CN204401592U - Bracing of foundation pit displacement body is out of shape real-time measurement and control system - Google Patents
Bracing of foundation pit displacement body is out of shape real-time measurement and control system Download PDFInfo
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- CN204401592U CN204401592U CN201420590467.1U CN201420590467U CN204401592U CN 204401592 U CN204401592 U CN 204401592U CN 201420590467 U CN201420590467 U CN 201420590467U CN 204401592 U CN204401592 U CN 204401592U
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Abstract
The utility model discloses a kind of bracing of foundation pit displacement body and be out of shape real-time measurement and control system, by each survey mark angle of slope data that each probe in corresponding inclinometer pipe in data acquisition unit collection bracing of foundation pit body records, and each survey mark angle of slope data are sent to described centre data processor, centre data processor calculates displacement data corresponding to each survey mark according to each survey mark angle of slope data from data acquisition unit thus obtains deformation curve and the corresponding offset data of each strong point of every root inclinometer pipe, D/I changes instrument and this offset data is converted to electric current loop signal, with control PLC or other industrial control unit (ICU)s, real-Time Compensation is carried out to the support of bracing of foundation pit body, realize according to the inclinometer pipe deformation of Real-time Collection to foundation ditch support (as bracing members) carry out 24 hours round-the-clock, uninterrupted automatic shaft force compensating in real time, compare manual measurement, improve certainty of measurement and efficiency, improve foundation pit construction quality, efficiency and safety.
Description
Technical field
The utility model belongs to the realm of building construction, particularly relates to a kind of bracing of foundation pit displacement body and is out of shape real-time measurement and control system.
Background technology
Along with the development in city, foundation ditch scale and cutting depth constantly increase, and the safety problem of deep foundation ditch becomes the factor of engineering construction overriding concern.Because the soil body around excavation of foundation pit, building and embedded object (can be called for short bracing of foundation pit body to bracing of foundation pit body structure body of wall, such as diaphragm wall) etc. extruding, cause the distortion of bracing of foundation pit body structure body of wall, so will monitor bracing of foundation pit body structure body of wall in foundation pit construction process, so that carry out axle power bit shift compensation of supporting to control or to reduce the displacement deformation of fender body structure wall when bracing of foundation pit body structure deformation of wall is excessive to it.
Current detection means mainly coordinates inclinometer manually to measure by inclinometer pipe, then calculating the deformation data of fender body structure wall in the data input computer recorded.Existing inclination measurement system primarily of gauge head, plate reading, cable and inclinometer pipe four part composition, described gauge head is made up of two groups of guide wheels and the measurement main body being provided with inclinometer, described plate reading can read the survey data of gauge head, preserves and manipulate measurement data powering to gauge head.During use, first pre-buried inclinometer pipe on diaphragm wall, when diaphragm wall deforms, whole inclinometer pipe produces corresponding deformation thereupon, by lift gauge head manual measurement angle of inclination piecemeal, by calculating the horizontal movement that just can obtain every section of inclinometer pipe.Then the deformation curve of diaphragm wall can be obtained by described point.This measuring method is simple to operate, and application is comparatively wide, but owing to being manual operation, there is measure error large, can not realize real-time measurement, more can not by survey data Real-time Feedback to fender body structure wall displacement deformation Real-time compensation control system.In modern urban construction, these shortcomings bring the potential safety hazard of deep foundation pit construction, because the imperfection of these detection systems has caused a lot of engineering accident.
In sum, study, design a kind of efficient, precise and stable, real-time bracing of foundation pit displacement body and be out of shape real-time measurement and control system and become those skilled in the art's technical barrier in the urgent need to address.
Utility model content
The purpose of this utility model is to provide a kind of bracing of foundation pit displacement body to be out of shape real-time measurement and control system; the displacement deformation situation being embedded in inclinometer pipe in bracing of foundation pit body can be measured in real time; and according to the displacement deformation situation of inclinometer pipe, axle power displacement auto-compensation is carried out to foundation ditch support; effective raising certainty of measurement and efficiency; control and reduce the displacement deformation of bracing of foundation pit body, guaranteeing the smooth safety of foundation pit construction.
To achieve the above object, the utility model adopts following technical scheme:
A kind of bracing of foundation pit displacement body is out of shape real-time measurement and control system, described bracing of foundation pit body is supported by the support of some tape spool power motion compensators, described real-time measurement and control system comprises: centre data processor, centre management computer, D/I changes instrument, some inclinometer pipes, some probes and the data acquisition unit with described inclinometer pipe respective numbers, described inclinometer pipe is embedded in bracing of foundation pit body in advance, in every root inclinometer pipe, some described probes are set along the longitudinal separation of inclinometer pipe and form probe group, described data acquisition unit connects with all probe the in corresponding inclinometer pipe respectively, described centre management computer, data acquisition unit, D/I changes instrument and is connected with described centre data processor respectively, each survey mark angle of slope data that each probe in the corresponding inclinometer pipe of described data acquisition unit collection records, and each survey mark angle of slope data are sent to described centre data processor, described centre data processor calculates displacement deformation data corresponding to each survey mark according to each survey mark angle of slope data from data acquisition unit thus obtains deformation curve and the corresponding offset data of each strong point of every root inclinometer pipe, described D/I changes instrument and the offset data from described centre data processor is converted to electric current loop signal, for control PLC or other industrial control unit (ICU)s, real-Time Compensation is carried out to the support of bracing of foundation pit body.
Preferably, described centre data processor, comprising: collection module, for the angle of slope data of each survey mark of each data acquisition unit of centralized collection; Computing module, the angle of slope data for each survey mark according to collection module collection calculate displacement deformation data corresponding to each survey mark thus obtain every root inclinometer pipe deformation curve and to the corresponding offset data of each strong point; Human-computer interface module, shows for optimum configurations, data query and the data of popping one's head in and deformation curve; Communication module, changes communication between instrument and data acquisition unit for realizing centre data processor and centre management computer, D/I; And analog-driven module, provide each strong point offset data for changing instrument to D/I.
Preferably, described communication module comprises wire communication module and wireless communication module, and described wire communication module is used for realizing communicating between data acquisition unit with centre data processor, and communication distance is 0-500 rice; Described wireless communication module, communicates for realizing between centre management computer with centre data processor.
