Load-carrying detachable combined type cylindrical captive balloon
By designing a detachable combined cylindrical tethered balloon, a combination of multiple small cylindrical balloons is used to achieve a large load, solving the problems of high cost and large space occupation of helicopters, and achieving high efficiency, safety and environmental protection of mountain towers construction.
Patent Information
- Application Number
- CN202323612766.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2023-12-28
- Publication Date
- 2024-12-24
- Estimated Expiration
- 2033-12-28
AI Technical Summary
The prior art uses helicopters in mountain tower lifting is expensive, takes up a lot of space, and has low construction efficiency, so it is impossible to flexibly use large load-tied balloons in complex mountainous terrain.
A load-load-removable combined cylindrical tethered balloon is designed to achieve flexible lifting and deployment by combining multiple small cylindrical balloons to achieve large loads, combined with auxiliary winch/winder and tower.
It realizes efficient, safe and environmentally friendly tower construction in mountainous areas, reduces costs and maintenance costs, improves construction efficiency and safety, and is suitable for a variety of lifting scenarios.
Smart Images

Figure CN222224416U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the field of tethered balloon hoisting, in particular to a load-bearing detachable combined cylindrical tethered balloon. Background Art
[0002] A tethered balloon is an unpowered balloon aircraft. The balloon is connected to ground facilities with a tether cable, and the sphere is filled with helium, relying on buoyancy to hover in the air. A tethered balloon system generally consists of a sphere, a tether cable, mooring facilities, measurement and control, power supply and other main parts. The sphere is a fully flexible structure made of multifunctional flexible composite materials, and its appearance is generally streamlined. The tail fin at the tail of the sphere is mostly in a cross layout or an inverted Y-shaped layout. The inner part of the sphere is divided into two parts: a main air chamber filled with helium and a secondary airbag filled with air. The buoyancy of the balloon is provided by the main air chamber, and the secondary airbag is used to adjust the pressure of the sphere so that the sphere always maintains good rigidity.
[0003] The working altitude of a tethered balloon depends on factors such as the balloon volume, load weight and mooring weight, and generally ranges from a few hundred meters to 3,000 meters. The wind resistance of a tethered balloon is related to the aerodynamic characteristics, layout, net buoyancy and volume of the sphere. The wind resistance of a small tethered balloon is generally level 5 or 6, while that of a large balloon can reach level 8 or above.
[0004] Compared with other high and low altitude aircraft, tethered balloons have the characteristics of long hovering time, which can last from several days to one month, strong weather resistance, simple and flexible deployment, and low construction and maintenance costs.
[0005] Prior art 1
[0006] In foreign countries, helicopters are often used for tower lifting in mountainous areas. High-strength cables are used from the bottom of the spiral load-carrying helicopter to lift the tower through fixed connection lifting points.
[0007] Disadvantages of the prior art 1
[0008] The cost of use is very high. The rental and fuel consumption of load-carrying helicopters are very high. On average, each tower erection consumes more than 400,000 yuan. Each tower erection can only be hoisted by a single load-carrying helicopter, and the position of the hoisting point is not easy to change, and there is no diversified hoisting solution for towers of different weights. The mountainous terrain is complex, and load-carrying helicopters need a large open area for takeoff and landing. Cutting down trees in the mountainous area to meet construction conditions is not in line with the advanced concept of environmentally friendly construction. Load-carrying helicopters cannot maintain tower erection work for a long time, which reduces the efficiency of continuous construction.
[0009] Prior art 2
[0010] Use spherical or elliptical tethered balloons for load transportation.
[0011] Disadvantages of the second prior art
[0012] A spherical or elliptical tethered balloon with a heavy load needs to occupy a very large space whether it is in an inflated or uninflated state. When operating in a mountainous area where even large vehicles cannot enter, the tethered balloon with a heavy load cannot be used. Utility Model Content
[0013] In order to solve the problems existing in the prior art, the utility model provides a load-bearing detachable combined cylindrical tethered balloon and a tower lifting method, which solves the problems of large space occupation and low construction efficiency during lifting.
[0014] The technical solution provided by the utility model is as follows:
[0015] A load-bearing detachable combined cylindrical tethered balloon comprises a combined cylindrical tethered balloon, an auxiliary winch / hoist, a main winch and a tower; the combined cylindrical tethered balloon is connected to the main winch, a plurality of the auxiliary winches / hoists surround the main winch and the outer side of the tower in a circumferential direction, and a tower is arranged on one side of the main winch.
