CN115977372A - Hanging basket operation system - Google Patents

Abstract

The embodiment of the application provides a hanging flower basket operating system, includes: a suspension mechanism; the device comprises a suspension platform, a working steel wire rope, a safety steel wire rope, a U-shaped lock sleeve, a safety lock, a heavy hammer, universal wheels and a base; the first end of the working steel wire rope is connected with the suspension mechanism; the second end of the working steel wire rope is connected with the suspension platform; the first end of the safety steel wire rope is connected with the suspension mechanism; the U-shaped lock sleeve is arranged on the suspension platform; the second end of the safety steel wire rope penetrates through the safety lock, the U-shaped lock sleeve and the heavy hammer to be connected; the heavy hammer is connected with the universal wheel; the base is provided with an upper opening and a lower opening; the base is in a cavity shape, and the cavity is used for accommodating the universal wheel; the size of the universal wheel is smaller than that of the lower opening and larger than that of the upper opening; the universal wheel enters the cavity from the lower opening, and the top of the universal wheel extends out of the upper opening and is connected with the heavy hammer. By implementing the above embodiment, excessive sway of the suspended platform can be avoided.

Description

A hanging basket operation system

technical field

The present application relates to the technical field of engineering construction operations, in particular to a hanging basket operation system.

Background technique

The hanging basket is a construction facility for high-altitude operations such as exterior wall facade insulation, coating, and curtain walls in construction projects. Composed of safety wire ropes and roof suspension points. The hanging basket is a construction operation facility that uses a hoist to drive a suspension platform, and runs up and down along the building's facade through a steel wire rope. It is also a working platform for exterior wall workers. It is widely used in thermal insulation construction and maintenance and cleaning of exterior walls. Using the hanging basket can avoid setting up external scaffolding. During the construction process, the construction effect of the external wall facade can be observed at any time, and problems can be adjusted in time. Compared with the cost of external wall scaffolding, the construction cost can be greatly reduced and work efficiency can be improved. At present, the following problems exist in the construction of hanging baskets: the suspension platform is prone to swing transition due to the wind force and the unlimited swing of the wire rope.

Contents of the invention

The purpose of the embodiments of the present application is to provide a hanging basket operation system, which can avoid overloading of the hanging basket operation system, and make the suspension platform synchronously lifted and lowered so that it is not easy to tilt and falls stably.

The hanging basket operation system provided in the embodiment of the present application includes: a suspension mechanism; a suspension platform, a working wire rope, a safety wire rope, a U-shaped lock sleeve, a safety lock, a weight, a universal wheel, and a base;

The first end of the working wire rope is connected to the suspension mechanism;

The second end of the working wire rope is connected to the suspension platform;

The first end of the safety wire rope is connected to the suspension mechanism;

The U-shaped lock sleeve is arranged on the suspension platform;

The second end of the safety wire rope is connected through the safety lock, the U-shaped lock sleeve and the weight;

The base is provided with an upper opening and a lower opening;

The base is in the shape of a cavity, and the cavity is used to accommodate the universal wheel;

The size of the universal wheel is smaller than the lower port and larger than the upper port;

The universal wheel enters the cavity from the lower opening, and the top extends out of the upper opening to connect with the weight.

In the above implementation process, the embodiment of the present application provides a setting method of a heavy hammer. Compared with the prior art, the present application firstly sets a U-shaped lock sleeve to limit the movable range of the upper part of the safety wire rope. Thereby making the heavy hammer stable, on the other hand, installation specifications are required to maintain the flexibility of the heavy hammer during the construction process. Therefore, a universal wheel is provided, and the weight is connected to the universal wheel; the universal wheel is fixed in the base; the base is provided with an upper opening; the diameter of the upper opening is smaller than that of the universal The diameter of the wheel; the diameter of the upper port is greater than the diameter of the weight; the top of the universal wheel passes through the upper port and is connected with the weight. Through the universal wheel, the heavy hammer can move flexibly during the construction process. A base is arranged below the universal wheel, and an upper opening is provided on the base, the size of the upper opening is greater than the size of the weight, and the top of the universal wheel passes through the upper opening and is connected with the weight. It enables the heavy hammer to move flexibly during the construction process. Based on the above-mentioned implementation mode, the swing function of the steel wire rope required by the specification can be satisfied to the greatest extent, and at the same time, the function of uncontrolled swing of the hanging basket caused by external forces such as sudden strong winds can be avoided.

