Intelligent tallying device

Abstract

The utility model relates to the technical field of tallying equipment, in particular to an intelligent tallying device which is characterized in that a hinge piece is arranged at the top of a telescopic rod, the telescopic rod flexibly adjusts the working height, a freely drooping connecting vertical rod is arranged through the hinge piece, and the intelligent tallying device adapts to working environments of various heights and angles. A high-definition camera in wireless communication connection is arranged at the bottom of the connecting vertical rod, and the rotating mechanism realizes omnibearing real-time monitoring of the high-definition camera on the surrounding environment, so that details are comprehensively captured during tallying. A touch screen of the high-definition camera displays images shot by the high-definition camera in real time, and the high-definition camera is controlled to rotate and shoot through the touch screen. Rotation and shooting of the high-definition camera are remotely controlled through the touch screen, operation is simplified, and use convenience is improved. The cargo states at different angles can be quickly checked through the mobile device, the system is used in the fields of warehouse tallying, cargo monitoring and intelligent logistics management, and the tallying efficiency is improved. Multi-person cooperation is not needed, one person can complete more work tasks, and human input is reduced.

Description

Technical Field

[0001] This utility model relates to the field of sorting equipment technology, and in particular to an intelligent sorting device. Background Technology

[0002] Traditional cargo handling operations are inefficient and time-consuming for counting, inspecting for damage, and photographing goods inside open wagons of trains, and pose significant safety hazards due to the cross-operation of humans and machines on site; in particular, it is impossible to quickly verify the lead seal number when containers are stacked more than two layers high.

[0003] The physical handling, inspection, and photographing of cargo inside open train wagons require cargo handlers to climb into the wagons to work. Both the climbing process and the confined space of the wagons pose significant safety hazards. If cargo handling is carried out simultaneously with unloading at the dock, the overlapping of human and machine operations also presents safety risks. Unloading one train wagon takes approximately half an hour, and a night shift typically involves unloading over ten wagons, resulting in long working hours and a large workforce. Summary of the Invention

[0004] The technical problem to be solved by this utility model is to address the shortcomings of the existing technology by providing a lightweight and easy-to-operate intelligent cargo handling device that uses a high-definition remotely controllable camera to photograph cargo in areas inaccessible to personnel or in confined spaces, including the counting of goods in train carriages, photographing transport marks and damage, and verifying the lead seal numbers of high-altitude containers.

[0005] The technical problem to be solved by this utility model is achieved through the following technical solution: an intelligent sorting device includes a telescopic rod with a hinge at the top, allowing the working height of the telescopic rod to be flexibly adjusted. A freely hanging connecting rod is provided through the hinge, allowing the device to adapt to various working environments at different heights and angles. A high-definition camera with wireless communication is located at the bottom of the connecting rod. A rotating mechanism at the bottom of the connecting rod drives the high-definition camera to rotate freely within a 360° range; this rotating mechanism enables the high-definition camera to monitor the surrounding environment in all directions in real time, ensuring comprehensive capture of details during sorting.

[0006] The lower part of the telescopic pole is designed as a handheld unit. A receiving terminal, wirelessly connected to a high-definition camera, is mounted on the telescopic pole at the handheld unit. The receiving terminal includes a signal receiver and a touchscreen. The signal receiver receives images captured in real-time by the high-definition camera and transmits them to the touchscreen. Users can monitor the footage in real-time via the touchscreen, which displays the images captured by the high-definition camera and has image information receiving and storage buttons for convenient data saving and subsequent processing. The images can be played back at any time for inspection and confirmation during inventory handling, improving the accuracy of inventory handling. The touchscreen also controls the rotation and shooting of the high-definition camera. Users can remotely control the rotation and shooting of the high-definition camera via the touchscreen, simplifying the operation process and improving ease of use.

[0007] High-definition cameras and receiving terminals communicate wirelessly for data transmission, reducing cable constraints and increasing operational flexibility and freedom. Users can quickly view the status of goods from different angles via mobile devices, applicable to warehouse inventory management, cargo monitoring, and intelligent logistics management, improving inventory efficiency and accuracy. Furthermore, it eliminates the need for multiple people to collaborate, allowing a single person to complete more tasks, reducing manpower and increasing efficiency.

