A method and system for processing engineering measurement data

Abstract

The present application relates to a method and system for processing engineering survey data, which belongs to the technical field of construction safety. The method includes obtaining the preset positions of construction personnel; obtaining a list of high-risk positions; obtaining high-risk positions based on the list of high-risk positions; judging whether there is a high-risk position matching the preset position in the list of high-risk positions; if so, obtaining the certificate information of the construction personnel corresponding to the high-risk position; obtaining the real information of the relevant certificates; judging whether the certificate information matches the real information; if so, generating a normal prompt; if not, generating an abnormal prompt. The present application has the effect of better monitoring the staff and reducing the possibility of safety accidents in high-risk positions.

Description

Technical Field

[0001] The present application relates to the technical field of construction safety, and in particular to a method and system for processing engineering measurement data. Background Art

[0002] Construction engineering is an industry with a relatively high risk of accidents. The government and enterprises attach great importance to construction safety issues and have formulated a series of safety work guidelines. They provide safety education for construction workers, and workers in some high-risk positions are required to pass examinations from relevant national departments and obtain certificates before they can take up their posts.

[0003] Working with electricity is a high-risk operation in construction projects. There are strict requirements for the operation of working with electricity, especially the use of cables. Improper operation can easily cause electric shock and threaten the lives of workers.

[0004] However, the current safety management methods for construction projects are relatively simple. The most common method is to monitor by manual or simple surveillance cameras. The monitoring effect on workers in positions that require certification is poor, which makes safety accidents very likely to occur in high-risk positions. Summary of the invention

[0005] In order to better monitor the staff and reduce the possibility of safety accidents in high-risk positions, the present application provides an engineering measurement data processing method and system.

[0006] In a first aspect, the present application provides a method for processing engineering measurement data, which adopts the following technical solution:

[0007] A method for processing engineering measurement data, comprising:

[0008] Get the preset positions of construction personnel;

[0009] Obtain a list of high-risk positions;

[0010] Acquire high-risk positions based on the high-risk position list;

[0011] Determine whether the high-risk position matches the preset position;

[0012] If yes, then obtain the certificate information of the construction personnel corresponding to the high-risk positions;

[0013] Obtain the true information of relevant certificates;

[0014] Determining whether the certificate information matches the real information;

[0015] If so, a normal prompt is generated;

[0016] If not, an exception prompt is generated.

[0017] By adopting the above technical solution, the preset positions are matched with the high-risk positions among the high-risk positions. When there is a matching high-risk position, it proves that the construction worker's position is a high-risk position, and the certificate information of the corresponding construction worker is obtained at this time. Then the certificate information is compared with the real information to determine whether the two are the same. If they are the same, it proves that the certificate information is a qualified certificate, and a normal prompt is generated at this time to remind the construction personnel that they can work normally. If the results are different, it proves that the certificate may be unqualified, and an abnormal prompt is generated at this time, which reminds the construction personnel that they cannot work temporarily. In this way, the staff can be better monitored, reducing the possibility of construction personnel taking up their posts with false certificates, thereby reducing the possibility of safety accidents in high-risk positions.

[0018] Preferably, before generating a normal prompt, the method further includes:

[0019] Obtain facial information of construction workers;

[0020] Acquire a certificate headshot based on the certificate information;

[0021] Determine whether the facial information matches the ID card portrait;

[0022] If not, the abnormal prompt is generated;

[0023] If so, the normal prompt is generated.

[0024] By adopting the above technical solution, when the certificate is proven to be authentic, the certificate headshot and face information are matched. If they match, it proves that the certificate is held by the person himself, and a normal prompt is generated. If they do not match, it proves that the person may be holding someone else's certificate to work, and an abnormal prompt is generated, which makes it easier to further monitor the construction personnel, thereby further reducing the possibility of construction personnel working with fake certificates, and thus reducing the possibility of safety accidents in high-risk positions.

[0025] Preferably, the generating of the normal prompt further includes:

[0026] Get the installation height of the cable;

[0027] Determining whether the installation height is greater than a height threshold;

[0028] If not, an alarm is generated;

[0029] An adjusted height is obtained based on the height threshold and the erection height.