Further, the U-shaped lock sleeve is horizontally arranged on the first side of the bottom of the hanging basket;

The first side is perpendicular to the installation direction of the safety lock.

Further, the hanging basket operation system also includes: a tension sensor, a working wire rope, and a display device;

The first end of the working wire rope is connected to the suspension mechanism;

The second end of the working wire rope is connected to the suspension platform;

The tension sensor is arranged on the safety wire rope and the working wire rope;

The tension sensor is connected to the display device;

The display device is used to obtain and display the load value of the suspension platform according to the value of the tension sensor.

In the above implementation process, the safety wire rope and the working wire rope are provided with a tension sensor, and the tension sensor is connected to the display device. The display device can obtain and display the load value of the suspension platform according to the tension sensor. Based on the above implementation, it can ensure that the suspension platform Keep stable to ensure the safety of construction workers.

Further, the hanging basket operation system also includes:

Control box, hoist;

The hoist is connected to the working wire rope;

The control box is connected to the display device;

The control box is arranged on the suspension platform;

A ten-axis inertial attitude sensor is arranged in the control box;

The display device is connected to the hoist;

The display device is used to control the hoist to adjust the working wire rope according to the data of the ten-axis inertial attitude sensor.

In the above implementation process, the driving hoist is used to drive the working wire rope to work, the suspension platform is provided with a control box, and a ten-axis inertial attitude sensor is arranged in the control box, and the display device can control the said machine according to the data of the ten-axis inertial attitude sensor. The hoist adjusts the working wire rope, so that the angle of the suspended platform can be adjusted when the suspended platform is tilted, so that the suspended platform remains horizontal.

Further, the hanging basket operation system includes: a micro fan;

The micro fan is arranged on both sides of the suspension platform;

The micro fan is connected to the display device;

The display device is used to control the working state of the micro fan according to the data of the ten-axis inertial attitude sensor.

In the above implementation process, the aerodynamic force generated by the forward rotation and reverse rotation of the micro fan is used to assist the hanging platform to adjust the forward and backward swing posture. The force is used to control and adjust the dynamic swing of the gondola. When the suspension platform is swayed by external force, the display device sends instructions to the micro-fan, and according to the dynamic posture and trend of the suspension platform, the micro-fan is driven to generate the opposite force, driving the suspension platform to stop swinging and return to balance.

Further, the hanging basket operation system includes: a laser ranging sensor, a laser projection board;

The laser ranging sensor is arranged on both sides of the suspension platform;

The laser projection board is arranged on the end face of the boom of the suspension platform;

The laser light of the laser ranging sensor is projected upward;

The laser ranging sensor is connected to the display device;

The display device is used for sending out warning information according to the data of the laser sensor.

In the above implementation process, laser ranging sensors are installed on both sides of the suspension platform, and the laser light of the laser ranging sensor is projected upwards. The data can obtain the height data of the current suspension flat belt and display it.

Further, the hanging basket operation system includes: a spring shock absorber;

The spring shock absorber is arranged at the bottom of the suspension platform.

In the above implementation process, a spring shock absorber is installed at the bottom of the suspension platform to assist in shock absorption and avoid physical discomfort caused by vibration.

Further, the hanging basket operation system also includes: a client;

The display device is connected to the client;

The display device is further configured to send the data received by the display device to the client.

In the above implementation process, the display device sends the obtained data to the client, which enables the staff to obtain the working status of the hanging basket operation system in time through the terminal and monitor it in real time.

