Integrated energy system for zero-carbon smart park

Abstract

Provided in the present invention is an integrated energy system for a zero-carbon smart park. The integrated energy system for a zero-carbon smart park comprises an energy supply module, an energy distribution module, an energy utilization module, and a control module, wherein the energy supply module comprises a primary energy system and / or a secondary energy system meeting the energy consumption requirements of various park scenarios; and the energy distribution module is connected to the energy supply module, and is configured to control the energy supply module to distribute primary energy and / or secondary energy to the energy utilization module. The present invention improves the structure of an existing integrated energy system for a zero-carbon smart park, and the improved integrated energy system for a zero-carbon smart park can perform overall planning on integrated energy of a park, and monitor in real time the usage conditions of a plurality of types of energy or a plurality of energy distribution points, such that energy can be rationally allocated and utilized to the maximum extent, thereby improving the energy supply assurance and regulation capability of the park.

Description

A Zero-Carbon Smart Park Integrated Energy System Technical Field

[0001] This invention relates to the field of energy system technology, and in particular to a zero-carbon smart park integrated energy system. Background Technology

[0002] Industrial park energy internet is one of the best application scenarios for multi-energy synergistic utilization and integrated energy services under the background of low-carbon economy, and it has important strategic significance for promoting the optimization and adjustment of China's energy structure. Building integrated energy systems in typical concentrated energy-consuming areas such as industrial parks, large public buildings, new towns, and residential communities to improve energy utilization efficiency is an important measure to promote clean, low-carbon, safe, and efficient energy. Zero-carbon industrial parks are an effective practice to promote the realization of zero-carbon energy supply and zero-carbon economic development.

[0003] While societal electricity demand is increasing, energy waste is also a serious problem. Currently, some industrial park integrated energy construction projects suffer from extensive energy supply, lack of overall planning, and an inability to monitor the use of multiple energy sources or energy distribution points, resulting in the failure to achieve rational allocation and maximized utilization of energy. To address these issues, this invention proposes a zero-carbon smart industrial park integrated energy system. Summary of the Invention

[0004] To achieve the above objectives, the present invention provides a zero-carbon smart park integrated energy system, including an energy supply module, an energy distribution module, an energy utilization module, and a control module; the energy supply module includes a primary energy system and / or a secondary energy system to meet the energy consumption needs of various park scenarios; the energy distribution module is connected to the energy supply module and is used to control the energy supply module to distribute primary energy and / or secondary energy to the energy utilization module; the monitoring module is located in the energy distribution module and is used to monitor in real time whether the energy in the primary energy system and / or secondary energy system within the energy distribution module is being used.

[0005] Optionally, the lower end face of the energy utilization module is provided with a plurality of first connecting rods arranged in a matrix. The first connecting rods are fixedly mounted on the monitoring module. The monitoring module includes a pressure detector and a fixed base located below the pressure detector, as well as a first support and guide component located between the pressure detector and the fixed base for connecting the pressure detector and the fixed base.

[0006] Optionally, the first support guide assembly includes a first support guide rod, a first support guide cylinder, a first support guide spring, and a first mounting groove. The first support guide rod is movably inserted into the first support guide cylinder. The first support guide spring is wound around the outside of the first support guide rod, and both ends of the first support guide spring are respectively fixedly connected to the side wall of the first support guide rod and the outer side wall of the first support guide cylinder. The first support guide cylinder is fixedly disposed on the bottom wall of the first mounting groove, and the first mounting groove is formed on a fixed seat.

[0007] Optionally, it also includes an intelligent start-stop mechanism, which includes a second connecting rod connected to the lower end face of the pressure detector. The lower end of the second connecting rod is fixedly connected to a first electrode contact. The first electrode contact is movably disposed in a second mounting groove. The second mounting groove is opened on a fixed base. The lower end of the first electrode contact is abutting against a second electrode contact. One end of a second support guide assembly is fixedly disposed on the lower end face of the second electrode contact. The other end of the second support guide assembly is fixedly connected to the bottom wall of the second mounting groove.

[0008] Optionally, the second support guide assembly includes a second support guide rod, a second support guide cylinder, and a second support guide spring. The second support guide rod is movably inserted into the second support guide cylinder, and the second support guide spring is wound around the outside of the second support guide rod. The two ends of the second support guide spring are respectively fixedly connected to the side wall of the second support guide rod and the outer side wall of the second support guide cylinder.