[0030] By adopting the above technical solution, during the cable installation process, it is determined whether the installation height is greater than the height threshold, and whether the installation of the cable will cause safety hazards. If the installation height is less than the height threshold, an alarm prompt is generated to issue an alarm, and the adjustment height is obtained according to the height threshold and the installation height, so that it is convenient for construction personnel to adjust the installation height of the cable, which can further improve the safety during the construction process.

[0031] Preferably, the determining whether the erection height is greater than a height threshold comprises the following steps:

[0032] Obtain cable installation images;

[0033] Determining whether the cable is located outdoors based on the installation image;

[0034] If yes, determining whether the erection height is greater than a first threshold;

[0035] If not, determining whether the installation height is greater than a second threshold;

[0036] Wherein, the height threshold includes the first threshold and the second threshold;

[0037] The first threshold is greater than the second threshold.

[0038] By adopting the above technical solution, it is determined whether the cable is located outdoors based on the installation image. If it is outdoors, the installation height is compared with the first threshold. If it is not outdoors, the installation height is compared with the second threshold. The cable can be adjusted to different heights according to different environments, thereby improving applicability and further improving safety during the cable installation process.

[0039] Preferably, after obtaining the installation height of the cable, the method further comprises:

[0040] Get the bracket image of the cable;

[0041] Obtain a standard pole image of the cable;

[0042] Determining whether the stent image matches the standard rod image;

[0043] If not, a first warning prompt is generated.

[0044] By adopting the above technical solution, by judging whether the bracket image matches the standard pole image, it is possible to judge whether the bracket supporting the cable meets the safety requirements. If not, a first warning prompt is generated, so that a safety warning can be issued between constructions to improve safety during the construction process.

[0045] Preferably, before obtaining the installation height of the cable, the method further includes:

[0046] Get image information of cables;

[0047] Get the bare wire image of the cable;

[0048] determining whether the image information matches the bare wire image;

[0049] If so, a second early warning prompt is generated.

[0050] By adopting the above technical solution, by judging whether the image information matches the bare wire image, it is possible to judge whether the cables used in the construction process are bare wires. If they are bare wires, it proves that they do not meet safety requirements. At this time, a second early warning prompt is generated to remind construction personnel to replace the cables, thereby further improving the safety of construction.

[0051] Preferably, the generating of the normal prompt further includes:

[0052] Obtain buried images of cables;

[0053] Acquire safety sign images;

[0054] Determining whether the embedded image contains the safety sign image;

[0055] If not, a third warning prompt is generated.

[0056] By adopting the above technical solution, it is determined whether the buried image contains a safety sign image, thereby determining whether the construction process complies with safety regulations. If not, a third early warning prompt is generated to warn the construction personnel, thereby enabling accurate monitoring of the status of the site, reminding the construction personnel to install safety signs in a timely manner, and realizing adjustments to erroneous operations during the construction process.

[0057] Preferably, the generating of the normal prompt further includes:

[0058] Get the working voltage of the power tool;

[0059] Determining whether the operating voltage is less than a safety voltage;

[0060] If not, obtaining a wiring image of the electric tool;

[0061] Acquire leakage protection images including leakage protectors;

[0062] Determining whether the wiring image matches the leakage protection image;

[0063] If not, a fourth warning prompt is generated.

[0064] By adopting the above technical solution, based on the comparison between the working voltage and the safety voltage of the electric tool, it is judged whether the electric tool will cause a safety hazard to the user. If so, it is judged whether the wiring image and the leakage protection image match. If they do not match, it proves that the use of the electric tool may cause a safety hazard to the user. At this time, the fourth early warning prompt is generated to remind the construction personnel to use the leakage protection device, so that the construction personnel's electricity safety during the construction process can be checked, and timely reminders and adjustments can be made for those that do not meet safety regulations.

[0065] In a second aspect, the present application provides an engineering measurement data processing system, which adopts the following technical solution:

[0066] An engineering measurement data processing system, comprising:

[0067] Position acquisition module, used to obtain the preset positions of construction personnel;

[0068] List acquisition module, used to obtain a list of high-risk positions;

[0069] A high-risk job acquisition module, used for acquiring high-risk jobs based on the high-risk job list;

[0070] A first judgment module is used to judge whether the high-risk position matches the preset position;

[0071] A first information acquisition module, when the high-risk position matches the preset position, is used to acquire the certificate information of the construction personnel corresponding to the high-risk position;

[0072] The second information acquisition module is used to obtain the real information of the relevant certificate;

[0073] A second judgment module is used to judge whether the certificate information matches the real information;

[0074] The information generation module is used to generate normal prompts or abnormal prompts.

