A smart construction site supervision cloud platform with three-dimensional personnel positioning supervision

Abstract

The present invention discloses a three-dimensional personnel positioning and monitoring smart construction site on-site monitoring cloud platform, which relates to the field of smart construction site technology, including a helmet, a monitoring component and a cloud server, wherein the monitoring component is arranged on the front inner side of the helmet, and the monitoring component includes a front fixed shell, a lighting lamp, a camera, a thermal imaging head, a receiver, a connection end, a rear fixed shell, a body temperature sensor, a pulse sensor, a positioning module, a marking module, a receiving module and a voice module. After the construction workers of the construction site of the present invention wear the helmet, the camera can shoot the surrounding environment and the people around them, because each construction worker wears a helmet with a monitoring component installed, through the mutual monitoring between the monitoring components and the movement of the personnel during work, the equipment can naturally and comprehensively upload the detection data of the construction workers to the cloud server, which enables the equipment to perform comprehensive personnel positioning monitoring at a complex construction site without affecting the normal construction of the staff.

Description

Technical Field

[0001] The present invention relates to the technical field of smart construction sites, and in particular to a smart construction site on-site supervision cloud platform for three-dimensional personnel positioning and supervision. Background Art

[0002] Smart construction sites are the embodiment of the smart earth concept in the engineering field. They are a brand-new concept for the management of the entire life cycle of projects. Smart construction sites refer to the use of information technology to accurately design and simulate construction projects through a three-dimensional design platform. Focusing on construction process management, an information ecosystem for construction projects with interconnected collaboration, intelligent production, and scientific management is established. This data is combined with engineering information collected by the Internet of Things in a virtual reality environment for data mining and analysis. Process trend forecasts and expert plans are provided to achieve visual and intelligent management of engineering construction, thereby improving the level of information technology in engineering management and gradually realizing green construction and ecological construction.

[0003] The common smart construction site supervision cloud platforms on the market usually use fixed-point cameras for positioning and photographing. Because the construction site environment is relatively complex, it is difficult for fixed-point cameras to lock on to personnel in a complex environment, resulting in the inability of the on-site supervision cloud platform to quickly detect emergencies involving workers. Summary of the invention

[0004] The purpose of the present invention is to provide a smart construction site supervision cloud platform with three-dimensional personnel positioning and supervision to solve the problems raised in the above-mentioned background technology.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a smart construction site supervision cloud platform for three-dimensional personnel positioning and supervision, comprising a helmet, a monitoring component and a cloud server, wherein the monitoring component is arranged on the front inner side of the helmet, and the monitoring component comprises a front fixed shell, a lighting lamp, a camera, a thermal imaging head, a receiver, a connecting end, a rear fixed shell, a body temperature sensor, a pulse sensor, a positioning module, a marking module, a receiving module and a voice module, a lighting lamp is arranged on the front outer side of the front fixed shell, and a camera is arranged on the inner end of the lighting lamp, a thermal imaging head is arranged on the bottom outer side of the camera, and the front fixed A receiver is connected to the outer side of the left portion of the shell, a connecting end is provided on the outer side of the rear portion of the receiver, and the outer side of the connecting end is connected to the rear fixed shell, a body temperature sensor is provided on the outer side of the rear portion of the rear fixed shell, and pulse sensors are connected to the two sides of the rear portion of the rear fixed shell, the front fixed shell is electrically connected to the positioning module, and the front fixed shell is electrically connected to the marking module, the front fixed shell is electrically connected to the receiving module, and the front fixed shell is electrically connected to the voice module, the cloud server is wirelessly connected to the monitoring component, a conducting wire is provided on the outer side of the right portion of the front fixed shell, and 3D display glasses are provided at the end of the conducting wire.

[0006] Furthermore, the lighting lamps are distributed in a ring shape, and are fixedly connected to the front fixed shell.

[0007] Furthermore, the connecting end is integrated with the front fixing shell, and the connecting end is snap-connected with the helmet.

[0008] Furthermore, the connecting end is threadedly connected to the rear fixed shell, and the rear fixed shell is electrically connected to the front fixed shell.

[0009] Furthermore, the rear fixing shell is arc-shaped, and the curvature of the rear fixing shell is similar to the curvature of the forehead of a human body.

[0010] Furthermore, the pulse sensors are symmetrically distributed along the vertical center line of the body temperature sensor, and the pulse sensors fit the temples of the human body.