[0009] Optionally, a measuring mechanism is also included, comprising a third connecting rod fixed to the lower end face of the pressure detector, a spiral rod fixedly sleeved on the third connecting rod, the spiral rod being threaded into an inner spiral tube, a rotating shaft fixedly sleeved on the inner spiral tube, the rotating shaft being fixedly inserted into a fixed base, a first fixing ring fixedly sleeved on the inner spiral tube, a second fixing ring movably sleeved on the first fixing ring, one end of a fourth connecting rod fixedly disposed on the outer wall of the second fixing ring, the other end of the fourth connecting rod being fixedly connected to the lower end face of the fixed base, a fifth connecting rod fixedly disposed on the lower end face of the first fixing ring, a fourth electrode contact fixedly disposed on the upper end face of the fifth connecting rod, and a third electrode contact matching the fourth electrode contact disposed on the lower end face of the second fixing ring.

[0010] Optionally, the number of the third electrode contacts is set to N, and the N third electrode contacts are arranged in a ring at equal intervals along the vertical center line of the second fixing ring, where N is a positive integer greater than or equal to 3.

[0011] Optionally, a vibration mechanism is also included, the vibration mechanism including a third mounting groove formed on the second fixed ring, the third electrode contact being movably disposed in the third mounting groove, one end of the third support and guide assembly being fixedly connected to the top wall of the third mounting groove, and the other end of the third support and guide assembly being connected to the third electrode contact.

[0012] Optionally, the third support guide assembly includes a third support guide rod, a third support guide cylinder, and a third support guide spring. The third support guide rod is movably disposed inside the third support guide cylinder, and the third support guide spring is wound around the outside of the third support guide rod. The two ends of the third support guide spring are respectively fixedly connected to the side wall of the third support guide rod and the outer side wall of the third support guide cylinder.

[0013] Optionally, the vibration mechanism further includes a first magnet block disposed between the third electrode contact and the third support guide assembly, and used for connecting the third electrode contact and the third support guide assembly, and a second magnet block disposed between the top wall of the third mounting groove and the third support guide assembly, and used for connecting the top wall of the third mounting groove and the third support guide assembly, wherein the second magnet block and the first magnet block have the same magnetism on the side that is close to each other.

[0014] The beneficial effects of this invention are as follows:

[0015] This invention improves the existing structure of the zero-carbon smart park integrated energy system. The improved zero-carbon smart park integrated energy system can plan the park's overall energy and monitor the usage of multiple energy sources or multiple energy distribution points in real time, thereby enabling the rational allocation and maximization of energy utilization, and thus improving the park's energy supply security and regulation capabilities.

[0016] The zero-carbon smart park integrated energy system of this invention can monitor the temperature and humidity inside the energy station while monitoring the primary and secondary energy used in the park. It can also monitor factors that cause energy instability inside the energy station, thus eliminating the need for manual patrols to monitor the energy inside the energy station, thereby achieving the effect of saving time and effort and working efficiently.

[0017] The monitoring module of this invention includes a pressure detector, which enables real-time monitoring of the weight of energy within the energy utilization module. Furthermore, the monitoring module has a reasonable structural design and includes a fixed base and a first support guide component located below the pressure detector. In this way, the monitoring module can not only monitor the energy within the energy utilization module in real time, but also prevent damage to the equipment through a buffering effect, thereby protecting the equipment.

[0018] This invention incorporates an intelligent start-stop mechanism. This mechanism enables the monitoring module to start and stop intelligently. Specifically, when energy is supplied to the energy utilization module, the pressure of the energy's weight causes the pressure detector to move downward relative to the fixed base. This movement of the pressure detector, via the second connecting rod, causes the first electrode contact to move downward, making contact between the first and second electrode contacts. This connects the series circuit, turning on the power to the pressure detector and initiating real-time monitoring of the energy within the energy utilization module.

[0019] This invention incorporates a metering mechanism for precise monitoring of the energy quantity within the energy utilization module. Specifically, as the energy quantity within the module changes, a pressure detector moves upward. This movement, via a third connecting rod, causes a spiral rod to move upward. The upward movement of the spiral rod rotates the inner spiral tube. This rotation, through a first fixing ring and a fifth connecting rod, causes the fourth electrode contact to rotate. The rotation of the fourth electrode contact brings it into contact with different third electrode contacts. Each contact is counted, thus enabling precise monitoring of the energy quantity within the energy utilization module.

