A track-type power generation shelter

Abstract

The application relates to the field of mobile power supply and transportation, in particular to a caterpillar type power generation shelter, which comprises a caterpillar moving device, a shelter detachably arranged above the caterpillar moving device and an emergency power supply device arranged in the shelter, and the bottom of the shelter is provided with a folding moving trundle assembly for small distance movement of the shelter. The power generation shelter is provided with the caterpillar moving device, so that the power generation shelter can be remotely controlled to automatically move for a long distance, does not need to rely on manual pushing, and makes the electric shelter flexibly move on different terrains, in particular on uneven road surfaces, solves the problem that conventional emergency power supply equipment can only move on flat ground, and improves the adaptability and moving convenience of the equipment on complex terrains.

Description

Technical Field

[0001] This application relates to the field of mobile power supply and transportation, and in particular to a tracked power generation container. Background Technology

[0002] With the continuous development and progress of society, various large-scale conferences, major security activities, emergency rescue and relief, and temporary construction projects are increasingly common. In these scenarios, reliable and flexible power supply is particularly crucial. Reliable power supply can maintain the stable operation of key facilities such as lighting, communication equipment, and monitoring systems at the event site, ensuring the smooth conduct of the event; flexible power supply can quickly respond to power demands in different scenarios, improving the ability to cope with emergencies. The widespread application of backup emergency power supplies provides important power support for these activities, effectively reducing the economic losses, safety risks, and social impacts that may result from power outages, and ensuring the normal life order of the public and the stable development of society. At the same time, with continuous technological innovation and development, higher requirements are being placed on the performance and functions of power supply equipment, such as higher power generation capacity, more convenient mobility, and better stability. To solve the emergency power supply problem, the emergency power supply equipment currently commonly used in the industry is large and heavy, usually fixed in a specific location, making it difficult to move. Short-distance movement of emergency power supply equipment mainly relies on manual lifting, while long-distance movement requires the use of trolleys for assistance.

[0003] However, in practical applications, due to the large size of the equipment, relying on manual lifting and pushing for short distances not only consumes a lot of manpower and time, but is also prone to errors during operation, leading to equipment damage or personnel injury. While relying on trolleys for long distances can reduce the burden on manpower to some extent, it can only be moved on relatively flat ground. It is ineffective for long-distance transportation or uneven roads. Especially for some long-distance transportation, when it is necessary to move power equipment to trucks or other transport vehicles, large equipment such as forklifts or cranes are usually required for operation. Using forklifts or cranes for transportation is inefficient, requires professional operators and specific site conditions, and also poses safety hazards, such as the possibility of equipment tipping over during transportation, causing serious damage to personnel and equipment. Utility Model Content

[0004] In order to improve the convenience of rapid movement of emergency power supply equipment, to simultaneously facilitate movement over short and long distances, and to adapt to flexible movement on uneven terrain, this application provides a tracked power generation container.