[0008] As a further embodiment of this utility model, the receiving terminal also includes a controller, which is equipped with a communication module and a power module. The communication module has a pre-coded program, and the controller stores the received images, records them in groups, and traces the inventory information.

[0009] This ensures that every image is accurately recorded, facilitating subsequent data retrieval, analysis, and management. By grouping images, users can quickly access image data of specific categories, significantly improving data traceability and information management efficiency during the inventory management process.

[0010] The communication module, via wireless connection, can receive data transmitted from the high-definition camera in real time and transmit it to the controller, ensuring the timeliness and accuracy of data transmission.

[0011] The communication module within the controller can also remotely control the camera's angle and shooting mode via a touchscreen or other receiving terminal, allowing users to adjust the working status according to real-time conditions and further improve operational flexibility.

[0012] Through the built-in coding program, the controller automatically records image data and related information for each sorting process.

[0013] The system's automated traceability and recording functions effectively reduce the probability of errors in manual recording, ensuring the authenticity and accuracy of each operational step, and providing a reliable basis for subsequent quality inspection and accountability.

[0014] By grouping and recording images, staff can quickly find relevant inventory information and compare and analyze it, thereby improving the accuracy and efficiency of inventory management and reducing errors caused by negligence.

[0015] The controller is equipped with a power module to ensure the stability of the system during long-term operation and to prevent work interruptions caused by power problems.

[0016] As a further embodiment of this utility model, the lower end of the connecting rod is configured as a hollow rod structure, and the end of the hollow rod is provided with a closed end cap. The center of the closed end cap is provided with a mounting hole. The rotating mechanism includes a rotating motor disposed inside the hollow rod. The rotating motor shaft is coaxially disposed with the mounting hole. The end of the rotating motor shaft is provided with a ball bearing, and the ball bearing is connected to the high-definition camera.

[0017] The precise positioning of the mounting holes ensures a tighter connection between the rotary motor shaft and the high-definition camera, reducing malfunctions or deviations caused by improper installation.

[0018] The rotary motor provides precise rotation control, ensuring the camera can be adjusted to multiple angles as needed. Through precise control of the rotary motor, the high-definition camera can rotate horizontally, vertically, or at a fixed angle, flexibly adjusting the shooting angle to meet different inventory management requirements.

[0019] The ball bearing plays a role in bearing and supporting the rotating motor shaft and the high-definition camera, reducing friction during rotation and ensuring the smoothness and efficiency of the rotation process.

[0020] The combination of ball bearings and rotary motors ensures the synchronous rotation of the high-definition camera and the rotary motor shaft, maintaining the stability of the camera during rotation.

[0021] The rotating mechanism precisely adjusts the camera's rotation as needed, obtaining high-definition images from different perspectives during inventory handling, enabling more accurate judgments and processing.

[0022] Automated rotation requires no manual intervention and can be flexibly adjusted to meet different work needs, adapting to various sorting environments and operational scenarios. Whether it's shooting requirements at different heights and angles, or complex warehouse layouts, precise rotation control handles them all with ease.

[0023] The rotary motor and ball bearing system are tightly integrated inside the hollow rod. The connection and exposure of external components improve the overall integration of the system and ensure the aesthetics and stability of the equipment.

[0024] As a further embodiment of this utility model, the ball bearing includes a bearing housing and an inner ring. The bearing housing is installed in the mounting hole of the closed end cover. The bearing housing is provided with an inner ring. The upper part of the inner ring is interference-fitted with the lower end of the connecting rod, and the lower part of the inner ring is interference-fitted with the high-definition camera connecting seat.

[0025] The tight fit between the bearing housing and the inner ring ensures the stability of the rotating components during operation and effectively reduces vibration and displacement. Precise rotation ensures that the high-definition camera can accurately capture images at the required angle. The interference fit between the inner ring and the lower end of the connecting rod, as well as with the high-definition camera mounting bracket, ensures efficient transmission of rotational motion.

[0026] The tight fit between the bearing housing and the inner ring, as well as the interference fit, improves the reliability of the equipment and facilitates disassembly.

