A construction safety monitoring method and device based on construction environment
By identifying construction personnel and monitoring environmental conditions, conducting hazard assessments and issuing reminders in combination with the construction time, safety issues under the influence of construction fatigue and environmental impacts in the existing technology are solved, and intelligent monitoring and guarantee of construction safety is achieved.
Patent Information
- Application Number
- CN202410149283.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-02-02
- Publication Date
- 2025-01-14
- Estimated Expiration
- 2044-02-02
AI Technical Summary
The existing construction monitoring technology lacks intelligent and efficient supervision methods and cannot effectively deal with the impact of construction fatigue on construction safety, especially under different environmental conditions.
Construction safety monitoring methods and devices based on the construction environment ensure the safety of construction personnel by identifying construction personnel, monitoring temperature and wind speed, combining construction time, calculating hazard assessment values and publishing reminder information.
It has achieved timely reminders on hazard assessment in the construction environment, effectively protected the personal safety of construction personnel, and provided safety guarantees for outdoor construction.
Smart Images

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Abstract
Description
Technical Field
[0001] The present application relates to the technical field of construction monitoring, and in particular to a construction safety monitoring method and device based on a construction environment. Background Art
[0002] At present, with the gradual increase in urban infrastructure projects, the control of construction safety has always been a very important part of the project implementation process. With the increase in construction projects, construction fatigue during construction has gradually become an important factor affecting construction safety.
[0003] At present, construction fatigue is mostly supervised by manual cooperation with the clock-in system, or relies more on the consciousness of construction workers. However, construction fatigue is not only affected by the construction time, but also by the construction environment. For example, the construction temperature and construction wind speed will increase the physical burden on the construction workers. At present, there is a lack of intelligent and efficient supervision means to ensure construction safety.
[0004] Therefore, in order to meet actual needs, a construction safety monitoring technology based on the construction environment is provided. Summary of the invention
[0005] The present application provides a construction safety monitoring method and device based on the construction environment. The construction hazard assessment is performed based on the outdoor temperature and outdoor wind speed of the construction environment in combination with the construction duration. When it is determined that there is a construction hazard, a reminder message is issued in a timely manner, thereby effectively protecting the personal safety of construction workers and providing protection for outdoor construction safety.
[0006] In a first aspect, the present application provides a construction safety monitoring method based on a construction environment, the method comprising the following steps:
[0007] Using a construction worker identification device preset on the standing construction board, it is identified whether there is a connection request signal sent by a safety helmet worn on the worker's head within a first identification range. If so, it is determined that the worker is standing on the standing construction board to perform construction;
[0008] When it is determined that the worker is standing on the standing construction board to perform construction, monitoring is performed based on a temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges;
[0009] When it is determined that the worker is standing on the standing construction board to perform construction, monitoring is performed based on a wind speed monitoring device disposed on the standing construction board to obtain construction wind speed data;
[0010] Based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with the preset unit time construction hazard setting values corresponding to different construction preset temperature ranges, a corresponding first construction hazard assessment value is calculated;
[0011] Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, a corresponding second construction risk assessment value is calculated;
[0012] When the first construction risk assessment value is greater than the corresponding first construction risk assessment threshold value, or the second construction risk assessment value is greater than the corresponding second construction risk assessment threshold value, or the sum of the first construction risk assessment value and the second construction risk assessment value is greater than the corresponding total construction risk assessment threshold value, then a worker construction safety reminder message is issued; wherein,
[0013] The standing construction board is arranged outside the construction building to provide a construction work site for workers.
[0014] Further, a construction worker identification device preset on the standing construction board is used to identify whether there is a connection request signal sent by a safety helmet worn on the worker's head within the first identification range. If so, it is determined that the worker is standing on the standing construction board to perform construction, including the following steps:
[0015] The construction personnel identification device sends a first identification signal within the first identification range according to a first preset signal sending frequency;
[0016] When the worker's helmet enters the first identification range of the construction personnel identification device, the first identification signal receiving module of the helmet receives the first identification signal and feeds back the connection request signal to the construction personnel identification device;
[0017] The construction worker identification device identifies and receives the connection request signal, and determines that the worker is standing on the standing construction board to perform construction.
[0018] Further, when it is determined that the worker is standing on the standing construction board to perform construction, monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges, including the following steps:
[0019] Monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet, the construction sub-times corresponding to the different preset temperature ranges and the average construction temperature under the construction sub-times are recorded, and the construction temperature information belonging to different preset temperature ranges is integrated to obtain.
[0020] Further, when it is determined that the worker is standing on the standing construction board to perform construction, monitoring is performed based on a wind speed monitoring device set on the standing construction board to obtain construction wind speed data, including the following steps:
[0021] Based on the wind speed monitoring device set on the standing construction board, monitoring is performed to obtain a corresponding construction wind speed curve;
[0022] The latest data in the construction wind speed curve is recorded as the construction wind speed data.
[0023] Further, based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with preset unit time construction hazard setting values corresponding to different construction preset temperature ranges, a corresponding first construction hazard assessment value is calculated, including the following steps:
[0024] Based on the average construction temperature in the construction temperature information, obtaining the unit time construction risk setting value corresponding to the matching preset construction temperature range;
[0025] Based on the construction sub-duration in the construction temperature information and the unit time construction hazard setting value, a first construction hazard sub-assessment value corresponding to the construction temperature information is calculated;
[0026] The first construction hazard sub-assessment value corresponding to each of the construction temperature information is counted to obtain the corresponding first construction hazard assessment value; wherein,
[0027] Different preset construction temperature ranges correspond to different construction risk setting values per unit time;
[0028] The interval differences of each of the preset construction temperature ranges are the same, and the larger the middle value of each of the preset construction temperature ranges is, the larger the value of the unit time construction risk setting value is.
[0029] Further, based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, a corresponding second construction risk assessment value is calculated, and the method includes the following steps:
[0030] Dividing the value of the construction wind speed data by the value of the construction wind speed safety threshold value to obtain a wind speed fatigue proportional coefficient;
[0031] The wind speed fatigue proportional coefficient is multiplied by the wind speed fatigue impact setting value to obtain the second construction risk assessment value.
[0032] Furthermore, a plurality of construction wind speed safety thresholds having different values and arranged in order of magnitude are preset;
[0033] Each of the construction wind speed safety thresholds is configured with a corresponding wind speed fatigue impact setting value;
[0034] The larger the value of the construction wind speed safety threshold is, the larger the value of the corresponding wind speed fatigue impact setting value is;
[0035] Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, a corresponding second construction risk assessment value is calculated, and the method comprises the following steps:
[0036] Compare the value of the construction wind speed data with each of the construction wind speed safety thresholds, and obtain the wind speed fatigue impact setting value corresponding to the construction wind speed safety threshold that is closest to and not greater than the value, and record it as the matching wind speed fatigue impact setting value;
[0037] Dividing the value of the construction wind speed data by the value of the matching wind speed fatigue influence setting value to obtain a wind speed fatigue proportional coefficient;
[0038] The wind speed fatigue proportional coefficient is multiplied by the wind speed fatigue impact setting value corresponding to the matching wind speed fatigue impact setting value to obtain the second construction hazard assessment value.
[0039] Furthermore, the method further comprises the following steps:
[0040] When it is determined that the person is standing on the standing construction board to perform construction, the construction personnel identification device identifies the worker identity information corresponding to the safety helmet and obtains the worker's age data information, height data information and weight data information.
[0041] Furthermore, the method further comprises the following steps:
[0042] Based on the age data information and preset age standard data, obtaining a corresponding age influence coefficient;
[0043] Based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with the preset unit time construction hazard setting values corresponding to different construction preset temperature ranges and the age influence coefficient, the corresponding first construction hazard assessment value is calculated.
[0044] Furthermore, the method further comprises the following steps:
[0045] Based on the height data information and preset height standard data, obtaining a corresponding height influence coefficient;
[0046] Based on the weight data information and the preset weight standard data, obtaining a corresponding weight influence coefficient;
[0047] Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue influence setting value, combined with the corresponding height influence coefficient and the weight influence coefficient, the corresponding second construction hazard assessment value is calculated.
[0048] Furthermore, the method further comprises the following steps:
[0049] When it is determined that the worker is standing on the standing construction board to perform construction, the light initial measurement module on the standing construction board monitors the light intensity of the construction environment to obtain light intensity data;
[0050] When the light intensity data is greater than a preset light intensity data threshold, issuing temperature monitoring start information;
[0051] In response to the temperature monitoring start information, monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges.
[0052] Furthermore, the method further comprises the following steps:
[0053] When it is determined that the worker is standing on the standing construction board to perform construction, the wind speed initial measurement module on the standing construction board monitors the wind speed value of the construction environment to obtain wind speed value data;
[0054] When the wind speed numerical data is greater than a preset wind speed numerical data threshold, issuing wind speed monitoring start information;
[0055] In response to the wind speed monitoring start information, monitoring is performed based on the wind speed monitoring device set on the standing construction board to obtain construction wind speed data.
