CN108596787A - A kind of appraisal procedure that engineering construction influences adjacent room - Google Patents
A kind of appraisal procedure that engineering construction influences adjacent room Download PDFInfo
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Abstract
The invention discloses the appraisal procedures that a kind of engineering construction influences adjacent room, include the following steps:Step 1) collects the related data of construction project to be built and adjacent room;Step 2) acquires adjacent room primary data;Step 3) should carry out at least three times appearance defects detection according to engineering construction progress situation;To the sedimentation of adjacent room, verticality and horizontal displacement observation;After the completion of step 4) is all detected and is monitored, the data acquired every time are compared and analyzed, incorporation engineering construction drawing and work progress record, comprehensive analysis judge whether engineering construction has an impact adjacent room, obtain the assessment result for judging influence degree.The present invention by detection, monitoring and analysis, can comprehensive, objective, accurate assessment engineering construction influenced caused by adjacent room, for processing dispute and ease contradictions foundation be provided.
Description
Technical field
The present invention relates to construction quality fields, and in particular to a kind of appraisal procedure that engineering construction influences adjacent room.
Background technology
With the fast development of urban construction, the engineering construction projects such as built-up areas skyscraper, municipal administration, traffic are increasingly
More, periphery house is influenced by engineering construction, is settled, the situation that cracks happens occasionally, and Around contradiction becomes increasingly conspicuous.Therefore, it is
Effective prevention reduces engineering construction and is had an impact to periphery house, eases contradictions in time, ensures city construction engineering
Normal construction safeguards each side's legitimate rights and interests conscientiously, and promote social harmony stabilization, it is necessary to for engineering construction to adjacent room shadow
Sound is assessed.Currently, engineering construction influences adjacent room to there is no ripe appraisal procedure.
Invention content
The technical problem to be solved in the present invention is to provide the appraisal procedures that a kind of engineering construction influences adjacent room, pass through
Detection, monitoring and analysis, can comprehensive, objective, accurate assessment engineering construction influenced caused by adjacent room, for handle entangle
Confused and offer foundation of easing contradictions.
In order to solve the above technical problem, the present invention provides the assessment sides that a kind of engineering construction influences adjacent room
Method includes the following steps:
Step 1) collects the related data of construction project to be built and adjacent room, detection, monitoring scheme is formulated, according to construction project to be built
Construction drawing and adjacent room drawing, in-situ data arrangement sedimentation, vertical observation point;
Step 2) acquires adjacent room primary data, to the wall of adjacent room, beam, column, flooring, exterior wall aproll position
The open defect of structural elements is detected, if there are crack and cosmetic injuries;
And the sedimentation for acquiring the verticality of adjacent room exterior wall, horizontal displacement initial value and adjacent room is initially marked
It is high;
If there are structural elements open defects adjacent room itself, or more than the perpendicularity deviation of specification permissible value,
Its safety and usability should be judged according to technical standard;
Step 3) acquires adjacent room phase data, should be carried out to appearance defects detection according to engineering construction progress situation
At least three times, for the first time before commencement of works, for the second time after the completion of foundation pit support construction process, last should be arranged in Practical Completion
Afterwards, it is monitored between foundation pit support construction process and Practical Completion;
To the sedimentation of adjacent room, verticality and horizontal displacement observation, First Observation should be before commencement of works, last observation
It should be monitored between First Observation and last observation, monitoring frequency is at least monthly after Practical Completion;
After the completion of step 4) is all detected and monitored, the data acquired every time are compared and analyzed, incorporation engineering construction
Drawing and work progress record, comprehensive analysis judge whether engineering construction has an impact adjacent room;
If construction period adjacent room structural elements open defect, verticality, sedimentation and horizontal displacement, can without significant changes
Judge that engineering construction does not cause adjacent room to significantly affect;
If there are significant changes, and can exclude non-engineering construction to influence source, judgement engineering construction causes adjacent room
It influences, and further according to the detection of adjacent room final structure component open defect, settlement observation, vertical observation and horizontal position
Observed result is moved, its safety and usability are judged according to technical standard, obtain the assessment result for judging influence degree.