[0005] This application provides a tracked power generation container, including a tracked moving device, a container detachably mounted on top of the tracked moving device, and an emergency power supply device installed inside the container. The container's bottom is equipped with folding casters for short-distance movement. By adopting the above technical solution, the tracked power generation container, equipped with a tracked moving device, allows for remote control of its long-distance automatic movement without manual pushing. It also enables the power generation container to move flexibly across various terrains, especially uneven surfaces, solving the problem that conventional emergency power supply equipment can only move on flat ground, thus improving the equipment's adaptability and ease of movement in complex terrains. The container is detachably mounted on top of the tracked moving device, facilitating replacement, repair, or maintenance as needed. Simultaneously, the folding casters at the bottom of the container allow for direct operation when short-distance movement is required, and can be folded away when not in use, without affecting the normal operation of the tracked moving device, further improving the equipment's flexibility and convenience. Preferably, the folding caster assembly includes folding casters and a hinged base. The folding casters are hinged to the bottom of the container via the hinged base. The rotation range of the folding casters is 0°-90°. When the folding casters are not needed, they can be folded 90° and stored at the bottom of the container. By adopting the above technical solution, the folding casters are hinged to the bottom of the container via the hinged base and have a rotation range of 0°-90°. When the container needs to be moved a short distance, the folding casters can be unfolded to a suitable angle. Utilizing the rolling characteristics of the casters, the container can be easily moved a short distance without requiring a large amount of manpower to lift it, thus improving the convenience of moving the container a short distance. When the folding casters are not needed, they can be folded 90° and stored at the bottom of the container, avoiding obstruction during normal use of the container or long-distance movement via the tracked moving device, making the overall structure of the container more compact and reducing the space occupied. Preferably, the tracked moving device includes two track assemblies and a connector, with the two track assemblies connected by the connector, and the container detachably mounted on the connector. By adopting the above technical solution, the tracked moving device consists of two track assemblies and a connector, with the two track assemblies connected by the connector, and the container detachably mounted on the connector. Because the tracks have good grip and mobility, the two track assemblies provide stable support and mobility for the power generation container, allowing it to adapt to different terrains, such as uneven roads. Simultaneously, the connector links the two track assemblies into a single unit, ensuring structural stability and integrity. Furthermore, the detachable mounting of the container on the connector allows it to be removed from the tracked moving device when needed for transportation or storage, facilitating operation and improving the flexibility of use and storage of the power generation container.Preferably, the track assembly includes a track, a base, and a roller assembly. The roller assembly is arranged around the surface of the base, and the track is fitted onto the roller surfaces of the roller assembly. The roller assembly includes a drive wheel for rotating the track. By adopting the above technical solution, the roller assembly is arranged around the surface of the base, the track is fitted onto the roller surfaces of the roller assembly, and the drive wheel in the roller assembly drives the track to rotate. Because the track has a large contact area with the ground, it can distribute the weight of the equipment and reduce the pressure on the ground, thus enabling the tracked power generation container to move stably on different terrains, such as uneven roads. This avoids the problem of the equipment being unable to move or having difficulty moving due to uneven ground, improving the mobility and adaptability of the power generation container. Preferably, the drive wheel is a gear, and the inner surface of the track is provided with a tooth-like protrusion structure that matches the tooth pattern of the drive wheel. By adopting the above technical solution, the drive wheel is designed as a gear, and a toothed protrusion structure matching the tooth pattern of the drive wheel is provided on the inner surface of the track. This makes the transmission between the track and the drive wheel of the tracked power generation container more stable and reliable, preventing track slippage during operation and ensuring stable movement of the tracked power generation container. Preferably, the connecting member includes two parallel connecting beams, which are spaced apart between the two bases. Each connecting beam is connected to both bases on both sides, and the bottom of the container contacts the top of the connecting beam. By adopting the above technical solution, since the connecting member uses two parallel connecting beams spaced apart between the two bases, and each connecting beam is connected to both bases on both sides, this structural design creates a stable connection between the two track components. When the bottom of the modular housing contacts the top of the connecting cantilever beam, the beam evenly distributes the weight of the housing onto the two tracked components, ensuring the overall stability of the tracked power generation housing structure and effectively preventing structural damage caused by uneven local stress. This improves the reliability and service life of the tracked power generation housing. Preferably, each connecting cantilever beam is provided with at least one mounting plate, which has mounting holes for mounting the housing. The mounting surface of the mounting plate is flush with the contact surface of the connecting cantilever beam. By adopting the above technical solution, each connecting cantilever beam is provided with at least one mounting plate, and the mounting plate has mounting holes for mounting the housing. This allows the housing to be connected to the mounting plate through the mounting holes, achieving a stable installation of the housing on the connecting cantilever beam. At the same time, the mounting surface of the mounting plate is flush with the contact surface of the connecting cantilever beam, ensuring good contact during connection and avoiding problems such as installation instability or stress concentration caused by uneven mounting surfaces. This improves the overall stability and reliability of the tracked power generation housing structure. Preferably, the tracked movement device further includes a bridge plate assembly, which includes two foldable bridge plates that are folded and stored at the bottom of the connector.By adopting the above technical solution, the tracked mobile device is equipped with a bridge plate assembly, which includes two foldable bridge plates. When the tracked power generation container needs to be transported over long distances, the folded bridge plates are unfolded to form a bridge-like structure. The two ends of the bridge plates rest on the truck and the ground, respectively. Adjusting the position of the two bridge plates ensures a one-to-one correspondence between the bridge plates and the tracks, facilitating smooth movement of the tracks along the bridge plates onto the truck. This achieves convenient transportation for the tracked power generation container. Furthermore, when the bridge plates are not needed, they can be folded and stored at the bottom of the connector, without occupying extra space, thus improving the overall space utilization and mobility of the device. Preferably, the emergency power supply device includes a generator set, a control system, and a monitoring system. The generator set provides power; when the mains power fails, the control system automatically controls the generator set to supply power, and the monitoring system monitors the battery level of the generator set in real time. By adopting the above technical solution, the electrical equipment operates using mains power when the mains power supply is normal. Mains power is a conventional power supply method and can meet the power needs of general scenarios. However, in scenarios such as large-scale conferences, major security events, emergency rescue and relief, and temporary construction, power outages may occur. Once the mains power fails, critical facilities such as lighting, communication equipment, and monitoring systems will be unable to operate normally. The emergency power supply device in this technical solution includes a generator set, a control system, and a monitoring system. When a mains power outage occurs, the control system responds quickly, starting the generator set to automatically supply power, ensuring continuous operation of electrical equipment and guaranteeing the stable operation of critical facilities in these scenarios, thus avoiding adverse consequences caused by power outages. Simultaneously, the monitoring system can monitor the generator set's battery level in real time, allowing users to understand the remaining battery power and take proactive measures when power is insufficient, improving the reliability and stability of the power supply. Preferably, a lighting device is also included, which is installed on the top of the shelter. By adopting the above technical solution, the lighting device is installed on the top of the container. Since the container has a certain height, the lighting device installed on its top can obtain a higher installation position, thereby expanding the lighting coverage. This allows the power generation container to provide wider and more sufficient lighting for the surrounding area at night or in environments with insufficient light, making it easier for relevant personnel to carry out operations, maintenance and other work in the area.