[0075] By adopting the above technical solution, the position acquisition module acquires the preset positions of the construction personnel and sends them to the first judgment module connected thereto, the list acquisition module acquires the high-risk position list and sends it to the high-risk position acquisition module connected thereto, the high-risk position acquisition module acquires the high-risk position according to the high-risk position list and sends it to the first judgment module connected thereto, the first judgment module determines whether the high-risk position matches the preset position, and sends the judgment result to the first information acquisition module connected thereto.

[0076] When a high-risk position matches the said position, the first information acquisition module obtains the certificate information of the construction personnel corresponding to the high-risk position and sends it to the second information acquisition module connected to it. Then the second information acquisition module obtains the true information of the relevant certificate and sends it to the second judgment module connected to it, and sends the judgment result to the information generation module. Finally, the information generation module generates a normal prompt or an abnormal prompt based on the result.

[0077] Generate normal prompts to remind construction workers that they can work normally, and abnormal prompts to remind construction workers that they cannot work temporarily. This will enable better monitoring of workers, reduce the possibility of construction workers working with false certificates, and thus reduce the possibility of safety accidents in high-risk positions.

[0078] As a preference, it also includes:

[0079] A first height acquisition module is used to acquire the installation height of the cable;

[0080] A third judgment module is used to judge whether the installation height is greater than a height threshold;

[0081] An alarm prompt module, used for generating an alarm prompt when the erection height is less than the height threshold;

[0082] The second height acquisition module is used to acquire the adjusted height based on the height threshold and the installation height.

[0083] By adopting the above technical solution, the first height acquisition module obtains the installation height of the cable and sends it to the third judgment module connected thereto. The third judgment module determines whether the installation height is greater than the height threshold and sends the judgment result to the alarm prompt module connected thereto.

[0084] When the installation height is less than the height threshold, the alarm prompt module generates an alarm prompt, and the second height acquisition module acquires the installation height and the height threshold, and acquires the adjusted height based on the two. Then, the adjusted height can be acquired according to the height threshold and the installation height, so that it is convenient for construction personnel to adjust the installation height of the cable, which can further improve the safety during the construction process.

[0085] In summary, the present application includes at least one of the following beneficial technical effects:

[0086] 1. Based on the judgment of preset positions and high-risk positions, it can be determined whether the construction worker's position is a high-risk position. If so, the corresponding construction worker's certificate information is obtained. Then, based on whether the certificate information matches the real information, it is determined whether the certificate is a real and valid certificate. In this way, the staff can be better monitored, reducing the possibility of construction workers taking false certificates to work, and thus reducing the possibility of safety accidents in high-risk positions.

[0087] 2. Based on the judgment of the installation height and the height threshold, it can be judged whether the installation of cables will cause safety hazards. If the installation height is less than the height threshold, an alarm prompt is generated to issue an alarm, and the adjustment height is obtained based on the height threshold and the installation height, so that construction personnel can adjust the installation height of the cables, which can further improve the safety during the construction process.

[0088] 3. Determine whether the cable is located outdoors based on the installation image. If it is outdoors, compare the installation height with the first threshold. If it is not outdoors, compare the installation height with the second threshold. This allows the cable to adjust different heights according to different environments, thereby improving applicability and further improving safety during cable installation. BRIEF DESCRIPTION OF THE DRAWINGS

[0089] Figure 1 It is a schematic diagram of the overall process of an engineering measurement data processing method provided by an embodiment of the present application;

[0090] Figure 2 This is a flow chart of steps S11 to S15 before step S8 in one embodiment of the present application;

[0091] Figure 3 This is a flow chart of steps S21 to S24 after step S8 in one embodiment of the present application;

[0092] Figure 4 is a detailed flow chart of step S22 in one embodiment of the present application;

[0093] Figure 5 This is a flow chart of steps S41 to S44 after step S21 in one embodiment of the present application;

[0094] Figure 6 This is a flowchart of steps S51 to S54 before step S21 in one embodiment of the present application;

[0095] Figure 7 This is a flowchart of steps S61 to S64 after step S8 in one embodiment of the present application;

[0096] Figure 8 is a flowchart of steps S71 to S76 after step S8 in one embodiment of the present application;

[0097] Fig. 9 It is an overall structural block diagram of an engineering measurement data processing system provided by an embodiment of the present application;

[0098] Fig.10It is a structural block diagram of obtaining alarm prompts in an engineering measurement data processing system in an embodiment of the present application.

