Fractured rock mass seepage heat transfer device and system

Abstract

The invention relates to the technical field of fractured rock mass seepage heat transfer, in particular to a fractured rock mass seepage heat transfer device and system.The device comprises a temperature control installation shell, a power mechanism is installed in the temperature control installation shell, a front pressing plate piece is arranged on the power mechanism, and a water injection extrusion mechanism is arranged on the front pressing plate piece; a linkage mechanism is arranged on the front pressing plate piece, and two second sealing plate pieces and two first sealing plate pieces are arranged on the linkage mechanism; the system comprises a pressurization system, a liquid supply system, an abutting sealing system and a permeation collection system. Compared with the prior art, the rock mass can be effectively and comprehensively resisted and sealed, the leakage condition is avoided, meanwhile, the pressure borne by seepage liquid can be effectively controlled, and the temperature of the surrounding environment of the rock mass can be controlled, so that the seepage heat transfer condition of the rock mass can be measured under the conditions of different pressures and temperatures.

Description

Technical Field

[0001] The present invention relates to the technical field of seepage heat transfer in fractured rock masses, and particularly to a seepage heat transfer device and system for fractured rock masses. Background Art

[0002] Due to the extremely complex in-situ environmental conditions of engineering rock masses, it is very difficult to reveal the hydrothermal migration law of fractured rock masses at the engineering scale. Therefore, indoor experimental research on the hydrothermal migration of fractured rock masses plays an irreplaceable role in revealing the seepage and heat transfer laws of rock mass fractures, mastering the hydrothermal migration mechanism of fractured rock masses under the action of fluid-solid coupling, and understanding the influencing factors of seepage heat transfer in fractured rock masses under high temperature and high pressure. On this basis, scholars at home and abroad have developed a large number of experimental devices for hydrothermal migration of fractured rock masses. In order to restore the hydrothermal migration situation in deep rock mass fractures, high-pressure, high-temperature, and high-water-pressure experimental conditions need to be provided during the experiment. Most of the existing experimental devices are realized by transforming the pressure chamber of a triaxial testing machine, and the rock samples used are mostly cylindrical. In this case, in order to provide uniform and constant temperature and axial pressure to the samples, the rock samples need to be in a completely enclosed state throughout the experiment. The existing experimental devices have the following problems: poor water sealing performance, and there is generally a water leakage problem during the experiment, resulting in inaccurate measurement of the inlet and outlet water temperature and flow rate, which affects the experimental accuracy.

[0003] A seepage heat transfer device and system for fractured rock masses with the publication number CN114184533A includes a support mechanism, a first water sealing mechanism, a second water sealing mechanism, a water inlet mechanism, a water outlet mechanism, and a heating mechanism. The first water sealing mechanism includes a top plate and a movable plate oppositely arranged along a first direction and a first driving component for driving the movable plate to move along the first direction. The second water sealing mechanism includes two pressing plates oppositely arranged along a second direction and a second driving component for driving the two pressing plates to move towards or away from each other. The water inlet mechanism includes a first sealing baffle, a water inlet groove provided on the first sealing baffle, and a water inlet pipe communicated with the water inlet groove; the water outlet mechanism includes a second sealing baffle, a water outlet groove provided on the first sealing baffle, and a water outlet pipe communicated with the water outlet groove. This experimental device improves the water sealing effect, effectively avoids the problem of water leakage during the experiment, thereby obtaining accurate inlet and outlet water temperature and flow rate data, and improving the experimental accuracy.

[0004] In the above technical solution, the fractured rock sample cannot be clamped and sealed quickly, and at the same time, the pressure cannot be controlled as needed, which is not convenient for studying the seepage heat transfer of fractured rock masses in different situations, so improvement is needed. Summary of the Invention

[0005] The purpose of the present invention is to solve the disadvantages existing in the prior art, and to propose a seepage heat transfer device and system for fractured rock masses.