[0016] Preferably, the combined cylindrical tethered balloon comprises a cylindrical tethered balloon and a central connecting member;
[0017] The cylindrical tethered balloon includes a first load belt connector, a second load belt connector and a tethered balloon. The first load belt connector is arranged at the top of the tethered balloon, and the second load belt connector is arranged at the bottom of the tethered balloon. The first load belt connector includes a connector, a connecting slider and a self-locking hook. A connecting slider is arranged at the bottom of the connector, and a self-locking hook is arranged at the bottom of the connecting slider. The first load belt connector has the same structure as the second load belt connector.
[0018] Preferably, the retention ball comprises an external coating fabric, an internal airbag, a load belt and an auxiliary airbag; the load belt is arranged on the top of the external coating fabric, the internal airbag is arranged inside the external coating fabric, and the auxiliary airbag is arranged inside the internal airbag.
[0019] Preferably, the central connecting member comprises a triple column connecting mechanism and a quadruple column connecting mechanism;
[0020] The triple column connection mechanism comprises a first triple column connector, a triple column connection center and a second triple column connector; the bottom of the first triple column connector is connected to the triple column connection center, and the bottom of the triple column connection center is connected to the second triple column connector.
[0021] Preferably, the quadruple-column connection mechanism comprises a first quadruple-column connector, a quadruple-column connection center and a second quadruple-column connector; the bottom of the first quadruple-column connector is connected to the quadruple-column connection center, and the quadruple-column connection center is connected to the second quadruple-column connector.
[0022] The beneficial effects of the load-bearing detachable combined cylindrical tethered balloon and tower hoisting method of the utility model are as follows:
[0023] 1. Compared with other high and low altitude aircraft, the tethered balloon of the utility model has the characteristics of long hovering time, continuous hovering time of several days to one month, strong weather resistance, simple and flexible deployment, low cost and maintenance cost, etc.
[0024] 2. The utility model can stay in the air for a long time and is very economical. After each inflation is completed, it can work continuously for at least several days, reducing the average daily cost per base; and it ensures continuous operation, so that the efficiency of the tower erection project is significantly improved.
[0025] 3. The utility model has strong weather resistance, and the tethered balloon can also be used for construction in relatively bad weather, which can improve safety while ensuring the progress of the project.
[0026] 4. The utility model is convenient for transportation, and small tethered balloons are more convenient to transport.
[0027] 5. The utility model has strong adaptability. According to the weight of the objects to be lifted, the appropriate number of tethered balloons is selected and assembled together to provide power.
[0028] 6. The utility model has high economic efficiency and low cost of manufacture and maintenance.
[0029] 7. The utility model has high construction efficiency and long air time and can operate for a long time.
[0030] 8. The utility model has high safety and strong weather resistance. The tethered balloon can also be used for construction in relatively bad weather, which can improve safety while ensuring the progress of the project.
[0031] 9. The device of the utility model is simple and flexible to deploy. Through modularization, it can be assembled in engineering applications, and can have more combinations and is suitable for more lifting construction scenarios.
[0032] 10. Environmental protection: the utility model reduces the horizontal width and lengthens the vertical height while retaining the original volume. There is no need to cut down too many trees to create a larger construction area. BRIEF DESCRIPTION OF THE DRAWINGS
[0033] Figure 1 This is a structural diagram of the combined cylindrical tethered balloon of the utility model.
[0034] Figure 2 This is a diagram of a triple column connection mechanism of the utility model.
[0035] Figure 3 This is a diagram of a four-column connection mechanism of the utility model.
[0036] Figure 4 The utility model is a schematic diagram of the overall tower operation scheme of the load-bearing detachable combined cylindrical tethered balloon.
[0037] Figure 5 The utility model is a schematic diagram of an overall tower erection operation implementation scheme for a load-bearing detachable combined cylindrical tethered balloon.
[0038] Figure markings: 1-connector, 2-connecting slider, 3-self-locking hook, 4-external coated fabric, 5-internal airbag, 6-load belt, 7-auxiliary airbag, 8-1-first triple column connector, 8-2-second triple column connector, 9-triple column connection center, 10-1-first quadruple column connector, 10-2-second quadruple column connector, 11-retention ball, 12-auxiliary winch / hoist, 13-main winch, 14-tower, 15-quadruple column connection center, 16-1-first load belt connector, 16-2-second load belt connector. DETAILED DESCRIPTION
[0039] The embodiments of the present utility model are described in detail below with reference to the accompanying drawings.
[0040] The specific implementation methods of the utility model are described below to facilitate technical personnel in this technical field to understand the utility model, but it should be clear that the utility model is not limited to the scope of the specific implementation methods. For ordinary technical personnel in this technical field, as long as various changes are within the spirit and scope of the utility model defined and determined by the attached claims, these changes are obvious, and all utility model creations using the concept of the utility model are protected.