[0099] Description of reference numerals:

[0100] 1. Position acquisition module; 2. List acquisition module; 3. High-risk position acquisition module; 4. First judgment module; 5. First information acquisition module; 6. Second information acquisition module; 7. Second judgment module; 8. Information generation module; 9. First height acquisition module; 10. Third judgment module; 11. Alarm prompt module; 12. Second height acquisition module. DETAILED DESCRIPTION

[0101] The following is combined with Figure 1-10 This application is described in further detail.

[0102] The embodiment of the present application discloses a method for processing engineering measurement data.

[0103] Reference Figure 1 , engineering measurement data processing methods include:

[0104] S1. Obtain the preset positions of construction personnel;

[0105] S2. Obtain a list of high-risk positions;

[0106] S3. Obtaining high-risk positions based on the high-risk position list;

[0107] S4. Determine whether the high-risk positions match the preset positions;

[0108] S5. If yes, obtain the certificate information of the construction personnel corresponding to the high-risk positions;

[0109] S6. Obtain the true information of relevant certificates;

[0110] S7. Determine whether the certificate information matches the real information;

[0111] S8. If yes, generate a normal prompt;

[0112] S9. If not, generate an exception prompt.

[0113] During the construction process, some special jobs require certification. For example, the design and installation of cables is a high-risk job, and the relevant staff must hold the corresponding electrician certificate before they can work. This requirement is to ensure the personal safety of the construction workers on the one hand, and to ensure the safety of the building after the construction is completed on the other.

[0114] First, obtain the preset positions of construction workers. For example, you can obtain the personal information of construction workers by recording fingerprints. The personal information includes the workers' job positions, which are preset positions. Then obtain a list of high-risk positions, and then obtain high-risk positions based on the position list. The position list is a pre-set list that includes high-risk positions in the construction industry, such as: steel structure installation climbing, suspended work, component hoisting and pipeline installation, steel bar binding, power work, etc.

[0115] Then, it is determined whether the high-risk position matches the preset position, and the judgment result is obtained. For example, if the preset position is cable pulling, electrical installation or electrical maintenance, it matches the power work, which proves that the high-risk position matches the preset position. If the judgment result is yes, then the construction personnel need to be certified before they can work. If the judgment result is no, it proves that the relevant construction personnel are not in high-risk positions, and they do not need to be certified before they can work.

[0116] At this time, the certificate information of the construction personnel corresponding to the high-risk positions can be obtained by scanning the certificate to obtain the certificate image, and then extracting the certificate number in the certificate based on the image algorithm. Then the real information of the relevant certificate can be obtained by logging into the corresponding website through the network to obtain all the real numbers of the relevant certificates and storing them locally, and then comparing the certificate number in the image algorithm with the real number stored locally, that is, judging whether the certificate information matches the real information.

[0117] If the certificate number matches one of the real numbers, it proves that the certificate held by the construction worker is a real and valid certificate, and a normal prompt is generated to remind the construction worker that he can enter the construction site to work. If it does not match, it proves that the certificate is likely to be fake, so an abnormal prompt is generated to remind the construction worker that he cannot enter the construction site for the time being.

[0118] By judging the authenticity of the construction workers' credentials, we can better monitor the staff and reduce the possibility of construction workers using false credentials to work. This in turn reduces the possibility of safety accidents due to improper operation by construction workers in high-risk positions, thereby ensuring the safety of construction as much as possible.

[0119] However, in the actual work process, some people will borrow other people's real documents, so Figure 2 In another embodiment, step S8, i.e., generating a normal prompt, further includes the following steps:

[0120] S11. Obtaining facial information of construction workers;

[0121] S12. Obtaining the ID photo based on the ID information;

[0122] S13. Determine whether the facial information matches the ID card portrait;

[0123] S14. If not, an exception prompt is generated;

[0124] S15. If yes, generate a normal prompt.

[0125] Specifically, the facial information of the construction worker is obtained through the camera, and then the ID card portrait is obtained according to the ID card information. That is, the facial image on the ID card picture, that is, the ID card portrait, can be obtained through the scanned ID card picture.

