Movable container loading equipment

Abstract

The utility model provides a movable container loading device which comprises a first drainage fan, a second drainage fan, a third drainage fan, a fourth drainage fan and a fourth drainage fan, and a first air inlet of the first drainage fan is used for communicating with the outside atmosphere; the material conveyor is provided with a feeding chamber, a feeding port, a second air inlet and a discharging port, the feeding port is used for communicating an external feeding device with the feeding chamber, the second air inlet communicates with the first air outlet of the first drainage fan and the feeding chamber, and the discharging port communicates with the feeding chamber; the feeding chamber is used for outputting materials input from the feeding port towards the discharging port under the action of airflow flowing out of the first air outlet. The feeding end of the discharging pipe is communicated with the discharging opening, and the discharging end of the discharging pipe is used for being communicated with an inlet of the container; the supporting base is used for being placed on an external supporting face, and the first drainage fan, the material conveyor and the discharging pipe are all arranged on the supporting base; and the multiple moving wheels are rotationally arranged at the bottom of the supporting base. The loading efficiency can be improved, and the installation and debugging time is shortened.

Description

Technical Field

[0001] This application relates to the field of container loading technology, and in particular to a mobile container loading device. Background Technology

[0002] In container loading operations for powdery or granular materials, traditional methods typically employ manual handling, mechanical loading, or pneumatic conveying systems.

[0003] For example, Chinese utility model patent CN209367346U discloses a pneumatic loading system for powder and granular materials containers. It includes a high-pressure air source, a delivery tank, a loading head, a dust filter, a material conveying pipe, a induced draft fan, a control valve, and a control circuit. The delivery tank is a closed-cell structure, connected to the material conveying pipe via its outlet and to the loading head via the same pipe. The material conveying pipe is also connected to the high-pressure air source via a guide pipe. The delivery tank is directly connected to the high-pressure air source via its inlet and to an external material source via its feed inlet. The loading head is connected to the dust filter via the induced draft fan, and the dust filter is also connected to the high-pressure air source via the guide pipe. During system operation, the high-pressure air source provides power to both the delivery tank and the material conveying pipe simultaneously via the guide pipe. The dust filter is connected to the loading head via the induced draft fan, forming a closed-loop gas-solid separation system.

[0004] However, in-depth analysis revealed significant operational problems with the aforementioned technical solution in practical applications. Specifically, before the system is put into operation, all functional modules, including the high-pressure gas source, the delivery tank, and the feeding head, need to be assembled, positioned, and debugged on-site. Simultaneously, the connection between the delivery tank and the external material source must also be completed. This complex assembly process not only increases the time cost of equipment installation but also severely impacts the overall loading operation efficiency. Utility Model Content

[0005] This application provides a mobile container loading device to solve the problems existing in related technologies. The technical solution is as follows:

[0006] This application provides a mobile container loading device, including:

[0007] The first exhaust fan has a first air inlet for communicating with the outside atmosphere.

[0008] A material conveyor having a feeding chamber, an inlet, a second air inlet, and an outlet. The inlet connects to an external feeding device and the feeding chamber. The second air inlet connects to the first air outlet of a first induced draft fan and the feeding chamber. The outlet connects to the feeding chamber. The feeding chamber is used to supply material input from the inlet, which is then discharged towards the outlet under the action of airflow from the first air outlet.

[0009] The discharge pipe has an inlet end connected to the outlet end and an outlet end connected to the container inlet.

[0010] A support base is provided for placement on an external support surface, and the first guide fan, the material conveyor, and the discharge pipe are all mounted on the support base; and

[0011] Multiple casters are rotatably mounted on the bottom of the support base.

[0012] In one embodiment, the mobile container loading equipment further includes:

[0013] Multiple fixed supports are provided on the bottom of the support base, and each fixed support can be movably mounted vertically. The fixed supports have a supporting state and a yielding state. In the supporting state, the bottom of the fixed support is lower than the bottom of the moving wheel. In the yielding state, the bottom of the fixed support is higher than the bottom of the moving wheel. The fixed supports can move and switch between the supporting state and the yielding state.

