Rain-proof shed for construction hanging basket and construction hanging basket

Abstract

The utility model relates to the field of bridge construction, and provides a rainproof shed for a construction hanging basket and the construction hanging basket. The rainproof shed for the construction hanging basket comprises a supporting frame, and a sliding way is arranged on the supporting frame. The driving part is mounted on the supporting frame; the rainproof tarpaulin is slidably mounted on the slide way, and the end part of the rainproof tarpaulin is in transmission connection with the driving piece; and the rainfall detection part is mounted on the rainproof tarpaulin and is electrically connected with the driving part, so that the driving part acts based on a detection value of the rainfall detection part. By means of automatic control of the rainproof shed for the construction hanging basket, the requirement for manual intervention is reduced, and equipment damage and maintenance cost caused by improper manual operation are reduced. Meanwhile, due to the durability of the rainproof tarpaulin, the replacement frequency and cost are reduced. The combined application of the rainfall detection part and the driving part shows the development trend of the construction equipment towards the intelligentization and automation directions, and provides reference for the research and development of more intelligent construction equipment in the future.

Description

Technical Field

[0001] The utility model relates to the field of bridge construction and provides a rainproof shed for a construction hanging basket and a construction hanging basket. Background Art

[0002] Basket construction is a common and important method for constructing continuous beams and a key process in bridge construction control. However, continuous beam construction often faces challenges such as rainy weather, which can hinder continuous work, and workers are highly susceptible to heatstroke during high summer temperatures. Basket construction is particularly risky when working near operating lines. Floating objects must not be placed within the work area, and therefore, ordinary tarpaulins cannot be used as rain protection.

[0003] The existing technology of using a hanging basket to construct a foldable rainproof awning is troublesome in shrinking and folding the rainproof cloth, and the folding and shrinking of the rainproof cloth cannot be achieved by adaptively opening and closing the rainproof cloth, and the degree of automation is low. Utility Model Content

[0004] The embodiment of the utility model provides a rainproof shed for a construction hanging basket, which is used to solve the defect of low automation level of rainproof sheds for construction hanging baskets in the related art.

[0005] The utility model also provides a construction hanging basket.

[0006] The first embodiment of the present invention provides a rainproof shed for a construction hanging basket, comprising:

[0007] A support frame, wherein a slide is provided on the support frame;

[0008] A driving member, mounted on the support frame;

[0009] A rainproof tarpaulin is slidably mounted on the slideway, and an end portion of the rainproof tarpaulin is transmission-connected to the driving member;

[0010] A rainfall detecting element is installed on the rainproof tarpaulin and is electrically connected to the driving element so that the driving element operates based on the detection value of the rainfall detecting element.

[0011] According to an embodiment of the present invention, a slider is provided on the rainproof tarpaulin, and a transmission member is provided at the output end of the driving member, and the transmission member is in transmission connection with the slider.

[0012] According to an embodiment of the present invention, the transmission member is a screw, and a connecting hole is provided on the slider, and the screw is rotatably inserted into the connecting hole.

[0013] According to an embodiment of the present invention, at least two slideways are provided on the support frame, and the driving member is installed at a position on the support frame corresponding to the slideways.

[0014] According to one embodiment of the present invention, the slide comprises:

[0015] an inclined section, wherein a first end of the inclined section is mounted on the support frame, a second end of the inclined section extends in a direction away from the support frame, and the driving member is mounted on the inclined section;

[0016] A straight section, wherein a first end of the straight section is connected to a second end of the inclined section, and a rain shelter space is formed between the inclined section and the straight section.

[0017] According to an embodiment of the present invention, a first fixed pulley is provided between the first end of the straight section and the second end of the inclined section, and the rainproof tarpaulin is wound around the first fixed pulley.

[0018] According to an embodiment of the present invention, a second fixed pulley is provided at the second end of the straight section, and the rainproof tarpaulin is wound around the second fixed pulley.

[0019] According to an embodiment of the present invention, a temperature sensor is further provided on the rainproof tarpaulin.

[0020] According to an embodiment of the present invention, the support frame is formed by welding profiles.

[0021] A second embodiment of the present invention provides a construction hanging basket, including the above-mentioned rainproof canopy for the construction hanging basket.

