AI enhanced green building design optimization system and method

Abstract

The invention provides an AI enhanced green building design optimization system and method, and relates to the technical field of green building design. According to the AI enhanced green building design optimization system and method, a first motor drives a flat driving wheel to rotate, meanwhile, a driven mechanism engaged with the flat driving wheel and a driven gear rotate together, and two second driven wheels engaged with the driven mechanism and the driven gear correspondingly are driven to rotate together, so that two grinding rollers rotate, and the grinding efficiency is improved; in the process, through the cooperative design of a flat driving wheel, a driven mechanism, a driven gear, a second driven wheel, a first connecting rod and a second connecting rod, the transmission effect between a first motor and the grinding rollers is not affected even if the distance between the two grinding rollers changes; and the operation distance between the crushing rollers can be conveniently adjusted according to materials with different sizes, the situation that large materials splash to the outside of the feeding shell during grinding is avoided, and the gravel crushing effect is improved.

Description

Technical Field

[0001] The present invention relates to a green building design, in particular to an AI enhanced green building design optimization system and method, belonging to the technical field of green building design. Background Art

[0002] Sand and gravel crusher is a machine that breaks large pieces of sand and gravel into pieces by squeezing, splitting, bending, impacting, rolling and other methods. Common crushers include jaw, cone, hammer and roller crushers.

[0003] The patent specification with the announcement number CN216538672U discloses an integrated device for crushing and screening sand and gravel for construction. The crushing device is provided with a connecting rod, a chute, a slider, a connecting plate, a driving block, a limiting rod, a rotating shaft, a second driving motor and a supporting block. The second driving motor is started, and the second driving motor drives the driving block to rotate through the rotating shaft. The driving block can make the connecting rod rise when the connecting rod is connected. The slider slides inside the chute. By making the slider slide inside the chute, the first screen plate and the second screen plate can be driven to shake. The shaking of the first screen plate and the second screen plate can not only improve the efficiency of sand and gravel screening, but also facilitate the sand and gravel after screening to be poured out of the inside of the box from the discharge port. The limiting rod can limit the driving plate, and the second screen plate and the first screen plate can classify the sand and gravel in multiple levels. In addition, it is provided with a baffle, a first guide plate, a connecting shaft, a support plate and a first driving motor. The first driving motor on the top of the support plate is started, and the first driving motor drives the baffle to rotate inside the feed port through the connecting shaft. When the baffle rotates, the sand and gravel to be crushed are placed inside the feed port. Since the baffles are distributed in a ring shape on the outside of the connecting shaft with equal mesh spacing, the sand and gravel can be evenly dropped into the crushing components by driving the baffle to rotate through the connecting shaft. By making the sand and gravel evenly drop into the crushing components, it can be prevented that too much sand and gravel enters and causes the crushing components to be blocked or damaged. The first guide plate can limit the sand and gravel to prevent it from falling into other places.

[0004] Combined with the above-mentioned patented technical solution, it can be seen that the above-mentioned integrated sand and gravel crushing and screening device for construction is not convenient for adjusting the working spacing of the grinding disc according to different types of sand and gravel. Since the sizes and shapes of different types of sand and gravel are also different, larger pieces of sand and gravel are easy to splash out of the grinding device during grinding, and the crushing effect needs to be improved. For this reason, we provide an AI-enhanced green building design optimization system and method to solve the above problems. Summary of the invention

[0005] The present invention proposes an AI enhanced green building design optimization system and method to solve the problem in the prior art that it is inconvenient to adjust the working spacing of the grinding disc according to different types of sand and gravel when the grinding device is in use.