[0014] In one embodiment, the support base is provided with a first guide portion, the first guide portion having a first connecting hole;

[0015] The fixed support is provided with a second guide portion, at least a portion of which is movably inserted into the first guide portion. The second guide portion has a second connecting hole and a third connecting hole, which are arranged at intervals along the moving direction of the fixed support.

[0016] When the fixed support is in the supported state, the second connecting hole is connected to the first connecting hole by a fastener;

[0017] When the fixed support is in the avoidance state, the third connecting hole is connected to the first connecting hole through the fastener.

[0018] In one embodiment, the mobile container loading equipment further includes:

[0019] A connecting component is disposed on the support base and is used to connect with a forklift.

[0020] In one embodiment, the outer peripheral wall of the discharge pipe has an exhaust gas passage, and the inlet end of the exhaust gas passage is used to communicate with a container.

[0021] The mobile container loading equipment also includes:

[0022] A dust collector is mounted on the support base. The inlet of the dust collector is connected to the outlet of the exhaust gas passage. The dust collector is used to remove dust from the exhaust gas output from the exhaust gas passage.

[0023] The second induced draft fan is mounted on the support base. The inlet of the second induced draft fan is connected to the outlet of the dust collector, and the outlet of the second induced draft fan is connected to the outside. The second induced draft fan is used to guide the exhaust gas in the container to flow sequentially through the exhaust gas channel and the dust collector, and to discharge the gas that has been treated by the dust collector to the outside.

[0024] In one embodiment, the mobile container loading equipment further includes:

[0025] The first filter has an inlet for communicating with the outside atmosphere and an outlet for communicating with the first air inlet of the first induced draft fan. The first filter is used to filter the input air.

[0026] In one embodiment, the mobile container loading equipment further includes:

[0027] The silencer has its inlet connected to the first air outlet of the first induced draft fan, and its outlet connected to the second air inlet. The silencer is used to silence the airflow output by the first induced draft fan.

[0028] In one embodiment, the mobile container loading equipment further includes:

[0029] The second filter has its inlet connected to the outlet of the muffler and its outlet connected to the second air inlet. The second filter is used to filter the airflow output by the muffler.

[0030] In one embodiment, the support base includes:

[0031] A first support frame, on which the first exhaust fan, the silencer, and the second filter are all mounted, arranged sequentially along a first transverse direction of the support base, with the first filter positioned above the first exhaust fan, and the casters located on the bottom of the first support frame; and

[0032] The second support frame is connected to the first support frame. The second support frame and the first support frame are arranged from top to bottom along the height direction of the support base. The material conveyor, the discharge pipe, the dust collector, and the second induced draft fan are all arranged on the second support frame. The material conveyor, the dust collector, and the discharge pipe are arranged in sequence in the opposite direction to the first transverse direction. The second induced draft fan and the material conveyor are arranged in sequence in the second transverse direction, which is perpendicular to the first transverse direction.

[0033] In one embodiment, the support base further includes:

[0034] A staircase connecting the first support frame and the second support frame, the staircase being inclined downwards relative to the second support frame, the staircase being used for users to climb.

[0035] The advantages or beneficial effects of the above technical solutions include at least the following:

[0036] The mobile container loading equipment of this utility model can effectively solve the technical problems of complex assembly, time-consuming debugging, and low operating efficiency of traditional powder or granular material loading systems. The specific beneficial effects are as follows:

[0037] 1. Improve loading efficiency and reduce installation and debugging time.

[0038] By integrating core functional modules such as the primary exhaust fan, material conveyor, and discharge pipe onto a support base, and equipping the base with casters, the entire equipment becomes mobile, eliminating the need for on-site assembly of individual modules. Compared to traditional pneumatic loading systems that require on-site assembly and positioning of all functional modules, including the high-pressure air source, delivery tank, and loading head, this solution can be directly moved to the work location, quickly connecting to external feeding devices and containers to begin operation. This significantly reduces equipment deployment time and improves loading efficiency.

[0039] 2. Reduce operational complexity and enhance equipment applicability

[0040] Adopting an integrated, mobile design, this system avoids the cumbersome assembly process of dispersed modules such as high-pressure air sources and dust filtration devices in traditional pneumatic loading systems. The equipment only needs to be connected to the feeding device through the inlet to operate, making it easy to use and suitable for various site environments, especially for scenarios where loading positions frequently change.

