Artificial intelligence learning auxiliary device for engineering cost

Abstract

The invention discloses an artificial intelligence learning auxiliary device for engineering cost, which belongs to the technical field of artificial intelligence learning assistance and comprises an arc-shaped deviation auxiliary learning assembly, a deviation measurement assembly and an anti-toppling rack assembly, the arc-shaped deviation auxiliary learning assembly is arranged on the anti-toppling rack assembly, and the deviation measurement assembly is arranged on the anti-toppling rack assembly. The deviation measurement assemblies are arranged on the two sides of the anti-toppling rack assembly, the arc-shaped deviation auxiliary learning assembly comprises an upper fixed rack assembly and a deviation measurement auxiliary assembly, and the deviation measurement auxiliary assembly comprises an arc-shaped foundation simulation calculation model and a wedge-shaped supporting seat; the arc-shaped deviation auxiliary learning assembly, the deviation measurement assembly and the anti-toppling rack assembly are arranged, accurate estimation can be carried out on concrete materials of the arc-shaped foundation, the unit concrete use amount of different radians is estimated, the estimation accuracy of the arc-shaped foundation is effectively improved, and the estimation accuracy of the arc-shaped foundation is improved. And the anti-toppling function during sliding is also achieved for heavy concrete.

Description

Technical Field

[0001] The present invention belongs to the technical field of artificial intelligence learning assistance, and specifically refers to an artificial intelligence learning assistance device for project cost engineering. Background Art

[0002] With the rapid economic growth and the continuous expansion of infrastructure investment, the market's demand for the full-cycle cost and schedule control of construction projects is increasing day by day. Cost and schedule management workers need to supervise projects from a new perspective and integrate artificial intelligence technology into cost and schedule management. By processing and analyzing data, artificial intelligence can predict the future progress trend of projects. With the help of artificial intelligence technology, project managers can more effectively control and guide project construction.

[0003] However, in the process of applying artificial intelligence technology to cost estimation, engineers noticed that although artificial intelligence can significantly improve the speed of project cost estimation by building models, there is a large deviation between its estimation results and the actual cost at the time of acceptance, especially in the estimation of arc-shaped foundations, and this difference is particularly obvious. Therefore, there is an urgent need in the market for an artificial intelligence learning assistance device for project cost engineering to solve the above problems. Summary of the Invention

[0004] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides an artificial intelligence learning assistance device for project cost engineering, which effectively solves the problem that although artificial intelligence can significantly improve the speed of project cost estimation by building models, there is a large deviation between its estimation results and the actual cost at the time of acceptance, especially in the estimation of arc-shaped foundations, and this difference is particularly obvious. By setting an arc deviation auxiliary learning assembly, a deviation measurement assembly and an anti-tipping frame assembly, the concrete consumption of the arc-shaped foundation can be accurately estimated. By estimating the unit concrete consumption of different arcs and pre-inputting it into the model constructed by artificial intelligence for auxiliary learning, the estimation accuracy of the arc-shaped foundation is effectively improved, and the anti-tipping function during sliding is also realized for heavier concrete.

[0005] The technical solution adopted by the present invention is as follows: The present invention proposes an artificial intelligence learning assistance device for project cost, including an arc deviation assistance learning assembly, a deviation measurement assembly, and an anti-tipping frame assembly. The arc deviation assistance learning assembly is arranged on the anti-tipping frame assembly, and the deviation measurement assembly is arranged on both sides of the anti-tipping frame assembly. The arc deviation assistance learning assembly includes an upper fixed frame assembly and a deviation measurement assistance assembly. The deviation measurement assistance assembly includes an arc-shaped foundation simulation calculation model and a wedge-shaped support seat. The deviation measurement assembly includes a measurement cylinder body configured to receive the concrete from the arc-shaped foundation simulation calculation model and the wedge-shaped support seat. The anti-tipping frame assembly includes a transmission mechanism and a body support assembly. The transmission mechanism includes a lower roller, a pawl body, and a rack. The lower roller drives the rack to descend through the transmission mechanism to achieve the anti-tipping function during measurement.