[0006] The present invention is implemented through the following technical solutions: an AI enhanced green building design optimization system and method, including a grinding cylinder, a feed shell is fixed on the top of the grinding cylinder, support frames are fixed on both sides of the feed shell, two slide grooves are provided inside each of the support frames, two crushing rollers are arranged inside the feed shell, a first transmission rod is rotatably connected to one side of the feed shell, a first connecting rod is rotatably sleeved on the periphery of the first transmission rod, an end of the first transmission rod close to the feed shell respectively penetrates the support frame and the first connecting rod and is fixedly sleeved with a flat driving wheel, connecting shafts are fixedly sleeved on both ends of the first connecting rod, a second connecting rod is rotatably sleeved on the periphery of each connecting shaft, and each The ends of the second connecting rods away from the connecting shaft are rotatably connected to the first rotating rod, and two corresponding sets of transmission grooves are opened on the two side surfaces of the feed shell. The two ends of the two first rotating rods slide through the transmission grooves on the two side surfaces of the feed shell, and are respectively fixedly sleeved in the two crushing rollers. The outer surfaces of the two first rotating rods are fixedly sleeved with second driven wheels, and the second driven wheels are located between the outer surface of the feed shell and the second connecting rod. The periphery of one of the connecting shafts is rotatably connected to a driven mechanism, and the driven mechanism includes a connecting frame rotatably connected to one end of the connecting shaft, and the inner side wall of the connecting frame is rotatably connected to two mutually meshing steering wheels, and the two steering wheels are respectively meshed with the peripheries of the flat driving wheel and the second driven wheel.

[0007] Specifically, a first motor is fixed to one side of one of the support frames, and an output end of the first motor is fixed to an end of the first transmission rod away from the feed shell.

[0008] Specifically, the driven mechanism is engaged between the flat driving wheel and one of the second driven wheels, and the driven mechanism is slidably arranged on the outer surface of the feed shell.

[0009] Specifically, the driven mechanism includes a positioning frame fixed on one side of the feed shell, the side of the connecting frame away from the connecting shaft is in contact with the outside of the feed shell, a sliding rod is fixed to the top surface of the connecting frame, a sliding block is slidably sleeved on the periphery of the sliding rod, and the periphery of the sliding block is slidably connected to the inside of the positioning frame.

[0010] A group of support blocks are fixed on both sides of the feed shell, and a two-way threaded rod is rotatably sleeved between each group of support blocks. Two ends of each of the two-way threaded rods are provided with two sections of threads in opposite directions. Both ends of each of the two-way threaded rods are threadedly connected to a moving frame, and a moving block slidably connected to the inside of the slide groove is fixed to the bottom end of each of the moving frames. Each of the moving blocks is rotatably sleeved on the outer periphery of the corresponding first rotating rod, and the first rotating rod slides through the slide groove.

[0011] Specifically, one side of the grinding cylinder is rotatably connected to a double-headed worm, and two ends of the double-headed worm are provided with two sections of threads in the same direction. Both ends of the double-headed worm are meshed with worm wheels fixedly sleeved on the periphery of the bidirectional threaded rod. The length of the double-headed worm is greater than the distance between the two worm wheels, and one end of the double-headed worm located outside the worm wheel is fixedly sleeved with a rocker.

[0012] Specifically, a grinding mechanism for grinding crushed sand and gravel is arranged inside the grinding cylinder, and the grinding mechanism includes a second motor fixed on one side of the grinding cylinder and a grinding disk slidably connected to the bottom end of the grinding cylinder, a second transmission rod is fixed to the output end of the second motor, an end of the second transmission rod away from the second motor passes through one side of the grinding cylinder and is fixedly sleeved with a driving bevel gear, a driven bevel gear is meshed with the periphery of the driving bevel gear, a second rotating rod is fixedly sleeved inside the driven bevel gear, and the bottom end of the second rotating rod is fixedly passed through the grinding disk and is rotatably connected to the inner bottom wall of the grinding cylinder.

[0013] The use of the AI ​​enhanced green building design optimization system and method is as follows: 1. First, adjust the distance between the two crushing rollers according to the size of the sand and gravel: rotate the rocker to drive the double-headed worm to rotate, and then the double-headed worm can drive the two worm wheels and the two bidirectional threaded rods to rotate. When the two bidirectional threaded rods rotate, the two moving frames on each bidirectional threaded rod can be driven to move relative to each other or move forward and backward, so that the two first rotating rods can move relative to each other or move forward and backward, thereby adjusting the distance between the two crushing rollers; 2. After adjusting the distance between the two crushing rollers, start the first motor to drive the flat driving wheel to rotate, so as to drive the two second driven wheels to rotate through the flat driving wheel, so that the two crushing rollers rotate to crush the sand and gravel raw materials, and crush the large sand and gravel into small pieces; 3. The crushed sand and gravel slide to the bottom of the grinding cylinder, and the second motor is started to rotate the second transmission rod, the active bevel gear, the second rotating rod and the grinding disc to grind the sand and gravel to ensure the crushing effect of the sand and gravel.