[0041] 3. The equipment can be flexibly transported to different loading points, eliminating the need to deploy a separate set of equipment at each loading point.

[0042] The support base is equipped with casters, which allows the equipment to be flexibly transported to different loading points, eliminating the need to deploy a separate set of equipment at each loading point and greatly reducing costs.

[0043] 4. Optimize the pneumatic conveying structure to ensure the stability of material conveying.

[0044] The material conveyor's feeding chamber is connected to the first air outlet of the first induced draft fan via a second air inlet, forming a high-efficiency airflow conveying channel that allows materials to be stably conveyed to the discharge pipe under the action of airflow. This structure avoids the energy loss caused by multi-stage air source distribution in traditional pneumatic loading systems, improves conveying efficiency, and reduces the risk of material blockage.

[0045] 5. Reduce dust pollution and improve the working environment

[0046] Through the closed-loop airflow design of the first induced draft fan, combined with the external atmosphere, dust overflow can be effectively controlled during the conveying process, reducing environmental pollution and meeting environmental protection operation requirements.

[0047] The above overview is for illustrative purposes only and is not intended to be limiting in any way. In addition to the illustrative aspects, embodiments, and features described above, further aspects, embodiments, and features of this application will become readily apparent from the accompanying drawings and the following detailed description. Attached Figure Description

[0048] In the accompanying drawings, unless otherwise specified, the same reference numerals throughout the various drawings denote the same or similar parts or elements. These drawings are not necessarily drawn to scale. It should be understood that these drawings depict only some embodiments disclosed in this application and should not be construed as limiting the scope of this application.

[0049] Figure 1 This is a three-dimensional structural diagram of the mobile container loading equipment of this utility model from a first-person perspective.

[0050] Figure 2 for Figure 1 Enlarged view of section A in the image;

[0051] Figure 3This is a three-dimensional structural diagram of the mobile container loading equipment of this utility model from a second perspective.

[0052] Figure Labels

[0053] 1. First exhaust fan; 2. Material conveyor; 21. Feeding chamber; 22. Discharge hopper; 221. Inlet; 3. Discharge pipe; 4. Support base; 41. First support frame; 411. First guide section; 42. Second support frame; 43. Staircase; 5. Casters; 6. Air duct; 7. S-shaped pipe; 8. Fixed support; 81. Second guide section; 811. Second connecting hole; 812. Third connecting hole; 9. Connecting component; 10. First filter; 20. Silencer; 30. Second filter; 40. Dust collector; 401. Movable high-pressure gas connector; 50. Second exhaust fan; 60. Control cabinet; 70. Movable power cable connector; 80. Movable control cable connector. Detailed Implementation

[0054] In the following description, only certain exemplary embodiments are briefly described. As those skilled in the art will recognize, the described embodiments can be modified in various ways without departing from the spirit or scope of this application. Therefore, the drawings and description are considered to be exemplary in nature and not restrictive.

[0055] See Figures 1-3 This invention illustrates a preferred embodiment of a mobile container loading device, comprising:

[0056] The first exhaust fan 1 has a first air inlet for communicating with the outside atmosphere;

[0057] Material conveyor 2 has a feeding chamber 21, an inlet 221, a second air inlet, and an outlet. The inlet 221 connects to an external feeding device and the feeding chamber 21 to convey material output from the external feeding device to the feeding chamber 21. The second air inlet connects to the first air outlet of a first induced draft fan 1 and the feeding chamber 21 to convey airflow output from the first induced draft fan 1 to the feeding chamber 21. The outlet connects to the feeding chamber 21, which is used to discharge material input from the inlet 221 towards the outlet under the action of airflow from the first air outlet.

[0058] The discharge pipe 3 has an inlet end connected to the outlet via an S-shaped pipe 7, and an outlet end connected to the container inlet to transport the material output from the discharge pipe 3 into the container.

[0059] Support base 4, which is used to place on an external support surface, and the first guide fan 1, material conveyor 2 and discharge pipe 3 are all mounted on support base 4; and

[0060] Multiple movable wheels 5 are rotatably mounted on the bottom of the support base 4 so that the support base 4 can move.