[0006] In order to achieve the above object, the present invention adopts the following technical solutions:

[0007] A fractured rock mass seepage heat transfer device, comprising a temperature control installation shell, a power mechanism installed in the temperature control installation shell, a front pressure plate provided on the power mechanism, a water injection extrusion mechanism provided on the front pressure plate, a linkage mechanism provided on the front pressure plate, and two second sealing plates and two first sealing plates provided on the linkage mechanism;

[0008] The two first sealing plates are located between the two second sealing plates, and the second sealing plates are in conflict with the same end of the two first sealing plates;

[0009] The linkage mechanism is provided with two synchronous rods, a reverse mechanism is provided between the two synchronous rods, and a swing mechanism is provided on one of the synchronous rods;

[0010] The swing mechanism is provided with a rear pressure plate, which is located in the temperature control installation shell. The rear pressure plate and one end side wall of the temperature control installation shell are hingedly arranged. The rear pressure plate and the front pressure plate are fixed with sealing gaskets on opposite sides, and the sealing gaskets are in conflict with the first sealing plate and the second sealing plate.

[0011] Compared with the prior art, the present application can effectively seal the rock mass comprehensively to avoid leakage, and can effectively control the pressure of the seepage liquid and the temperature of the surrounding environment of the rock mass, so as to measure the seepage heat transfer of the rock mass under different pressures and temperatures.

[0012] Preferably, the power mechanism comprises a second hydraulic cylinder assembly fixed on a side wall at one end of the temperature control mounting housing, and a piston rod end of the second hydraulic cylinder assembly is fixed on one side of the front pressure plate.

[0013] Furthermore, the front pressure plate can be moved by the action of the second hydraulic cylinder assembly, so that it can easily come into contact with one end of the rock mass to effectively seal, allowing the seepage liquid to quickly contact the gap on the rock mass. At the same time, it also cooperates with the supporting structure to provide power for the operation of other corresponding components.

[0014] Preferably, the water injection extrusion mechanism includes a connecting pipe fitting that is penetrated through the front pressure plate, one end of the connecting pipe fitting that is penetrated through the front pressure plate is arranged between two first sealing plates and two second sealing plates, an extrusion mechanism is provided on the side of the connecting pipe fitting away from the front pressure plate, an electrically controlled temperature measuring infusion tube is penetrated through the upper end of the connecting pipe fitting, and a telescopic water supply pipe fitting is installed on the end of the electrically controlled temperature measuring infusion tube away from the connecting pipe fitting.

[0015] Furthermore, the amount of seepage liquid added can be controlled, and the temperature of the seepage liquid can be detected to facilitate the operation of the supporting components, effectively control the temperature of the environment where the rock mass is located, and perform seepage measurement operations under constant temperature conditions.

[0016] Preferably, the extrusion mechanism includes a first hydraulic cylinder assembly installed at one end of the connecting pipe fitting away from the front pressing plate member. The piston rod of the first hydraulic cylinder assembly penetrates through the connecting pipe fitting and extends into the connecting pipe fitting. A sealing extrusion member is fixed at the end of the piston rod of the first hydraulic cylinder assembly, and the sealing extrusion member abuts against the inner wall of the connecting pipe fitting.

[0017] Furthermore, the action of the first hydraulic cylinder assembly can make the sealing extrusion member move in the connecting pipe fitting to apply pressure to the seepage liquid in the connecting pipe fitting, which helps the seepage liquid to perform seepage operations under different pressure conditions.

[0018] Preferably, the linkage mechanism includes four linkage rods fixed on the circumferential side wall of the front pressing plate member. Four second openings are provided through the temperature control installation housing, and the four linkage rods respectively penetrate through the four second openings and extend to the outside of the temperature control installation housing;

[0019] A push rod member is fixed at one end of the linkage rod located outside the temperature control installation housing. A synchronization mechanism is provided on the push rod member, and two inclined push rod members are provided on the synchronization mechanism. One synchronization mechanism is fixedly connected to the other synchronization rod member;

[0020] First openings are provided on the four sides of the temperature control installation housing. The two inclined push rod members on the same side respectively penetrate through the two first openings on this side. The two inclined push rod members on the same side are a group, and the four inclined push rod members are respectively rotatably connected to two first sealing plate members and two second sealing plate members.