[0022] According to the rainproof canopy for the construction hanging basket provided in the embodiment of the first aspect of the utility model, the automated and intelligent design enables the rainproof canopy to quickly respond to weather changes and provide timely protection for the construction hanging basket. This reduces downtime caused by rain and improves construction efficiency. The effective shielding of the rainproof tarpaulin reduces the direct impact of rain on the construction site and workers, and reduces the safety risks of workers such as slipping and falling due to the slippery environment. By timely shielding the rainwater, the damage and rust caused by rainwater erosion to the construction hanging basket and its internal equipment are reduced, thereby extending the service life of the equipment. Automated control reduces the need for manual intervention and reduces equipment damage and maintenance costs caused by improper human operation. At the same time, the durability of the rainproof tarpaulin also reduces the frequency and cost of replacement. The combined application of rainfall detection components and drive components demonstrates the trend of construction equipment developing in the direction of intelligence and automation, and provides a reference and reference for the research and development of more intelligent construction equipment in the future.

[0023] According to the construction hanging basket provided by the embodiment of the second aspect of the present invention, the integrated rainproof awning for the construction hanging basket significantly enhances the protection capability of the construction hanging basket in adverse weather conditions such as rainy days, effectively blocks the invasion of rainwater, and protects the safety of construction equipment and workers. The automated and intelligent design enables the construction hanging basket to quickly respond to weather changes, provide necessary protection for construction in a timely manner, reduce downtime caused by rainwater, and improve construction efficiency. The effective shielding of the rainproof tarpaulin reduces the direct impact of rainwater on the construction site and workers, reduces the safety risks of workers caused by wet and slippery environments, and improves construction safety. By timely shielding the rainwater, the damage and rust caused by rainwater erosion to the construction hanging basket and its internal equipment are reduced, thereby extending the service life of the equipment.

[0024] Improving intelligence: The integrated application of a construction hanging basket and its rainproof canopy demonstrates the trend of construction equipment toward intelligent and automated development, providing strong support for the modernization of the construction industry. This design also provides a useful reference for the future development of more intelligent construction equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] In order to more clearly illustrate the technical solutions in the present invention or the prior art, a brief introduction will be given below to the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0026] Figure 1 It is a schematic front view of the rainproof awning for the construction hanging basket provided by the utility model.

[0027] Figure 2 It is a schematic side view of the rainproof awning for the construction hanging basket provided by the utility model.

[0028] Reference numerals:

[0029] 100. Support frame; 102. Slideway; 104. Driving member; 106. Rainproof tarpaulin; 108. Rain detection member; 110. Inclined section; 112. Straight section; 114. First fixed pulley; 116. Second fixed pulley; 118. Temperature sensor. DETAILED DESCRIPTION

[0030] The following embodiments of the present invention are described in further detail with reference to the accompanying drawings and examples. The following examples are used to illustrate the present invention, but are not intended to limit the scope of the present invention.

[0031] like Figures 1 to 2 As shown, the first embodiment of the present invention provides a rainproof shed for a construction hanging basket, comprising:

[0032] A support frame 100 is provided with a slideway 102;

[0033] A driving member 104 is mounted on the support frame 100;

[0034] A rainproof tarpaulin 106 is slidably mounted on the slideway 102 , and an end portion of the rainproof tarpaulin 106 is in transmission connection with the driving member 104 ;

[0035] The rain detector 108 is mounted on the rainproof tarpaulin 106 and is electrically connected to the driver 104 , so that the driver 104 operates based on the detection value of the rain detector 108 .

[0036] According to the rainproof canopy for the construction hanging basket provided in the embodiment of the first aspect of the utility model, the automated and intelligent design enables the rainproof canopy to quickly respond to weather changes and provide timely protection for the construction hanging basket. This reduces downtime caused by rain and improves construction efficiency. The effective shielding of the rainproof tarpaulin 106 reduces the direct impact of rain on the construction site and workers, and reduces the safety risks of workers such as slipping and falling due to the slippery environment. By timely shielding the rainwater, the damage and rust caused by rainwater erosion to the construction hanging basket and its internal equipment are reduced, thereby extending the service life of the equipment. Automated control reduces the need for manual intervention and reduces equipment damage and maintenance costs caused by improper human operation. At the same time, the durability of the rainproof tarpaulin 106 also reduces the frequency and cost of replacement. The combined application of the rainfall detection component 108 and the drive component 104 demonstrates the trend of construction equipment developing in the direction of intelligence and automation, and provides a reference and reference for the research and development of more intelligent construction equipment in the future.

