagram of a fish-catching amusement machine provided by this utility model.
[0021] Figure 2 This is a schematic diagram of the net structure in Example 1.
[0022] Figure 3 This is a schematic diagram of the net structure in Example 2.
[0023] Figure 4 This is a schematic diagram of the net structure in Example 3.
[0024] Figure 5 This is a schematic diagram of the drive system of the walking wheel structure.
[0025] Figure 6 This is a schematic diagram of a belt drive system. Detailed Implementation
[0026] The technical solution of this utility model will now be described in detail with reference to the accompanying drawings and specific embodiments.
[0027] Example 1
[0028] like Figures 1 to 2 As shown, the present invention provides a fish-catching amusement machine, including a housing 1, a control system 2, a water tank 3, a prize bag 4, a drive system 5, a telescopic arm 6, and a net 7. The housing 1 contains an observation chamber with a glass-enclosed front wall. A water tank 3 for storing fish is fixedly located at the bottom of the observation chamber, and a prize bag 4 connecting the outside to the inside of the observation chamber is fixedly located on the side of the water tank 3. The control system 2 is located inside the housing 1 and is electrically connected to the drive system 5 and the telescopic arm 6. The drive system 5 is located at the top of the observation chamber, and the telescopic arm 6 is vertically installed below the drive system 5. The net 7 is installed at the bottom of the telescopic arm 6, and the net 7 has a laterally protruding action terminal 71. An action block 8 that cooperates with the action terminal 71 protrudes from the bottom of the observation chamber.
[0029] The player operates the control system 2, which controls the drive system 5 to move the net 7 and use the telescopic arm 6 to scoop fish up and down. Once scooping is complete, the telescopic arm 6 retracts upwards, and the drive system 5 moves the net 7 back above the prize bag 4. Then, the telescopic arm 6 extends downwards again, causing the action terminal 71 to contact the action block 8, forcing the net 7 to pour the fish into the prize bag 4. The player can then use a bucket to collect the fish and take it home to enjoy.
[0030] The chassis 1 also contains a light box, a coin acceptor, an electrical system, etc., which are all existing technologies and are part of the chassis 1 referred to in this invention, and will not be described in detail here.
[0031] There are three preferred methods for the operation of the scooping net 7 in this invention.
[0032] like Figure 2 As shown, preferably, in this embodiment, the net 7 is integrally formed and rotatably connected to the bottom end of the telescopic arm 6, so that the net 7 tilts and rotates when the action terminal 71 touches the action block 8; a return spring 72 is connected between the net 7 and the telescopic arm 6.
[0033] The simplest solution is to use an integrated and rotatably connected net 7. The return spring 72 ensures that the net 7 is always in a horizontal position. When the telescopic arm 6 descends, it causes the action terminal 71 of the net 7 to touch the action block 8. The net 7 will then overcome the spring force and rotate, tilting the fish in the net.
[0034] Preferably, the telescopic arm 6 is a telescopic electric cylinder. The telescopic electric cylinder can be purchased as a complete unit.
[0035] like Figure 6As shown, or as another preferred embodiment, the telescopic arm 6 includes a lifting motor 61, a lifting slide rail 62, a lifting slider 63, an extension arm 64, lifting pulleys, a lifting transmission belt, a lifting electrical switch 65, and a lifting trigger terminal; the lifting slide rail 62 is vertically installed below the drive system 5, and the lifting slider 63 is slidably connected to the lifting slide rail 62; the extension arm 64 is fixedly installed on the lifting slider 63, and the scooping net 7 is installed at the bottom end of the extension arm 64; two lifting pulleys are arranged vertically along the upper edge of the lifting slide rail 62, the transmission belt is wound around the lifting pulleys, and the lifting slider 63 is connected to the lifting transmission belt; the lifting motor 61 is connected to the lifting pulleys at the top; two lifting electrical switches 65 are arranged vertically along the outer edge of the lifting slide rail 62, and the lifting trigger terminal cooperating with the lifting electrical switch 65 is fixedly installed on the lifting slider 63.
[0036] The lifting motor 61 drives the lifting pulley to rotate, which in turn drives the lifting transmission belt, causing the lifting slider 63 to slide up and down along the lifting rail 62. During this process, the extension arm 64 also rises and falls synchronously, acting as a telescopic unit. The lifting trigger terminal moves up and down along with the lifting slider 63. During the lifting process, it triggers the corresponding lifting electrical switch 65, sending a control signal to coordinate the control.
[0037] Specifically, the drive system 5 has two structural options: a walking wheel structure and a belt drive structure.