[0011] Furthermore, the cloud server includes a query module, a messaging module, an abnormal prompt module, a data analysis module, a statistical module and a distress module. The cloud server is electrically connected to the query module, and the cloud server is electrically connected to the messaging module, the cloud server is electrically connected to the abnormal prompt module, and the cloud server is electrically connected to the data analysis module, the cloud server is electrically connected to the statistical module, and the cloud server is electrically connected to the distress module.

[0012] Furthermore, the query module is electrically connected in series with the signaling module, and the signaling module is wirelessly connected to the receiver.

[0013] Furthermore, the data analysis module is electrically connected to the statistical module, and the data analysis module is electrically connected to the signaling module.

[0014] Furthermore, the conductive wire is threadedly connected to the front fixed shell, and the front fixed shell is electrically connected to the 3D display glasses through the conductive wire.

[0015] The present invention provides a smart construction site supervision cloud platform with three-dimensional personnel positioning supervision, which has the following beneficial effects: through mutual monitoring between monitoring components and the movement of personnel during work, the equipment can naturally and comprehensively upload the detection data of construction personnel to the cloud server, and personal data can be transmitted to the monitoring components through 3D display glasses, which enables the equipment to maintain long-term operation time by quickly replacing monitoring components. At the same time, personal data can be synchronized to the new monitoring components in time through 3D display glasses, which can ensure the accuracy of data transmitted by the monitoring components.

[0016] 1. After the construction workers on the construction site of the present invention wear helmets, the camera can shoot the surrounding environment and the people around them. Because each construction worker wears a helmet with a monitoring component installed, through the mutual monitoring between the monitoring components and the movement of the personnel during work, the equipment can naturally and comprehensively upload the detection data of the construction workers to the cloud server. This allows the equipment to perform comprehensive personnel positioning monitoring on complex construction sites without affecting the normal construction of the staff, which is conducive to improving the monitoring effect of the equipment.

[0017] 2. The personal data of the construction workers of the present invention are stored inside the 3D display glasses. Since the helmet can be conveniently disassembled and assembled with the monitoring component, when the battery of the monitoring component is low, the monitoring component can be quickly disassembled and replaced with a fully charged monitoring component for reuse. After the monitoring component is replaced, the lead wire can be connected to the 3D display glasses and the monitoring component. At this time, the personal data can be transmitted to the monitoring component through the 3D display glasses, which enables the device to maintain a long-term operating time by quickly replacing the monitoring component. At the same time, the personal data can be synchronized to the new monitoring component in time through the 3D display glasses, which can ensure the accuracy of the data transmitted by the monitoring component and avoid the occurrence of confusion in the monitoring data due to confusion between the helmet or the monitoring component.

[0018] 3. Each 3D display glasses of the present invention has an independent Bluetooth signal. After the 3D display glasses are connected to the monitoring component, the monitoring component can release the Bluetooth signal and receive the Bluetooth signals released by other monitoring components at the same time. By coordinating the camera and thermal imaging head shooting and the site positioning of the positioning module, the equipment can accurately determine the personnel data around the construction personnel, which can effectively avoid sending wrong judgments.

[0019] 4. After the monitoring component of the present invention determines the personnel data, it can identify and mark the personnel through the marking module, and wirelessly send the identification signal to the query module in the cloud server. The query module can query the identification signal uploaded within this time period within the specified time. By comparing the database of the staff, if all the personnel are identified, the query module can send a normal working signal to the receiving module of the pilot machine, and the voice module will play it. If some personnel are not recorded, the sending module can send a signal to the camera and positioning module of the unrecorded personnel, so that the camera and positioning module of the personnel will upload the positioning site and the captured picture to the cloud server for identification. The cloud server will determine whether the current personnel is in a normal working state. If the current personnel is in an abnormal state, the abnormal prompt module can send the abnormal data to the pilot machine, and the manager will handle the state. This makes the supervision of personnel more systematic and convenient. At the same time, this can also avoid the situation where construction personnel work alone and no one finds out about the accident.