[0021] Furthermore, through the action of the synchronization mechanism, the synchronous operation of multiple sliding members can be realized, the inclined push rod members can be deflected, the second sealing plate member and the first sealing plate member can be controlled to move towards the rock mass, the clamping of the rock mass can be realized, and a sealing gasket structure is provided on the first sealing plate member and the second sealing plate member, and the sealing effect is good.

[0022] Preferably, the synchronization mechanism includes a support rod provided on one side of the push rod member. Sliding members are fixed at both ends of the support rod, and one of the sliding members is fixedly connected to the push rod member;

[0023] The other synchronization rod member is fixedly connected to the other push rod member.

[0024] Furthermore, through the action of the support rod, the first sealing plate member and the second sealing plate member can effectively clamp the rock mass.

[0025] Preferably, the reverse mechanism includes a gear member rotatably connected to the temperature control installation housing. Both sides of the gear member are engaged with straight racks, and the two straight racks are respectively fixedly connected to the two synchronizing rods.

[0026] Furthermore, to effectively achieve linkage operation, it helps to make the front pressing plate member and the rear pressing plate member respectively contact both ends of the sealed rock mass.

[0027] Preferably, the swing mechanism includes a third opening formed in the temperature control installation housing. A rotating shaft member penetrates through the third opening. One of the synchronizing rods of the rotating shaft member is rotatably sleeved. A chute is formed at the upper end of the rear pressing plate member, and the lower end of the rotating shaft member extends into the chute.

[0028] Furthermore, by driving the rotating shaft member to move in the third opening through one of the synchronizing rods, and at the same time the rotating shaft member also moves in the chute, the rear pressing plate member can be deflected, which is convenient for leaking the rock mass or sealing the rear end of the rock mass.

[0029] Preferably, a collecting groove is formed on one side of the rear pressing plate member close to the first sealing plate member and the second sealing plate member. The bottom of the collecting groove is inclined, and a discharge collecting pipe penetrates through the bottom of the collecting groove.

[0030] Furthermore, when the bottom of the collecting groove is inclined, the seeped liquid can be discharged through the discharge collecting pipe, effectively collecting the seeped liquid, which helps to detect the volume and temperature of the liquid.

[0031] The present invention also proposes a fractured rock mass seepage heat transfer system applicable to the above-mentioned fractured rock mass seepage heat transfer device:

[0032] Pressurizing system: used to pressurize the test liquid so as to conduct the fractured rock mass seepage heat transfer test under different pressure conditions and understand the seepage situation under different pressures;

[0033] Liquid supply system: used to accurately supply the test liquid and accurately measure the temperature of the liquid to control the test environment temperature and ensure the accuracy of the test;

[0034] Contact sealing system: used to fully seal the test rock mass to avoid random seepage, fully ensuring that the liquid will flow in a directional manner to improve the accuracy of the test;

[0035] Penetration collection system: used to collect all the penetrated liquid to accurately understand the fractured rock mass seepage heat transfer situation.

[0036] The beneficial effects of the present invention are:

[0037] 1. The action of the second hydraulic cylinder assembly can move the front pressing plate, facilitating contact with one end of the rock mass to achieve effective sealing, enabling the seepage liquid to quickly contact the gaps on the rock mass. At the same time, it also cooperates with the supporting structure to provide power for the operation of other corresponding components.

[0038] 2. The electro-controlled temperature-measuring infusion pipe can control the amount of seepage liquid added and detect the temperature of the seepage liquid, facilitating the operation of the supporting components, effectively controlling the temperature of the environment where the rock mass is located, and enabling seepage measurement operations under constant temperature conditions.

[0039] 3. The action of the first hydraulic cylinder assembly can move the sealing extrusion part within the connecting pipe fitting, so as to apply pressure to the seepage liquid in the connecting pipe fitting, which helps the seepage liquid to carry out seepage operations under different pressure conditions.