[0027] As a further embodiment of this invention, a rechargeable power supply is provided near the hollow rod of the connecting vertical rod. This power supply is electrically connected to the rotating motor and has a charging socket. This allows for continuous operation without an external power supply. The power supply is directly connected to the rotating motor, providing stable power support and ensuring that the equipment can operate independently without relying on an external power source.

[0028] Setting up a charging outlet allows for convenient charging when the device's battery is depleted, without having to stop the device or disassemble parts. This greatly improves the device's flexibility and availability, and reduces reliance on external power sources.

[0029] Equipped with a rechargeable power supply, power management becomes more efficient. The device can be quickly charged via a charging socket, ensuring that it will not shut down due to depletion of power under high load conditions, reducing unexpected shutdowns during operation and improving system reliability.

[0030] As a further embodiment of this invention, the telescopic rod comprises several nested sleeves of different diameters. The sleeves include a first sleeve, a second sleeve, and a third sleeve with successively decreasing diameters. The inner tube of the first sleeve and the outer tube of the second sleeve are connected by threads, as are the inner tube of the second sleeve and the outer tube of the third sleeve. The length of the telescopic rod can be adjusted as needed to achieve more flexible telescopic operation and meet different length requirements. The threaded connection is more secure, preventing loosening or detachment of the sleeves during use, ensuring the stability of the telescopic rod and a tight structural fit.

[0031] As a further embodiment of this invention, the hinge component includes a first hinge joint disposed at the top of the telescopic rod. The first hinge joint comprises three parallel hinge plates, with a mounting groove formed between two adjacent hinge plates to provide a stable connection structure. The three hinge plates have hinge holes extending along the same transverse straight line, giving the connection a high-strength fixing capability and preventing loosening or detachment during use.

[0032] A hinged vertical plate is provided in the mounting groove between the two hinged plates. The upper part of the two hinged vertical plates is provided with a first hinge hole that corresponds to and matches the hinge hole. The lower part of the two hinged vertical plates is also provided with a second hinge hole. The vertical hinged plate effectively improves the stability and load-bearing capacity of the connection part.

[0033] A connecting screw is provided between the two hinged vertical plates. A U-shaped connecting plate is provided at the lower end of the connecting screw. The U-shaped connecting plate includes a middle horizontal plate with a pull hole. The connecting screw passes through the pull hole and is tightened by a nut. A locking nut is provided above the middle horizontal plate and is threadedly engaged with the connecting screw to lock it in place.

[0034] The locking nut's threaded engagement with the connecting screw ensures the screw remains securely in place, maintaining the hinge's stability. Users can fine-tune the connection as needed. The design of the connecting screw and U-shaped connecting plate effectively distributes the load applied to the connection points, enhancing the overall structural load-bearing capacity.

[0035] As a further embodiment of this utility model, vertical connecting plates are respectively provided at both ends of the middle horizontal plate of the U-shaped connecting plate. The two vertical connecting plates are arranged in parallel, and the top of the connecting plumb line is located between the vertical connecting plates. Horizontal pin holes are provided through the two vertical connecting plates and the plumb line along the horizontal line, and pins are inserted into the horizontal pin holes. The plumb line is firmly fixed, enhancing the connection stability between the overall structure and the vertical connecting plates. The pin, as the core connecting element, effectively transmits the load.

[0036] The beneficial effects of this utility model are as follows: This utility model provides an intelligent sorting device, including a telescopic rod with a hinge at the top, allowing the telescopic rod to flexibly adjust its working height. A freely hanging connecting rod is provided through the hinge, enabling the device to adapt to various working environments at different heights and angles. A high-definition camera with wireless communication is located at the bottom of the connecting rod. A rotating mechanism at the bottom of the connecting rod drives the high-definition camera to rotate freely within a 360° range; this rotating mechanism enables the high-definition camera to perform comprehensive real-time monitoring of the surrounding environment, ensuring that all details are captured during sorting.

[0037] The lower part of the telescopic pole is designed as a handheld unit. A receiving terminal, wirelessly connected to a high-definition camera, is mounted on the telescopic pole at the handheld unit. The receiving terminal includes a signal receiver and a touchscreen. The signal receiver receives images captured in real-time by the high-definition camera and transmits them to the touchscreen. Users can monitor the footage in real-time via the touchscreen, which displays the images captured by the high-definition camera and has image information receiving and storage buttons for convenient data saving and subsequent processing. The images can be played back at any time for inspection and confirmation during inventory handling, improving the accuracy of inventory handling. The touchscreen also controls the rotation and shooting of the high-definition camera. Users can remotely control the rotation and shooting of the high-definition camera via the touchscreen, simplifying the operation process and improving ease of use.