[0020] 5. The data recorded by the temperature sensor and the pulse sensor of the present invention can be collected by the annotation module, and the annotation module can upload the physical status data of the staff within the specified time period to the data analysis module of the cloud server. After the data analysis module analyzes the data, if there is no abnormal status of the staff, the data analysis module can send a normal signal to the pilot machine. If there are more staff whose heart rate and body temperature are at dangerous values, the pilot machine will receive a signal to pause and rest, and the manager will remind the staff to pause and rest. If there are fewer workers at dangerous values, the data analysis module will issue a rest instruction to the staff at dangerous values ​​separately, and report the list of resting personnel to the pilot machine. If the heart rate and body temperature of a staff member are in an abnormal state, the data analysis module can call the camera and positioning module of the staff and nearby personnel to query the physical condition of the current staff. If the situation is urgent, the data analysis module can directly connect to the rescue module, and the rescue module will report the information and status of the staff to the hospital. If the situation is relatively stable, the data analysis module can send a signal to the pilot machine, and the manager will arrange for the staff to rest. The safety of the construction process of the construction site can be greatly improved through real-time supervision of the temperature sensor and pulse sensor system.

[0021] 6. In the offline state of the present invention, the positioning module cooperates with the body temperature sensor and the pulse sensor to generate specific information of the current staff, and the generated information can be transmitted to the marking module, which sends a Bluetooth signal to the outside world in real time. After the monitoring components of other workers receive the Bluetooth signal, they can transmit the signal to the 3D display glasses through the wire. In addition, the camera and the thermal imaging head can shoot the current signal source personnel to ensure accuracy. At this time, when the staff observes other staff through the 3D display glasses, the 3D display glasses can generate data such as body temperature, pulse and working hours above the heads of other staff. This allows the device to conduct mutual supervision between staff in the offline state to ensure normal use when the signal is poor, which is conducive to improving the scope of use of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 A schematic diagram of the helmet-view structure of a smart construction site supervision cloud platform for three-dimensional personnel positioning and supervision according to the present invention;

[0023] Figure 2 A schematic diagram of a top view structure of a monitoring component of a smart construction site monitoring cloud platform for three-dimensional personnel positioning and monitoring according to the present invention;

[0024] Figure 3 It is a schematic diagram of the rear fixed shell structure of a smart construction site supervision cloud platform for three-dimensional personnel positioning and supervision of the present invention;

[0025] Figure 4This is a schematic diagram of the overall structure of the monitoring components of a smart construction site monitoring cloud platform for three-dimensional personnel positioning and monitoring of the present invention;

[0026] Figure 5 A schematic diagram of the overall structure of a cloud server of a smart construction site supervision cloud platform for three-dimensional personnel positioning and supervision according to the present invention;

[0027] Figure 6 A schematic diagram of a personnel marking process of a smart construction site supervision cloud platform for three-dimensional personnel positioning and supervision of the present invention;

[0028] Figure 7 A schematic diagram of a personnel status analysis process of a smart construction site supervision cloud platform with three-dimensional personnel positioning supervision according to the present invention;

[0029] Figure 8 This is a schematic diagram of the offline working status process of a smart construction site supervision cloud platform with three-dimensional personnel positioning supervision according to the present invention.

[0030] In the figure: 1. Helmet; 2. Monitoring component; 201. Front fixed shell; 202. Light; 203. Camera; 204. Thermal imaging head; 205. Receiver; 206. Connecting end; 207. Rear fixed shell; 208. Body temperature sensor; 209. Pulse sensor; 210. Positioning module; 211. Labeling module; 212. Receiving module; 213. Voice module; 3. Cloud server; 301. Query module; 302. Sending module; 303. Abnormal prompt module; 304. Data analysis module; 305. Statistics module; 306. SOS module; 4. Conducting wire; 5. 3D display glasses. DETAILED DESCRIPTION

[0031] See also Figure 1-8The present invention provides a technical solution: a smart construction site supervision cloud platform for three-dimensional personnel positioning supervision, including a helmet 1, a monitoring component 2 and a cloud server 3. The monitoring component 2 is arranged on the front inner side of the helmet 1. The monitoring component 2 includes a front fixed shell 201, a lighting lamp 202, a camera 203, a thermal imaging head 204, a receiver 205, a connection end 206, a rear fixed shell 207, a body temperature sensor 208, a pulse sensor 209, a positioning module 210, a marking module 211, a receiving module 212 and a voice module 213. The front outer side of the front fixed shell 201 is provided with a lighting lamp 202, and the inner end of the lighting lamp 202 is provided with a camera 203, and the bottom outer side of the camera 203 is provided with a thermal imaging head 204, and the front fixed shell A receiver 205 is connected to the outer side of the left portion of 201, a connecting end 206 is provided on the outer side of the rear portion of the receiver 205, and a rear fixed shell 207 is connected to the outer side of the connecting end 206, a body temperature sensor 208 is provided on the outer side of the rear portion of the rear fixed shell 207, and pulse sensors 209 are connected to both sides of the rear portion of the rear fixed shell 207, the front fixed shell 201 is electrically connected to a positioning module 210, and the front fixed shell 201 is electrically connected to a labeling module 211, the front fixed shell 201 is electrically connected to a receiving module 212, and the front fixed shell 201 is electrically connected to a voice module 213, the cloud server 3 is wirelessly connected to the monitoring component 2, a conducting wire 4 is provided on the outer side of the right portion of the front fixed shell 201, and 3D display glasses 5 are provided at the end of the conducting wire 4.

