Energy integrated supply system for taking in ground source heat by using superconductive heat rod

Abstract

The invention provides an energy integrated supply system for taking in ground source heat by using a superconducting heat rod, which comprises a plurality of accommodating cavities arranged underground, the plurality of accommodating cavities are arranged underground up and down, heat conduction liquid is arranged in the accommodating cavities, and the two accommodating cavities are connected through the superconducting heat rod; a hot water tank and a cold water tank are arranged on the ground, and the hot water tank is communicated with the mixing tank through a discharge pipe a; and the cold water tank is communicated with the mixing tank through a discharge pipe b. Ground source heat is absorbed through the heat conduction liquid in the containing cavity, the heat is transmitted into the heat conduction liquid in the upper layer of containing cavity through the superconductive heat rod, the heat is conducted upwards layer by layer till the heat is transmitted into hot water of the hot water tank, the hot water is introduced into the mixing tank through the discharge pipe a, and cold water is introduced into the mixing tank through the discharge pipe b to be mixed; and the mixed hot water is conveyed to the floor heating pipe for heating through the discharge pipe, and the circulation is carried out, so that floor heating is carried out through terrestrial heat, resources are saved, and the energy utilization efficiency is improved.

Description

Technical Field

[0001] The present invention relates to the field of geothermal technology, and in particular to an energy integration supply system for absorbing geothermal heat by using superconducting heat rods. Background Art

[0002] Geothermal resources refer to renewable thermal energy stored in the earth's interior. They are generally concentrated along the edges of tectonic plates and originate from the earth's molten magma and the decay of radioactive substances. Geothermal resources are a very valuable comprehensive mineral resource with multiple functions and a wide range of uses. They are a clean energy resource.

[0003] In the north, due to the cold weather in winter, a heating system is needed to maintain daily life. The system currently on the market uses ground source heat for heating. Its principle is: by burying the water pump deep underground, the underground hot water is pumped to the ground for heating or heat exchange. However, the above technical solution has the following shortcomings:

[0004] 1. Because the underground temperature is high, high temperature will accelerate the aging and damage of the water pump, and the water pump is buried deep underground and is inconvenient to repair and replace, which affects the operation of the heating system;

[0005] 2. When the water pump is located deep underground, the power of the water pump is difficult to pump up hot water from deep underground, affecting the operation of the heating system;

[0006] In order to solve the above problems, we proposed an energy integration supply system that uses superconducting heat rods to absorb geothermal heat. Summary of the invention

[0007] The purpose of the present invention is to address the shortcomings of the prior art and provide an energy integration supply system that utilizes superconducting heat rods to absorb geothermal heat. The geothermal heat is absorbed by the heat-conducting fluid in the accommodating cavity, and the heat is transferred to the heat-conducting fluid in the accommodating cavity of the upper layer through the superconducting heat rod. The heat is conducted upward layer by layer until the heat is transferred to the hot water in the hot water tank. The hot water is passed into the mixing tank through the discharge pipe a, and the cold water is passed into the mixing tank through the discharge pipe b for mixing; the mixed hot water is transmitted to the floor heating pipe through the discharge pipe for heating, and the cycle is repeated, using geothermal energy for floor heating, saving resources and improving energy utilization efficiency.

[0008] To achieve the above object, the present invention provides the following technical solutions:

[0009] An energy integrated supply system for absorbing ground source heat by using a superconducting heat rod comprises a plurality of accommodating chambers arranged underground, the plurality of accommodating chambers being arranged up and down underground, a heat transfer fluid being arranged in the accommodating chambers, and two accommodating chambers being connected by a superconducting heat rod; a hot water tank being arranged on the ground, and further comprising: a mixing tank, the hot water tank and the mixing tank being connected by a discharge pipe a; the cold water tank and the mixing tank being connected by a discharge pipe b;

[0010] The mixing tank is provided with a discharge pipe and a discharge inlet pipe, and the discharge pipe and the discharge inlet pipe are connected with the floor heating pipe; a stirring mechanism is provided in the mixing tank, and a filtering mechanism is provided on the discharge pipe and the discharge inlet pipe.

[0011] The filtering mechanism includes: a fixed frame, which is arranged on the ground; a track frame, which is installed on the fixed frame; a sliding frame, which is slidably arranged on the track frame, and four groups of square grooves are opened in the sliding frame; a square frame, which is rotatably arranged in the square grooves; a filter screen, which is arranged in the square frame; a clamping assembly, which is arranged on the track frame; and a flip assembly, which is arranged on the fixed frame.