Further, the hanging basket operation system also includes: the cloud;

The display device is connected to the cloud;

The display device is further configured to send the data received by the display device to the cloud for storage.

In the above implementation process, the display device sends the received information to the cloud for storage, which can facilitate subsequent data management and analysis.

Further, the hanging basket operation system includes: an audible and visual alarm;

The sound and light alarm is connected to the display device;

The sound and light alarm is used to issue an alarm according to the signal sent by the display device.

In the above implementation process, the sound and light alarm can issue an alarm in time to make the staff more vigilant.

Other features and advantages disclosed in the present application will be described in the subsequent description, or some of the features and advantages can be deduced or unambiguously determined from the description, or can be known by implementing the above-mentioned technology disclosed in the present application.

In order to make the above-mentioned purpose, features and advantages of the present application more comprehensible, preferred embodiments will be described in detail below together with the accompanying drawings.

Description of drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present application, the accompanying drawings that need to be used in the embodiments of the present application will be briefly introduced below. It should be understood that the following drawings only show some embodiments of the present application, so It should not be regarded as a limitation on the scope, and those skilled in the art can also obtain other related drawings according to these drawings without creative work.

Fig. 1 is the structural representation of the hanging basket operation system provided by the embodiment of the present application;

Fig. 2 is a schematic structural view of the universal wheel assembly provided by the embodiment of the present application;

Fig. 3 is a partial structural schematic diagram of the hanging basket operation system provided by the embodiment of the present application;

Fig. 4 is a partial structural schematic diagram of the hanging basket operation system provided by the embodiment of the present application;

Fig. 5 is a schematic diagram of the internal structure of the hanging basket operation system provided by the embodiment of the present application.

Icons: 1-suspension mechanism; 2-travel limit switch; 3-safety lock; 4-hoist; 5-weight hammer; 6-suspension platform; 7-working wire rope; 8-safety wire rope; 9-safety rope; 10-Building beams and columns; 11-Control box; 12-Tension sensor; 13-Laser ranging sensor; 14-Laser projection board; 15-U-shaped lock sleeve; 16-Universal wheel assembly; 19-spring shock absorber; 20-counterweight sensor; 161-universal wheel; 1621-upper port; 1622-lower port; 162-base; A-display device; B-cloud; C-client; D-miniature fan.

Detailed ways

The technical solutions in the embodiments of the present application will be described below with reference to the drawings in the embodiments of the present application.

It should be noted that like numerals and letters denote similar items in the following figures, therefore, once an item is defined in one figure, it does not require further definition and explanation in subsequent figures. Meanwhile, in the description of the present application, the terms "first", "second" and the like are only used to distinguish descriptions, and cannot be understood as indicating or implying relative importance.

Example

Referring to Figure 1, Figure 2, Figure 3, and Figure 4, the embodiment of the present application provides a hanging basket operation system, including: a suspension mechanism 1; a suspension platform 6, a working wire rope 7, a safety wire rope 8, a U-shaped lock sleeve 15, Safety lock 3, weight 5, universal wheel 161, base 162; the first end of the working wire rope 7 is connected to the suspension mechanism 1; the second end of the working wire rope 7 is connected to the suspension platform 6 The first end of the safety wire rope 8 is connected to the suspension mechanism 1; the U-shaped lock sleeve 15 is arranged on the suspension platform 6; the second end of the safety wire rope 8 passes through the safety lock 3, The U-shaped lock sleeve 15 is connected to the weight 5; the weight 5 is connected to the universal wheel 161; the base 162 is provided with an upper port 1621 and a lower port 1622; the base 162 is hollow, The cavity is used to accommodate the universal wheel 161; the size of the universal wheel 161 is smaller than the lower port 1622 and larger than the upper port 1621; the universal wheel 161 enters the universal wheel 161 from the lower port 1622 The cavity, the top of the universal wheel 161 extends out of the upper port 1621, and is connected with the weight.