Further, when acquiring adjacent room data, cosmetic injury detection is carried out by the way of range estimation, for house knot
Crack present on structure component observes crack maximum width using crack observer, records width, length and the trend in crack,
And it photographs to record;
Using the measuring instruments such as total powerstation monitoring neighbouring external wall of house verticality and horizontal displacement initial value;
Using the sedimentation initial absolute altitude in spirit level monitoring neighbouring house;
The crack observer includes braced frame, and clamp system, the clamp system are provided in the braced frame
Photographing device is fixed for sandwiched, the side that the braced frame is located at shooting direction is provided with support underframe, the support bottom
Shooting mouth is provided on frame, the support underframe is arranged in parallel with braced frame, is set between the support underframe and braced frame
It is equipped with connection support component, the support underframe, which is located on the surface of photographing device side, is provided with graduated scale, the clamping
Mechanism includes two fixture blocks disposed in parallel, and opposite side is set as clamping side, the clamping between two fixture blocks
Side, which is located on the surface of support underframe side, is provided with loading plate, and the clamping side is obliquely installed and the shape between loading plate
Angle at an acute angle, the another side for clamping the opposite fixture block in side are set as elastic force side, the elastic force side and support
Be provided with spring between frame, two of the fixture block are provided with guide part between end and braced frame, the guide part by
Dovetail convex block and dovetail groove composition.
Further, the braced frame includes two supporting beams disposed in parallel, parallel between two supporting beams
There are two side racks for setting, are arranged on side rack by screw locking, the dovetail groove between the supporting beam and side rack,
The dovetail convex block is arranged on the end of fixture block, and flexible protective pad is both provided on the clamping side and loading plate.
Further, the connection support component includes holder and wall interior panel, the holder both ends respectively with braced frame
It is connected with support underframe, the wall interior panel is arranged between two neighboring holder, and the wall interior panel inner surface is provided with color zones
Divide coating.
Further, the connection support component includes at least three folding rods, coordinates shape between three folding rods
It at supporting and space, is provided in supporting and space and blocks set, the set both ends of blocking connect with braced frame and support underframe respectively
It connects, the joint of the folding rod is provided with positioning and locking pin.
Further, the method for observing crack includes the following steps:
A, first photographing device is mounted in clamp system, obtains detection device;
B, crack wall is checked by way of range estimation, is judged maximum width position in crack on the wall of crack, is obtained
Estimate crack area;
C, detection device is pressed into the crack surface of wall in above-mentioned range estimation crack area, using marking pen marking tool edge
Support underframe outer edge is marked in crack surface of wall;
D, it and then carries out focusing to the photographing device in detection device to take pictures, flash lamp is opened when taking pictures, obtain crack photograph
Piece;
E, the photo of shooting is extracted, and placed in a computer, using image processing software to the crack of acquisition
Photo carries out image procossing, and crack photo is opened first in image processing software, selects identification of function to go out the side in crack by frame
Then the scale label on chassis in edge, and the crack photo based on acquisition is obtained by image processing software in region
The area A and length L in crack;
It finally presses publicity and calculates the equivalent maximum width We in crack, formula is:We=A/L;
When needing to be monitored, by detection device pressing in the marked region of crack wall, then repeatedly step 4)
With step 5), monitoring data are obtained.
Further, the length L is the straight length at region internal fissure both ends.
Further, described image processing software is Image Pro Plus, first opens Image Pro Plus softwares, then
Open the crack photo of shooting;Then scale is set, measurement-calibration-spatial calibration dialog box is opened, creates calibration title, point
First image is hit, enlarged photograph is dragged and selected on the green scale to the graduated scale of crack photo occurred in photo
Scale length inserts physical length in scaling dialog boxes, when selecting the length of 10mm on graduated scale, in scaling
10 are inserted in dialog box, clicks ok, are returned again to spatial calibration dialog box and are clicked apply, close box, scale setting is completed;
Then rectangle AOI tools are clicked, frame selects crack area in photo, creates AOI;Editor-duplication/clipping tool, generation is selected to split
Stitch region picture;Measurement-automatic measurement/counting is opened, measurement parameter is set in the measurements, including area and length, selection is compiled
Range and smooth numerical value is arranged in volume-draw/merge objects, using automatic tracing or magic stick identification of function crack
Edge creates AOI, completes after creating AOI, and program can be calculated automatically, and correlation calculation result is checked in view, including
The area A and length L for obtaining region internal fissure, We is calculated by formula.