[0012] The clamping assembly includes: a receiving groove b, which is opened on the sliding frame; a clamping block, which is arranged in the receiving groove b; a connecting frame, which is arranged on the clamping block; a screw rod, which is installed on the two connecting frames and has a slot b opened in the screw rod; a rotating rod b, which is rotatably arranged on the fixed frame; and a clamping block, which is installed on the rotating rod b.

[0013] The flip assembly includes: a connecting rod, which is installed on the square frame; a gear b, which is installed on the connecting rod; a connecting plate, which is installed on the fixed frame; a rotating shaft b, three of the rotating shafts b are rotatably arranged on the connecting plate; a gear e, which is installed on the rotating shaft b; a sprocket, which is installed on the rotating shaft b; a chain, which is sleeved on the outside of the three sprockets, a plurality of mounting grooves are provided in the sliding frame, an elastic connecting piece is provided in the mounting groove, a positioning hole is provided in the connecting rod, and a positioning ball inserted into the positioning hole is provided at the free end of the elastic connecting piece.

[0014] A cleaning assembly is provided on the fixed frame, and the cleaning assembly includes: an L-shaped frame, which is arranged on the fixed frame; a linear driving member a, which is installed on the L-shaped frame; a moving plate a, which is installed at the output end of the linear driving member a; a conical rod a, and a plurality of conical rods a are installed below the moving plate a; a linear driving member b, which is installed on the L-shaped frame; a moving plate b, which is installed at the output end of the linear driving member b; a conical rod b, and a plurality of conical rods b are installed below the moving plate b, and the conical rods a and the conical rods b are arranged at intervals.

[0015] The stirring mechanism includes: a fixed frame, which is installed on the mixing tank; a motion driving member, which is installed on the fixed frame; a motion rod, which is installed on the output end of the motion driving member; a motion disk, which is installed on the motion rod; a rotating rod, a plurality of rotating rods are rotatably arranged in the motion disk; an arc plate, which is slidably arranged on the rotating rod; a driving assembly, which is arranged in the motion disk; and an erasing assembly, which is arranged on the arc plate.

[0016] The driving assembly includes: a gear a, which is mounted on the rotating rod; a gear ring a, which is rotatably arranged in the moving disk; a compression chamber is opened in the arc plate; a limit plate, which is mounted on the rotating rod and is arranged in the compression chamber; a mounting sleeve a, which is sleeved on the outside of the rotating rod, and a flow groove is opened in the rotating rod, and the flow groove is connected to the compression chamber.

[0017] The erasing assembly includes: a receiving groove a, which is provided in the arc plate; a slide groove, which is provided in the arc plate; an erasing belt, which is slidably arranged in the slide groove, and a plurality of slots a are provided in the erasing belt; a rotating shaft, which is rotatably arranged in the receiving groove a; a gear c, two gears c are mounted on the rotating shaft, and the gear c is meshed with the slot a; a worm wheel, which is mounted on the rotating shaft; a rotating rod a, which is rotatably arranged in the arc plate; a worm, which is mounted on the rotating rod a, and the worm and the worm wheel are meshed.

[0018] A rotating shaft a is rotatably provided in the rotating rod, a gear d is mounted on the rotating shaft a, a gear ring b is rotatably provided in the moving disk, the gear d and the gear ring b are meshed; a groove is provided in the rotating rod a, a convex block is mounted on the rotating shaft a, and the convex block slides in the groove.

[0019] A mounting sleeve b is arranged outside the movement rod, a ventilation groove is opened inside the movement rod, a pipe b is arranged on the mounting sleeve b, and the ventilation groove is communicated with the mounting sleeve a through the pipe a.

[0020] The beneficial effects of the present invention are:

[0021] (1) The present invention absorbs geothermal heat through the heat-conducting fluid in the receiving cavity, and transfers the heat to the heat-conducting fluid in the upper receiving cavity through the superconducting rod. The heat is conducted upward layer by layer until it is transferred to the hot water in the hot water tank. The discharge pipe a passes the hot water into the mixing tank, and the discharge pipe b passes the cold water into the mixing tank for mixing. The mixed hot water is transferred to the floor heating pipe through the discharge pipe for heating, and then flows back to the mixing tank through the discharge pipe. The cycle is repeated, and the geothermal heat is used for floor heating, which saves resources and improves energy efficiency.

