Shelter with cable processing equipment and power distribution system

Abstract

This invention discloses a container and power distribution system with cable processing equipment, applicable to the field of submarine cables. The container includes a hollow interlayer between its inner and outer skins. Inside the container are a monitoring mechanism, an environmental control mechanism, and a processing mechanism. The processing mechanism includes a cutting machine, a crimping machine, and a clamping device. The monitoring mechanism includes a control module and a display module. The control module is signal-connected to the environmental control mechanism and the processing mechanism. A motion reference mechanism is installed on the top of the container and is signal-connected to the monitoring mechanism. This invention features power outage protection for the container.

Description

Technical Field

[0001] This invention relates to the field of submarine cable technology, specifically to a container house with cable processing equipment and a power distribution system. Background Technology

[0002] Cables are a core component in the offshore wind power sector, and their manufacturing environment directly determines the processing precision of cable insulation joints and the quality of finished cables.

[0003] To meet the needs of marine power transmission, existing technologies involve processing the cable body on land and integrating the cable insulation joint processing equipment inside a container. The container is then mounted on a marine platform such as a ship, allowing for the completion of cutting and crimping processes according to actual working conditions, thus enabling the installation of insulation joints and cables. The sealed structure of the container effectively isolates the high salt spray and high humidity environment at sea, avoiding quality problems such as insulation defects and surface corrosion caused by open-air operations.

[0004] However, most existing modular shelters use conventional power distribution systems, which cannot provide timely power outage protection when facing conditions such as rough seas, thus reducing the processing precision of cables and causing additional damage.

[0005] Therefore, how to achieve power outage protection for cable processing equipment has become an urgent problem to be solved by those skilled in the art. Summary of the Invention

[0006] The purpose of this invention is to provide a shelter with cable processing equipment and a power distribution system to solve the problems mentioned in the background art.

[0007] To solve the above-mentioned technical problems, the present invention provides the following technical solution: a container and power distribution system with cable processing equipment, including a container, wherein a hollow interlayer is provided between the inner and outer skin of the container, and a monitoring mechanism, an environmental control mechanism and a processing mechanism are installed inside the container, wherein the processing mechanism includes a cutting machine, a crimping machine and a clamping device; The monitoring mechanism includes a control module and a display module. The control module is signal-connected to the environmental control mechanism and the processing mechanism. A motion reference mechanism is installed on the top of the cabin and is signal-connected to the monitoring mechanism.

[0008] A power distribution system for a container house equipped with cable processing equipment includes a power distribution cabinet and an early warning and protection module. The power distribution cabinet is fixedly installed on the outer wall of the container house. A power distribution unit 1 is installed inside the power distribution cabinet. The power distribution unit 1 is connected to circuit 1, circuit 2 and circuit 3. Circuit 2 and circuit 3 are both connected in series with the same AC contactor 1. Circuit 1 is connected to the monitoring mechanism and circuit 2 is connected to the environmental control mechanism.

[0009] According to the above technical solution, the circuit three is connected to the power distribution unit two, the power distribution unit two is connected to the circuit four, the circuit five and the circuit six, the circuit four and the circuit five are respectively connected to the cutting machine and the pressing machine, and the same AC contactor two is connected in series in the circuit four and the circuit five.

[0010] According to the above technical solution, the circuit six is ​​connected to the power distribution unit three, the power distribution unit three is connected to the circuit seven, the circuit seven is connected to the clamping device, and the circuit seven is connected in series with the AC contactor three.

[0011] According to the above technical solution, the cabin is equipped with an independently rechargeable battery 1 and battery 2. Battery 1 is electrically connected to the coils of each group of AC contactors and the motion reference mechanism. A relay is connected in series in the circuit connecting battery 1 and each group of AC contactors. Battery 1 and each group of relays are signal connected to the monitoring mechanism. Battery 2 is connected to the power distribution unit 3.

[0012] According to the above technical solution, the early warning protection module includes a data hub, a power distribution unit four, and several sets of patch thermocouples. The data hub and the power distribution unit four are both installed inside the power distribution cabinet. The data hub is signal-connected to the monitoring mechanism and the power distribution unit four.