[0056] Furthermore, the method further comprises the following steps:
[0057] In response to the worker construction safety reminder information, extract the corresponding sum of the first construction risk assessment value and the second construction risk assessment value, and record it as a construction safety reminder parameter;
[0058] Based on the construction safety reminder parameter and a plurality of preset construction safety reminder parameter intervals, a matching construction safety reminder parameter interval is selected to obtain a corresponding light brightness color;
[0059] Based on the construction safety reminder parameter, obtaining a light flashing frequency;
[0060] Based on the light brightness color and the light flashing frequency, the warning bracelet worn on the worker's arm is controlled to perform a corresponding flashing action; wherein,
[0061] The numerical ranges of different construction safety reminder parameter ranges do not overlap, and different construction safety reminder parameter ranges correspond to different light brightness colors.
[0062] Further, the wind speed monitoring device includes a wind speed monitoring sensor module, a wind speed monitoring telescopic connecting rod, a wind speed monitoring rotating component and a wind speed monitoring control module;
[0063] The wind speed monitoring control module is embedded in the wind speed monitoring rotating component, and the wind speed monitoring rotating component is connected to the wind speed monitoring sensor module, the wind speed monitoring telescopic connecting rod and the wind speed monitoring rotating component by signal;
[0064] The wind speed monitoring rotating component is arranged on the side wall of the standing construction plate located outside the construction building, and the wind speed monitoring telescopic connecting rod and the wind speed monitoring sensor module are both located outside the construction building;
[0065] Based on the wind speed monitoring device set on the standing construction board, monitoring is performed to obtain construction wind speed data, including the following steps:
[0066] Based on the wind speed monitoring control module, the wind speed monitoring rotating component is controlled to rotate, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate at a first preset speed;
[0067] Based on the wind speed monitoring control module, the wind speed monitoring telescopic connecting rod is controlled to telescope within a first telescopic length range at a first preset telescopic speed;
[0068] During the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component, the maximum wind speed monitored by the wind speed monitoring sensor module is used as the construction wind speed data.
[0069] Furthermore, the wind speed monitoring device further comprises a wind speed reference monitoring module, which is signal-connected to the wind speed monitoring control module;
[0070] The wind speed reference monitoring module is arranged on the side wall of the standing construction board located outside the construction building.
[0071] The wind speed monitoring process also includes the following steps:
[0072] Perform wind speed monitoring based on the wind speed reference monitoring module to obtain reference wind speed data;
[0073] Obtaining a first adjusted rotational speed based on the reference wind speed data, the preset initial wind speed data and the first preset rotational speed;
[0074] Based on the reference wind speed data, the preset initial wind speed data and the first preset telescopic speed, obtaining a first adjusted telescopic speed;
[0075] Based on the reference wind speed data, the preset initial wind speed data and the first telescopic length range, obtaining a first adjusted telescopic length range;
[0076] Based on the wind speed monitoring control module, the wind speed monitoring rotating component is controlled to rotate, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate according to the first adjusted speed;
[0077] Based on the wind speed monitoring control module, the wind speed monitoring telescopic connecting rod is controlled to telescope within the first adjusted telescopic length range according to the first adjusted telescopic speed;
[0078] During the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component, the maximum wind speed monitored by the wind speed monitoring sensor module is used as the construction wind speed data.
[0079] In a second aspect, the present application provides a construction safety monitoring device based on a construction environment, the device comprising:
[0080] A construction determination module, which is used to use a construction personnel identification device preset on the standing construction board to identify whether there is a connection request signal sent by a safety helmet worn on the worker's head within a first identification range, and if so, determine that the worker is standing on the standing construction board to perform construction;
[0081] A construction temperature monitoring module, which is used to monitor the temperature of the worker standing on the standing construction board to obtain construction temperature information belonging to different preset temperature ranges based on the temperature monitoring device configured on the worker's safety helmet when it is determined that the worker is standing on the standing construction board to perform construction;
[0082] A construction wind speed monitoring module, which is used to monitor and obtain construction wind speed data based on a wind speed monitoring device set on the standing construction board when it is determined that the worker is standing on the standing construction board to perform construction;
[0083] A first construction risk assessment module, which is used to calculate and obtain a corresponding first construction risk assessment value based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with preset unit time construction risk setting values corresponding to different construction preset temperature ranges;
[0084] A second construction risk assessment module, which is used to calculate and obtain a corresponding second construction risk assessment value based on the construction wind speed data, a preset construction wind speed safety threshold, and a wind speed fatigue impact setting value;
[0085] A construction safety reminder module is used to issue a worker construction safety reminder message when the first construction risk assessment value is greater than the corresponding first construction risk assessment threshold value, or the second construction risk assessment value is greater than the corresponding second construction risk assessment threshold value, or the sum of the first construction risk assessment value and the second construction risk assessment value is greater than the corresponding construction risk assessment total threshold value; wherein,
[0086] The standing construction board is arranged outside the construction building to provide a construction work site for workers.
[0087] Furthermore, the construction determination module is further used to control the construction personnel identification device to send a first identification signal within the first identification range according to a first preset signal sending frequency;
[0088] The construction determination module is also used to control the construction personnel identification device to receive the connection request signal fed back by the first identification signal receiving module of the safety helmet based on the first identification signal when the safety helmet of the worker enters the first identification range of the construction personnel identification device;
[0089] The construction determination module is also used to control the construction personnel identification device to identify and receive the connection request signal, and determine that the worker is standing on the standing construction board to perform construction.
[0090] Furthermore, the construction temperature monitoring module is also used to control the temperature monitoring device configured on the worker's safety helmet for monitoring, record the construction sub-times corresponding to the different preset temperature ranges and the average construction temperature under the construction sub-times, and integrate to obtain the construction temperature information belonging to different preset temperature ranges.
[0091] Furthermore, the construction wind speed monitoring module is also used to control the wind speed monitoring device set on the standing construction board to monitor and obtain the corresponding construction wind speed curve;
[0092] The construction wind speed monitoring module is also used to record the latest data in the construction wind speed curve as the construction wind speed data.
[0093] Furthermore, the first construction risk assessment module is further used to obtain the unit time construction risk setting value corresponding to the matching construction preset temperature range based on the construction average temperature in the construction temperature information;
[0094] The first construction risk assessment module is further used to calculate and obtain a first construction risk sub-assessment value corresponding to the construction temperature information based on the construction sub-duration in the construction temperature information and the unit time construction risk setting value;
[0095] The first construction risk assessment module is also used to count the first construction risk sub-assessment values corresponding to each of the construction temperature information to obtain the corresponding first construction risk assessment value; wherein,
[0096] Different preset construction temperature ranges correspond to different construction risk setting values per unit time;
[0097] The interval differences of each of the preset construction temperature ranges are the same, and the larger the middle value of each of the preset construction temperature ranges is, the larger the value of the unit time construction risk setting value is.
[0098] Furthermore, the second construction risk assessment module is further used to divide the value of the construction wind speed data by the value of the construction wind speed safety threshold to obtain a wind speed fatigue proportional coefficient;
[0099] The second construction risk assessment module is further used to multiply the wind speed fatigue proportional coefficient by the wind speed fatigue impact setting value to obtain the second construction risk assessment value.
[0100] Furthermore, a plurality of construction wind speed safety thresholds having different values and arranged in order of magnitude are preset;
[0101] Each of the construction wind speed safety thresholds is configured with a corresponding wind speed fatigue impact setting value;
[0102] The larger the value of the construction wind speed safety threshold is, the larger the value of the corresponding wind speed fatigue impact setting value is;
[0103] The second construction risk assessment module is further used to compare the value of the construction wind speed data with each of the construction wind speed safety thresholds, and obtain the wind speed fatigue impact setting value corresponding to the construction wind speed safety threshold whose value is closest to and not greater than that of the construction wind speed safety threshold, which is recorded as the matching wind speed fatigue impact setting value;
[0104] The second construction risk assessment module is further used to divide the value of the construction wind speed data by the value of the matching wind speed fatigue influence setting value to obtain a wind speed fatigue proportional coefficient;
[0105] The second construction hazard assessment module is further used to multiply the wind speed fatigue proportional coefficient by the wind speed fatigue impact setting value corresponding to the matching wind speed fatigue impact setting value to obtain the second construction hazard assessment value.
[0106] Furthermore, the device also includes:
[0107] The worker biometric information extraction module is used to control the construction personnel identification device to identify the worker identity information corresponding to the safety helmet when it is determined that the worker is standing on the standing construction board to perform construction, and obtain the worker's age data information, height data information and weight data information.
[0108] Furthermore, the device also includes:
[0109] An age influence coefficient calculation module, which is used to obtain a corresponding age influence coefficient based on the age data information and preset age standard data;
[0110] The first construction hazard assessment module is also used to calculate the corresponding first construction hazard assessment value based on the construction sub-duration and the corresponding average construction temperature in each construction temperature information, combined with the preset unit time construction hazard setting value corresponding to different construction preset temperature ranges and the age influence coefficient.