[0006] Further, the deviation measurement assistance assembly further includes an arc-shaped bent foundation, an upper funnel, an air inlet plug, and a pull control block. The arc-shaped foundation simulation calculation model is set as a cavity structure, and an upper feed hole is opened at the upper end of the arc-shaped foundation simulation calculation model. The upper funnel is threadedly connected to the upper feed hole. An arc-shaped bent foundation is arranged on one side of the arc-shaped foundation simulation calculation model, and the radian of each group of arc-shaped bent foundations is configured in a ladder shape. Auxiliary air inlet holes are opened at both ends of the arc-shaped foundation simulation calculation model, and the air inlet plug is threadedly connected to the auxiliary air inlet holes. The wedge-shaped support seat is clamped to the lower part of the arc-shaped foundation simulation calculation model. Lower discharge holes communicating with the auxiliary air inlet holes are symmetrically opened at both ends of the wedge-shaped support seat. Side control grooves are opened at both ends of the wedge-shaped support seat, and the pull control block is arranged in the side control grooves;

[0007] The upper fixed frame assembly includes an upper mounting frame and an upper section of the side telescopic frame. The upper section of the side telescopic frame is fixedly connected to the upper mounting frame. The upper end of the arc-shaped foundation simulation calculation model is fixedly connected inside the upper mounting frame, and one end of the air inlet plug penetrates through the upper mounting frame.

[0008] Further, the deviation measurement assembly further includes a measurement cylinder fixing frame, a measurement marking line, and a damping rod. The measurement marking line is arranged on the measurement cylinder fixing frame, and the bottom of the measurement cylinder fixing frame is fixedly connected with a damping rod. The upper part of the damping rod is fixedly connected to the measurement cylinder body.

[0009] Further, the transmission mechanism further includes a lower rotating shaft, a lower driving gear, an upper driven gear, a middle transmission rod, a lower sprocket, a pawl return spring, a pawl body, a pawl rotating shaft, a chain body, an upper sprocket and a central driving gear. Both ends of the lower rotating shaft are fixed with lower rollers. The lower driving gear is fixedly connected to the lower rotating shaft. The lower driving gear meshes with the upper driven gear. The upper driven gear is fixedly connected to the middle transmission rod. The lower sprocket is rotatably connected to the middle transmission rod. A rotating piece is arranged inside the lower sprocket. The rotating piece is fixedly connected to the middle transmission rod. One end of the pawl return spring is fixedly connected to the rotating piece. The other end of the pawl return spring is fixedly connected to the pawl body. One end of the pawl body is rotatably connected to the pawl rotating shaft. The end of the pawl rotating shaft away from the pawl body is fixedly connected to the rotating piece. A pawl groove is arranged inside the lower sprocket. The end of the pawl body away from the pawl rotating shaft is clamped in the pawl groove. One end of the chain body meshes with the lower sprocket. The other end of the chain body meshes with the upper sprocket. The upper sprocket is fixedly connected to the upper transmission shaft. The middle of the upper transmission shaft is fixedly connected to the central driving gear.

[0010] Further, the body support assembly includes an auxiliary learning support frame, a lifting return spring, a lower section of the side telescopic frame, a lower machine base, a lower body shell and side support rollers. A lifting support shaft is fixedly connected to the lower part of the auxiliary learning support frame. The end of the lifting support shaft away from the auxiliary learning support frame is fixedly connected to a rack. The lifting support shaft penetrates through the lower body shell. One end of the lifting return spring is fixedly connected to the auxiliary learning support frame. The other end of the lifting return spring is fixedly connected to the lower body shell. The lower section of the side telescopic frame is fixedly connected to one side of the lower body shell. The lower machine base is fixedly connected to the lower body shell. The side support rollers are rotatably arranged at the lower part of the lower machine base.

[0011] Further, there are multiple groups of the arc-shaped foundation simulation calculation models and upper funnels. The radian on one side of the arc-shaped foundation simulation calculation model is fixedly set. The arc-shaped curved foundation radii set on the other side of the arc-shaped foundation simulation calculation model are arranged from large to small. The inner cavity of the arc-shaped foundation simulation calculation model is arranged in a double-cavity symmetric layout.

