A zero-carbon smart park integrated energy system

Abstract

The present invention provides a zero-carbon smart park comprehensive energy system, comprising an energy supply module, an energy distribution module, an energy utilization module and a control module; the energy supply module comprises a primary energy system and / or a secondary energy system that meets the energy consumption requirements 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 present invention improves the structure of the existing zero-carbon smart park comprehensive energy system, and the improved zero-carbon smart park comprehensive energy system can coordinate the comprehensive energy planning of the park, and monitor the use of multiple energy sources or multiple energy distribution points in real time, so that energy can be reasonably distributed and maximized, thereby improving the energy supply guarantee and regulation capabilities of the park.

Description

Technical Field

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

[0002] The park energy internet is one of the best application scenarios for the coordinated use of multiple energy sources and integrated energy services under the background of a low-carbon economy, and it has important strategic significance for promoting the optimization and adjustment of China's energy structure. For typical concentrated energy consumption areas such as industrial parks, large public buildings, new towns, and residential communities, building a comprehensive energy system and improving energy utilization efficiency are important measures to promote clean, low-carbon, safe and efficient energy. Zero carbonization of the park is an effective practice to promote the realization of zero carbonization of energy supply and zero carbonization of economic development methods.

[0003] While the social demand for electricity is growing, energy waste is also serious. At present, some integrated energy construction in some parks has extensive energy supply, lack of overall planning, and inability to monitor the use of multiple energy sources or multiple energy distribution points, resulting in the failure to reasonably allocate and maximize energy utilization. In order to solve the above problems, the present invention proposes a zero-carbon smart park integrated energy system. Summary of the invention

[0004] To achieve the above-mentioned objectives, the present invention provides a zero-carbon smart park comprehensive energy system, comprising an energy supply module, an energy distribution module, an energy utilization module and a control module; the energy supply module comprises a primary energy system and / or a secondary energy system that meets the energy consumption requirements 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 arranged in the energy distribution module, and is used to monitor in real time whether the energy in the primary energy system and / or the secondary energy system in the energy distribution module is used.

[0005] Optionally, a plurality of first connecting rods arranged in a matrix are provided on the lower end surface of the energy utilization module, and the first connecting rods are fixedly provided on the monitoring module, wherein the monitoring module includes a pressure detector and a fixing seat provided below the pressure detector, and a first supporting guide assembly provided between the pressure detector and the fixing seat and used for connecting the pressure detector and the fixing seat.

[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 being movably inserted in the first support guide cylinder, the first support guide spring being wound and arranged outside the first support guide rod, and the two ends of the first support guide spring being 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 being fixedly arranged on the bottom wall of the first mounting groove, and the first mounting groove being opened on the fixed seat.

[0007] Optionally, it also includes an intelligent start-stop mechanism, which includes a second connecting rod connected to the lower end surface 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 arranged in a second mounting groove, the second mounting groove is arranged on a fixed seat, the lower end of the first electrode contact is abutted against a second electrode contact, one end of a second support and guide assembly is fixedly arranged on the lower end surface of the second electrode contact, and the other end of the second support and 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 in the second support guide cylinder, the second support guide spring is wound and arranged outside the second support guide rod, and 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, it also includes a metering mechanism, which includes a third connecting rod fixed on the lower end face of the pressure detector, a spiral rod is provided on the outer fixed sleeve of the third connecting rod, and the spiral rod is threadedly inserted in the inner spiral tube, a rotating shaft is provided on the outer fixed sleeve of the inner spiral tube, and the rotating shaft is fixedly inserted on the fixed seat, a first fixing ring is provided on the outer fixed sleeve of the inner spiral tube, a second fixing ring is provided on the outer movable sleeve of the first fixing ring, one end of the fourth connecting rod is fixedly provided on the outer side wall of the second fixing ring, the other end of the fourth connecting rod is fixedly connected to the lower end face of the fixed seat, a fifth connecting rod is fixedly provided on the lower end face of the first fixing ring, a fourth electrode contact is fixedly provided on the upper end face of the fifth connecting rod, and a third electrode contact matching the fourth electrode contact is provided on the lower end face of the second fixing ring.