[0013] According to the above technical solution, circuit 1, circuit 2, circuit 3, circuit 4, circuit 5, circuit 6 and circuit 7 are all connected in series with current sensors and in parallel with voltage sensors. Several groups of patch thermocouples are attached to the surface of each group of circuits. Each group of patch thermocouples, current sensors and voltage sensors are all connected to the data center signal.

[0014] According to the above technical solution, the power distribution unit four is connected to circuit eight, circuit nine, circuit ten and circuit eleven. Circuit eight is connected to the power distribution unit one, circuit nine is connected to the environmental control mechanism, circuit ten is connected to the monitoring mechanism, and circuit eleven is connected to the power distribution unit five.

[0015] According to the above technical solution, the power distribution unit five is connected to three independent circuits, which are respectively connected to the cutting machine, the pressing machine and the clamping device. Each set of circuits and the sensor are set in the hollow interlayer of the cabin.

[0016] According to the above technical solution, the power distribution unit transmits power to the monitoring agency, the environmental control agency, and the processing agency. Technicians use the processing agency to process cables inside the cabin. The motion reference agency detects the sway angle and sway period of the cabin at this time. The detected sway angle is recorded as α, and the detected sway period is recorded as T. The motion reference agency transmits the detection results to the monitoring agency. The monitoring agency sends working signals to the processing agency according to different working conditions. Condition 1: α < α1, T > T1. At this time, the container is in a stable state with a low sway angle and slow sway frequency. The power distribution system is supplying power normally, and the processing mechanism is operating at full power to complete the cable processing. Condition 2: When the motion reference mechanism detects α1<α<α2, T>T1, the cabin is in a state of moderate swaying angle and slow swaying frequency. The control module issues a command to the relay of the AC contactor 2, and the relay cuts off the circuit between the AC contactor 2 and the battery 1, thereby disconnecting the contacts of the AC contactor 2, cutting off circuit 4 and circuit 5, stopping the power supply to the cutting machine and the crimping machine, avoiding additional damage to the cable caused by the processing equipment, and the clamping device operates normally to prevent the cable from falling off. Condition 3: When the motion reference mechanism detects α2 < α, the monitoring mechanism immediately issues an alarm signal and sends a signal to the power distribution unit 3 to connect the circuit 7 with the battery 2, so that the battery 2 supplies power to the clamping device. The monitoring mechanism disconnects the circuit 2 and the circuit 3, and the clamping device relies solely on the battery 2 for power, thus achieving uninterrupted power switching of the clamping device. At the same time, the environmental control mechanism, the cutting machine, and the crimping machine stop working. The specific values ​​of α1, α2 and T1 are determined by the ship's anti-rolling capability.

[0017] Compared with the prior art, the beneficial effects achieved by the present invention are: by setting up a power distribution system, the present invention realizes power outage protection under different working conditions when the container is working at sea, effectively improving the operational safety of the container and reducing maintenance costs. Attached Figure Description

[0018] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings: Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the shelter explosion of the present invention; Figure 3 This is a schematic diagram of the power distribution system circuit of the present invention; In the diagram: 1. Container; 2. Monitoring mechanism; 3. Environmental control mechanism; 4. Processing mechanism; 5. Cutting machine; 6. Crimping machine; 7. Clamping device; 8. Power distribution cabinet; 9. Power distribution unit one; 10. Circuit one; 11. Circuit two; 12. Circuit three; 13. Power distribution unit two; 14. Circuit four; 15. Circuit five; 16. Circuit six; 17. Power distribution unit three; 18. Circuit seven; 19. AC contactor one; 20. AC contactor two; 21. AC contactor three; 22. Motion reference mechanism; 23. Battery one; 24. Battery two; 25. Data hub; 26. Power distribution unit four; 27. Current sensor; 28. Voltage sensor; 29. ​​Circuit eight; 30. Circuit nine; 31. Circuit ten; 32. Circuit eleven; 33. Power distribution unit five. Detailed Implementation