[0012] Further, the wedge-shaped support seat is arranged on the auxiliary learning support frame. The upper section of the side telescopic frame is slidably connected inside the lower section of the side telescopic frame. The measuring cylinder fixing frame is fixedly connected to both sides of the lower body shell. The upper end of the inner cavity of the measuring cylinder body is directly below the lower discharge hole.

[0013] Further, the rack meshes with the central driving gear. Both the upper transmission shaft and the middle transmission rod are rotatably connected inside the side wall of the lower driving gear. The lower rotating shaft is rotatably connected inside the lower machine base.

[0014] Furthermore, there are two sets of the ratchet body and the lower sprocket respectively, and the driving directions of the lower sprocket by each ratchet body are opposite.

[0015] The beneficial effects achieved by the present invention with the above structure are as follows:

[0016] (1) In order to solve the problem that in the past, although artificial intelligence could significantly improve the speed of engineering cost estimation by constructing a model, there was a large deviation between its estimation result and the actual cost at the time of acceptance, especially in the estimation of arc-shaped foundations, this difference was particularly obvious. The present invention can accurately estimate the concrete consumption of the arc-shaped foundation by setting an arc deviation auxiliary learning assembly, a deviation measurement assembly and an anti-tipping frame assembly. By estimating the unit concrete consumption of different arcs and pre-inputting it into the model constructed by artificial intelligence for auxiliary learning, the estimation accuracy of the arc-shaped foundation is effectively improved, and the anti-tipping function during sliding is also realized for heavier concrete.

[0017] (2) Among them, by setting a deviation measurement auxiliary component and a deviation measurement assembly, only need to pour the concrete into the inner cavity of the arc-shaped foundation simulation calculation model through the upper funnel until it is full. After separating the pull control block from the side control groove, by observing the position where the four groups of measuring cylinder bodies on one side are flush with the measurement scale line after compressing the damping rod, the unit concrete consumption and difference of different arcs can be accurately obtained, and the measurement data can be assisted by the model constructed by artificial intelligence for learning, thus effectively improving the estimation accuracy of the arc-shaped foundation.

[0018] (3) In addition, through the transmission mechanism and the body support component, when the device slides due to the ground inclination after carrying the concrete, the lower roller will drive the rack to descend through the transmission mechanism, and then the anti-tipping function is realized by lowering the center. Since there are two sets of the ratchet body and the lower sprocket respectively, and the driving directions of the lower sprocket by each ratchet body are opposite, no matter whether the lower roller rotates forward or backward, the anti-tipping function during inclined sliding can be realized. Description of the Drawings

[0019] Figure 1 is a three-dimensional structure schematic diagram of an artificial intelligence learning assistance device for engineering cost proposed by the present invention Figure 1 ;

[0020] Figure 2 is a three-dimensional structure schematic diagram of an artificial intelligence learning assistance device for engineering cost proposed by the present invention Figure 2 ;

[0021] Figure 3 is an exploded three-dimensional structure schematic diagram of an artificial intelligence learning assistance device for engineering cost proposed by the present invention;

[0022] Figure 4Schematic three-dimensional structure of the arc deviation auxiliary learning assembly and the deviation measurement assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 1 ;

[0023] Figure 5 Schematic three-dimensional structure of the arc deviation auxiliary learning assembly and the deviation measurement assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 2 ;

[0024] Figure 6 Schematic three-dimensional structure of the arc deviation auxiliary learning assembly and the deviation measurement assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 3 ;

[0025] Figure 7 Schematic three-dimensional structure of the arc deviation auxiliary learning assembly and the deviation measurement assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 4 ;

[0026] Figure 8 Schematic three-dimensional structure of the anti-tipping frame assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 1 ;

[0027] Figure 9 Schematic three-dimensional structure of the anti-tipping frame assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 2 ;

[0028] Figure 10 is Figure 9 Partial enlarged structure schematic diagram at position A in

[0029] Figure 11 Schematic three-dimensional structure of the anti-tipping frame assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 3 ;

[0030] Figure 12 Schematic three-dimensional structure of the anti-tipping frame assembly of an artificial intelligence learning assistance device for project cost proposed by the present invention Figure 4 .