[0111] Furthermore, the device also includes:
[0112] A height influence coefficient calculation module, which is used to obtain the corresponding height influence coefficient based on the height data information and preset height standard data;
[0113] A weight influence coefficient calculation module, which is used to obtain the corresponding weight influence coefficient based on the weight data information and preset weight standard data;
[0114] The second construction hazard assessment module is also used to calculate a corresponding second construction hazard assessment value based on the construction wind speed data, a preset construction wind speed safety threshold and a wind speed fatigue impact setting value, combined with the corresponding height impact coefficient and the weight impact coefficient.
[0115] Furthermore, the device also includes:
[0116] A temperature monitoring start module, which is used to control the light initial measurement module on the standing construction board to monitor the light intensity of the construction environment and obtain light intensity data when it is determined that the worker is standing on the standing construction board to perform construction;
[0117] The temperature monitoring start module is also used to issue temperature monitoring start information when the light intensity data is greater than a preset light intensity data threshold;
[0118] The construction temperature monitoring module is also used to respond to the temperature monitoring start information, monitor based on the temperature monitoring device configured on the worker's safety helmet, and obtain construction temperature information belonging to different preset temperature ranges.
[0119] Furthermore, the device comprises:
[0120] A wind speed monitoring start module, which is used for, when it is determined that the worker is standing on the standing construction board to perform construction, the wind speed initial measurement module on the standing construction board monitors the wind speed value of the construction environment to obtain wind speed value data;
[0121] The wind speed monitoring start module is also used to issue wind speed monitoring start information when the wind speed numerical data is greater than a preset wind speed numerical data threshold;
[0122] The construction wind speed monitoring module responds to the wind speed monitoring start information, monitors based on the wind speed monitoring device set on the standing construction board, and obtains construction wind speed data.
[0123] Furthermore, the construction safety reminder module is further used to respond to the worker's construction safety reminder information, extract the corresponding sum of the first construction risk assessment value and the second construction risk assessment value, and record it as a construction safety reminder parameter;
[0124] The construction safety reminder module is further used to select a matching construction safety reminder parameter interval based on the construction safety reminder parameter and a plurality of preset construction safety reminder parameter intervals to obtain a corresponding light brightness color;
[0125] The construction safety reminder module is further used to obtain a light flashing frequency based on the construction safety reminder parameter;
[0126] The construction safety reminder module is also used to control the warning bracelet worn on the worker's arm to perform corresponding flashing actions based on the light brightness color and the light flashing frequency; wherein,
[0127] The numerical ranges of different construction safety reminder parameter ranges do not overlap, and different construction safety reminder parameter ranges correspond to different light brightness colors.
[0128] Further, the wind speed monitoring device includes a wind speed monitoring sensor module, a wind speed monitoring telescopic connecting rod, a wind speed monitoring rotating component and a wind speed monitoring control module;
[0129] The wind speed monitoring control module is embedded in the wind speed monitoring rotating component, and the wind speed monitoring rotating component is connected to the wind speed monitoring sensor module, the wind speed monitoring telescopic connecting rod and the wind speed monitoring rotating component by signal;
[0130] The wind speed monitoring rotating component is arranged on the side wall of the standing construction plate located outside the construction building, and the wind speed monitoring telescopic connecting rod and the wind speed monitoring sensor module are both located outside the construction building;
[0131] The construction wind speed monitoring module is also used to control the wind speed monitoring rotating component to rotate based on the wind speed monitoring control module, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate at a first preset speed;
[0132] The construction wind speed monitoring module is also used to control the wind speed monitoring telescopic connecting rod to telescope within a first telescopic length range at a first preset telescopic speed based on the wind speed monitoring control module;
[0133] The construction wind speed monitoring module is also used to use the maximum wind speed monitored by the wind speed monitoring sensor module as the construction wind speed data during the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component.
[0134] Furthermore, the wind speed monitoring device further comprises a wind speed reference monitoring module, which is signal-connected to the wind speed monitoring control module;
[0135] The wind speed reference monitoring module is arranged on the side wall of the standing construction board located outside the construction building.
[0136] The construction wind speed monitoring module is also used to perform wind speed monitoring based on the wind speed reference monitoring module to obtain reference wind speed data;
[0137] The construction wind speed monitoring module is further used to obtain a first adjusted speed based on the reference wind speed data, the preset initial wind speed data and the first preset speed;
[0138] The construction wind speed monitoring module is further used to obtain a first adjusted telescopic speed based on the reference wind speed data, the preset initial wind speed data and the first preset telescopic speed;
[0139] The construction wind speed monitoring module is further used to obtain a first adjusted telescopic length range based on the reference wind speed data, the preset initial wind speed data and the first telescopic length range;
[0140] The construction wind speed monitoring module is also used to control the wind speed monitoring rotating component to rotate based on the wind speed monitoring control module, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate according to the first adjusted speed;
[0141] The construction wind speed monitoring module is further used to control the wind speed monitoring telescopic connecting rod to telescope within the first adjusted telescopic length range at the first adjusted telescopic speed based on the wind speed monitoring control module;
[0142] The construction wind speed monitoring module is also used to use the maximum wind speed monitored by the wind speed monitoring sensor module as the construction wind speed data during the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component.
[0143] The beneficial effects of the technical solution provided by this application include:
[0144] This application conducts construction hazard assessment based on the outdoor temperature and outdoor wind speed of the construction environment, combined with the construction duration, and promptly issues reminder information when construction hazards are determined to exist, effectively protecting the personal safety of construction workers and providing guarantees for outdoor construction safety. BRIEF DESCRIPTION OF THE DRAWINGS
[0145] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.
[0146] Figure 1 A flowchart of the steps of the construction safety monitoring method based on the construction environment provided in the embodiments of the present application;
[0147] Figure 2 It is a schematic diagram of the assembly of a standing construction board and a wind speed detection device in a construction safety monitoring method based on a construction environment provided in an embodiment of the present application;
[0148] Figure 3 A structural block diagram of a construction safety monitoring device based on a construction environment provided in an embodiment of the present application;
[0149] In the figure: 1. standing construction board; 2. wind speed detection device; 20. wind speed detection sensor module; 21. wind speed detection telescopic connecting rod; 22. wind speed detection rotating part; 23. wind speed detection control module; 24. wind speed reference detection module. DETAILED DESCRIPTION
[0150] In order to make the purpose, technical solution and advantages of the embodiments of the present application clearer, the technical solution in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of this application.
[0151] The embodiments of the present application are further described in detail below in conjunction with the accompanying drawings.
[0152] The embodiments of the present application provide a construction safety monitoring method and device based on the construction environment. The construction hazard assessment is performed based on the outdoor temperature and outdoor wind speed of the construction environment in combination with the construction duration. When it is determined that there is a construction hazard, a reminder message is issued in a timely manner, thereby effectively protecting the personal safety of construction workers and providing protection for outdoor construction safety.
[0153] In order to achieve the above technical effects, the overall idea of this application is as follows:
[0154] A construction safety monitoring method based on a construction environment, the method comprising the following steps:
[0155] S1. Using a construction worker identification device preset on the standing construction board, identify whether there is a connection request signal sent by a safety helmet worn on the worker's head within a first identification range. If so, it is determined that the worker is standing on the standing construction board to perform construction;
[0156] S2. When it is determined that a worker is standing on a standing construction board to perform construction, monitoring is performed based on a temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges;
[0157] S3. When it is determined that the worker is standing on the standing construction board for construction, monitoring is performed based on a wind speed monitoring device set on the standing construction board to obtain construction wind speed data;
[0158] S4, based on the construction sub-duration in each construction temperature information and the corresponding average construction temperature, combined with the preset unit time construction hazard setting values corresponding to different construction preset temperature ranges, calculate and obtain the corresponding first construction hazard assessment value;
[0159] S5. Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, calculate and obtain the corresponding second construction risk assessment value;
[0160] S6. When the first construction risk assessment value is greater than the corresponding first construction risk assessment threshold value, or the second construction risk assessment value is greater than the corresponding second construction risk assessment threshold value, or the sum of the first construction risk assessment value and the second construction risk assessment value is greater than the corresponding total construction risk assessment threshold value, then a worker construction safety reminder message is issued; wherein,
[0161] The standing construction board is set outside the construction building to provide a construction work site for workers.
[0162] The embodiments of the present application are further described in detail below in conjunction with the accompanying drawings.
[0163] First, see Figures 1-2 As shown, the embodiment of the present application provides a construction safety monitoring method based on a construction environment, the method comprising the following steps:
[0164] S1. Using a construction worker identification device preset on the standing construction board, identify whether there is a connection request signal sent by a safety helmet worn on the worker's head within a first identification range. If so, it is determined that the worker is standing on the standing construction board to perform construction;
[0165] S2. When it is determined that a worker is standing on a standing construction board to perform construction, monitoring is performed based on a temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges;
[0166] S3. When it is determined that the worker is standing on the standing construction board for construction, monitoring is performed based on a wind speed monitoring device set on the standing construction board to obtain construction wind speed data;
[0167] S4, based on the construction sub-duration in each construction temperature information and the corresponding average construction temperature, combined with the preset unit time construction hazard setting values corresponding to different construction preset temperature ranges, calculate and obtain the corresponding first construction hazard assessment value;
[0168] S5. Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, calculate and obtain the corresponding second construction risk assessment value;
[0169] S6. When the first construction risk assessment value is greater than the corresponding first construction risk assessment threshold value, or the second construction risk assessment value is greater than the corresponding second construction risk assessment threshold value, or the sum of the first construction risk assessment value and the second construction risk assessment value is greater than the corresponding total construction risk assessment threshold value, then a worker construction safety reminder message is issued; wherein,
[0170] The standing construction board is set outside the construction building to provide a construction work site for workers.