[0038] The following is the first type of wheeled walking solution:
[0039] like Figure 5 As shown, preferably, the drive system 5 includes a longitudinal component 51 and a transverse component 52;
[0040] The longitudinal component 51 consists of a longitudinal guide rail 511, a longitudinal moving seat 512, a longitudinal wheel 513, a longitudinal motor 514, and a longitudinal limit switch 515. Two sets of longitudinal guide rails 511 are fixed longitudinally to the top of the observation chamber and are located on the left and right sides respectively. Each set of longitudinal guide rails 511 is provided with two longitudinal moving seats 512. The longitudinal wheel 513 is rotatably connected to the longitudinal moving seat 512 and rolls against the longitudinal guide rail 511, so that the longitudinal moving seat 512 is slidably connected to the longitudinal guide rail 511. The longitudinal motor 514 is fixedly installed on the longitudinal moving seat 512 and is drivenly connected to the longitudinal wheel 513. Two longitudinal limit switches 515 are fixedly installed on both sides of the longitudinal moving seat 512.
[0041] The transverse assembly 52 consists of a transverse guide rail 521, a transverse moving seat 522, a transverse wheel 523, a transverse motor 524, and a transverse limit switch 525. The transverse guide rail 521 is transversely fixed between two longitudinal moving seats 512. The transverse wheel 523 is rotatably connected to the transverse moving seat 522 and rolls against the transverse guide rail 521, so that the transverse moving seat 522 is slidably connected to the transverse guide rail 521. The transverse motor 524 is fixedly installed on the transverse moving seat 522 and is connected to the transverse wheel 523 in a transmission manner. A transverse limit switch 525 is installed on each of the longitudinal moving seats 512 on both sides. The telescopic arm 6 is installed on the transverse moving seat 522.
[0042] The longitudinal wheel 513 travels on the longitudinal guide rail 511, driven by the longitudinal motor 514, which in turn drives the entire lateral assembly 52 to achieve longitudinal control freedom. Similarly, the lateral wheel 523 travels on the lateral guide rail 521, driven by the lateral motor 524, which in turn drives the telescopic arm 6 to achieve lateral control freedom. During this process, the longitudinal limit switch 515 and the lateral limit switch 525 are respectively limited at specific positions, and when triggered, they will send a signal to prevent the corresponding motor from continuing to rotate.
[0043] Furthermore, the longitudinal motor 514 and the transverse motor 524 are preferably connected by a worm gear, and the longitudinal wheel 513 and the transverse wheel 523 are connected by a worm gear, which is connected to the worm gear. Using a worm gear drive helps to reduce speed and increase torque, improves the smoothness and accuracy of the transmission, and increases the driving force.
[0044] The following is the second belt drive solution:
[0045] like Figure 6 As shown, preferably, the drive system 5 includes a longitudinal component 51 and a transverse component 52;
[0046] The transverse assembly 52 consists of a transverse slide rail 526, a transverse slider 527, a transverse pulley 528, a transverse transmission belt 529, a transverse motor 524, and a transverse limit switch 525. The transverse slide rail 526 is fixedly installed transversely on the top of the observation chamber. The transverse slider 527 is slidably connected to the transverse slide rail 526. Two transverse pulleys 528 are arranged transversely on the sides of the transverse slide rail 526, and the transverse transmission belt 529 is wound between the two transverse pulleys 528 and arranged parallel to the transverse slide rail 526. The transverse motor 524 is installed on the top of the observation chamber and is connected to the transverse pulleys 528 for transmission. The transverse limit switch 525 is arranged along the transverse slide rail 526, and a transverse trigger terminal that cooperates with it is fixed on the transverse slider 527.
[0047] The longitudinal assembly 51 consists of a longitudinal slide rail 516, a longitudinal slider 517, a longitudinal pulley, a longitudinal transmission belt, a longitudinal motor 514, and a longitudinal limit switch 515. The longitudinal slide rail 516 is longitudinally fixed below the transverse slider 527. The longitudinal slider 517 is slidably connected to the longitudinal slide rail 516. Two longitudinal pulleys are respectively arranged longitudinally on the sides of the longitudinal slide rail 516, and the longitudinal transmission belt is wound between the two longitudinal pulleys and arranged parallel to the longitudinal slide rail 516. The longitudinal motor 514 is mounted on the transverse slider 527 and is drivenly connected to the longitudinal pulley. The longitudinal limit switch 515 is arranged along the longitudinal slide rail 516, and a longitudinal trigger terminal that cooperates with it is fixed on the longitudinal slider 517. The telescopic arm 6 is mounted on the longitudinal slider 517.
[0048] The slide rail and slider have good fit, resulting in smooth operation. The belt drive scheme features a simple structure and stable vibration reduction. The transverse motor 524 drives the transverse pulley 528 to rotate, which in turn drives the transverse transmission belt 529, thereby causing the transverse slider 527 to slide. The entire longitudinal assembly 51 also gains lateral control freedom. Similarly, the longitudinal motor 514 controls the longitudinal pulley to rotate, which in turn drives the longitudinal slider 517 to slide, thus controlling the movement of the telescopic arm 6 in the longitudinal direction. The transverse limit switch 525 and the longitudinal limit switch 515 function similarly to the above-mentioned traveling wheel scheme.