The size of the universal wheel 161 is smaller than the lower port 1622 and larger than the upper port 1621, which means that the universal wheel 161 can completely enter the cavity from the lower port 1622, but cannot completely exit the cavity from the upper port 1621.

Referring to Fig. 1, there are two suspension mechanisms 1, which are respectively arranged on the top surface of the building. There are building beams and columns 10 on the top surface of the building. The first end of each suspension mechanism 1 is provided with a counterweight, and the second end is connected by a connecting rope. The side of the suspension platform 6 is suspended so that the suspension platform 6 remains balanced.

The heavy hammer 5 is connected with the universal wheel 161 by bolts, the heavy hammer 5 leaves grooves with holes, the universal wheel 161 is provided with lugs, the lugs have holes, and the two holes penetrate into the bolts.

In the above implementation process, the embodiment of the present application provides a setting method of the weight 5. Compared with the prior art, the present application firstly sets the U-shaped lock sleeve 15, which can control the movable range of the upper half of the safety wire rope 8. Restrictions are made so that the weight 5 is stable. On the other hand, installation specifications are required to maintain the flexibility of the weight 5 during construction. Therefore, a universal wheel 161 is provided, and the weight 5 is connected to the universal wheel 161; the universal wheel 161 is fixed in the base 162; the base 162 is provided with an upper opening 1621; the upper opening The diameter of 1621 is smaller than the diameter of the universal wheel 161; the diameter of the upper port 1621 is larger than the diameter of the weight 5; the top of the universal wheel 161 passes through the upper port 1621 to connect with the weight 5. Through the universal wheel 161, the heavy hammer 5 can move flexibly during construction. A base 162 is arranged below the universal wheel 161, and an upper opening 1621 is provided on the base 162. The size of the upper opening 1621 is larger than that of the weight 5, and the top of the universal wheel 161 passes through the upper opening 1621 and is connected with the weight 5, so that the weight 5 Flexible movement during construction. Based on the above-mentioned implementation mode, the swing function of the steel wire rope required by the specification can be satisfied to the greatest extent, and at the same time, the function of uncontrolled swing of the hanging basket caused by external forces such as sudden strong winds can be avoided.

Referring to FIG. 2 , it is a schematic diagram of the universal wheel assembly 16 , including: a weight 5 , a universal wheel 161 , a base 162 , and an upper opening 1621 and a lower opening 1622 are opened on the base 162 .

Referring to FIG. 5 , in a possible implementation manner, a counterweight, a working wire rope 7 , and a display device A; the counterweight and the suspension platform 6 are suspended from the suspension mechanism 1 through the working wire rope 7 two ends; the counterweight is provided with a counterweight sensor; the counterweight sensor is connected to the display device.

In the above implementation process, the counterweight is used to balance the suspension platform 6, so that the suspension platform 6 remains stable during work, and a counterweight sensor 20, a counterweight sensor 20 and a display device are arranged on the counterweight A is connected, and the staff can obtain the weight of the current counterweight in time through the display device A, so that the suspension platform 6 remains stable and construction safety is ensured.

The system also includes basic components such as travel limit switch 2 and safety rope 9.

It can be understood that the display device A has a data processing function.

In a possible implementation manner, the system further includes an audible and visual alarm 18, and the audible and visual alarm 18 is connected to the display device A.

Further, the counterweight limit value is set on the display device A. When the display device A determines that the value of the counterweight sensor 20 exceeds the limit, the audible and visual alarm 18 is controlled to issue an alarm, or an alarm can be issued through the display interface.

In a possible implementation manner, the U-shaped lock sleeve is horizontally arranged on the first side of the bottom of the hanging basket;

The first side is perpendicular to the installation direction of the safety lock.

In a possible implementation, the U-shaped lock sleeve 15 is made of round steel, and the outside of the U-shaped lock sleeve 15 is covered with a rubber skin, which can prevent the round steel from wearing the safety wire rope, and can also ensure the strength of the U-shaped lock sleeve 15 .