[0041] like Figure 1 As shown, a load-bearing detachable combined cylindrical tethered balloon comprises a combined cylindrical tethered balloon, an auxiliary winch / hoist 12, a main winch 13 and a tower 14; the combined cylindrical tethered balloon is connected to the main winch 13, and several of the auxiliary winches / hoists 12 surround the outer sides of the main winch 13 and the tower 14 in a circumferential direction, and the tower 14 is arranged on one side of the main winch 13.
[0042] The combined cylindrical tethered balloon of the present embodiment comprises a cylindrical tethered balloon and a central connecting member;
[0043] The cylindrical tethered balloon includes a first load belt connector 16-1, a second load belt connector 16-2 and a tethered balloon. The first load belt connector 16-1 is arranged at the top of the tethered balloon, and the second load belt connector 16-2 is arranged at the bottom of the tethered balloon. The first load belt connector 16-1 includes a connector 1, a connecting slider 2 and a self-locking hook 3; a connecting slider 2 is arranged at the bottom of the connector 1, and a self-locking hook 3 is arranged at the bottom of the connecting slider 2; the first load belt connector 16-1 has the same structure as the second load belt connector 16-2.
[0044] The retention ball includes an external coated fabric 4, an internal airbag 5, a load belt 6 and an auxiliary airbag 7; the load belt 6 is arranged on the top of the external coated fabric 4, the internal airbag 5 is arranged inside the external coated fabric 4, and the auxiliary airbag 7 is arranged inside the internal airbag 5.
[0045] The central connecting member of this embodiment includes a triple column connecting mechanism and a quadruple column connecting mechanism.
[0046] The triple column connection mechanism includes a first triple column connector 8-1, a triple column connection center 9 and a second triple column connector 8-2; the bottom of the first triple column connector 8-1 is connected to the triple column connection center 9, and the bottom of the triple column connection center 9 is connected to the second triple column connector 8-2.
[0047] When implementing this embodiment, the central connecting member can also be a five-column connecting mechanism, a six-column connecting mechanism, an N-column connecting mechanism, etc. The five-column connecting mechanism includes a first five-column connector, a five-column connecting center and a second five-column connector; the bottom of the first five-column connector is connected to the five-column connecting center, and the bottom of the five-column connecting center is connected to the second five-column connector. Similarly, the six-column connecting mechanism and the N-column connecting mechanism have similar structures where N≥3 and N is a natural number.
[0048] The quadruple-column connection mechanism of this embodiment includes a first quadruple-column connector 10-1, a quadruple-column connection center 15 and a second quadruple-column connector 10-2; the bottom of the first quadruple-column connector 10-1 is connected to the quadruple-column connection center 15, and the quadruple-column connection center 15 is connected to the second quadruple-column connector 10-2.
[0049] When this embodiment is implemented, a plurality of small cylindrical tethered balloons are connected together through a central connecting piece to replace a large loaded tethered balloon to provide lift with the same load.
[0050] The central connecting piece is detachable, lightweight and strong. The number of balloons can be adjusted according to the required load, so that all small cylindrical tethered balloons form a whole for construction load-bearing operations.
[0051] The front end of the cylindrical tethered balloon is equipped with a self-recording instrument, a radio telemetry instrument, or an instrument that can transmit information through a cable. The instrument can also be dropped to conduct gradient observations at several predetermined heights, which can predict construction climate conditions and ensure the safety of the construction process.
[0052] The lower end of the cylindrical tethered balloon is adaptively weighted to ensure that it always moves perpendicular to the ground during construction.
[0053] The cylindrical integral system retention balloon is a fully flexible structure made of multifunctional flexible composite materials. The inner part is divided into a main air chamber filled with helium and a secondary air bag filled with air. The buoyancy of the balloon is provided by the main air chamber, and the secondary air bag 7 is used to adjust the pressure of the balloon so that the balloon always maintains good rigidity. The balloon is supported by a high-strength carbon fiber skeleton to maintain its shape after the balloon is inflated.
[0054] The small cylindrical tethered balloon is provided with load belt connectors at the top and bottom to facilitate connection with the central connector.