[0061] The mobile container loading equipment of this utility model can effectively solve the technical problems of complex assembly, time-consuming debugging, and low operating efficiency of traditional powder or granular material loading systems. The specific beneficial effects are as follows:

[0062] 1. Improve loading efficiency and reduce installation and debugging time.

[0063] By integrating core functional modules such as the first induced draft fan 1, material conveyor 2, and discharge pipe 3 onto the support base 4, and equipping the bottom of the support base 4 with casters 5, the equipment becomes highly mobile, eliminating the need for on-site assembly of individual functional modules. Compared to traditional pneumatic loading systems that require on-site assembly and positioning of all functional modules such as the high-pressure air source, delivery tank, and loading head, this solution can be directly moved to the work location, quickly connected to external feeding devices and containers, and immediately commence operations, significantly shortening equipment deployment time and improving loading efficiency.

[0064] 2. Reduce operational complexity and enhance equipment applicability

[0065] Adopting an integrated and mobile design, this system avoids the cumbersome assembly process of dispersed modules such as high-pressure air sources and dust filtration devices in traditional pneumatic loading systems. The equipment only needs to be connected to the feeding device through the inlet 221 to operate, making it easy to operate and suitable for different site environments, especially for operation scenarios where loading positions are frequently changed.

[0066] 3. The equipment can be flexibly transported to different loading points, eliminating the need to deploy a separate set of equipment at each loading point.

[0067] The support base 4 is equipped with casters 5, which allows the equipment to be flexibly transported to different loading points, eliminating the need to deploy a separate set of equipment at each loading point and greatly reducing costs.

[0068] 4. Optimize the pneumatic conveying structure to ensure the stability of material conveying.

[0069] The feeding chamber 21 of the material conveyor 2 is connected to the first air outlet of the first induced draft fan 1 through the second air inlet, forming a high-efficiency airflow conveying channel, which allows the material to be stably conveyed to the discharge pipe 3 under the action of airflow. This structure avoids the energy loss caused by multi-stage air source distribution in traditional pneumatic loading systems, improves conveying efficiency, and reduces the risk of material blockage.

[0070] 5. Reduce dust pollution and improve the working environment

[0071] With the closed-loop airflow design of the first induced draft fan 1, combined with the external atmosphere, dust overflow can be effectively controlled during the conveying process, reducing environmental pollution and meeting environmental protection operation requirements.

[0072] In one implementation, the movable wheel 5 can be either a swivel wheel or a track wheel.

[0073] See Figure 1 In one embodiment, the material conveyor 2 is provided with a hopper 22, which has a feed inlet 221. In this way, the hopper can be used to guide the material flow and facilitate the smooth input of the material.

[0074] In one embodiment, the material conveyor 2 is also equipped with a control valve, which is used to control the opening and closing of the discharge end of the hopper so as to achieve quantitative feeding.

[0075] See Figure 1 and Figure 2 In one embodiment, the mobile container loading equipment further includes:

[0076] Multiple fixed supports 8 are mounted vertically on the bottom of the support base 4. Each fixed support 8 has a supporting state and a clearance state. In the supporting state, the bottom of the fixed support 8 is lower than the bottom of the moving wheel 5; in the clearance state, the bottom of the fixed support 8 is higher than the bottom of the moving wheel 5. The fixed supports 8 can be moved to switch between these two states. Thus, when the equipment moves to the target position, switching the fixed supports 8 to the supporting state (bottom of the fixed support 8 lower than the moving wheel 5) allows the fixed supports 8 to directly bear the weight and maintain stable contact with the ground, preventing the moving wheel 5 from shifting due to vibration or load during loading. This significantly improves the equipment's anti-tipping ability and conveying stability, making it particularly suitable for high-flow material conveying scenarios. Secondly, the clearance state of the fixed supports 8 (bottom of the fixed support 8 higher than the moving wheel 5) ensures that the equipment is not interfered with by the fixed supports 8 during movement, while the supporting state can be quickly switched to meet the needs of fixed operations. This design solves the cumbersome problem of traditional equipment requiring additional disassembly or installation of stabilizing structures, achieving integrated "movement-positioning-fixing" operation and significantly improving work efficiency. Furthermore, the adjustable height of the fixed supports 8 allows the equipment to achieve horizontal stability on uneven ground (such as slopes or soft foundations) by adjusting the extension length of each fixed support 8, compensating for the high ground flatness requirements of the moving wheels 5 and expanding the equipment's applicable scenarios. In addition, switching the state of the fixed supports 8 only requires vertical movement, eliminating the need for complex locking or disassembly steps, and working in conjunction with the moving wheels 5, it ensures functionality while avoiding increased operational complexity, meeting the ease-of-use requirements of industrial equipment.