In a possible implementation manner, the hanging basket operation system further includes: a tension sensor 12;

The tension sensor 12 is arranged on the working wire rope 7 and the safety wire rope 8;

The tension sensor 12 is connected to the display device A;

The display device A is used to obtain and display the load value of the suspension platform 6 according to the value of the tension sensor 12 .

It can be understood that the tension between the working wire rope 7 and the tension sensor 12 includes the load force of the hoisting platform, which can improve the accuracy of load calculation.

In the above implementation process, the working wire rope 7 is provided with a tension sensor 12, the tension sensor 12 is connected to the display device A, and the display device A can acquire and display the load value of the suspension platform 6 according to the data of the tension sensor 12, based on the above-mentioned embodiment , which can ensure the stability of the suspension platform 6 and ensure the safety of construction personnel. The tension can preset the limit value for the load of the suspension platform 6, and compare the monitoring values of the two tension sensors of the two working wire ropes, and if the limit value is exceeded, an alarm will be activated.

The tension sensor 12 on the safety wire rope 8 is to monitor and record the actual impact of the weight 5 at the bottom of the safety wire rope 8 on the stress of the safety wire rope 8. Since the working wire rope 7 normally bears the load of the hanging basket, the safety wire rope 8 is broken when the working wire rope 7 In case of emergency, lock the hanging platform in emergency.

In a possible implementation manner, the control box 11, the hoist 4;

The hoist 4 is connected to the working wire rope 7;

The control box 11 is connected to the display device A;

The control box 11 is arranged on the suspension platform 6;

The control box 11 is provided with a ten-axis inertial attitude sensor;

The display device A is connected to the hoist 4;

The display device A is used to control the hoist 4 to adjust the working wire rope 7 according to the data of the ten-axis inertial attitude sensor.

In the above embodiment, the ten-axis inertial attitude sensor includes: a three-axis acceleration sensor, a three-axis gyroscope, a three-axis magnetic field sensor, a three-axis angle sensor, an air pressure altitude sensor, an altitude sensor, and a GPS sensor. It is used for fusion measurement of state measurement, inclination measurement, vibration measurement, barometric altitude and GPS altitude. The display device A can use the angle measurement system angle X, angle Y, and angle Z monitored by the ten-axis inertial attitude sensor to transmit and analyze the front, rear, left, right, up, and down tilt angles of the hoisting platform; use the fusion of barometric altitude and GPS altitude The algorithm measures the real-time running height of the gondola.

In the above implementation process, the driving hoist 4 is used to drive the working wire rope to control the suspension height of the suspension platform. The suspension platform 6 is provided with a control box 11, and the control box 11 is provided with a ten-axis inertial attitude sensor. The display device A can control the hoist 4 to adjust the working wire rope 7 according to the data of the ten-axis inertial attitude sensor, so that the angle of the suspension platform 6 can be adjusted when the suspension platform 6 is inclined, so that the suspension Hanging platform 6 keeps level.

In a possible implementation manner, the hanging basket operation system includes: a micro blower D;

The micro fan D is arranged on both sides of the suspension platform 6;

The micro fan D is connected to the display device A;

The display device A is used to control the working state of the micro fan D according to the data of the ten-axis inertial attitude sensor.

In the above implementation process, the aerodynamic force generated by the forward rotation and reverse rotation of the miniature fan D is used to assist the hanging platform to adjust the forward and backward swing posture. Fan D exerts force to control and adjust the dynamic swing of the hanging basket. When the suspension platform 6 is swayed by external force, the display device A sends an instruction to the micro-fan D, and according to the movement posture and trend of the suspension platform 6, the micro-fan D is driven to generate the opposite force, and the suspension platform 6 stops swinging and returns to balance.

In a possible implementation, considering that the ten-axis attitude angle sensor E is very sensitive to size monitoring, the allowable inclination can be preset in the display device A system, and the command is sent to the hoist 4 and The micro blower D is adjusted.