[0032] See also Figure 1-4 , the lighting lamp 202 is distributed in a ring shape, and the lighting lamp 202 is fixedly connected to the front fixed shell 201, the connecting end 206 is integrated with the front fixed shell 201, and the connecting end 206 is snap-connected with the helmet 1, the connecting end 206 is threadedly connected to the rear fixed shell 207, and the rear fixed shell 207 is electrically connected to the front fixed shell 201, the rear fixed shell 207 is arc-shaped, and the curvature of the rear fixed shell 207 is similar to the curvature of the human forehead, the pulse sensor 209 is symmetrically distributed along the vertical center line of the body temperature sensor 208, and the pulse sensor 209 fits the human temple;

[0033] The specific operation is as follows: after the connecting end 206 on the outer side of the rear part of the front fixed shell 201 is inserted into the through hole on the front part of the helmet 1, the connecting end 206 can be engaged with the helmet 1, and then the rear fixed shell 207 is extended into the inner side of the helmet 1, and the rear fixed shell 207 is connected with the connecting end 206 on the inner side of the helmet 1, so that the monitoring component 2 can be combined into a whole. At the same time, this enables the power supply battery on the inner side of the front fixed shell 201 to power the rear fixed shell 207. After the construction workers on the construction site wear the helmet 1, the lighting lamp 202 can provide auxiliary lighting, which can facilitate the construction workers to work in an environment with insufficient light. In addition, the camera 203 can shoot the surrounding environment and the people around it. Because each construction worker wears a helmet 1 with a monitoring component 2 installed, through the mutual monitoring between the monitoring components 2 and the movement of the personnel during work, the equipment can naturally and comprehensively upload the detection data of the construction workers to the cloud server 3. This allows the equipment to conduct comprehensive personnel positioning monitoring at complex construction sites without affecting the normal construction of the staff, which is conducive to improving the monitoring effect of the equipment. The personal data of the construction workers is stored inside the 3D display glasses 5. Because the helmet 1 can be conveniently disassembled and assembled with the monitoring component 2, when the battery of the monitoring component 2 is low, the monitoring component 2 can be quickly disassembled and replaced with a fully charged monitoring component 2 for reuse. After the monitoring component 2 is replaced, the lead wire 4 can be connected to the 3D display glasses 5 and the monitoring component 2. At this time, the personal data can be transmitted to the monitoring component 2 through the 3D display glasses 5, which enables the equipment to maintain long-term operation time by quickly replacing the monitoring component 2. At the same time, the personal data can be synchronized to the new monitoring component 2 in time through the 3D display glasses 5, which can ensure the accuracy of the data transmitted by the monitoring component 2, and at the same time avoid the occurrence of confusion in the monitoring data caused by confusion between the helmet 1 or the monitoring component 2.

[0034] See also Figure 5-7 , the cloud server 3 includes a query module 301, a sending module 302, an abnormal prompt module 303, a data analysis module 304, a statistical module 305 and a distress module 306, the cloud server 3 is electrically connected with the query module 301, and the cloud server 3 is electrically connected with the sending module 302, the cloud server 3 is electrically connected with the abnormal prompt module 303, and the cloud server 3 is electrically connected with the data analysis module 304, the cloud server 3 is electrically connected with the statistical module 305, and the cloud server 3 is electrically connected with the distress module 306, the query module 301 is electrically connected in series with the sending module 302, and the sending module 302 is wirelessly connected with the receiver 205, the data analysis module 304 is electrically connected with the statistical module 305, and the data analysis module 304 is electrically connected with the sending module 302;