[0049] Example 2
[0050] The only difference between this embodiment and Embodiment 1 is:
[0051] The scooping net 7 adopts a structure with two separate sides that can be rotated and opened.
[0052] like Figure 3 As shown, specifically, the scooping net 7 is composed of two mirror-image half-nets 73. The two half-nets 73 are rotatably connected to the bottom of the telescopic arm 6 and spliced together to form a pocket-shaped net structure. Gears 74 are fixedly provided on the back side of the half-nets 73. The gears 74 of the two half-nets 73 mesh with each other and drive each other, so that the two half-nets 73 rotate synchronously in opposite directions. The half-nets 73 are provided with laterally protruding action terminals 71, so that the scooping net 7 rotates and opens when the action terminals 71 touch the action block 8. A return spring 72 is connected between the two half-nets 73.
[0053] When the telescopic arm 6 extends downwards, the actuating terminal 71 contacts the actuating block 8, thereby driving one half of the net 73 to rotate. Due to the action of the gear 74, the other half of the net 73 will also rotate in the opposite direction synchronously, thus opening the scoop net 7 from the middle. The fish will fall into the winning bag from the middle. This design helps protect the fish from injury and prevents them from being thrown heavily into the winning bag due to the net rotating too fast.
[0054] Example 3
[0055] The only difference between this embodiment and Embodiment 1 is:
[0056] The scooping net 7 in this embodiment adopts a split sliding opening and closing structure.
[0057] like Figure 4 As shown, specifically, the scooping net 7 is composed of two mirror-image half-nets 73. The two half-nets 73 are slidably connected to the bottom of the telescopic arm 6 and spliced together to form a pocket-shaped net structure. The back side of the half-net 73 is provided with a rearward protruding actuating terminal 71. The actuating block 8 has inclined surfaces that gradually expand from top to bottom on both sides, so that when the actuating terminal 71 slides along the inclined surface, the scooping net 7 slides open to both sides. A return spring 72 is connected between the two half-nets 73.
[0058] When the telescopic arm 6 extends downwards, the actuating terminal 71 contacts the actuating block 8. Under the action of the inclined surface of the actuating block 8, the actuating terminal 71 will expand, thereby causing the two half-nets 73 to separate and slide, so that the fish falls from the middle into the winning bag. Compared with the solution of embodiment two, the structure is simpler, eliminating the gear 74 structure.
[0059] Other technical features of Embodiments 2 and 3 can follow the scheme of Embodiment 1, and will not be repeated here.
[0060] This utility model provides a fishing amusement machine that uses the mechanical linkage between the action block 8 and the action terminal 71 to drive the net 7 to move. It has the advantages of high reliability and does not require an independent drive device. Furthermore, it is easy to operate and ensures the fish are not injured. The drive system 5 and the telescopic arm 6 operate smoothly and have a simple structure.
[0061] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of this utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.
Claims
1. A fish-catching amusement machine, characterized in that: The system includes a chassis, control system, water tank, prize bag, drive system, telescopic arm, and net. An observation chamber is located inside the chassis, with its front wall enclosed by glass. A water tank for storing fish is fixed at the bottom of the observation chamber, and a prize bag connecting the outside to the inside of the observation chamber is fixed to the side of the water tank. The control system is located inside the chassis and is electrically connected to the drive system and telescopic arm. The drive system is located at the top of the observation chamber, and the telescopic arm is vertically installed below the drive system. The net is installed at the bottom of the telescopic arm and has a laterally protruding actuating terminal. An actuating block that mates with the actuating terminal is protruding from the bottom of the observation chamber.
2. The fish-catching amusement machine according to claim 1, characterized in that: The net is integrated into the telescopic arm and is rotatably connected to the bottom of the telescopic arm, so that the net tilts and rotates when the action terminal touches the action block; a return spring is connected between the net and the telescopic arm.
3. The fish-catching amusement machine according to claim 1, characterized in that: The scooping net consists of two mirror-shaped half-nets, which are rotatably connected to the bottom of the telescopic arm and spliced together to form a pocket-shaped net structure. Gears are fixed on the back side of the half-nets, and the gears of the two half-nets mesh with each other to drive the two half-nets to rotate synchronously in opposite directions. The half-nets are provided with laterally protruding action terminals, so that the scooping net rotates and opens when the action terminals touch the action blocks. A return spring is connected between the two half-nets.