Preferably, described centre management computer, comprising: instrument parameter setting module, carries out optimum configurations for changing instrument to the probe of each data acquisition unit and D/I; Instrument parameter query module, carries out parameter query for changing instrument to the probe of each data acquisition unit and D/I; Data inquiry module, for inquiring about deformation data that is current or the different time point of each Measure section of history engineering; Data disaply moudle, for showing current data or the historical data that recalls; Data-printing module, for printing deformation data that is current or the different time point of each Measure section of history engineering; Communication management module, is connected with the communication that centre data processor, D/I change between instrument for realizing centre management computer.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, described probe is connected with described data acquisition unit by steel wire cable line, described probe comprises agent structure, be arranged at can measure the angle of inclination of self and the inclination sensor of incline direction and being arranged in described agent structure in agent structure, two groups of guide wheel strainers of bottom, the tilt data recorded outwards is exported by described steel wire cable line by described inclination sensor, described guide wheel strainer comprises the guide wheel tensioning plate that a non-maintaining rubber elastomer compressing structure and two ends are provided with guide wheel, described guide wheel is connected to the two ends of described guide wheel tensioning plate by bearing pin, described agent structure comprises junction plate, described junction plate is positioned at the middle part of described agent structure, described guide wheel tensioning plate is connected with described junction plate and described two guide wheels is pressed in the guide groove of inclinometer pipe respectively by described non-maintaining rubber elastomer compressing structure.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, each described probe also comprises two water joints, two joint bindiny mechanisms and two steel wire lock tightening mechanisms, described two water joints are sealingly fastened in the two ends of described agent structure respectively by the described joint bindiny mechanism of correspondence, metrical information spreads out of through described steel wire cable line by described inclination sensor, described steel wire cable line stretches into described agent structure inner chamber through described two water joints respectively and is locked by described water joint, wherein, the steel wire stretched in the steel wire cable line of agent structure is fixed in described joint bindiny mechanism respectively by described steel wire lock tightening mechanism, stretch into power line in the steel wire cable line of agent structure and data wire is connected and is electrically connected with described inclination sensor.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, described agent structure also comprises: cable duct, and be arranged at two sleeve pipes at described junction plate two ends, the end of described junction plate is respectively equipped with the connection base for being connected with described bobbin seal, described two sleeve pipes are tightly connected with corresponding water joint respectively by described waterproof bindiny mechanism away from one end of described junction plate, described cable duct is arranged between two described connection bases, described two positions connecting corresponding described cable duct on base are provided with the through hole passed through for described steel wire cable line, described inclination sensor is fixedly installed in the inner chamber of sleeve pipe described in one of them.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, described joint bindiny mechanism comprises cable adapter sleeve, gland and sealing ring, one end of described cable adapter sleeve is provided with back-up ring, the other end of described cable adapter sleeve stretches in corresponding described sleeve pipe, described sealing ring is provided with between described cable adapter sleeve and corresponding sleeve pipe, the outboard end of described water joint and described cable adapter sleeve is tightly connected, the cable adapter sleeve of correspondence is pressed on corresponding sleeve pipe by the outside that described gland is threadedly connected to corresponding sleeve pipe, described gland is the screwed pipe with an end plate, the centre bore stretched out for described water joint is offered at the center of described end plate.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, described steel wire lock tightening mechanism comprises holding screw and the threaded hole of steel that is opened in respectively on the perisporium of described cable adapter sleeve and set screw hole, described threaded hole of steel is mutually vertical through with described set screw hole, described threaded hole of steel is arranged along the radial direction of described cable adapter sleeve, steel wire in described steel wire cable line stretches in the described threaded hole of steel of described cable adapter sleeve, described holding screw through described set screw hole by described steel wire lock tightening in described threaded hole of steel.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, described inclination sensor is fixedly installed in sleeve pipe described in one of them by fluid sealant, the inside of this sleeve pipe is provided with the flange collar of convex, described flange collar is offered the slot stretched into for described inclinometer cable plate, the internal diameter of described flange collar is greater than the internal diameter of described cable adapter sleeve.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, the probe being positioned at bottom also comprises seal cover, and described seal cap sealing is arranged at the openend of the water joint away from inclination sensor; In all the other probes away from the inner chamber of the described sleeve pipe of described inclination sensor as the storage line chamber for accommodating certain surplus power line and wire.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, described centre data processor is according to following formulae discovery each survey mark deformation data L, L=A'B'*SIN (△ A), wherein, △ A represents survey mark angle of slope data, and A'B' represents the centre distance of guide wheel tensioning plate.
Preferably, be out of shape in real-time measurement and control system at above-mentioned bracing of foundation pit displacement body, also comprise remote monitoring center, described remote monitoring center is communicated with centre data processor by GPRS or 3G Wi-Fi.
The invention also discloses a kind of bracing of foundation pit displacement body and be out of shape real-time Detection & Controling method, adopt bracing of foundation pit displacement body as above to be out of shape real-time measurement and control system, comprise the steps:
The first step, embedding good inclinometer pipe in advance in bracing of foundation pit body;
Second step, puts into inclinometer pipe probe group;
3rd step, connects the probe in each probe group and accesses centre data processor by data/address bus with corresponding data acquisition unit;
4th step, system energization, when bracing of foundation pit body is subjected to displacement distortion, the inclinometer pipe be embedded in body of wall is subjected to displacement distortion simultaneously, and each survey mark angle of slope data of the corresponding section of the bracing of foundation pit body detected can be sent to centre data processor by inclination sensor in probe in real time;
5th step, each survey mark angle of slope data of each data acquisition unit concentrated by centre data processor, the angle of slope data recorded of each probe are converted to displacement, obtain deformation curve and each strong point offset data of every root inclinometer pipe, and each strong point offset data is given D/I conversion instrument, centre management computer and remote monitoring center;
6th step, D/I changes instrument and the strong point offset data that centre data processor is sent here is converted to electric current loop signal, for control PLC or other industrial control unit (ICU)s, axle power bit shift compensation is carried out to the axle power motion compensator in the support of bracing of foundation pit body, thus realize the closed-loop control of 24 hours uninterrupted detection and control in real time to bracing of foundation pit body deformability.
Preferably, described centre data processor, can also be used for optimum configurations, data query and the data of popping one's head in and deformation curve display, and carries out optimum configurations for changing instrument to data acquisition unit and D/I.
Preferably, described centre management computer, can also be used for inquiring about data that are current or each survey mark of each time point of each Measure section of history engineering, show data that are current or each survey mark of each time point of each Measure section of history engineering, print data that are current or each survey mark of each time point of each Measure section of history engineering, and carry out the communication management between centre data processor.