[0010] Optionally, the number of the third electrode contact pieces is N, and the N third electrode contact pieces are arranged in a ring shape with equal distances along the vertical center line of the second fixing ring, wherein N is a positive integer greater than or equal to 3.

[0011] Optionally, it also includes a vibration mechanism, which includes a third mounting groove opened on the second fixing ring, and the third electrode contact is movably arranged in the third mounting groove, and the top wall of the third mounting groove is fixedly connected to one end of a third support guide assembly, and the other end of the third support guide assembly is 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 arranged in the third support guide cylinder, the third support guide spring is wound outside the third support guide rod, and 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 also includes a first magnet block disposed between the third electrode contact piece and the third support and guide assembly and used to connect the third electrode contact piece and the third support and guide assembly, and a second magnet block disposed between the top wall of the third mounting groove and the third support and guide assembly and used to connect the top wall of the third mounting groove and the third support and guide assembly, wherein the second magnet block and the first magnet block have the same magnetic properties on the side where they are close to each other.

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

[0015] The present invention improves the existing zero-carbon smart park comprehensive energy system structure. The improved zero-carbon smart park comprehensive energy system can coordinate the comprehensive energy planning of the park, and monitor the use of multiple energy sources or multiple energy distribution points in real time, so that energy can be reasonably allocated and utilized to the maximum extent, thereby improving the energy supply security and regulation capabilities of the park.

[0016] The zero-carbon smart park integrated energy system of the present invention can monitor the temperature and humidity inside the energy station while monitoring the primary energy and secondary energy used in the park, and monitor the factors that cause energy instability inside the energy station. This eliminates the need for energy monitoring inside the energy station, which is usually done through manual patrol monitoring, thereby achieving the effect of saving time, labor and working efficiently.

[0017] The monitoring module in the present invention includes a pressure detector, through which the energy weight in the energy utilization module can be monitored in real time; and the structural design of the monitoring module is reasonable, and also includes a fixed seat and a first supporting guide component arranged below the pressure detector. In this way, the monitoring module can not only monitor the energy in the energy utilization module in real time, but also avoid affecting the equipment through the buffering effect, thereby protecting the equipment.

[0018] An intelligent start-stop mechanism is provided in the present invention. The setting of the intelligent start-stop mechanism is used to play an intelligent start-stop role for the monitoring module. Specifically, when energy is introduced into the energy utilization module, the pressure detector will move downward relative to the fixed seat due to the pressure of the energy weight. The movement of the pressure detector will move the first electrode contact piece downward through the second connecting rod, and make the first electrode contact piece contact with the second electrode contact piece, thereby connecting the series circuit, so that the power supply of the pressure detector is turned on, and real-time monitoring of the energy in the energy utilization module is started.

[0019] The present invention provides a metering mechanism for accurately monitoring the amount of energy in the energy utilization module. Specifically, as the amount of energy in the energy utilization module changes, the pressure detector will move upward. The movement of the pressure detector will cause the spiral rod to move upward through the third connecting rod. The upward movement of the spiral rod will cause the inner spiral tube to rotate. The rotation of the inner spiral tube will cause the fourth electrode contact to rotate through the first fixed ring and the fifth connecting rod. The rotation of the fourth electrode contact will come into contact with different third electrode contacts. Each contact can be counted, thereby realizing accurate monitoring of the amount of energy in the energy utilization module.

