CN101086494B - Foundation and slope engineering model test platform - Google Patents
Foundation and slope engineering model test platform Download PDFInfo
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- CN101086494B CN101086494B CN200710069866A CN200710069866A CN101086494B CN 101086494 B CN101086494 B CN 101086494B CN 200710069866 A CN200710069866 A CN 200710069866A CN 200710069866 A CN200710069866 A CN 200710069866A CN 101086494 B CN101086494 B CN 101086494B
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- 238000012360 testing method Methods 0.000 title claims abstract description 31
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- 238000006073 displacement reaction Methods 0.000 claims abstract description 20
- 238000012544 monitoring process Methods 0.000 claims abstract description 11
- 239000004576 sand Substances 0.000 claims abstract description 7
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- 238000006243 chemical reaction Methods 0.000 claims description 15
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Abstract
The invention relates to a testing platform with ground and slope engineering module. Long edge at one side of the main structure side steel plate has an instrument burying hole and data leading out hole, the other side having viewing window, bottom of the rectangular structural module slot rubble and sand cushion having water pipe supply net that connects with the water tank and vacuum extraction device, one side of the short edge of the main body structural side steel plate having discharge hole, two sides of the main structural beam post overpass the latched the reverse beam, whose lower end having hydraulic jack, ball hinges and bearing plate formed servo bearing system, displacement sensor, sand pressure sensor and gap water pressure connected to form the monitoring system. It can be deployed to prevent disasters.
Description
Technical field
What the present invention relates to is a kind of model test apparatus that is used for the Geotechnical Engineering technical field, particularly relates to a kind of model test platform that is applicable to ground and slope project.
Background technology
China is the country that a mountain region, hills extensively distribute, and tends to run into various side slopes when civil engineering construction, comprises natural side slope, excavation side slope and fills side slope.Unstability may take place these side slopes (as heavy rain, water level rising, excavation, preloading etc.) under various natures or man-made disaster condition slides, and causes casualties and property loss.Because the calamity factor that the causes complexity of side slope is various, its unstability pattern, catastrophe mechanism are very complicated.For deeply being familiar with side slope catastrophe mechanism under the complicated environmental condition, correct stability and economic, effectively anti-(subtracting) calamity engineering measure of proposition of estimating side slope, need carry out the research of big guide landslide disaster simulation test at different geologic conditions, disclose side slope unstability pattern and catastrophe mechanism, carry out the comparison of dangerous slope reinforcement scheme, and checking Geotechnical Engineering numerical analysis theory and software.
In addition, in the foundation works practice, also often meet with unfavorable geological condition, as soft clay foundation.Soft foundation disposal route and technology are one of important Geotechnical Engineering problems of current soft clay area.The foundation model test of big guide both can be carried out the research of foundation deformation and instability Mechanism, also can carry out the ratio choosing of flabbiness ground strengthened scheme.This test platform can force concretion method, flexible pile composite foundation, rigid pile foundation etc. to carry out big proportional model test research to preloading, vacuum method, the IFCO of soft foundation.
Geotechnical model test means commonly used both at home and abroad at present comprise centrifugal model test and 1g model test.The centrifugal model test advantage is to reappear with less model the stress field of prototype, and its weak point is the soil particle size effect, in addition because moulded dimension is less, the type selecting of surveying instrument, arranges and bury underground the comparison difficulty.The size of the 1g geotechnical model test system of at present relevant bibliographical information is smaller, function ratio more single (promptly a pilot system can only be used for single factor catastrophe simulation test).
Summary of the invention
The objective of the invention is to overcome the deficiency of existing geotechnical model test technology, a kind of ground and slope engineering model test platform are provided, make it can simulate multiple side slope (or ground) the unstability process that causes calamity condition, multiple reinforcing mode, disclose unstability pattern and catastrophe mechanism, provide foundation for selecting anti-economically and reasonably (subtracting) calamity engineering measure.