[0040] 4. Through the action of the support rod, the first sealing plate and the second sealing plate can effectively clamp the rock mass; realizing the synchronous operation of multiple sliding parts can deflect the inclined push rod part, control the second sealing plate and the first sealing plate to move towards the rock mass, and achieve clamping of the rock mass. And sealing gasket structures are provided on the first sealing plate and the second sealing plate, with good sealing effect. Description of the Drawings

[0041] Figure 1 It is a cross-sectional view of a heat transfer device for fractured rock mass proposed by the present invention;

[0042] Figure 2 It is a position structure diagram of the front pressing plate and the connecting pipe fitting in a heat transfer device for fractured rock mass proposed by the present invention;

[0043] Figure 3 It is a position structure diagram of the second sealing plate and the first sealing plate in a heat transfer device for fractured rock mass proposed by the present invention;

[0044] Figure 4 It is a structure diagram of the rear pressing plate in a heat transfer device for fractured rock mass proposed by the present invention;

[0045] Figure 5 It is a position structure diagram of the gear part and the straight rack in a heat transfer device for fractured rock mass proposed by the present invention;

[0046] In the figure: 1 temperature control installation housing, 2 front pressing plate member, 3 connecting pipe fitting, 4 first hydraulic cylinder assembly, 5 sealing extrusion member, 6 electric control temperature measurement infusion pipe, 7 telescopic water supply pipe fitting, 8 second hydraulic cylinder assembly, 9 linkage rod, 10 push rod member, 11 sliding member, 12 support rod, 13 inclined push rod member, 14 first opening, 15 second opening, 16 third opening, 17 discharge and collection pipe, 18 first sealing plate member, 19 second sealing plate member, 20 rotating shaft member, 21 chute, 22 rear pressing plate member, 23 sealing gasket member, 24 collection groove, 25 synchronous rod member, 26 straight rack, 27 gear member. Detailed implementation manner

[0047] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments.

[0048] Refer to Figures 1-5 , a crack rock mass seepage heat transfer device, including a temperature control installation housing 1, which can effectively control the temperature situation in the temperature control installation housing 1, so that the components in the temperature control installation housing 1 are all at this temperature, and can realize the rock mass seepage detection operation under different temperature conditions; a power mechanism is installed in the temperature control installation housing 1, and a front pressing plate member 2 is provided on the power mechanism. The power mechanism includes a second hydraulic cylinder assembly 8 fixed on one end side wall in the temperature control installation housing 1, and the end of the piston rod of the second hydraulic cylinder assembly 8 is fixed on one side of the front pressing plate member 2; through the action of the second hydraulic cylinder assembly 8, the front pressing plate member 2 can be moved, which is convenient for contacting one end of the rock mass to effectively seal, so that the seepage liquid can quickly contact the cracks on the rock mass. At the same time, it also cooperates with the supporting structure to provide power for the operation of other corresponding components.

[0049] Refer to Figures 1-5 , a water injection and extrusion mechanism is provided on the front pressing plate member 2. The water injection and extrusion mechanism includes a connecting pipe fitting 3 penetrating through the front pressing plate member 2. One end of the connecting pipe fitting 3 penetrating through the front pressing plate member 2 is arranged between two first sealing plate members 18 and two second sealing plate members 19. An extrusion mechanism is provided on the side of the connecting pipe fitting 3 away from the front pressing plate member 2. An electric control temperature measurement infusion pipe 6 is penetrated through the upper end of the connecting pipe fitting 3, and a telescopic water supply pipe fitting 7 is installed at the end of the electric control temperature measurement infusion pipe 6 away from the connecting pipe fitting 3; through the electric control temperature measurement infusion pipe 6, the amount of seepage liquid added can be controlled, and the temperature of the seepage liquid can be detected, so as to support the operation of the components, effectively control the temperature of the environment where the rock mass is located, and perform the seepage measurement operation under constant temperature conditions.