[0077] See Figure 1 and Figure 2 In one embodiment, the support base 4 is provided with a first guide portion 411, and the first guide portion 411 has a first connecting hole (not shown in the figure);

[0078] The fixed support 8 is provided with a second guide portion 81, at least a portion of which is movably inserted into the first guide portion 411. The second guide portion 81 has a second connecting hole 811 and a third connecting hole 812, which are arranged at intervals along the moving direction of the fixed support 8.

[0079] When the fixed support 8 is in the supported state, the second connecting hole 811 is connected to the first connecting hole by a fastener (not shown in the figure);

[0080] When the fixed support 8 is in the avoidance state, the third connecting hole 812 is connected to the first connecting hole via fasteners. Thus, the insertion and engagement of the first guide part 411 and the second guide part 81 ensures that the fixed support 8 maintains a vertical trajectory during lifting and lowering, preventing skewing and jamming. The interval between the second connecting hole 811 and the third connecting hole 812 forms a clear mechanical positioning point, allowing for repeatable and precise switching between the support and avoidance states. Furthermore, in the support state, the tight connection between the second connecting hole 811 and the first connecting hole forms a rigid lock, effectively resisting vibration loads generated during material conveying. In the avoidance state, the fixation of the third connecting hole 812 and the first connecting hole ensures that the support will not accidentally fall and interfere with the operation of the moving wheel 5. Additionally, the standardized fastener connection method allows for state transitions simply by tightening or loosening bolts, without the need for special tools. In summary, the guiding structure formed by the first guide part 411 and the second guide part 81, along with the multi-hole locking mechanism, achieves the technical effects of rapid and accurate positioning of the fixed support 8, stable mechanical locking, and durable and reliable operation while maintaining structural simplicity. This solves the technical problem of coordinating and optimizing stable support and flexible movement in mobile equipment.

[0081] See Figure 1 and Figure 3 In one embodiment, the mobile container loading equipment further includes:

[0082] The connecting component 9, mounted on the support base 4, is used for connection with a forklift. This dedicated connecting component 9 enables quick docking with the forklift, allowing the equipment to be efficiently moved between different work areas. This avoids the time losses associated with traditional manual pushing or hoisting methods, making it particularly suitable for large warehouses or ports where frequent mobile equipment movement is required. Furthermore, the standardized design of the connecting component 9 ensures a secure connection between the equipment and the forklift, preventing accidental detachment during transport and effectively avoiding the risk of tipping over that could result from manual pushing, thus improving operational safety.

[0083] See Figure 1 The outer peripheral wall of the discharge pipe 3 has an exhaust gas channel (not shown in the figure), and the inlet end of the exhaust gas channel is used to connect with the container.

[0084] Mobile container loading equipment also includes:

[0085] Dust collector 40 is mounted on support base 4. The inlet of dust collector 40 is connected to the outlet of exhaust gas passage. Dust collector 40 is used to remove dust from the exhaust gas output from exhaust gas passage.