The technical solution used in the present invention is:
Comprise the rectangular bar of steel structural model groove that main body beam column of steel structure and agent structure side steel plate are formed, row, every row have a plurality of instrument embeddings hole and data extension line hole more than vertically being provided with side by side on one side, long limit of agent structure side steel plate, and row, every row have a plurality of visual windows more than vertically being provided with on the another side, long limit of agent structure side steel plate; In the rubble of rectangular bar of steel structural model trench bottom and sand bedding course, be provided with the branch road water pipe pipe networks that many rows take the water hole out of, after the branch road water pipe pipe network of taking the water hole out of is interconnected, after several are respectively with the water pipe of first by-pass valve control and hard cross current, be divided into two-way, one the tunnel behind second by-pass valve control water receiving case, connect the vacuum water plug behind another Lu Jingdi three by-pass valve controls and the 4th by-pass valve control; Minor face one side of agent structure side steel plate is provided with osculum; Face length limit both sides cross-over connection reaction beam on the main body beam column of steel structure, the reaction beam two ends have buckle respectively, reaction beam is strained and fixed with buckle after sliding along long limit, the reaction beam lower surface is provided with several hydraulic jack by hydraulic control system control, the servo loading system that several lifting jack sliding ends connect to form with globular hinge and bearing plate respectively; Face length limit both sides cross-over connection displacement transducer movable supporting frame on the main body beam column of steel structure, displacement transducer movable supporting frame below is provided with several displacement transducers, and displacement transducer movable supporting frame, displacement transducer, soil pressure sensor and pore water pressure sensor connect to form monitoring system.
Described water tank hangs on the sliding rail of the lifting support of being with chain block, is provided with in the water tank to keep the constant constant head ball-cock assembly of water level.
The present invention compares the beneficial effect that has with background technology:
(1) can produce multiplely cause calamity and reinforcing condition, analog functuion is many, comprises preloading, excavation, groundwater level fluctuation, vacuum preloading, composite foundation, pile foundation etc.;
(2) can simulate the side slope and the ground of multiple Different Strata combination condition; Soil layer condition, underground water table, initial stress state and boundary condition are controlled, known in ground and the side slope model;
(3) model groove size big (agent model groove inside dimension is long 15m * wide 5m * high 6m) can be carried out big proportional model test, and the size effect and the boundary effect of model test are little;
(4) design of site type steel construction model groove makes it have good visuality (being visual windows), and is convenient to burying underground of instrument and equipment;
(5) monitoring system comprehensively, comprehensively can realize automatic, the monitoring in real time of a plurality of physical quantitys; Monitoring instrument is buried underground relatively easily, and test operation is fairly simple;
(6) has movably reaction beam device, the load test of conveniently carrying out diverse location and combination.
Description of drawings
Fig. 1 is the test platform synoptic diagram.
Fig. 2 is the synoptic diagram of servo-loading unit.
Among the figure: 1, the main body beam column of steel structure, 2, agent structure side steel plate, 3, the instrument embedding hole, 4, the data line fairlead, 5, visual windows, 6, the vacuum water plug, 7, water tank, 8, the constant head ball-cock assembly, 9, chain block, 10, flexible pipe, 11, promote support, 12, by-pass valve control, 13, the positive/negative pressure table, 14, the hard water pipe, 15, take the branch road water pipe pipe network in water hole out of, 16, rubble and sand bedding course, 17, osculum, 18, reaction beam, 19, buckle, 20, hydraulic jack, 21, bearing plate, 22, globular hinge, 23, the displacement transducer movable supporting frame, 24, displacement transducer, 25, soil pressure sensor, 26, pore water pressure sensor, 27, the side slope model, 28, fluid pressure line, 29, hydraulic control system.