[0020] This invention incorporates a vibration mechanism. When the fourth electrode contact touches the third electrode contact, the vibration mechanism allows the third electrode contact to move into the third mounting slot, preventing the device from getting stuck. Simultaneously, as the third electrode contact passes the fourth electrode contact, vibration is generated. This vibration allows for monitoring of the device's performance from multiple angles, including vibration and sound, resulting in more accurate monitoring results. Furthermore, this invention includes a combined structure of a first magnet block and a second magnet block. This combined structure ensures that the third electrode contact always extends beyond the second fixing ring, guaranteeing constant contact between the third and fourth electrode contacts. Attached Figure Description

[0021] Figure 1 is a schematic diagram of an embodiment of the zero-carbon smart park integrated energy system of the present invention;

[0022] Figure 2 is a schematic diagram of the monitoring module in Figure 1 of the zero-carbon smart park integrated energy system of the present invention;

[0023] Figure 3 is a schematic diagram of the intelligent start-stop mechanism in the zero-carbon smart park integrated energy system of the present invention.

[0024] Figure 4 is an enlarged schematic diagram of structure A in Figure 3 of the zero-carbon smart park integrated energy system of the present invention;

[0025] Figure 5 is a schematic diagram of the metering mechanism structure in the zero-carbon smart park integrated energy system of the present invention.

[0026] Figure 6 is an enlarged schematic diagram of structure B in Figure 5 of the zero-carbon smart park integrated energy system of the present invention;

[0027] Figure 7 is a schematic diagram of the vibration mechanism structure in the zero-carbon smart park integrated energy system of the present invention.

[0028] Figure Labels

[0029] Energy Utilization Module 1

[0030] First connecting rod 2

[0031] Monitoring module 3, pressure detector 31, mounting base 32, first support guide assembly 33, first support guide rod 331, first support guide cylinder 332, first support guide spring 333, first mounting groove 334.

[0032] Intelligent start / stop mechanism 4, second connecting rod 41, first electrode contact 42, second mounting groove 43, second electrode contact 44, second support guide assembly 45, second support guide rod 451, second support guide cylinder 452, second support guide spring 453.

[0033] Measuring mechanism 5, third connecting rod 51, screw rod 52, inner screw tube 53, rotating shaft 54, first fixing ring 55, second fixing ring 56, third electrode contact 57, fourth connecting rod 58, fourth electrode contact 59, fifth connecting rod 510

[0034] Vibration mechanism 6, third mounting groove 61, first magnet block 62, second magnet block 63, third support guide assembly 64, third support guide rod 641, third support guide cylinder 642, third support guide spring 643. Detailed Implementation

[0035] To make the objectives, technical solutions, and advantages of this invention clearer, the technical solutions in the embodiments of this invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this invention. All other embodiments obtained by those skilled in the art based on the embodiments of this invention without inventive effort are within the scope of protection of this invention. Unless otherwise defined, the technical or scientific terms used herein should have the ordinary meaning understood by those skilled in the art. The terms "comprising" and similar expressions used herein mean that the element or object preceding the word covers the element or object listed following the word and its equivalents, but do not exclude other elements or objects.

[0036] To address the problems existing in the prior art, embodiments of the present invention provide a zero-carbon smart park integrated energy system, characterized in that it includes an energy supply module, an energy distribution module, an energy utilization module, and a control module; the energy supply module includes a primary energy system and / or a secondary energy system to meet the energy consumption needs of various park scenarios; the energy distribution module is connected to the energy supply module and is used to control the energy supply module to distribute primary energy and / or secondary energy to the energy utilization module; the monitoring module is located in the energy distribution module and is used to monitor in real time whether the energy in the primary energy system and / or secondary energy system within the energy distribution module is being used.

[0037] The energy supply module includes a primary energy system and a secondary energy system to meet the energy consumption needs of various park scenarios, and provides primary and / or secondary energy to the energy utilization module.

[0038] The energy distribution module includes a power distribution system, AC / DC equipment, energy storage system, reactive power compensation system, and integrated energy management system.