The bracing of foundation pit displacement body that the utility model provides is out of shape real-time measurement and control system, by each survey mark angle of slope data that each probe in the corresponding inclinometer pipe of described data acquisition unit collection records, and each survey mark angle of slope data are sent to described centre data processor, described centre data processor calculates displacement deformation data corresponding to each survey mark according to each survey mark angle of slope data from data acquisition unit thus obtains deformation curve and the corresponding offset data of each strong point of every root inclinometer pipe, described D/I changes instrument and the offset data from described centre data processor is converted to electric current loop signal, with control PLC or other industrial control unit (ICU)s, real-Time Compensation is carried out to the support of bracing of foundation pit body, thus automatic effective compensation can be carried out according to the inclinometer pipe deformation of Real-time Collection to support (as bracing members), compare Traditional Man metering system, improve certainty of measurement and efficiency, and the data Real-time Feedback detected can be supported (as bracing members) realization to the real-Time Compensation of foundation ditch support to foundation ditch, therefore can be timely, effectively, accurately control the displacement deformation of bracing of foundation pit body, improve working security.The bracing of foundation pit displacement body that the utility model provides is out of shape real-time measurement and control system and mainly has the following advantages:
One, the displacement deformation of the multiple node of the multiple section of diaphragm wall can be measured in real time;
Two, the displacement data of each node can be converted into the signal of telecommunication to flow to PLC and be used for hydraulic control pump and foundation ditch axial force of the supports motion compensator to compensate the pressure that bracing of foundation pit wall supports anti-displacement deformation, realize the closed loop real-tune TT & C to bracing of foundation pit body of wall axle power displacement deformation;
Three, computer and instrumented data bilateral export;
Four, human-machine intelligence controls;
Five, teledata reads, by the monitoring of real-time performance teledata, for the realization of multiple job sites Centralizing inspection provides physical basis;
Six, wide adaptability, several data read means, can adapt to the monitoring of various body of wall;
Seven, automatic measure control, does not need too much artificial interference can save a large amount of human costs, greatly reduces manual measurement error simultaneously, realize round-the-clock continual monitoring, greatly improves monitoring accuracy and efficiency;
Eight, modularized design, intelligent interface, make operation, safeguard very convenient.
Accompanying drawing explanation
Bracing of foundation pit displacement body of the present utility model is out of shape real-time measurement and control system and is provided by following embodiment and accompanying drawing.
Fig. 1 is the structural representation that the bracing of foundation pit displacement body of the utility model one embodiment is out of shape real-time measurement and control system;
Fig. 2 is the functional module structure schematic diagram that the bracing of foundation pit displacement body of the utility model one embodiment is out of shape real-time measurement and control system;
Fig. 3 is control object and the distribution side schematic view of 8-axle power motion compensator in foundation ditch that the bracing of foundation pit displacement body of the utility model one embodiment is out of shape real-time measurement and control system.
Fig. 4 is control object and the distribution plane schematic diagram of axle power motion compensator in foundation ditch that the bracing of foundation pit displacement body of the utility model one embodiment is out of shape real-time measurement and control system.
Fig. 5-7 is the probe of the utility model one embodiment and the different conditions figure of inclinometer pipe;
Fig. 8 is the structural principle schematic diagram of the probe of the utility model one embodiment;
Fig. 9 is the inclinometer pipe deformation curve figure of the utility model one embodiment;
Figure 10 is the structural representation of the real-time inclination measurement device of the utility model one embodiment;
Figure 11 is the structural representation of the probe in the utility model one embodiment;
Figure 12 is the right view of Figure 11;
Figure 13 is the A-A sectional view of Figure 12;
Figure 14 is the B portion enlarged drawing of Figure 13;
Figure 15 is the assembling schematic diagram (do not illustrate hold-down screw) of the non-maintaining rubber elastomer compressing structure of the utility model one embodiment and guide wheel tensioning plate;
Figure 16 is the reply counter-force schematic diagram of the non-maintaining rubber elastomer compressing structure of the utility model one embodiment;
Figure 17 is the structural representation of the utility model one embodiment elastomer bearing pin;
Figure 18 is the right view of Figure 17;
Figure 19 is the structure sectional view of Figure 18;
Figure 20 is the assembling schematic diagram (do not illustrate hold-down screw and junction plate) of the non-maintaining rubber elastomer compressing structure of another form of the utility model and guide wheel tensioning plate
Figure 21 is the perspective view of the probe of the utility model one embodiment;
Figure 22 is the structural representation of the probe of the utility model one embodiment;
Figure 23 is the C-C sectional view of Figure 22;
Figure 24 is the top view of Figure 23;
Figure 25 is the D-D sectional view of Figure 23;
Figure 26 is the E-E sectional view of Figure 23;
Figure 27 is the structural representation that in the utility model one embodiment, steel wire is fixed by steel wire lock tightening mechanism;
Figure 28 is the functional module structure schematic diagram of the centre data processor of the utility model one embodiment;
Figure 29 is the man-machine interface module schematic diagram of the utility model one embodiment.
Figure 30 is the functional module structure schematic diagram of the D/I conversion instrument of the utility model one embodiment;
Figure 31 is the functional module structure schematic diagram of the centre management computer of the utility model one embodiment.
In figure, 100-monitoring system, 1-centre data processor, 11-collection module, 12-computing module, 13-human-computer interface module, 14-communication module, 15-analog-driven module, 2-centre management computer, 21-instrument parameter setting module, 22-instrument parameter query module, 23-data inquiry module, 24-data disaply moudle, 25-data-printing module, 26-communication management module, 3-pops one's head in, 31-agent structure, 311-junction plate, 312-sleeve pipe, 3121-flange collar, 3122-stores up line chamber, 313-cable duct, 314-connects base, 3141-through hole, 32-inclination sensor, 33-joint bindiny mechanism, 331-cable adapter sleeve, 332-gland, 333-sealing ring, 34-water joint, 351-holding screw, 352-threaded hole of steel, 353-set screw hole, 36-guide wheel, the non-maintaining rubber elastomer compressing structure of 37-, 371-elastic body bearing pin, 3711-end cap, 3712-the first axle part, 3713-the second axle part, 37131-screw hole, 372-caoutchouc elasticity bar, 373-hold-down screw, 374-spring shim, 38-guide wheel tensioning plate, 381-square hole, 39-locating piece, 4-inclinometer pipe, 41-guide groove, 5-D/I changes instrument, 6-data acquisition unit, 7-remote monitoring center, 8-axle power motion compensator, 9-steel wire cable line, 91-steel wire, 92-power line, 93-data wire, 10-bracing of foundation pit body, 101-supports, 102-subway line.
Detailed description of the invention
Below will be out of shape real-time measurement and control system to bracing of foundation pit displacement body of the present utility model to be described in further detail.
For making object, the feature of utility model become apparent, be further described below in conjunction with the detailed description of the invention of accompanying drawing to utility model.It should be noted that, accompanying drawing all adopts the form that simplifies very much and all uses non-ratio accurately, only in order to object that is convenient, aid illustration the utility model embodiment lucidly.