[0050] Refer to Figures 1-5, a linkage mechanism is provided on the front pressing plate member 2, and two second sealing plate members 19 and two first sealing plate members 18 are provided on the linkage mechanism; the linkage mechanism includes four linkage rods 9 fixed on the circumferential side wall of the front pressing plate member 2 for one week, four second openings 15 are penetrated through the temperature control installation housing 1, and the four linkage rods 9 respectively penetrate through the four second openings 15 and extend to the outside of the temperature control installation housing 1; a push rod member 10 is fixed at one end of the linkage rod 9 located outside the temperature control installation housing 1, a synchronization mechanism is provided on the push rod member 10, and two inclined push rod members 13 are provided on the synchronization mechanism, and one of the synchronization mechanisms is fixedly connected to another synchronization rod member 25; first openings 14 are formed on four sides of the temperature control installation housing 1, the two inclined push rod members 13 located on the same side respectively penetrate through the two first openings 14 on this side, the two inclined push rod members 13 located on the same side are taken as a group, and the four inclined push rod members 13 are respectively rotatably connected to the two first sealing plate members 18 and the two second sealing plate members 19; through the action of the synchronization mechanism, the synchronous operation of multiple sliding members 11 can be realized, the inclined push rod members 13 can be deflected, the second sealing plate members 19 and the first sealing plate members 18 can be controlled to move towards the rock mass, the clamping of the rock mass can be realized, and a sealing pad structure is provided on the first sealing plate members 18 and the second sealing plate members 19, and the sealing effect is good.

[0051] Refer to Figures 1-5 , the extrusion mechanism includes a first hydraulic cylinder assembly 4 installed at one end of the connecting pipe fitting 3 away from the front pressing plate member 2, the piston rod of the first hydraulic cylinder assembly 4 penetrates through the connecting pipe fitting 3 and extends into the connecting pipe fitting 3, and a sealing extrusion member 5 is fixed at the end of the piston rod of the first hydraulic cylinder assembly 4, and the sealing extrusion member 5 abuts against the inner wall of the connecting pipe fitting 3; through the action of the first hydraulic cylinder assembly 4, the sealing extrusion member 5 can be made to move in the connecting pipe fitting 3, so as to apply pressure to the seepage liquid in the connecting pipe fitting 3, which helps the seepage liquid to perform seepage operations under different pressure conditions.

[0052] Refer to Figures 1-5 , the synchronization mechanism includes a support rod 12 arranged on one side of the push rod member 10, sliding members 11 are fixed at both ends of the support rod 12, and one of the sliding members 11 is fixedly connected to the push rod member 10; another synchronization rod member 25 is fixedly connected to another push rod member 10; through the action of the support rod 12, the first sealing plate member 18 and the second sealing plate member 19 can effectively clamp the rock mass.

[0053] Refer to Figures 1-5 , the two first sealing plate members 18 are located between the two second sealing plate members 19, and the same ends of the second sealing plate members 19 and the two first sealing plate members 18 abut against each other; sealing heat-resistant pad components are arranged on both the first sealing plate members 18 and the second sealing plate members 19, and can be fully sealed to avoid leakage.

[0054] Refer to Figures 1-5, There are two synchronous rods 25 on the linkage mechanism, and a reverse mechanism is jointly arranged between the two synchronous rods 25. A swing mechanism is arranged on one of the synchronous rods 25; A rear pressing plate 22 is arranged on the swing mechanism. The rear pressing plate 22 is located inside the temperature control installation housing 1. One end side wall inside the rear pressing plate 22 and the temperature control installation housing 1 is hinged. Sealing gasket pieces 23 are fixed on the opposite sides of the rear pressing plate 22 and the front pressing plate 2. The sealing gasket pieces 23 are in contact with the first sealing plate 18 and the second sealing plate 19 to ensure the sealing effect.

[0055] Refer to Figures 1-5 , The reverse mechanism includes a gear part 27 rotatably connected to the temperature control installation housing 1. Straight racks 26 are meshed on both sides of the gear part 27. The two straight racks 26 are respectively fixedly connected to the two synchronous rods 25; To effectively achieve linkage operation, which helps the front pressing plate 2 and the rear pressing plate 22 to respectively contact both ends of the sealed rock mass.