[0019] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0020] Please see Figure 1-2 The present invention provides a technical solution: a container and power distribution system with cable processing equipment, including a container 1, a hollow interlayer is provided between the inner and outer skin of the container 1, and a monitoring mechanism 2, an environmental control mechanism 3 and a processing mechanism 4 are installed inside the container 1. The processing mechanism 4 includes a cutting machine 5, a crimping machine 6 and a clamping device 7. The monitoring mechanism 2, the environmental control mechanism 3 and the processing mechanism 4 are all existing technologies.

[0021] Please see Figure 3 The power distribution system includes a power distribution cabinet 8 and an early warning protection module. The power distribution cabinet 8 is fixedly installed on the outer wall of the cabin 1. The power distribution unit 9 is installed inside the power distribution cabinet 8. The power distribution unit 9 is connected to circuit 10, circuit 21 and circuit 312. Circuit 21 and circuit 312 are connected in series with the same AC contactor 19. The AC contactor 19 is used to control the current on and off of circuit 21 and circuit 312. Circuit 10 is connected to the monitoring mechanism 2, and circuit 21 is connected to the environmental control mechanism 3.

[0022] The monitoring mechanism 2 includes a control module and a display module. The control module is connected to the environmental control mechanism 3 and the processing mechanism 4. Technicians can view the working status of each unit in real time through the display module and issue work instructions to each unit through the control module. The environmental control mechanism 3 is used to regulate the temperature and humidity inside the cabin 1 to avoid the impact of the harsh marine environment on the cables.

[0023] Circuit 3 12 is connected to power distribution unit 2 13, which is connected to circuit 4 14, circuit 5 15 and circuit 6 16. Circuit 4 14 and circuit 5 15 are connected to cutting machine 5 and crimping machine 6 respectively. Both circuit 4 14 and circuit 5 15 are connected in series with the same AC contactor 20.

[0024] Circuit 6 16 is connected to power distribution unit 3 17, power distribution unit 3 17 is connected to circuit 7 18, circuit 7 18 is connected to clamping device 7, and AC contactor 3 21 is connected in series in circuit 7 18.

[0025] Each power distribution unit is a power management device that distributes power from the main input to multiple output circuits, and also has the ability to switch between multiple power sources. The specific working principle is based on existing technology.

[0026] A motion reference mechanism 22 is installed on the top of the container 1. The motion reference mechanism 22 is used to detect the sway angle and sway period of the container 1. The motion reference mechanism 22 is existing technology and is connected to the monitoring mechanism 2 via signal.

[0027] Under current technology, the assembled modular shelter 1 needs to be mounted on various types of ships. In current ship technology, the various electrical systems inside the modular shelter 1 need to be connected to the ship's signal system.

[0028] Inside the shelter 1 are installed independently rechargeable batteries 23 and 24. Battery 23 is electrically connected to the coils of each group of AC contactors and the motion reference mechanism 22. Relays (not shown in the figure) are connected in series in the circuit connecting battery 23 and each group of AC contactors. Battery 23 and each group of relays are connected to the monitoring mechanism 2. Battery 23 enables independent power supply to each group of AC contactors and the motion reference mechanism 22. Battery 24 is connected to the power distribution unit 17.

[0029] The early warning and protection module includes a data hub 25, a power distribution unit 4 26, and several sets of surface-mount thermocouples (not shown in the figure). The data hub 25 and the power distribution unit 4 26 are both installed inside the power distribution cabinet 8. The data hub 25 is connected to the monitoring mechanism 2 and the power distribution unit 4 26 via signals. Circuit 1 10, Circuit 2 11, Circuit 3 12, Circuit 4 14, Circuit 5 15, Circuit 6 16, and Circuit 7 18 are all connected in series with current sensors 27 and in parallel with voltage sensors 28. Several sets of surface-mount thermocouples are attached to the surface of each circuit group to detect the temperature of each circuit group. Each set of surface-mount thermocouples, current sensors 27, and voltage sensors 28 are all connected to the data hub 25 via signals.