[0126] Then, it is determined whether the facial information matches the ID photo, and whether the construction worker and the owner of the ID are the same person. If they match, it proves that the construction worker and the owner of the ID are the same person, and a normal prompt is generated. If they do not match, it proves that the construction worker is likely to have borrowed someone else's ID, and an abnormal prompt is generated, reminding the construction worker that he cannot enter the construction site temporarily.

[0127] Through facial recognition, the relationship between construction workers and document owners can be further determined, thereby further reducing the possibility of safety hazards and improving safety during the construction process.

[0128] After the construction workers arrive at the construction site, they need to carry out construction work. In order to ensure the safety of the construction process as much as possible, the operation specifications during the construction process are also an indispensable monitoring link. Figure 3 In another embodiment, step S8, i.e. generating a normal prompt, further includes the following steps:

[0129] S21. Get the cable installation height;

[0130] S22. Determine whether the erection height is greater than the height threshold;

[0131] S23. If not, an alarm is generated;

[0132] S24. Obtain an adjusted height based on the height threshold and the erection height.

[0133] During the temporary cable laying process, it is sometimes necessary to raise the cables to ensure the safety of the cables. At the same time, since there are certain requirements in the cable laying process, it is necessary to determine whether the cable laying meets the requirements.

[0134] First, the installation height of the cable is obtained by shooting with a fixed camera or a camera mounted on a drone, and then the installation height of the cable is obtained according to the ratio of the captured image, that is, the installation height. Then, it is determined whether the installation height is greater than the height threshold, that is, whether the installation height meets the height requirement.

[0135] If the installation height is greater than the height threshold, it proves that the cable installation meets the safety requirements; if the installation height is less than the height threshold, it proves that it does not meet the safety requirements. At this time, an alarm is generated to alert the construction personnel, so that the cables can be adjusted in time.

[0136] When the installation height requires a height threshold, the adjustment height is obtained according to the height threshold and the installation height, that is, the value obtained by subtracting the installation height from the height threshold is the adjustment height. Then, the construction personnel can increase the installation height of the cable according to the adjustment height, so that the installation height is greater than or equal to the height threshold. This can reduce the possibility of dangerous accidents caused by insufficient cable height and improve safety during the construction process.

[0137] In the actual construction process, the cable installation height has different requirements according to different environments. Figure 4 In another embodiment, step S22, i.e., determining whether the erection height is greater than the height threshold, comprises the following steps:

[0138] S31. Get the cable installation image;

[0139] S32. Determine whether the cable is located outdoors based on the installation image;

[0140] S33. If yes, determine whether the erection height is greater than the first threshold;

[0141] S34. If not, determine whether the installation height is greater than the second threshold;

[0142] Specifically, the temporary power overhead height has different requirements for indoors and outdoors, so before judging whether the installation height is greater than the height threshold, the overhead environment of the cable needs to be judged. First, the cable installation image is obtained through the camera, that is, the image of the cable installation environment is captured.

[0143] Then, it is determined whether the cable is located outdoors based on the installation image. The determination method may be through manual selection or by comparing the installation image with a preset image based on an image algorithm. For example, the preset image is an image located outdoors, and the image contains a pole for installing the cable. The installation image is compared with the preset image to determine whether there is a pole in the installation image. If so, it proves a match. At this time, it can be determined that the cable installation environment is located outdoors. Otherwise, it can be determined that the cable installation environment is located indoors.

[0144] When it is determined that the cable is located outdoors, it is determined whether the installation height is greater than the first threshold. If not, an alarm is generated. When the cable is located indoors, it is determined whether the installation height is greater than the second threshold. If not, an alarm is generated. Then, the adjustment heights for indoor and outdoor locations can be calculated separately according to the actual situation.

[0145] The height threshold includes a first threshold and a second threshold, and the first threshold is greater than the second threshold. Generally speaking, the indoor height of temporary cables should not be less than 2.5 meters, and the outdoor height should not be less than 5 meters. In particular, when the cables cross the road during installation, the height should not be less than 5 meters. Therefore, the installation height of the cables can be determined according to the actual situation, which can ensure safety as much as possible and reduce the workload of construction workers.