[0055] Among them, the connecting piece 1 is of hollow design to reduce weight, and is made of high-strength alloy, which can fix small cylindrical balloons without deformation; the connecting slider 2 can choose a fixed position according to the size and number of the connected cylindrical tethered balloons; the self-locking hook 3 is used to connect the cylindrical tethered balloon load belt 6; the external coated fabric 4 is made of high-strength polyester and can withstand huge pressure to ensure the stability of the overall structure; the internal airbag 5 is made of high-strength TPU; the load belt 6 is distributed in the upper and lower planes, mainly plays a connecting role, and the bearing capacity is in the center. It is composed of lattice stitching and high-density composite materials and can bear a large weight; the auxiliary airbag 7 is used to ensure the stability of the balloon during construction and use after the cylindrical tethered balloon is inflated as a whole; the triple column connector 8 can balance and fix three small cylindrical tethered balloons; the connecting center column 9 is used to fix the shape of the combined cylindrical tethered balloon as a whole to ensure the stability of the overall device; the quadruple column connector 10 can balance and fix four small cylindrical tethered balloons.
[0056] The connecting piece 1 and the connecting slider 2 are connected through the built-in slide rail of the profile; the connecting slider 2 and the self-locking hook 3 are welded together; the self-locking hook 3 and the cylindrical tethered balloon are connected through a lock; the components on the cylindrical tethered balloon are all sewn together with high-strength polyester suture thread, or heat-sealed; the triple cylindrical connector 8, the quadruple cylindrical connector 10 and the connecting center column 9 are connected through external threads.
[0057] When this implementation plan is implemented, Figure 4 The overall tower erection operation scheme of the load-bearing detachable combined cylindrical tethered balloon is shown in FIG. 1 , which is composed of a new load-bearing detachable combined cylindrical tethered balloon 11, an auxiliary winch / windlass 12, a main winch 13, and a tower 14. The overall tower erection operation scheme is as follows: Figure 4 and Figure 5As shown: the overall anchoring equipment, the main winch 13 is connected to the combined cylindrical tethered balloon 11 to control the lifting load; multiple auxiliary winches / winding machines 12 control the lifting movement direction of the combined cylindrical tethered balloon by retracting and releasing in different directions. It is inflated and raised straightly from the top of the main winch 13. The maximum stable lift that the combined cylindrical tethered balloon 11 can provide is obtained through the anchoring vehicle sensor. If the expected lifting force value for lifting safety is reached, the tower 14 lifting point is connected to complete the lifting; if the expected lifting force value for lifting safety is not reached, cylindrical balloons of different sizes can be combined and connected through different central connecting pieces to achieve the expected safe lifting force range and complete the lifting of the overall tower.
Claims
1. A load-bearing detachable combined cylindrical tethered balloon, characterized in that: The invention comprises a combined cylindrical tethered balloon (11), an auxiliary winch / hoist (12), a main winch (13) and a tower (14); the combined cylindrical tethered balloon is connected to the main winch (13), a plurality of the auxiliary winches / hoists (12) surround the main winch (13) and the outer side of the tower (14) in a circumferential direction, and the tower (14) is arranged on one side of the main winch (13); The combined cylindrical tethered balloon comprises a cylindrical tethered balloon and a central connecting piece; The cylindrical tethered balloon comprises a first load belt connecting piece (16-1), a second load belt connecting piece (16-2) and a tethered balloon, wherein the first load belt connecting piece (16-1) is arranged at the top of the tethered balloon, and the second load belt connecting piece (16-2) is arranged at the bottom of the tethered balloon, and the first load belt connecting piece (16-1) comprises a connecting piece (1), a connecting slider (2) and a self-locking hook (3); a connecting slider (2) is arranged at the bottom of the connecting piece (1), and a self-locking hook (3) is arranged at the bottom of the connecting slider (2); the first load belt connecting piece (16-1) and the second load belt connecting piece (16-2) have the same structure; The retention ball comprises an external coating fabric (4), an internal airbag (5), a load belt (6) and an auxiliary airbag (7); the load belt (6) is arranged on the top of the external coating fabric (4), the internal airbag (5) is arranged inside the external coating fabric (4), and the auxiliary airbag (7) is arranged inside the internal airbag (5); The central connecting member includes a triple column connecting mechanism and a quadruple column connecting mechanism; The triple column connection mechanism comprises a first triple column connector (8-1), a triple column connection center (9) and a second triple column connector (8-2); the first triple column connector (8-1) is connected to the triple column connection center (9) at its bottom, and the triple column connection center (9) is connected to the second triple column connector (8-2) at its bottom; The quadruple-column connection mechanism comprises a first quadruple-column connector (10-1), a quadruple-column connection center (15), and a second quadruple-column connector (10-2); the bottom of the first quadruple-column connector (10-1) is connected to the quadruple-column connection center (15), and the quadruple-column connection center (15) is connected to the second quadruple-column connector (10-2).