[0020] The present invention is provided with a vibration mechanism. When the fourth electrode contact piece contacts the third electrode contact piece, the vibration mechanism can make the third electrode contact piece move into the third mounting groove, thereby preventing the device from being stuck. At the same time, when the third electrode contact piece passes over the fourth electrode contact piece, vibration is generated. Through the vibration effect, the monitoring effect of the device can be monitored from multiple angles such as vibration and sound, thereby making the monitoring result more accurate through multiple angles. In addition, the present invention is also provided with a combination structure of a first magnet block and a second magnet block. The combination structure can ensure that the third electrode contact piece always extends out of the second fixing ring, ensuring that the third electrode contact piece can always contact the fourth electrode contact piece. BRIEF DESCRIPTION OF THE DRAWINGS

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

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

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

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

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

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

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

[0028] Reference numerals Energy utilization module 1,

[0029] First connecting rod 2,

[0030] Monitoring module 3, pressure detector 31, fixing seat 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, intelligent start-stop mechanism 4, second connecting rod 41, first electrode contact sheet 42, second mounting groove 43, second electrode contact sheet 44, second support guide assembly 45, second support guide rod 451, second support guide cylinder 452, second support guide spring 453,

[0031] Measuring mechanism 5, third connecting rod 51, spiral rod 52, inner spiral tube 53, rotating shaft 54, first fixing ring 55, second fixing ring 56, third electrode contact sheet 57, fourth connecting rod 58, fourth electrode contact sheet 59, fifth connecting rod 510,

[0032] 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 DESCRIPTION

[0033] In order to make the purpose, technical solutions and advantages of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. Unless otherwise defined, the technical terms or scientific terms used herein should be understood by people with general skills in the field to which the present invention belongs. "Including" and similar words used in this article mean that the elements or objects appearing before the word include the elements or objects listed after the word and their equivalents, without excluding other elements or objects.

[0034] In response to the problems existing in the prior art, an embodiment of the present invention provides a zero-carbon smart park comprehensive 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 that meets the energy consumption requirements 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 arranged in the energy distribution module, and is used to monitor in real time whether the energy in the primary energy system and / or the secondary energy system in the energy distribution module is used.

[0035] The energy supply module includes primary energy systems and secondary energy systems that meet the energy consumption requirements of various park scenarios, and provides primary energy and / or secondary energy for the energy utilization module.

[0036] The energy distribution module includes power distribution system, AC and DC equipment, energy storage system, reactive power compensation system and comprehensive energy management and control system.

[0037] The energy utilization module includes the campus lighting system, central air-conditioning system, conference room system and charging pile system.

[0038] The present invention improves the existing zero-carbon smart park comprehensive energy system structure. The improved zero-carbon smart park comprehensive energy system can coordinate the comprehensive energy planning of the park, and monitor the use of multiple energy sources or multiple energy distribution points in real time, so that energy can be reasonably allocated and utilized to the maximum extent, thereby improving the energy supply security and regulation capabilities of the park.

[0039] The zero-carbon smart park integrated energy system of the present invention can monitor the temperature and humidity inside the energy station while monitoring the primary energy and secondary energy used in the park, and monitor the factors that cause energy instability inside the energy station. This eliminates the need for energy monitoring inside the energy station, which is usually done through manual patrol monitoring, thereby achieving the effect of saving time, labor and working efficiently.

[0040] In one embodiment, a plurality of first connecting rods 2 arranged in a matrix are provided on the lower end surface of the energy utilization module 1, and the first connecting rods 2 are fixedly provided on the monitoring module 3, wherein the monitoring module 3 includes a pressure detector 31 and a fixing seat 32 provided below the pressure detector 31, and a first supporting guide assembly 33 provided between the pressure detector 31 and the fixing seat 32 and used to connect the pressure detector 31 and the fixing seat 32. The monitoring module 3 in the present invention includes a pressure detector 31, through which the energy weight in the energy utilization module 1 can be monitored in real time; and the structural design of the monitoring module 3 is reasonable, and it also includes a fixing seat 32 and a first supporting guide assembly 33 provided below the pressure detector 31, so that the monitoring module 3 can not only monitor the energy in the energy utilization module 1 in real time, but also can avoid the impact on the equipment through the buffering effect, thereby protecting the equipment.

[0041] 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 in 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 set on the bottom wall of the first mounting groove 334, and the first mounting groove 334 is opened on the fixed seat 32.