[0014] The present invention provides an AI-enhanced green building design optimization system and method, which has the following beneficial effects: The AI ​​enhanced green building design optimization system and method drives the flat driving wheel to rotate through the first motor, and at the same time, the driven mechanism meshing with the flat driving wheel rotates together with the driven gear, and drives the two second driven wheels meshing with the driven mechanism and the driven gear to rotate together, so that the two crushing rollers can be rotated to crush the sand and gravel. In the above process, through the matching design between the flat driving wheel, the driven mechanism, the driven gear, the second driven wheel, the first connecting rod and the second connecting rod, even if the distance between the two crushing rollers changes, the transmission effect between the first motor and the crushing rollers is not affected, so that the operating spacing of the crushing rollers can be adjusted according to different volumes of sand and gravel, so as to avoid large pieces of sand and gravel splashing to the outside of the feed shell during grinding.

[0015] The AI ​​enhanced green building design optimization system and method, when the crushed sand and gravel enter the interior of the grinding cylinder, the second motor drives the second transmission rod to rotate inside the grinding cylinder, and the matching design between the second transmission rod, the active bevel gear, the driven bevel gear and the second rotating rod drives the grinding disc to rotate on the inner bottom wall of the grinding cylinder, so as to grind the sand and gravel crushed into small pieces again, thereby improving the sand and gravel crushing effect.

[0016] Other advantages, objectives and features of the present invention will be set forth in part in the following description and, in part, will be apparent to those skilled in the art based on an examination of the following or may be taught from the practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention; Figure 2 It is a schematic diagram of the surface structure of the feed shell in the present invention; Figure 3 It is a schematic diagram of the three-dimensional structure of the feed housing in the present invention from a second viewing angle; Figure 4 For the present invention Figure 2 Schematic diagram of the local structure in; Figure 5 It is a three-dimensional structural schematic diagram of the grinding mechanism in the present invention; Figure 6 It is a three-dimensional structural schematic diagram of the driven mechanism in the present invention.

[0018] Description of Reference Numerals 1. Grinding cylinder; 2. Feed shell; 3. Crushing roller; 4. first motor; 41. first transmission rod; 42. first connecting rod; 43. connecting shaft; 44. second connecting rod; 45. first rotating rod; 46. flat driving wheel; 47. driven mechanism; 48. second driven wheel; 471, connecting frame; 472, steering wheel; 473, sliding rod; 474, positioning frame; 475, sliding block; 5. Support frame; 6. Slideway; 71. Double-headed worm; 72. Rocker; 73. Worm wheel; 74. Bidirectional threaded rod; 75. Support block; 76. Moving frame; 77. Moving block; 8. Grinding mechanism; 81. Second motor; 82. Second transmission rod; 83. Active bevel gear; 84. Driven bevel gear; 85. Second rotating rod; 86. Grinding disc. DETAILED DESCRIPTION

[0019] Please refer to Figure 1 to Figure 6 The embodiment of the present invention provides an AI enhanced green building design optimization system and method, including a grinding cylinder 1, a feed shell 2 is fixed to the top of the grinding cylinder 1, support frames 5 are fixed to both sides of the feed shell 2, each support frame 5 has two slide grooves 6 inside, and two crushing rollers 3 are arranged inside the feed shell 2.