[0056] Refer to Figures 1-5 , The swing mechanism includes a third opening 16 opened on the temperature control installation housing 1. A rotating shaft part 20 penetrates through the third opening 16. One of the synchronous rods 25 of the rotating shaft part 20 is rotatably sleeved. A sliding groove 21 is opened at the upper end of the rear pressing plate 22. The lower end of the rotating shaft part 20 extends into the sliding groove 21; Driving the rotating shaft part 20 to move in the third opening 16 through one of the synchronous rods 25, and at the same time the rotating shaft part 20 will also move in the sliding groove 21, which can make the rear pressing plate 22 deflect, facilitating the leakage of the rock mass or sealing the rear end of the rock mass.

[0057] Refer to Figures 1-5 , A collection groove 24 is opened on one side of the rear pressing plate 22 close to the first sealing plate 18 and the second sealing plate 19. The bottom inside the collection groove 24 is inclined. A discharge collection pipe 17 penetrates through the bottom inside the collection groove 24; When the bottom inside the collection groove 24 is inclined, the seeped liquid can be discharged through the discharge collection pipe 17, effectively collecting the seeped liquid, which helps to detect the volume and temperature of the liquid.

[0058] The present invention also proposes a fractured rock mass seepage heat transfer system applicable to the above-mentioned fractured rock mass seepage heat transfer device:

[0059] Pressurization system: Used to pressurize the test liquid so as to conduct fractured rock mass seepage heat transfer tests under different pressure conditions, and can understand the seepage situation under different pressures;

[0060] Liquid supply system: Used to accurately supply the test liquid and can accurately measure the temperature of the liquid to control the test environment temperature, thereby ensuring the accuracy of the test;

[0061] Contamination sealing system: used to fully seal the rock mass for testing, avoid random penetration, and fully ensure the directional flow of liquid to improve the accuracy of testing;

[0062] Penetration collection system: used to collect all the penetrated liquid to accurately understand the heat transfer situation of rock mass seepage.

[0063] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. A fractured rock mass seepage heat transfer device, comprising a temperature control installation housing (1), characterized in that: A power mechanism is installed in the temperature control installation shell (1), the power mechanism is provided with a front pressure plate (2), the front pressure plate (2) is provided with a water injection and extrusion mechanism, the front pressure plate (2) is provided with a linkage mechanism, and the linkage mechanism is provided with two second sealing plates (19) and two first sealing plates (18); The two first sealing plates (18) are located between the two second sealing plates (19), and the second sealing plates (19) and the same end of the two first sealing plates (18) are in abutment with each other; The linkage mechanism is provided with two synchronous rods (25), a reverse mechanism is provided between the two synchronous rods (25), and a swing mechanism is provided on one of the synchronous rods (25); The swing mechanism is provided with a rear pressure plate (22), and the rear pressure plate (22) is located in the temperature control installation shell (1). The rear pressure plate (22) and a side wall of the temperature control installation shell (1) are hingedly arranged. The rear pressure plate (22) and the front pressure plate (2) are fixed with sealing gaskets (23) on opposite sides, and the sealing gaskets (23) are in conflict with the first sealing plate (18) and the second sealing plate (19).

2. A fractured rock mass seepage heat transfer device according to claim 1, characterized in that: The power mechanism comprises a second hydraulic cylinder assembly (8) fixed on a side wall at one end of the temperature control installation housing (1), and the piston rod end of the second hydraulic cylinder assembly (8) is fixed on one side of the front pressure plate (2).

3. A fractured rock mass seepage heat transfer device according to claim 1, characterized in that: The water injection squeezing mechanism comprises a connecting pipe (3) penetrating the front pressure plate (2); one end of the connecting pipe (3) penetrating the front pressure plate (2) is arranged between two first sealing plates (18) and two second sealing plates (19); a squeezing mechanism is provided on the side of the connecting pipe (3) away from the front pressure plate (2); an electrically controlled temperature measuring infusion tube (6) is penetrated at the upper end of the connecting pipe (3); and a telescopic water supply pipe (7) is installed at the end of the electrically controlled temperature measuring infusion tube (6) away from the connecting pipe (3).