[0037] This utility model provides a rainproof canopy for construction hanging baskets, aiming to solve the problem of water accumulation during construction hanging basket operations on rainy days, which affects construction efficiency and worker safety. The rainproof canopy has an ingenious structure, integrating automation and intelligent elements. The specific technical solution is as follows:

[0038] The support frame 100 serves as the main structure of the entire rain shelter. It is securely mounted on the construction basket to ensure the shelter's stability and load-bearing capacity. Slideways 102 are designed on the support frame 100 to provide a track for the deployment and folding of the rain shelter 106, ensuring smooth and stable operation.

[0039] Driver 104, mounted on support frame 100, is the core component of the rainproof awning automation system. It can be a motor, cylinder, or other form of drive device, responsible for providing the power to drive the rainproof awning 106 to slide on the slide 102. The selection of driver 104 requires consideration of its power output, control accuracy, and durability to ensure stable operation in all weather conditions.

[0040] The rainproof tarpaulin 106 is made of waterproof, wear-resistant, and age-resistant materials, effectively blocking rainwater. It is slidably mounted on the slideway 102 of the support frame 100 via a specific connection device (such as pulleys or rails), enabling rapid deployment and folding. Its design must consider weight, strength, and durability to accommodate use in varying weather conditions.

[0041] The rainfall detector 108, mounted on the rainproof tarpaulin 106 or support frame 100, is a key component in achieving intelligent operation. This detector monitors rainfall in real time and transmits the measured value to the control system of the driver 104. Based on preset thresholds or logical judgments, the control system automatically activates or deactivates the driver 104, thereby controlling the deployment and retraction of the rainproof tarpaulin 106. This design enables the rainproof awning to automatically adjust its protective status based on actual weather conditions, improving construction efficiency and safety.

[0042] According to an embodiment of the present invention, a slider is provided on the rainproof tarpaulin 106 , and a transmission member is provided at the output end of the driving member 104 , and the transmission member is in transmission connection with the slider.

[0043] In a specific embodiment of the present invention, the deployment and retraction mechanism for a construction basket rain awning has been further refined. Specifically, a slider is provided on the rain awning 106, while a transmission element is mounted on the output end of the drive element 104. This ingenious combination of these two designs ensures smooth and stable sliding of the rain awning 106 on the slide 102.

[0044] The slider is securely fastened to the edge or specific location of the rainproof tarpaulin 106. Its shape and material must match the slideway 102 to ensure stability and durability during sliding. The slider design should take into account the weight of the rainproof tarpaulin 106, its sliding resistance, and potential external impact forces. The appropriate material and structure should be selected to ensure long-term reliability.

[0045] The transmission element, mounted at the output end of the driver 104, is a key component for transmitting power between the driver 104 and the tarpaulin 106. It can be a chain, belt, gear, or other transmission device, depending on the type and power of the driver 104, as well as the weight and sliding resistance of the tarpaulin 106. The transmission element must be designed to ensure a tight fit with the slider and efficient transmission to minimize energy loss and frictional wear.

[0046] The transmission element and the slider are connected via a specific connection mechanism (e.g., meshing of a sprocket and chain, friction between a pulley and belt, or meshing of gears). This connection allows the driver 104 to rotate or move the transmission element upon activation, thereby pushing the tarpaulin 106 along the slideway 102 via the slider. The transmission connection design also needs to account for emergency braking and reverse motion to ensure that the tarpaulin 106 can be quickly stopped or retracted when needed.

[0047] The combined use of the slider and transmission element ensures smoother and more stable sliding of the rainproof tarpaulin 106 on the slideway 102. This reduces resistance and frictional wear during sliding, improving sliding efficiency and service life. The slider design ensures the stability of the rainproof tarpaulin 106 during sliding, preventing deviation or shaking caused by external forces. This helps maintain the flatness and protective effect of the rainproof tarpaulin 106. The close coordination between the transmission element and the drive element 104 makes the deployment and retraction of the rainproof tarpaulin 106 easier to control. By adjusting the output power and speed of the drive element 104, the sliding speed and position of the rainproof tarpaulin 106 can be precisely controlled. In an emergency, the drive element 104 can be controlled to quickly stop or reverse the movement of the rainproof tarpaulin 106, ensuring the safety of the construction basket and workers. This flexible control method improves the construction basket's ability to cope with complex weather conditions. The durable design of the slider and transmission element reduces wear and replacement costs caused by frequent use. This structure also facilitates routine maintenance and repair work.

[0048] According to an embodiment of the present invention, the transmission member is a screw, a connecting hole is provided on the slider, and the screw is rotatably inserted into the connecting hole.