Further, when the marginal existence deviation in the crack of automatic identification, using manual trace setting edge of crack wound
Build AOI.
Further, the monitoring transfers data to monitoring platform using sensor and wireless transmission, passes through sensor
It fracture, sedimentation, verticality and horizontal displacement can be monitored in real time, the result of monitoring can be sent to computer end or shifting
Moved end;
When crack, sedimentation, verticality and the horizontal displacement numerical value acquired is more than the threshold value of design, monitoring platform passes through
Internet or mobile communications network send alarm or short message to pc computer ends and communication terminal.
Beneficial effects of the present invention:
Structural elements open defect, structure vertical degree, settling amount and horizontal position are carried out to adjacent room before engineering construction
The acquisition of initial value is moved, periodically structural elements open defect is detected in construction process, to structure vertical degree and is sunk
Drop is observed, and is analyzed after Practical Completion detecting and observing data, and judges the safety of structural elements, and then is assessed
Influence of the engineering construction to adjacent room, being capable of comprehensive, objective, accurate assessment engineering construction shadow caused by adjacent room
It rings, foundation is provided to handle dispute and easing contradictions.
Description of the drawings
Fig. 1 is the overlooking structure diagram of the present invention;
Fig. 2 is the side structure schematic view of the present invention;
Fig. 3 is the support underframe structural schematic diagram of the present invention;
Fig. 4 is the clamp system schematic diagram of the present invention;
Fig. 5 is the fixture block structural schematic diagram of the present invention.
Specific implementation mode
The invention will be further described in the following with reference to the drawings and specific embodiments, so that those skilled in the art can be with
It more fully understands the present invention and can be practiced, but illustrated embodiment is not as a limitation of the invention.
One embodiment of the appraisal procedure that the engineering construction of the present invention influences adjacent room, is first collected proposed before assessment
The related data of engineering and adjacent room formulates detection, monitoring scheme, according to the construction drawing of construction project to be built and adjacent room
Drawing, the sedimentation of in-situ data arrangement, vertical observation point;
Then acquire adjacent room primary data, to the wall of adjacent room, beam, column, flooring, exterior wall aproll position knot
The open defect of structure component is detected, if there are crack and cosmetic injuries;
One of which detection mode is:
Cosmetic injury detection is carried out by the way of range estimation, for crack present on building structure component, using crack
Visualizer observes crack maximum width, records width, length and the trend in crack, and photograph to record;
Using the measuring instruments such as total powerstation monitoring neighbouring external wall of house verticality and horizontal displacement initial value;
Using the sedimentation initial absolute altitude in spirit level monitoring neighbouring house;
Another detection mode is using sensor;
If there are structural elements open defects adjacent room itself, or more than the perpendicularity deviation of specification permissible value,
Its safety and usability should be judged according to technical standard;
If there are structural elements open defects adjacent room itself, or more than the perpendicularity deviation of specification permissible value,
It should basis《Standard for reliability evaluation of civil buildings》Or《Industrial building reliability determination standard》Etc. technical standards judge its safety
Property and usability, to judge the feasibility of engineering construction.