[0039] The energy utilization module includes the park's lighting system, central air conditioning system, conference room system, and charging pile system.

[0040] This invention improves the existing structure of the zero-carbon smart park integrated energy system. The improved zero-carbon smart park integrated energy system can plan the park's overall energy and monitor the usage of multiple energy sources or multiple energy distribution points in real time, thereby enabling the rational allocation and maximization of energy utilization, and thus improving the park's energy supply security and regulation capabilities.

[0041] The zero-carbon smart park integrated energy system of this invention can monitor the temperature and humidity inside the energy station while monitoring the primary and secondary energy used in the park. It can also monitor factors that cause energy instability inside the energy station, thus eliminating the need for manual patrols to monitor the energy inside the energy station, thereby achieving the effect of saving time and effort and working efficiently.

[0042] In one embodiment, a plurality of first connecting rods 2 arranged in a matrix are provided on the lower end face of the energy utilization module 1. The first connecting rods 2 are fixedly mounted on the monitoring module 3. The monitoring module 3 includes a pressure detector 31 and a fixed base 32 located below the pressure detector 31, and a first support and guide component 33 located between the pressure detector 31 and the fixed base 32 for connecting the pressure detector 31 and the fixed base 32. The monitoring module 3 of the present invention includes a pressure detector 31, which enables real-time monitoring of the energy weight within the energy utilization module 1. Furthermore, the monitoring module 3 has a reasonable structural design and also includes a fixed base 32 and a first support and guide component 33 located below the pressure detector 31. Thus, the monitoring module 3 can not only monitor the energy within the energy utilization module 1 in real time, but also, through a buffering effect, avoid impacting the equipment, thereby protecting the equipment.

[0043] In one embodiment, the first support guide assembly 33 includes a first support guide rod 331, a first support guide cylinder 332, a first support guide spring 333, and a first mounting groove 334. The first support guide rod 331 is movably inserted into the first support guide cylinder 332. The first support guide spring 333 is wound around the outside of the first support guide rod 331, and the two ends of the first support guide spring 333 are respectively fixedly connected to the side wall of the first support guide rod 331 and the outer side wall of the first support guide cylinder 332. The first support guide cylinder 332 is fixedly disposed on the bottom wall of the first mounting groove 334, and the first mounting groove 334 is formed on the fixed seat 32.

[0044] In one embodiment, the system further includes an intelligent start-stop mechanism 4, which includes a second connecting rod 41 connected to the lower end face of the pressure detector 31. The lower end of the second connecting rod 41 is fixedly connected to a first electrode contact 42. The first electrode contact 42 is movably disposed in a second mounting groove 43, which is formed on a fixed base 32. The lower end of the first electrode contact 42 abuts against a second electrode contact 44. One end of a second support guide assembly 45 is fixedly disposed on the lower end face of the second electrode contact 44, and the other end of the second support guide assembly 45 is fixedly connected to the bottom wall of the second mounting groove 43.

[0045] The present invention includes an intelligent start-stop mechanism 4, which is used to intelligently start and stop the monitoring module 3. Specifically, when energy is supplied to the energy utilization module 1, the pressure detector 31 will move downward relative to the fixed base 32 due to the pressure of the energy weight. The movement of the pressure detector 31 will cause the first electrode contact 42 to move downward through the second connecting rod 41, and make the first electrode contact 42 contact with the second electrode contact 44, thereby connecting the series circuit and turning on the power supply of the pressure detector 31 to start real-time monitoring of the energy in the energy utilization module 1.

[0046] In one embodiment, the second support guide assembly 45 includes a second support guide rod 451, a second support guide cylinder 452, and a second support guide spring 453. The second support guide rod 451 is movably inserted into the second support guide cylinder 452, and the second support guide spring 453 is wound around the second support guide rod 451. The two ends of the second support guide spring 453 are respectively fixedly connected to the side wall of the second support guide rod 451 and the outer side wall of the second support guide cylinder 452.