[0038] High-definition cameras and receiving terminals communicate wirelessly for data transmission, reducing cable constraints and increasing operational flexibility and freedom. Users can quickly view the status of goods from different angles via mobile devices, applicable to warehouse inventory management, cargo monitoring, and intelligent logistics management, improving inventory efficiency and accuracy. Furthermore, it eliminates the need for multiple people to collaborate, allowing a single person to complete more tasks, reducing manpower and increasing efficiency.

[0039] The controller records images in groups, allowing users to quickly retrieve image data of specific categories. This greatly improves the efficiency of data traceability and information management during the inventory process, ensuring that every image is accurately recorded and facilitating subsequent data query, analysis, and management.

[0040] The communication module receives data from the high-definition camera in real time via wireless connection and transmits it to the controller, ensuring the timeliness and accuracy of data transmission.

[0041] The communication module within the controller also allows for remote control of the camera's angle and shooting mode via a touchscreen or other receiving terminal. Users can adjust the operating status according to real-time conditions, further enhancing operational flexibility. The combination of ball bearings and a rotary motor ensures synchronized rotation between the high-definition camera and the rotary motor shaft, maintaining the camera's stability during rotation. Attached Figure Description

[0042] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0043] Figure 2 This is a schematic diagram of node I of this utility model;

[0044] Figure 3 This is a schematic diagram of node II structure of this utility model;

[0045] Figure 4 This is a schematic diagram of the touch screen structure of this utility model;

[0046] Figure 5 This is a schematic diagram of the internal structure of the receiving terminal of this utility model.

[0047] The components are: 1-telescopic rod, 101-first sleeve, 111-handheld part, 102-second sleeve, 103-third sleeve, 2-receiving terminal, 201-touch screen, 202-receive key, 203-storage key, 204-signal receiver, 205-controller, 251-communication module, 252-power module, 3-hinge, 301-hinge plate, 302-hinge vertical plate, 303-locking nut, 304-connecting screw, 305-U-shaped connecting plate, 351-middle horizontal plate, 352-vertical connecting plate, 353-horizontal pin hole, 306-pin shaft, 4-connecting vertical rod, 401-closed end cap, 5-high-definition camera, 6-charging power supply, 601-charging socket, 7-rotating mechanism, 8-ball bearing, 801-bearing seat. Detailed Implementation

[0048] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below through embodiments and in conjunction with the accompanying drawings. It should be understood that the specific embodiments described herein are only for explaining the present utility model and are not intended to limit the present utility model.

[0049] The serial numbers assigned to components in this document, such as "first" and "second," are used only to distinguish the described objects and have no sequential or technical meaning. The terms "connection" and "linkage" used in this application, unless otherwise specified, include both direct and indirect connections (linkages). In the description of this utility model, it should be understood that the terms "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," and "counterclockwise," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing this utility model and for simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0050] In this utility model, unless otherwise explicitly specified and limited, "above" or "below" the second feature means that the first feature is in direct contact with the second feature, or that the first feature is in indirect contact with the second feature through an intermediate medium. Furthermore, "above," "on top of," and "over" the second feature can mean that the first feature is directly above or diagonally above the second feature, or simply that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature means that the first feature is directly below or diagonally below the second feature, or simply that the first feature is at a lower horizontal level than the second feature.

[0051] like Figures 1 to 5 As shown, an intelligent sorting device includes a telescopic rod 1. The telescopic rod comprises several nested sleeves of different diameters. The sleeves include a first sleeve 101, a second sleeve 102, and a third sleeve 103 with decreasing diameters. The inner tube of the first sleeve and the outer tube of the second sleeve are threaded together, as are the inner tubes of the second sleeve and the outer tubes of the third sleeve. The length of the telescopic rod can be adjusted as needed. First, the third sleeve is unscrewed along the thread of the second sleeve, increasing the total length of the telescopic rod. Depending on the site requirements, the third sleeve is completely unscrewed from the second sleeve. If the total length is insufficient, the second sleeve is then unscrewed along the thread of the first sleeve until the required total length is achieved. In actual use, the length of each sleeve can be appropriately increased as needed to ensure sufficient total usable length.