If structural elements open defect is not present in adjacent room itself, according to engineering construction progress situation, acquisition is adjacent
House phase data;Appearance defects detection should be carried out at least three times, for the first time before commencement of works, applied for the second time in pattern foundation pit supporting structure
After the completion of work process, after last should be arranged in Practical Completion, it is monitored between foundation pit support construction process and Practical Completion;
To ensure the consistency of data, detection and monitoring are all made of identical observation tool and observation procedure every time, and should fix as possible
Observation personnel;
To the sedimentation of adjacent room, verticality and horizontal displacement observation, First Observation should be before commencement of works, last observation
It should be monitored between First Observation and last observation, monitoring frequency is at least monthly after Practical Completion;To ensure
The consistency of data, every time detection and monitoring are all made of identical observation tool and observation procedure, and should fixed observer people as possible
Member;
It waits for after the completion of all detecting and monitoring, the data acquired every time is compared and analyzed, incorporation engineering construction drawing
And work progress record, comprehensive analysis judge whether engineering construction has an impact adjacent room;
If construction period adjacent room structural elements open defect, verticality, sedimentation and horizontal displacement, can without significant changes
Judge that engineering construction does not cause adjacent room to significantly affect;
If there are significant changes, and can exclude non-engineering construction to influence source, judgement engineering construction causes adjacent room
It influences, and further according to the detection of adjacent room final structure component open defect, settlement observation, vertical observation and horizontal position
Observed result is moved, according to《Standard for reliability evaluation of civil buildings》Or《Industrial building reliability determination standard》It is used Deng correlation judgement
Technical standard judges its safety and usability, obtains the assessment result for judging influence degree.
This method before engineering construction to adjacent room carry out structural elements open defect, structure vertical degree, settling amount and
The acquisition of horizontal displacement initial value is periodically detected structural elements open defect in construction process, to structure vertical
Degree and sedimentation are observed, and are analyzed after Practical Completion detecting and observing data, and judge the safety of structural elements, into
And assess influence of the engineering construction to adjacent room, can comprehensive, objective, accurate assessment engineering construction adjacent room is caused
Influence, for processing dispute and ease contradictions foundation be provided.
Shown in Fig. 3, an embodiment of crack observer of the invention has support underframe 4 disposed in parallel
With braced frame 1, be provided with connection support component 6 between the two, connection support component make support underframe and braced frame it
Between there is constant size, so that it is determined that fixed shooting distance, avoid when carrying out repeated detection to same crack by
The inconsistent of photographic quality is caused in the difference of shooting distance, subsequent analysis is impacted;And support underframe and with support
After frame parallel setting, in shooting process, the aspect that enables to take pictures realizes parallel shooting perpendicular to crack body surface face
Effect avoid crack varying dimensions due to shooting angle to ensure the validity of photo;Folder is provided in braced frame
Tight mechanism 2, clamp system fix photographing device 3 for sandwiched, and photographing device can be digital camera, shooting mobile phone etc., clamp
Mechanism facilitates photographing device to dismantle, and to reduce the manufacturing cost of detection device, also makes full use of existing tool;And it detects
Device is combined as a whole with photographing device, is directly abutted when shooting with metope, therefore it is possible to prevente effectively from hand-held photographing device
Influence of the shake to shooting quality when being taken pictures;It is provided with shooting mouth 5 on support underframe, shoots mouth by coverage frame
It is fixed, it can ensure to shoot every time and all confine same position and identical frame selects crack under size, support underframe, which is located to take pictures, to be set
It is provided with graduated scale 7 on the surface of standby side, when taking pictures, which can be as the standard for size of taking pictures every time.
Wherein, braced frame includes two supporting beams 15 disposed in parallel, be arranged in parallel between two supporting beams there are two
Side rack 16 facilitates the installation of clamp system by screw locking between supporting beam and side rack.
In one embodiment, as shown in figure 3, connection support component includes holder 8 and wall interior panel 9, holder both ends respectively with
Braced frame is connected with support underframe, and to ensure bonding strength, and wall interior panel is arranged between two neighboring holder, thus
Surrounding forms closing structure, reduces influence of the external light source to the quality of the crack photo of acquisition, wherein wall interior panel inner surface
Be provided with hue distinguishes coating, hue distinguishes coating can be the light tones such as red, yellow, and green, in order to when analyzing crack photo with split
It mutually distinguishes seam part.