[0047] In one embodiment, a measuring mechanism 5 is further included. The measuring mechanism 5 includes a third connecting rod 51 fixed to the lower end face of the pressure detector 31. A spiral rod 52 is fixedly sleeved on the third connecting rod 51. The spiral rod 52 is threaded into an inner spiral tube 53. A rotating shaft 54 ​​is fixedly sleeved on the inner spiral tube 53. The rotating shaft 54 ​​is fixedly inserted into a fixed base 32. A first fixing ring 55 is fixedly sleeved on the inner spiral tube 53. A second fixing ring 56 is movably sleeved on the first fixing ring 55. One end of a fourth connecting rod 58 is fixedly disposed on the outer side wall of the second fixing ring 56. The other end of the fourth connecting rod 58 is fixedly connected to the lower end face of the fixed base 32. A fifth connecting rod 510 is fixedly disposed on the lower end face of the first fixing ring 55. A fourth electrode contact 59 is fixedly disposed on the upper end face of the fifth connecting rod 510. A third electrode contact 57 matching the fourth electrode contact 59 is disposed on the lower end face of the second fixing ring 56.

[0048] The present invention includes a metering mechanism 5 for accurately monitoring the amount of energy in the energy utilization module 1. Specifically, as the amount of energy in the energy utilization module 1 changes, the pressure detector 31 moves upward. The movement of the pressure detector 31 causes the spiral rod 52 to move upward via the third connecting rod 51. The upward movement of the spiral rod 52 causes the inner spiral tube 53 to rotate. The rotation of the inner spiral tube 53 causes the fourth electrode contact 59 to rotate via the first fixing ring 55 and the fifth connecting rod 510. The rotation of the fourth electrode contact 59 causes it to contact different third electrode contacts 57. Each contact is counted, thereby achieving accurate monitoring of the amount of energy in the energy utilization module 1.

[0049] In one embodiment, the number of the third electrode contacts 57 is N, and the N third electrode contacts 57 are arranged in a ring at equal intervals along the vertical center line of the second fixing ring 56, where N is a positive integer greater than or equal to 3.

[0050] In one embodiment, a vibration mechanism 6 is also included. The vibration mechanism 6 includes a third mounting groove 61 formed on the second fixing ring 56. The third electrode contact 57 is movably disposed in the third mounting groove 61. One end of the third support and guide assembly 64 is fixedly connected to the top wall of the third mounting groove 61, and the other end of the third support and guide assembly 64 is connected to the third electrode contact 57.

[0051] In one embodiment, the third support guide assembly 64 includes a third support guide rod 641, a third support guide cylinder 642, and a third support guide spring 643. The third support guide rod 641 is movably disposed inside the third support guide cylinder 642, and the third support guide spring 643 is wound around the third support guide rod 641. The two ends of the third support guide spring 643 are respectively fixedly connected to the side wall of the third support guide rod 641 and the outer side wall of the third support guide cylinder 642.

[0052] In one embodiment, the vibration mechanism 6 further includes a first magnet block 62 disposed between the third electrode contact 57 and the third support guide assembly 64 for connecting the third electrode contact 57 and the third support guide assembly 64, and a second magnet block 63 disposed between the top wall of the third mounting groove 61 and the third support guide assembly 64 for connecting the top wall of the third mounting groove 61 and the third support guide assembly 64, wherein the second magnet block 63 and the first magnet block 62 have the same magnetism on the side that is close to each other.

[0053] This invention includes a vibration mechanism 6. When the fourth electrode contact 59 contacts the third electrode contact 57, the vibration mechanism 6 allows the third electrode contact 57 to move into the third mounting groove 61, preventing the device from getting stuck. Simultaneously, when the third electrode contact 57 passes the fourth electrode contact 59, it generates vibration. This vibration allows the device to monitor its performance from multiple angles, including vibration and sound, resulting in more accurate monitoring results. Furthermore, this invention also includes a combination structure of a first magnet block 62 and a second magnet block 63. This combination structure ensures that the third electrode contact 57 always extends beyond the second fixing ring 56, guaranteeing that the third electrode contact 57 remains in contact with the fourth electrode contact 59.

[0054] The beneficial effects of this invention are as follows:

[0055] This invention improves the existing structure of the zero-carbon smart park integrated energy system. The improved zero-carbon smart park integrated energy system can plan the park's overall energy and monitor the usage of multiple energy sources or multiple energy distribution points in real time, thereby enabling the rational allocation and maximization of energy utilization, and thus improving the park's energy supply security and regulation capabilities.