Refer to Fig. 1 to Figure 31, present embodiment discloses the real-time measurement and control system of a kind of bracing of foundation pit body 10 displacement deformation, described bracing of foundation pit body 10 is (as diaphragm wall, it is iron wire 102 closely) supported by the support 101 (as bracing members) of some tape spool power motion compensators 8, described real-time measurement and control system 100 comprises: centre data processor 1, centre management computer 2, D/I changes instrument 5, some inclinometer pipes 4, some probes 3 and the data acquisition unit 6 with described inclinometer pipe 4 respective numbers, described inclinometer pipe 4 is embedded in bracing of foundation pit body 10 in advance, in every root inclinometer pipe 4, some described probes 3 are set along the longitudinal separation of inclinometer pipe 4 and form probe group, described data acquisition unit 6 connects with all probes 3 in corresponding inclinometer pipe 4 respectively, described centre management computer 2, data acquisition unit 6, D/I changes instrument 5 and is connected with described centre data processor 1 respectively, each survey mark angle of slope data that the described data acquisition unit 1 each probe 3 gathered in corresponding inclinometer pipe 4 records, and each survey mark angle of slope data are sent to centre data processor 1, centre data processor 1 calculates displacement deformation data corresponding to each survey mark according to each survey mark angle of slope data from data acquisition unit 6 thus obtains deformation curve and the corresponding offset data of each strong point of every root inclinometer pipe 4, described D/I changes instrument 5 and the offset data from described centre data processor 1 is converted to electric current loop signal, for control PLC (i.e. programmable logic controller (PLC), not shown) or other industrial control unit (ICU)s axle power bit shift compensation is carried out to the axle power motion compensator 8 in the support 101 of bracing of foundation pit body 10, namely axle power displacement real-Time Compensation is carried out to the support 101 of bracing of foundation pit body 10, thus auto-compensation can be carried out according to inclinometer pipe 4 deformation of Real-time Collection to support 101, compare manual measurement mode, both a large amount of human costs can be saved, promptness and the accuracy of measurement can be improved again, and can Real-time Feedback to the controlling organization of support 101 and axle power motion compensator 8, namely PLC or other industrial control unit (ICU)s can support 101 to foundation ditch and carry out real-Time Compensation (axle power and bit shift compensation), thus realize in time, effectively, accurately control the distortion of bracing of foundation pit body 10, improve the safety of foundation pit construction.
Please consult Fig. 5 to Figure 27 by emphasis, and incorporated by reference to Fig. 1 to 4, each described probe 3 comprises agent structure 31, is arranged at the inclination sensor 32 in agent structure 31 and is arranged at two groups of guide wheel strainers of described agent structure 31 upper and lower part, and described inclination sensor 32 outwards exports the tilt data recorded to described data acquisition unit 6 by described steel wire cable line 9.Described inclination sensor 32 can measure self angle of inclination and incline direction.Wherein, described guide wheel strainer comprises two ends and is provided with the guide wheel tensioning plate 38 of guide wheel 36 and non-maintaining rubber elastomer compressing structure 37, described guide wheel 36 is connected to the two ends of described guide wheel tensioning plate 38 by bearing pin (not shown), described agent structure 31 comprises junction plate 311, described junction plate 311 is positioned at the middle part of described agent structure 31, the described junction plate 311 of described guide wheel tensioning plate 38 with described agent structure 31 is connected by described non-maintaining rubber elastomer compressing structure 37, and described two guide wheels 36 are pressed in the guide groove 41 of inclinometer pipe 4 respectively.When the run-off the straight of described inclination sensor 32 self-position namely pop one's head in the position of inclinometer pipe 4 at 3 places be equivalent to survey mark run-off the straight time, inclination sensor 32 can detect angle value and the angle direction of inclination, is then transferred to data acquisition unit 6.Described inclination sensor 32 can measure the angle between self slotted line and natural plumb line, and its structure and principle are the common technology means of this area, therefore do not repeat them here.
In the present embodiment, maximum the taking measurement of an angle of inclination sensor 32 is 15 °, correspondingly can survey the maximum displacement of ± 25mm (single), the inside is rounded, and sealing, because have water in inclinometer pipe 4, and have the water of certain pressure, therefore high to inclination sensor seal request.When inclinometer pipe 4 deforms with diaphragm wall, probe 3 also followed by run-off the straight, and the inclination sensor 32 in probe 3 just can measure the size and Orientation at this angle of inclination, the follow-up displacement variable can being obtained this survey mark by trigonometric function.Be illustrated in fig. 5 shown below for pop one's head in 3 do not have be out of shape inclinometer pipe in schematic diagram, now this survey mark probe 3 output data be zero.The deformation of inclinometer pipe 4 when being subject to different external pressure and sonde configuration schematic diagram (black arrow direction is the Impact direction of tipping tube 4) is represented respectively shown in following Fig. 6,7, probe 3 is respectively toward both direction run-off the straight, and probe 3 exports angle of inclination respectively and namely incline direction is with directive angle of inclination data.
The following specifically describes the survey calculation principle that bracing of foundation pit displacement body is out of shape real-time measurement and control system.The displacement Computing Principle of single probe place survey mark is as shown in Figure 8: when after bracing of foundation pit body deformability, inclinometer pipe 4 follows bracing of foundation pit body deformability, A, B represent the center of two guide wheel tensioning plates respectively, AB and A'B' represents the center to center distance of guide wheel tensioning plate 38, the position of probe 3 is deformed to A'B' from AB, A and A' overlaps, and this survey mark angle changing is △ A.Inclination sensor 32 in probe 3 can measure the angle (error is at 0.01 °) of △ A accurately.Length due to AB and A'B' is known, and angle changing △ A is also known, then deformation length L calculates easily via trigonometric function L=A'B'*SIN (△ A).
As can be seen from description above, if we will monitor the bulk deformation situation of a certain inclinometer pipe 4, as long as according to measurement, we require that being spaced a distance placement at inclinometer pipe 4 pops one's head in 3 one by one, so these probes just can measure the deformation of place set-point and survey mark, the deformation curve of inclinometer pipe 4 just can be approached again, as shown in Figure 9 with these 3 data measureds of popping one's head in.