[0146] Reference Figure 5 In actual cable installation, there are also specific requirements for cable supports. Therefore, in another embodiment, after step S21, i.e. obtaining the installation height of the cable, the following steps are also included:

[0147] S41. Get the cable bracket image;

[0148] S42. Obtaining a standard cable pole image;

[0149] S43. Determine whether the stent image matches the standard pole image;

[0150] S44. If not, generate a first warning prompt.

[0151] Specifically, the cable bracket image is obtained in the same manner as the installation image. Then, the standard pole image of the cable is obtained, that is, the standard pole used in the cable installation process. The standard pole image can be a pre-shot and saved image. Then, the bracket image is compared with the standard pole image to determine whether the two match, that is, whether the cable bracket is installed in accordance with the standard installation method.

[0152] Because according to the requirements for temporary overhead power cables, they must not be installed on trees or scaffolding, and the shapes of these two are completely different from those of standard poles. Therefore, when the bracket image does not match the standard pole image, it proves that the temporary installation of the cable is not in accordance with the regulations, and the first warning prompt is generated at this time; and when they match, it proves that the construction safety requirements are met.

[0153] According to the early warning prompts, construction workers can be warned, allowing them to replace and adjust the cable installation brackets in time before construction, so that the cable installation complies with safety regulations, thereby further improving the safety of construction.

[0154] Reference Figure 6 In another embodiment, in order to reduce the possibility of electric shock, the following steps are also included before step S21, i.e. obtaining the installation height of the cable:

[0155] S51. Get image information of the cable;

[0156] S52. Obtaining a bare wire image of the cable;

[0157] S53. Determine whether the image information matches the bare wire image;

[0158] S54. If yes, generate a second warning prompt.

[0159] Exposed cables are a very dangerous situation during the laying and use of lines. Exposed cables can greatly increase the possibility of electric shock. In the actual construction process, some construction workers, in order to save trouble, usually use bare wires to temporarily connect the lines when they cannot find suitable cables. This increases the danger during the construction process.

[0160] At this time, the image information of the cable is obtained by shooting with a camera, and then the pre-stored bare wire image of the cable is obtained. Then, based on the image algorithm, it is determined whether the image information matches the bare wire image, that is, whether there is a bare wire in the image information, and the judgment result is obtained.

[0161] If not, it proves that the construction safety requirements are met; if yes, it proves that the construction workers used bare wires, and a second warning prompt is generated at this time, thereby prompting the construction workers to replace the cables before construction and use standard cables with insulation layers. The above method can further improve the standardization of cable use, thereby improving the safety during the construction process.

[0162] Further, see Figure 7 After step S8, i.e. generating a normal prompt, the following steps are also included:

[0163] S61. Obtaining buried images of cables;

[0164] S62. Obtaining a safety sign image;

[0165] S63. Determine whether the buried image contains a safety sign image;

[0166] S64. If not, generate a third warning prompt.

[0167] Concealed pipes and underground cable lines should be equipped with "direction" signs and safety signs. This is also an important safety link in the cable installation process. It can remind construction workers to prevent the possibility of digging up the cables during the earth-breaking process, thereby improving the safety of construction.

[0168] Specifically, firstly, a buried image of the cable is acquired through a camera, and then a pre-stored safety sign image is acquired. The buried image is compared with the safety sign image to determine whether the buried image contains the safety sign image.

[0169] If yes, it proves that the safety sign is installed, thus meeting the safety construction requirements. Otherwise, it proves that the safety requirements are not met, and a third early warning prompt is generated at this time, which can remind the construction personnel to install the safety sign before construction, thereby improving the safety of construction.

[0170] Reference Figure 8 During the construction process, many people are electrocuted due to improper operation of electric tools. Therefore, in another embodiment, after step S8, i.e. generating a normal prompt, the following steps are also included:

[0171] S71. Obtain the working voltage of the power tool;

[0172] S72. Determine whether the working voltage is less than the safety voltage;

[0173] S73. If not, obtain the wiring image of the power tool;

[0174] S74. Acquire a leakage protection image containing a leakage protector;

[0175] S75. Determine whether the wiring image matches the leakage protection image;

[0176] S76. If not, generate a fourth warning prompt.

[0177] Specifically, the working voltage of the power tool is first obtained by pre-storing the working voltages of different power tools, matching the pre-stored voltages with the corresponding pictures of the power tools and storing the pictures. When the construction worker takes the power tool, he obtains the image of the power tool, and then matches the image with the stored picture. After the match is successful, the corresponding working voltage can be obtained.