In one embodiment, connection support component includes at least three folding rods, and branch is cooperatively formed between three folding rods
Space is supportted, is provided in supporting and space and blocks set, set both ends is blocked and is connect respectively with braced frame and support underframe, used
When, the straight state of folding rod, therefore braced frame and support underframe are strutted blocks set and plays interception, when needing to receive
When receiving, folding rod is bent, overbending direction can be towards inside, and after folding, braced frame is close to each other with support underframe, to
Volume is reduced, convenient for storage and storage;And the joint of folding rod is provided with positioning and locking pin, it can be solid to folding rod
Shape state, avoid folding mode can not fixed support frame frame and support underframe spacing.
With reference to shown in Fig. 4 and Fig. 5, clamp system includes two fixture blocks 10 disposed in parallel, opposite between two fixture blocks
Side is set as clamping side 11, and clamping side, which is located on the surface of support underframe side, is provided with loading plate 12, clamps side
It is obliquely installed and is formed between loading plate acute angle, the another side for clamping the opposite fixture block in side is set as elastic force side
Side, is provided with spring 13 between elastic force side and braced frame, spring can compress two fixture blocks close, be set when being put into take pictures
When standby, fixture block reverse movement, compressed spring becomes larger to the power that compresses of spring, can be good at clamping photographing device, then
Person, loading plate can play the effect of support photographing device, photographing device avoided to slide, and also function to and position benchmark of taking pictures
Effect so that photographing device is on identical shooting height always;In order to ensure that the clamping of photographing device is stablized, side is clamped
Design enable to photographing device to be squeezed to press to clamp and formed in acute angle between side and loading plate, therefore photographing device
It will not deviate from because of the extruding of fixture block, and conflict that also can be adaptive is on loading plate, it is simple in structure, install and use stabilization
Reliably.It is also both provided with flexible protective pad on clamping side and loading plate, carries out effective protection to photographing device, and also
Fastening force can be increased.
In order to improve stability in use, two in fixture block are provided with guide part, guide part between end and braced frame
It is made of dovetail convex block 14 and dovetail groove, dovetail groove is arranged on side rack, and dovetail convex block is arranged on the end of fixture block, uses
It is reliable and stable, stablize movement convenient for fixture block.
Image procossing is recycled by the way that the photo of crack area is taken on site using the detection method of above-mentioned detection device
Software obtains the parameters such as flaw area, length, the crack in region is equivalent to rectangle of the same area, is calculated to pass through
Obtain the equivalent maximum width in crack.The equivalent maximum width in crack due to embodying a certain range of crack overall width situation,
For fracture width maximum point, it more can objectively reflect the width characteristics in crack;
Specifically include following operating procedure;
1, first photographing device is mounted in clamp system, obtains detection device;
2, by visually inspecting crack wall, judge crack maximum width position, obtain range estimation crack area;
3, detection device is pressed into the crack surface of wall in above-mentioned range estimation crack area, using marking pen marking tool edge
Support underframe outer edge is marked in crack surface of wall;
It 4 and then focusing is carried out to the photographing device in detection device takes pictures, flash lamp is opened when taking pictures, it is multiple to ensure
Intensity of illumination is identical when detection, wherein connection support component can block shooting area so that extraneous light can not shadow
It rings into shooting area, ensures the consistency of intensity of illumination;
Picture resolution influences the precision measured, therefore should select high-resolution photographing device as far as possible, not preferably less than
12000000 pixels;End of taking pictures obtains crack photo;
5, the photo of shooting is extracted, and placed in a computer, using image processing software to the crack of acquisition
Photo carries out image procossing, and image processing software is Image Pro Plus, first opens Image Pro Plus softwares, then open
The crack photo of shooting;Then it sets scale, opens measurement-calibration-spatial calibration dialog box, create calibration title, click the
One image, enlarged photograph drag and carry out selection scale on the green scale to the graduated scale of crack photo occurred in photo
Length inserts physical length in scaling dialog boxes, when selecting the length of 10mm on graduated scale, talks in scaling
10 are inserted in frame, clicks ok, are returned again to spatial calibration dialog box and are clicked apply, close box, scale setting is completed;Then
Rectangle AOI tools are clicked, frame selects crack area in photo, creates AOI, when rift portion in the photo of crack and other parts aberration
When comparing unobvious, contrast enhancing operation can be carried out, in order to identify edge of crack;Editor-duplication/clipping tool is selected,
Generate crack area picture;Measurement-automatic measurement/counting is opened, measurement parameter is set in the measurements, including area and length,
Editor-draw/merge objects are selected, range and smooth numerical value is set, using automatic tracing or magic stick identification of function
The edge in crack creates AOI, and when the marginal existence deviation in the crack of automatic identification, edge of crack is set using manual trace
Create AOI;It completes after creating AOI, program can be calculated automatically, correlation calculation result be checked in view, including obtain
The area A and length L of region internal fissure, are calculated We, formula is by formula:We=A/L;
When needing to be monitored, by detection device pressing in the marked region of crack wall, then repeats shooting and split
Stitch photo and analysis crack photo to get to monitoring data, pass through the comparison of monitoring data, you can the variation of fracture make compared with
Accurately to judge.