[0052] The telescopic pole is equipped with a hinge 3 at its top. The hinge includes a first hinge joint at the top of the telescopic pole, which comprises three parallel hinge plates 301. A mounting groove is formed between two adjacent hinge plates to provide a stable connection structure. The three hinge plates have hinge holes running through them along the same transverse straight line, giving the connection a high-strength fixing ability and preventing loosening or detachment during use.

[0053] A hinged vertical plate 302 is provided in the mounting groove between the two hinged plates. The upper part of the two hinged vertical plates is provided with a first hinge hole that corresponds to and matches the hinge hole. The lower part of the two hinged vertical plates is also provided with a second hinge hole. The vertical hinged plates effectively improve the stability and load-bearing capacity of the connection part.

[0054] A connecting screw 304 is provided between the two hinged vertical plates. A U-shaped connecting plate 305 is provided at the lower end of the connecting screw. The U-shaped connecting plate includes a middle horizontal plate 351. A pull hole is provided on the middle horizontal plate. The connecting screw passes through the pull hole and is fastened by a nut. A locking nut 303 is provided above the middle horizontal plate 351 and is threadedly engaged with the connecting screw 304 to lock it.

[0055] The locking nut's threaded engagement with the connecting screw ensures the screw remains securely in place, maintaining the hinge's stability. Users can fine-tune the connection as needed. The design of the connecting screw and U-shaped connecting plate effectively distributes the load applied to the connection points, enhancing the overall structural load-bearing capacity.

[0056] The U-shaped connecting plate has vertical connecting plates 352 at both ends of the middle horizontal plate. The two vertical connecting plates are arranged in parallel, and the top of the connecting rod is located between the vertical connecting plates. Horizontal pin holes 353 are provided along the horizontal line for the two vertical connecting plates and the connecting rod, and pins 306 are inserted into the horizontal pin holes. The connecting rod is firmly fixed, enhancing the connection stability between the overall structure and the vertical connecting plates. The pin, as the core connecting element, effectively transmits the load.

[0057] The telescopic pole is equipped with a freely hanging connecting rod 4 via a hinge, allowing the equipment to adapt to various working environments at different heights and angles. A high-definition camera 5 with wireless communication is installed at the bottom of the connecting rod. A rotating mechanism 7, located at the bottom of the connecting rod, drives the high-definition camera to rotate freely within a 360° range. This rotating mechanism 7 enables the high-definition camera to provide comprehensive real-time monitoring of the surrounding environment, ensuring that all details are captured during inventory handling.

[0058] The lower end of the connecting vertical rod is a hollow rod structure, with a closed end cap 401 at the end of the hollow rod. A mounting hole is located at the center of the closed end cap. The rotating mechanism includes a rotary motor housed within the hollow rod, with the motor shaft coaxial with the mounting hole, ensuring a tighter connection between the motor shaft and the high-definition camera. The rotary motor provides precise rotation control, ensuring the camera can be adjusted to multiple angles as needed. Through precise control of the rotary motor, the high-definition camera can rotate horizontally, vertically, or at a fixed angle, flexibly adjusting the shooting angle to meet different cargo handling requirements.

[0059] A ball bearing 8 is provided at the end of the rotating motor shaft, and the ball bearing 8 is connected to the high-definition camera 5. The ball bearing includes a bearing housing 801 and an inner ring. The bearing housing is installed in the mounting hole of the closed end cover. The bearing housing has an inner ring. The upper part of the inner ring is interference-fitted with the lower end of the connecting rod, and the lower part of the inner ring is interference-fitted with the high-definition camera connecting seat.

[0060] The ball bearing 8 plays a role in bearing and supporting between the rotary motor shaft and the high-definition camera, reducing friction during rotation. The cooperation between the ball bearing and the rotary motor drives the high-definition camera and the rotary motor shaft to rotate synchronously.