Embodiment
As shown in Figure 1 and Figure 2, the present invention includes the rectangular bar of steel structural model groove that main body beam column of steel structure 1 and agent structure side steel plate 2 are formed, the inner bottom surface of this groove and four medial surfaces are all taked seal approach, accomplish in use water-tight, air tight; Agent structure side steel plate 2 inwalls have carried out special smooth treatment, can reduce side friction and boundary effect; Vertically be provided with many rows on one side, long limit of agent structure side steel plate 2 side by side, every row has a plurality of instrument embeddings hole 3 and data extension line hole 4, bury underground and the drawing of instrument signal line to make things convenient for monitoring instrument; Row, every row have a plurality of sides visual windows 5 more than vertically being provided with on the another side, long limit of agent structure side steel plate 2, see through the lateral shift that the soil body in the process of the test could be observed and measure to visual windows, and the visual windows periphery is taked special seal approach; Be provided with the branch road water pipe pipe networks 15 that many rows take the water hole out of in the rubble of rectangular bar of steel structural model trench bottom and sand bedding course 16, this bed course can make the head of model trench bottom evenly distribute; After the branch road water pipe pipe network 15 of taking the water hole out of is interconnected, through several respectively with the water pipe of first by-pass valve control 12 be divided into two-way after hard water pipe 14 is communicated with, one the tunnel behind second by-pass valve control 12 and flexible pipe 10 water receiving case 7, connect vacuum water plug 6 behind another Lu Jingdi three by-pass valve controls 12 and the 4th by-pass valve control 12, be connected to positive/negative pressure table 13 on the hard water pipe 14; The 3rd by-pass valve control 12 and the 4th by-pass valve control 12 are closed, open second by-pass valve control 12, can control the underground water table height by the height of control water tank; Minor face one side of agent structure side steel plate 2 is provided with osculum 17, can reduce water level in the model groove by draining by this hole; Face length limit both sides cross-over connection reaction beam 18 on main body beam column of steel structure 1, reaction beam 18 two ends have buckle 19 respectively, reaction beam 18 is strained and fixed with buckle 19 after sliding along long limit, reaction beam 18 lower surfaces are provided with the hydraulic jack 20 of being arranged through several five equilibriums of fluid pressure line 28 controls by hydraulic control system 29, the servo loading system that several lifting jack 20 sliding ends connect to form with globular hinge 22 and bearing plate 21 respectively, this snap fit mode has greatly made things convenient for the displacement of reaction beam 18, by the position of conversion reaction beam, can be implemented in diverse location loading in the model according to the test needs; Face length limit both sides cross-over connection displacement transducer movable supporting frame 23 on main body beam column of steel structure 1, displacement transducer movable supporting frame 23 belows are provided with the displacement transducer 24 that several five equilibriums are arranged, displacement transducer movable supporting frame 23, displacement transducer 24, soil pressure sensor 25 and pore water pressure sensor 26 connect to form monitoring system, real-time monitoring and automatic record that this monitoring system links to each other with automatic data acquisition system and is used for the many physical quantitys of model test process.
Described water tank 7 hangs on the sliding rail of the lifting support 11 of being with chain block 9, is provided with in the water tank 7 to keep the constant constant head ball-cock assembly 8 of water level.
Embodiment: the existing test that causes coming down with slope, bank top, a slope loading of bordering on the river is the using method that example illustrates this test platform.
In the steel construction model groove of the test platform that main body beam column of steel structure 1 and agent structure side steel plate 2 formed, fill the high side slope model 27 of certain slope and slope.The soil layer condition of side slope model 27 can be according to the preparation of test demand, as homogeneous silt side slope, multilayer soil-slope etc.The dam filling construction of side slope model can adopt sand rain method, also can utilize rammer compacter by certain density compacting after filling.Side slope model 27 fills in the process and buries monitoring instruments such as soil pressure sensor 25, pore water pressure sensor 26, water cut probe underground in the inner some positions of side slope, and the embedded instrument data line is drawn from data line fairlead 4; After the side slope model fills and finishes,, tensiometer is inserted in the side slope model by the instrument embedding hole 3 that is arranged on the agent structure side steel plate 2 at the some location arrangements displacement transducers 24 in domatic and sloping top, inclinator.