In a possible implementation manner, the hanging basket operation system includes: a laser ranging sensor 13, a laser projection board 14;

The laser ranging sensor 13 is arranged on both sides of the suspension platform 6;

The laser projection plate 14 is arranged on the end face of the boom of the suspension platform 6;

The laser light of the laser ranging sensor 13 is projected upward;

The laser ranging sensor 13 is connected with the display device A;

The display device A is used for sending out warning information according to the data of the laser sensor.

In the above implementation process, the two sides of the suspension platform 6 are provided with laser distance measuring sensors 13, and the laser light of the laser distance measuring sensors 13 is projected upwards, and the laser distance measuring sensors 13 send the measured data to the display device A, and the display device A According to the data of the laser ranging sensor 13, the height data of the current suspension flat belt can be obtained and displayed.

In a possible implementation, the display device A is also used to preset the upper limit value and the lower limit value; when the laser ranging sensor 13 actually measures that the hoisting platform is running close to the high preset value or the low preset value, an alarm is activated hint.

Exemplarily, when the height of the hoisting platform exceeds the preset high limit value, the display device A controls the audible and visual alarm 18 to sound an alarm, limiting the working state of the hoist 4 so that the hoisting platform can only run downwards. When the height of the hoisting platform is lower than the lower limit value, the display device A controls and sends out an alarm.

Further, a relevant trigger key is generated on the display device A, and the staff triggers the key to make the display device A control the sound and light alarm 18 to stop the alarm.

The button that stops sending the alarm can also be set on the sound and light alarm 18.

In a possible implementation manner, the hanging basket working system includes: a spring shock absorber 19;

The spring shock absorber 19 is arranged at the bottom of the suspension platform 6 .

In the above implementation process, a spring shock absorber 19 is installed at the bottom of the suspension platform 6 to assist shock absorption and avoid physical discomfort caused by vibration.

In a possible implementation, the display device A is also used to receive the up and down running command and the working height, and according to the up and down running command and the running height, make the hoist 4 work and drive the hoisting platform to run to the working height.

The working height is calculated by the display device A according to the data of the laser ranging sensor 13 and the ten-axis attitude angle sensor E.

In a possible implementation manner, the hanging basket operation system further includes: a client C;

The display device A is connected to the client C;

The display device A is further configured to send the data received by the display device A to the client C.

Client C includes: APP client software, WeChat applets, webpage applets, computer client software, etc.

The client C is also provided with project information of the engineering project where the hanging basket operation system is located, and the installation status of each hardware in the hanging basket working system.

The display device A is also used to receive commands from the client C, and according to the commands from the client C, the hoist 4 works to control the working height of the hoisting platform.

The client C software is also used to receive the information of related items, and judge whether the inspection or maintenance node has been reached according to the information of related items and the working status information of the hanging basket operation system, and if so, send a prompt message.

The client C software is also used to receive the supplementary information in the specification form, the information of related items, and the working status information of the hanging basket operation system.

Exemplarily, the prompt information may be a pop-up window or the like.

Further, the hanging basket operation system further includes: a cloud B; the display device A is connected to the cloud B; the display device A is also used to send the data received by the display device A to the cloud B for storage.

In the above implementation process, the display device A sends the received information to the cloud B for storage, which can facilitate subsequent data management and analysis.

The above descriptions are only examples of the present application, and are not intended to limit the scope of protection of the present application. For those skilled in the art, various modifications and changes may be made to the present application. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of this application shall be included within the protection scope of this application. It should be noted that like numerals and letters denote similar items in the following figures, therefore, once an item is defined in one figure, it does not require further definition and explanation in subsequent figures.