[0061] Simultaneously, it maintains stability during rotation, effectively reducing vibration and displacement. This ensures precise rotation of the high-definition camera, accurately capturing images at the desired angle. The interference fit between the inner ring and the lower end of the connecting rod, as well as with the high-definition camera mounting bracket, ensures efficient and consistent rotational movement.

[0062] The tight fit between the bearing housing and the inner ring, an interference fit, improves the reliability of the equipment and facilitates disassembly. A rechargeable power supply 6 is located near the hollow rod of the connecting vertical rod. The power supply is electrically connected to the rotating motor and has a charging socket 601. It can operate continuously without an external power supply. When the equipment's battery is depleted, it can be easily recharged without stopping the machine or disassembling parts. The power supply is directly connected to the rotating motor, providing stable power support, allowing the rotating motor to operate independently without relying on an external power source.

[0063] The rotating mechanism 7 precisely adjusts the camera's rotation as needed, obtaining high-definition images from different perspectives during cargo handling operations, enabling more accurate judgments and processing. It automatically and flexibly adjusts to different work requirements, adapting to various cargo handling environments and operating scenarios. In particular, it easily handles shooting needs at different heights and angles, or in complex warehouses, inaccessible work areas, or confined spaces, including counting goods in train carriages, photographing transport markings and damaged items, and verifying the seal numbers of high-altitude containers, all through precise rotation control.

[0064] The rotary motor and ball bearing 8 are tightly integrated inside the hollow rod, and the connection and exposure of external components improve the overall integration and stability of the system.

[0065] The lower part of the telescopic pole is designated as a handheld unit 111. A receiving terminal 2, which is wirelessly connected to a high-definition camera, is mounted on the telescopic pole at the handheld unit. The receiving terminal 2 includes a signal receiver 204 and a touchscreen 201. The signal receiver receives images captured in real-time by the high-definition camera and transmits them to the touchscreen 201. Users can monitor the system in real-time via the touchscreen, which displays the images captured by the high-definition camera and has image information receiving and storage buttons for convenient data saving and subsequent processing. The images can be played back at any time for inspection and confirmation during inventory management, improving the accuracy of inventory management. The touchscreen also controls the rotation and shooting of the high-definition camera. Users can remotely control the rotation and shooting of the high-definition camera via the touchscreen, simplifying the operation process and improving ease of use.

[0066] High-definition cameras and receiving terminals communicate wirelessly for data transmission, reducing cable constraints and increasing operational flexibility and freedom. Users can quickly view the status of goods from different angles via mobile devices, applicable to warehouse inventory management, cargo monitoring, and intelligent logistics management, improving inventory efficiency and accuracy. Furthermore, it eliminates the need for multiple people to collaborate, allowing a single person to complete more tasks, reducing manpower and increasing efficiency.

[0067] The receiving terminal also includes a controller 205, which contains a communication module 251 and a power module 252. The communication module has a pre-coded program. The controller stores the received images, groups them, and records them to trace inventory information. It accurately records each image and facilitates subsequent data query, analysis, and management. Users can quickly query specific categories of image data through grouped records, efficiently tracing and managing data during the inventory handling process.

[0068] The communication module receives data transmitted from the high-definition camera in real time via wireless connection and transmits the signal to the controller, ensuring the timeliness and accuracy of data transmission.

[0069] The communication module inside the controller 205 can also remotely control the camera angle and shooting mode via a touch screen or other receiving terminal. Users can adjust the working status according to the real-time situation. Through the coding program built into the controller, the controller automatically records the image data and related information of each sorting process.

[0070] Images are grouped and recorded by controller 205, quickly locating relevant inventory information and performing comparative analysis to improve the accuracy and efficiency of inventory management operations and reduce errors caused by negligence. The controller includes a power module 252 that continuously supplies power to the communication module, ensuring system stability during long-term operation and minimizing the risk of work interruptions due to power problems.