[0006] In summary, this application includes at least one of the following beneficial technical effects: 1. The tracked mobile device includes two track assemblies and connecting parts. The roller group of the track assembly is ringed on the base surface, and the track is sleeved on the roller surface of the roller assembly. The drive wheel drives the track to rotate, so that the power generation container can move. This tracked structure makes the power generation container easy to move and can cope with long-distance transportation and uneven road surfaces, solving the problem of difficult long-distance transportation and complex road surface movement of existing emergency power supply equipment. 2. The bottom of the modular container is equipped with a folding caster assembly. The folding casters of the folding caster assembly are hinged to the bottom of the modular container via hinge seats and have a rotation range of 0°-90°. The folding casters can be unfolded for short-distance movement of the modular container, avoiding the problems of relying on manual lifting for short distances, which consumes manpower and time and is prone to errors. 3. The bottom of the container is equipped with a folding bridge plate assembly. The folding bridge plate facilitates the smooth movement of the tracks along the bridge plate onto the truck, thus achieving convenient transportation. Moreover, when the bridge plate is not needed, the two bridge plates can be folded and stored at the bottom of the connector, without occupying extra space, thereby improving the overall space utilization and mobility of the device.

[0007] 3. The emergency power supply device includes a generator set, a control system, and a monitoring system. When the mains power fails, the control system can automatically control the generator set to supply power, and the monitoring system can monitor the battery power of the generator set in real time, ensuring the reliability of power supply and meeting the power needs of different scenarios. Attached Figure Description

[0008] Figure 1 This is a structural diagram of a tracked power generation container according to this application; Figure 2 This is a diagram showing the usage state of the folding mobile caster assembly of a tracked power generation container according to this application; Figure 3 This is a structural diagram of a folding mobile caster assembly for a tracked power generation container according to this application; Figure 4 This is a side view of the tracked moving device of a tracked power generation container according to this application; Figure 5 This application describes the structure of a tracked moving device for a tracked power generation container. Figure 6 This is a diagram showing the usage status of the bridge plate assembly of a tracked power generation container according to this application.