[0049] In another embodiment of the present invention, a more specific innovative design is made for the transmission mechanism of the rainproof canopy for the construction hanging basket. In this embodiment, the transmission member is selected as a screw, and the slider is correspondingly provided with connecting holes, and the screw is rotatably inserted into these connecting holes.

[0050] As a precision transmission element, the lead screw features high precision, high rigidity, and high efficiency. It is typically made of high-strength materials, capable of withstanding heavy loads while maintaining stable transmission performance. In this embodiment, the lead screw serves as the transmission medium between the driver 104 and the tarpaulin 106. Its rotational motion transmits power to the slider, thereby pushing the tarpaulin 106 to slide on the slideway 102.

[0051] To mate with the lead screw, the slider is provided with connection holes. The shape and size of these holes must match the threaded portion of the lead screw to ensure smooth insertion and securement of the lead screw to the slider. The design of the connection holes also needs to take into account the rotational freedom of the lead screw and the sliding requirements of the slider on the slideway 102, thereby ensuring the stability and reliability of the entire transmission mechanism.

[0052] When the driver 104 is activated, it rotates the lead screw. Because the lead screw tightly fits the connecting hole in the slider, the screw's rotational motion is converted into linear motion of the slider. This conversion mechanism enables the tarpaulin 106 to be smoothly deployed or retracted along the slide 102. Furthermore, by adjusting the output power and rotational speed of the driver 104, the lead screw's rotational speed and direction can be precisely controlled, thereby achieving precise control over the sliding speed and position of the tarpaulin 106.

[0053] The high-precision lead screw, as a transmission component, ensures smooth and accurate sliding of the rainproof tarpaulin 106. This helps maintain the flatness and protective effect of the rainproof tarpaulin 106, improving the overall performance of the construction basket. The high-rigidity design of the lead screw makes the entire transmission mechanism more stable and reliable. It can withstand heavy loads and maintain stable transmission performance, ensuring the normal use of the rainproof tarpaulin 106 even in adverse weather conditions. By adjusting the output power and speed of the driver 104, the rotation speed and direction of the lead screw can be easily controlled. This flexible control method allows the construction basket to quickly respond to weather changes according to actual needs, improving construction efficiency. The lead screw's precise transmission mechanism helps reduce noise and vibration during transmission, which helps improve the construction environment and enhance worker comfort. The design of the lead screw and connecting hole makes the entire transmission mechanism relatively simple and clear. This helps reduce maintenance difficulty and cost, and improves the reliability and service life of the equipment. This design also facilitates routine maintenance and component replacement.

[0054] According to an embodiment of the present invention, at least two slideways 102 are provided on the support frame 100 , and the driving member 104 is installed at a position on the support frame 100 corresponding to the slideways 102 .

[0055] In a further embodiment of the present invention, in order to improve the stability and efficiency of the rainproof canopy for the construction hanging basket, the support frame 100 is designed to be provided with at least two slides 102, and the driving member 104 is installed at a position on the support frame 100 corresponding to these slides 102.

[0056] The at least two slides 102 provided on the support frame 100 provide a more stable support and sliding path for the rainproof tarpaulin 106. This design helps to disperse the forces generated during the deployment and folding of the rainproof tarpaulin 106, reducing single-point stress and thereby improving the stability and durability of the entire structure. Furthermore, the multiple slides 102 ensure smoother sliding of the rainproof tarpaulin 106, reducing shaking and noise.

[0057] To accommodate the multiple slides 102, a driver 104 is installed on the support frame 100 at a location corresponding to each slide 102. This means that each slide 102 has an independent driver 104 to drive the tarpaulin 106. This design not only improves transmission efficiency but also allows for independent control of the tarpaulin 106 on each slide 102, providing greater flexibility in adapting to varying weather conditions and construction requirements.

[0058] Although the driving elements 104 on each slide 102 are independently controlled, they need to work together to ensure the overall balance and stability of the rainproof tarpaulin 106. This can be achieved by setting up a synchronous control mechanism so that all driving elements 104 can maintain consistent movement when starting, stopping, or adjusting speed, thereby ensuring that the rainproof tarpaulin 106 can be smoothly deployed or retracted.