[0035] The specific operation is as follows: each 3D display glasses 5 has an independent Bluetooth signal. After the 3D display glasses 5 are connected to the monitoring component 2, the monitoring component 2 can release the Bluetooth signal and receive the Bluetooth signal released by other monitoring components 2 at the same time. By coordinating the camera 203 and the thermal imaging head 204 to shoot and the site positioning of the positioning module 210, the device can accurately determine the personnel data around the construction personnel, which can effectively avoid the situation of sending wrong judgments. After the monitoring component 2 determines the personnel data, the marking module 211 can be used to identify and mark the personnel, and the identification signal can be wirelessly sent to the query module 301 in the cloud server 3. The query module 301 can query the identification signal uploaded within this time period within the specified time. By comparing the database of staff members, if all personnel are identified, the query module 301 can send a normal working signal to the receiving module 212 of the pilot machine (construction site foreman or person in charge), and the voice module 213 will play it. If some individual personnel are not recorded, the sending module 302 can send a signal to the camera 203 and the positioning module 210 of the unrecorded personnel, so that the camera 203 and the positioning module 210 of the personnel will upload the positioning location and the captured image to the cloud server 3 for identification. The cloud server 3 will determine whether the current personnel is in a normal working state. If the current personnel is in an abnormal state, the abnormal prompt module 303 can send the abnormal data to the pilot machine, and the manager will handle the state, which makes the supervision of personnel more efficient. It is more systematic and convenient. At the same time, it can also avoid the situation where construction workers work alone and an accident occurs without anyone noticing. After the worker wears the helmet 1, the temperature sensor 208 at the rear of the rear fixed shell 207 can fit the worker's forehead, and the pulse sensor 209 can fit on the temple to detect the heartbeat status of the worker. The data recorded by the temperature sensor 208 and the pulse sensor 209 can be collected by the annotation module 211, and the annotation module 211 can upload the physical status data of the worker within a specified time period to the data analysis module 304 of the cloud server 3. After the data analysis module 304 analyzes the data, if there is no abnormality in the status of the personnel, the data analysis module 304 can send a normal signal to the pilot aircraft. If there are more heartbeats, When there is a staff member whose body temperature is at a dangerous value, the pilot plane will receive a signal to pause and rest, and the manager will remind the staff to pause and rest. If there are fewer workers at dangerous values, the data analysis module 304 will issue a rest instruction to the staff at dangerous values ​​separately, and report the list of resting personnel to the pilot plane. If the heartbeat and body temperature of a staff member are in an abnormal state, the data analysis module 304 can call the camera 203 and the positioning module 210 of the staff member and nearby personnel to inquire about the physical condition of the current staff member. If the situation is urgent, the data analysis module 304 can directly connect to the rescue module 306, and the rescue module 306 will report the information and status of the staff member to the hospital. If the situation is relatively stable, the data analysis module 304 can send a signal to the pilot plane.The manager arranges for the personnel to rest and recuperate, and the temperature sensor 208 and the pulse sensor 209 cooperate with the system for real-time monitoring, which can greatly improve the safety of the construction process.

[0036] See also Figure 1 and Figure 8 , the conductive wire 4 is threadedly connected to the front fixed housing 201, and the front fixed housing 201 is electrically connected to the 3D display glasses 5 through the conductive wire 4;

[0037] The specific operation is as follows: if the device is in an environment with poor signal, it can be turned on to work in offline state. In offline state, the positioning module 210 cooperates with the body temperature sensor 208 and the pulse sensor 209 to generate specific information of the current staff member, and the generated information can be transmitted to the marking module 211, and the marking module 211 sends a Bluetooth signal to the outside world in real time. After the monitoring component 2 of other workers receives this Bluetooth signal, it can transmit the signal to the 3D display glasses 5 through the lead wire 4. In addition, the camera 203 and the thermal imaging head 204 can shoot the current signal source personnel to ensure accuracy. At this time, when the staff observes other staff members through the 3D display glasses 5, the 3D display glasses 5 can generate data such as body temperature, pulse and working hours above the heads of other staff members. This allows the device to conduct mutual supervision between staff members in an offline state to ensure normal use when the signal is poor, which is conducive to improving the scope of use of the device.