[0009] Explanation of reference numerals in the attached drawings: 1. Tracked moving device; 2. Container; 3. Emergency power supply device; 4. Lighting device; 11. Track assembly; 12. Connector; 13. Bridge plate assembly; 111. Track; 112. Base; 113. Roller assembly; 1111. Toothed protrusion structure; 1131. Drive wheel; 1132. Driven wheel; 1133. Support wheel; 1134. Floating wheel; 121. Connecting cantilever beam; 122. Bearing plate; 123. Mounting block; 131. Metal plate; 132. Support leg; 133. Snap-fit ​​structure; 21. Folding caster assembly; 211. Folding caster; 212. Hinge seat; 213. Mounting base. Detailed Implementation

[0010] The following is in conjunction with the appendix Figure 1-6 This application will be described in further detail.

[0011] This application provides an embodiment of a tracked power generation container, referring to... Figure 1 and Figure 2 The system includes a tracked mobile device 1, a container 2, an emergency power supply device 3, and a lighting device 4. The container 2 is detachably mounted on top of the tracked mobile device 1. The container 2 can move over long distances and over complex terrain with the help of the tracked mobile device 1, improving the mobility and flexibility of the power generation container. The emergency power supply device 3 is located inside the container 2, and the container 2 provides protection for the emergency power supply device 3. The emergency power supply device 3 is used to provide emergency power supply when the mains power fails. The lighting device 4 is located on the top of the container 2 to provide lighting support for nighttime operations or emergency situations.

[0012] Reference Figure 2 and Figure 3 Specifically, in this embodiment, the shelter 2 has a rectangular frame structure. The shelter 2 contains a cavity to accommodate the emergency power supply device 3, and a folding caster assembly 21 is installed at the bottom of the shelter 2's base. The folding caster assembly 21 includes folding casters 211 and hinge seats 212. Each folding caster 211 consists of a rotatable wheel and a mounting base 213 for protecting the wheel. The hinge seat 212 is located within the mounting base 213 and is generally a metal casting. Its structural feature is that it has two hinge holes, used for connecting to the mounting base 213 of the folding caster 211 and the bottom of the shelter 2, respectively. The folding caster 211 is hinged to the bottom of the container 2 via a hinged seat 212, and its rotation range is 0°-90°. The mounting base 213 has a clearance opening on its inner side to avoid wheel movement, while the outer side of the mounting base 213 is closed to prevent the wheel from rotating outwards. This ensures the wheel can only rotate 90° inwards from a vertical position before folding and storing at the bottom of the container 2. When the folding caster assembly 21 is needed, it is rotated out from the bottom of the container 2 to a position perpendicular to the ground, allowing for easy short-distance movement of the container 2. When the folding caster assembly 21 is not needed, it can be folded 90° and stored at the bottom of the container 2 to avoid interference with the operation of the tracked movement device 1.

[0013] In this embodiment, the lighting device 4 includes four lighting heads, which are symmetrically arranged in a rectangle on the top of the container 2 and close to the top edge of the container 2, providing a wide range of lighting support for nighttime operations or emergency situations.

[0014] Reference Figure 4 and Figure 5 Specifically, the tracked moving device 1 includes two track assemblies 11, two connectors 12, and two bridge plate assemblies 13. The two track assemblies 11 are connected by the two connectors 12, the container 2 is detachably mounted on the connectors 12, and the two bridge plate assemblies 13 can be folded and stored at the bottom of the two connectors 12.

[0015] Reference Figure 5 The track assembly 11 includes tracks 111, a base 112, and a roller assembly 113. Tracks 111 are typically made of rubber, which provides good shock absorption and grip, making it suitable for various terrains. The base 112 is a frame structure that supports and secures the roller assembly 113. The roller assembly 113 is arranged around the surface of the base 112, and the tracks 111 are fitted onto the roller surfaces of the roller assembly 113. The roller assembly 113 specifically includes a drive wheel 1131, a driven wheel 1132, a support wheel 1133, and a floating wheel 1134 for driving the track 111 to rotate. The drive wheel 1131 and the driven wheel 1132 are horizontally arranged. The support wheel 1133 is disposed between the drive wheel 1131 and the driven wheel 1132 and is located on the upper surface of the base 112, contacting the inner surface of the track 111. The floating wheel 1134 is located between the drive wheel 1131 and the driven wheel 1132 and is located on the lower surface of the base 112, contacting the track. The inner surface of track 111 is in contact with the ground. Specifically, a buffer structure is provided between the floating wheel 1134 and the base 112 to facilitate smooth movement on uneven surfaces. In particular, the drive wheel 1131 in this embodiment employs a gear structure, and the inner surface of the track 111 is provided with toothed protrusions 1111 that match the tooth pattern of the drive wheel 1131. This gear-toothed protrusion structure 1111 cooperation ensures the stability and efficiency of power transmission and prevents slippage of the track 111 during rotation. The tracked moving device 1 is a conventional moving device; its specific structure and working principle will not be described in detail here.