[0030] The fourth power distribution unit 26 is connected with an eighth circuit 29, a ninth circuit 30, a tenth circuit 31 and an eleventh circuit 32. The eighth circuit 29 is connected with the first power distribution unit 9, the ninth circuit 30 is connected with the environment control mechanism 3, the tenth circuit 31 is connected with the monitoring mechanism 2, and the eleventh circuit 32 is connected with the fifth power distribution unit 33.

[0031] The fifth power distribution unit 33 is connected with three independent sets of circuits, which are respectively connected with the cutting machine 5, the crimping machine 6 and the clamping device 7. Each set of circuits and sensors are arranged in the hollow interlayer of the shelter 1.

[0032] Embodiment 1: A technician connects the power distribution cabinet 8 to the power supply of the ship, the ship supplies power to the first power distribution unit 9, and the first power distribution unit 9 transmits the power to the monitoring mechanism 2, the environment control mechanism 3 and the processing mechanism 4. The technician uses the processing mechanism 4 to process the cable inside the shelter 1. The motion reference mechanism 22 detects the shaking angle and shaking period of the shelter 1 at this time, records the detected shaking angle as α and the detected shaking period as T. The motion reference mechanism 22 transmits the detection results to the monitoring mechanism 2, and the monitoring mechanism 2 sends working signals to the processing mechanism 4 for different working conditions.

[0033] Working condition 1: α<α1, T>T1, which indicates that the shelter 1 is in a stable state with a low shaking angle and a slow shaking frequency. The technician can stand and walk stably, the power distribution system supplies power normally, and the processing mechanism 4 operates at full power to complete the cable processing.

[0034] When the motion reference mechanism 22 detects that T<T1 under the condition of α<α1, it indicates that the shelter 1 is at a low shaking angle with a fast shaking frequency. Although the shaking angle of the shelter 1 is small, it shakes frequently. The technician needs to actively adjust his own center of gravity during work, and due to the frequent shaking of the shelter 1, the processing accuracy of the cutting machine 5 and the crimping machine 6 may be reduced due to the influence of shaking during operation. Therefore, in this case, the monitoring mechanism 2 sends an instruction of low-power operation to the cutting machine 5 and the crimping machine 6, so that the cutting machine 5 and the crimping machine 6 switch the working mode, reduce the cable processing rate, avoid rapid cutting, and ensure the processing accuracy of a single cable.

[0035] Working condition 2: When the motion reference mechanism 22 detects that α1<α<α2 and T>T1, it indicates that the shelter 1 is in a state of moderate shaking angle and low shaking frequency. The control module sends an instruction to the relay of the second AC contactor 20, and the relay cuts off the circuit between the second AC contactor 20 and the first battery 23, so that the contacts of the second AC contactor 20 are disconnected, cutting off the fourth circuit 14 and the fifth circuit 15, thereby stopping the power supply to the cutting machine 5 and the crimping machine 6, avoiding additional damage to the cable caused by the processing equipment. The clamping device 7 operates normally to prevent the cable from falling off. When T>T1, the technician can barely stand by actively adjusting their own weight. The monitoring mechanism 2 detects the shaking time of the shelter 1 under this condition. If the moderate shaking angle is maintained for a long time, the monitoring mechanism 2 sends an alarm signal, and the technician evacuates from the shelter 1 back to the interior of the ship to avoid excessive fatigue. When the motion reference mechanism 22 detects that the shelter 1 returns to the state of working condition 1, the motion reference mechanism 22 sends a working signal to the control system of the ship to remind the technician to perform work.

[0036] When the motion reference mechanism 22 detects that α1<α<α2 and T<T1, it is difficult for the technician to maintain a standing posture. At this time, the control module sends an instruction to the relay of the second AC contactor 20 to stop the cutting machine 5 and the crimping machine 6, and directly sends an alarm signal to remind the technician to immediately evacuate the shelter 1 and return to the safe area inside the ship.