[0031] Among them, 1. Arc deviation auxiliary learning assembly; 100. Arc foundation simulation calculation model; 101. Arc-shaped curved foundation; 102. Upper feed hole; 103. Upper funnel; 104. Auxiliary air intake hole; 105. Air intake plug; 106. Wedge-shaped support seat; 107. Lower discharge hole; 108. Side control groove; 109. Pull control block; 110. Upper mounting frame; 111. Upper section of side telescopic frame; 2. Deviation measurement assembly; 200. Measuring cylinder fixing frame; 201. Measuring marking line; 202. Damping rod; 203. Measuring cylinder body; 3. Anti-tipping machine frame assembly; 300. Lower roller; 301. Lower rotating shaft; 302. Lower driving gear; 303. Upper driven gear; 304. Middle transmission rod; 305. Lower sprocket; 306. Rotating piece; 307. Pawl return spring; 308. Pawl body; 309. Pawl rotating shaft; 310. Chain body; 311. Upper sprocket; 312. Upper transmission shaft; 313. Central driving gear; 314. Rack; 315. Lifting support shaft; 316. Auxiliary learning support frame; 317. Lifting return spring; 318. Lower section of side telescopic frame; 319. Lower machine base; 320. Lower machine body shell; 321. Side support roller.

[0032] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. They are used together with the embodiments of the present invention to explain the present invention and do not constitute a limitation to the present invention. Detailed implementation manners

[0033] 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 of the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the scope of protection of the present invention.

[0034] In the description of the present invention, it should be understood that the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc. indicating the orientation or position relationship are based on the orientation or position relationship shown in the accompanying drawings. They are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation to the present invention.

[0035] Such as Figures 1 - 12As shown in the figure, the present invention proposes an artificial intelligence learning assistance device for project cost, including an arc deviation assistance learning assembly 1, a deviation measurement assembly 2, and an anti-tipping frame assembly 3. The arc deviation assistance learning assembly 1 is arranged on the anti-tipping frame assembly 3, and the deviation measurement assembly 2 is arranged on both sides of the anti-tipping frame assembly 3. The arc deviation assistance learning assembly 1 includes an upper fixed frame component and a deviation measurement assistance component. The deviation measurement assistance component includes an arc-shaped foundation simulation calculation model 100 and a wedge-shaped support base 106. The deviation measurement assembly 2 includes a measurement cylinder body 203, configured to receive the concrete from the arc-shaped foundation simulation calculation model 100 and the wedge-shaped support base 106. The anti-tipping frame assembly 3 includes a transmission mechanism and a body support component. The transmission mechanism includes a lower roller 300, a pawl body 308, and a rack 314. The lower roller 300 drives the rack 314 to descend through the transmission mechanism to achieve the anti-tipping function during measurement. In order to solve the problem that in the past, although artificial intelligence could significantly improve the speed of engineering cost estimation by constructing models, there was a large deviation between the estimation results and the actual cost at the time of acceptance, especially in the estimation of arc-shaped foundations, this difference was particularly obvious. The present invention sets up the arc deviation assistance learning assembly 1, the deviation measurement assembly 2, and the anti-tipping frame assembly 3, which can accurately estimate the concrete consumption of the arc-shaped foundation. By estimating the unit concrete consumption of different arcs and pre-inputting it into the model constructed by artificial intelligence for auxiliary learning, the estimation accuracy of the arc-shaped foundation is effectively improved, and the anti-tipping function during sliding is also achieved for the heavier concrete.