[0042] In one embodiment, it also includes an intelligent start-stop mechanism 4, which includes a second connecting rod 41 connected to the lower end surface of the pressure detector 31, and the lower end of the second connecting rod 41 is fixedly connected to a first electrode contact 42, and the first electrode contact 42 is movably arranged in a second mounting groove 43, and the second mounting groove 43 is opened on the fixed seat 32, and the lower end of the first electrode contact 42 is abutted against a second electrode contact 44, and one end of a second support guide assembly 45 is fixedly arranged on the lower end surface 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.

[0043] An intelligent start-stop mechanism 4 is provided in the present invention. The setting of the intelligent start-stop mechanism 4 is used to play an intelligent start-stop role for the monitoring module 3. Specifically, when energy is introduced into the energy utilization module 1, the pressure detector 31 will move downward relative to the fixed seat 32 due to the pressure of the energy weight. The movement of the pressure detector 31 will move the first electrode contact 42 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, so that the power supply of the pressure detector 31 is turned on, and real-time monitoring of the energy in the energy utilization module 1 is started.

[0044] 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 in the second support guide cylinder 452, the second support guide spring 453 is wound around the outside of the second support guide rod 451, and 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.

[0045] In one embodiment, it also includes a metering mechanism 5, which includes a third connecting rod 51 fixed on the lower end surface of the pressure detector 31, a spiral rod 52 is fixedly sleeved outside the third connecting rod 51, and the spiral rod 52 is threadedly inserted in the inner spiral tube 53, and a rotating shaft 54 ​​is fixedly sleeved outside the inner spiral tube 53, and the rotating shaft 54 ​​is fixedly inserted on the fixed seat 32, a first fixed ring 55 is fixedly sleeved outside the inner spiral tube 53, and a second fixed ring 56 is movably sleeved outside the first fixed ring 55, one end of a fourth connecting rod 58 is fixedly set on the outer side wall of the second fixed ring 56, and the other end of the fourth connecting rod 58 is fixedly connected to the lower end surface of the fixed seat 32, a fifth connecting rod 510 is fixedly set on the lower end surface of the first fixed ring 55, a fourth electrode contact 59 is fixedly set on the upper end surface of the fifth connecting rod 510, and a third electrode contact 57 matching the fourth electrode contact 59 is set on the lower end surface of the second fixed ring 56.

[0046] The present invention provides 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 will move upward. The movement of the pressure detector 31 will cause the spiral rod 52 to move upward through the third connecting rod 51. The upward movement of the spiral rod 52 will cause the inner spiral tube 53 to rotate. The rotation of the inner spiral tube 53 will cause the fourth electrode contact 59 to rotate through the first fixing ring 55 and the fifth connecting rod 510. The rotation of the fourth electrode contact 59 will contact different third electrode contacts 57. Each contact can be counted once, thereby realizing accurate monitoring of the amount of energy in the energy utilization module 1.

[0047] In one implementation, the number of the third electrode contact pieces 57 is N, and the N third electrode contact pieces 57 are arranged in an equidistant ring along the vertical center line of the second fixing ring 56, wherein N is a positive integer greater than or equal to 3.

[0048] In one embodiment, it also includes a vibration mechanism 6, which includes a third mounting groove 61 opened on the second fixing ring 56, and the third electrode contact 57 is movably arranged in the third mounting groove 61. The top wall of the third mounting groove 61 is fixedly connected to one end of a third support guide assembly 64, and the other end of the third support guide assembly 64 is connected to the third electrode contact 57.

[0049] 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 arranged in the third support guide cylinder 642, the third support guide spring 643 is wound outside the third support guide rod 641, and 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.

[0050] In one embodiment, the vibration mechanism 6 also includes a first magnet block 62 disposed between the third electrode contact piece 57 and the third support guide assembly 64 and used to connect the third electrode contact piece 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 and used to connect 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 magnetic properties on the side where they are close to each other.