[0020] A first transmission rod 41 is rotatably connected to one side of the feed shell 2, and a first connecting rod 42 is rotatably sleeved on the periphery of the first transmission rod 41. One end of the first transmission rod 41 close to the feed shell 2 passes through the support frame 5 and the first connecting rod 42 respectively and is fixedly sleeved with a flat driving wheel 46. Both ends of the first connecting rod 42 are fixedly sleeved with connecting shafts 43, and a second connecting rod 44 is rotatably sleeved on the periphery of each connecting shaft 43. An end of each second connecting rod 44 away from the connecting shaft 43 is rotatably connected to a first rotating rod 45. Two corresponding sets of transmission grooves are opened on the two side surfaces of the feed shell 2. The two ends of the two first rotating rods 45 slide through the transmission grooves on the two side surfaces of the feed shell 2 respectively, and are fixedly sleeved on the inside of the two crushing rollers 3 respectively. The outer surfaces of the two first rotating rods 45 are fixedly sleeved with second driven wheels 48, and the second driven wheels 48 are located between the outer surface of the feed shell 2 and the second connecting rod 44. A driven mechanism 47 is rotatably connected to the periphery of one of the connecting shafts 43.

[0021] The driven mechanism 47 includes a connecting frame 471 rotatably connected to one end of the connecting shaft 43 , and the inner side wall of the connecting frame 471 is rotatably connected to two mutually meshing steering wheels 472 , and the two steering wheels 472 are respectively meshed with the peripheries of the flat driving wheel 46 and the second driven wheel 48 .

[0022] Please refer to Figure 1 and Figure 2 A first motor 4 is fixed to one side of one of the support frames 5 , and an output end of the first motor 4 is fixed to an end of a first transmission rod 41 away from the feed housing 2 .

[0023] The driven mechanism 47 is meshed between the flat driving wheel 46 and one of the second driven wheels 48 , and the driven mechanism 47 is slidably disposed on the outer surface of the feed housing 2 .

[0024] In the above scheme, when sand and gravel enter the interior of the feed shell 2, the flat driving wheel 46 is driven to rotate by the first motor 4. At the same time, the driven mechanism 47 meshing with the flat driving wheel 46 rotates together with the driven gear 49, and drives the two second driven wheels 48 meshing with the driven mechanism 47 and the driven gear 49 to rotate together, so that the two crushing rollers 3 can crush the sand and gravel, and crush the large pieces of sand and gravel into small pieces before subsequent grinding operations. In the above process, through the matching design between the flat driving wheel 46, the driven mechanism 47, the second driven wheel 48, the first connecting rod 42 and the second connecting rod 44, even if the distance between the two crushing rollers 3 changes, it will not affect the transmission effect between the first motor 4 and the crushing roller 3, so that the working spacing of the crushing rollers 3 can be adjusted according to the different volumes of sand and gravel.

[0025] Please refer to Figure 2 and Figure 6 The driven mechanism 47 includes a positioning frame 474 fixed on one side of the feed shell 2, a side of the connecting frame 471 away from the connecting shaft 43 is in contact with the outside of the feed shell 2, a sliding rod 473 is fixed to the top surface of the connecting frame 471, and a sliding block 475 is slidably sleeved on the periphery of the sliding rod 473, and the periphery of the sliding block 475 is slidably connected to the inside of the positioning frame 474.

[0026] In the above scheme, through the matching design between the driven gear 49 and the flat driving wheel 46, one of the second driven wheels 48 rotates in the same direction as the flat driving wheel 46, and through the transmission between the two steering wheels 472 inside the driven mechanism 47, the other second driven wheel 48 can rotate in the opposite direction to the flat driving wheel 46, so that while adjusting the distance between the two crushing rollers 3, it does not affect the two crushing rollers 3 from rotating inwards to crush the sand and gravel.

[0027] Please refer to Figure 1 , Figure 3 and Figure 4 A group of support blocks 75 are fixed on both sides of the feed shell 2, and a two-way threaded rod 74 is rotatably sleeved between each group of support blocks 75. Two ends of each two-way threaded rod 74 are provided with two sections of threads in opposite directions. Both ends of each two-way threaded rod 74 are threadedly connected to a moving frame 76, and the bottom end of each moving frame 76 is fixed with a moving block 77 slidably connected to the inside of the slide groove 6. Each moving block 77 is rotatably sleeved on the outer periphery of the corresponding first rotating rod 45, and the first rotating rod 45 slides through the slide groove 6.