4. A fractured rock mass seepage heat transfer device according to claim 3, characterized in that: The extrusion mechanism comprises a first hydraulic cylinder assembly (4) installed at one end of the connecting pipe (3) away from the front pressure plate (2), the piston rod of the first hydraulic cylinder assembly (4) passes through the connecting pipe (3) and extends into the connecting pipe (3), and a sealing extrusion member (5) is fixed to the end of the piston rod of the first hydraulic cylinder assembly (4), and the sealing extrusion member (5) is in contact with the inner wall of the connecting pipe (3).

5. The fractured rock mass seepage heat transfer device according to claim 1, characterized in that: The linkage mechanism comprises four linkage rods (9) fixed on a peripheral side wall of the front pressure plate (2); four second openings (15) are provided through the temperature control installation shell (1); the four linkage rods (9) respectively pass through the four second openings (15) and extend to the outside of the temperature control installation shell (1); A push rod (10) is fixed to one end of the linkage rod (9) located outside the temperature control installation housing (1), and a synchronization mechanism is provided on the push rod (10), and two inclined push rods (13) are provided on the synchronization mechanism, wherein one synchronization mechanism is fixedly connected to the other synchronization rod (25); The temperature control installation shell (1) is provided with first openings (14) on all four sides, and two inclined push rods (13) located on the same side respectively penetrate the two first openings (14) on the side, and the two inclined push rods (13) located on the same side form a group, and the four inclined push rods (13) are rotatably connected to the two first sealing plates (18) and the two second sealing plates (19), respectively.

6. A fractured rock mass seepage heat transfer device according to claim 5, characterized in that: The synchronization mechanism comprises a support rod (12) arranged on one side of the push rod (10), and sliding members (11) are fixed to both ends of the support rod (12), and one of the sliding members (11) is fixedly connected to the push rod (10); Another synchronous rod member (25) is fixedly connected to another push rod member (10).

7. The fractured rock mass seepage heat transfer device according to claim 1, characterized in that: The reverse mechanism comprises a gear member (27) rotatably connected to the temperature control mounting housing (1), and spur racks (26) are meshed on both sides of the gear member (27), and the two spur racks (26) are respectively fixedly connected to two synchronization rod members (25).

8. The fractured rock mass seepage heat transfer device according to claim 1, characterized in that: The swing mechanism comprises a third opening (16) formed on the temperature control mounting housing (1), a rotating shaft (20) passing through the third opening (16), one of the synchronous rods (25) of the rotating shaft (20) being rotatably sleeved, a slide groove (21) being formed at the upper end of the rear pressure plate (22), and the lower end of the rotating shaft (20) extending into the slide groove (21).

9. The fractured rock mass seepage heat transfer device according to claim 1, characterized in that: A collecting groove (24) is provided on one side of the rear pressure plate (22) close to the first sealing plate (18) and the second sealing plate (19), the bottom of the collecting groove (24) is inclined, and a discharge collecting pipe (17) is provided through the bottom of the collecting groove (24).

10. A fractured rock mass seepage heat transfer system, characterized in that: A fractured rock mass seepage heat transfer device applicable to any one of claims 1 to 9 above: Pressurization system: used to pressurize the test liquid so as to carry out the fractured rock mass seepage heat transfer test under different pressure conditions and understand the seepage conditions under different pressures; Liquid supply system: used to accurately supply test liquid and accurately measure the temperature of the liquid in order to control the test environment temperature to ensure the accuracy of the test; Resistance sealing system: used to fully seal the test rock mass to avoid random penetration and fully ensure that the liquid will flow in a directional manner to improve the accuracy of the test; Infiltration collection system: used to collect all the infiltrated liquids in order to accurately understand the seepage heat transfer conditions of the rock mass.

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