[0059] The design of multiple slides 102 and the corresponding installation of drive elements 104 make the construction basket rain shelter more stable and reliable during deployment and folding. This helps reduce shaking and noise, improving the quality of the construction environment. Each slide 102 has an independent drive element 104 to drive the sliding of the rain shelter 106. This design improves transmission efficiency, allowing the rain shelter 106 to be deployed or retracted faster, improving construction efficiency. The multiple slides 102 design allows the rain shelter 106 to be partially deployed or retracted as needed, rather than having to deploy or retract the entire structure. This flexibility helps better adapt to different weather conditions and construction needs. Although the number of slides 102 and drive elements 104 is increased, this design also improves the durability and reliability of the entire structure. In the long term, this helps reduce the costs associated with frequent maintenance and component replacement. A more stable, efficient, and flexible construction basket rain shelter will enhance the user experience and work efficiency of workers, providing a strong guarantee for the smooth progress of construction projects.

[0060] According to one embodiment of the present invention, the slide 102 includes:

[0061] The tilting section 110 has a first end mounted on the support frame 100 and a second end extending away from the support frame 100 . The driving member 104 is mounted on the tilting section 110 .

[0062] The straight section 112 has a first end connected to the second end of the inclined section 110 , and a rain shelter space is formed between the inclined section 110 and the straight section 112 .

[0063] In another embodiment of the present invention, the design of the slideway 102 has been further optimized to better meet the requirements of a rainproof canopy for a construction basket. The slideway 102 is subdivided into an inclined section 110 and a straight section 112. This design not only improves the movement efficiency of the rainproof tarpaulin 106 but also enhances the protective effect of the rainproof canopy.

[0064] The inclined section 110, the first portion of the slideway 102, is securely mounted at its first end on the support frame 100. The inclined section 110 extends away from the support frame 100, forming a predetermined angle of inclination. This design allows the rainproof tarpaulin 106 to gradually rise during deployment, thereby covering a larger construction area. Furthermore, the second end of the inclined section 110 provides a base for connection to the straight section 112, ensuring the continuity of the entire slideway 102. A drive member 104 is mounted on the inclined section 110 to provide power for deploying the rainproof tarpaulin 106.

[0065] The straight section 112, the second portion of the slideway 102, has a first end seamlessly connected to the second end of the inclined section 110. The design of the straight section 112 ensures that the rainproof tarpaulin 106 remains horizontal when fully deployed, providing more stable and uniform protection. Furthermore, the shelter created between the inclined section 110 and the straight section 112 provides additional protection for the construction basket and workers, preventing rainwater from entering from the sides.

[0066] The shelter formed at the junction of the inclined section 110 and the straight section 112 is a key feature of the canopy's design. This space not only effectively blocks rainwater from the sides but also reduces wind-induced splashing. Thus, even in strong winds and heavy rain, the construction basket and workers are more fully protected.

[0067] The design of the inclined section 110 allows the rainproof tarpaulin 106 to gradually rise during deployment, reducing the force and time required for deployment. This helps improve construction efficiency and reduces downtime caused by weather changes. The design of the straight section 112 ensures that the rainproof tarpaulin 106 remains horizontal when fully deployed, providing more stable and uniform protection. Furthermore, the presence of a rain shelter further enhances the protective capabilities of the tarpaulin, allowing the construction basket and workers to operate safely in adverse weather conditions. The combination of the inclined section 110 and the straight section 112 makes the overall structure of the slide 102 more stable and reliable. This design helps reduce shaking and noise caused by wind, improving the quality of the construction environment. A more efficient, stable, and reliable rainproof tarpaulin for construction baskets will enhance the user experience and work efficiency of workers. Furthermore, the presence of a rain shelter ensures that workers can maintain a more comfortable and safe working environment in adverse weather conditions. The rational design of the slide 102 reduces wear and damage caused by rain erosion and wind. Therefore, in the long run, this design helps to reduce the maintenance cost and use cost of the rain shelter for construction hanging baskets.

[0068] According to one embodiment of the present invention, a first fixed pulley 114 is disposed between the first end of the straight section 112 and the second end of the inclined section 110 , and the rainproof tarpaulin 106 is wound around the first fixed pulley 114 .

[0069] In a further embodiment of the present invention, to further optimize the sliding performance and stability of the rainproof tarpaulin 106 on the slide 102, a first fixed pulley 114 is specifically provided between the straight section 112 and the inclined section 110. This design allows the rainproof tarpaulin 106 to more smoothly pass around the connection point, reduces sliding resistance, and increases the stability and durability of the entire system.