[0028] Please refer to Figure 1 and Figure 3A double-headed worm 71 is rotatably connected to one side of the grinding cylinder 1. Two ends of the double-headed worm 71 are provided with two sections of threads in the same direction. Both ends of the double-headed worm 71 are meshed with worm wheels 73 fixedly sleeved on the periphery of the bidirectional threaded rod 74. The length of the double-headed worm 71 is greater than the distance between the two worm wheels 73, and one end of the double-headed worm 71 located outside the worm wheel 73 is fixedly sleeved with a rocker 72.

[0029] In the above scheme, the rocker 72 is rotated by external force, and the two bidirectional threaded rods 74 can be rotated simultaneously through the cooperation between the rocker 72, the double-headed worm 71, and the worm wheel 73. The crushing roller 3 is driven to move horizontally inside the feed shell 2 through the cooperation between the bidirectional threaded rod 74, the movable frame 76 and the movable block 77, so that the working distance between the two crushing rollers 3 can be adjusted according to the size of different sand and gravel, thereby improving the practicality of the grinding device.

[0030] Please refer to Figure 5 A grinding mechanism 8 for grinding crushed sand and gravel is arranged inside the grinding cylinder 1. The grinding mechanism 8 includes a second motor 81 fixed to one side of the grinding cylinder 1 and a grinding disc 86 slidably connected to the bottom end of the grinding cylinder 1. A second transmission rod 82 is fixed to the output end of the second motor 81. The end of the second transmission rod 82 away from the second motor 81 passes through one side of the grinding cylinder 1 and is fixedly sleeved with a driving bevel gear 83. The outer periphery of the driving bevel gear 83 is meshed with a driven bevel gear 84. The interior of the driven bevel gear 84 is fixedly sleeved with a second rotating rod 85. The bottom end of the second rotating rod 85 is fixedly penetrated through the grinding disc 86 and is rotatably connected to the inner bottom wall of the grinding cylinder 1.

[0031] In the above scheme, the second motor 81 drives the second transmission rod 82 to rotate inside the grinding cylinder 1, and the second transmission rod 82, the active bevel gear 83, the driven bevel gear 84 and the second rotating rod 85 cooperate to drive the grinding disc 86 to rotate on the inner bottom wall of the grinding cylinder 1 to grind the sand and gravel.

[0032] The use of the AI ​​enhanced green building design optimization system and method is as follows: 1. First, the spacing between the two crushing rollers 3 is adjusted according to the size of the sand and gravel: the rocker 72 is rotated to drive the double-headed worm 71 to rotate, and the double-headed worm 71 can drive the two worm wheels 73 and the two bidirectional threaded rods 74 to rotate. When the two bidirectional threaded rods 74 rotate, the two moving frames 76 on each bidirectional threaded rod 74 can be driven to move relative to each other or move toward and away from each other, so that the two first rotating rods 45 can move relative to each other or move toward and away from each other, thereby adjusting the spacing between the two crushing rollers 3; 2. After adjusting the distance between the two crushing rollers 3, start the first motor 4 to drive the flat driving wheel 46 to rotate, so as to drive the two second driven wheels 48 to rotate through the flat driving wheel 46, so that the two crushing rollers 3 rotate to crush the sand and gravel raw materials, and crush the large sand and gravel into small pieces; 3. The crushed sand and gravel slide to the bottom of the grinding cylinder 1, and the second motor 81 is started to rotate the second transmission rod 82, the driving bevel gear 83, the second rotating rod 85 and the grinding disc 86 to grind the sand and gravel to ensure the crushing effect of the sand and gravel.