[0171] It should be noted that corresponding standing construction boards are arranged in the construction area of the construction building, and the technical solution of the embodiment of the present application is more suitable for outdoor construction environment, that is, the standing construction boards are outside the construction building to perform safety monitoring for external construction.
[0172] In an embodiment of the present application, a construction hazard assessment is performed based on the outdoor temperature and outdoor wind speed of the construction environment in combination with the construction duration, and a reminder message is issued in a timely manner when a construction hazard is determined to exist, thereby effectively protecting the personal safety of construction workers and providing guarantees for outdoor construction safety.
[0173] Further, a construction worker identification device preset on the standing construction board is used to identify whether there is a connection request signal sent by a safety helmet worn on the worker's head within the first identification range. If so, it is determined that the worker is standing on the standing construction board to perform construction, including the following steps:
[0174] The construction personnel identification device sends a first identification signal within the first identification range according to a first preset signal sending frequency;
[0175] When the worker's helmet enters the first identification range of the construction personnel identification device, the first identification signal receiving module of the helmet receives the first identification signal and feeds back the connection request signal to the construction personnel identification device;
[0176] The construction worker identification device identifies and receives the connection request signal, and determines that the worker is standing on the standing construction board to perform construction.
[0177] It should be noted that the first recognition range can be set according to actual conditions to avoid the situation where a worker passes by the standing construction board but completes the connection;
[0178] If necessary, it can be set that the worker will enter the first identification range only when he is at the center of the standing construction board or enters the standing construction board.
[0179] Further, when it is determined that the worker is standing on the standing construction board to perform construction, monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges, including the following steps:
[0180] Monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet, the construction sub-times corresponding to the different preset temperature ranges and the average construction temperature under the construction sub-times are recorded, and the construction temperature information belonging to different preset temperature ranges is integrated to obtain.
[0181] It should be noted that in outdoor construction situations, different outdoor temperatures will cause different fatigue or construction difficulties for the same worker. Therefore, experiments or simulations will be conducted to divide the preset temperature ranges into different ones. Each preset temperature range corresponds to a different degree of dangerous impact, that is, different construction preset temperature ranges correspond to different unit time construction hazard setting values, so as to distinguish the impact of different construction temperatures and enable more accurate evaluation.
[0182] Further, when it is determined that the worker is standing on the standing construction board to perform construction, monitoring is performed based on a wind speed monitoring device set on the standing construction board to obtain construction wind speed data, including the following steps:
[0183] Based on the wind speed monitoring device set on the standing construction board, monitoring is performed to obtain a corresponding construction wind speed curve;
[0184] The latest data in the construction wind speed curve is recorded as the construction wind speed data.
[0185] It should be noted that in outdoor construction situations, different outdoor wind speeds will cause different fatigue or construction difficulties for the same worker. In order to resist the wind speed, the worker needs additional physical strength to maintain balance. Therefore, in order to ensure the stability of the evaluation, the latest data in the construction wind speed curve is recorded as the construction wind speed data.
[0186] Further, based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with preset unit time construction hazard setting values corresponding to different construction preset temperature ranges, a corresponding first construction hazard assessment value is calculated, including the following steps:
[0187] Based on the average construction temperature in the construction temperature information, obtaining the unit time construction risk setting value corresponding to the matching preset construction temperature range;
[0188] Based on the construction sub-duration in the construction temperature information and the unit time construction hazard setting value, a first construction hazard sub-assessment value corresponding to the construction temperature information is calculated;
[0189] The first construction hazard sub-assessment value corresponding to each of the construction temperature information is counted to obtain the corresponding first construction hazard assessment value; wherein,
[0190] Different preset construction temperature ranges correspond to different construction risk setting values per unit time;
[0191] The interval differences of each of the preset construction temperature ranges are the same, and the larger the middle value of each of the preset construction temperature ranges is, the larger the value of the unit time construction risk setting value is.
[0192] Taking the construction temperature information as an example, the first construction risk sub-assessment value corresponding thereto is calculated using the first construction risk sub-assessment value calculation formula, which is as follows:
[0193] f 第一 =k 第一 *t 第二 ;in,
[0194] f 第一 is the first construction hazard sub-assessment value, k 第一 The unit time construction risk setting value corresponding to the construction preset temperature range matched by the construction average temperature in the construction temperature information, t 第一 It is the construction sub-duration in the construction temperature information.
[0195] The first construction risk assessment value is obtained by summing up the first construction risk sub-assessment values corresponding to the plurality of construction temperature information.
[0196] It should be noted that, during the pre-setting process, multiple different construction preset temperature ranges will be set, and based on experimental simulation, according to the impact of different temperatures on the degree of construction fatigue or construction danger, corresponding unit time construction danger setting values will be set for different construction preset temperature ranges, that is, the construction fatigue setting value corresponding to each second, each minute or each hour.
[0197] It should be noted that since the interval differences of each of the construction preset temperature ranges are the same, the larger the middle value of each of the construction preset temperature ranges, the larger the temperature upper limit and lower limit values corresponding to the construction preset temperature range. The higher the construction temperature, the greater the dangerous impact on the construction. Therefore, the larger the value of the construction hazard setting value per unit time.
[0198] Further, based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, a corresponding second construction risk assessment value is calculated, and the method includes the following steps:
[0199] Dividing the value of the construction wind speed data by the value of the construction wind speed safety threshold value to obtain a wind speed fatigue proportional coefficient;
[0200] The wind speed fatigue proportional coefficient is multiplied by the wind speed fatigue impact setting value to obtain the second construction risk assessment value.
[0201] Furthermore, a plurality of construction wind speed safety thresholds having different values and arranged in order of magnitude are preset;
[0202] Each of the construction wind speed safety thresholds is configured with a corresponding wind speed fatigue impact setting value;
[0203] The larger the value of the construction wind speed safety threshold is, the larger the value of the corresponding wind speed fatigue impact setting value is;
[0204] Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, a corresponding second construction risk assessment value is calculated, and the method comprises the following steps:
[0205] Compare the value of the construction wind speed data with each of the construction wind speed safety thresholds, and obtain the wind speed fatigue impact setting value corresponding to the construction wind speed safety threshold that is closest to and not greater than the value, and record it as the matching wind speed fatigue impact setting value;
[0206] Dividing the value of the construction wind speed data by the value of the matching wind speed fatigue influence setting value to obtain a wind speed fatigue proportional coefficient;
[0207] The wind speed fatigue proportional coefficient is multiplied by the wind speed fatigue impact setting value corresponding to the matching wind speed fatigue impact setting value to obtain the second construction hazard assessment value.
[0208] For comparing the value of the construction wind speed data with each of the construction wind speed safety thresholds, obtaining the wind speed fatigue impact setting value corresponding to the construction wind speed safety threshold that is closest to and not greater than the value, recorded as the matching wind speed fatigue impact setting value, an example is given:
[0209] For example, the value of the construction wind speed data is 10, and the values of the construction wind speed safety thresholds are 3, 6, 9, 12, 15, and 20 respectively;
[0210] The wind speed fatigue impact setting value corresponding to the construction wind speed safety threshold value that is closest to and not greater than is 12, and the second construction risk assessment value at this time is 12.
[0211] Furthermore, the method further comprises the following steps:
[0212] When it is determined that the person is standing on the standing construction board to perform construction, the construction personnel identification device identifies the worker identity information corresponding to the safety helmet and obtains the worker's age data information, height data information and weight data information.
[0213] Furthermore, the method further comprises the following steps:
[0214] Based on the age data information and preset age standard data, obtaining a corresponding age influence coefficient;
[0215] Based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with the preset unit time construction hazard setting values corresponding to different construction preset temperature ranges and the age influence coefficient, the corresponding first construction hazard assessment value is calculated.
[0216] Specifically, the value of the age data information is divided by the value of the preset age standard data, and the result obtained is the value of the corresponding age influence coefficient.
[0217] Taking the construction temperature information as an example, the first construction risk sub-assessment value corresponding thereto is calculated using the first construction risk sub-assessment value calculation formula, which is as follows:
[0218] f 第一 =k 第一 *t 第一 *age; among them,
[0219] f 第一 is the first construction hazard sub-assessment value, k第一 The unit time construction risk setting value corresponding to the construction preset temperature range matched by the construction average temperature in the construction temperature information, t 第一 is the construction sub-duration in the construction temperature information, and age is the age influence coefficient.