[0086] The second induced draft fan 50 is mounted on the support base 4. The inlet of the second induced draft fan 50 is connected to the outlet of the dust collector 40, and the outlet of the second induced draft fan 50 is connected to the outside. The second induced draft fan 50 is used to guide the exhaust gas in the container to flow through the exhaust gas channel and the dust collector 40 in sequence, and to discharge the gas that has been treated by the dust collector 40 to the outside. Thus, under the negative pressure of the second induced draft fan 50, the dust-laden exhaust gas inside the container (the dust-laden exhaust gas is discharged into the container along with the material output from the discharge pipe 3) flows sequentially through the exhaust gas pipe and the dust collector 40. After being treated by the dust collector 40, it is discharged to the outside through the outlet of the second induced draft fan 50. The dust collector 40 performs professional purification treatment on the dust-laden exhaust gas, which can effectively remove dust particles from the exhaust gas and make the emitted gas meet the environmental emission standards. The second induced draft fan 50 forms a stable negative pressure to ensure the efficiency of exhaust gas collection, thereby improving the efficiency of exhaust gas dust removal. In addition, since the discharge pipe 3 adopts a composite channel design, its outer peripheral wall integrates an exhaust gas channel, so that the discharge pipe 3 has both material output function (the central hole of the discharge pipe 3 will be) and exhaust gas input function. This discharge pipe 3 saves more space than the structure of achieving material output and exhaust gas input by two separate pipes.

[0087] In one embodiment, the exhaust gas passage is arranged around the central hole of the discharge pipe 3, that is, the discharge pipe 3 is equivalent to a jacket, which can improve the efficiency of exhaust gas input.

[0088] In one embodiment, the dust collector 40 is connected to a movable high-pressure gas connector 401, which is used to connect to an external high-pressure gas supply device to use high-pressure gas to back-flushing and self-clean the filter components (such as filter bags or filter cartridges) inside the dust collector 40, thereby ensuring that the dust collector 40 removes dust efficiently.

[0089] See Figure 1 In one embodiment, the mobile container loading equipment further includes:

[0090] The first filter 10 has an inlet that connects to the outside atmosphere and an outlet that connects to the first air inlet of the first induced draft fan 1. The first filter 10 filters the incoming air to intercept particulate matter. Thus, by pre-treating the incoming air through the first filter 10, impurities, particulate matter, and moisture are effectively removed, preventing contaminants from entering the material conveyor 2 and ensuring the purity of powdery or granular materials. Furthermore, it prevents airborne particulate matter from causing wear to key components such as the first induced draft fan 1, reduces the risk of equipment blockage, and extends equipment lifespan. Additionally, the first filter 10 reduces the frequency of maintenance for subsequent pipelines, lowering maintenance costs.

[0091] See Figure 1 In one embodiment, the mobile container loading equipment further includes:

[0092] The silencer 20 has its inlet connected to the first air outlet of the first exhaust fan 1, and its outlet connected to the second air inlet via the duct 6. The silencer 20 is used to reduce the noise of the airflow output from the first exhaust fan 1. In this way, by using the silencer 20 to professionally reduce the noise of the airflow output from the first exhaust fan 1, the operating noise of the equipment is controlled within environmental protection standards, improving the acoustic environment of the workplace, enhancing work comfort, and effectively reducing the hearing damage of operators caused by high-frequency airflow noise. In addition, the buffering effect of the silencer 20 reduces the impact of airflow pulsation on the ductwork, thereby reducing equipment vibration and extending the service life of related components.

[0093] See Figure 1 In one embodiment, the mobile container loading equipment further includes:

[0094] The second filter 30 has its inlet connected to the outlet of the silencer 20 and its outlet connected to the second air inlet. The second filter 30 filters the airflow output from the silencer 20, achieving secondary interception of particulate matter in the airflow. Thus, by performing secondary filtration of the airflow after treatment by the silencer 20 through the second filter 30, residual particulate matter and debris that may be generated by the silencer 20 can be effectively trapped, ensuring that the cleanliness of the gas entering the material conveyor 2 meets process requirements, preventing small particulate matter from entering the material conveyor 2 and causing wear, and simultaneously avoiding impurities from contaminating the material and affecting product quality.

[0095] See Figure 1 In one embodiment, the support base 4 includes:

[0096] The first support frame 41, the first exhaust fan 1, the silencer 20, and the second filter 30 are all mounted on the first support frame 41. The first exhaust fan 1, the silencer 20, and the second filter 30 are arranged sequentially along the first transverse direction of the support base 4. The first filter 10 is located above the first exhaust fan 1. The casters 5 are located on the bottom of the first support frame 41.