Please consult Figure 11 to Figure 27 by emphasis, below the concrete structure of described probe 3 is described.In the described probe 3 of the present embodiment, described non-maintaining rubber elastomer compressing structure 37 comprises elastic body bearing pin 371 and some caoutchouc elasticity bars 372, and in the present embodiment, the quantity of described caoutchouc elasticity bar 372 is 4.Described elastic body bearing pin 371 comprises the end cap 3711 and axis body that are connected, described axis body passes described guide wheel tensioning plate 38 and described junction plate 311 successively, described guide wheel tensioning plate 38 and described junction plate 311 offer the first through hole 381 and the second through hole (not shown) that pass through for described elastic body bearing pin 371 respectively, described elastic body bearing pin 371 is fixedly connected with described junction plate 311, described first through hole 381 is separated into some spaces by the described axis body of described elastic body bearing pin 371, described caoutchouc elasticity bar 372 is arranged in each described space respectively, when described guide wheel tensioning plate 38 rotates relative to described elastic body bearing pin 371, described caoutchouc elasticity bar 372 can be compressed and produce for driving the counter-rotational counter-force F of guide wheel tensioning plate 38, counter-force F produces countertorque.This non-maintaining rubber elastomer compressing structure 37 meet the prerequisite of reliable thrust is provided under; the performance of caoutchouc elasticity bar 372 own is added because caoutchouc elasticity bar 372 is arranged in guard space that guide wheel tensioning plate 38, elastic body bearing pin 371 and junction plate 311 surround; can not get rusty in water; be not vulnerable to the corrosion of muddy water; long service life; reliable operation, therefore can realize non-maintaining.Again on the one hand, existing artificial lift detection method, due to human factor, measures that efficiency is low, certainty of measurement is difficult to control, efficient, the high-quality being more and more not suitable with that modern construction measures, high-precision requirement.The follow-up probe by the non-maintaining rubber elastomer compressing structure 37 of employing is arranged at above-mentioned being preset in bracing of foundation pit body 10 inclinometer pipe 4 and carries out real-time high-precision detection to bracing of foundation pit body 10 distortion, solve the technological deficiency that conventional manual lifts detection, meet efficient, the high-quality that modern construction measures, high-precision requirement.
Preferably, please consult Figure 14 to Figure 19 by emphasis, in the present embodiment, the described axis body of described elastic body bearing pin 371 comprises and being connected and the first axle part 3712 of coaxial setting and the second axle part 3713, described first through hole 381 is separated into some spaces by described the first axle part 3712, and the shape of described the second axle part 3713 and size and described second through hole match.In the present embodiment, the circular in cross-section of described the second axle part 3713, described second through hole correspondence is set to circular hole.Certainly, the cross section of described the second axle part 3713 also can be other shapes, as long as the second through hole matches with it.
Preferably, the cross section of described first through hole 381 is rectangle, and the cross section of described the first axle part 3712 is regular polygon or rectangle.Rectangle comprises rectangle and square.In the present embodiment, the cross section of described first through hole 381 is square, and the cross section of described the first axle part 3712 is square, now, described first through hole 381 is separated into 4 spaces by described the first axle part 3712, arranges a caoutchouc elasticity bar 372 in each space, totally 4.Certainly, the cross section of described first through hole 381 and the first axle part 3712 also can be other combining forms, rotate described guide wheel tensioning plate 38 energy compressing rubber elastic strip 372 as long as meet, making caoutchouc elasticity bar 372 give described guide wheel tensioning plate 38 has enough countertorque.Such as, as shown in figure 20, the cross section of described the first axle part 3712 also can be rectangle, and the cross section of described first through hole 381 is rectangle.
In the present embodiment, when whole non-maintaining rubber elastomer compressing structure 37 is in equilibrium state, described guide wheel tensioning plate 38 is perpendicular with described junction plate 311, when described guide wheel tensioning plate 38 be subject to external force rotate relative to described elastic body bearing pin 371 time, described four caoutchouc elasticity bars 372 can be compressed and therefore produce for driving the counter-rotational counter-force of guide wheel tensioning plate 38, counter-force produces above-mentioned countertorque, thus make guide wheel 36 be pressed in the guide groove 41 of inclinometer pipe 4 all the time, and then make inclination sensor 32 can measure the deformation of inclinometer pipe 4 exactly, the deformation of inclinometer pipe 4 is equivalent to the deformation of bracing of foundation pit body 10.The non-maintaining rubber elastomer compressing structure 37 of said structure compared to existing technology in the compressing structure that formed with steel spring leaf compare, due to traditional steel spring leaf can get rusty in muddy water for a long time or affect by silt, its spring performance is easily damaged, therefore, reduce spring function after spring gets rusty to need to go in time to change, waste time and energy and affect engineering.And caoutchouc elasticity bar 372 in non-maintaining rubber elastomer compressing structure of the present utility model is due in the space that is arranged at guide wheel tensioning plate 38, elastic body bearing pin 371 and junction plate 311 and surrounds and the performance of caoutchouc elasticity bar 372 own, can not get rusty in water, be not easy the corrosion being subject to muddy water, long service life, reliable operation, can realize non-maintaining.In addition, non-maintaining rubber elastomer compressing structure 37 compares the compressing structure of existing use spring leaf, and structure is compacter.
Preferably, in above-mentioned non-maintaining rubber elastomer compressing structure 37, also comprise hold-down screw 373 and spring shim 374, the screw hole 37131 matched with described hold-down screw 373 is provided with in described the second axle part 3713 outer face of described elastic body bearing pin 371, described hold-down screw 373 is tightened against in the described screw hole 37131 of the described the second axle part 3713 of described elastic body bearing pin 371 through after described spring shim 374, thus described elastic body bearing pin 371 is fixedly connected with spring shim 374 by described hold-down screw 373 with described junction plate 311.That is, by arranging hold-down screw 373, metallic gasket and spring shim 374, described elastic body bearing pin 371 being fixed with described junction plate 311 and being connected.
Preferably, the length of described the first axle part 3712 is larger than the thickness of described guide wheel tensioning plate 38.In the present embodiment, the length 1-3 millimeter larger than the thickness of described guide wheel tensioning plate 38 of described the first axle part 3712.Thus described guide wheel tensioning plate 38 can be rotated relative to the described the first axle part 3712 of described elastic body bearing pin 371.
Preferably, the length of described the second axle part 3713 is less than the thickness of described junction plate 311.In the present embodiment, the length 2-4 millimeter less of the thickness of described junction plate 311 of described the second axle part 3713.Thus described spring shim 374 can be made to be close on described junction plate 311, make the connection between described junction plate 311 and described elastic body bearing pin 371 more firm.
Preferably, described elastic body bearing pin 371 adopts steel, easy to process, draws materials easily.
Preferably, please consult Figure 27 by emphasis, described steel wire cable line 9 comprises protective sleeve (sign) and is positioned at the steel wire 91 of described protective sleeve, power line 92 and data wire 93.In the present embodiment, described steel wire cable line 9 comprises two power lines 92 and two data lines 93, and described two power lines 92 and described two data lines 93 are around the outside being arranged at described steel wire 91.