[0036] Among them, the deviation measurement assistance component further includes an arc-shaped curved foundation 101, an upper funnel 103, an air inlet plug 105, and a pull control block 109. The arc-shaped foundation simulation calculation model 100 is set as a cavity structure, and an upper feed hole 102 is opened at the upper end of the arc-shaped foundation simulation calculation model 100. The upper funnel 103 is threadedly connected to the upper feed hole 102. An arc-shaped curved foundation 101 is arranged on one side of the arc-shaped foundation simulation calculation model 100, and the radian of each group of arc-shaped curved foundations 101 is configured in a ladder-like manner. Auxiliary air inlet holes 104 are opened at both ends of the arc-shaped foundation simulation calculation model 100. The air inlet plug 105 is threadedly connected to the auxiliary air inlet holes 104. The wedge-shaped support base 106 is clamped to the lower part of the arc-shaped foundation simulation calculation model 100. Lower discharge holes 107 communicating with the auxiliary air inlet holes 104 are symmetrically opened at both ends of the wedge-shaped support base 106. Side control grooves 108 are opened at both ends of the wedge-shaped support base 106. The pull control block 109 is arranged in the side control grooves 108. The upper fixed frame component includes an upper mounting frame 110 and an upper section of the side telescopic frame 111. The upper section of the side telescopic frame 111 is fixedly connected to the upper mounting frame 110. The upper end of the arc-shaped foundation simulation calculation model 100 is fixedly connected inside the upper mounting frame 110. One end of the air inlet plug 105 penetrates through the upper mounting frame 110.

[0037] Among them, the deviation measurement assembly 2 further includes a measuring cylinder fixing bracket 200, a measuring marking line 201, and a damping rod 202. The measuring marking line 201 is provided on the upper part of the measuring cylinder fixing bracket 200. The bottom of the measuring cylinder fixing bracket 200 is fixedly connected to the damping rod 202. The upper part of the damping rod 202 is fixedly connected to the measuring cylinder body 203. The transmission mechanism further includes a lower rotating shaft 301, a lower driving gear 302, an upper driven gear 303, a middle transmission rod 304, a lower sprocket 305, a pawl return spring 307, a pawl body 308, a pawl rotating shaft 309, a chain body 310, an upper sprocket 311, and a central driving gear 313. The two ends of the lower rotating shaft 301 are fixedly connected with lower rollers 300. The lower driving gear 302 is fixedly connected to the lower rotating shaft 301. The lower driving gear 302 meshes with the upper driven gear 303. The upper driven gear 303 is fixedly connected to the middle transmission rod 304. The lower sprocket 305 is rotatably connected to the middle transmission rod 304. A rotating piece 306 is provided inside the lower sprocket 305. The rotating piece 306 is fixedly connected to the middle transmission rod 304. One end of the pawl return spring 307 is fixedly connected to the rotating piece 306. The other end of the pawl return spring 307 is fixedly connected to the pawl body 308. One end of the pawl body 308 is rotatably connected to the pawl rotating shaft 309. The end of the pawl rotating shaft 309 away from the pawl body 308 is fixedly connected to the rotating piece 306. A pawl groove is provided inside the lower sprocket 305. The end of the pawl body 308 away from the pawl rotating shaft 309 is clamped in the pawl groove. One end of the chain body 310 meshes with the lower sprocket 305. The other end of the chain body 310 meshes with the upper sprocket 311. The upper sprocket 311 is fixedly connected to the upper transmission shaft 312. The middle part of the upper transmission shaft 312 is fixedly connected to the central driving gear 313. Among them, by setting the deviation measurement auxiliary component and the deviation measurement assembly 2, it is only necessary to pour the concrete into the inner cavity of the arc foundation simulation calculation model 100 through the upper hopper 103 until it is full. And after separating the pulling control block 109 from the side control groove 108, by observing the position where the four groups of measuring cylinder bodies 203 on one side are flush with the measuring marking line 201 after compressing the damping rod 202, the unit concrete consumption and difference of different arcs can be accurately measured, and with the assistance of the model constructed by artificial intelligence to learn the measurement data, thereby effectively improving the estimation accuracy of the arc foundation.