[0070] A first fixed pulley 114 is strategically positioned between the first end of the straight section 112 and the second end of the inclined section 110, serving as a guide for the sliding movement of the rainproof tarpaulin 106. The design of the first fixed pulley 114 allows it to rotate freely without generating any additional resistance, thereby ensuring that the rainproof tarpaulin 106 remains stable and smooth during its sliding movement.

[0071] The rainproof tarpaulin 106 is carefully wound around the first fixed pulley 114 and connected to the slideway 102 via the first fixed pulley 114. This winding method not only allows the rainproof tarpaulin 106 to slide along the predetermined path, but also reduces wear and damage caused by direct friction. Furthermore, the presence of the first fixed pulley 114 increases the flexibility of the rainproof tarpaulin 106 during sliding, allowing it to better adapt to different weather conditions and construction requirements.

[0072] The design of the first fixed pulley 114 significantly reduces the resistance of the rainproof tarpaulin 106 during its sliding process, making it easier to deploy and retract. This helps improve construction efficiency and reduces equipment wear and energy consumption caused by excessive resistance. The free-rotating nature of the first fixed pulley 114 ensures that the rainproof tarpaulin 106 remains smooth and stable during its sliding process, reducing shaking and noise. This helps improve the quality of the construction environment and protects the safety of the construction basket and workers. By wrapping the rainproof tarpaulin 106 around the first fixed pulley 114, direct friction between it and the slideway 102 is reduced, thereby extending the service life of the rainproof tarpaulin 106. This design also helps reduce heat and wear caused by friction, improving the durability and reliability of the entire system. The presence of the first fixed pulley 114 allows the rainproof tarpaulin 106 to better adapt to various weather conditions and construction requirements. Whether in strong winds or heavy rain, the rainproof tarpaulin 106 maintains stable sliding performance, providing effective protection for the construction basket and workers. Since the fixed pulley design reduces friction and wear between the rainproof tarpaulin 106 and the slideway 102, it also simplifies the maintenance of the entire system, which helps to reduce maintenance costs and time and improve construction efficiency.

[0073] According to an embodiment of the present invention, a second fixed pulley 116 is provided at the second end of the straight section 112 , and the rainproof tarpaulin 106 is wound around the second fixed pulley 116 .

[0074] In a further refined embodiment of the present invention, to further optimize the sliding path and stability of the rainproof tarpaulin 106, a second fixed pulley 116 is provided at the second end of the straight section 112. This design not only ensures smooth sliding of the rainproof tarpaulin 106 on the straight section 112, but also provides a more flexible and reliable method for handling the rainproof tarpaulin 106 at the end of the slide 102.

[0075] A second fixed pulley 116 is added to the second end of straight section 112. Its location and installation ensure that tarpaulin 106 can smoothly pass over the pulley when it slides to the end of straight section 112. Similar to first fixed pulley 114, second fixed pulley 116 also has the characteristic of free rotation, which can reduce resistance and wear of tarpaulin 106 during sliding.

[0076] The rainproof tarpaulin 106 continues to slide on the straight section 112 and is wound around the second fixed pulley 116 when it reaches it. This winding method allows the rainproof tarpaulin 106 to form a natural transition at the end of the slideway 102, avoiding damage and inconvenience caused by direct collision or folding. At the same time, the second fixed pulley 116 also serves to guide the rainproof tarpaulin 106, ensuring that it slides along the predetermined path.

[0077] The provision of the second fixed pulley 116 further optimizes the sliding performance of the tarpaulin 106 on the straight section 112, reducing sliding resistance and frictional wear. This allows the tarpaulin 106 to be deployed and retracted more easily and smoothly. The placement of the second fixed pulley 116 at the end of the straight section 112 effectively enhances the stability of the tarpaulin 106 in this position. This helps reduce sway and deflection caused by wind or other external forces, improving the reliability and safety of the entire awning system. By being wound around the second fixed pulley 116, the handling of the tarpaulin 106 at the end of the slide 102 is more rational and reliable. This helps reduce damage and wear caused by direct impact or folding, extending the service life of the tarpaulin 106. The design of the second fixed pulley 116 simplifies the operation and maintenance of the tarpaulin 106. Operators can more easily control the deployment and retraction of the tarpaulin 106 without having to worry about handling it at the end of the slide 102. At the same time, by reducing the risk of wear and damage, maintenance costs and time are also reduced. The perfect combination of second fixed pulley 116 and rainproof tarpaulin 106 not only improves the practical performance of the system, but also adds a touch of aesthetics. This design makes the entire rainproof awning system look more neat, orderly, and professional.