[0220] Furthermore, the method further comprises the following steps:
[0221] Based on the height data information and preset height standard data, obtaining a corresponding height influence coefficient;
[0222] Based on the weight data information and the preset weight standard data, obtaining a corresponding weight influence coefficient;
[0223] Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue influence setting value, combined with the corresponding height influence coefficient and the weight influence coefficient, the corresponding second construction hazard assessment value is calculated.
[0224] Specifically, the value of the height data information is divided by the value of the preset height standard data, and the result obtained is the value of the corresponding height influence coefficient;
[0225] The value of the weight data information is divided by the value of the preset weight standard data, and the result obtained is the value of the corresponding weight influence coefficient.
[0226] Taking the construction wind speed data as an example, the corresponding second construction risk assessment value is calculated using the second construction risk assessment value calculation formula, which is as follows:
[0227] in,
[0228] f 第二 is the second construction hazard sub-assessment value, v 施工 is the construction wind speed data, v 施工安全阈值 is the construction wind speed safety threshold, c 风速疲劳影响 is the wind speed fatigue influence setting value, h is the height influence coefficient, and w is the weight influence coefficient.
[0229] The calculation formula for the second construction risk assessment value considering the influence of height and weight is as follows
[0230]
[0231] This formula has certain errors because it does not take the effects of height and weight into account.
[0232] Furthermore, the method further comprises the following steps:
[0233] When it is determined that the worker is standing on the standing construction board to perform construction, the initial illumination measurement module on the standing construction board monitors the illumination intensity of the construction environment to obtain illumination intensity data;
[0234] When the light intensity data is greater than a preset light intensity data threshold, issuing temperature monitoring start information;
[0235] In response to the temperature monitoring start information, monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges.
[0236] It should be noted that by making a preliminary judgment on the light intensity, it can achieve a certain degree of energy saving, avoid constant temperature monitoring, and avoid unnecessary monitoring work.
[0237] Furthermore, the method further comprises the following steps:
[0238] When it is determined that the worker is standing on the standing construction board to perform construction, the wind speed initial measurement module on the standing construction board monitors the wind speed value of the construction environment to obtain wind speed value data;
[0239] When the wind speed numerical data is greater than a preset wind speed numerical data threshold, issuing wind speed monitoring start information;
[0240] In response to the wind speed monitoring start information, monitoring is performed based on the wind speed monitoring device set on the standing construction board to obtain construction wind speed data.
[0241] Likewise, it should be noted that by making a preliminary judgment on the wind speed, a certain degree of energy saving can be achieved, avoiding constant wind speed monitoring and unnecessary monitoring work.
[0242] Furthermore, the method further comprises the following steps:
[0243] In response to the worker construction safety reminder information, extract the corresponding sum of the first construction risk assessment value and the second construction risk assessment value, and record it as a construction safety reminder parameter;
[0244] Based on the construction safety reminder parameter and a plurality of preset construction safety reminder parameter intervals, a matching construction safety reminder parameter interval is selected to obtain a corresponding light brightness color;
[0245] Based on the construction safety reminder parameter, obtaining a light flashing frequency;
[0246] Based on the light brightness color and the light flashing frequency, the warning bracelet worn on the worker's arm is controlled to perform a corresponding flashing action; wherein,
[0247] The numerical ranges of different construction safety reminder parameter ranges do not overlap, and different construction safety reminder parameter ranges correspond to different light brightness colors.
[0248] It should be noted that in the technical solution of the embodiment of the present application, in order to avoid scaring the workers, a light reminder method is adopted, and in order to facilitate the workers to check, based on the warning bracelet worn on the worker's arm, the light component on the warning bracelet is controlled to perform a light reminder;
[0249] Through different colors and different flashing frequencies, different levels of fatigue can be reasonably reminded.
[0250] Furthermore, the wind speed monitoring device 2 includes a wind speed monitoring sensor module 20, a wind speed monitoring telescopic connecting rod 21, a wind speed monitoring rotating component 22 and a wind speed monitoring control module 23;
[0251] The wind speed monitoring control module 23 is embedded in the wind speed monitoring rotating component 22, and the wind speed monitoring control module 23 is signal-connected with the wind speed monitoring sensor module 20, the wind speed monitoring telescopic connecting rod 21 and the wind speed monitoring rotating component 22;
[0252] The wind speed monitoring rotating component 22 is arranged on the side wall of the standing construction plate 1 located outside the construction building, and the wind speed monitoring telescopic connecting rod 21 and the wind speed monitoring sensor module 20 are both located outside the construction building;
[0253] Based on the wind speed monitoring device set on the standing construction board, monitoring is performed to obtain construction wind speed data, including the following steps:
[0254] Based on the wind speed monitoring control module 23, the wind speed monitoring rotating component 22 is controlled to rotate, thereby driving the wind speed monitoring sensor module 20 and the wind speed monitoring telescopic connecting rod 21 to rotate at a first preset speed;
[0255] Based on the wind speed monitoring control module 23, the wind speed monitoring telescopic connecting rod 21 is controlled to telescope within a first telescopic length range at a first preset telescopic speed;
[0256] During the extension and retraction of the wind speed monitoring telescopic connecting rod 21 and the rotation of the wind speed monitoring rotating component 22, the maximum wind speed monitored by the wind speed monitoring sensor module 20 is used as the construction wind speed data.
[0257] Furthermore, the wind speed monitoring device further comprises a wind speed reference monitoring module 24, which is signal-connected to the wind speed monitoring control module 23;
[0258] The wind speed reference monitoring module 24 is arranged on the side wall of the standing construction board 1 located outside the construction building.
[0259] The wind speed monitoring process also includes the following steps:
[0260] Perform wind speed monitoring based on the wind speed reference monitoring module 24 to obtain reference wind speed data;
[0261] Obtaining a first adjusted rotational speed based on the reference wind speed data, the preset initial wind speed data and the first preset rotational speed;
[0262] Based on the reference wind speed data, the preset initial wind speed data and the first preset telescopic speed, obtaining a first adjusted telescopic speed;
[0263] Based on the reference wind speed data, the preset initial wind speed data and the first telescopic length range, obtaining a first adjusted telescopic length range;
[0264] Based on the wind speed monitoring control module 23, the wind speed monitoring rotating component 22 is controlled to rotate, thereby driving the wind speed monitoring sensor module 20 and the wind speed monitoring telescopic connecting rod 21 to rotate according to the first adjusted speed;
[0265] Based on the wind speed monitoring control module 23, the wind speed monitoring telescopic connecting rod 21 is controlled to telescope within the first adjusted telescopic length range according to the first adjusted telescopic speed;
[0266] During the process of the telescopic connecting rod 21 for wind speed monitoring and the rotation of the wind speed monitoring rotating component 22 , the maximum wind speed monitored by the wind speed monitoring sensor module 20 is used as the construction wind speed data.
[0267] It should be noted that different wind speeds may have a safety impact on the working state of the wind speed detection device 2, that is, if the wind speed is large, the wind speed detection rotating component 22 rotates, the telescopic speed of the wind speed detection telescopic connecting rod 21 needs to be slowed down, and the telescopic range of the wind speed detection telescopic connecting rod 21 needs to be smaller, so that the structural stability can be maintained as much as possible.
[0268] If necessary, when the wind speed detection rotating component 22 drives the wind speed detection telescopic connecting rod 21 to rotate, the plane formed by the rotation of the wind speed detection telescopic connecting rod 21 can be set to be perpendicular to the standing construction board 1.
[0269] Specifically, the wind speed detection control module 23 can obtain a first working adjustment coefficient based on the value of the reference wind speed data and the value of the preset initial wind speed data. The calculation formula of the first working adjustment coefficient is:
[0270] in,
[0271] s is the first working adjustment coefficient, v 参照 is the reference wind speed data, v 初始 is the initial wind speed data.
[0272] Then, based on the first working adjustment coefficient, multiplying the value of the first preset speed to obtain a first adjusted speed;
[0273] Based on the first working adjustment coefficient, multiplying the value of the first preset telescopic speed to obtain a first adjusted telescopic speed;
[0274] Based on the first working adjustment coefficient, the upper and lower limits of the first telescopic length range are multiplied to obtain the first adjusted telescopic length range.