[0038] In addition, the body support assembly includes an auxiliary learning support frame 316, a lifting and reset spring 317, a lower section of the side telescopic frame 318, a lower machine base 319, a lower body shell 320, and side support rollers 321. A lifting support shaft 315 is fixedly connected to the lower part of the auxiliary learning support frame 316. One end of the lifting support shaft 315 away from the auxiliary learning support frame 316 is fixedly connected to a rack 314. The lifting support shaft 315 passes through the lower body shell 320. One end of the lifting and reset spring 317 is fixedly connected to the auxiliary learning support frame 316, and the other end of the lifting and reset spring 317 is fixedly connected to the lower body shell 320. The lower section of the side telescopic frame 318 is fixedly connected to one side of the lower body shell 320. The lower machine base 319 is fixedly connected to the lower body shell 320. The side support rollers 321 are rotatably arranged at the lower part of the lower machine base 319. There are multiple groups of the arc-shaped foundation simulation calculation model 100 and the upper funnel 103. The radian on one side of the arc-shaped foundation simulation calculation model 100 is fixedly set. The radii of the arc-shaped curved foundations 101 arranged on the other side of the arc-shaped foundation simulation calculation model 100 are arranged from large to small. The inner cavity of the arc-shaped foundation simulation calculation model 100 is arranged in a double-cavity symmetric manner. A wedge-shaped support seat 106 is arranged on the auxiliary learning support frame 316. The upper section of the side telescopic frame 111 is slidably connected inside the lower section of the side telescopic frame 318. The measuring cylinder fixing frame 200 is fixedly connected to both sides of the lower body shell 320. The upper end of the inner cavity of the measuring cylinder body 203 is located directly below the lower discharge hole 107. In addition, through the transmission mechanism and the body support assembly, when the device slides due to the ground inclination after carrying concrete, the lower roller 300 will drive the rack 314 to descend through the transmission mechanism, and then the anti-tipping function is realized by lowering the center. Since there are two groups of the pawl body 308 and the lower sprocket 305, and the driving directions of each pawl body 308 for the lower sprocket 305 to rotate are opposite, the anti-tipping function for the inclined sliding can be realized regardless of whether the lower roller 300 rotates forward or backward.

[0039] In this embodiment, the rack 314 meshes with the central driving gear 313. The upper transmission shaft 312 and the middle transmission rod 304 are both rotatably connected inside the side wall of the lower driving gear 302. The lower rotating shaft 301 is rotatably connected inside the lower machine base 319. There are two groups of the pawl body 308 and the lower sprocket 305, and the driving directions of each pawl body 308 for the lower sprocket 305 to rotate are opposite.

[0040] During specific use, first, push the device to the foundation pit learning position and conduct on-site demonstrations. Pour concrete into the upper hopper 103. Since the inner cavity of the arc-shaped foundation simulation calculation model 100 is arranged in a double-cavity symmetric layout, after both cavities in the arc-shaped foundation simulation calculation model 100 are filled with concrete, let it stand for one minute. Then, pull out the pull control block 109 from the side control groove 108. The concrete will flow out through the auxiliary air inlet hole 104 in the arc-shaped foundation simulation calculation model 100 and fall into the measuring cylinder body 203 through the lower discharge hole 107. The measuring cylinder body 203 will squeeze the damping rod 202 to descend. When the measuring cylinder body 203 is stable, check and record the scale measurement marking line 201 flush with the measuring cylinder body 203. By observing the differences in the scales corresponding to each measuring cylinder body 203, the unit concrete consumption of different arcs can be estimated. The scale lines corresponding to the eight groups of measuring cylinder bodies 203 can be compared pairwise adjacent to each other or in a symmetric two-group comparison for the same arc-shaped foundation simulation calculation model 100, thereby effectively reducing the estimation error and pre-inputting the data into the model constructed by artificial intelligence for auxiliary learning, thus effectively improving the estimation accuracy of the arc-shaped foundation;

[0041] When the device is carrying out concrete measurement, due to the inclination of the ground causing the device to slide, to prevent tipping, the lower roller 300 will drive the lower drive gear 302 to rotate through the lower rotating shaft 301. Then, the lower drive gear 302 will drive the upper driven gear 303 to rotate. The upper driven gear 303 will drive the rotating piece 306 to rotate through the middle transmission rod 304. The rotating piece 306 will drive the lower sprocket 305 to rotate through the pawl body 308. Then, the lower sprocket 305 will drive the upper sprocket 311 to rotate through the chain body 310. The upper sprocket 311 will drive the central drive gear 313 to rotate through the upper transmission shaft 312. Since the central drive gear 313 meshes with the rack 314, the central drive gear 313 will drive the rack 314 and the lifting support shaft 315 to descend. The lifting support shaft 315 will drive the wedge-shaped support seat 106 and the arc-shaped foundation simulation calculation model 100 to descend through the auxiliary learning support frame 316, thereby realizing the anti-tipping function by reducing the center of gravity of the entire device.