[0051] The present invention is provided with a vibration mechanism 6. The vibration mechanism 6 can make the third electrode contact piece 57 move into the third mounting groove 61 when the fourth electrode contact piece 59 contacts the third electrode contact piece 57, thereby preventing the device from being stuck. At the same time, when the third electrode contact piece 57 passes over the fourth electrode contact piece 59, vibration is generated, so that the monitoring effect of the device can be monitored from multiple angles such as vibration and sound through the vibration effect, thereby making the monitoring result more accurate through multiple angles. In addition, the present invention is also provided with a combination structure of a first magnet block 62 and a second magnet block 63. The combination structure can ensure that the third electrode contact piece 57 always extends out of the second fixing ring 56, ensuring that the third electrode contact piece 57 can always contact the fourth electrode contact piece 59.

[0052] The beneficial effects of the present invention are as follows:

[0053] The present invention improves the existing zero-carbon smart park comprehensive energy system structure. The improved zero-carbon smart park comprehensive energy system can coordinate the comprehensive energy planning of the park, and monitor the use of multiple energy sources or multiple energy distribution points in real time, so that energy can be reasonably allocated and utilized to the maximum extent, thereby improving the energy supply security and regulation capabilities of the park.

[0054] The zero-carbon smart park integrated energy system of the present invention can monitor the temperature and humidity inside the energy station while monitoring the primary energy and secondary energy used in the park, and monitor the factors that cause energy instability inside the energy station. This eliminates the need for energy monitoring inside the energy station, which is usually done through manual patrol monitoring, thereby achieving the effect of saving time, labor and working efficiently.

[0055] The monitoring module 3 in the present invention includes a pressure detector 31, through which the energy weight in the energy utilization module 1 can be monitored in real time; and the structural design of the monitoring module 3 is reasonable, and also includes a fixed seat 32 and a first support guide component 33 arranged under the pressure detector 31. In this way, the monitoring module 3 can not only monitor the energy in the energy utilization module 1 in real time, but also can avoid affecting the equipment through the buffering effect, thereby protecting the equipment.

[0056] An intelligent start-stop mechanism 4 is provided in the present invention. The setting of the intelligent start-stop mechanism 4 is used to play an intelligent start-stop role for the monitoring module 3. Specifically, when energy is introduced into the energy utilization module 1, the pressure detector 31 will move downward relative to the fixed seat 32 due to the pressure of the energy weight. The movement of the pressure detector 31 will move the first electrode contact 42 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, so that the power supply of the pressure detector 31 is turned on, and real-time monitoring of the energy in the energy utilization module 1 is started.

[0057] The present invention provides 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 will move upward. The movement of the pressure detector 31 will cause the spiral rod 52 to move upward through the third connecting rod 51. The upward movement of the spiral rod 52 will cause the inner spiral tube 53 to rotate. The rotation of the inner spiral tube 53 will cause the fourth electrode contact 59 to rotate through the first fixing ring 55 and the fifth connecting rod 510. The rotation of the fourth electrode contact 59 will contact different third electrode contacts 57. Each contact can be counted once, thereby realizing accurate monitoring of the amount of energy in the energy utilization module 1.

[0058] The present invention is provided with a vibration mechanism 6. The vibration mechanism 6 can make the third electrode contact piece 57 move into the third mounting groove 61 when the fourth electrode contact piece 59 contacts the third electrode contact piece 57, thereby preventing the device from being stuck. At the same time, when the third electrode contact piece 57 passes over the fourth electrode contact piece 59, vibration is generated, so that the monitoring effect of the device can be monitored from multiple angles such as vibration and sound through the vibration effect, thereby making the monitoring result more accurate through multiple angles. In addition, the present invention is also provided with a combination structure of a first magnet block 62 and a second magnet block 63. The combination structure can ensure that the third electrode contact piece 57 always extends out of the second fixing ring 56, ensuring that the third electrode contact piece 57 can always contact the fourth electrode contact piece 59.

[0059] Although the embodiments of the present invention are described in detail above, it is obvious 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 are within the scope and spirit of the present invention as described in the claims. Moreover, the present invention described herein may have other embodiments and may be implemented or realized in a variety of ways.