[0078] According to an embodiment of the present invention, a temperature sensor 118 is further provided on the rainproof tarpaulin 106 .

[0079] In another innovative embodiment of the present invention, to further enhance the intelligence and safety of the construction basket rain shelter, a temperature sensor 118 is cleverly installed on the rainproof tarpaulin 106. This design enables the rainproof tarpaulin 106 to not only provide basic protection but also monitor and provide real-time feedback on the temperature conditions within its coverage area.

[0080] Temperature sensor 118 is precisely mounted on tarpaulin 106, its location chosen to accurately reflect temperature changes within the covered area. The sensor is made of high-precision, high-sensitivity components, capable of real-time monitoring and transmitting temperature data to the control system or related display device.

[0081] Temperature data collected by temperature sensor 118 is transmitted to the control system via wired or wireless means. The control system processes and analyzes the received data to assess the current temperature conditions and take appropriate measures based on preset thresholds or conditions. For example, if the temperature exceeds or falls below a safe range, the control system can issue an alarm or automatically adjust the environmental parameters within the construction basket to maintain a suitable operating temperature.

[0082] By installing a temperature sensor 118 on the rainproof tarpaulin 106, the construction basket rainproof canopy enables real-time temperature monitoring and feedback within the covered area. This feature makes the rainproof canopy system more intelligent and automated, enabling it to automatically adjust its operating status based on changing environmental conditions. The temperature sensor 118 can promptly detect and report potential temperature risks, such as overheating or overcooling. This helps prevent safety accidents caused by abnormal temperatures and protects the construction basket and workers. By monitoring temperature data in real time, construction workers can more accurately understand the current working environment and rationally plan and schedule their work. This helps improve construction efficiency and reduce downtime caused by environmental factors. The control system can automatically adjust environmental parameters within the construction basket, such as ventilation, heating, or cooling, based on the data provided by the temperature sensor 118. This helps provide workers with a more comfortable and suitable working environment, improving their work efficiency and satisfaction. By real-time monitoring and warning of potential temperature issues, the construction basket rainproof canopy can proactively detect and resolve potential failures or damage. This helps reduce maintenance costs and time caused by equipment failure or damage.

[0083] According to an embodiment of the present invention, the support frame 100 is formed by welding profiles.

[0084] In another embodiment of the present invention, the structure of the support frame 100 is clearly described, that is, it is formed by welding profiles. This design not only ensures the strength and stability of the support frame 100, but also improves its manufacturing efficiency and cost-effectiveness.

[0085] The manufacturing of support frame 100 first involves the selection of profiles. As a standardized metal material, profiles offer excellent mechanical and processing properties. When selecting profiles, comprehensive consideration is given to factors such as the load-bearing requirements of support frame 100, the operating environment, and the cost budget to ensure the performance and quality of the final product.

[0086] After the profiles are selected, the next step is welding. Welding is a process that melts and joins two or more metal parts. During the manufacturing process of the support frame 100, the profiles are precisely cut, positioned, and fixed, and then welded together to securely connect them. The welding process requires strict control of parameters such as welding temperature, welding speed, and welding pressure to ensure the quality and strength of the welded joint.

[0087] The support frame 100, formed by welding profiles, is sturdy and durable. Its rational structural design allows it to withstand various forces and moments from the rainproof tarpaulin 106 and the external environment. Furthermore, the support frame 100 exhibits excellent stability and wind resistance, enabling it to maintain stable operation even in adverse weather conditions.

[0088] The support frame 100, formed by profile welding, has high strength and stability and can withstand large loads and impacts. This helps ensure the safety and reliability of the rainproof tarpaulin 106 during use. The profile welding process has the advantages of high production efficiency and high processing precision. Through automated welding equipment and assembly line operations, the manufacturing efficiency and quality stability of the support frame 100 can be greatly improved. Compared with other manufacturing processes, the profile welding process has certain advantages in terms of material cost and processing cost. By optimizing the design and production process, the manufacturing cost and sales price of the support frame 100 can be further reduced.

[0089] A second embodiment of the present invention provides a construction hanging basket, including the rainproof canopy for the construction hanging basket as described above.