[0275] Second, see Figure 3 As shown, an embodiment of the present application provides a construction safety monitoring device based on a construction environment, the device comprising:
[0276] A construction determination module, which is used to use a construction personnel identification device preset on the standing construction board to identify whether there is a connection request signal sent by a safety helmet worn on the worker's head within a first identification range, and if so, determine that the worker is standing on the standing construction board to perform construction;
[0277] A construction temperature monitoring module, which is used to monitor the temperature of the worker standing on the standing construction board to obtain construction temperature information belonging to different preset temperature ranges based on the temperature monitoring device configured on the worker's safety helmet when it is determined that the worker is standing on the standing construction board to perform construction;
[0278] A construction wind speed monitoring module, which is used to monitor and obtain construction wind speed data based on a wind speed monitoring device set on the standing construction board when it is determined that the worker is standing on the standing construction board to perform construction;
[0279] A first construction risk assessment module, which is used to calculate and obtain a corresponding first construction risk assessment value based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with preset unit time construction risk setting values corresponding to different construction preset temperature ranges;
[0280] A second construction risk assessment module, which is used to calculate and obtain a corresponding second construction risk assessment value based on the construction wind speed data, a preset construction wind speed safety threshold, and a wind speed fatigue impact setting value;
[0281] A construction safety reminder module is used to issue a worker construction safety reminder message when the first construction risk assessment value is greater than the corresponding first construction risk assessment threshold value, or the second construction risk assessment value is greater than the corresponding second construction risk assessment threshold value, or the sum of the first construction risk assessment value and the second construction risk assessment value is greater than the corresponding construction risk assessment total threshold value; wherein,
[0282] The standing construction board is arranged outside the construction building to provide a construction work site for workers.
[0283] It should be noted that corresponding standing construction boards are arranged in the construction area of the construction building, and the technical solution of the embodiment of the present application is more suitable for outdoor construction environment, that is, the standing construction boards are outside the construction building to perform safety monitoring for external construction.
[0284] In the embodiment of the present application, a construction hazard assessment is performed based on the outdoor temperature and outdoor wind speed of the construction environment in combination with the construction duration, and a reminder message is issued in a timely manner when it is determined that a construction hazard exists, thereby effectively protecting the personal safety of construction workers and providing protection for outdoor construction safety.
[0285] Furthermore, the construction determination module is further used to control the construction personnel identification device to send a first identification signal within the first identification range according to a first preset signal sending frequency;
[0286] The construction determination module is also used to control the construction personnel identification device to receive the connection request signal fed back by the first identification signal receiving module of the safety helmet based on the first identification signal when the safety helmet of the worker enters the first identification range of the construction personnel identification device;
[0287] The construction determination module is also used to control the construction personnel identification device to identify and receive the connection request signal, and determine that the worker is standing on the standing construction board to perform construction.
[0288] Furthermore, the construction temperature monitoring module is also used to control the temperature monitoring device configured on the worker's safety helmet for monitoring, record the construction sub-times corresponding to the different preset temperature ranges and the average construction temperature under the construction sub-times, and integrate to obtain the construction temperature information belonging to different preset temperature ranges.
[0289] Furthermore, the construction wind speed monitoring module is also used to control the wind speed monitoring device set on the standing construction board to monitor and obtain the corresponding construction wind speed curve;
[0290] The construction wind speed monitoring module is also used to record the latest data in the construction wind speed curve as the construction wind speed data.
[0291] Furthermore, the first construction risk assessment module is further used to obtain the unit time construction risk setting value corresponding to the matching construction preset temperature range based on the construction average temperature in the construction temperature information;
[0292] The first construction risk assessment module is further used to calculate and obtain a first construction risk sub-assessment value corresponding to the construction temperature information based on the construction sub-duration in the construction temperature information and the unit time construction risk setting value;
[0293] The first construction risk assessment module is also used to count the first construction risk sub-assessment values corresponding to each of the construction temperature information to obtain the corresponding first construction risk assessment value; wherein,
[0294] Different preset construction temperature ranges correspond to different construction risk setting values per unit time;
[0295] The interval differences of each of the preset construction temperature ranges are the same, and the larger the middle value of each of the preset construction temperature ranges is, the larger the value of the unit time construction risk setting value is.
[0296] Furthermore, the second construction risk assessment module is further used to divide the value of the construction wind speed data by the value of the construction wind speed safety threshold to obtain a wind speed fatigue proportional coefficient;
[0297] The second construction risk assessment module is further used to multiply the wind speed fatigue proportional coefficient by the wind speed fatigue impact setting value to obtain the second construction risk assessment value.
[0298] Furthermore, a plurality of construction wind speed safety thresholds having different values and arranged in order of magnitude are preset;
[0299] Each of the construction wind speed safety thresholds is configured with a corresponding wind speed fatigue impact setting value;
[0300] The larger the value of the construction wind speed safety threshold is, the larger the value of the corresponding wind speed fatigue impact setting value is;
[0301] The second construction risk assessment module is further used to compare the value of the construction wind speed data with each of the construction wind speed safety thresholds, and obtain the wind speed fatigue impact setting value corresponding to the construction wind speed safety threshold whose value is closest to and not greater than that of the construction wind speed safety threshold, which is recorded as the matching wind speed fatigue impact setting value;
[0302] The second construction risk assessment module is further used to divide the value of the construction wind speed data by the value of the matching wind speed fatigue influence setting value to obtain a wind speed fatigue proportional coefficient;
[0303] The second construction hazard assessment module is further used to multiply the wind speed fatigue proportional coefficient by the wind speed fatigue impact setting value corresponding to the matching wind speed fatigue impact setting value to obtain the second construction hazard assessment value.
[0304] Furthermore, the device also includes:
[0305] The worker biometric information extraction module is used to control the construction personnel identification device to identify the worker identity information corresponding to the safety helmet when it is determined that the worker is standing on the standing construction board to perform construction, and obtain the worker's age data information, height data information and weight data information.
[0306] Furthermore, the device also includes:
[0307] An age influence coefficient calculation module, which is used to obtain a corresponding age influence coefficient based on the age data information and preset age standard data;
[0308] The first construction hazard assessment module is also used to calculate the corresponding first construction hazard assessment value based on the construction sub-duration and the corresponding average construction temperature in each construction temperature information, combined with the preset unit time construction hazard setting value corresponding to different construction preset temperature ranges and the age influence coefficient.
[0309] Furthermore, the device also includes:
[0310] A height influence coefficient calculation module, which is used to obtain the corresponding height influence coefficient based on the height data information and preset height standard data;
[0311] A weight influence coefficient calculation module, which is used to obtain a corresponding weight influence coefficient based on the weight data information and preset weight standard data;
[0312] The second construction hazard assessment module is also used to calculate a corresponding second construction hazard assessment value based on the construction wind speed data, a preset construction wind speed safety threshold and a wind speed fatigue impact setting value, combined with the corresponding height impact coefficient and the weight impact coefficient.
[0313] Furthermore, the device also includes:
[0314] A temperature monitoring start module, which is used to control the light initial measurement module on the standing construction board to monitor the light intensity of the construction environment and obtain light intensity data when it is determined that the worker is standing on the standing construction board to perform construction;
[0315] The temperature monitoring start module is also used to issue temperature monitoring start information when the light intensity data is greater than a preset light intensity data threshold;
[0316] The construction temperature monitoring module is also used to respond to the temperature monitoring start information, monitor based on the temperature monitoring device configured on the worker's safety helmet, and obtain construction temperature information belonging to different preset temperature ranges.
[0317] Furthermore, the device comprises:
[0318] A wind speed monitoring start module, which is used for, when it is determined that the worker is standing on the standing construction board to perform construction, the wind speed initial measurement module on the standing construction board monitors the wind speed value of the construction environment to obtain wind speed value data;
[0319] The wind speed monitoring start module is also used to issue wind speed monitoring start information when the wind speed numerical data is greater than a preset wind speed numerical data threshold;
[0320] The construction wind speed monitoring module responds to the wind speed monitoring start information, monitors based on the wind speed monitoring device set on the standing construction board, and obtains construction wind speed data.
[0321] Furthermore, the construction safety reminder module is further used to respond to the worker's construction safety reminder information, extract the corresponding sum of the first construction risk assessment value and the second construction risk assessment value, and record it as a construction safety reminder parameter;
[0322] The construction safety reminder module is further used to select a matching construction safety reminder parameter interval based on the construction safety reminder parameter and a plurality of preset construction safety reminder parameter intervals to obtain a corresponding light brightness color;
[0323] The construction safety reminder module is further used to obtain a light flashing frequency based on the construction safety reminder parameter;
[0324] The construction safety reminder module is also used to control the warning bracelet worn on the worker's arm to perform corresponding flashing actions based on the light brightness color and the light flashing frequency; wherein,
[0325] The numerical ranges of different construction safety reminder parameter ranges do not overlap, and different construction safety reminder parameter ranges correspond to different light brightness colors.
[0326] Further, the wind speed monitoring device includes a wind speed monitoring sensor module, a wind speed monitoring telescopic connecting rod, a wind speed monitoring rotating component and a wind speed monitoring control module;
[0327] The wind speed monitoring control module is embedded in the wind speed monitoring rotating component, and the wind speed monitoring rotating component is connected to the wind speed monitoring sensor module, the wind speed monitoring telescopic connecting rod and the wind speed monitoring rotating component by signal;
[0328] The wind speed monitoring rotating component is arranged on the side wall of the standing construction plate located outside the construction building, and the wind speed monitoring telescopic connecting rod and the wind speed monitoring sensor module are both located outside the construction building;
[0329] The construction wind speed monitoring module is also used to control the wind speed monitoring rotating component to rotate based on the wind speed monitoring control module, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate at a first preset speed;
[0330] The construction wind speed monitoring module is also used to control the wind speed monitoring telescopic connecting rod to telescope within a first telescopic length range at a first preset telescopic speed based on the wind speed monitoring control module;
[0331] The construction wind speed monitoring module is also used to use the maximum wind speed monitored by the wind speed monitoring sensor module as the construction wind speed data during the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component.