[0022] (2) The present invention introduces high-pressure gas into the pipeline b, and the high-pressure gas enters the compression chamber through the ventilation groove, pipeline a, and rotating rod, driving the arc plate to slide outward along the rotating rod until the erasing belt contacts the inner wall of the mixing tank, driving the gear ring b to rotate, driving the gear d to rotate, driving the rotating shaft a, rotating rod a, and worm to rotate, driving the worm wheel and gear c to rotate, driving the erasing belt to slide in the slide groove, and then erasing the inner wall of the mixing tank to avoid scale formation on the inner wall of the mixing tank over time.

[0023] (3) The present invention drives the rotating rod b to rotate through the rotating driving member a, and drives the screw to rotate through the clamping block. According to the principle of screw transmission, the clamping block of the cleaning station is driven to move to both sides along the receiving groove b, and the clamping block leaves the square frame. The motor drives the gear e to rotate through the chain, driving the gear b and the connecting rod to rotate, driving the square frame and the filter screen to flip 180 degrees. Under the action of gravity, the impurities filtered above the filter screen fall into the collection box on the fixed frame;

[0024] (4) The present invention drives the conical rod a to move downward through the linear driving member a, penetrates into the filter holes on half of the filter screen, removes impurities stuck in the filter holes, and cleans the filter holes on half of the filter screen; the linear driving member b drives the conical rod b to move downward, penetrates into the filter holes on the other half of the filter screen, and cleans the filter holes on the other half of the filter screen; the conical rod a and the conical rod b are driven to move downward synchronously, and the conical rod a and the conical rod b penetrate into the filter holes on the filter screen at the same time, and the filter holes on the filter screen are corrected to prevent the filter holes from being deformed after being stuck with impurities. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0026] Figure 2 It is a schematic diagram of the structure of the stirring mechanism and the filtering mechanism of the present invention;

[0027] Figure 3 This is a schematic diagram of the structure of the first part of the stirring mechanism of the present invention;

[0028] Figure 4 This is a schematic diagram of the structure of the second part of the stirring mechanism of the present invention;

[0029] Figure 5This is a schematic diagram of the arc plate and the rotating rod structure of the present invention;

[0030] Figure 6 It is a cross-sectional schematic diagram of the arc plate and the rotating rod of the present invention;

[0031] Figure 7 This is a schematic diagram of the structure of the rotating rod and the rotating axis a of the present invention;

[0032] Figure 8 It is a cross-sectional schematic diagram of the arc plate of the present invention;

[0033] Fig. 9 It is a schematic diagram of the structure of the sports rod of the present invention;

[0034] Fig.10 It is a schematic diagram of the structure of the filtering mechanism of the present invention;

[0035] Fig.11 This is a schematic diagram of the explosion structure of the filtering mechanism of the present invention;

[0036] Fig.12 For the present invention Fig.10 The enlarged schematic diagram at A in the middle;

[0037] Fig.13 It is a schematic diagram of the sliding frame structure of the present invention;

[0038] Fig.14 It is a schematic diagram of the structure of the clamping assembly of the present invention;

[0039] Fig.15 This is a schematic diagram of the structure of the rotating rod b and the clamping block of the present invention;

[0040] Fig.16 This is a schematic diagram of the structure of the clamping block and the connecting frame of the present invention;

[0041] Fig.17 This is a schematic diagram of the elastic connector and positioning ball structure of the present invention;

[0042] Fig.18 This is a schematic diagram of the cleaning component structure of the present invention;

[0043] Fig.19 It is a schematic diagram of the protective cover structure of the present invention.