[0042] The above is the overall working process of the present invention. Just repeat these steps during the next use.

[0043] It should be noted that, in this text, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "comprising", "including" or any other variant thereof are intended to cover non-exclusive inclusion, such that a process, method, article or device comprising a series of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article or device.

[0044] Although the embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention, and the scope of the present invention is defined by the appended claims and their equivalents.

[0045] The above description of the present invention and its embodiments is not restrictive. What is shown in the drawings is only one of the embodiments of the present invention, and the actual structure is not limited thereto. Generally speaking, if those of ordinary skill in the art are inspired by it and, without departing from the purpose of the present invention, design similar structural modes and embodiments to this technical solution without creative efforts, they should all fall within the protection scope of the present invention.

Claims

1. An artificial intelligence learning assistance device for project cost, characterized in that: It includes an arc deviation auxiliary learning assembly (1), a deviation measurement assembly (2) and an anti-tipping frame assembly (3). The arc deviation auxiliary learning assembly (1) is arranged on the anti-tipping frame assembly (3), and the deviation measurement assembly (2) is arranged on both sides of the anti-tipping frame assembly (3). The arc deviation auxiliary learning assembly (1) includes an upper fixed frame component and a deviation measurement auxiliary component. The deviation measurement auxiliary component includes an arc foundation simulation calculation model (100) and a wedge-shaped support base (106). The deviation measurement assembly (2) includes a measuring cylinder body (203), configured to receive the concrete from the arc foundation simulation calculation model (100) and the wedge-shaped support base (106). The anti-tipping frame assembly (3) includes a transmission mechanism and a body support component. The transmission mechanism includes a lower roller (300), a pawl body (308) and a rack (314). The lower roller (300) drives the rack (314) to descend through the transmission mechanism to achieve the anti-tipping function during measurement.

2. An artificial intelligence learning assistance device for engineering cost according to claim 1, characterized in that: The deviation measurement auxiliary component further includes an arc-shaped bent foundation (101), an upper funnel (103), an air inlet plug (105) and a pull control block (109). The arc foundation simulation calculation model (100) is set as a cavity structure, and an upper feed hole (102) is opened at the upper end of the arc foundation simulation calculation model (100). The upper funnel (103) is threadedly connected to the upper feed hole (102). An arc-shaped bent foundation (101) is arranged on one side of the arc foundation simulation calculation model (100), and the radian of each group of arc-shaped bent foundations (101) is configured in a stepped manner. Auxiliary air inlet holes (104) are opened at both ends of the arc foundation simulation calculation model (100). The air inlet plug (105) is threadedly connected to the auxiliary air inlet holes (104). The wedge-shaped support base (106) is clamped to the lower part of the arc foundation simulation calculation model (100). Lower discharge holes (107) communicating with the auxiliary air inlet holes (104) are symmetrically opened at both ends of the wedge-shaped support base (106). Side control grooves (108) are opened at both ends of the wedge-shaped support base (106). The pull control block (109) is arranged in the side control grooves (108). The upper fixed frame component includes an upper mounting frame (110) and an upper section of the side telescopic frame (111). The upper section of the side telescopic frame (111) is fixedly connected to the upper mounting frame (110). The upper end of the arc foundation simulation calculation model (100) is fixedly connected inside the upper mounting frame (110). One end of the air inlet plug (105) penetrates through the upper mounting frame (110).

3. An artificial intelligence learning assistance device for project cost according to claim 2, characterized in that: The deviation measurement assembly (2) further includes a measuring cylinder fixing frame (200), a measuring scale line (201) and a damping rod (202). The measuring scale line (201) is arranged on the measuring cylinder fixing frame (200). The bottom of the measuring cylinder fixing frame (200) is fixedly connected with a damping rod (202). The upper part of the damping rod (202) is fixedly connected to the measuring cylinder body (203).