[0332] Furthermore, the wind speed monitoring device further comprises a wind speed reference monitoring module, which is signal-connected to the wind speed monitoring control module;
[0333] The wind speed reference monitoring module is arranged on the side wall of the standing construction board located outside the construction building.
[0334] The construction wind speed monitoring module is also used to perform wind speed monitoring based on the wind speed reference monitoring module to obtain reference wind speed data;
[0335] The construction wind speed monitoring module is further used to obtain a first adjusted speed based on the reference wind speed data, the preset initial wind speed data and the first preset speed;
[0336] The construction wind speed monitoring module is further used to obtain a first adjusted telescopic speed based on the reference wind speed data, the preset initial wind speed data and the first preset telescopic speed;
[0337] The construction wind speed monitoring module is further used to obtain a first adjusted telescopic length range based on the reference wind speed data, the preset initial wind speed data and the first telescopic length range;
[0338] The construction wind speed monitoring module is also used to control the wind speed monitoring rotating component to rotate based on the wind speed monitoring control module, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate according to the first adjusted speed;
[0339] The construction wind speed monitoring module is further used to control the wind speed monitoring telescopic connecting rod to telescope within the first adjusted telescopic length range at the first adjusted telescopic speed based on the wind speed monitoring control module;
[0340] The construction wind speed monitoring module is also used to use the maximum wind speed monitored by the wind speed monitoring sensor module as the construction wind speed data during the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component.
[0341] It should be noted that the technical problems, technical fields, technical solutions and technical effects of the construction safety monitoring device based on the construction environment in the embodiment of the present application are similar to those of the construction safety monitoring method based on the construction environment mentioned in the first aspect at the technical principle level, and will not be elaborated here.
[0342] It should be noted that, in this application, relational terms such as "first" and "second" are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device. In the absence of further restrictions, the elements defined by the sentence "comprise a ..." do not exclude the presence of other identical elements in the process, method, article or device including the elements.
[0343] The above is only a specific implementation of the present application, so that those skilled in the art can understand or implement the present application. Various modifications to these embodiments will be apparent to those skilled in the art, and the general principles defined herein can be implemented in other embodiments without departing from the spirit or scope of the present application. Therefore, the present application will not be limited to the embodiments shown herein, but will conform to the widest range consistent with the principles and novel features applied for herein.
Claims
1. A construction safety monitoring method based on construction environment, characterized in that: The method comprises the following steps: Using a construction personnel identification device preset on the standing construction board to send a first identification signal within a first identification range at a first preset signal transmission frequency; When the worker's helmet enters the first identification range of the construction personnel identification device, the first identification signal receiving module of the helmet receives the first identification signal and feeds back a connection request signal to the construction personnel identification device; The construction worker identification device identifies and receives the connection request signal, and determines that the worker is standing on the standing construction board to perform construction; Monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet, recording the construction sub-durations corresponding to different preset temperature ranges and the average construction temperature under the construction sub-durations, and integrating to obtain the construction temperature information belonging to different preset temperature ranges; Based on the wind speed monitoring device set on the standing construction board, monitoring is performed to obtain a corresponding construction wind speed curve; Based on the latest data in the construction wind speed curve, record it as the construction wind speed data; Based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with the preset unit time construction hazard setting values corresponding to different construction preset temperature ranges, a corresponding first construction hazard assessment value is calculated; Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, a corresponding second construction risk assessment value is calculated; When the first construction risk assessment value is greater than the corresponding first construction risk assessment threshold value, or the second construction risk assessment value is greater than the corresponding second construction risk assessment threshold value, or the sum of the first construction risk assessment value and the second construction risk assessment value is greater than the corresponding total construction risk assessment threshold value, then issuing worker construction safety reminder information; The method further comprises the following steps: When it is determined that the worker is standing on the standing construction board for construction, the construction worker identification device identifies the worker identity information corresponding to the safety helmet and obtains the worker's age data information, height data information and weight data information; The method further comprises the following steps: Based on the age data information and preset age standard data, obtaining a corresponding age influence coefficient; Based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with the preset unit time construction hazard setting values corresponding to different construction preset temperature ranges and the age influence coefficient, a corresponding first construction hazard assessment value is calculated; The method further comprises the following steps: Based on the height data information and preset height standard data, obtaining a corresponding height influence coefficient; Based on the weight data information and the preset weight standard data, obtaining a corresponding weight influence coefficient; Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue influence setting value, combined with the corresponding height influence coefficient and the weight influence coefficient, a corresponding second construction risk assessment value is calculated; The wind speed monitoring device comprises a wind speed monitoring sensor module, a wind speed monitoring telescopic connecting rod, a wind speed monitoring rotating component, a wind speed monitoring control module and a wind speed reference monitoring module; The wind speed monitoring control module is embedded in the wind speed monitoring rotating component, and the wind speed monitoring rotating component is connected to the wind speed monitoring sensor module, the wind speed monitoring telescopic connecting rod and the wind speed monitoring rotating component by signal; The wind speed monitoring rotating component is arranged on the side wall of the standing construction plate located outside the construction building, and the wind speed monitoring telescopic connecting rod and the wind speed monitoring sensor module are both located outside the construction building; The wind speed reference monitoring module is signal-connected to the wind speed monitoring control module; The wind speed reference monitoring module is arranged on the side wall of the standing construction plate located outside the construction building; Based on the wind speed monitoring device set on the standing construction board, monitoring is performed to obtain construction wind speed data, including the following steps: Based on the wind speed monitoring control module, the wind speed monitoring rotating component is controlled to rotate, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate at a first preset speed; Based on the wind speed monitoring control module, the wind speed monitoring telescopic connecting rod is controlled to telescope within a first telescopic length range at a first preset telescopic speed; During the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component, the maximum wind speed monitored by the wind speed monitoring sensor module is used as the construction wind speed data; The wind speed monitoring process also includes the following steps: Perform wind speed monitoring based on the wind speed reference monitoring module to obtain reference wind speed data; Obtaining a first adjusted rotational speed based on the reference wind speed data, the preset initial wind speed data and the first preset rotational speed; Based on the reference wind speed data, the preset initial wind speed data and the first preset telescopic speed, obtaining a first adjusted telescopic speed; Based on the reference wind speed data, the preset initial wind speed data and the first telescopic length range, obtaining a first adjusted telescopic length range; Based on the wind speed monitoring control module, the wind speed monitoring rotating component is controlled to rotate, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate according to the first adjusted speed; Based on the wind speed monitoring control module, the wind speed monitoring telescopic connecting rod is controlled to telescope within the first adjusted telescopic length range according to the first adjusted telescopic speed; During the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component, the maximum wind speed monitored by the wind speed monitoring sensor module is used as the construction wind speed data; The method further comprises the following steps: When it is determined that the worker is standing on the standing construction board to perform construction, the light initial measurement module on the standing construction board monitors the light intensity of the construction environment to obtain light intensity data; When the light intensity data is greater than a preset light intensity data threshold, issuing temperature monitoring start information; In response to the temperature monitoring start information, monitoring is performed based on the temperature monitoring device configured on the worker's safety helmet to obtain construction temperature information belonging to different preset temperature ranges; The method further comprises the following steps: When it is determined that the worker is standing on the standing construction board to perform construction, the wind speed initial measurement module on the standing construction board monitors the wind speed value of the construction environment to obtain wind speed value data; When the wind speed numerical data is greater than a preset wind speed numerical data threshold, issuing wind speed monitoring start information; In response to the wind speed monitoring start information, monitoring is performed based on the wind speed monitoring device set on the standing construction board to obtain construction wind speed data; wherein, The standing construction board is arranged outside the construction building to provide a construction work site for workers.
2. The construction safety monitoring method based on the construction environment as claimed in claim 1, characterized in that: Based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with preset unit time construction hazard setting values corresponding to different construction preset temperature ranges, a corresponding first construction hazard assessment value is calculated, including the following steps: Based on the average construction temperature in the construction temperature information, obtaining the unit time construction risk setting value corresponding to the matching preset construction temperature range; Based on the construction sub-duration in the construction temperature information and the unit time construction hazard setting value, a first construction hazard sub-assessment value corresponding to the construction temperature information is calculated; The first construction hazard sub-assessment value corresponding to each of the construction temperature information is counted to obtain the corresponding first construction hazard assessment value; wherein, Different preset construction temperature ranges correspond to different construction risk setting values per unit time; The interval differences of each of the preset construction temperature ranges are the same, and the larger the middle value of each of the preset construction temperature ranges is, the larger the value of the unit time construction risk setting value is.