Preferably, each described probe 3 also comprises two joint bindiny mechanisms 33, two water joints 34, and two steel wire lock tightening mechanisms, described two water joints 34 are sealingly fastened in the two ends of described agent structure 31 respectively by the described joint bindiny mechanism 33 of correspondence, metrical information spreads out of through described steel wire cable line 9 by described inclination sensor 32, described steel wire cable line 9 stretches into described agent structure 31 inner chamber (described inner chamber specifically refers to the inner chamber of follow-up described sleeve pipe 312) through described two water joints 34 respectively and is locked by described water joint 34, wherein, the steel wire 91 stretched in the steel wire cable line 9 of agent structure 31 is fixed in described joint bindiny mechanism 33 respectively by described steel wire lock tightening mechanism, stretch into power line 92 in the steel wire cable line 9 of agent structure 31 and data wire 93 is connected and is electrically connected with described inclination sensor 32.Because the steel wire 91 in steel wire cable line 9 is fixed on described joint bindiny mechanism 33 via described steel wire lock tightening mechanism, because described joint bindiny mechanism 33 is fixedly installed in described agent structure 31, therefore being equivalent to described steel wire 91 is fixed in described agent structure 31, so, can by the weight transmitting of the probe 3 that is positioned at below this probe 3 and steel wire cable line 9 above agent structure 31, the power line 92 in steel wire cable line 9 and the junction between data wire 93 and inclination sensor 32 is avoided to cause disconnecting because of overstress, ensure the normal operation of all probes 3.
Preferably, described agent structure 31 also comprises: cable duct 313, and be arranged at two sleeve pipes 312 at described junction plate 311 two ends, the end of described junction plate 311 is respectively equipped with the connection base 314 for being tightly connected with described sleeve pipe 312, described two sleeve pipes 312 are tightly connected with corresponding water joint 34 respectively by described waterproof bindiny mechanism away from one end of described junction plate 311, described cable duct 313 is arranged between two described connection bases 314, described two positions connecting corresponding described cable duct 313 on base 314 are provided with the through hole 3141 passed through for described steel wire cable line 9, described inclination sensor 32 is fixedly installed in the inner chamber of sleeve pipe 312 described in one of them.Adopt the agent structure 31 of above-mentioned form, described sleeve pipe 312 and described cable duct 313 can be protected and sealing function playing the power line 92 in steel wire cable line 9 and data wire 93, prevent it contaminated and sustain damage.Described inclination sensor 32 is fixedly installed in the inner chamber of sleeve pipe 312 described in one of them.When the position run-off the straight of the inclinometer pipe 4 at probe 3 place at described inclination sensor 32 self-position run-off the straight and inclination sensor 32 place, inclination sensor 32 can detect angle value and the angle direction of inclination, is then transferred to data acquisition unit 6 by steel wire cable line 9.
Preferably, please consult Figure 21 to Figure 24 by emphasis, described joint bindiny mechanism 33 comprises cable adapter sleeve 331, gland 332 and sealing ring 333, one end of described cable adapter sleeve 331 is provided with back-up ring, the other end of described cable adapter sleeve 331 stretches in corresponding described sleeve pipe 312, described sealing ring 333 is provided with between described cable adapter sleeve 331 and corresponding sleeve pipe 312, described water joint 34 is tightly connected with the outboard end of described cable adapter sleeve 331, the cable adapter sleeve 331 of correspondence is pressed on corresponding sleeve pipe 312 by the outside that described gland 332 is threadedly connected to corresponding sleeve pipe 312, described gland 332 is for having the screwed pipe of an end plate, the centre bore stretched out for described water joint 34 is offered at the center of described end plate.The joint bindiny mechanism 33 of said structure, structure is simple, reliable, water joint 34 can be sealingly fastened in one end of corresponding sleeve pipe 312.
Preferably, please consult Figure 26 and Figure 27 by emphasis, described steel wire lock tightening mechanism comprises holding screw 351 and is opened in threaded hole of steel on the perisporium of described cable adapter sleeve 331 352 and set screw hole 353 respectively, described threaded hole of steel 352 is mutually vertical through with described set screw hole 353, described threaded hole of steel 352 is arranged along the radial direction of described cable adapter sleeve 331, the steel wire 91 entered in the described steel wire cable line 9 of described cable adapter sleeve 331 stretches in the described threaded hole of steel 352 of described cable adapter sleeve 331, described steel wire 91 is locked in described threaded hole of steel 352 through described set screw hole 353 by described holding screw 351.The steel wire lock tightening mechanism of said structure, structure is simple, can be firmly fixed on the cable adapter sleeve 331 of agent structure 31 by steel wire 91, by the weight transmitting of the probe 3 and steel wire cable line 9 that are positioned at below in this agent structure 31.
Preferably, described inclination sensor 32 is fixedly installed in sleeve pipe 312 described in one of them by fluid sealant, the inside of this sleeve pipe 312 is provided with the flange collar 3121 of convex, described flange collar 3121 is offered the slot stretched into for described inclinometer cable plate, the internal diameter of described flange collar 3121 is greater than the internal diameter of described cable adapter sleeve 331.By arranging slot, inclination sensor 32 significantly displacement can be limited, inclination sensor 32 can be fixed by arranging fluid sealant, preventing inclination sensor 32 from micro-displacement occurring, thus the certainty of measurement of inclination sensor 32 can be improved.
Preferably, the probe 3 being positioned at bottom also comprises seal cover (not shown), and described seal cap sealing is arranged at the openend of the water joint 34 away from inclination sensor 32.By arranging seal cover, can enter in corresponding sleeve pipe 312 by preventing pollution thing.In all the other probes 3 away from the inner chamber of the described sleeve pipe 312 of described inclination sensor 32 as the storage line chamber 3122 of accommodating certain surplus power line 92 with steel wire 91 line.By reserved a part of power line 92 and steel wire 91 line, not only as the possible period of want or need, and can play the effect of buffering to the power line 92 in steel wire cable line 9 and data wire 93, prevent it to be torn, ensure probe 3 reliability of operation further.
Preferably, please consult Figure 16 by emphasis, in above-mentioned real-time inclination measurement device, also comprise some locating pieces 39, near the position of each non-maintaining rubber elastomer compressing structure 37 in the agent structure 31 that described locating piece 39 is separately positioned on each probe 3, by the support of locating piece 39 pairs of guide wheel tensioning plates 38 to each non-maintaining rubber elastomer compressing structure 37 1 pretightning force in the same way.Avoid being installed in the process of inclinometer pipe 4 at probe 3, occur that the rotation direction of the guide wheel tensioning plate 38 of two guide wheel strainers is inconsistent, and cause measuring inaccurate phenomenon.
Preferably, refer to Figure 28, described centre data processor 1, comprise collection module 11, computing module 12, human-computer interface module 13, communication module 14 and analog-driven module 15.
Described collection module 11, for the angle of slope data of each survey mark of each data acquisition unit 6 of centralized collection, described angle of slope data comprise angle of inclination and incline direction.
Described computing module 12, the angle of slope data for each survey mark gathered according to collection module 11 calculate displacement deformation data corresponding to each survey mark, thus obtain every root inclinometer pipe 4 deformation curve and to the corresponding offset data of each strong point.Computing module 12 in described centre data processor 1 is according to the deformation data L of each survey mark of following formulae discovery; L=A'B'*SIN (△ A), wherein, △ A represents survey mark angle of slope data, A'B' and AB represents the centre distance of guide wheel tensioning plate 38.