[0016] Reference Figure 4Specifically, in this embodiment, the connector 12 consists of two parallel connecting beams 121, which are spaced apart between two bases 112. Each connecting beam 121 is connected to both bases 112 on both sides, and each connecting beam 121 is perpendicular to the bases 112. Each connecting beam 121 is provided with two mounting blocks 123, which are spaced apart along the length of the connecting beam 121 and symmetrically arranged along the central axis of the connecting beam 121. The four mounting blocks 123... The 23 form a symmetrical rectangular structure. In this embodiment, the mounting block 123 adopts a corner bracket structure. The corner bracket is provided with mounting holes for mounting the cabin 2. The mounting surface of the corner bracket is flush with the contact surface of the connecting suspension beam 121. The bottom mounting position of the cabin 2 is aligned with the corner bracket, and the bottom of the cabin 2 is placed on the connecting suspension beam 121. By using bolts or other connecting parts passing through the mounting holes of the corner bracket, the cabin 2 and the connecting suspension beam 121 can be tightly connected together. This also facilitates disassembly when needed. This structure can ensure the stability and firmness of the cabin 2 installation. In particular, a bearing plate 122 is provided on the connecting suspension beam 121 near the drive wheel 1131. The bearing plate 122 is used to place the drive motor that drives the drive wheel 1131 to rotate.

[0017] Reference Figure 6 Specifically, the bridge plate assembly 13 in this embodiment consists of two foldable bridge plates, which can be folded and stored at the bottom of the connector 12. The bridge plates are made of metal and have a certain strength and load-bearing capacity. The bridge plate includes at least three metal plates 131, which are connected to each other by hinges. A support foot 132 is provided at the bottom of any end of the metal plate 131, and the support foot 132 is also connected to the metal plate 131 by hinges. This allows one metal plate 131 to be placed horizontally on the loading platform of the truck, and another metal plate 131 to be placed on the ground at a certain angle. The middle metal plate 131 connects to the metal plates 131 at both ends, serving as a transition and facilitating the formation of a gentle slope between the metal plate 131 and the ground. This allows the tracked moving device 1 to move smoothly along the bridge plate to the loading platform of the truck, achieving convenient transportation. Specifically, a snap-fit ​​structure 133 is provided between the metal plate 131 and the connecting cantilever beam 121, which facilitates the snap-fit ​​of the folding bridge plate to the bottom of the connecting cantilever beam 121 for storage. The snap-fit ​​structure 133 includes a snap-fit ​​groove and an elastic clip. The connecting cantilever beam 121 is provided with an elastic clip, and the surface of the metal plate 131 is provided with a snap-fit ​​groove. By applying pressure, the elastic clip can be inserted into or released from the snap-fit ​​groove to achieve a snap-fit ​​engagement. The snap-fit ​​structure 133 is a conventional snap-fit ​​design, and its specific structure and working principle will not be described in detail here.