[0097] The second support frame 42 is connected to the first support frame 41. The second support frame 42 and the first support frame 41 are arranged from top to bottom along the height direction of the support base 4. The material conveyor 2, the discharge pipe 3, the dust collector 40, and the second induced draft fan 50 are all arranged on the second support frame 42. The material conveyor 2, the dust collector 40, and the discharge pipe 3 are arranged in sequence in the opposite direction to the first transverse direction. The second induced draft fan 50 and the material conveyor 2 are arranged in sequence in the second transverse direction, which is perpendicular to the first transverse direction. Through a layered support frame design (first support frame 41 and second support frame 42), the airflow treatment components (first filter 10, first induced draft fan 1, silencer 20, second filter 30) and material handling components (material conveyor 2, discharge pipe 3) are arranged in a three-dimensional partitioned manner. This allows for the integration of more functional components within a limited floor space. Furthermore, the partitioned arrangement of functional components ensures that they do not interfere with each other during maintenance, making maintenance and repair more convenient. Secondly, the dust collector 40 and the material conveyor 2 are arranged adjacent to each other, shortening the exhaust gas collection path. Additionally, the airflow treatment components are arranged linearly along the first transverse direction, forming an efficient airflow channel, while the material handling components are arranged in the opposite direction, optimizing the material conveying path. Moreover, the first support frame 41 supports the airflow treatment components, and the second support frame 42 supports the material handling components, resulting in a reasonable weight distribution and lowering the equipment's center of gravity, thereby improving movement stability. Finally, the orderly arrangement of the components facilitates quick location of fault points.

[0098] See Figure 1 and Figure 3 In one embodiment, the support base 4 further includes:

[0099] A staircase 43 connects the first support frame 41 and the second support frame 42. The staircase 43 is inclined downwards relative to the second support frame 42 and is used for users to climb. The dedicated staircase 43 provides a stable climbing path, thereby ensuring safe connection between the first support frame 41 and the second support frame 42, avoiding direct climbing of the equipment frame by operators, and facilitating maintenance operations on high-mounted components. The inclined design is ergonomic, reducing the risk of falls, and the downward inclination minimizes the occupation of workspace.

[0100] See Figure 1 In one embodiment, the mobile container loading equipment further includes:

[0101] Control cabinet 60 is mounted on the first support frame 41. Control cabinet 60 is electrically connected to the first induced draft fan 1, material conveyor 2, silencer 20, and second induced draft fan 50. Control cabinet 60 is electrically connected to a mobile power cable connector 70 and a mobile control cable connector 80. Both mobile power cable connector 70 and mobile control cable connector 80 are used to connect to an external power source to supply power to control cabinet 60.

[0102] In the description of this specification, the references to terms such as "one embodiment," "some embodiments," "example," "specific example," or "some examples," etc., indicate that a specific feature, structure, material, or characteristic described in connection with that embodiment or example is included in at least one embodiment or example of this application. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples. Moreover, without contradiction, those skilled in the art can combine and integrate the different embodiments or examples described in this specification, as well as the features of those different embodiments or examples.

[0103] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this application, "a plurality of" means two or more, unless otherwise explicitly specified.

[0104] The above are merely specific embodiments of this application, but the scope of protection of this application is not limited thereto. Any person skilled in the art can easily conceive of various variations or substitutions within the technical scope disclosed in this application, and these should all be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. A mobile container loading apparatus, characterized by, The movable container loading device comprises: a first air flow fan, a first air inlet of the first air flow fan being used for communicating with the outside atmosphere; a material conveyor, the material conveyor having a feeding chamber, a feeding port, a second air inlet and a discharging port, the feeding port being used for communicating an external feeding device with the feeding chamber, the second air inlet communicating a first air outlet of the first air flow fan with the feeding chamber, the discharging port communicating the feeding chamber, the feeding chamber being used for outputting the material input from the feeding port to the discharging port under the action of the air flow flowing out from the first air outlet; a discharging pipe, a feeding end of the discharging pipe communicating with the discharging port, a discharging end of the discharging pipe being used for communicating with a container inlet; a supporting base, the supporting base being used for being placed on an external supporting surface, the first air flow fan, the material conveyor and the discharging pipe being arranged on the supporting base; and a plurality of moving wheels, the moving wheels being rotatably arranged on the bottom of the supporting base. The movable container loading device further comprises: a plurality of fixed supports, the fixed supports being movably arranged on the bottom of the supporting base, the fixed supports having a supporting state and an avoiding state, the supporting state being that the bottom of the fixed support is at a height lower than the bottom of the moving wheel, the avoiding state being that the bottom of the fixed support is at a height higher than the bottom of the moving wheel, the fixed support being movable so as to switch between the supporting state and the avoiding state.