Claims

1. 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 monitoring module; the energy supply module includes a primary energy system and / or a secondary energy system that meets the energy consumption requirements 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 arranged in the energy distribution module, and is used to monitor in real time whether the energy in the primary energy system and / or the secondary energy system in the energy distribution module is used; The lower end surface of the energy utilization module (1) is provided with a plurality of first connecting rods (2) arranged in a matrix, the first connecting rods (2) being fixedly arranged on the monitoring module (3), wherein the monitoring module (3) comprises a pressure detector (31) and a fixing seat (32) arranged below the pressure detector (31), and a first supporting guide assembly (33) arranged between the pressure detector (31) and the fixing seat (32) and used for connecting the pressure detector (31) and the fixing seat (32); and further comprises a metering mechanism (5), the metering mechanism (5) comprising a third connecting rod (51) fixed on the lower end surface of the pressure detector (31), the third connecting rod (51) being provided with a spiral rod (52) on the outer fixing sleeve, the spiral rod (52) being threadedly inserted into an inner spiral tube (53), the inner spiral tube (53) being provided with a rotating shaft (54) on the outer fixing sleeve, the rotating shaft (54) being fixedly inserted into the fixing seat (53), and the rotating shaft (54) being fixedly inserted into the fixing seat (53). On the seat (32), a first fixing ring (55) is provided on the outer fixed sleeve of the inner spiral tube (53), a second fixing ring (56) is provided on the outer movable sleeve of the first fixing ring (55), one end of a fourth connecting rod (58) is fixedly provided 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 surface of the fixing seat (32), a fifth connecting rod (510) is fixedly provided on the lower end surface of the first fixing ring (55), a fourth electrode contact sheet (59) is fixedly provided on the upper end surface of the fifth connecting rod (510), and a third electrode contact sheet (57) matching the fourth electrode contact sheet (59) is provided on the lower end surface of the second fixing ring (56); the number of the third electrode contact sheets (57) is N, and the N third electrode contact sheets (57) are arranged in a ring shape at equal distances along the vertical center line of the second fixing ring (56), wherein N is a positive integer greater than or equal to 3.

2. The zero-carbon smart park integrated energy system according to claim 1 is characterized in that: 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 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 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 arranged on the bottom wall of the first mounting groove (334); and the first mounting groove (334) is provided on the fixing seat (32).

3. The zero-carbon smart park integrated energy system according to claim 2 is characterized in that: The device also comprises an intelligent start-stop mechanism (4), the intelligent start-stop mechanism (4) comprising a second connecting rod (41) connected to the lower end surface of the pressure detector (31), the lower end of the second connecting rod (41) being fixedly connected to a first electrode contact piece (42), the first electrode contact piece (42) being movably arranged in a second mounting groove (43), the second mounting groove (43) being arranged on a fixing seat (32), the lower end of the first electrode contact piece (42) being abutted against a second electrode contact piece (44), one end of a second support guide assembly (45) being fixedly arranged on the lower end surface of the second electrode contact piece (44), the other end of the second support guide assembly (45) being fixedly connected to the bottom wall of the second mounting groove (43).

4. The zero-carbon smart park integrated energy system according to claim 3 is characterized in that: 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 around the outside of the second support guide rod (451); and 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).

5. The zero-carbon smart park integrated energy system according to claim 4 is characterized in that: The device also comprises a vibration mechanism (6), the vibration mechanism (6) comprising a third mounting groove (61) provided on the second fixing ring (56), the third electrode contact piece (57) being movably arranged in the third mounting groove (61), the top wall of the third mounting groove (61) being fixedly connected to one end of a third support guide assembly (64), and the other end of the third support guide assembly (64) being connected to the third electrode contact piece (57).

6. The zero-carbon smart park integrated energy system according to claim 5 is characterized in that: The third support guide assembly (64) comprises 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 arranged in the third support guide cylinder (642); the third support guide spring (643) is wound around the outside of the third support guide rod (641); and 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).

7. The zero-carbon smart park integrated energy system according to claim 6 is characterized in that: The vibration mechanism (6) further comprises a first magnet block (62) disposed between the third electrode contact piece (57) and the third support guide assembly (64) and used for connecting the third electrode contact piece (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) and used 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 magnetic properties on the side where they are close to each other.

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