[0033] Working principle: When the grinding device is used, sand and gravel are put into the grinding cylinder 1 through the feed shell 2. When the sand and gravel enter the feed shell 2, the flat driving wheel 46 is driven to rotate by the first motor 4. At the same time, the driven mechanism 47 meshing with the flat driving wheel 46 rotates together with the driven gear 49, and drives the two second driven wheels 48 meshing with the driven mechanism 47 and the driven gear 49 to rotate together, so that the two crushing rollers 3 can be rotated to crush the grinding sand and gravel, and the large pieces of sand and gravel are crushed into small pieces before grinding. In the above process, through the matching design between the flat driving wheel 46, the driven mechanism 47, the second driven wheel 48, the driven gear 49, the first connecting rod 42 and the second connecting rod 44, even if the distance between the two crushing rollers 3 changes, it does not affect the transmission effect between the first motor 4 and the crushing roller 3. Through the matching design between the driven gear 49 and the flat driving wheel 46, one of the second driven wheels 48 rotates in the same direction as the flat driving wheel 46, and through the transmission between the two steering wheels 472 inside the driven mechanism 47, the other second driven wheel 48 can rotate in the opposite direction to the flat driving wheel 46, so that the distance between the two crushing rollers 3 can be adjusted while the two crushing rollers 3 can rotate inwards and crush the sand and gravel. The rocker 72 is rotated by external force, and the two bidirectional threaded rods 74 can be rotated simultaneously through the cooperation among the rocker 72, the double-headed worm 71, and the worm wheel 73. The grinding roller 3 is driven to move horizontally inside the feed housing 2 through the cooperation among the bidirectional threaded rod 74, the moving frame 76, and the moving block 77, so that the working distance between the two grinding rollers 3 can be adjusted according to the size of different sand and gravel, thereby improving the practicality of the grinding device; The crushed sand and gravel fall to the bottom of the grinding cylinder 1, and then the second motor 81 drives the second transmission rod 82 to rotate inside the grinding cylinder 1. Through the cooperation between the second transmission rod 82, the active bevel gear 83, the driven bevel gear 84 and the second rotating rod 85, the grinding disc 86 is driven to rotate on the inner bottom wall of the grinding cylinder 1 to grind the sand and gravel.

[0034] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. An AI enhanced green building design optimization system and method, comprising a grinding cylinder (1), characterized in that: A feed shell (2) is fixed to the top of the grinding cylinder (1), and support frames (5) are fixed to both sides of the feed shell (2), and two slide grooves (6) are provided inside each of the support frames (5), and two crushing rollers (3) are arranged inside the feed shell (2); a first transmission rod (41) is rotatably connected to one side of the feed shell (2), and a first connecting rod (42) is rotatably sleeved on the outer periphery of the first transmission rod (41), and one end of the first transmission rod (41) close to the feed shell (2) passes through the support frame (5) and the first connecting rod (42) and is fixedly sleeved thereon. A flat driving wheel (46), both ends of the first connecting rod (42) are fixedly sleeved with a connecting shaft (43), the outer periphery of each connecting shaft (43) is rotatably sleeved with a second connecting rod (44), and one end of each second connecting rod (44) away from the connecting shaft (43) is rotatably connected to a first rotating rod (45), two corresponding sets of transmission grooves are opened on the two side surfaces of the feed shell (2), the two ends of the two first rotating rods (45) respectively slide through the transmission grooves on the two side surfaces of the feed shell (2), and are respectively fixedly sleeved inside the two crushing rollers (3), and the two first rotating rods (45) ) are fixedly sleeved with a second driven wheel (48) on the outer surface of each of the flat driving wheels (46) and the second driven wheel (48) is located between the outer surface of the feed housing (2) and the second connecting rod (44); a driven mechanism (47) is rotatably connected to the periphery of one of the connecting shafts (43), the driven mechanism (47) comprising a connecting frame (471) rotatably connected to one end of the connecting shaft (43), the inner side wall of the connecting frame (471) being rotatably connected to two mutually meshing steering wheels (472), the two steering wheels (472) being respectively meshed with the peripheries of the flat driving wheel (46) and the second driven wheel (48); the feed A group of support blocks (75) are fixed to both sides of the housing (2), and a bidirectional threaded rod (74) is rotatably sleeved between each group of support blocks (75). Two ends of each bidirectional threaded rod (74) are provided with two sections of threads in opposite directions. Both ends of each bidirectional threaded rod (74) are threadedly connected to a moving frame (76), and a moving block (77) slidably connected to the inside of the slide groove (6) is fixed to the bottom end of each moving frame (76). Each moving block (77) is rotatably sleeved on the outer periphery of the corresponding first rotating rod (45), and the first rotating rod (45) slides through the slide groove (6).