[0038] In summary, when using the smart construction site monitoring cloud platform for three-dimensional personnel positioning and monitoring, first insert the connecting end 206 on the outer side of the rear part of the front fixed shell 201 into the through hole on the front part of the helmet 1, so that the connecting end 206 can be engaged with the helmet 1, and then extend the rear fixed shell 207 into the inner side of the helmet 1, and connect the rear fixed shell 207 with the connecting end 206 on the inner side of the helmet 1, so that the monitoring component 2 can be combined into a whole, and at the same time, the power supply battery inside the front fixed shell 201 can power the rear fixed shell 207. After the construction workers on the construction site wear the helmet 1, the lighting lamp 202 can provide auxiliary lighting, which can facilitate the construction workers to work in an environment with insufficient light;

[0039] Then, the personal data of the construction workers are stored inside the 3D display glasses 5. Since the helmet 1 can be conveniently disassembled and assembled with the monitoring component 2, when the battery of the monitoring component 2 is low, the monitoring component 2 can be quickly disassembled and replaced with a fully charged monitoring component 2 for reuse. After the monitoring component 2 is replaced, the lead wire 4 can be connected to the 3D display glasses 5 and the monitoring component 2. At this time, the personal data can be transmitted to the monitoring component 2 through the 3D display glasses 5, which enables the device to maintain a long-term operating time by quickly replacing the monitoring component 2. At the same time, the personal data can be synchronized to the new monitoring component 2 in time through the 3D display glasses 5, which can ensure the accuracy of the data transmitted by the monitoring component 2 and avoid the situation where the monitoring data is confused due to confusion between the helmet 1 or the monitoring component 2.

[0040] Then, after the 3D display glasses 5 are connected to the monitoring component 2, the monitoring component 2 can release the Bluetooth signal and receive the Bluetooth signal released by other monitoring components 2 at the same time. By cooperating with the camera 203 and the thermal imaging head 204 to shoot and the site positioning of the positioning module 210, the device can accurately determine the personnel data around the construction personnel, which can effectively avoid the situation of sending wrong judgments. After the monitoring component 2 determines the personnel data, the marking module 211 can be used to identify and mark the personnel, and the identification signal can be wirelessly sent to the query module 301 in the cloud server 3. The query module 301 can query the identification signal uploaded within this time period within the specified time. Compare the staff database. If all the staff are identified, the query module 301 can send a normal working signal to the receiving module 212 of the pilot aircraft, and the voice module 213 plays it. If some individual personnel are not recorded, the sending module 302 can send a signal to the camera 203 and the positioning module 210 of the unrecorded personnel, so that the camera 203 and the positioning module 210 of the personnel will upload the positioning location and the captured image to the cloud server 3 for identification. The cloud server 3 will determine whether the current personnel is in a normal working state. If the current personnel is in an abnormal state, the abnormal prompt module 303 can send the abnormal data to the pilot aircraft, and the administrator will handle the state.

[0041] After the staff member puts on the helmet 1, the body temperature sensor 208 at the rear of the rear fixed shell 207 can fit the staff member's forehead, and the pulse sensor 209 can fit on the temple to detect the heartbeat status of the staff member. The data recorded by the body temperature sensor 208 and the pulse sensor 209 can be collected by the marking module 211, and the marking module 211 can upload the physical status data of the staff member within a specified time period to the data analysis module 304 of the cloud server 3. After the data analysis module 304 analyzes the data, if there is no abnormality in the status of the personnel, the data analysis module 304 can send a normal signal to the pilot machine. If there are many staff members whose heartbeat and body temperature are at dangerous values, the pilot machine will receive a message to pause and rest. The manager reminds the staff to take a break. If there are fewer workers at risk, the data analysis module 304 will issue a rest instruction to the workers at risk and report the list of resting personnel to the pilot. If the heart rate and body temperature of a worker are abnormal, the data analysis module 304 can call the camera 203 and the positioning module 210 of the worker and nearby personnel to query the physical condition of the current personnel. If the situation is urgent, the data analysis module 304 can directly connect to the rescue module 306, and the rescue module 306 will report the information and status of the personnel to the hospital. If the situation is relatively stable, the data analysis module 304 can send a signal to the pilot, and the manager will arrange for the personnel to rest.