[0044] The accompanying drawings of the present application are numeraled as follows: 100, accommodating chamber; 101, heat transfer liquid; 102, superconducting heat rod; 103, hot water tank; 104, cold water tank; 105, mixing tank; 106, discharge pipe a; 107, discharge pipe b; 108, discharge pipe; 109, discharge pipe; 110, protective cover; 2, stirring mechanism; 201, fixed frame; 202, motion drive member; 203, motion rod; 2031, ventilation groove; 204, motion disk; 205, rotating rod; 206, curved plate ; 2061, receiving groove a; 2062, slide groove; 2063, compression chamber; 21, driving assembly; 211, gear a; 212, gear ring a; 213, limit plate; 214, mounting sleeve a; 215, mounting sleeve b; 216, pipe b; 217, pipe a; 22, erasing assembly; 221, erasing belt; 2211, card slot a; 222, rotating shaft; 223, gear c; 224, worm gear; 225, rotating rod a; 2251, groove; 226, worm; 2 27, rotating shaft a; 2271, convex block; 228, gear d; 229, gear ring b; 3, filtering mechanism; 301, fixed frame; 302, track frame; 303, sliding frame; 3031, square groove; 3032, receiving groove b; 3033, mounting groove; 304, square frame; 305, filter screen; 31, clamping assembly; 310, rotating drive member a; 311, clamping block; 312, connecting frame; 313, screw rod; 3131, slot b; 314, rotating rod b; 315, Block; 32, flip assembly; 321, connecting rod; 3211, positioning hole; 322, gear b; 323, connecting plate; 324, rotating shaft b; 325, gear e; 326, sprocket; 327, chain; 328, elastic connector; 329, positioning ball; 33, cleaning assembly; 331, L-shaped frame; 332, linear drive member a; 333, moving plate a; 334, tapered rod a; 335, linear drive member b; 336, moving plate b; 337, tapered rod b. DETAILED DESCRIPTION

[0045] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not 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.

[0046] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as limiting the present invention.

[0047] In addition, the terms "first" and "second" are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first" and "second" may explicitly or implicitly include one or more of the features. In the description of the present invention, the meaning of "plurality" is two or more, unless otherwise clearly and specifically defined.

[0048] Embodiment 1: Figure 1-Figure 19 As shown, the present embodiment provides an energy integration supply system for absorbing geothermal heat by using superconducting heat rods, including a plurality of accommodating chambers 100 arranged underground, the plurality of accommodating chambers 100 are arranged up and down underground, a heat transfer fluid 101 is arranged in the accommodating chamber 100, and two accommodating chambers 100 are connected by a superconducting heat rod 102; a hot water tank 103 and a cold water tank 104 are arranged on the ground, and also include: a mixing tank 105, the hot water tank 103 and the mixing tank 105 are connected through a discharge pipe a106; the cold water tank 104 and the mixing tank 105 are connected through a discharge pipe b107; a discharge pipe 108 and a discharge pipe 109 are arranged on the mixing tank 105, and the discharge pipe 108 and the discharge pipe 109 are connected to the floor heating pipe; a stirring mechanism 2 is arranged in the mixing tank 105, and a filtering mechanism 3 is arranged on the discharge pipe 108 and the discharge pipe 109, the heat transfer fluid 101 is a liquid, which can be water or grease used to transfer heat, and the cold water tank 104 can be not arranged.

[0049] In this embodiment, the heat-conducting liquid 101 in the accommodating cavity 100 absorbs geothermal heat, and the heat is transferred to the heat-conducting liquid 101 in the upper accommodating cavity 100 through the superconducting rod 102. The heat is conducted upward layer by layer until the heat is transferred to the hot water in the hot water tank 103. The discharge pipe a106 passes the hot water into the mixing tank 105, and the discharge pipe b107 passes the cold water into the mixing tank 105 for mixing; the mixed hot water is transferred to the floor heating pipe through the discharge pipe 108 for heating, and then flows back to the mixing tank 105 through the discharge pipe 109, and the cycle is repeated, thereby utilizing geothermal energy for floor heating, saving resources, and improving energy utilization efficiency; the superconducting rod 102 is not easy to age and damage underground, and has a long service life compared to the water pump.

[0050] like Figure 2-Figure 9 As shown, the stirring mechanism 2 includes: a fixed frame 201, which is installed on the mixing tank 105; a motion driving member 202, which is installed on the fixed frame 201; a motion rod 203, which is installed on the output end of the motion driving member 202; a motion disk 204, which is installed on the motion rod 203; a rotating rod 205, wherein a plurality of rotating rods 205 are rotatably arranged in the motion disk 204; an arc plate 206, which is slidably arranged on the rotating rod 205; a driving component 21, which is arranged in the motion disk 204; an erasing component 22, which is arranged on the arc plate 206. It should be noted that the motion driving member 202 can drive the motion disk 204 to rotate, and can also drive the motion disk 204 to rotate. The motion driving member 202 is preferably a combination of a motor and a cylinder, which will not be described in detail herein.