2. The AI-enhanced green building design optimization system and method according to claim 1, characterized in that: A first motor (4) is fixed to one side of one of the support frames (5), and an output end of the first motor (4) is fixed to an end of the first transmission rod (41) away from the feed housing (2).

3. The AI-enhanced green building design optimization system and method according to claim 2, characterized in that: The driven mechanism (47) is meshed between the flat driving wheel (46) and one of the second driven wheels (48), and the driven mechanism (47) is slidably disposed on the outer surface of the feed housing (2).

4. The AI-enhanced green building design optimization system and method according to claim 3, characterized in that: The driven mechanism (47) comprises a positioning frame (474) fixed to a side of the feed shell (2); a side of the connecting frame (471) away from the connecting shaft (43) contacts the outside of the feed shell (2); a sliding rod (473) is fixed to the top surface of the connecting frame (471); a sliding block (475) is slidably sleeved on the periphery of the sliding rod (473); and the periphery of the sliding block (475) is slidably connected to the inside of the positioning frame (474).

5. The AI ​​enhanced green building design optimization system and method according to claim 1, characterized in that: A double-headed worm (71) is rotatably connected to one side of the grinding cylinder (1); two ends of the double-headed worm (71) are provided with two sections of threads with the same direction; both ends of the double-headed worm (71) are meshed with worm wheels (73) fixedly sleeved on the periphery of a bidirectional threaded rod (74); the length of the double-headed worm (71) is greater than the distance between the two worm wheels (73); and one end of the double-headed worm (71) located outside the worm wheel (73) is fixedly sleeved with a rocker (72).

6. The AI ​​enhanced green building design optimization system and method according to claim 1, characterized in that: The grinding cylinder (1) is provided with a grinding mechanism (8) for grinding crushed sand and gravel inside. The grinding mechanism (8) comprises a second motor (81) fixed to a side surface of the grinding cylinder (1) and a grinding disc (86) slidably connected to the bottom end of the grinding cylinder (1). A second transmission rod (82) is fixed to the output end of the second motor (81). The end of the second transmission rod (82) away from the second motor (81) penetrates a side surface of the grinding cylinder (1) and is fixedly sleeved with a driving bevel gear (83). The outer periphery of the driving bevel gear (83) is meshed with a driven bevel gear (84). The interior of the driven bevel gear (84) is fixedly sleeved with a second rotating rod (85). The bottom end of the second rotating rod (85) is fixedly penetrated through the grinding disc (86) and is rotatably connected to the inner bottom wall of the grinding cylinder (1).

7. The AI ​​enhanced green building design optimization system and method according to claim 1 to claim 6, characterized in that: The use of the AI ​​enhanced green building design optimization system and method is as follows:

1. First, the spacing between the two crushing rollers (3) is adjusted according to the size of the sandstone: the rocker (72) is rotated to drive the double-headed worm (71) to rotate, and the double-headed worm (71) can drive the two worm wheels (73) and the two bidirectional threaded rods (74) to rotate. When the two bidirectional threaded rods (74) rotate, the two moving frames (76) on each bidirectional threaded rod (74) can be driven to move relative to each other or move toward and away from each other, so that the two first rotating rods (45) can move relative to each other or move toward and away from each other, thereby adjusting the spacing between the two crushing rollers (3); 2. After the spacing between the two crushing rollers (3) is adjusted, the first motor (4) is started to drive the flat driving wheel (46) to rotate, so that the two second driven wheels (48) are driven to rotate through the flat driving wheel (46), so that the two crushing rollers (3) rotate to crush the sand and gravel raw materials, and crush the large sand and gravel into small pieces; 3. The crushed sand and gravel slide to the bottom of the grinding cylinder (1), and the second motor (81) is started to rotate the second transmission rod (82), the driving bevel gear (83), the second rotating rod (85) and the grinding disc (86) to grind the sand and gravel to ensure the crushing effect of the sand and gravel.

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