[0018] Specifically, the emergency power supply device 3 in this embodiment includes a generator set, a control system, and a monitoring system. The generator set is the core component for power supply; the engine can be a diesel engine or a gasoline engine, selected according to different usage scenarios and needs. In this embodiment, a 30kW diesel generator set is preferred. The control system is a large control network used to control the generator set to automatically supply power after a mains power outage. It typically consists of controllers, sensors, and actuators, and can monitor the mains power status in real time and quickly start the generator set when the mains power fails. The monitoring system is used to monitor the generator set's battery level in real time, allowing operators to understand the battery's charge status and perform corresponding operations. The monitoring system includes power sensors and an intelligent control panel. The intelligent control panel has multiple intelligent detection and safety features, such as over-frequency shutdown, under-frequency shutdown, over-voltage shutdown, under-voltage shutdown, and over-current shutdown. It also has multiple external output sockets to meet the power needs of communication, command, lighting, and equipment. Notably, the generator set in this embodiment also has an air intake preheating system, which heats the air entering the engine to expand it, increasing the volume of incoming air and enabling the diesel engine to start even in cold, high-altitude regions.

[0019] The implementation principle of this embodiment is as follows: This tracked power generation cabin combines multiple components such as a tracked movement device 1, a folding caster assembly 21, an emergency power supply device 3, and a lighting device 4, enabling flexible movement and reliable power supply in different scenarios. The tracked movement device 1 allows the power generation cabin to adapt to complex terrain and long-distance transportation, while the folding caster assembly 21 facilitates small-scale adjustments. The emergency power supply device 3 automatically activates when the mains power fails, providing stable power support for various activities and scenarios. The lighting device 4 further enhances the performance of the power generation cabin at night or in low-light environments. Compared with existing technologies, this embodiment greatly improves the mobility and flexibility of the power generation cabin, reduces the need for manual handling, lowers the risk of equipment damage and personnel injury, and also improves work efficiency and power supply reliability.

[0020] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A tracked power generation container, characterized in that, It includes a tracked moving device (1), a container (2) detachably mounted on top of the tracked moving device (1), and an emergency power supply device (3) installed inside the container (2). The bottom of the container (2) is provided with a folding moving caster assembly (21) for short-distance movement of the container (2).

2. The tracked power generation container according to claim 1, characterized in that, The folding caster assembly (21) includes a folding caster (211) and a hinge seat (212). The folding caster (211) is hinged to the bottom of the cabin (2) through the hinge seat (212). The rotation range of the folding caster (211) is 0°-90°. When the folding caster (211) is not needed, it can be folded 90° and stored at the bottom of the cabin (2).

3. The tracked power generation container according to claim 1, characterized in that, The tracked moving device (1) includes two track assemblies (11) and a connector (12). The two track assemblies (11) are connected to each other through the connector (12), and the container (2) is detachably mounted on the connector (12).

4. The tracked power generation container according to claim 3, characterized in that, The track assembly (11) includes a track (111), a base (112), and a roller assembly (113). The roller assembly (113) is arranged around the surface of the base (112), and the track (111) is sleeved on the roller surface of the roller assembly (113). The roller assembly (113) includes a drive wheel (1131) for driving the track (111) to rotate.

5. The tracked power generation container according to claim 4, characterized in that, The drive wheel (1131) is a gear, and the inner surface of the track (111) is provided with a toothed protrusion structure (1111) that matches the tooth pattern of the drive wheel (1131).

6. The tracked power generation container according to claim 4, characterized in that, The connector (12) includes two parallel connecting beams (121), which are spaced apart between the two bases (112). Each connecting beam (121) is connected to the two bases (112) on both sides. The bottom of the container (2) is in contact with the top of the connecting beam (121).

7. The tracked power generation container according to claim 6, characterized in that, Each of the connecting cantilever beams (121) is provided with at least one mounting plate, the mounting plate being provided with mounting holes for mounting the container (2), and the mounting surface of the mounting plate being flush with the contact surface of the connecting cantilever beam (121).

8. The tracked power generation container according to claim 3, characterized in that, The tracked moving device (1) further includes a bridge plate assembly (13), which includes two foldable bridge plates that are folded and stored at the bottom of the connector (12).

9. The tracked power generation container according to claim 1, characterized in that, The emergency power supply device (3) includes a generator set, a control system and a monitoring system. The generator set is used to supply power. When the mains power fails, the control system is used to control the generator set to supply power automatically. The monitoring system is used to monitor the battery power of the generator set in real time.

10. The tracked power generation container according to claim 1, characterized in that, It also includes a lighting device (4), which is located on the top of the container (2).

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