Above-mentioned length L is the straight length at region internal fissure both ends, and the crack in Practical Project is simultaneously non-fully linear,
But it is close to straight line in a certain range.The length of curve in crack can be measured by increasing image procossing, it is long with curve
Degree etc. is all straight length, although having deviation using the result that length of curve replaces straight length to be calculated, compared to
It is negligible for the error of traditional detection method itself.And what this method was finally calculated is equivalent width
The specific width of degree rather than a certain measuring point improves working efficiency, obtained fracture number so as to simplify image processing process
According to can more embody crack actual conditions.
In order to improve the data accuracy of monitoring, monitoring platform is transferred data to using sensor and wireless transmission, with
Achieve the effect that monitor in real time, the building in the neutral gear for detecting and monitoring is avoided substantive and irreversible injury occur;Wherein
According to house investigation or qualification result, determines monitoring point and monitoring content, generally comprise wall body slit, building settlement and wall
Gradient;Monitoring terminal is laid, monitoring terminal is the fracture width sensor being connected with NB-IOT wireless transport modules, inclination angle biography
Sensor, hydrostatic level etc.;Wherein fracture width sensor is used to measure the change width situation of monitored wall body slit, lays
Maximum width in surveyed crack;Obliquity sensor is used to measure the gradient situation of change of surveyed wall, is generally laid in
On the larger bearing wall of gradient;Hydrostatic level lays several for measuring building settlement situation according to house build
At the same absolute altitude of house surrounding, it is observed using the principle of connection liquid;The sensor has been wirelessly transferred with NB-IOT
Module is integrated, self-powered, need not also connect up transmission signal, install convenient.Monitoring terminal carries out data by the frequency of setting and adopts
Collection, long-range monitoring platform is sent data to by NB-IOT networks.NB-IOT network services are provided by network operator;Monitoring
Platform is analyzed and is handled to monitoring data, and prison is checked in PC computer ends or communication terminal APP implementations by internet
Measured data.
According to house investigation or qualification result, fracture width, gradient and settling amount threshold are set in a data processing system
Value;When fracture width, gradient and the settling amount acquired is more than the threshold value of design, monitoring platform passes through internet or movement
Communication network sends alarm or short message to pc computer ends and communication terminal.After receiving warning message, Yong Huan
Drainage technique personnel confirm monitoring terminal operating situation, and whether there is or not other environmental impact factors for understanding to the field reconnaissance of house scene.
As really changed for this body structure of house, then building safety situation is further assessed, emergency trouble shooting measures is taken when necessary, reaches
To more safe and reliable construction.
Embodiment described above is only to absolutely prove preferred embodiment that is of the invention and being lifted, protection model of the invention
It encloses without being limited thereto.Those skilled in the art on the basis of the present invention made by equivalent substitute or transformation, in the present invention
Protection domain within.Protection scope of the present invention is subject to claims.