The above is only a specific implementation of the application, but the scope of protection of the application is not limited thereto. Anyone familiar with the technical field can easily think of changes or substitutions within the technical scope disclosed in the application. Should be covered within the protection scope of this application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

It should be noted that in this article, 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 that there is a relationship between these entities or operations. There is no such actual relationship or order between them. Furthermore, the term "comprises", "comprises" or any other variation thereof is intended to cover a non-exclusive inclusion such that a process, method, article, or apparatus comprising a set of elements includes not only those elements, but also includes elements not expressly listed. other elements of or also include elements inherent in such a process, method, article, or device. Without further limitations, an element defined by the phrase "comprising a ..." does not exclude the presence of additional identical elements in the process, method, article or apparatus comprising said element.

Claims (10)

1. A hanging basket operation system, characterized in that it includes: a suspension mechanism; a suspension platform, a working wire rope, a safety wire rope, a U-shaped lock sleeve, a safety lock, a weight, a universal wheel, and a base; The first end of the working wire rope is connected to the suspension mechanism; The second end of the working wire rope is connected to the suspension platform; The first end of the safety wire rope is connected to the suspension mechanism; The U-shaped lock sleeve is arranged on the suspension platform; The second end of the safety wire rope is connected through the safety lock, the U-shaped lock sleeve and the weight; The base is provided with an upper opening and a lower opening; The base is in the shape of a cavity, and the cavity is used to accommodate the universal wheel; The size of the universal wheel is smaller than the lower port and larger than the upper port; The universal wheel enters the cavity from the lower opening, and the top extends out of the upper opening to connect with the weight. 2. The hanging basket operation system according to claim 1, characterized in that, The U-shaped lock sleeve is horizontally arranged on the first side of the bottom of the hanging basket; The first side is perpendicular to the installation direction of the safety lock. 3. The hanging basket operation system according to claim 1, characterized in that, the hanging basket operation system further comprises: a tension sensor, a working wire rope, and a display device; The first end of the working wire rope is connected to the suspension mechanism; The second end of the working wire rope is connected to the suspension platform; The tension sensor is arranged on the safety wire rope and the working wire rope; The tension sensor is connected to the display device; The display device is used to obtain and display the load value of the suspension platform according to the value of the tension sensor. 4. The hanging basket operation system according to claim 3, characterized in that, the hanging basket operation system further comprises: Control box, hoist; The hoist is connected to the working wire rope; The control box is connected to the display device; The control box is arranged on the suspension platform; A ten-axis inertial attitude sensor is arranged in the control box; The display device is connected to the hoist; The display device is used to control the hoist to adjust the working wire rope according to the data of the ten-axis inertial attitude sensor. 5. The hanging basket operation system according to claim 4, characterized in that, The hanging basket operation system includes: a micro fan; The micro fan is arranged on both sides of the suspension platform; The micro fan is connected to the display device; The display device is used to control the working state of the micro fan according to the data of the ten-axis inertial attitude sensor. 6. The hanging platform operation system according to claim 3, characterized in that, the hanging platform operation system comprises: a laser ranging sensor and a laser projection board; The laser ranging sensor is arranged on both sides of the suspension platform; The laser projection board is arranged on the end face of the boom of the suspension platform; The laser light of the laser ranging sensor is projected upward; The laser ranging sensor is connected to the display device; The display device is used for sending out warning information according to the data of the laser sensor. 7. The hanging basket working system according to claim 6, characterized in that, the hanging basket working system comprises: a spring shock absorber; The spring shock absorber is arranged at the bottom of the suspension platform. 8. The hanging basket operation system according to claim 7, characterized in that, The hanging basket operation system also includes: a client; The display device is connected to the client; The display device is further configured to send the data received by the display device to the client. 9. The hanging basket operation system according to claim 3, characterized in that, the hanging basket operation system further comprises: a cloud; The display device is connected to the cloud; The display device is further configured to send the data received by the display device to the cloud for storage. 10. The hanging platform operation system according to claim 3, characterized in that, the hanging platform operation system comprises: an audible and visual alarm; The sound and light alarm is connected to the display device; The sound and light alarm is used to issue an alarm according to the signal sent by the display device.

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