2. The mobile container loading apparatus according to claim 1, wherein The supporting base is provided with a first guide part, the first guide part having a first connecting hole; the fixed support is provided with a second guide part, at least a part of the second guide part being movably inserted into the first guide part, the second guide part having a second connecting hole and a third connecting hole, the second connecting hole and the third connecting hole being arranged in a spaced-apart manner along the moving direction of the fixed support; 3. The mobile container loading apparatus according to claim 2, wherein in the case that the fixed support is in the supporting state, the second connecting hole is connected with the first connecting hole through a fastener; in the case that the fixed support is in the avoiding state, the third connecting hole is connected with the first connecting hole through the fastener. The movable container loading device further comprises: a connecting part, the connecting part being arranged on the supporting base, the connecting part being used for being connected with a forklift.

4. The mobile container loading apparatus of claim 1, wherein The outer peripheral wall of the discharging pipe has a waste gas passage, a gas inlet end of the waste gas passage being used for communicating with a container; The movable container loading device further comprises:

5. The mobile container loading apparatus of claim 1, wherein, a dust remover, the dust remover being arranged on the supporting base, an inlet of the dust remover communicating with a gas outlet end of the waste gas passage, the dust remover being used for dust removing the waste gas output by the waste gas passage; a second air flow fan, the second air flow fan being arranged on the supporting base, an inlet of the second air flow fan communicating with an outlet of the dust remover, an outlet of the second air flow fan communicating with the outside, the second air flow fan being used for guiding the waste gas in the container to flow through the waste gas passage and the dust remover in sequence, and discharging the gas treated by the dust remover to the outside. ​ ​ 6. The mobile container loading apparatus of claim 5, wherein, The movable container loading device further comprises: a first filter, an inlet of the first filter being communicated with the outside atmosphere, and an outlet of the first filter being communicated with the first air inlet of the first air guide fan, the first filter being used for filtering the input air.

7. The mobile container loading apparatus of claim 6, wherein, The movable container loading device further comprises: a silencer, an inlet of the silencer being communicated with the first air outlet of the first air guide fan, and an outlet of the silencer being communicated with the second air inlet, the silencer being used for silencing the air flow output by the first air guide fan.

8. The mobile container loading apparatus of claim 7, wherein, The movable container loading device further comprises: a second filter, an inlet of the second filter being communicated with the outlet of the silencer, and an outlet of the second filter being communicated with the second air inlet, the second filter being used for filtering the air flow output by the silencer.

9. The mobile container loading apparatus of claim 8, wherein, The support base comprises: a first support frame, the first air guide fan, the silencer and the second filter being arranged on the first support frame, the first air guide fan, the silencer and the second filter being arranged in sequence along a first transverse direction of the support base, the first filter being located above the first air guide fan, and the moving wheels being arranged on the bottom of the first support frame; and a second support frame, the second support frame being connected with the first support frame, the second support frame and the first support frame being arranged from top to bottom along the height direction of the support base, the material conveyor, the discharge pipe, the dust collector and the second air guide fan being arranged on the second support frame, the material conveyor, the dust collector and the discharge pipe being arranged in sequence along a direction opposite to the first transverse direction, the second air guide fan and the material conveyor being arranged in sequence along a second transverse direction, and the second transverse direction being perpendicular to the first transverse direction.

10. The mobile container loading apparatus of claim 9, wherein, The support base further comprises: a staircase, the staircase being connected with the first support frame and the second support frame, the staircase being inclined downward relative to the second support frame, and the staircase being used for allowing a user to climb.

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