Described human-computer interface module 13, as shown in figure 29, for carrying out the optimum configurations of probe 3, data query and data and curve (i.e. deformation curve) shows;
Described communication module 14, changes communication between instrument 5 and data acquisition unit 6 for realizing centre data processor 1 and centre management computer 2, D/I.Preferably, described communication module 14 comprises wire communication module and wireless communication module, and described wire communication module is used for realizing communicating between data acquisition unit 6 with centre data processor 1, and communication distance is 0-500 rice; Described wireless communication module, communicates for realizing between centre management computer 2 with centre data processor 1.
Described analog-driven module 15, provides each strong point offset data for changing instrument 5 to D/I.
As described in Figure 30, the strong point offset data that described D/I conversion instrument 5 can be sent centre data processor 1 here is converted to electric current loop signal, and this electric current loop signal carries out the real-Time Compensation of axle power and displacement for control PLC or the support 101 of other industrial control unit (ICU)s to bracing of foundation pit body 10.
Preferably, refer to Figure 31, described centre management computer 2, comprise instrument parameter setting module 21, instrument parameter query module 22, data inquiry module 23, data disaply moudle 24, data-printing module 25 and communication management module 26.
Described instrument parameter setting module 21, carries out optimum configurations for changing instrument to the probe of each data acquisition unit 6 and D/I.Described instrument parameter query module 22, carries out parameter query for changing instrument to the probe of each data acquisition unit 6 and D/I; Described data inquiry module 23, for inquiring about deformation data that is current or the different time point of each Measure section of history engineering; Described data disaply moudle 24, for showing current data or the historical data that recalls; Described data-printing module 25, for printing deformation data that is current or the different time point of each Measure section of history engineering; And described communication management module 26, be connected with the communication that centre data processor 2, D/I change between instrument 5 for realizing centre management computer 2.
Preferably, be out of shape in real-time measurement and control system, also comprise remote monitoring center 7 at above-mentioned bracing of foundation pit displacement body, described remote monitoring center 7 is communicated with centre data processor 1 by GPRS or 3G Wi-Fi.By arranging remote monitoring center 7, teledata monitoring can be carried out by network, for the realization of the Centralizing inspection of multiple construction works provides physical basis, improving execution control and monitoring efficiency.
Please continue to refer to Fig. 1-Figure 31, the invention also discloses the using method that bracing of foundation pit displacement body as above is out of shape real-time measurement and control system 100, comprise the steps:
The first step, embedding good PVC inclinometer pipe 4 in advance in bracing of foundation pit body 10;
Second step, puts into inclinometer pipe 4 probe group;
3rd step, connects the probe 3 in each probe group and accesses centre data processor 1 by data/address bus with corresponding data acquisition unit 6;
4th step, system energization, when bracing of foundation pit body 10 is subjected to displacement distortion, the inclinometer pipe be embedded in body of wall is subjected to displacement distortion simultaneously, and each survey mark angle of slope data of the corresponding section of the bracing of foundation pit body 10 detected can be sent to centre data processor 1 by inclination sensor in probe 3 in real time;
5th step, each survey mark angle of slope data of each data acquisition unit 6 concentrated by centre data processor 1, the angle of slope data recorded of each probe 3 are converted to displacement, obtain deformation curve and each strong point offset data of every root inclinometer pipe 4, and each strong point offset data is given D/I conversion instrument 5, centre management computer 2 and remote monitoring center 7;
6th step, D/I changes instrument 5 and the strong point offset data that centre data processor 1 is sent here is converted to electric current loop signal, for control PLC or other industrial control unit (ICU)s, axle power bit shift compensation is carried out to the axle power motion compensator 8 in the support 101 of bracing of foundation pit body 10, thus realize the closed-loop control to 24 hours uninterrupted detection and control in real time that bracing of foundation pit body 10 is out of shape.
Preferably, described centre data processor 1, can also be used for popping one's head in 3 optimum configurations, data query and data and deformation curve display, and carry out optimum configurations for changing instrument 5 to data acquisition unit 6 and D/I.
Preferably, described centre management computer 2, can also be used for inquiring about data that are current or each survey mark of each time point of each Measure section of history engineering, show data that are current or each survey mark of each time point of each Measure section of history engineering, print data that are current or each survey mark of each time point of each Measure section of history engineering, and carry out the communication management between centre data processor 1.
The measure error that the bracing of foundation pit displacement body that the utility model provides is out of shape real-time measurement and control system is mainly present in the precision of inclination sensor 32, the temperature drift of inclination sensor, upper lower tumbler tensioning plate 38 center distance error.2 groups of guide wheels of probe 3 are physics needs, irrespective with measurement; Measurement is relevant with the center to center distance between inclination sensor and 2 groups of guide wheel tensioning plate 38 centers, is decided to be 100mm (center to center distance between 2 groups of guide wheel tensioning plate 38 centers A, B) here.
The precision of inclination sensor 32 is 0.01 °, then its error that may cause is △ 1=100*SIN (0.01 °), supposes that the center distance of guide wheel tensioning plate 38 is 100mm, then displacement error △ 1=0.017mm.
The temperature drift of inclination sensor 32 is 0.05 ° in extreme circumstances, then its error that may cause is △ 2=100*SIN (0.05 °), supposes that the center distance of guide wheel tensioning plate 38 is 100mm, then displacement error △ 2=0.087mm.
For guide wheel tensioning plate 38 interval error: suppose that at extreme situation interval error be 1mm (having this situation hardly in existing machining situation), then it is 10 ° in angle and (calculates by the range of probe 3, actual use can not reach this angle) displacement error that causes is △ 3=(101*SIN (10 °)-100*SIN (10 °)), △ 3=0.174.
Can find out overall error △=△ 1+ △ 2+ △ 3=0.278 after comprehensive various error by analysis above, therefore this system all can ensure the precision of 0.5mm under any condition.Therefore, the bracing of foundation pit displacement body that the utility model provides is out of shape the Light deformation that real-time measurement and control system can measure bracing of foundation pit body more accurately, for the distortion controlling bracing of foundation pit body is in real time given security.
Claims (10)
1. a bracing of foundation pit displacement body is out of shape real-time measurement and control system, described bracing of foundation pit body is supported by the support of some tape spool power motion compensators, it is characterized in that, comprise: centre data processor, centre management computer, D/I changes instrument, some inclinometer pipes, some probes and the data acquisition unit with described inclinometer pipe respective numbers, described inclinometer pipe is embedded in bracing of foundation pit body in advance, in every root inclinometer pipe, some described probes are set along the longitudinal separation of inclinometer pipe and form probe group, described data acquisition unit connects with all probe the in corresponding inclinometer pipe respectively, described centre management computer, data acquisition unit, D/I changes instrument and is connected with described centre data processor respectively.