4. An artificial intelligence learning assistance device for project cost according to claim 3, characterized in that: The transmission mechanism further includes a lower rotating shaft (301), a lower driving gear (302), an upper driven gear (303), a middle transmission rod (304), a lower sprocket (305), a pawl return spring (307), a pawl body (308), a pawl rotating shaft (309), a chain body (310), an upper sprocket (311) and a central driving gear (313). Both ends of the lower rotating shaft (301) are fixedly connected with lower rollers (300). The lower driving gear (302) is fixedly connected to the lower rotating shaft (301). The lower driving gear (302) meshes with the upper driven gear (303). The upper driven gear (303) is fixedly connected to the middle transmission rod (304). The lower sprocket (305) is rotatably connected to the middle transmission rod (304). A rotating piece (306) is arranged inside the lower sprocket (305). The rotating piece (306) is fixedly connected to the middle transmission rod (304). One end of the pawl return spring (307) is fixedly connected to the rotating piece (306). The other end of the pawl return spring (307) is fixedly connected to the pawl body (308). One end of the pawl body (308) is rotatably connected to the pawl rotating shaft (309). The end of the pawl rotating shaft (309) far from the pawl body (308) is fixedly connected to the rotating piece (306). A pawl groove is arranged inside the lower sprocket (305). The end of the pawl body (308) far from the pawl rotating shaft (309) is clamped in the pawl groove. One end of the chain body (310) meshes with the lower sprocket (305). The other end of the chain body (310) meshes with the upper sprocket (311). The upper sprocket (311) is fixedly connected to the upper transmission shaft (312). The middle part of the upper transmission shaft (312) is fixedly connected to the central driving gear (313).

5. An artificial intelligence learning assistance device for project cost according to claim 4, characterized in that: The body support assembly includes an auxiliary learning support frame (316), a lifting return spring (317), a lower section of the side telescopic frame (318), a lower machine base (319), a lower body shell (320) and side support rollers (321). A lifting support shaft (315) is fixedly connected to the lower part of the auxiliary learning support frame (316). The end of the lifting support shaft (315) far from the auxiliary learning support frame (316) is fixedly connected to a rack (314). The lifting support shaft (315) penetrates through the lower body shell (320). One end of the lifting return spring (317) is fixedly connected to the auxiliary learning support frame (316). The other end of the lifting return spring (317) is fixedly connected to the lower body shell (320). The lower section of the side telescopic frame (318) is fixedly connected to one side of the lower body shell (320). The lower machine base (319) is fixedly connected to the lower body shell (320). The side support rollers (321) are rotatably arranged at the lower part of the lower machine base (319).

6. An artificial intelligence learning assistance device for project cost according to claim 5, characterized in that: The arc-shaped foundation simulation calculation model (100) and the upper funnel (103) are both provided with multiple groups. The radian on one side of the arc-shaped foundation simulation calculation model (100) is fixedly set. The radii of the arc-shaped curved foundations (101) arranged on the other side of the arc-shaped foundation simulation calculation model (100) are arranged from large to small. The inner cavity of the arc-shaped foundation simulation calculation model (100) is arranged in a double-cavity symmetric layout.

7. An artificial intelligence learning assistance device for project cost calculation according to claim 6, characterized in that: The wedge-shaped support seat (106) is arranged on the auxiliary learning support frame (316). The upper section of the side telescopic frame (111) is slidably connected to the lower section of the side telescopic frame (318). The measuring cylinder fixing frame (200) is fixedly connected to both sides of the lower body shell (320). The upper end of the inner cavity of the measuring cylinder body (203) is located directly below the lower discharge hole (107).

8. An artificial intelligence learning assistance device for project cost according to claim 7, characterized in that: The rack (314) meshes with the central drive gear (313). The upper transmission shaft (312) and the middle transmission rod (304) are both rotatably connected to the side wall of the lower drive gear (302). The lower rotating shaft (301) is rotatably connected to the lower machine base (319).

9. An artificial intelligence learning assistance device for project cost according to claim 8, characterized in that: There are two groups each of the pawl body (308) and the lower sprocket (305), and the directions in which each pawl body (308) drives the lower sprocket (305) to rotate are opposite.

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