Claims (10)
1. the appraisal procedure that a kind of engineering construction influences adjacent room, which is characterized in that include the following steps:
Step 1) collects the related data of construction project to be built and adjacent room, detection, monitoring scheme is formulated, according to applying for construction project to be built
The drawing of work drawing and adjacent room, the sedimentation of in-situ data arrangement, vertical observation point;
Step 2) acquire adjacent room primary data, to the wall of adjacent room, beam, column, flooring, exterior wall aproll position structure
The open defect of component is detected, if there are crack and cosmetic injuries;
And acquire the sedimentation initial absolute altitude of the verticality of adjacent room exterior wall, horizontal displacement initial value and adjacent room;
If there are structural elements open defects adjacent room itself, or more than the perpendicularity deviation of specification permissible value, Ying Gen
Judge its safety and usability according to technical standard;
Step 3) acquires adjacent room phase data according to engineering construction progress situation;
Appearance defects detection should be carried out at least three times, for the first time before commencement of works, after last should be arranged in Practical Completion, for the first time
It is primary after the completion of foundation pit support construction process between last, it is needing to be monitored for the first time between last;
To the sedimentation of adjacent room, verticality and horizontal displacement observation, First Observation should be before commencement of works, and last observation should be
After Practical Completion, it is monitored between First Observation and last observation, monitoring frequency is at least monthly;
After the completion of step 4) is all detected and monitored, the data acquired every time are compared and analyzed, incorporation engineering construction drawing
And work progress record, comprehensive analysis judge whether engineering construction has an impact adjacent room;
If construction period adjacent room structural elements open defect, verticality, sedimentation and horizontal displacement can determine whether without significant changes
Engineering construction does not cause adjacent room to significantly affect;
If there are significant changes, and can exclude non-engineering construction to influence source, judgement engineering construction causes influence to adjacent room,
And it is further seen according to the detection of adjacent room final structure component open defect, settlement observation, vertical observation and horizontal displacement
It surveys as a result, judge its safety and usability according to technical standard, obtains the assessment result for judging influence degree.
2. the appraisal procedure that engineering construction as described in claim 1 influences adjacent room, which is characterized in that acquisition phase next door
When room data, cosmetic injury detection is carried out by the way of range estimation, for crack present on building structure component, using crack
Visualizer observes crack maximum width, records width, length and the trend in crack, and photograph to record;
Using the measuring instruments such as total powerstation monitoring neighbouring external wall of house verticality and horizontal displacement initial value;
Using the sedimentation initial absolute altitude in spirit level monitoring neighbouring house;
The crack observer includes braced frame, and clamp system is provided in the braced frame, and the clamp system is used for
Sandwiched fixes photographing device, and the side that the braced frame is located at shooting direction is provided with support underframe, on the support underframe
It is provided with shooting mouth, the support underframe is arranged in parallel with braced frame, is provided between the support underframe and braced frame
Support component is connected, the support underframe, which is located on the surface of photographing device side, is provided with graduated scale, the clamp system
Including two fixture blocks disposed in parallel, opposite side is set as clamping side, the clamping side between two fixture blocks
Loading plate is provided on the surface of support underframe side, the clamping side is obliquely installed and is formed between loading plate sharp
Angle angle, the another side for clamping the opposite fixture block in side are set as elastic force side, the elastic force side and braced frame
Between be provided with spring, two of the fixture block are provided with guide part between end and braced frame, the guide part is by dovetail
Convex block and dovetail groove composition.
3. the appraisal procedure that engineering construction as claimed in claim 2 influences adjacent room, which is characterized in that the support frame
Frame includes two supporting beams disposed in parallel, is arranged in parallel that there are two side rack, the supporting beams between two supporting beams
It is arranged on side rack by screw locking, the dovetail groove between side rack, the dovetail convex block is arranged at the end of fixture block
In portion, flexible protective pad is both provided on the clamping side and loading plate.