[0042] Finally, when the device is in an environment with poor signal, it can start working in offline mode. In offline mode, the positioning module 210 cooperates with the body temperature sensor 208 and the pulse sensor 209 to generate specific information of the current staff member, and the generated information can be transmitted to the labeling module 211, and the labeling module 211 sends a Bluetooth signal to the outside world in real time. After the monitoring component 2 of other workers receives the Bluetooth signal, it can transmit the signal to the 3D display glasses 5 through the lead wire 4. In addition, the camera 203 and the thermal imaging head 204 can take pictures of the current signal source personnel to ensure accuracy. At this time, when the staff observes other staff members through the 3D display glasses 5, the 3D display glasses 5 can generate data such as body temperature, pulse and working hours above the heads of other staff members. This allows the device to conduct mutual supervision between staff members in an offline state to ensure normal use when the signal is poor, which is conducive to improving the scope of use of the device.

Claims

1. A smart construction site supervision cloud platform with three-dimensional personnel positioning supervision, characterized in that: The invention comprises a helmet (1), a monitoring component (2) and a cloud server (3), wherein the monitoring component (2) is arranged on the front inner side of the helmet (1), and the monitoring component (2) comprises a front fixed shell (201), an illuminating lamp (202), a camera (203), a thermal imaging head (204), a receiver (205), a connecting end (206), a rear fixed shell (207), a body temperature sensor (208), a pulse sensor (209), a positioning module (210), a labeling module (211), a receiving module (212) and a voice module (213), and the front outer side of the front fixed shell (201) is provided with a A lighting lamp (202) is arranged, and a camera (203) is arranged at the inner end of the lighting lamp (202); a thermal imaging head (204) is arranged on the outer side of the bottom of the camera (203); a receiver (205) is connected to the outer side of the left portion of the front fixed shell (201); a connecting end (206) is arranged on the outer side of the rear portion of the receiver (205); and a rear fixed shell (207) is connected to the outer side of the connecting end (206); a body temperature sensor (208) is arranged on the outer side of the rear portion of the rear fixed shell (207); and pulse sensors (209) are connected to both sides of the rear portion of the rear fixed shell (207). The front fixed shell (201) is electrically connected to a positioning module (210), and the front fixed shell (201) is electrically connected to a labeling module (211), the front fixed shell (201) is electrically connected to a receiving module (212), and the front fixed shell (201) is electrically connected to a voice module (213), the cloud server (3) is wirelessly connected to the monitoring component (2), a guide wire (4) is arranged on the right outer side of the front fixed shell (201), and 3D display glasses (5) are arranged at the end of the guide wire (4), the lighting lamps (202) are distributed in a ring shape, and the lighting lamps (202) are connected to the front fixed shell (201). The housing (201) is fixedly connected, the connecting end (206) is integrated with the front fixed housing (201), and the connecting end (206) is snap-connected with the helmet (1), the connecting end (206) is threadedly connected with the rear fixed housing (207), and the rear fixed housing (207) is electrically connected with the front fixed housing (201), the rear fixed housing (207) is arc-shaped, and the arc of the rear fixed housing (207) is similar to the arc of the forehead of a human body, the pulse sensor (209) is symmetrically distributed along the vertical center line of the body temperature sensor (208), and the pulse sensor (209) fits against the temple of the human body.

2. According to claim 1, a smart construction site supervision cloud platform for three-dimensional personnel positioning supervision is characterized in that: The cloud server (3) comprises a query module (301), a message sending module (302), an abnormality prompt module (303), a data analysis module (304), a statistics module (305) and a distress call module (306); the cloud server (3) is electrically connected to the query module (301), and the cloud server (3) is electrically connected to the message sending module (302); the cloud server (3) is electrically connected to the abnormality prompt module (303), and the cloud server (3) is electrically connected to the data analysis module (304); the cloud server (3) is electrically connected to the statistics module (305), and the cloud server (3) is electrically connected to the distress call module (306).

3. According to claim 2, a smart construction site supervision cloud platform for three-dimensional personnel positioning supervision is characterized in that: The query module (301) and the signaling module (302) are electrically connected in series, and the signaling module (302) and the receiver (205) are wirelessly connected.

4. According to claim 2, a smart construction site supervision cloud platform for three-dimensional personnel positioning supervision is characterized in that: The data analysis module (304) is electrically connected to the statistical module (305), and the data analysis module (304) is electrically connected to the signaling module (302).

5. According to claim 1, a smart construction site supervision cloud platform for three-dimensional personnel positioning supervision is characterized in that: The conducting wire (4) is threadedly connected to the front fixed shell (201), and the front fixed shell (201) is electrically connected to the 3D display glasses (5) via the conducting wire (4).

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