[0037] In working condition 2, the first power distribution unit 9 continuously supplies power to the environment control mechanism 3 to ensure that the environment control mechanism 3 is in a working state and continuously regulates the environmental variables inside the shelter 1, so that the technician can quickly enter the working state after the working condition of the shelter 1 is stabilized.

[0038] Working condition 3: When the motion reference mechanism 22 detects that α2<α, the monitoring mechanism 2 immediately sends an alarm signal to urge the technician to evacuate to the safe space of the ship. The monitoring mechanism 2 sends a signal to the third power distribution unit 17 to connect the seventh circuit 18 with the second battery 24, so that the independent second battery 24 supplies power to the clamping device 7. The monitoring mechanism 2 then sequentially sends off signals to the relays of each group of the second AC contactor 20 and the first AC contactor 19 to disconnect the second circuit 11 and the third circuit 12. At this time, the clamping device 7 is powered only by the second battery 24, realizing the non-power-off switching of the clamping device 7, while stopping the operation of the environment control mechanism 3, the cutting machine 5 and the crimping machine 6.

[0039] At this time, only the monitoring mechanism 2 in the shelter 1 remains powered by the ship's power, reducing the ship's load, reserving power for the ship's system used to resist wind and waves, and simultaneously reducing the risk of electric leakage of the equipment inside the shelter 1.

[0040] When the ship's own monitoring equipment detects that the ship has returned to working condition 1, the crew sends a work command to the monitoring agency 2 through the ship's control system. The monitoring agency 2 then sends work commands to the relays of AC contactor 20 and AC contactor 19. The relays connect battery 23 to AC contactor 20 and AC contactor 19, energizing the coils of AC contactor 20 and AC contactor 19, thereby closing the contacts and enabling the conduction of circuit 211 and circuit 312. The ship then supplies power to the environmental control agency 3, the cutting machine 5, and the crimping machine 6. The monitoring agency 2 further controls the power distribution unit 317 to switch the power supply, first connecting circuit 718 and circuit 616, and then disconnecting the connection between circuit 718 and battery 224, so that the ship supplies power to the various electrical equipment in the cabin 1.

[0041] It should be further explained that the specific values ​​of α1, α2 and T1 are determined by the ship's anti-sway capability. For example, in existing ship technology, α1 is usually 4° to 6°, α2 is usually 10° to 12°, and T1 is usually 6 to 8 seconds. The power supplied by battery 1 23 and battery 2 24 is consistent with the voltage, phase, frequency and other parameters of the power supplied by the ship.

[0042] In extreme cases, the impact of waves may cause the motion reference mechanism 22 to malfunction. In this case, the ship's own detection system will directly connect to the monitoring mechanism 2 to promptly issue an alarm to the personnel inside the cabin 1, thus preventing injury to personnel.

[0043] Example 2: Due to the variable working conditions at sea and the harsh external environment, after long-term use of container 1, circuits 10, 21, 32, 44, 515, 616 and 718 may experience leakage. When the above circuits fail, the corresponding connected electrical equipment will immediately lose power and stop working, directly affecting processing efficiency and potentially causing injury to technicians.

[0044] Therefore, the early warning protection module detects whether the above-mentioned circuits are working properly. Specifically, the leakage current of circuit 718 is taken as an example.

[0045] The surface temperature, current and voltage of circuit 7 18 are detected by the surface thermocouple, current sensor 27 and voltage sensor 28 corresponding to circuit 7 18. When leakage occurs, the current and surface temperature of circuit 7 18 increase and approach the circuit threshold, while the voltage decreases. The threshold of current and temperature is determined by the circuit itself.

[0046] The surface-mount thermocouple, current sensor 27, and voltage sensor 28 detect leakage in circuit 7 18 and transmit the signal to the data center 25. The data center 25 transmits the signal to the monitoring agency 2, and the monitoring agency 2 sends an alarm to the technician through the display module.