[0071] The technical features of the above embodiments can be combined arbitrarily. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0072] The above-described embodiments 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 modifications and improvements 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. An intelligent tallying device, characterized by, The telescopic rod (1) is provided with a hinge (3) at the top, a free hanging connecting vertical rod (4) is arranged through the hinge, a high-definition camera (5) is arranged at the bottom of the connecting vertical rod, and the high-definition camera is in unlimited communication connection with the connecting vertical rod and is provided with a rotating mechanism (7) at the bottom of the connecting vertical rod, which drives the high-definition camera to rotate freely within a range of 360 degrees. The telescopic rod is provided with a handheld part (111) at the lower part, and a receiving terminal (2) in unlimited communication connection with the high-definition camera is arranged on the telescopic rod at the handheld part; the receiving terminal comprises a signal receiver (204) and a touch screen (201); the signal receiver receives images captured by the high-definition camera in real time and transmits the images to the touch screen (201); the touch screen displays the images captured by the high-definition camera in real time, and is provided with a receiving key (202) and a storage key (203) of picture information, and controls the high-definition camera to rotate and capture through the touch screen.

2. The intelligent tallying device according to claim 1, characterized in that, The receiving terminal further comprises a controller (205) provided with a communication module (251) and a power module (252) in the controller; the communication module (251) is provided with a pre-set coded program; the controller stores the received pictures and records them in groups, and traces the cargo information.

3. The intelligent tallying device according to claim 2, characterized in that, The connecting vertical rod (4) is provided with a hollow rod structure at the lower end, a closed end cover (401) is arranged at the end of the hollow rod, the center of the closed end cover is provided with a mounting hole, the rotating mechanism comprises a rotating motor arranged in the hollow rod, the rotating motor shaft is coaxially arranged with the mounting hole, a ball bearing (8) is arranged at the shaft end of the rotating motor shaft, and the ball bearing (8) is connected with the high-definition camera (5).

4. The intelligent tallying device according to claim 3, characterized in that, The ball bearing (8) comprises a bearing seat (801) and an inner ring, the bearing seat is mounted in the mounting hole of the closed end cover, the inner ring is arranged in the bearing seat, the upper part of the inner ring is in interference fit with the lower end of the connecting vertical rod, and the lower part of the inner ring is in interference fit with a connecting seat of the high-definition camera.

5. The intelligent tallying device according to claim 4, characterized in that, A rechargeable power supply (6) is arranged at the position close to the hollow rod of the connecting vertical rod (4), the rechargeable power supply is electrically connected with the rotating motor, and a charging socket (601) is arranged on the rechargeable power supply.

6. The intelligent tallying device according to claim 2, characterized in that, The telescopic rod (1) comprises a plurality of sleeve pipes with different diameters, the sleeve pipes comprise a first sleeve pipe (101), a second sleeve pipe (102) and a third sleeve pipe (103) with diameters decreasing in sequence, the inner pipe of the first sleeve pipe is in threaded fit with the outer pipe of the second sleeve pipe, and the inner pipe of the second sleeve pipe is in threaded fit with the outer pipe of the third sleeve pipe.

7. The intelligent tallying device according to claim 1, characterized in that, The articulated piece (3) comprises a first articulated joint arranged at the top of the telescopic rod, the first articulated joint comprises three parallel arranged articulated plates (301), an installation slot is formed between two adjacent articulated plates, the three articulated plates are provided with articulated holes along the same transverse straight line, the installation slot between two articulated plates is provided with articulated vertical plates (302), the upper part of the two articulated vertical plates is provided with first articulated holes corresponding to the articulated holes, the lower part of the two articulated vertical plates is further provided with second articulated holes, the two articulated vertical plates are provided with a connecting screw rod (304) therebetween, the lower end of the connecting screw rod is provided with a U-shaped connecting plate (305), the U-shaped connecting plate comprises a middle horizontal plate (351), the middle horizontal plate is provided with a pull hole, the connecting screw rod passes through the pull hole and is fastened by a nut, the upper part of the middle horizontal plate (351) is provided with a locking nut (303) threadedly matched with the connecting screw rod (304) for locking.

8. The intelligent tallying device according to claim 7, characterized in that, The two ends of the middle horizontal plate of the U-shaped connecting plate are respectively provided with vertical connecting plates (352), the two vertical connecting plates are arranged in parallel, the top end of the connecting vertical rod is arranged between the vertical connecting plates, the two vertical connecting plates and the vertical rod are provided with horizontal pin holes (353) along the horizontal line, and the horizontal pin holes are provided with pin shafts (306).

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