[0090] According to the construction hanging basket provided by the embodiment of the second aspect of the present invention, the integrated rainproof awning for the construction hanging basket significantly enhances the protection capability of the construction hanging basket in adverse weather conditions such as rainy days, effectively blocks the invasion of rainwater, and protects the safety of construction equipment and workers. The automated and intelligent design enables the construction hanging basket to quickly respond to weather changes, provide necessary protection for construction in a timely manner, reduce downtime caused by rainwater, and improve construction efficiency. The effective shielding of the rainproof tarpaulin 106 reduces the direct impact of rainwater on the construction site and workers, reduces the safety risks of workers caused by wet and slippery environments, and improves construction safety. By timely shielding the rainwater, the damage and rust caused by rainwater erosion to the construction hanging basket and its internal equipment are reduced, thereby extending the service life of the equipment.

[0091] The second embodiment of the present invention provides a construction basket that offers innovative improvements over conventional construction baskets, specifically integrating a rainproof canopy for the construction basket as described above. This design not only retains the construction basket's original basic functions of carrying, moving, and operating, but also significantly enhances its operational capabilities and safety in adverse weather conditions such as rain.

[0092] The main structure of the construction basket remains unchanged, including key components such as the basket frame, suspension system, and work platform. To this end, a rain shelter for the construction basket, as described above, has been added. The shelter's support frame 100 is securely mounted to the basket frame, ensuring stability and reliability under various operating conditions. A driver 104 is installed at an appropriate location on the basket frame as needed to power the deployment and retraction of the rain shelter 106.

[0093] The rainproof tarpaulin 106 is connected to the basket frame via the slideway 102, forming a retractable waterproof barrier. In clear weather or when protection is not needed, the tarpaulin 106 can be retracted and secured to the basket frame, without affecting the normal operation of the construction basket. However, in rainy weather or when protection is needed, the rainfall detector 108 automatically monitors rainfall and, based on a preset threshold or logic, activates the driver 104, rapidly deploying the tarpaulin 106 to provide comprehensive protection for the construction basket.

[0094] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present invention.

Claims

1. A rainproof awning for a construction hanging basket, characterized in that: include: A support frame (100), wherein a slideway (102) is provided on the support frame (100); A driving member (104) mounted on the support frame (100); A rainproof tarpaulin (106) is slidably mounted on the slideway (102), and an end portion of the rainproof tarpaulin (106) is in transmission connection with the driving member (104); A rainfall detection component (108) is mounted on the rainproof tarpaulin (106) and is electrically connected to the driving component (104) so ​​that the driving component (104) operates based on the detection value of the rainfall detection component (108).

2. The rainproof awning for a construction hanging basket according to claim 1 is characterized in that: A slider is provided on the rainproof tarpaulin (106), and a transmission member is provided at the output end of the driving member (104), and the transmission member is in transmission connection with the slider.

3. The rainproof awning for a construction hanging basket according to claim 2 is characterized in that: The transmission member is a lead screw, and a connecting hole is provided on the slider. The lead screw is rotatably inserted into the connecting hole.

4. The rainproof awning for a construction hanging basket according to claim 2 is characterized in that: At least two slideways (102) are provided on the support frame (100), and the driving member (104) is installed at a position on the support frame (100) corresponding to the slideways (102).

5. The rainproof awning for a construction hanging basket according to claim 2 is characterized in that: The slideway (102) comprises: an inclined section (110), wherein a first end of the inclined section (110) is mounted on the support frame (100), a second end of the inclined section (110) extends in a direction away from the support frame (100), and the driving member (104) is mounted on the inclined section (110); A straight section (112) is provided, wherein a first end of the straight section (112) is connected to a second end of the inclined section (110), and a rain shelter space is formed between the inclined section (110) and the straight section (112).

6. The rainproof awning for a construction hanging basket according to claim 5 is characterized in that: A first fixed pulley (114) is provided between the first end of the straight section (112) and the second end of the inclined section (110), and the rainproof tarpaulin (106) is wound around the first fixed pulley (114).

7. The rainproof canopy for a construction hanging basket according to claim 5, characterized in that: A second fixed pulley (116) is provided at the second end of the straight section (112), and the rainproof tarpaulin (106) is wound around the second fixed pulley (116).

8. The rainproof canopy for a construction hanging basket according to any one of claims 1 to 7, characterized in that: A temperature sensor (118) is also provided on the rainproof tarpaulin (106).

9. The rainproof canopy for a construction hanging basket according to any one of claims 1 to 7, characterized in that: The support frame (100) is formed by welding profiles.

10. A construction hanging basket, characterized in that: It comprises a rainproof shed for a construction hanging basket as described in any one of claims 1 to 9.

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