[0051] like Figure 2-Figure 9 As shown, the driving assembly 21 includes: a gear a211, which is mounted on the rotating rod 205; a gear ring a212, which is rotatably arranged in the moving disk 204; a compression chamber 2063 is provided in the arc plate 206; a limit plate 213, which is mounted on the rotating rod 205 and is arranged in the compression chamber 2063; a mounting sleeve a214, which is sleeved on the outer side of the rotating rod 205, and a flow groove is provided in the rotating rod 205, and the flow groove is connected to the compression chamber 2063; a mounting sleeve b215 is provided on the outer side of the moving rod 203, and a ventilation groove 2031 is provided in the moving rod 203, and a pipe b216 is provided on the mounting sleeve b215, and the ventilation groove 2031 is connected to the mounting sleeve a214 through a pipe a217

[0052] In this embodiment, the gear ring a212 is driven to rotate by a motor, driving the gear a211, the rotating rod 205, and the arc plate 206 to rotate, stirring the hot water and cold water in the mixing tank 105, adjusting the hot water to a suitable temperature, and avoiding the temperature being too high or too low; the gear ring a212 and the gear ring b229 are driven to rotate by the motor.

[0053] like Figure 2-Figure 9As shown, the erasing component 22 includes: a receiving groove a2061, which is provided in the arc plate 206; a slide groove 2062, which is provided in the arc plate 206; an erasing belt 221, which is slidably arranged in the slide groove 2062, and a plurality of slots a2211 are provided in the erasing belt 221; a rotating shaft 222, which is rotatably arranged in the receiving groove a2061; a gear c223, which has two gears c223 mounted on the rotating shaft 222, and which are meshed with the slots a2211; a worm wheel 224, which is mounted on the rotating shaft 222; a rotating rod a225, which is rotatably arranged in the arc plate 206; and a worm 226, which is mounted on the rotating rod a225, and which is meshed with the worm wheel 224.

[0054] A rotating shaft a227 is rotatably provided inside the rotating rod 205, a gear d228 is installed on the rotating shaft a227, a gear ring b229 is rotatably provided inside the moving disk 204, and the gear d228 and the gear ring b229 are meshed; a groove 2251 is provided inside the rotating rod a225, a protrusion 2271 is installed on the rotating shaft a227, and the protrusion 2271 slides in the groove 2251, that is to say: the rotation of the rotating shaft a227 can drive the rotating rod a225 to rotate, but the rotating shaft a227 and the rotating rod a225 can slide between each other, the rotating rod 205 and the arc plate 206 also adopt a similar structure, the rotation of the rotating rod 205 drives the arc plate 206 to rotate, and the rotating rod 205 and the arc plate 206 can slide between each other.

[0055] In this embodiment, high-pressure gas is introduced into the pipe b216, and the high-pressure gas is introduced into the compression chamber 2063 through the ventilation groove 2031, the pipe a217, and the rotating rod 205, driving the arc plate 206 to slide outward along the rotating rod 205 until the erasing belt 221 contacts the inner wall of the mixing tank 105, and the gear ring b229 is driven by the motor to rotate, driving the gear d228 to rotate, driving the rotating shaft a227, the rotating rod a225, and the worm 226 to rotate, driving the worm wheel 224 and the gear c223 to rotate, and driving the erasing belt 221 to slide in the slide groove 2062, thereby erasing the inner wall of the mixing tank 105 to avoid scale on the inner wall of the mixing tank 105 over time;

[0056] It should be noted that: a vent hole (not shown in the figure) is opened on the limit plate 213, the vent hole and the flow groove are connected to the compression chamber 2063, and high pressure and negative pressure are introduced into the pipeline b216 to realize the sliding movement of the arc plate 206 along the axial direction of the rotating rod 205.

[0057] Embodiment 2: Figure 1-Figure 19As shown, the components identical or corresponding to those in the first embodiment are marked with the corresponding reference numerals in the first embodiment. For the sake of simplicity, only the differences from the first embodiment are described below. The second embodiment differs from the first embodiment in that:

[0058] like Figure 10-Figure 18 As shown, in this embodiment, the filtering mechanism 3 includes: a fixed frame 301, the fixed frame 301 is arranged on the ground; a track frame 302, the track frame 302 is installed on the fixed frame 301; a sliding frame 303, the sliding frame 303 is slidably arranged on the track frame 302, and four sets of square grooves 3031 are opened in the sliding frame 303; a square frame 304, the square frame 304 is rotatably arranged in the square groove 3031; a filter 305, the filter 305 is arranged in the square frame 304; a clamping assembly 31, the clamping assembly 31 is arranged on the track frame 302; a flip assembly 32, the flip assembly 32 is arranged on the fixed frame 301, and a protective cover 110 is provided on the discharge pipe 108 and the discharge pipe 109. In the initial state, as shown in FIG. Fig.19 As shown, the protective cover 110 is covered above the box 304, and the filter screen 305 filters the water flow in the discharge pipe 108 and the discharge pipe 109. At this time, the two boxes 304 are located at the filtering station.