4. The fish-catching amusement machine according to claim 1, characterized in that: The scooping net consists of two mirror-image half-nets, which are slidably connected to the bottom of the telescopic arm and spliced together to form a pocket-shaped net structure. The back side of the half-net is provided with a rearward protruding actuating terminal, and the two sides of the actuating block are provided with inclined surfaces that gradually expand from top to bottom, so that the scooping net slides open to both sides when the actuating terminal slides along the inclined surface. A return spring is connected between the two half-nets.
5. The fish-catching amusement machine according to claim 1, 2, 3 or 4, characterized in that: The telescopic arm is a telescopic electric cylinder.
6. The fish-catching amusement machine according to claim 1, 2, 3 or 4, characterized in that: The telescopic boom includes a lifting motor, a lifting guide rail, a lifting slider, an extension arm, lifting pulleys, a lifting transmission belt, lifting electrical switches, and lifting trigger terminals. The lifting guide rail is vertically installed below the drive system, and the lifting slider is slidably connected to the lifting guide rail. The extension arm is fixedly installed on the lifting slider, and the haul net is installed at the bottom of the extension arm. Two lifting pulleys are arranged vertically along the upper edge of the lifting guide rail, and the transmission belt is wound around the lifting pulleys, with the lifting slider connected to the lifting transmission belt. The lifting motor is connected to the lifting pulleys at the top. Two lifting electrical switches are arranged vertically along the outer edge of the lifting guide rail, and lifting trigger terminals that cooperate with the lifting electrical switches are fixedly installed on the lifting slider.
7. The fish-catching amusement machine according to claim 1, 2, 3 or 4, characterized in that: The drive system includes longitudinal components and lateral components; The longitudinal assembly consists of longitudinal guide rails, longitudinal moving seats, longitudinal wheels, a longitudinal motor, and longitudinal limit switches. Two sets of longitudinal guide rails are fixed longitudinally to the top of the observation chamber and are located on the left and right sides respectively. Each set of longitudinal guide rails is equipped with two longitudinal moving seats. The longitudinal wheels are rotatably connected to the longitudinal moving seats and roll in contact with the longitudinal guide rails, allowing the longitudinal moving seats to slide on the longitudinal guide rails. The longitudinal motor is fixedly installed on the longitudinal moving seats and is connected to the longitudinal wheels via a transmission. Two longitudinal limit switches are fixedly installed on both sides of the longitudinal moving seats along the longitudinal direction. The lateral assembly consists of a lateral guide rail, a lateral moving seat, a lateral wheel, a lateral motor, and a lateral limit switch. The lateral guide rail is fixed laterally between two longitudinal moving seats. The lateral wheel is rotatably connected to the lateral moving seat and rolls against the lateral guide rail, allowing the lateral moving seat to slide against the lateral guide rail. The lateral motor is fixedly mounted on the lateral moving seat and is connected to the lateral wheel via a transmission. A lateral limit switch is installed on each of the two longitudinal moving seats. The telescopic arm is mounted on the lateral moving seat.
8. The fish-catching amusement machine according to claim 7, characterized in that: The longitudinal motor and the transverse motor are driven by worm gears, and the longitudinal wheel and the transverse wheel are driven by turbines, which are connected to the worm gears.
9. The fish-catching amusement machine according to claim 1, 2, 3 or 4, characterized in that: The drive system includes longitudinal components and lateral components; The transverse assembly consists of a transverse slide rail, a transverse slider, transverse pulleys, a transverse transmission belt, a transverse motor, and a transverse limit switch. The transverse slide rail is fixedly installed transversely on the top of the observation chamber. The transverse slider is slidably connected to the transverse slide rail. Two transverse pulleys are arranged transversely on the sides of the transverse slide rail, and the transverse transmission belt is wound between the two transverse pulleys and arranged parallel to the transverse slide rail. The transverse motor is installed on the top of the observation chamber and is connected to the transverse pulleys for transmission. The transverse limit switch is arranged along the transverse slide rail, and a transverse trigger terminal that cooperates with it is fixed on the transverse slider. The longitudinal assembly consists of a longitudinal slide rail, a longitudinal slider, longitudinal pulleys, a longitudinal transmission belt, a longitudinal motor, and a longitudinal limit switch. The longitudinal slide rail is fixed longitudinally below the transverse slider. The longitudinal slider is slidably connected to the longitudinal slide rail. Two longitudinal pulleys are arranged longitudinally on the sides of the longitudinal slide rail, and the longitudinal transmission belt is wound between the two longitudinal pulleys and arranged parallel to the longitudinal slide rail. The longitudinal motor is mounted on the transverse slider and is connected to the longitudinal pulleys for transmission. The longitudinal limit switch is arranged along the longitudinal slide rail, and a longitudinal trigger terminal that cooperates with it is fixed on the longitudinal slider. The telescopic arm is mounted on the longitudinal slider.