2. bracing of foundation pit displacement body according to claim 1 is out of shape real-time measurement and control system, it is characterized in that, described communication module comprises wire communication module and wireless communication module, described wire communication module is used for realizing communicating between data acquisition unit with centre data processor, and communication distance is 0-500 rice; Described wireless communication module, communicates for realizing between centre management computer with centre data processor.
3. bracing of foundation pit displacement body according to claim 1 is out of shape real-time measurement and control system, it is characterized in that, described probe is connected with described data acquisition unit by steel wire cable line, described probe comprises agent structure, be arranged at can measure the angle of inclination of self and the inclination sensor of incline direction and being arranged in described agent structure in agent structure, two groups of guide wheel strainers of bottom, the tilt data recorded outwards is exported by described steel wire cable line by described inclination sensor, described guide wheel strainer comprises the guide wheel tensioning plate that a non-maintaining rubber elastomer compressing structure and two ends are provided with guide wheel, described guide wheel is connected to the two ends of described guide wheel tensioning plate by bearing pin, described agent structure comprises junction plate, described junction plate is positioned at the middle part of described agent structure, described guide wheel tensioning plate is connected with described junction plate and described two guide wheels is pressed in the guide groove of inclinometer pipe respectively by described non-maintaining rubber elastomer compressing structure.
4. bracing of foundation pit displacement body as claimed in claim 3 is out of shape real-time measurement and control system, and it is characterized in that, each described probe also comprises two water joints, two joint bindiny mechanisms and two steel wire lock tightening mechanisms, described two water joints are sealingly fastened in the two ends of described agent structure respectively by the described joint bindiny mechanism of correspondence, metrical information spreads out of through described steel wire cable line by described inclination sensor, described steel wire cable line stretches into described agent structure inner chamber through described two water joints respectively and is locked by described water joint, wherein, the steel wire stretched in the steel wire cable line of agent structure is fixed in described joint bindiny mechanism respectively by described steel wire lock tightening mechanism, stretch into power line in the steel wire cable line of agent structure and data wire is connected and is electrically connected with described inclination sensor.
5. bracing of foundation pit displacement body as claimed in claim 4 is out of shape real-time measurement and control system, it is characterized in that, described agent structure also comprises: cable duct, and be arranged at two sleeve pipes at described junction plate two ends, the end of described junction plate is respectively equipped with the connection base for being connected with described bobbin seal, described two sleeve pipes are tightly connected with corresponding water joint respectively by described waterproof bindiny mechanism away from one end of described junction plate, described cable duct is arranged between two described connection bases, described two positions connecting corresponding described cable duct on base are provided with the through hole passed through for described steel wire cable line, described inclination sensor is fixedly installed in the inner chamber of sleeve pipe described in one of them.
6. bracing of foundation pit displacement body as claimed in claim 5 is out of shape real-time measurement and control system, it is characterized in that, described joint bindiny mechanism comprises cable adapter sleeve, gland and sealing ring, one end of described cable adapter sleeve is provided with back-up ring, the other end of described cable adapter sleeve stretches in corresponding described sleeve pipe, described sealing ring is provided with between described cable adapter sleeve and corresponding sleeve pipe, the outboard end of described water joint and described cable adapter sleeve is tightly connected, the cable adapter sleeve of correspondence is pressed on corresponding sleeve pipe by the outside that described gland is threadedly connected to corresponding sleeve pipe, described gland is the screwed pipe with an end plate, the centre bore stretched out for described water joint is offered at the center of described end plate.
7. bracing of foundation pit displacement body as claimed in claim 6 is out of shape real-time measurement and control system, it is characterized in that, described steel wire lock tightening mechanism comprises holding screw and the threaded hole of steel that is opened in respectively on the perisporium of described cable adapter sleeve and set screw hole, described threaded hole of steel is mutually vertical through with described set screw hole, described threaded hole of steel is arranged along the radial direction of described cable adapter sleeve, steel wire in described steel wire cable line stretches in the described threaded hole of steel of described cable adapter sleeve, described holding screw through described set screw hole by described steel wire lock tightening in described threaded hole of steel.
8. bracing of foundation pit displacement body as claimed in claim 5 is out of shape real-time measurement and control system, it is characterized in that, described inclination sensor is fixedly installed in sleeve pipe described in one of them by fluid sealant, the inside of this sleeve pipe is provided with the flange collar of convex, described flange collar is offered the slot stretched into for described inclinometer cable plate, the internal diameter of described flange collar is greater than the internal diameter of described cable adapter sleeve.
9. bracing of foundation pit displacement body as claimed in claim 5 is out of shape real-time measurement and control system, and it is characterized in that, the probe being positioned at bottom also comprises seal cover, and described seal cap sealing is arranged at the openend of the water joint away from inclination sensor; In all the other probes away from the inner chamber of the described sleeve pipe of described inclination sensor as the storage line chamber for accommodating certain surplus power line and wire.
10. bracing of foundation pit displacement body according to claim 1 is out of shape real-time measurement and control system, it is characterized in that, also comprises remote monitoring center, and described remote monitoring center is communicated with centre data processor by GPRS or 3G Wi-Fi.
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| CN201420590467.1U CN204401592U (en) | 2014-10-13 | 2014-10-13 | Bracing of foundation pit displacement body is out of shape real-time measurement and control system |
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| CN201420590467.1U CN204401592U (en) | 2014-10-13 | 2014-10-13 | Bracing of foundation pit displacement body is out of shape real-time measurement and control system |
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104975618A (en) * | 2015-06-26 | 2015-10-14 | 上海建工集团股份有限公司 | Tensioning mechanism with pre-tension torque adjustable, inclinometer device and usage method thereof |
| CN108088417A (en) * | 2017-12-26 | 2018-05-29 | 上海建工集团股份有限公司 | A kind of foundation pit enclosure structure high-precision detection system and detection method |
| CN111549836A (en) * | 2020-05-28 | 2020-08-18 | 浙江明思特建筑支护技术有限公司 | Foundation pit deformation monitoring system |
-
2014
- 2014-10-13 CN CN201420590467.1U patent/CN204401592U/en not_active Expired - Fee Related
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN104975618A (en) * | 2015-06-26 | 2015-10-14 | 上海建工集团股份有限公司 | Tensioning mechanism with pre-tension torque adjustable, inclinometer device and usage method thereof |
| CN108088417A (en) * | 2017-12-26 | 2018-05-29 | 上海建工集团股份有限公司 | A kind of foundation pit enclosure structure high-precision detection system and detection method |
| CN111549836A (en) * | 2020-05-28 | 2020-08-18 | 浙江明思特建筑支护技术有限公司 | Foundation pit deformation monitoring system |
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