[0059] It should be noted that: two boxes 304 and two filters 305 are located in the protective cover 110 for filtering (located in the filtering station), and the other two boxes 304 and two filters 305 are used for cleaning (located in the cleaning station); the sliding frame 303 is driven by the cylinder to move on the track frame 302 to realize the switching of the boxes 304 and the filters 305 for filtering and cleaning;

[0060] like Figure 10-Figure 18 As shown, the clamping assembly 31 includes: accommodating grooves b3032, four groups of accommodating grooves b3032 are opened on the sliding frame 303; a clamping block 311, the clamping block 311 is arranged in the accommodating grooves b3032; a connecting frame 312, the connecting frame 312 is arranged on the clamping block 311; a screw rod 313, the screw rod 313 is installed on two connecting frames 312, and a slot b3131 is opened in the screw rod 313; a rotating rod b314, the rotating rod b314 is rotatably arranged on the fixed frame 301; a clamping block 315, the clamping block 315 is installed on the rotating rod b314, and the threads on both sides of the screw rod 313 are arranged in opposite directions.

[0061] like Figure 10-Figure 18As shown, the flip assembly 32 includes: a connecting rod 321, the connecting rod 321 is installed on the frame 304; a gear b322, the gear b322 is installed on the connecting rod 321; a connecting plate 323, the connecting plate 323 is installed on the fixing frame 301; a rotating shaft b324, three rotating shafts b324 are rotatably arranged on the connecting plate 323; a gear e325, the gear e325 is installed on the rotating shaft b324; a sprocket 326, the sprocket 326 is installed on the rotating shaft b324; a chain 32 7. The chain 327 is sleeved on the outside of the three sprocket wheels 326. The chain 327 and the sprocket wheels 326 are meshed. A plurality of mounting grooves 3033 are provided in the sliding frame 303. An elastic connector 328 is provided in the mounting groove 3033. A positioning hole 3211 is provided in the connecting rod 321. A positioning ball 329 inserted into the positioning hole 3211 is provided at the free end of the elastic connector 328. The positioning holes 3211 are divided into two groups and are symmetrically arranged. The positioning ball 329 inserted into the positioning hole 3211 can prevent the connecting rod 321 from rotating.

[0062] The rotating driving member a310 drives the rotating rod b314 to rotate, and drives the screw rod 313 to rotate through the clamping block 315. According to the principle of thread transmission, the clamping block 311 of the cleaning station is driven to move to both sides along the accommodating groove b3032, and the clamping block 311 leaves the square frame 304 (leaving enough space for the subsequent flipping of the square frame 304). The motor drives the gear e325 to rotate through the chain 327, driving the gear b322 and the connecting rod 321 to rotate, driving the square frame 304 and the filter screen 305 to flip 180 degrees. Under the action of gravity, the impurities filtered on the filter screen 305 fall into the collection box on the fixed frame 301; the clamping block 311 of the clamping assembly 31 clamps the square frame 304 to achieve a sealing effect, so as to prevent water from flowing out from the gap between the clamping block 311 and the square frame 304;

[0063] It should be noted that: there are three cleaning stations and two filtering stations, a block 315 is provided on the rotating rod b314 at the cleaning station, and a cleaning assembly 33 is provided at the cleaning station; the cleaning station is provided with a rotating shaft b324 and a gear e325;

[0064] like Figure 10-Figure 18 As shown, a cleaning assembly 33 is provided on the fixed frame 301, and the cleaning assembly 33 includes: an L-shaped frame 331, which is provided on the fixed frame 301; a linear driving member a332, which is installed on the L-shaped frame 331; a moving plate a333, which is installed on the output end of the linear driving member a332; a conical rod a334, which is installed below the moving plate a333; a linear driving member b335, which is installed on the L-shaped frame 331; a moving plate b336, which is installed on the output end of the linear driving member b335; a conical rod b337, which is installed below the moving plate b336, and the conical rods a334 and b337 are arranged at intervals.