[0056] The zero-carbon smart park integrated energy system of this invention can monitor the temperature and humidity inside the energy station while monitoring the primary and secondary energy used in the park. It can also monitor factors that cause energy instability inside the energy station, thus eliminating the need for manual patrols to monitor the energy inside the energy station, thereby achieving the effect of saving time and effort and working efficiently.

[0057] The monitoring module 3 in this invention includes a pressure detector 31, which can monitor the weight of energy in the energy utilization module 1 in real time. Furthermore, the monitoring module 3 has a reasonable structural design and also includes a fixed base 32 and a first support guide component 33 located below the pressure detector 31. In this way, the monitoring module 3 can monitor the energy in the energy utilization module 1 in real time, and at the same time, it can also prevent damage to the equipment through a buffering effect, thereby protecting the equipment.

[0058] The present invention includes an intelligent start-stop mechanism 4, which is used to intelligently start and stop the monitoring module 3. Specifically, when energy is supplied to the energy utilization module 1, the pressure detector 31 will move downward relative to the fixed base 32 due to the pressure of the energy weight. The movement of the pressure detector 31 will cause the first electrode contact 42 to move downward through the second connecting rod 41, and make the first electrode contact 42 contact with the second electrode contact 44, thereby connecting the series circuit and turning on the power supply of the pressure detector 31 to start real-time monitoring of the energy in the energy utilization module 1.

[0059] The present invention includes a metering mechanism 5 for accurately monitoring the amount of energy in the energy utilization module 1. Specifically, as the amount of energy in the energy utilization module 1 changes, the pressure detector 31 moves upward. The movement of the pressure detector 31 causes the spiral rod 52 to move upward via the third connecting rod 51. The upward movement of the spiral rod 52 causes the inner spiral tube 53 to rotate. The rotation of the inner spiral tube 53 causes the fourth electrode contact 59 to rotate via the first fixing ring 55 and the fifth connecting rod 510. The rotation of the fourth electrode contact 59 causes it to contact different third electrode contacts 57. Each contact is counted, thereby achieving accurate monitoring of the amount of energy in the energy utilization module 1.

[0060] This invention includes a vibration mechanism 6. When the fourth electrode contact 59 contacts the third electrode contact 57, the vibration mechanism 6 allows the third electrode contact 57 to move into the third mounting groove 61, preventing the device from getting stuck. Simultaneously, when the third electrode contact 57 passes the fourth electrode contact 59, it generates vibration. This vibration allows the device to monitor its performance from multiple angles, including vibration and sound, resulting in more accurate monitoring results. Furthermore, this invention also includes a combination structure of a first magnet block 62 and a second magnet block 63. This combination structure ensures that the third electrode contact 57 always extends beyond the second fixing ring 56, guaranteeing that the third electrode contact 57 remains in contact with the fourth electrode contact 59.

[0061] While embodiments of the present invention have been described in detail above, it will be apparent to those skilled in the art that various modifications and variations can be made to these embodiments. However, it should be understood that such modifications and variations fall within the scope and spirit of the invention as set forth in the claims. Furthermore, the invention described herein may have other embodiments and can be implemented or carried out in various ways.

Claims

1. A zero-carbon smart park integrated energy system, characterized in that, The energy supply module, the energy distribution module, the energy utilization module and the monitoring module are included; the energy supply module includes a primary energy system and / or a secondary energy system to meet the energy consumption demand of various park scenes; the energy distribution module is connected with the energy supply module, and is used for controlling the energy supply module to distribute primary energy and / or secondary energy for the energy utilization module; the monitoring module is arranged in the energy distribution module, and is used for monitoring whether the energy in the primary energy system and / or the secondary energy system is used in real time; The lower end face of the energy utilization module (1) is provided with a plurality of first connecting rods (2) arranged in a matrix, and the first connecting rods (2) are fixedly arranged on the monitoring module (3), wherein the monitoring module (3) includes a pressure detector (31), a fixed seat (32) arranged below the pressure detector (31), and a first support guide assembly (33) arranged between the pressure detector (31) and the fixed seat (32) and used for connecting the pressure detector (31) and the fixed seat (32); further comprising a metering mechanism (5), the metering mechanism (5) includes a third connecting rod (51) fixed on the lower end face of the pressure detector (31), a screw rod (52) fixedly sleeved outside the third connecting rod (51), the screw rod (52) is threadedly inserted into an inner spiral pipe (53), the inner spiral pipe (53) is fixedly sleeved with a rotating shaft (54), the rotating shaft (54) is fixedly inserted into the fixed seat (32), the inner spiral pipe (53) is fixedly sleeved with a first fixed ring (55), the first fixed ring (55) is movably sleeved with a second fixed ring (56), one end of a fourth connecting rod (58) is fixedly arranged on the outer side wall of the second fixed ring (56), the other end of the fourth connecting rod (58) is fixedly connected to the lower end face of the fixed seat (32), a fifth connecting rod (510) is fixedly arranged on the lower end face of the first fixed ring (55), a fourth electrode contact (59) is fixedly arranged on the upper end face of the fifth connecting rod (510), and a third electrode contact (57) matched with the fourth electrode contact (59) is arranged on the lower end face of the second fixed ring (56); the number of the third electrode contacts (57) is N, and N third electrode contacts (57) are arranged in an equidistant ring along the vertical center line of the second fixed ring (56), wherein N is a positive integer greater than or equal to 3.