[0178] Then determine whether the working voltage is less than the safety voltage, that is, whether the working voltage is less than 36V, that is, whether the construction workers will be electrocuted and endanger their lives. If yes, that is, the working voltage is less than the safety voltage, then it proves that the working voltage of the power tool will not endanger the lives of the construction workers.

[0179] If not, it proves that the working voltage is greater than the safety voltage. If leakage occurs at this time, it is very likely to endanger the lives of construction workers. At this time, the camera is used to obtain the wiring image of the power tool, and the pre-stored leakage protection image containing the leakage protector is obtained. Then the two images are compared to determine whether the wiring image matches the leakage protection image, that is, to determine whether there is a leakage protector in the wiring image.

[0180] If yes, it proves that there is a leakage protector in the wiring image, and the electric tool can protect the construction workers after leakage, thereby improving the safety of the construction process. If no, it proves that there is no leakage protector in the wiring image, and the electric tool cannot protect the construction workers after leakage. At this time, the fourth early warning prompt is generated to remind the construction workers to install the leakage protector in time before construction, which can further improve the safety of the construction process.

[0181] The implementation principle of a method for processing engineering survey data in an embodiment of the present application is as follows: match the preset position with the high-risk position among the high-risk positions. When there is a matching high-risk position, it proves that the construction worker's position is a high-risk position, and the certificate information of the corresponding construction worker is obtained at this time. Then compare the certificate information with the real information to determine whether the two are the same. If they are the same, it proves that the certificate information is a qualified certificate, and a normal prompt is generated at this time to remind the construction personnel that they can work normally. If the results are different, it proves that the certificate may be unqualified, and an abnormal prompt is generated at this time, thereby reminding the construction personnel that they cannot work temporarily. This enables better monitoring of the staff, reduces the possibility of construction personnel taking up their posts with false certificates, and thereby reduces the possibility of safety accidents in high-risk positions.

[0182] The embodiment of the present application also discloses an engineering measurement data processing system, which can achieve the same technical effect as the above-mentioned engineering measurement data processing method.

[0183] Reference Fig. 9 , the engineering measurement data processing system includes:

[0184] Position acquisition module 1, used to obtain the preset positions of construction personnel;

[0185] List acquisition module 2, used to obtain a list of high-risk positions;

[0186] A high-risk position acquisition module 3 is used to acquire high-risk positions based on a high-risk position list;

[0187] The first judgment module 4 is used to judge whether the high-risk position matches the preset position;

[0188] A first information acquisition module 5, when the high-risk position matches the preset position, is used to obtain the certificate information of the construction personnel corresponding to the high-risk position;

[0189] The second information acquisition module 6 is used to obtain the real information of the relevant certificate;

[0190] The second judgment module 7 is used to judge whether the certificate information matches the real information;

[0191] The information generation module 8 is used to generate normal prompts or abnormal prompts.

[0192] Specifically, the position acquisition module 1 acquires the preset positions of the construction personnel and sends them to the first judgment module 4 connected thereto, the list acquisition module 2 acquires the high-risk position list and sends it to the high-risk position acquisition module 3 connected thereto, the high-risk position acquisition module 3 acquires the high-risk position according to the high-risk position list and sends it to the first judgment module 4 connected thereto, the first judgment module 4 determines whether the high-risk position matches the preset position, and sends the judgment result to the first information acquisition module 5 connected thereto.

[0193] When a high-risk position matches the said position, the first information acquisition module 5 obtains the certificate information of the construction personnel corresponding to the high-risk position and sends it to the second information acquisition module 6 connected to it. Then the second information acquisition module 6 obtains the true information of the relevant certificate and sends it to the second judgment module 7 connected to it, and sends the judgment result to the information generation module 8. Finally, the information generation module 8 generates a normal prompt or an abnormal prompt based on the result.

[0194] Generate normal prompts to remind construction workers that they can work normally, and abnormal prompts to remind construction workers that they cannot work temporarily. This will enable better monitoring of workers, reduce the possibility of construction workers working with false certificates, and thus reduce the possibility of safety accidents in high-risk positions.