After side slope is filled and is finished, the priming level control system utilizes chain block 9 that the water level of constant head water tank 7 is progressively raise, and first by-pass valve control 12 and second by-pass valve control 12 are opened, side slope model middle water level is constantly raise, in the side slope model, reach required underground water table.
Above-mentioned embodiment is used for the present invention that explains, rather than limits the invention, and in the protection domain of spirit of the present invention and claim, any modification and change to the present invention makes all fall into protection scope of the present invention.
Claims (2)
1. ground and slope engineering model test platform, it is characterized in that: comprise the rectangular bar of steel structural model groove that main body beam column of steel structure (1) and agent structure side steel plate (2) are formed, row, every row have a plurality of instrument embeddings hole (3) and data extension line hole (4) more than vertically being provided with side by side on one side, long limit of agent structure side steel plate (2), and row, every row have a plurality of visual windows (5) more than vertically being provided with on the another side, long limit of agent structure side steel plate (2); In the rubble of rectangular bar of steel structural model trench bottom and sand bedding course (16), be provided with the branch road water pipe pipe networks (15) that many rows take the water hole out of, after the branch road water pipe pipe network (15) of taking the water hole out of is interconnected, through several respectively with the water pipe of first by-pass valve control (12) be divided into two-way after hard water pipe (14) is communicated with, one the tunnel behind second by-pass valve control (12) water receiving case (7), connect vacuum water plug (6) behind another Lu Jingdi three by-pass valve controls (12) and the 4th by-pass valve control (12); Minor face one side of agent structure side steel plate (2) is provided with osculum (17); Go up face length limit both sides cross-over connection reaction beam (18) at main body beam column of steel structure (1), reaction beam (18) two ends have buckle (19) respectively, reaction beam (18) is strained and fixed with buckle (19) after sliding along long limit, reaction beam (18) lower surface is provided with several the hydraulic jack (20) by hydraulic control system (29) control, the servo loading system that several lifting jack (20) sliding end uses globular hinge (22) and bearing plate (21) to connect to form respectively; Go up face length limit both sides cross-over connection displacement transducer movable supporting frame (23) at main body beam column of steel structure (1), displacement transducer movable supporting frame (23) below is provided with several displacement transducers (24), and displacement transducer movable supporting frame (23), displacement transducer (24), soil pressure sensor (25) and pore water pressure sensor (26) connect to form monitoring system.
2. ground according to claim 1 and slope engineering model test platform, it is characterized in that: described water tank (7) hangs on the sliding rail of the lifting support (11) of being with chain block (9), is provided with in the water tank (7) to keep the constant constant head ball-cock assembly (8) of water level.
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张文杰,,詹良通,,凌道盛,,陈云敏.水位升降对库区非饱和土质岸坡稳定性的影响 第40 卷第8 期.浙江大学学报(工学版)40 8.2006,40(8),1365-1370,1428. |
张文杰,詹良通,凌道盛,陈云敏.水位升降对库区非饱和土质岸坡稳定性的影响 第40 卷第8 期.浙江大学学报(工学版)40 8.2006,40(8),1365-1370,1428. * |
李克钢.岩质边坡稳定性分析及变形预测研究.中国优秀博士学位论文数据库.2006,正文29-30. * |
靳德武.青藏高原多年冻土区斜坡稳定性研究.中国优秀博士学位论文数据库.2004,正文34-36. * |
黄 涛 罗喜元 邬 强 郑黎明.地表水入渗环境下边坡稳定性的模型试验研究.岩石力学与工程学报23 16.2004,23(16),2671~2675. |
黄涛 罗喜元 邬强 郑黎明.地表水入渗环境下边坡稳定性的模型试验研究.岩石力学与工程学报23 16.2004,23(16),2671~2675. * |
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