[0065] The linear drive member a332 drives the conical rod a334 to move downward, penetrates into the filter holes of the upper half of the filter screen 305, removes impurities stuck in the filter holes, and cleans the filter holes of the upper half of the filter screen 305; the linear drive member b335 drives the conical rod b337 to move downward, penetrates into the filter holes of the other half of the filter screen 305, and cleans the filter holes of the other half of the filter screen 305;

[0066] The conical rod a334 and the conical rod b337 are driven to move downward synchronously, and the conical rod a334 and the conical rod b337 simultaneously penetrate into the filter holes on the filter screen 305 to correct the filter holes on the filter screen 305 to prevent the filter holes from being deformed after being stuck with impurities.

[0067] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An energy integrated supply system for absorbing ground source heat using superconducting heat rods, characterized in that: The invention comprises a plurality of accommodating chambers (100) arranged underground, the plurality of accommodating chambers (100) being arranged in an up-and-down manner underground, a heat-conducting liquid (101) being arranged in the accommodating chambers (100), two accommodating chambers (100) being connected via a superheat-conducting rod (102), a hot water tank (103) being arranged on the ground, and further comprising: The mixing tank (105), the hot water tank (103) and the mixing tank (105) are connected via a discharge pipe a (106); the cold water tank (104) and the mixing tank (105) are connected via a discharge pipe b (107); The mixing tank (105) is provided with a discharge pipe (108) and a discharge pipe (109), and the discharge pipe (108) and the discharge pipe (109) are connected to the floor heating pipe; The mixing tank (105) is provided with a stirring mechanism (2), and the discharge pipe (108) and the discharge pipe (109) are provided with a filtering mechanism (3).

2. According to claim 1, an energy integrated supply system for absorbing ground source heat using a superconducting heat rod is characterized in that: The filtering mechanism (3) comprises: A fixing frame (301), wherein the fixing frame (301) is arranged on the ground; A track frame (302), the track frame (302) being mounted on the fixing frame (301); A sliding frame (303), the sliding frame (303) is slidably disposed on the track frame (302), and four sets of square grooves (3031) are opened in the sliding frame (303); A square frame (304), the square frame (304) is rotatably disposed in the square groove (3031); A filter screen (305), wherein the filter screen (305) is disposed in the frame (304); A clamping assembly (31), wherein the clamping assembly (31) is arranged on the track frame (302); A turning assembly (32), wherein the turning assembly (32) is arranged on the fixing frame (301).

3. The energy integrated supply system for absorbing ground source heat using superconducting heat rods according to claim 2 is characterized in that: The clamping assembly (31) comprises: Accommodating grooves b (3032), four groups of the accommodating grooves b (3032) are provided on the sliding frame (303); A clamping block (311), the clamping block (311) being arranged in the receiving groove b (3032); A connecting frame (312), wherein the connecting frame (312) is mounted on the clamping block (311); A screw rod (313), the screw rod (313) being mounted on the two connecting frames (312), a slot b (3131) being provided in the screw rod (313), and the threads on both sides of the screw rod (313) being arranged in opposite directions; A rotating rod b (314), the rotating rod b (314) being rotatably mounted on the fixing frame (301); A clamping block (315), wherein the clamping block (315) is mounted on the rotating rod b (314).

4. The energy integrated supply system for absorbing ground source heat using superconducting heat rods according to claim 3 is characterized in that: The flip assembly (32) comprises: A connecting rod (321), wherein the connecting rod (321) is mounted on the frame (304); A gear b (322), wherein the gear b (322) is mounted on the connecting rod (321); A connecting plate (323), wherein the connecting plate (323) is installed on one side of the fixing frame (301); Rotation shafts b (324), three of the rotation shafts b (324) are rotatably disposed on the connection plate (323); A gear e (325), wherein the gear e (325) is mounted on the rotating shaft b (324); a sprocket (326), the sprocket (326) being mounted on the rotating shaft b (324); A chain (327), wherein the chain (327) is sleeved on the outside of the three sprockets (326), and the chain (327) and the sprockets (326) are meshed; The sliding frame (303) is provided with a plurality of mounting grooves (3033), the mounting grooves (3033) are provided with elastic connecting pieces (328), the connecting rod (321) is provided with a positioning hole (3211), and the free end of the elastic connecting piece (328) is provided with a positioning ball (329) inserted into the positioning hole (3211).