[0047] The monitoring agency 2 sends a shut-off signal to the relay of AC contactor 20, causing AC contactor 20 to cut off circuit 4 14 and circuit 5 15, suspending the operation of cutting machine 5 and crimping machine 6.

[0048] Data hub 25 further transmits signals to power distribution unit 4 26 and power distribution unit 5 33. Power distribution unit 4 26 connects circuit 8 29 and circuit 11 32, and power distribution unit 5 33 connects to clamping device 7. At this time, clamping device 7 simultaneously receives power from circuit 7 18 and from power distribution unit 5 33. Then, monitoring mechanism 2 sends a shut-off signal to the relay of AC contactor 3 21, causing AC contactor 3 21 to cut off circuit 7 18, resulting in clamping device 7 receiving only power from power distribution unit 5 33. Circuit switching is performed without stopping clamping device 7, realizing the parallel transition switching of the circuit of clamping device 7.

[0049] The monitoring agency 2 further sends a working signal to the relay of the AC contactor 20, enabling the cutting machine 5 and the crimping machine 6 to complete the current processing work. After completing the current cable processing, the monitoring agency 2 sends a shutdown signal to the processing mechanism 4. The data center 25 controls the power distribution unit 4 26 to cut off the circuit 8 29. The power distribution unit 9 stops supplying power to the circuit 3 12. At this time, the processing mechanism 4 has no power supply, which facilitates the staff to inspect the circuit 7 18. Through the early warning protection module, the early warning of circuit faults is realized, avoiding the sudden stop of processing equipment due to sudden circuit faults, and effectively improving processing safety.

[0050] It should be added that in Embodiment 2, the early warning protection module temporarily replaces the damaged circuit, but still uses the same power supply, thus enabling parallel transition switching.

[0051] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0052] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A container with cable processing equipment, comprising a container (1), characterized in that: The container (1) has a hollow interlayer between its inner and outer skins. The container (1) is equipped with a monitoring mechanism (2), an environmental control mechanism (3), and a processing mechanism (4). The processing mechanism (4) includes a cutting machine (5), a pressing machine (6), and a clamping device (7). The monitoring mechanism (2) includes a control module and a display module. The control module is connected to the environmental control mechanism (3) and the processing mechanism (4) by signal. A motion reference mechanism (22) is installed on the top of the cabin (1). The motion reference mechanism (22) is connected to the monitoring mechanism (2) by signal.

2. A power distribution system for a container house equipped with cable processing equipment, comprising the container house equipped with cable processing equipment as described in claim 1, characterized in that: Includes a power distribution cabinet (8) and an early warning protection module. The power distribution cabinet (8) is fixedly installed on the outer wall of the cabin (1). The power distribution cabinet (8) is equipped with a power distribution unit (9). The power distribution unit (9) is connected to circuit one (10), circuit two (11) and circuit three (12). Circuit two (11) and circuit three (12) are connected in series with the same AC contactor one (19). Circuit one (10) is connected to the monitoring mechanism (2), and circuit two (11) is connected to the environmental control mechanism (3).

3. The power distribution system of a container with cable processing equipment according to claim 2, characterized in that: Circuit 3 (12) is connected to power distribution unit 2 (13), power distribution unit 2 (13) is connected to circuit 4 (14), circuit 5 (15) and circuit 6 (16), circuit 4 (14) and circuit 5 (15) are respectively connected to the cutting machine (5) and the crimping machine (6), and the same AC contactor 2 (20) is connected in series with circuit 4 (14) and circuit 5 (15).

4. The power distribution system of a container house equipped with cable processing equipment according to claim 3, characterized in that: Circuit six (16) is connected to power distribution unit three (17), power distribution unit three (17) is connected to circuit seven (18), circuit seven (18) is connected to clamping device (7), and circuit seven (18) is connected in series with AC contactor three (21).

5. The power distribution system of a container house equipped with cable processing equipment according to claim 4, characterized in that: The cabin (1) is equipped with an independently rechargeable battery one (23) and battery two (24). Battery one (23) is electrically connected to the coils of each group of AC contactors and the motion reference mechanism (22). A relay is connected in series on the circuit connecting battery one (23) and each group of AC contactors. Battery one (23) and each group of relays are signal connected to the monitoring mechanism (2). Battery two (24) is connected to the power distribution unit three (17).