[0195] Reference Fig.10 In another embodiment, the engineering measurement data processing system further includes:

[0196] A first height acquisition module 9 is used to acquire the installation height of the cable;

[0197] The third judgment module 10 is used to judge whether the erection height is greater than a height threshold;

[0198] An alarm prompt module 11 is used to generate an alarm prompt when the erection height is less than a height threshold;

[0199] The second height acquisition module 12 is used to acquire the adjustment height based on the height threshold and the erection height.

[0200] The first height acquisition module 9 acquires the installation height of the cable and sends it to the third judgment module 10 connected thereto. The third judgment module 10 determines whether the installation height is greater than a height threshold and sends the judgment result to the alarm prompt module 11 connected thereto.

[0201] When the installation height is less than the height threshold, the alarm prompt module 11 generates an alarm prompt, and the second height acquisition module 12 acquires the installation height and the height threshold, and acquires the adjusted height based on the two. Then, the adjusted height can be acquired according to the height threshold and the installation height, so that the construction personnel can adjust the installation height of the cable, which can further improve the safety during the construction process.

[0202] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A method for processing engineering measurement data, characterized in that: include: Get the preset positions of construction personnel; Obtain a list of high-risk positions; Acquire high-risk positions based on the high-risk position list; Determine whether the high-risk position matches the preset position; If yes, then obtain the certificate information of the construction personnel corresponding to the high-risk positions; Obtain the true information of relevant certificates; Determining whether the certificate information matches the real information; If so, a normal prompt is generated; If not, an exception prompt is generated; The generating of the normal prompt further includes: Get the installation height of the cable; Determining whether the installation height is greater than a height threshold; If not, an alarm is generated; An adjusted height is obtained based on the height threshold and the erection height.

2. The processing method according to claim 1, characterized in that: The step of determining whether the erection height is greater than a height threshold comprises the following steps: Obtain cable installation images; Determining whether the cable is located outdoors based on the installation image; If yes, determining whether the erection height is greater than a first threshold; If not, determining whether the installation height is greater than a second threshold; Wherein, the height threshold includes the first threshold and the second threshold; The first threshold is greater than the second threshold.

3. The processing method according to claim 1, characterized in that: The generating of the normal prompt also includes: Obtain facial information of construction workers; Acquire a certificate headshot based on the certificate information; Determine whether the facial information matches the ID card portrait; If not, the abnormal prompt is generated; If so, the normal prompt is generated.

4. The processing method according to claim 1, characterized in that: After obtaining the installation height of the cable, the method further includes: Get the bracket image of the cable; Obtain a standard pole image of the cable; Determining whether the stent image matches the standard rod image; If not, a first warning prompt is generated.

5. The processing method according to claim 1, characterized in that: Before obtaining the installation height of the cable, the method further includes: Get image information of cables; Get the bare wire image of the cable; determining whether the image information matches the bare wire image; If so, a second early warning prompt is generated.

6. The processing method according to claim 1, characterized in that: The generating of the normal prompt further includes: Obtain buried images of cables; Acquire safety sign images; Determining whether the embedded image contains the safety sign image; If not, a third warning prompt is generated.

7. The processing method according to claim 1, characterized in that: The generating of the normal prompt further includes: Get the working voltage of the power tool; Determining whether the operating voltage is less than a safety voltage; If not, obtaining a wiring image of the electric tool; Acquire leakage protection images including leakage protectors; Determining whether the wiring image matches the leakage protection image; If not, a fourth warning prompt is generated.

8. An engineering survey data processing system, characterized in that: include: A position acquisition module (1) is used to acquire the preset positions of construction personnel; List acquisition module (2), used to acquire a list of high-risk positions; A high-risk job acquisition module (3), used for acquiring high-risk jobs based on the high-risk job list; A first judgment module (4), used to judge whether the high-risk position matches the preset position; A first information acquisition module (5), when the high-risk position matches the preset position, is used to acquire the certificate information of the construction personnel corresponding to the high-risk position; The second information acquisition module (6) is used to acquire the real information of the relevant certificate; A second judgment module (7) is used to judge whether the certificate information matches the real information; An information generation module (8), used for generating a normal prompt or an abnormal prompt; A first height acquisition module (9), used for acquiring the installation height of the cable; A third judgment module (10) is used to judge whether the erection height is greater than a height threshold; An alarm prompt module (11) is used to generate an alarm prompt when the erection height is less than the height threshold; The second height acquisition module (12) is used to acquire the adjusted height based on the height threshold and the erection height.

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