3. The construction safety monitoring method based on the construction environment as claimed in claim 1, characterized in that: A plurality of construction wind speed safety thresholds having different values and arranged in order of magnitude are preset; Each of the construction wind speed safety thresholds is configured with a corresponding wind speed fatigue impact setting value; The larger the value of the construction wind speed safety threshold is, the larger the value of the corresponding wind speed fatigue impact setting value is; Based on the construction wind speed data, the preset construction wind speed safety threshold and the wind speed fatigue impact setting value, a corresponding second construction risk assessment value is calculated, and the method comprises the following steps: Compare the value of the construction wind speed data with each of the construction wind speed safety thresholds, and obtain the wind speed fatigue impact setting value corresponding to the construction wind speed safety threshold that is closest to and not greater than the value, and record it as the matching wind speed fatigue impact setting value; Dividing the value of the construction wind speed data by the value of the matching wind speed fatigue influence setting value to obtain a wind speed fatigue proportional coefficient; The wind speed fatigue proportional coefficient is multiplied by the wind speed fatigue impact setting value corresponding to the matching wind speed fatigue impact setting value to obtain the second construction hazard assessment value.
4. The construction safety monitoring method based on the construction environment as claimed in claim 1, characterized in that: The method further comprises the following steps: In response to the worker construction safety reminder information, extract the corresponding sum of the first construction risk assessment value and the second construction risk assessment value, and record it as a construction safety reminder parameter; Based on the construction safety reminder parameter and a plurality of preset construction safety reminder parameter intervals, a matching construction safety reminder parameter interval is selected to obtain a corresponding light brightness color; Based on the construction safety reminder parameter, obtaining a light flashing frequency; Based on the light brightness color and the light flashing frequency, the warning bracelet worn on the worker's arm is controlled to perform a corresponding flashing action; wherein, The numerical ranges of different construction safety reminder parameter ranges do not overlap, and different construction safety reminder parameter ranges correspond to different light brightness colors.
5. A construction safety monitoring device based on a construction environment, characterized in that: The device comprises: A construction determination module, which is used to use a construction personnel identification device preset on the standing construction board to identify whether there is a connection request signal sent by a safety helmet worn on the worker's head within a first identification range, and if so, determine that the worker is standing on the standing construction board to perform construction; A construction temperature monitoring module, which is used to monitor the temperature of the worker standing on the standing construction board to obtain construction temperature information belonging to different preset temperature ranges based on the temperature monitoring device configured on the worker's safety helmet when it is determined that the worker is standing on the standing construction board to perform construction; A construction wind speed monitoring module, which is used to monitor and obtain construction wind speed data based on a wind speed monitoring device set on the standing construction board when it is determined that the worker is standing on the standing construction board to perform construction; A first construction risk assessment module, which is used to calculate and obtain a corresponding first construction risk assessment value based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with preset unit time construction risk setting values corresponding to different construction preset temperature ranges; A second construction risk assessment module, which is used to calculate and obtain a corresponding second construction risk assessment value based on the construction wind speed data, a preset construction wind speed safety threshold, and a wind speed fatigue impact setting value; A construction safety reminder module, which is used to issue a worker construction safety reminder message when the first construction risk assessment value is greater than the corresponding first construction risk assessment threshold value, or the second construction risk assessment value is greater than the corresponding second construction risk assessment threshold value, or the sum of the first construction risk assessment value and the second construction risk assessment value is greater than the corresponding construction risk assessment total threshold value; The construction determination module is also used to control the construction personnel identification device to send a first identification signal within the first identification range according to a first preset signal sending frequency; The construction determination module is also used to control the construction personnel identification device to receive the connection request signal fed back by the first identification signal receiving module of the safety helmet based on the first identification signal when the safety helmet of the worker enters the first identification range of the construction personnel identification device; The construction determination module is also used to control the construction personnel identification device to identify and receive the connection request signal, and determine that the worker is standing on the standing construction board to perform construction; The construction temperature monitoring module is also used to control the temperature monitoring device configured on the worker's safety helmet to monitor, record the construction sub-durations corresponding to different preset temperature ranges and the average construction temperature under the construction sub-durations, and integrate to obtain the construction temperature information belonging to different preset temperature ranges; The construction wind speed monitoring module is also used to control the wind speed monitoring device set on the standing construction board to monitor and obtain the corresponding construction wind speed curve; The construction wind speed monitoring module is also used to record the latest data in the construction wind speed curve as the construction wind speed data; The device further comprises: a worker biometric information extraction module, which is used to control the construction personnel identification device to identify the worker identity information corresponding to the safety helmet when it is determined that the worker is standing on the standing construction board for construction, and obtain the worker's age data information, height data information and weight data information; The device further comprises: an age influence coefficient calculation module, which is used to obtain a corresponding age influence coefficient based on the age data information and preset age standard data; The first construction risk assessment module is further used to calculate and obtain the corresponding first construction risk assessment value based on the construction sub-duration and the corresponding average construction temperature in each of the construction temperature information, combined with the preset unit time construction risk setting values corresponding to different construction preset temperature ranges and the age influence coefficient; The device further comprises: a height influence coefficient calculation module, which is used to obtain a corresponding height influence coefficient based on the height data information and preset height standard data; A weight influence coefficient calculation module, which is used to obtain the corresponding weight influence coefficient based on the weight data information and preset weight standard data; The second construction risk assessment module is further used to calculate a corresponding second construction risk assessment value based on the construction wind speed data, a preset construction wind speed safety threshold and a wind speed fatigue influence setting value, combined with the corresponding height influence coefficient and the weight influence coefficient; The wind speed monitoring device comprises a wind speed monitoring sensor module, a wind speed monitoring telescopic connecting rod, a wind speed monitoring rotating component and a wind speed monitoring control module; The wind speed monitoring control module is embedded in the wind speed monitoring rotating component, and the wind speed monitoring rotating component is connected to the wind speed monitoring sensor module, the wind speed monitoring telescopic connecting rod and the wind speed monitoring rotating component by signal; The wind speed monitoring rotating component is arranged on the side wall of the standing construction plate located outside the construction building, and the wind speed monitoring telescopic connecting rod and the wind speed monitoring sensor module are both located outside the construction building; The construction wind speed monitoring module is also used to control the wind speed monitoring rotating component to rotate based on the wind speed monitoring control module, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate at a first preset speed; The construction wind speed monitoring module is also used to control the wind speed monitoring telescopic connecting rod to telescope within a first telescopic length range at a first preset telescopic speed based on the wind speed monitoring control module; The construction wind speed monitoring module is also used to use the maximum wind speed monitored by the wind speed monitoring sensor module as the construction wind speed data during the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component; The wind speed monitoring device also includes a wind speed reference monitoring module, which is signal-connected to the wind speed monitoring control module; The wind speed reference monitoring module is arranged on the side wall of the standing construction plate located outside the construction building; The construction wind speed monitoring module is also used to perform wind speed monitoring based on the wind speed reference monitoring module to obtain reference wind speed data; The construction wind speed monitoring module is further used to obtain a first adjusted speed based on the reference wind speed data, the preset initial wind speed data and the first preset speed; The construction wind speed monitoring module is further used to obtain a first adjusted telescopic speed based on the reference wind speed data, the preset initial wind speed data and the first preset telescopic speed; The construction wind speed monitoring module is further used to obtain a first adjusted telescopic length range based on the reference wind speed data, the preset initial wind speed data and the first telescopic length range; The construction wind speed monitoring module is also used to control the wind speed monitoring rotating component to rotate based on the wind speed monitoring control module, thereby driving the wind speed monitoring sensor module and the wind speed monitoring telescopic connecting rod to rotate according to the first adjusted speed; The construction wind speed monitoring module is further used to control the wind speed monitoring telescopic connecting rod to telescope within the first adjusted telescopic length range at the first adjusted telescopic speed based on the wind speed monitoring control module; The construction wind speed monitoring module is also used to use the maximum wind speed monitored by the wind speed monitoring sensor module as the construction wind speed data during the extension and retraction of the wind speed monitoring telescopic connecting rod and the rotation of the wind speed monitoring rotating component. The device further comprises: a temperature monitoring start module, which is used to control the light initial measurement module on the standing construction board to monitor the light intensity of the construction environment and obtain light intensity data when it is determined that the worker is standing on the standing construction board to perform construction; The temperature monitoring start module is also used to issue temperature monitoring start information when the light intensity data is greater than a preset light intensity data threshold; The construction temperature monitoring module is further used to respond to the temperature monitoring start information, monitor based on the temperature monitoring device configured on the worker's safety helmet, and obtain construction temperature information belonging to different preset temperature ranges; The device further comprises: a wind speed monitoring start module, which is used for, when it is determined that the worker is standing on the standing construction board to perform construction, the wind speed initial measurement module on the standing construction board monitors the wind speed value of the construction environment to obtain wind speed value data; The wind speed monitoring start module is also used to issue wind speed monitoring start information when the wind speed numerical data is greater than a preset wind speed numerical data threshold; The construction wind speed monitoring module responds to the wind speed monitoring start information, monitors based on the wind speed monitoring device set on the standing construction board, and obtains construction wind speed data; wherein, The standing construction board is arranged outside the construction building to provide a construction work site for workers.
Citation Information
Patent Citations
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CN109855835A
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