4. the appraisal procedure that engineering construction as claimed in claim 2 influences adjacent room, which is characterized in that the connection branch
Support component includes holder and wall interior panel, and the holder both ends are connect with braced frame and support underframe respectively, and the wall interior panel is set
It sets between two neighboring holder, the wall interior panel inner surface is provided with hue distinguishes coating.
5. the appraisal procedure that engineering construction as claimed in claim 2 influences adjacent room, which is characterized in that the connection branch
Support component includes at least three folding rods, cooperatively forms supporting and space between three folding rods, is arranged in supporting and space
Set is blocked, the set both ends of blocking are connect with braced frame and support underframe respectively, and the joint of the folding rod is provided with
Positioning and locking pin.
6. the appraisal procedure that engineering construction as claimed in claim 2 influences adjacent room, which is characterized in that observe crack
Method includes the following steps:
A, first photographing device is mounted in clamp system, obtains detection device;
B, crack wall is checked by way of range estimation, is judged maximum width position in crack on the wall of crack, is estimated
Crack area;
C, detection device is pressed into the crack surface of wall in above-mentioned range estimation crack area, using marking pen marking tool along support
Chassis outer edge is marked in crack surface of wall;
D, it and then carries out focusing to the photographing device in detection device to take pictures, flash lamp is opened when taking pictures, obtains crack photo;
E, the photo of shooting is extracted, and placed in a computer, using image processing software to the crack photo of acquisition
Image procossing is carried out, crack photo is opened first in image processing software, selects identification of function to go out the edge in crack by frame, with
And the scale label on the chassis in the crack photo based on acquisition, region internal fissure is then obtained by image processing software
Area A and length L;
It finally presses publicity and calculates the equivalent maximum width We in crack, formula is:We=A/L;
When needing to be monitored, by detection device pressing in the marked region of crack wall, then repeatedly step 4) and step
It is rapid 5), obtain monitoring data.
7. the appraisal procedure that engineering construction as claimed in claim 6 influences adjacent room, which is characterized in that the length L
For the straight length at region internal fissure both ends.
8. the appraisal procedure that engineering construction as claimed in claim 6 influences adjacent room, which is characterized in that at described image
Reason software is Image Pro Plus, first opens Image Pro Plus softwares, then open the crack photo of shooting;Then it sets
Scale opens measurement-calibration-spatial calibration dialog box, creates calibration title, clicks first image, enlarged photograph, dragging
Selection scale length is carried out on the green scale occurred in photo to the graduated scale of crack photo, in scaling dialog boxes
Physical length is inserted, when selecting the length of 10mm on graduated scale, 10 are inserted in scaling dialog boxes, clicks ok, then return
It returns spatial calibration dialog box and clicks apply, close box, scale setting is completed;Then rectangle AOI tools are clicked, frame choosing is shone
Crack area in piece creates AOI;Editor-duplication/clipping tool is selected, crack area picture is generated;It opens and measures-survey automatically
Amount/counting, is arranged measurement parameter in the measurements, including area and length, select editor-draw/merge objects, setting
Range and smooth numerical value creates AOI using automatic tracing or the edge in magic stick identification of function crack, completes after creating AOI,
Program can be calculated automatically, correlation calculation result be checked in view, including obtain the area A and length of region internal fissure
We is calculated by formula in L.
9. the appraisal procedure that engineering construction as claimed in claim 8 influences adjacent room, which is characterized in that work as automatic identification
Crack marginal existence deviation when, using manual trace setting edge of crack create AOI.
10. the appraisal procedure that engineering construction as described in claim 1 influences adjacent room, which is characterized in that acquisition is adjacent
When house primary data and phase data, monitoring platform is transferred data to using sensor and wireless transmission, passes through sensor
It fracture, sedimentation, verticality and horizontal displacement can be monitored in real time, the result of monitoring can be sent to computer end or shifting
Moved end;
When crack, sedimentation, verticality and the horizontal displacement numerical value acquired is more than the threshold value of design, monitoring platform passes through interconnection
Net or mobile communications network send alarm or short message to pc computer ends and communication terminal.
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