5. The energy integrated supply system for absorbing ground source heat by using superconducting heat rods according to claim 4 is characterized in that: The fixing frame (301) is provided with a cleaning assembly (33), and the cleaning assembly (33) comprises: An L-shaped frame (331), wherein the L-shaped frame (331) is arranged on the fixing frame (301); A linear drive member a (332), wherein the linear drive member a (332) is mounted on the L-shaped frame (331); A moving plate a (333), wherein the moving plate a (333) is mounted on an output end of the linear drive member a (332); Cone rods a (334), a plurality of the cone rods a (334) are installed below the sport plate a (333); A linear drive member b (335), wherein the linear drive member b (335) is mounted on the L-shaped frame (331); A moving plate b (336), the moving plate b (336) being mounted on an output end of the linear drive member b (335); Conical rod b (337), a plurality of the conical rods b (337) are installed below the moving plate b (336), and the conical rod a (334) and the conical rod b (337) are arranged at intervals.

6. The energy integrated supply system for absorbing geothermal heat by using superconducting heat rods according to claim 5 is characterized in that: The stirring mechanism (2) comprises: A connecting frame (201), wherein the connecting frame (201) is installed on the mixing tank (105); A motion driving member (202), wherein the motion driving member (202) is mounted on the fixing frame (201); A motion rod (203), the motion rod (203) being mounted on an output end of the motion driving member (202); A moving plate (204), the moving plate (204) being mounted on the moving rod (203); Rotating rods (205), a plurality of rotating rods (205) are rotatably disposed in the moving disk (204); An arc-shaped plate (206), wherein the arc-shaped plate (206) is slidably disposed on the rotating rod (205); A driving assembly (21), wherein the driving assembly (21) is disposed in the moving disk (204); An erasing component (22), wherein the erasing component (22) is arranged on the arc-shaped plate (206).

7. The energy integrated supply system for absorbing ground source heat using superconducting heat rods according to claim 6 is characterized in that: The driving assembly (21) comprises: Gear a (211), the gear a (211) is mounted on the rotating rod (205); a gear ring a (212), the gear ring a (212) being rotatably disposed in the moving disk (204); a compression chamber (2063) being provided in the arc-shaped plate (206); a limit plate (213), the limit plate (213) being mounted on the rotating rod (205), and the limit plate (213) being disposed in the compression chamber (2063); The mounting sleeve a (214) is sleeved on the outside of the rotating rod (205), and a flow groove is opened in the rotating rod (205), and the flow groove is connected to the compression chamber (2063).

8. The energy integrated supply system for absorbing ground source heat by using superconducting heat rods according to claim 7 is characterized in that: The erasing component (22) comprises: An accommodating groove a (2061), wherein the accommodating groove a (2061) is provided in the arc-shaped plate (206); A slide groove (2062), wherein the slide groove (2062) is provided in the arc-shaped plate (206); An erasing belt (221), the erasing belt (221) being slidably disposed in the slide groove (2062), and a plurality of card slots a (2211) being provided in the erasing belt (221); A rotating shaft (222), the rotating shaft (222) being rotatably disposed in the containing groove a (2061); Gear c (223), two gears c (223) are mounted on the rotating shaft (222), and the gears c (223) are meshed with the slot a (2211); A worm gear (224), the worm gear (224) being mounted on the rotating shaft (222); A rotating rod a (225), the rotating rod a (225) being rotatably disposed in the arc-shaped plate (206); A worm (226), wherein the worm (226) is mounted on the rotating rod a (225), and the worm (226) and the worm wheel (224) are meshed.

9. The energy integrated supply system for absorbing geothermal heat using superconducting heat rods according to claim 8 is characterized in that: A rotating shaft a (227) is rotatably provided in the rotating rod (205), a gear d (228) is mounted on the rotating shaft a (227), a gear ring b (229) is rotatably provided in the moving disk (204), and the gear d (228) and the gear ring b (229) are meshed; A groove (2251) is provided in the rotating rod a (225), and a convex block (2271) is installed on the rotating shaft a (227), and the convex block (2271) slides in the groove (2251).

10. The energy integrated supply system for absorbing ground source heat by using superconducting heat rods according to claim 9, characterized in that: A mounting sleeve b (215) is provided on the outside of the movement rod (203), a ventilation groove (2031) is provided inside the movement rod (203), a pipe b (216) is provided on the mounting sleeve b (215), and the ventilation groove (2031) is connected to the mounting sleeve a (214) through a pipe a (217).

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