6. The power distribution system of a container with cable processing equipment according to claim 5, characterized in that: The early warning protection module includes a data hub (25), a power distribution unit four (26) and several sets of patch thermocouples. The data hub (25) and the power distribution unit four (26) are both installed inside the power distribution cabinet (8). The data hub (25) is connected to the monitoring mechanism (2) and the power distribution unit four (26) via signals.

7. The power distribution system for a container with cable processing equipment according to claim 6, characterized in that: Circuit 1 (10), Circuit 2 (11), Circuit 3 (12), Circuit 4 (14), Circuit 5 (15), Circuit 6 (16) and Circuit 7 (18) are all connected in series with a current sensor (27) and in parallel with a voltage sensor (28). Several sets of patch thermocouples are attached to the surface of each set of circuits. Each set of patch thermocouples, current sensor (27) and voltage sensor (28) are all connected to the data center (25) for signal transmission.

8. The power distribution system of a container house equipped with cable processing equipment according to claim 7, characterized in that: The power distribution unit four (26) is connected to circuit eight (29), circuit nine (30), circuit ten (31) and circuit eleven (32). Circuit eight (29) is connected to the power distribution unit one (9), circuit nine (30) is connected to the environmental control mechanism (3), circuit ten (31) is connected to the monitoring mechanism (2), and circuit eleven (32) is connected to power distribution unit five (33).

9. The power distribution system of a container house equipped with cable processing equipment according to claim 8, characterized in that: The power distribution unit five (33) is connected to three independent circuits, which are respectively connected to the cutting machine (5), the pressing machine (6) and the clamping device (7). Each circuit and sensor is located in the hollow interlayer of the cabin (1).

10. The power distribution system of a container with cable processing equipment according to claim 9, characterized in that: include: The power distribution unit (9) supplies power to the monitoring mechanism (2), the environmental control mechanism (3), and the processing mechanism (4). The technician uses the processing mechanism (4) to process the cable inside the cabin (1). The motion reference mechanism (22) detects the sway angle and sway period of the cabin (1) at this time. The detected sway angle is recorded as α and the detected sway period is recorded as T. The motion reference mechanism (22) transmits the detection results to the monitoring mechanism (2). The monitoring mechanism (2) sends working signals to the processing mechanism (4) for different working conditions. Condition 1: α<α1, T>T1, at this time the container (1) is in a stable state with low sway angle and slow sway frequency, the power distribution system is supplying power normally, the processing mechanism (4) is running at full power to complete the processing of the cable; Condition 2: When the motion reference mechanism (22) detects α1<α<α2, T>T1, the cabin (1) is in a state of moderate swaying angle and slow swaying frequency. The control module issues a command to the relay of the AC contactor (20). The relay cuts off the circuit between the AC contactor (20) and the battery (23), thereby disconnecting the contacts of the AC contactor (20), cutting off the circuit four (14) and the circuit five (15), stopping the power supply to the cutting machine (5) and the crimping machine (6), avoiding additional damage to the cable caused by the processing equipment. The clamping device (7) operates normally to prevent the cable from falling off. Condition 3: When the motion reference mechanism (22) detects α2<α, the monitoring mechanism (2) immediately issues an alarm signal. The monitoring mechanism (2) sends a signal to the power distribution unit three (17) to connect the circuit seven (18) with the battery two (24), so that the battery two (24) supplies power to the clamping device (7). The monitoring mechanism (2) disconnects the circuit two (11) and the circuit three (12). The clamping device (7) relies solely on the battery two (24) for power, thus achieving uninterrupted power switching of the clamping device (7). At the same time, the environmental control mechanism (3), the cutting machine (5), and the crimping machine (6) stop working. The specific values ​​of α1, α2 and T1 are determined by the ship's anti-rolling capability.

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