2. The zero-carbon smart campus integrated energy system of claim 1, wherein, The first support guide assembly (33) comprises a first support guide rod (331), a first support guide cylinder (332), a first support guide spring (333) and a first mounting slot (334), the first support guide rod (331) is movably inserted into the first support guide cylinder (332), the first support guide spring (333) is wound outside the first support guide rod (331), and two ends of the first support guide spring (333) are fixedly connected to the side wall of the first support guide rod (331) and the outer side wall of the first support guide cylinder (332) respectively, the first support guide cylinder (332) is fixedly arranged on the bottom wall of the first mounting slot (334), and the first mounting slot (334) is arranged on the fixed seat (32).

3. The zero-carbon smart campus integrated energy system of claim 2, wherein, The intelligent start-stop mechanism (4) comprises a second connecting rod (41) connected to the lower end face of the pressure detector (31), a first electrode contact (42) fixedly connected to the lower end of the second connecting rod (41), the first electrode contact (42) movably arranged in a second mounting slot (43), the second mounting slot (43) arranged on the fixed seat (32), a second electrode contact (44) abuttingly arranged at the lower end of the first electrode contact (42), one end of a second support guide assembly (45) fixedly arranged on the lower end face of the second electrode contact (44), and the other end of the second support guide assembly (45) fixedly connected to the bottom wall of the second mounting slot (43).

4. The zero-carbon smart campus integrated energy system of claim 3, wherein, The second support guide assembly (45) comprises a second support guide rod (451), a second support guide cylinder (452) and a second support guide spring (453), the second support guide rod (451) is movably inserted into the second support guide cylinder (452), the second support guide spring (453) is wound outside the second support guide rod (451), and two ends of the second support guide spring (453) are fixedly connected to the side wall of the second support guide rod (451) and the outer side wall of the second support guide cylinder (452) respectively.

5. The zero-carbon smart campus integrated energy system of claim 4, wherein, The vibration mechanism (6) comprises a third mounting slot (61) arranged on the second fixed ring (56), the third electrode contact (57) is movably arranged in the third mounting slot (61), one end of a third support guide assembly (64) is fixedly connected to the top wall of the third mounting slot (61), and the other end of the third support guide assembly (64) is connected to the third electrode contact (57).

6. The zero-carbon smart campus integrated energy system of claim 5, wherein, The third support and guide assembly (64) comprises a third support and guide rod (641), a third support and guide cylinder (642) and a third support and guide spring (643). The third support and guide rod (641) is movably arranged in the third support and guide cylinder (642). The third support and guide spring (643) is wound outside the third support and guide rod (641). Two ends of the third support and guide spring (643) are fixedly connected to the side wall of the third support and guide rod (641) and the outer side wall of the third support and guide cylinder (642) respectively.

7. The zero-carbon smart campus integrated energy system of claim 6, wherein, The vibration mechanism (6) further comprises a first magnet block (62) arranged between the third electrode contact (57) and the third support and guide assembly (64) and used for connecting the third electrode contact (57) and the third support and guide assembly (64), and a second magnet block (63) arranged between the top wall of the third mounting groove (61) and the third support and guide assembly (64) and used for connecting the top wall of the third mounting groove (61) and the third support and guide assembly (64). The second magnet block (63) and the first magnet block (62) are magnetically identical on the side close to each other.

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